Functional device and method for controlling a variable physical parameter

Abstract

Functional devices and methods for controlling a variable physical parameter are disclosed. A functional device for controlling a first variable physical parameter includes a trigger medium, a processing unit, and a sensing unit. The first variable physical parameter is characterized based on a target state thereof. The trigger medium causes a sequence of trigger signals to occur. The processing unit causes a second variable physical parameter to change in response to the sequence of trigger signals. The second variable physical parameter is characterized based on a physical parameter application range represented by a measurement value application range. The sensing unit senses the second variable physical parameter to generate a sensing signal. The processing unit causes the first variable physical parameter to be in the target state on a condition that the processing unit determines, based on the sensing signal and the measurement value application range, that the second variable physical parameter is currently in the physical parameter application range.

Description

Technical Field

[0001] This disclosure relates to functional devices, and more particularly to functional devices and methods for controlling variable physical parameters. Background Technology

[0002] The control device generates control signals to control a physical parameter application unit included in a functional device. The functional device uses the control signals to control the physical parameter application unit. The physical parameter application unit can use at least one of mechanical energy, electrical energy, and light energy, and can be one of an electric motor for access control, a relay for power control, and an energy converter for energy conversion. To effectively control the physical parameter application unit, the functional device can obtain a physical parameter status code representing the state of the physical parameters. The functional device may require improved mechanisms to effectively use the physical parameter status code and thereby effectively control the physical parameter application unit.

[0003] U.S. Patent Publication No. 2015 / 0357887 A1 discloses a product specification setting device and a fan motor having the same. U.S. Patent Publication No. 7,411,505 B2 discloses a switch status and an RFID tag. Summary of the Invention

[0004] The purpose of this disclosure is to provide a functional device for controlling a first variable physical parameter in relation to a second variable physical parameter. The second variable physical parameter is related to a range of application values ​​for a measurement. The functional device effectively controls the first variable physical parameter by determining a range limit value for the application range of the measurement and sensing the second variable physical parameter.

[0005] Another object of this disclosure is to provide a functional device for controlling a first variable physical parameter in relation to a second variable physical parameter. The second variable physical parameter is related to a range of measurement values ​​and changes in response to a specific event. The functional device effectively controls the first variable physical parameter by sensing the second variable physical parameter and using the range of measurement values.

[0006] Embodiments of this disclosure provide a functional device for controlling a first variable physical parameter, wherein the first variable physical parameter is characterized based on a target state. The functional device includes a triggering medium, a sensing unit, and a processing unit. The triggering medium is configured to cause a first trigger signal sequence to occur. The sensing unit is configured to sense a second variable physical parameter to generate a sensing signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range. The processing unit, coupled to the triggering medium and the sensing unit, determines a first application range limit value for the measured value application range in response to the first trigger signal sequence, and, when the processing unit determines, based on the sensing signal and the determined first application range limit value, that the second variable physical parameter is currently within the physical parameter application range, places the first variable physical parameter in the target state.

[0007] Another embodiment of this disclosure provides a method for controlling a first variable physical parameter, wherein the first variable physical parameter is characterized based on a target state and related to a second variable physical parameter, and the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range. The method includes the steps of: causing a trigger signal sequence to occur; determining an application range limit value for the measured value application range in response to the trigger signal sequence; sensing the second variable physical parameter to generate a sensing signal; and placing the first variable physical parameter in the target state, provided that the physical parameter application range currently in which the second variable physical parameter is located is determined based on the sensing signal and the determined application range limit value.

[0008] Another embodiment of this disclosure provides a functional device for controlling a first variable physical parameter, wherein the first variable physical parameter is characterized based on a target state. The functional device includes a triggering medium, a processing unit, and a sensing unit. The triggering medium is configured to cause a sequence of trigger signals to occur. The processing unit is coupled to the triggering medium and responds to the sequence of trigger signals to change a second variable physical parameter, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a range of measured values. The sensing unit is coupled to the processing unit and configured to sense the second variable physical parameter to generate a sensing signal, wherein the processing unit places the first variable physical parameter in the target state, provided that the processing unit determines, based on the sensing signal and the range of measured values, the current physical parameter application range in which the second variable physical parameter is located.

[0009] Another embodiment of this disclosure provides a method for controlling a first variable physical parameter, wherein the first variable physical parameter is characterized based on a target state. The method includes the steps of: causing a trigger signal sequence to occur; in response to the trigger signal sequence, changing a second variable physical parameter, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range; sensing the second variable physical parameter to generate a sensing signal; and placing the first variable physical parameter in the target state, provided that the physical parameter application range in which the second variable physical parameter is currently located is determined based on the sensing signal and the measured value application range.

[0010] Another embodiment of this disclosure provides a functional device for controlling a first variable physical parameter, wherein the first variable physical parameter is characterized based on a target state. The functional device includes a sensing component, a sensing unit, and a processing unit. The sensing component is configured to sense the variable physical application parameter to generate a first sensing application signal. The sensing unit is configured to sense a second variable physical parameter to generate a sensing signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range. The processing unit, coupled to the sensing component and the sensing unit, determines a first application range limit value for the measured value application range in response to the first sensing application signal, and, when the processing unit determines, based on the sensing signal and the determined first application range limit value, that the second variable physical parameter is currently within the physical parameter application range, places the first variable physical parameter in the target state.

[0011] Another embodiment of this disclosure provides a method for controlling a first variable physical parameter, wherein the first variable physical parameter is characterized based on a target state and related to a second variable physical parameter, and the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range. The method includes the steps of: sensing the variable physical parameter to generate a sensing application signal; determining an application range limit value for the measured value application range in response to the sensing application signal; sensing the second variable physical parameter to generate a sensing signal; and placing the first variable physical parameter in the target state, provided that the physical parameter application range in which the second variable physical parameter is currently located is determined based on the sensing signal and the determined application range limit value.

[0012] Another embodiment of this disclosure provides a functional device for controlling a first variable physical parameter, wherein the first variable physical parameter is characterized based on a target state. The functional device includes a sensing component, a processing unit, and a sensing unit. The sensing component is configured to sense the variable physical application parameter to generate a sensing application signal. The processing unit is coupled to the sensing component and responds to the sensing application signal to change a second variable physical parameter, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range. The sensing unit is coupled to the processing unit and configured to sense the second variable physical parameter to generate a sensing signal, wherein, provided that the processing unit determines, based on the sensing signal and the measured value application range, the second variable physical parameter is currently in the physical parameter application range, the processing unit places the first variable physical parameter in the target state.

[0013] Another embodiment of this disclosure provides a method for controlling a first variable physical parameter, wherein the first variable physical parameter is characterized based on a target state. The method includes the steps of: sensing a variable physical application parameter to generate a sensing application signal; changing a second variable physical parameter in response to the sensing application signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range; sensing the second variable physical parameter to generate a sensing signal; and placing the first variable physical parameter in the target state, provided that the physical parameter application range in which the second variable physical parameter is currently located is determined based on the sensing signal and the measured value application range.

[0014] Another embodiment of this disclosure provides a functional device for controlling a first variable physical parameter, wherein the first variable physical parameter is characterized based on a target state. The functional device includes a sensing unit, a receiving unit, and a processing unit. The sensing unit is configured to sense a second variable physical parameter to generate a sensing signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range. The receiving unit is configured to receive a first reference signal, wherein the first reference signal transmits a first application range limit value of the measured value application range. The processing unit is coupled to the sensing unit and the receiving unit, and, upon determining, places the first variable physical parameter in the target state based on the sensing signal and the transmitted first application range limit value, the physical parameter application range in which the second variable physical parameter is currently located.

[0015] Another embodiment of this disclosure provides a method for controlling a first variable physical parameter, wherein the first variable physical parameter is characterized based on a target state and related to a second variable physical parameter, and the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range. The method includes the steps of: receiving a reference signal, wherein the reference signal transmits an application range limit value of the measured value application range; sensing the second variable physical parameter to generate a sensing signal; and placing the first variable physical parameter in the target state, provided that the physical parameter application range in which the second variable physical parameter is currently located is determined based on the sensing signal and the transmitted application range limit value.

[0016] Another embodiment of this disclosure provides a functional device for controlling a first variable physical parameter, wherein the first variable physical parameter is characterized based on a target state. The functional device includes a receiving unit, a processing unit, and a sensing unit. The receiving unit is configured to receive a reference signal, wherein the reference signal transmits a measured reference value related to a second variable physical parameter. The processing unit is coupled to the receiving unit and changes the second variable physical parameter based on the transmitted measured reference value, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by the application range of the measured value. The sensing unit is coupled to the processing unit and senses the second variable physical parameter to generate a sensing signal, wherein the processing unit sets the first variable physical parameter to the target state, provided that the processing unit determines, based on the sensing signal and the application range of the measured value, that the second variable physical parameter is currently in the physical parameter application range.

[0017] Another embodiment of this disclosure provides a method for controlling a first variable physical parameter, wherein the first variable physical parameter is characterized based on a target state. The method includes the steps of: receiving a reference signal, wherein the reference signal transmits a measurement reference value related to a second variable physical parameter; changing the second variable physical parameter based on the transmitted measurement reference value, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by the measurement value application range; sensing the second variable physical parameter to generate a sensing signal; and placing the first variable physical parameter in the target state, provided that the physical parameter application range in which the second variable physical parameter is currently located is determined based on the sensing signal and the measurement value application range.

[0018] Another embodiment of this disclosure provides a functional device for controlling a first variable physical parameter, wherein the first variable physical parameter is characterized based on a target state. The functional device includes a sensing unit and a processing unit. The sensing unit is configured to sense a second variable physical parameter to generate a sensing signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range. The processing unit includes a plurality of input ports having a first specific port, coupled to the sensing unit, and is configured to perform a first trigger signal reception detection on the plurality of input ports, determine a first application range limit value for the measured value application range in response to the first trigger signal if the processing unit determines, based on the first trigger signal reception detection, that the first specific port receiving the first trigger signal is receiving the first trigger signal, and place the first variable physical parameter in the target state if the processing unit determines, based on the sensing signal and the determined first application range limit value, that the second variable physical parameter is currently in the physical parameter application range.

[0019] Another embodiment of this disclosure provides a method for controlling a first variable physical parameter, wherein the first variable physical parameter is characterized based on a target state and related to a second variable physical parameter, and the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range. The method includes the steps of: providing a plurality of input ports including a specific port; performing trigger signal reception detection on the plurality of input ports; determining an application range limit value for the measured value application range in response to the trigger signal, provided that the specific port receiving the trigger signal is determined based on the trigger signal reception detection; sensing the second variable physical parameter to generate a sensing signal; and placing the first variable physical parameter in the target state, provided that the physical parameter application range currently in which the second variable physical parameter is located is determined based on the sensing signal and the determined application range limit value.

[0020] Another embodiment of this disclosure provides a functional device for controlling a first variable physical parameter, wherein the first variable physical parameter is characterized based on a target state. The functional device includes a processing unit and a sensing unit. The processing unit includes a plurality of input ports having specific ports, configured to perform trigger signal reception detection on the plurality of input ports, and, upon the processing unit determining, based on the trigger signal reception detection, to receive the specific port receiving the trigger signal to change a second variable physical parameter, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range. The sensing unit is coupled to the processing unit and senses the second variable physical parameter to generate a sensing signal, wherein, upon the processing unit determining, based on the sensing signal and the measured value application range, the processing unit places the first variable physical parameter in the target state.

[0021] Another embodiment of this disclosure provides a method for controlling a first variable physical parameter, wherein the first variable physical parameter is characterized based on a target state. The method includes the steps of: providing a plurality of input ports including specific ports; performing trigger signal reception detection on the plurality of input ports; responding to the trigger signal to change a second variable physical parameter, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range; sensing the second variable physical parameter to generate a sensing signal; and placing the first variable physical parameter in the target state, wherein the physical parameter application range in which the second variable physical parameter is currently located is determined based on the sensing signal and the measured value application range.

[0022] Another embodiment of this disclosure provides a functional device for controlling a first variable physical parameter, wherein the first variable physical parameter is characterized based on a target state. The functional device includes a plurality of printing state indicators, a sensing unit, and a processing unit. The plurality of printing state indicators includes a first specific printing state indicator, wherein the first specific printing state indicator is configured to represent the target state. The sensing unit is configured to sense a second variable physical parameter to generate a sensing signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measurement value application range. The processing unit is coupled to the plurality of printing state indicators and the sensing unit, and, upon the processing unit determining, within the physical parameter application range in which the second variable physical parameter is currently located based on the sensing signal and the measurement value application range, positions the first variable physical parameter in the target state.

[0023] Another embodiment of this disclosure provides a method for controlling a first variable physical parameter, wherein the first variable physical parameter is characterized based on a target state and related to a second variable physical parameter, and the second variable physical parameter is characterized based on a physical parameter application range represented by a measurement application range. The method includes the steps of: providing a plurality of printing state indicators including specific printing state indicators, wherein the specific printing state indicators are configured to represent the target state; sensing the second variable physical parameter to generate a sensing signal; and placing the first variable physical parameter in the target state, provided that the physical parameter application range in which the second variable physical parameter is currently located is determined based on the sensing signal and the measurement application range. Attached Figure Description

[0024] This disclosure can be further understood through the detailed illustrations below:

[0025] Figure 1 : This is a schematic diagram of the control system in various embodiments of this disclosure.

[0026] Figure 2 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0027] Figure 3 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0028] Figure 4 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0029] Figure 5: for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0030] Figure 6 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0031] Figure 7 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0032] Figure 8 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0033] Figure 9 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0034] Figure 10 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0035] Figure 11 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0036] Figure 12 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0037] Figure 13 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0038] Figure 14 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0039] Figure 15 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0040] Figure 16 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0041] Figure 17 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0042] Figure 18 : for illustration Figure 1A schematic diagram of the implementation structure of the control system described herein.

[0043] Figure 19 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0044] Figure 20 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0045] Figure 21 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0046] Figure 22 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0047] Figure 23 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0048] Figure 24 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0049] Figure 25 : for illustration Figure 1 A schematic diagram of the implementation structure of the control system described herein.

[0050] Figure 26 : This is a schematic diagram of the control system in various embodiments of this disclosure.

[0051] Figure 27 : for illustration Figure 26 A schematic diagram of the implementation structure of the control system described herein.

[0052] Figure 28 : for illustration Figure 26 A schematic diagram of the implementation structure of the control system described herein.

[0053] Figure 29 : This is a schematic diagram of the control system in various embodiments of this disclosure.

[0054] Figure 30 : for illustration Figure 29 A schematic diagram of the implementation structure of the control system described herein.

[0055] Figure 31 : for illustration Figure 29 A schematic diagram of the implementation structure of the control system described herein.

[0056] Figure 32 : for illustration Figure 29 A schematic diagram of the implementation structure of the control system described herein.

[0057] Figure 33 : for illustration Figure 29 A schematic diagram of the implementation structure of the control system described herein.

[0058] Figure 34 : for illustration Figure 29 A schematic diagram of the implementation structure of the control system described herein.

[0059] Figure 35 : for illustration Figure 29 A schematic diagram of the implementation structure of the control system described herein.

[0060] Figure 36 : This is a schematic diagram of the control system in various embodiments of this disclosure.

[0061] Figure 37 : for illustration Figure 36 A schematic diagram of the implementation structure of the control system described herein.

[0062] Figure 38 : for illustration Figure 36 A schematic diagram of the implementation structure of the control system described herein.

[0063] Figure 39 : for illustration Figure 36 A schematic diagram of the implementation structure of the control system described herein.

[0064] Figure 40 : for illustration Figure 36 A schematic diagram of the implementation structure of the control system described herein.

[0065] Figure 41 : for illustration Figure 36 A schematic diagram of the implementation structure of the control system described herein.

[0066] Figure 42 : for illustration Figure 36 A schematic diagram of the implementation structure of the control system described herein.

[0067] Figure 43 : This is a schematic diagram of the control system in various embodiments of this disclosure.

[0068] Figure 44 : for illustration Figure 43 A schematic diagram of the implementation structure of the control system described herein.

[0069] Figure 45 : for illustration Figure 43 A schematic diagram of the implementation structure of the control system described herein.

[0070] Figure 46 : for illustration Figure 43 A schematic diagram of the implementation structure of the control system described herein.

[0071] Figure 47 : for illustration Figure 43 A schematic diagram of the implementation structure of the control system described herein.

[0072] Figure 48 : This is a schematic diagram of the control system in various embodiments of this disclosure.

[0073] Figure 49 : for illustration Figure 48 A schematic diagram of the implementation structure of the control system described herein.

[0074] Figure 50 : for illustration Figure 48 A schematic diagram of the implementation structure of the control system described herein.

[0075] Figure 51 : for illustration Figure 48 A schematic diagram of the implementation structure of the control system described herein.

[0076] Figure 52 : for illustration Figure 48 A schematic diagram of the implementation structure of the control system described herein.

[0077] Figure 53 : for illustration Figure 48 A schematic diagram of the implementation structure of the control system described herein.

[0078] Figure 54 : for illustration Figure 48 A schematic diagram of the implementation structure of the control system described herein.

[0079] Figure 55 : This is a schematic diagram of the control system in various embodiments of this disclosure.

[0080] Figure 56 : for illustration Figure 55 A schematic diagram of the implementation structure of the control system described herein.

[0081] Figure 57 : for illustration Figure 55 A schematic diagram of the implementation structure of the control system described herein.

[0082] Figure 58 : for illustration Figure 55 A schematic diagram of the implementation structure of the control system described herein.

[0083] Figure 59 : for illustration Figure 55 A schematic diagram of the implementation structure of the control system described herein.

[0084] Figure 60 : for illustration Figure 55 A schematic diagram of the implementation structure of the control system described herein.

[0085] Figure 61 : for illustration Figure 55 A schematic diagram of the implementation structure of the control system described herein.

[0086] Figure 62 : This is a schematic diagram of the control system in various embodiments of this disclosure.

[0087] Figure 63 : for illustration Figure 62 A schematic diagram of the implementation structure of the control system described herein.

[0088] Figure 64 : for illustration Figure 62 A schematic diagram of the implementation structure of the control system described herein.

[0089] Figure 65 : for illustration Figure 62 A schematic diagram of the implementation structure of the control system described herein.

[0090] Figure 66 : for illustration Figure 62 A schematic diagram of the implementation structure of the control system described herein.

[0091] Figure 67 : for illustration Figure 62 A schematic diagram of the implementation structure of the control system described herein.

[0092] Figure 68 : for illustration Figure 62 A schematic diagram of the implementation structure of the control system described herein.

[0093] Figure 69 : for illustration Figure 62 A schematic diagram of the implementation structure of the control system described herein.

[0094] Figure 70 : This is a schematic diagram of the control system in various embodiments of this disclosure.

[0095] Figure 71 : for illustration Figure 70 A schematic diagram of the implementation structure of the control system described herein.

[0096] Figure 72 : for illustration Figure 70 A schematic diagram of the implementation structure of the control system described herein.

[0097] Figure 73 : for illustration Figure 70 A schematic diagram of the implementation structure of the control system described herein.

[0098] Figure 74 : for illustration Figure 70 A schematic diagram of the implementation structure of the control system described herein.

[0099] Figure 75 : This is a schematic diagram of the control system in various embodiments of this disclosure.

[0100] Figure 76 : for illustration Figure 75 A schematic diagram of the implementation structure of the control system described herein.

[0101] Figure 77 : for illustration Figure 75 A schematic diagram of the implementation structure of the control system described herein.

[0102] Figure 78 : for illustration Figure 75 A schematic diagram of the implementation structure of the control system described herein.

[0103] Figure 79 : for illustration Figure 75 A schematic diagram of the implementation structure of the control system described herein.

[0104] Figure 80 : for illustration Figure 75 A schematic diagram of the implementation structure of the control system described herein.

[0105] Figure 81 : for illustration Figure 75 A schematic diagram of the implementation structure of the control system described herein.

[0106] Figure 82 : This is a schematic diagram of the control system in various embodiments of this disclosure.

[0107] Figure 83 : for illustration Figure 82 A schematic diagram of the implementation structure of the control system described herein.

[0108] Figure 84 : for illustration Figure 82 A schematic diagram of the implementation structure of the control system described herein.

[0109] Figure 85 : for illustration Figure 82 A schematic diagram of the implementation structure of the control system described herein.

[0110] Figure 86 : for illustration Figure 82A schematic diagram of the implementation structure of the control system described herein.

[0111] Figure 87 : for illustration Figure 82 A schematic diagram of the implementation structure of the control system described herein. Detailed Implementation

[0112] Please see Figure 1 This is a schematic diagram of a control system 921 in various embodiments of this disclosure. The control system 921 includes a functional device 130 for controlling a variable physical parameter QU1A. For example, the variable physical parameter QU1A is characterized based on a physical parameter target state JG1C represented by a physical parameter target state code EG1C. The functional device 130 includes an input unit 380, a storage unit 332, and a processing unit 331.

[0113] The storage unit 332 stores a variable physical parameter state code EG1A representing a variable physical parameter state JG1A. For example, the variable physical parameter state JG1A is the state that the variable physical parameter QU1A is expected to be in within a target time interval HV1U. The processing unit 331, coupled to the input unit 380 and the storage unit 332, is configured to change the variable physical parameter state code EG1A to the physical parameter target state code EG1C by means of the input unit 380, and to make the variable physical parameter state JG1A equal to the physical parameter target state JG1C within the target time interval HV1U based on the changed variable physical parameter state code EG1A, which is equal to the physical parameter target state code EG1C. For example, the target time interval HV1U is related to the stored variable physical parameter state code EG1A.

[0114] Please see Figure 2 and Figure 3 . Figure 2 To illustrate Figure 1 A schematic diagram of the implementation structure 9211 of the control system 921 described herein. Figure 3 To illustrate Figure 1 A schematic diagram of the implementation structure 9212 of the control system 921 described herein. (See attached diagram.) Figure 2 and Figure 3 As shown, each of the embodiments 9211 and 9212 includes the functional device 130. In some embodiments, the functional device 130 further includes a light-emitting diode matrix 385 coupled to the processing unit 331.

[0115] The variable physical parameter QU1A is related to the variable application time TC1A. The variable application time TC1A is characterized based on the target time interval HV1U and is one of the variable time length, clock time TH1A, and variable remaining time TA1A. For example, the target time interval HV1U is one of the clock time target interval and the remaining time target interval. The light-emitting diode matrix 385 includes light-emitting diodes 3852 related to the target time interval HV1U. For example, the light-emitting diode matrix 385 is a multicolor light-emitting diode matrix. The light-emitting diodes 3852 are multicolor light-emitting diodes capable of emitting different colors of light at different times.

[0116] When the variable physical parameter status code EG1A equals the physical parameter target status code EG1C and the processing unit 331 determines that the variable application time TC1A is currently in the target time interval HV1U, the processing unit 331 accesses the stored physical parameter target status code EG1C and, based on the accessed physical parameter target status code EG1C, causes the light-emitting diode 3852 to display a status indicator LL82. The status indicator LL82 indicates that the variable physical parameter QU1A is configured to be in a specific state XE82 of the physical parameter target state JG1C within the target time interval HV1U. For example, the status indicator LL82 may flash.

[0117] The processing unit 331 is coupled to a physical parameter application unit 335 having the variable physical parameter QU1A, and transmits an operation signal SG85 to the physical parameter application unit 335 based on the stored physical parameter target status code EG1C. The operation signal SG85 is used to cause the physical parameter application unit 335 to make the variable physical parameter state JG1A equal to the physical parameter target state JG1C.

[0118] In some embodiments, the variable physical parameter QU1A is further characterized based on a physical parameter application state JG1B that is different from the physical parameter target state JG1C. The physical parameter application state JG1B is represented by the physical parameter application state code EG1B. When the variable physical parameter state code EG1A is equal to the physical parameter application state code EG1B, the processing unit 331 uses the input unit 380 to change the variable physical parameter state code EG1A from the physical parameter application state code EG1B to the physical parameter target state code EG1C.

[0119] The input unit 380 includes a function switch 3805. When the variable physical parameter status code EG1A is equal to the physical parameter application status code EG1B, the function switch 3805 receives a user input operation BB8C using the function switch 3805, and responds to the user input operation BB8C to cause the processing unit 331 to receive a trigger signal SA81. The processing unit 331 responds to the trigger signal SA81 to change the variable physical parameter status code EG1A from the physical parameter application status code EG1B to the physical parameter target status code EG1C. For example, the function switch 3805 is a push-button switch. The function switch 3805 is coupled to the processing unit 331. For example, the processing unit 331 relies on the function switch 3805 to change the variable physical parameter status code EG1A from the physical parameter application status code EG1B to the physical parameter target status code EG1C.

[0120] For example, before the variable physical parameter status code EG1A is changed from the physical parameter application status code EG1B to the physical parameter target status code EG1C, the variable application time TC1A can be configured to be within the target time interval HV1U. For example, before the variable physical parameter status code EG1A is changed from the physical parameter application status code EG1B to the physical parameter target status code EG1C, the processing unit 331 sets the variable physical parameter state JG1A to be equal to the physical parameter application state JG1B based on the variable physical parameter status code EG1A which is equal to the physical parameter application status code EG1B within the target time interval HV1U.

[0121] Please see Figure 1 , Figure 2 and Figure 3 A method MM80 for controlling a variable physical parameter QU1A is disclosed. For example, the variable physical parameter QU1A is characterized based on a physical parameter target state JG1C represented by a physical parameter target state code EG1C.

[0122] The method MM80 includes the following steps: storing a variable physical parameter state code EG1A representing a variable physical parameter state JG1A, wherein the variable physical parameter state JG1A is the state that the variable physical parameter QU1A is expected to be in within a target time interval HV1U; changing the variable physical parameter state code EG1A to the physical parameter target state code EG1C; and within the target time interval HV1U, making the variable physical parameter state JG1A equal to the physical parameter target state JG1C based on the changed variable physical parameter state code EG1A, which is equal to the physical parameter target state code EG1C.

[0123] In some embodiments, the variable physical parameter QU1A is related to the variable application time TC1A. The variable application time TC1A is characterized based on the target time interval HV1U and is one of a variable time length, a clock time TH1A, and a variable remaining time TA1A. The method MM80 further includes the following steps: providing an LED matrix 385 containing LEDs 3852, wherein the LEDs 3852 are related to the target time interval HV1U; providing a physical parameter application unit 335 having the variable physical parameter QU1A; and accessing the stored physical parameter target status code EG1C under the condition that the variable physical parameter status code EG1A is equal to the physical parameter target status code EG1C and the target time interval HV1U in which the variable application time TC1A is currently located is determined.

[0124] The method MM80 further includes the following steps: based on the stored physical parameter target status code EG1C, causing the light-emitting diode 3852 to display a status indicator LL82, the status indicator LL82 being used to indicate that the variable physical parameter QU1A is configured to be in a specific state XE82 of the physical parameter target state JG1C within the target time interval HV1U; and based on the stored physical parameter target status code EG1C, transmitting an operation signal SG85 to the physical parameter application unit 335, the operation signal SG85 being used to cause the physical parameter application unit 335 to make the variable physical parameter state JG1A equal to the physical parameter target state JG1C.

[0125] In some embodiments, the variable physical parameter QU1A is further characterized based on a physical parameter application state JG1B that is different from the physical parameter target state JG1C. The physical parameter application state JG1B is represented by the physical parameter application state code EG1B. When the variable physical parameter state code EG1A is equal to the physical parameter application state code EG1B, the variable physical parameter state code EG1A is changed from the physical parameter application state code EG1B to the physical parameter target state code EG1C. The method MM80 further includes the step of providing a function switch 3805.

[0126] The step of changing the variable physical parameter status code EG1A to the physical parameter target status code EG1C includes the following sub-steps: Under the condition that the variable physical parameter status code EG1A is equal to the physical parameter application status code EG1B, causing the function switch 3805 to receive a user input operation BB8C using the function switch 3805; responding to the user input operation BB8C, receiving a trigger signal SA81; and responding to the trigger signal SA81, changing the variable physical parameter status code EG1A from the physical parameter application status code EG1B to the physical parameter target status code EG1C.

[0127] Please see Figure 4 . Figure 4 To illustrate Figure 1 A schematic diagram of the implementation structure 9213 of the control system 921 described herein. (See attached diagram.) Figure 4 As shown, the implementation structure 9213 includes the functional device 130. In some embodiments, the variable physical parameter QU1A is characterized based on the physical parameter target state JE1U. For example, the physical parameter target state JG1C is or is the same as the physical parameter target state JE1U. The functional device 130 further includes a timer 342 coupled to the processing unit 331.

[0128] The timer 342 senses the clock time TH1A to generate a sensing signal SY81. For example, the clock time TH1A is characterized based on a clock time application interval HR1EU represented by the measurement application range RQ1U. For example, the target time interval HV1U is or is the same as the clock time application interval HR1EU. The processing unit 331 responds to the sensing signal SY81 to obtain a measurement value NY81, and, under the condition that the processing unit 331 determines the current clock time TH1A within the clock time application interval HR1EU by examining the mathematical relationship KQ81 between the measurement value NY81 and the measurement application range RQ1U, sets the variable physical parameter QU1A to the target physical parameter state JE1U.

[0129] Please see Figure 5 and Figure 6 . Figure 5 To illustrate Figure 1 A schematic diagram of the implementation structure 9214 of the control system 921 described herein. Figure 6 To illustrate Figure 1 A schematic diagram of the implementation structure 9215 of the control system 921 described herein. (See attached diagram.) Figure 5 and Figure 6As shown, each of the embodiments 9214 and 9215 includes the functional device 130. In some embodiments, the functional device 130 further includes a physical parameter application unit 335 coupled to the processing unit 331. For example, the functional device 130 is a control target device. The physical parameter application unit 335 is a functional target. The input unit 380 further includes a function switch 380A coupled to the processing unit 331. For example, the function switch 380A is a push-button switch.

[0130] The clock time TH1A is further characterized based on a clock time designated interval HR1ET, which is different from the clock time application interval HR1EU. For example, the clock time designated interval HR1ET is earlier than the clock time application interval HR1EU. Before the clock time TH1A enters the clock time application interval HR1EU, the input unit 380 receives a user input operation JS81 and responds to the user input operation JS81 to cause the processing unit 331 to receive a trigger signal SH81. The processing unit 331 responds to the trigger signal SH81 to determine a specific range code EB1T. The specific range code EB1T indicates the clock time designated interval HR1ET.

[0131] For example, the processing unit 331 determines the specific range code EB1T in response to the user input operation JS81. Before the clock time TH1A enters the clock time application interval HR1EU, the function switch 380A receives the user input operation JS81 using the function switch 380A and responds to the user input operation JS81 to cause the processing unit 331 to receive the trigger signal SH81. For example, the user input operation BB8C occurs before the user input operation JS81. The processing unit 331 starts the timer 342 in response to either the user input operation JS81 or the trigger signal SH81. For example, the processing unit 331 starts the timer 342 using the function switch 380A.

[0132] The processing unit 331 obtains the measured value NY81 in response to the sensing signal SY81 due to the trigger signal SH81. For example, the trigger signal SH81 is used to determine the specified clock time interval HR1ET. The functional device 130 uses the timer 342 based on the trigger signal SH81 to check the time relationship KT81 between the clock time TH1A and the clock time application interval HR1EU. For example, the sensing signal SY81 is a clock time signal. The measured value NY81 is a specific count value. For example, the sensing signal SY81 is a digital signal.

[0133] The timer 342 conforms to timer specification FT21. For example, the measurement application range RQ1U is defaulted based on the timer specification FT21. The timer specification FT21 includes a full measurement range representation FK8E for representing the full measurement range QK8E. For example, the measurement application range RQ1U is equal to a portion of the full measurement range QK8E. The measurement value NY81 is obtained in the specified measurement value format HH95. The measurement application range RQ1U is defaulted based on the timer specification FT21 using the specified measurement value format HH95. For example, the clock time application interval HR1EU is a clock time candidate interval. The measurement application range RQ1U is a measurement time value candidate range. The clock time specified interval HR1ET is a clock time target interval. The specified measurement value format HH95 is a specified count value format.

[0134] The measurement application range RQ1U has an application range limit value pair DQ1U, and is represented by the measurement application range code EL1U. For example, the application range limit value pair DQ1U is defaulted. The processing unit 331 responds to one of the user input operation JS81 and the trigger signal SH81 to obtain the application range limit value pair DQ1U and the measurement application range code EL1U, and checks the mathematical relationship KQ81 by comparing the measurement value NY81 and the obtained application range limit value pair DQ1U. The physical parameter target state JE1U is represented by the physical parameter target state code EW1U. The physical parameter application unit 335 has the variable physical parameter QU1A. For example, the variable physical parameter QU1A is currently in the physical parameter application state JE1T. The application range limit value pair DQ1U is a candidate range limit value pair. The measurement application range code EL1U is a candidate range code for the measurement time value. The physical parameter target state code EG1C is or is the same as the physical parameter target state code EW1U.

[0135] In some embodiments, when the processing unit 331 determines the current clock time application interval HR1EU of the clock time TH1A by checking the mathematical relationship KQ81, the processing unit 331 obtains the physical parameter target status code EW1U based on the obtained measurement value application range code EL1U, and executes physical parameter relationship checking control GX8U based on the obtained physical parameter target status code EW1U to check the physical parameter relationship KD9U between the variable physical parameter QU1A and the physical parameter target status JE1U.

[0136] When the physical parameter application state JE1T differs from the physical parameter target state JE1U, and the processing unit 331 determines the physical parameter state difference DT81 between the physical parameter target state JE1U and the physical parameter application state JE1T by executing the physical parameter relationship check control GX8U, the processing unit 331 executes signal generation control GY85 based on the obtained physical parameter target state code EW1U to generate an operation signal SG85, and transmits the operation signal SG85 to the physical parameter application unit 335. For example, the operation signal SG85 is one of a function signal and a control signal.

[0137] The physical parameter application unit 335 responds to the operation signal SG85 to cause the variable physical parameter QU1A to move from the physical parameter application state JE1T to the physical parameter target state JE1U. When the processing unit 331 determines, by checking the mathematical relationship KQ81, the current clock time application interval HR1EU in which the clock time TH1A is located, the processing unit 331 executes a data storage control operation GM8U, which causes the clock time application interval code UF8U representing the determined clock time application interval HR1EU to be stored. The variable physical parameter QU1A and the clock time TH1A belong to physical parameter type TU11 and clock time type TQ11, respectively. For example, the physical parameter type TU11 is different from the clock time type TQ11. The data storage control operation GM8U causes the clock time application interval code UF8U to be stored by the storage unit 332.

[0138] Please see Figure 7 , Figure 8 and Figure 9 . Figure 7 To illustrate Figure 1 A schematic diagram of the implementation structure 9216 of the control system 921 described herein. Figure 8 To illustrate Figure 1 A schematic diagram of the implementation structure 9217 of the control system 921 described herein. Figure 9 To illustrate Figure 1 A schematic diagram of the implementation structure 9218 of the control system 921 described herein. (See attached diagram.) Figure 7 , Figure 8 and Figure 9As shown, each of the implementation structures 9216, 9217, and 9218 includes the functional device 130. The functional device 130 includes the processing unit 331, the timer 342 coupled to the processing unit 331, the storage unit 332 coupled to the processing unit 331, the input unit 380 coupled to the processing unit 331, and the physical parameter application unit 335 coupled to the processing unit 331.

[0139] In some embodiments, the timer 342 conforms to timer specification FT21. For example, the measurement application range RQ1U is defaulted to based on the timer specification FT21. The timer specification FT21 includes a full measurement range representation FK8E for representing the full measurement range QK8E. For example, the measurement application range RQ1U is equal to a first portion of the full measurement range QK8E. The processing unit 331 is configured to execute a measurement application function FA81 associated with the clock time application interval HR1EU. The measurement application function FA81 conforms to the measurement application function specification GAL8 associated with the clock time application interval HR1EU. For example, the measurement application function FA81 is a physical parameter control function. The measurement application function specification GAL8 is a physical parameter control function specification.

[0140] The processing unit 331 responds to the sensing signal SY81 to obtain the measurement value NY81 in a specified measurement value format HH95. For example, the specified measurement value format HH95 is characterized based on a specified number of bits UY95. The clock time TH1A is further characterized based on the rated clock time interval HR1E. For example, the rated clock time interval HR1E is represented by the rated measurement value range HR1N and includes multiple different clock time reference intervals HR1E1, HR1E2, ... represented by multiple different measurement value reference ranges RQ11, RQ12, ... For example, the rated clock time interval HR1E is evenly divided to form the multiple different clock time reference intervals HR1E1, HR1E2, ... The rated measurement value range HR1N is the rated measurement time value range. The multiple different measurement value reference ranges RQ11, RQ12, ... are multiple measurement time value reference ranges, all of which are defaulted based on the timer specification FT21.

[0141] The plurality of different clock time reference intervals HR1E1, HR1E2, ... include the clock time application interval HR1EU. The measurement application function specification GAL8 includes the timer specification FT21, the rated clock time interval representation GA8HE for representing the rated clock time interval HR1E, and the clock time application interval representation GA8HU for representing the clock time application interval HR1EU.

[0142] The rated measurement range HR1N is equal to at least a second portion of the full measurement range QK8E, and is defaulted to using the specified measurement format HH95 based on one of the timer specification FT21, the measurement application function specification GAL8, and the first data encoding rule WX8HE. It has a rated range limit value pair DP1A and includes the multiple different measurement reference ranges RQ11, RQ12, ... represented by multiple different measurement reference range codes EL11, EL12, ... respectively.

[0143] For example, the rated range limit value for DP1A is defaulted to the specified measurement value format HH95, and the plurality of different measurement value reference ranges RQ11, RQ12, ... encompass the measurement value application range RQ1U. The first data encoding rule WX8HE is used to convert the rated clock time interval representation GA8HE and is defined based on the timer specification FT21. For example, the plurality of different measurement value reference range codes EL11, EL12, ... are respectively multiple measurement time value reference range codes.

[0144] In some embodiments, the measurement application range RQ1U is represented by the measurement application range code EL1U included in the plurality of different measurement reference range codes EL11, EL12, ..., having an application range limit value pair DQ1U, and is defaulted to the specified measurement value format HH95 based on one of the timer specification FT21, the measurement application function specification GAL8, and the second data encoding rule WX8HU. For example, the plurality of different measurement reference range codes EL11, EL12, ... are all defaulted to the measurement application function specification GAL8. The second data encoding rule WX8HU is used to convert the clock time application interval representation GA8HU and is defined based on the timer specification FT21. The application range limit value pair DQ1U includes a first application range limit value DQ15 and a second application range limit value DQ16 relative to the first application range limit value DQ15.

[0145] The functional device 130 further includes a trigger application unit 387 coupled to the processing unit 331. The storage unit 332 stores the default rated range limit value pair DP1A and the variable clock time interval code UF8A. When a trigger event JQ81 associated with the trigger application unit 387 occurs, the variable clock time interval code UF8A is equal to a specific measurement value range code EL14 selected from the plurality of different measurement value reference range codes EL11, EL12, ... For example, the specific measurement value range code EL14 indicates a specific clock time interval HR1E4 previously determined based on a sensing operation ZT81. The specific clock time interval HR1E4 is selected from the plurality of different clock time reference intervals HR1E1, HR1E2, ... The sensing operation ZT81, performed by the timer 342, is used to sense the clock time TH1A.

[0146] Prior to the occurrence of the trigger event JQ81, the specific measurement range code EL14 is assigned to the variable clock time interval code UF8A. The trigger application unit 387 responds to the trigger event JQ81 to cause the processing unit 331 to receive the trigger signal SJ81. Upon the occurrence of the trigger event JQ81, the processing unit 331 responds to the trigger signal SJ81 to obtain the operation reference data code XV81 from the storage unit 332, and executes a data determination AK8A using the operation reference data code XV81 to determine the measurement application range code EL1U selected from the plurality of different measurement reference range codes EL11, EL12, ... in order to select the measurement application range RQ1U from the plurality of different measurement reference ranges RQ11, RQ12, ... The operation reference data code XV81 is the same as the default allowed reference data code based on the measurement application function specification GAL8. The data determination program NK8A is constructed based on the measurement application function specification GAL8.

[0147] The data determination AK8A is one of a first data determination operation AK81 and a second data determination operation AK82. Under the condition that the operation reference data code XV81 is obtained by accessing the variable clock time interval code UF8A stored in the storage unit 332 and is identical to the specific measurement range code EL14, the data determination AK8A of the first data determination operation AK81 determines the measurement application range code EL1U based on the obtained specific measurement range code EL14. For example, the first data determination operation AK81 is a first scientific calculation MC81 using the obtained specific measurement range code EL14. The determined measurement application range code EL1U may be the same as or different from the obtained specific measurement range code EL14.

[0148] Under the condition that the operation reference data code XV81 obtains the nominal range limit value pair DP1A stored in the storage unit 332 in the same manner as the default nominal range limit value pair DP1A, the data determination AK8A of the second data determination operation AK82 selects the measurement value application range code EL1U from the plurality of different measurement value reference range codes EL11, EL12, ... to determine the measurement value application range code EL1U by performing a second scientific calculation MD81 using the measurement value NY81 and the obtained nominal range limit value pair DP1A. For example, the second scientific calculation MD81 is performed based on a specific empirical formula XS81. The specific empirical formula XS81 is pre-defined based on the default nominal range limit value pair DP1A and the plurality of different measurement value reference range codes EL11, EL12, ...

[0149] In some embodiments, the processing unit 331 obtains the application range boundary value pair DQ1U based on the determined measurement value application range code EL1U, and checks the mathematical relationship KQ81 based on the data comparison CF81 between the measurement value NY81 and the obtained application range boundary value pair DQ1U to make a logical decision PQ81 as to whether the measurement value NY81 is within the selected measurement value application range RQ1U. If the logical decision PQ81 is affirmative, the processing unit 331 determines the clock time application interval HR1EU in which the clock time TH1A is currently located.

[0150] When the specific measurement range code EL14 is different from the determined measurement application range code EL1U, and the processing unit 331 determines the current clock time application interval HR1EU of the clock time TH1A by making the logical decision PQ81, the processing unit 331 uses the storage unit 332 to assign the determined measurement application range code EL1U to the variable clock time interval code UF8A based on the code difference DG81 between the variable clock time interval code UF8A, which is equal to the specific measurement range code EL14, and the determined measurement application range code EL1U.

[0151] The input unit 380 includes a function switch 3801. The physical parameter application unit 335 has the variable physical parameter QU1A. The variable physical parameter QU1A is further characterized based on a specific physical parameter state JE16, which is different from the physical parameter target state JE1U. When the processing unit 331 causes the variable physical parameter QU1A to be in the physical parameter target state JE1U by checking the first mathematical relation KQ81, the input unit 380 receives a user input operation BQ82 using the function switch 3801. In response to the user input operation BQ82, the processing unit 331 transmits an operation signal SG87 to the physical parameter application unit 335 to cause the variable physical parameter QU1A to leave the physical parameter target state JE1U and enter the specific physical parameter state JE16. For example, the function switch 3801 is a button and is coupled to the processing unit 331.

[0152] Please see Figure 10 and Figure 11 . Figure 10 To illustrate Figure 1 A schematic diagram of the implementation structure 9219 of the control system 921 described herein. Figure 11 This is a schematic diagram illustrating the implementation structure 9220 of the control system 921 shown in Figure 1. Figure 10 and Figure 11 As shown, each of the embodiments 9219 and 9220 includes the functional device 130. The functional device 130 includes the processing unit 331, the timer 342, the storage unit 332, the physical parameter application unit 335, and the input unit 380. The timer 342, the storage unit 332, the physical parameter application unit 335, the light-emitting diode matrix 385, and the input unit 380 are all controlled by the processing unit 331. For example, the physical parameter application unit 335 may be located either inside or outside the functional device 130. The input unit 380 includes a plurality of function switches 3805, 380A, ... For example, the plurality of function switches 3805, 380A, ... are a plurality of push-button switches.

[0153] In some embodiments, the input unit 380 receives the user input operation JS81 using the function switch 380A. The processing unit 331 responds to either the user input operation JS81 or the trigger signal SH81 to put the variable physical parameter QU1A into the physical parameter application state JE1T. The clock time specified interval HR1ET is adjacent to the clock time application interval HR1EU and is represented by the measured value specified range RQ1T, and has a start limit time HR1ET1 and an end limit time HR1ET2 relative to the start limit time HR1ET1. The measured value specified range RQ1T has a specified range limit value pair DQ1T and is represented by the measured value specified range code EL1T. For example, the measured value specified range RQ1T is a target range for measured time values. The measured value specified range code EL1T is a target range code for time values. The specified range limit value pair DQ1T is a target range limit value pair.

[0154] The user input operation JS81 is used to cause the processing unit 331 to determine the specified clock time interval HR1ET. When the processing unit 331 determines the specified clock time interval HR1ET, the processing unit 331 controls the timer 342 to measure the clock time TH1A according to the start boundary time HR1ET1. For example, the processing unit 331 responds to either the user input operation JS81 or the trigger signal SH81 to cause the variable physical parameter QU1A to be in the physical parameter application state JE1T within the specified clock time interval HR1ET.

[0155] In some embodiments, the physical parameter application state JE1T is represented by the physical parameter application state code EW1T. The user input operation JS81 is used to cause the processing unit 331 to determine one of the physical parameter application state code EW1T and the measurement target range code EM1T. The processing unit 331 indicates the physical parameter application state JE1T by determining one of the physical parameter application state code EW1T and the measurement target range code EM1T, and determines at least one of the clock time specified interval HR1ET and the measurement specified range RQ1T by determining the specified range limit value pair DQ1T. The processing unit 331 obtains the physical parameter application state code EW1T and the specified range limit value pair DQ1T in response to one of the user input operation JS81 and the trigger signal SH81, and sets the variable physical parameter QU1A to be in the physical parameter application state JE1T within the clock time specified interval HR1ET based on the obtained physical parameter application state code EW1T.

[0156] The functional device 130 includes the trigger application unit 387 controlled by the processing unit 331. After the input unit 380 receives the user input operation JS81, the trigger event JQ81 occurs. For example, the trigger event JQ81 occurs in response to either the user input operation JS81 or the trigger signal SH81. When the trigger event JQ81 occurs, the processing unit 331 responds to the trigger event JQ81 by performing a scientific calculation ME81 using the obtained specified range limit value pair DQ1T to obtain the application range limit value pair DQ1U, and by comparing the measured value NY81 and the obtained application range limit value pair DQ1U to check the mathematical relationship KQ81.

[0157] For example, the trigger event JQ81 is related to the trigger application unit 387 and is one of a trigger action event, a user input event, a signal input event, a state change event, and an integer overflow event. The trigger application unit 387 responds to the trigger event JQ81 to generate the trigger signal SJ81, provides the trigger signal SJ81 to the processing unit 331, and thereby causes the processing unit 331 to receive the trigger signal SJ81. The processing unit 331 responds to the trigger signal SJ81 to perform the scientific calculation ME81 to obtain the application range limit value pair DQ1U in order to check the physical parameter relationship KD9U between the variable physical parameter QU1A and the physical parameter target state JE1U.

[0158] In some embodiments, the variable physical parameter QU1A is characterized based on multiple different physical parameter reference states JE11, JE12, ... . The multiple different physical parameter reference states JE11, JE12, ... include the physical parameter application state JE1T and the physical parameter target state JE1U, and are represented by multiple different physical parameter reference state codes EW11, EW12, ... . For example, the physical parameter target state JE1U may be the same as or different from the physical parameter application state JE1T. The physical parameter target state JE1T is predetermined based on the physical parameter target range RD1ET. The physical parameter target state JE1U is predetermined based on the physical parameter target range RD1EU. The multiple different physical parameter reference states JE11, JE12, ... are predetermined based on multiple different physical parameter reference ranges RD1E1, RD1E2, ... . For example, the physical parameter target range RD1EU is a physical parameter candidate range.

[0159] The variable physical parameter QU1A is characterized based on the plurality of different physical parameter reference ranges RD1E1, RD1E2, ... . The plurality of different physical parameter reference ranges RD1E1, RD1E2, ... are represented by a plurality of different measurement value reference ranges RN11, RN12, ... and include the physical parameter target range RD1ET and the physical parameter target range RD1EU. The physical parameter target range RD1ET and the physical parameter target range RD1EU are represented by the measurement value target range RN1T and the measurement value target range RN1U, respectively. The plurality of different measurement value reference ranges RN11, RN12, ... are represented by a plurality of different measurement value reference range codes EM11, EM12, ... and include the measurement value target range RN1T and the measurement value target range RN1U.

[0160] The plurality of different measurement value reference range codes EM11, EM12, ... include measurement value target range codes EM1T and EM1U, and are respectively identical to the plurality of different physical parameter reference status codes EW11, EW12, ... For example, the plurality of different physical parameter reference status codes EW11, EW12, ... include the physical parameter application status code EW1T and the physical parameter target status code EW1U, and are assumed to be true. For example, the measurement value target range code EM1T and the measurement value target range code EM1U are respectively identical to the physical parameter application status code EW1T and the physical parameter target status code EW1U.

[0161] In some embodiments, the specified clock time interval HR1ET and the applied clock time interval HR1EU each have a specified time length LH8T and an applied time length LH8U that is the same as the specified time length LH8T. The specified time length LH8T and the applied time length LH8U are represented by the measured time length value VH8T and the measured time length value VH8U, respectively. For example, the measured time length value VH8U is the same as the measured time length value VH8T. Both the measured time length values ​​VH8T and VH8U are defaulted to using the specified measurement value format HH95 based on the timer specification FT21.

[0162] The clock time application interval HR1EU has a relative interval position LE81 relative to the clock time specified interval HR1ET. The relative interval position LE81 is represented by a relative value VL81. For example, the relative value VL81 is equal to 1 when the clock time application interval HR1EU is adjacent to the clock time specified interval HR1ET. The processing unit 331 obtains the relative value VL81 in response to the trigger signal SJ81. The scientific calculation ME81 performs a subtraction operation ZF81 on the obtained specified range limit value pair DQ1T to obtain the measurement time length value VH8U, and uses the obtained relative value VL81, the obtained measurement time length value VH8U, and the obtained specified range limit value pair DQ1T to obtain the application range limit value pair DQ1U.

[0163] For example, the storage unit 332 stores the physical parameter application status code EW1T, which is stored based on the default measurement value specified range code EL1T. The processing unit 331 obtains the measurement value specified range code EL1T by performing a scientific calculation MH81 using the obtained specified range limit value to DQ1T, and obtains the stored physical parameter application status code EW1T from the storage unit 332 based on the obtained measurement value specified range code EL1T.

[0164] Please see Figure 12 , Figure 13 , Figure 14 and Figure 15 . Figure 12 To illustrate Figure 1 A schematic diagram of the implementation structure 9221 of the control system 921 described herein. Figure 13 To illustrate Figure 1 A schematic diagram of the implementation structure 9222 of the control system 921 described herein. Figure 14 To illustrate Figure 1 A schematic diagram of the implementation structure 9223 of the control system 921 described herein. Figure 15 To illustrate Figure 1 A schematic diagram of the implementation structure 9224 of the control system 921 described herein. (See attached diagram.) Figure 12 , Figure 13 , Figure 14 and Figure 15As shown, each of the implementation structures 9221, 9222, 9223, and 9224 includes the functional device 130. The functional device 130 includes the processing unit 331, the timer 342, the physical parameter application unit 335, and the storage unit 332. The timer 342, the physical parameter application unit 335, and the storage unit 332 are all controlled by the processing unit 331.

[0165] In some embodiments, the timer 342 is controlled by the processing unit 331 and is used to measure the clock time TH1A. The timer 342 is configured to conform to the timer specification FT21. The variable physical parameter QU1A is related to the clock time TH1A. The clock time TH1A is characterized based on a plurality of different clock time reference intervals HR1E1, HR1E2, ... The plurality of different clock time reference intervals HR1E1, HR1E2, ... are represented by a plurality of different measurement value reference ranges RQ11, RQ12, ... and are arranged based on a default time reference interval order QB81. The plurality of different measurement value reference ranges RQ11, RQ12, ... are arranged based on the default time reference interval order QB81. For example, the plurality of different measurement value reference ranges RQ11, RQ12, ... are a plurality of time value reference ranges.

[0166] The multiple different measurement value reference ranges RQ11, RQ12, ... are all defaulted to using the specified measurement value format HH95 based on the timer specification FT21, and are represented by multiple different measurement value reference range codes EL11, EL12, ... respectively. For example, the specified measurement value format HH95 is a specified count value format. The multiple different measurement value reference range codes EL11, EL12, ... are multiple measurement time value reference range codes. The storage unit 332 has multiple different storage locations YS81, YS82, ..., and stores multiple physical parameter specified range codes UQ11, UQ12, ... in the multiple different storage locations YS81, YS82, ... respectively. For example, the multiple physical parameter specified range codes UQ11, UQ12, ... are equal to multiple physical parameter specified status codes. The multiple physical parameter specified status codes represent multiple physical parameter specified states related to the variable physical parameter QU1A. For example, the plurality of physical parameter specification range codes UQ11, UQ12, ... are configured to form a physical parameter specification range code array.

[0167] The plurality of different clock time reference intervals HR1E1, HR1E2, ... are each represented by a plurality of clock time reference interval codes. For example, the plurality of clock time reference interval codes are configured to be equal to the plurality of different measurement value reference range codes EL11, EL12, ... respectively. Therefore, the plurality of different measurement value reference range codes EL11, EL12, ... are configured to indicate the plurality of different clock time reference intervals HR1E1, HR1E2, ... respectively. For example, the specified measurement value format HH95 is characterized based on the specified number of bits UY95.

[0168] The plurality of different measurement value reference range codes EL11, EL12, ... include a measurement value specified range code EL1T and a measurement value application range code EL1U. The plurality of different clock time reference intervals HR1E1, HR1E2, ... include a clock time specified interval HR1ET and a clock time application interval HR1EU. The measurement value specified range code EL1T and the measurement value application range code EL1U are configured to indicate the clock time specified interval HR1ET and the clock time application interval HR1EU, respectively. The plurality of different measurement value reference ranges RQ11, RQ12, ... include a measurement value specified range RQ1T and a measurement value application range RQ1U. The clock time specified interval HR1ET and the clock time application interval HR1EU are represented by the measurement value specified range RQ1T and the measurement value application range RQ1U, respectively.

[0169] In some embodiments, the plurality of different storage locations YS81, YS82, ... are identified based on the plurality of different measurement value reference range codes EL11, EL12, ... respectively. For example, the plurality of different storage locations YS81, YS82, ... are identified based on the plurality of storage addresses AS81, AS82, ... respectively, or are identified by the plurality of storage addresses AS81, AS82, ... respectively. The plurality of storage addresses AS81, AS82, ... are assumed to be based on the plurality of different measurement value reference range codes EL11, EL12, ... respectively.

[0170] For example, the clock time TH1A is further characterized based on the rated clock time interval HR1E. The rated clock time interval HR1E includes the plurality of different clock time reference intervals HR1E1, HR1E2, ..., and is represented by the rated measurement range HR1N. The rated measurement range HR1N includes the plurality of different measurement reference ranges RQ11, RQ12, ..., and is defaulted to using the specified measurement value format HH95 based on the rated clock time interval HR1E and the timer specification FT21. For example, the rated clock time interval HR1E is equal to 24 hours. The rated measurement range HR1N is the rated time value range.

[0171] For example, the measurement application function specification GAL8 includes a rated clock time interval representation GA8HE and a clock time reference interval representation GA8HR. The rated clock time interval representation GA8HE is used to represent the rated clock time interval HR1E. The clock time reference interval representation GA8HR is used to represent the plurality of different clock time reference intervals HR1E1, HR1E2, ... . The rated measurement value range HR1N is equal to at least a second portion of the full measurement value range QK8E and is defaulted to using the specified measurement value format HH95 based on one of the timer specification FT21, the measurement application function specification GAL8, and the first data encoding rule WX8HE. The first data encoding rule WX8HE is used to convert the rated clock time interval representation GA8HE and is defined based on the timer specification FT21. For example, the rated measurement value range HR1N is defaulted by performing a data encoding operation ZX8HE using the first data encoding rule WX8HE.

[0172] The multiple different measurement value reference ranges RQ11, RQ12, ... are defaulted to using the specified measurement value format HH95 based on one of the timer specification FT21, the measurement application function specification GAL8, and the data encoding rule WX8HR. The data encoding rule WX8HR is used to convert the clock time reference interval representation GA8HR and is defined based on the timer specification FT21. For example, the multiple different measurement value reference ranges RQ11, RQ12, ... are defaulted to by performing a data encoding operation ZX8HR using the data encoding rule WX8HR.

[0173] In some embodiments, the plurality of physical parameter specified range codes UQ11, UQ12, ... are configured to be stored based on the plurality of different measurement value reference range codes EL11, EL12, ... respectively, and include a physical parameter target range code UQ1T and a physical parameter target range code UQ1U. The plurality of physical parameter specified range codes UQ11, UQ12, ... are all selected from the plurality of different physical parameter reference status codes EW11, EW12, ... For example, the physical parameter target range code UQ1U is a physical parameter candidate range code.

[0174] The physical parameter target range code UQ1T represents the physical parameter target range RD1ET that the variable physical parameter QU1A is expected to be within the specified clock time interval HR1ET, and is configured to be stored in storage location YS8T based on the measurement value specified range code EL1T. The storage location YS8T is identified based on storage address AS8T. The multiple different measurement value reference range codes EL11, EL12, ... are all defaulted based on the measurement application function specification GAL8. For example, the physical parameter target range code UQ1T is equal to the default physical parameter application status code EW1T. The physical parameter target range code UQ1U is the same as the physical parameter application status code EW1U.

[0175] The physical parameter target range code UQ1U represents the physical parameter target range RD1EU in which the variable physical parameter QU1A is expected to be within the clock time application interval HR1EU, and is configured to be stored in storage location YS8U based on the measurement value application range code EL1U. The storage location YS8U is identified based on storage address AS8U. Both the physical parameter target range RD1ET and the physical parameter target range RD1EU are selected from the plurality of different physical parameter reference ranges RD1E1, RD1E2, ... For example, the clock time application interval HR1EU is adjacent to the clock time specified interval HR1ET. The physical parameter target range code UQ1U is the same as the physical parameter target status code EW1U. The physical parameter target range RD1EU has a default physical parameter target range limit ZD1U1 and a default physical parameter target range limit ZD1U2 relative to the default physical parameter target range limit ZD1U1.

[0176] In some embodiments, when the input unit 380 receives the user input operation JS81, the physical parameter target range code UQ1T is equal to the default physical parameter application status code EW1T. The processing unit 331 determines the specific range code EB1T in response to either the user input operation JS81 or the trigger signal SH81. The specific range code EB1T indicates the clock time specified interval HR1ET and is equal to the default measurement value specified range code EL1T. When the processing unit 331 determines that the specific range code EB1T is equal to the measurement value specified range code EL1T, the processing unit 331 obtains the storage address AS8T based on the determined specific range code EB1T (equal to the measurement value specified range code EL1T), and accesses the physical parameter target range code UQ1T stored at the storage location YS8T based on the obtained storage address AS8T to obtain either the physical parameter target range code UQ1T or the default physical parameter application status code EW1T. For example, there is a default time interval between the specified clock time interval HR1ET and the applied clock time interval HR1EU.

[0177] For example, when the physical parameter target range code UQ1T is equal to the default physical parameter application status code EW1T, the user input operation JS81 is used to determine the specific range code EB1T, which is equal to the default measurement value specified range code EL1T; therefore, the specific range code EB1T, which is equal to the default measurement value specified range code EL1T, indirectly indicates the physical parameter application status JE1T. When the input unit 380 receives the user input operation JS81, the variable physical parameter QU1A is in the physical parameter application status JE1L. The processing unit 331 executes the physical parameter relationship check control GX8T, which checks the physical parameter relationship KD9T between the variable physical parameter QU1A and the physical parameter application status JE1T, based on the obtained physical parameter application status code EW1T.

[0178] For example, the user input operation JS81 is used to determine the specific range code EB1T which is equal to the default measurement value specified range code EL1T; therefore, the specific range code EB1T which is equal to the default measurement value specified range code EL1T serves to indicate at least one of the clock time specified interval HR1ET and the measurement value specified range RQ1T, and by serving to indicate the clock time specified interval HR1ET, it serves to indicate the physical parameter application status JE1T.

[0179] In some embodiments, when the physical parameter application state JE1L is different from the physical parameter application state JE1T, and the processing unit 331 determines the physical parameter state difference DT8T between the physical parameter application state JE1T and the physical parameter application state JE1L by executing the physical parameter relationship check control GX8T, the processing unit 331 executes signal generation control GY81 based on the obtained physical parameter application state code EW1T to generate an operation signal SG81, and transmits the operation signal SG81 to the physical parameter application unit 335. The physical parameter application unit 335 responds to the operation signal SG81 to cause the variable physical parameter QU1A to enter the physical parameter application state JE1T from the physical parameter application state JE1L. For example, the variable physical parameter QU1A enters the physical parameter application state JE1T by entering the physical parameter target range RD1ET.

[0180] The processing unit 331 executes a data storage control operation GM8T based on the obtained measurement value specifying range code EL1T. The data storage control operation GM8T causes a clock time application interval code UF8T representing the clock time specifying interval HR1ET to be stored. For example, the clock time application interval code UF8T is the same as the obtained measurement value specifying range code EL1T. The data storage control operation GM8T uses the storage unit 332 to assign the clock time application interval code UF8T to the variable clock time interval code UF8A.

[0181] For example, the storage unit 332 stores the variable physical parameter range code UN8A. When the physical parameter application state JE1L differs from the physical parameter application state JE1T, and the processing unit 331 determines the physical parameter state difference DT8T by executing the physical parameter relationship check control GX8T, the processing unit 331 uses the storage unit 332 to assign one of the obtained physical parameter target range code UQ1T and the obtained physical parameter application state code EW1T to the variable physical parameter range code UN8A.

[0182] In some embodiments, the timer 342 is configured to represent the clock time specified interval HR1ET by using the measured value specified range RQ1T, and is configured to represent the clock time application interval HR1EU by using the measured value application range RQ1U. The input unit 380 receives the user input operation JS81 at a specific time. The specific time is adjacent to the clock time specified interval HR1ET. For example, the specific time is the current time. The processing unit 331 determines the measured time length value VH8T representing the specified time length LH8T and the clock reference time value NR81 representing the clock reference time TR81 in response to one of the user input operation JS81 and the trigger signal SH81. For example, the clock reference time TR81 is close to the current time. For example, the time difference between the clock reference time TR81 and the current time is within a default time length. The clock reference time value NR81 is defaulted to the specified measured value format HH95 based on the clock reference time TR81 and the timer specification FT21.

[0183] The specified range RQ1T of the measured value has the specified range limit value pair DQ1T. The specified range limit value pair DQ1T includes a specified range limit value DQ13 and a specified range limit value DQ14 relative to the specified range limit value DQ13. For example, the specified range limit value DQ13 and the specified range limit value DQ14 are the start range limit value and the end range limit value, respectively. The specified range limit value DQ13 is equal to the clock reference time value NR81.

[0184] The processing unit 331 determines control data CG81 in response to either the user input operation JS81 or the trigger signal SH81. The control data CG81 includes the measurement value specification range code EL1T, the clock reference time value NR81, and the measurement time length value VH8T. For example, the measurement application function specification GAL8 includes a clock time representation GA8TR. The clock time representation GA8TR is used to represent the clock reference time TR81. The clock reference time value NR81 is defaulted to the specified measurement value format HH95 based on the clock time representation GA8TR, the timer specification FT21, and the data encoding operation ZX8TR used to convert the clock time representation GA8TR.

[0185] In some embodiments, the processing unit 331 causes the timer 342 to start within a startup time TT82 based on the determined clock reference time value NR81, thereby causing the timer 342 to generate a sensing signal SY80 by sensing the clock time TH1A within the startup time TT82. For example, the sensing signal SY80 is a clock time signal. The sensing signal SY80 is an initial time signal and transmits a measurement value NY80 in the specified measurement value format HH95. For example, the measurement value NY80 is an initial count value. For example, the measurement value NY80 is equal to the clock reference time value NR81.

[0186] For example, the timer 342 is configured to have a variable count value NY8A. Upon receiving the user input operation JS81 at the input unit 380, the processing unit 331 starts the timer 342 based on the determined clock reference time value NR81 to execute a counting operation BD81 for the measurement application function FA81 to change the variable count value NY8A. The variable count value NY8A is configured to be equal to the measured value NY80 within the start time TT82 and is provided in the specified measured value format HH95. For example, the measured value NY80 is configured to be the same as the obtained clock reference time value NR81.

[0187] When the variable physical parameter QU1A is configured to be within the target range RD1ET due to the user input operation JS81, the processing unit 331 reaches the operation time TY81 based on the counting operation BD81. Within the operation time TY81, the timer 342 senses the clock time TH1A to cause the variable count value NY8A to equal the measured value NY81, thereby generating a sensing signal SY81 that transmits the measured value NY81. For example, the operation time TY81 is a specified time.

[0188] For example, the trigger application unit 387 responds to the trigger event JQ81 to generate the trigger signal SJ81, provides the trigger signal SJ81 to the processing unit 331, and thereby enables the processing unit 331 to receive the trigger signal SJ81. The processing unit 331 responds to the trigger signal SJ81 to obtain the measurement value NY81 from the sensing signal SY81 in the specified measurement value format HH95 within the operation time TY81, and within the operation time TY81, obtains or determines the measurement value application range code EL1U by performing a scientific calculation MH85 using the obtained measurement value specified range code EL1T to check the physical parameter relationship KD9U between the variable physical parameter QU1A and the physical parameter target state JE1U.

[0189] In some embodiments, the specified measurement range RQ1T has the specified range limit value pair DQ1T. The specified range limit value pair DQ1T includes the specified range limit value DQ13 and the specified range limit value DQ14 relative to the specified range limit value DQ13. Both the specified measurement range RQ1T and the specified range limit value pair DQ1T are defaulted to the specified measurement value format HH95 based on the clock time specified interval HR1ET and the timer specification FT21. The specified measurement value application range RQ1U has the application range limit value pair DQ1U. The application range limit value pair DQ1U includes the first application range limit value DQ15 and the second application range limit value DQ16 relative to the first application range limit value DQ15. Both the specified measurement value application range RQ1U and the application range limit value pair DQ1U are defaulted to the specified measurement value format HH95 based on the clock time application interval HR1EU and the timer specification FT21.

[0190] For example, the measurement application function specification GAL8 includes a clock time specified interval representation GA8HT and a clock time application interval representation GA8HU. The clock time specified interval representation GA8HT is used to represent the clock time specified interval HR1ET. The clock time application interval representation GA8HU is used to represent the clock time application interval HR1EU. The specified measurement value range RQ1T and the specified range limit pair DQ1T are both defaulted to using the specified measurement value format HH95 based on the clock time specified interval representation GA8HT, the timer specification FT21, and the data encoding operation ZX8HT used to convert the clock time specified interval representation GA8HT. The specified measurement value application range RQ1U and the application range limit pair DQ1U are both defaulted to using the specified measurement value format HH95 based on the clock time application interval representation GA8HU, the timer specification FT21, and the data encoding operation ZX8HU used to convert the clock time application interval representation GA8HU.

[0191] In some embodiments, the processing unit 331 determines the measurement application range code EL1U within the operation time TY81 due to the user input operation JS81 in order to check the physical parameter relationship KD9U between the variable physical parameter QU1A and the physical parameter target state JE1U. For example, the processing unit 331 determines the measurement application range code EL1U within the operation time TY81 based on the determined control data CG81 in response to the trigger signal SJ81. The processing unit 331 determines the relative value VL81 within the operation time TY81 and obtains the application range limit value pair DQ1U by performing a scientific calculation ME85 using the determined relative value VL81, the obtained measurement time length value VH8T, and the obtained clock reference time value NR81.

[0192] For example, the processing unit 331 responds to the trigger signal SJ81 to determine the relative value VL81 within the operation time TY81, and determines the measurement value application range code EL1U based on the determined relative value VL81 and the obtained measurement value specified range code EL1T. The processing unit 331 checks the mathematical relationship KQ81 based on the data comparison CF81 between the obtained measurement value NY81 and the obtained application range limit value DQ1U to make the logical decision PQ81 whether the measurement value NY81 is within the selected measurement value application range RQ1U. If the logical decision PQ81 is positive, the processing unit 331 determines the clock time application interval HR1EU in which the clock time TH1A is currently located.

[0193] If the obtained measurement value specified range code EL1T is different from the determined measurement value application range code EL1U, and the processing unit 331 determines the current clock time application interval HR1EU of the clock time TH1A by making the logical decision PQ81, the processing unit 331 executes the data storage control operation GM8U based on the code difference DG83 between the variable clock time interval code UF8A, which is equal to the measurement value specified range code EL1T, and the determined measurement value application range code EL1U. The data storage control operation GM8U uses the storage unit 332 to assign the determined measurement value application range code EL1U to the variable clock time interval code UF8A.

[0194] In some embodiments, when the trigger event JQ81 occurs, the physical parameter target range code UQ1U is equal to the default physical parameter target status code EW1U. Under the condition that the trigger event JQ81 occurs, the processing unit 331 responds to the trigger signal SJ81 to determine the measurement value application range code EL1U based on the determined control data CG81. When the processing unit 331 determines, by making the logical decision PQ81, that the clock time TH1A is currently in the clock time application interval HR1EU, the processing unit 331 obtains the storage address AS8U based on the determined measurement value application range code EL1U, and accesses the physical parameter target range code UQ1U stored in the storage location YS8U based on the obtained storage address AS8U to obtain one of the physical parameter target range code UQ1U and the default physical parameter target status code EW1U.

[0195] For example, when the processing unit 331 checks the mathematical relationship KQ81, the variable physical parameter QU1A is in the physical parameter application state JE1T. The processing unit 331 executes the physical parameter relationship check control GX8U based on the obtained physical parameter target state code EW1U to check the physical parameter relationship KD9U between the variable physical parameter QU1A and the physical parameter target state JE1U. If the physical parameter application state JE1T is different from the physical parameter target state JE1U, and the processing unit 331 determines the physical parameter state difference DT81 between the physical parameter target state JE1U and the physical parameter application state JE1T by executing the physical parameter relationship check control GX8U, the processing unit 331 executes the signal generation control GY85 based on the obtained physical parameter target state code EW1U to generate the operation signal SG85, and transmits the operation signal SG85 to the physical parameter application unit 335.

[0196] The physical parameter application unit 335 responds to the operation signal SG85 to cause the variable physical parameter QU1A to move from the physical parameter application state JE1T to the physical parameter target state JE1U. For example, the variable physical parameter QU1A enters the physical parameter target range RD1EU to enter the physical parameter target state JE1U. For example, when the physical parameter application state JE1T is different from the physical parameter target state JE1U and the processing unit 331 determines the physical parameter state difference DT81 by executing the physical parameter relationship check control GX8U, the processing unit 331 uses the storage unit 332 to assign one of the obtained physical parameter target range code UQ1U and the obtained physical parameter target state code EW1U to the variable physical parameter range code UN8A.

[0197] In some embodiments, the functional device 130 further includes a display unit 382 coupled to the processing unit 331. The display unit 382 includes the light-emitting diode matrix 385 and is controlled by the processing unit 331. The plurality of physical parameter specification range codes UQ11, UQ12, ... belong to the physical parameter specification range code type TS81. The physical parameter specification range code type TS81 is identified by the physical parameter specification range code type identifier HS81. The physical parameter specification range code type identifier HS81 is defaulted. The storage address AS8T is defaulted based on the defaulted physical parameter specification range code type identifier HS81 and the defaulted measurement value specification range code EL1T. The storage address AS8U is defaulted based on the defaulted physical parameter specification range code type identifier HS81 and the defaulted measurement value application range code EL1U.

[0198] The light-emitting diode matrix 385 includes light-emitting diodes 3852 associated with the target time interval HV1U. For example, when the processing unit 331 causes the light-emitting diodes 3852 to display a status indication LL81, the input unit 380 receives the user input operation JS81. The status indication LL81 is used to indicate that the variable physical parameter QU1A is expected to be in a specific state XE81 of the target physical parameter state JG1C within the target time interval HV1U. For example, the status indication LL82 is different from the status indication LL81.

[0199] Before the input unit 380 receives the user input operation JS81, the functional device 130 is configured in the setting phase UC81. The processing unit 331 responds to either the user input operation JS81 or the trigger signal SH81 to cause the functional device 130 to leave the setting phase UC81 and enter the timing phase UD81. For example, the processing unit 331 uses the function switch 380A to cause the functional device 130 to leave the setting phase UC81 and enter the timing phase UD81.

[0200] In some embodiments, before the input unit 380 receives the user input operation JS81, the processing unit 331 obtains the default physical parameter target range code UQ1T, the default physical parameter specified range code type identifier HS81, and the default measurement value specified range code EL1T by using at least one of the input unit 380 and the display unit 382, ​​and pre-obtains the storage address AS8T based on the obtained physical parameter specified range code type identifier HS81 and the obtained measurement value specified range code EL1T. In the setting phase UC81, the processing unit 331 uses the storage unit 332 to store the obtained physical parameter target range code UQ1T at the storage location YS8T based on the obtained physical parameter target range code UQ1T and the obtained storage address AS8T.

[0201] Before the input unit 380 receives the user input operation JS81, the processing unit 331 obtains the physical parameter target range code UQ1U and the default measurement value application range code EL1U by using at least one of the input unit 380 and the display unit 382, ​​and obtains the storage address AS8U in advance based on the obtained physical parameter specified range code type identifier HS81 and the obtained measurement value application range code EL1U. In the setting phase UC81, the processing unit 331 uses the storage unit 332 to store the obtained physical parameter target range code UQ1U at the storage location YS8U based on the obtained physical parameter target range code UQ1U and the obtained storage address AS8U.

[0202] Please see Figure 16 , Figure 17 , Figure 18 and Figure 19 . Figure 16 To illustrate Figure 1 A schematic diagram of the implementation structure 9225 of the control system 921 described herein. Figure 17 To illustrate Figure 1 A schematic diagram of the implementation structure 9226 of the control system 921 described herein. Figure 18 To illustrate Figure 1 A schematic diagram of the implementation structure 9227 of the control system 921 described herein. Figure 19 To illustrate Figure 1 A schematic diagram of the implementation structure 9228 of the control system 921 described herein. (See attached diagram.) Figure 16 , Figure 17 , Figure 18 and Figure 19As shown, each of the implementation structures 9225, 9226, 9227, and 9228 includes the functional device 130. The functional device 130 includes the processing unit 331, the timer 342, the storage unit 332, the input unit 380, the display unit 382, ​​and the physical parameter application unit 335.

[0203] In some embodiments, the display unit 382 includes the light-emitting diode matrix 385. For example, the light-emitting diode matrix 385 is a two-dimensional light-emitting diode matrix and includes a substrate 385A, the light-emitting diodes 3852, and light-emitting diodes 3851 adjacent to the light-emitting diodes 3852. The light-emitting diodes 3852 are associated with the target time interval HV1U. The light-emitting diodes 3851 are associated with a target time interval HV1T adjacent to the target time interval HV1U. For example, the target time interval HV1T is or is the same as the clock time specification interval HR1ET. Both the light-emitting diodes 3851 and 3852 are coupled to the substrate 385A and are both supported by the substrate 385A. The variable application time TC1A is characterized based on the target time interval HV1T. For example, the target time interval HV1T is associated with the stored physical parameter application status code EW1T. For example, the light-emitting diode 3851 is a multicolor light-emitting diode capable of emitting different colors of light at different times.

[0204] When the variable physical parameter status code EG1A equals the physical parameter target status code EG1C, and the processing unit 331 determines the current clock time application interval HR1EU of the clock time TH1A by checking the mathematical relationship KQ81, the processing unit 331 accesses the stored physical parameter target status code EG1C associated with the target time interval HV1U, selects the light-emitting diode 3852 associated with the target time interval HV1U, and, based on the accessed physical parameter target status code EG1C within the target time interval HV1U, causes the selected light-emitting diode 3852 to display the status indication LL82. The status indication LL82 is used to indicate that the variable physical parameter QU1A is configured to be in the specific state XE82 of the physical parameter target state JG1C within the target time interval HV1U.

[0205] The processing unit 331 retrieves the stored physical parameter application status code EW1T related to the target time interval HV1T, selects the light-emitting diode 3851 related to the target time interval HV1T within the target time interval HV1T, and causes the selected light-emitting diode 3851 to display a status indication LL72 based on the stored physical parameter application status code EW1T within the target time interval HV1T. The status indication LL72 is used to indicate that the variable physical parameter QU1A is configured to be in a specific state XE72 of the physical parameter application state JE1T within the target time interval HV1T. For example, the processing unit 331 transmits the operation signal SG81 to the physical parameter application unit 335 based on the stored physical parameter application status code EW1T within the target time interval HV1T. The operation signal SG81 is used to cause the physical parameter application unit 335 to put the variable physical parameter QU1A into the physical parameter application state JE1T.

[0206] In some embodiments, the variable physical parameter QU1A is one of a plurality of specific physical parameters. These specific physical parameters include variable time parameters, variable electrical parameters, variable mechanical parameters, variable motion parameters, variable optical parameters, variable temperature, variable voltage, variable current, variable electrical power, variable resistance, variable capacitance, variable inductance, variable frequency, clock time, variable time length, variable remaining time, variable color temperature, variable brightness, variable luminous intensity, variable volume, variable data flow, variable amplitude, variable spatial position, variable displacement, variable sequential position, variable angle, variable spatial length, variable distance, variable translational speed, variable angular velocity, variable acceleration, variable force, variable pressure, and variable mechanical power. For example, the variable time parameter is one of clock time, variable time length, and variable remaining time. The variable optical parameter is one of variable color temperature, variable brightness, and variable luminous intensity.

[0207] The processing unit 331 is configured to execute the measurement application function FA81 associated with the variable physical parameter QU1A. The functional device 130 is one of a plurality of application devices. The measurement application function FA81 is one of a plurality of specific control functions, including time control, light control, force control, electrical control, magnetic control, and any combination thereof. The plurality of application devices include control target devices, relays, control switches, motors, lighting devices, doors, vending machines, energy converters, electrical load devices, timing devices, toys, electrical appliances, printing devices, display devices, electronic tags, mobile devices, speakers, and any combination thereof. For example, the electrical appliance is a household appliance.

[0208] The physical parameter application unit 335 is one of a plurality of application components. These application components include electronic components, actuators, resistors, capacitors, inductors, relays, control switches, transistors, light-emitting diodes, motors, light-emitting units, lighting units, energy conversion units, electrical load units, timing units, printing units, display units, speakers, and any combination thereof. For example, the physical parameter application unit 335 is a physically realizable functional unit.

[0209] In some embodiments, the physical parameter application unit 335 has a physical parameter forming area AU11. The physical parameter forming area AU11 has the variable physical parameter QU1A. For example, the physical parameter forming area AU11 is one of an electrical load area, a display area, a sensing area, a touch area, a power supply area, and an environmental area. For example, the physical parameter type TU11 is different from the time type.

[0210] For example, the physical parameter application unit 335 includes an input portion 3357 and an output portion 3358 coupled to the input portion 3357. The input portion 3357 is used to control the output portion 3358, is coupled to the processing unit 331, and is controlled by the processing unit 331. The output portion 3358 has the physical parameter forming region AU11. The physical parameter forming region AU11 has the variable physical parameter QU1A. For example, the input portion 3357 is coupled to the processing unit 331 and the output portion 3358, and receives at least one of the operation signal SG81 and the operation signal SG85 from the processing unit 331. For example, the variable physical parameter state QU1A is one of a variable switch state and a variable function state.

[0211] For example, the input section 3357 receives the operation signal SG81 from the processing unit 331 and executes a first functional operation in response to the operation signal SG81. The first functional operation controls the output section 3358 and causes the output section 3358 to set the variable physical parameter QU1A to the physical parameter application state JE1T. The input section 3357 receives the operation signal SG85 from the processing unit 331 and executes a second functional operation in response to the operation signal SG85. The second functional operation controls the output section 3358 and causes the output section 3358 to set the variable physical parameter state JG1A equal to the physical parameter target state JG1C.

[0212] For example, if the physical parameter application unit 335 is a relay, the output section 3358 includes a control switch. The control switch is coupled to and controlled by the input section 3357, and has the physical parameter forming region AU11. The control switch forms the variable physical parameter state JG1A based on the variable physical parameter QU1A in the physical parameter forming region AU11.

[0213] In some embodiments, the variable application time TC1A is characterized based on multiple different reference time intervals HV11, HV12, ... . When the variable application time TC1A is equal to the clock time TH1A, the multiple different reference time intervals HV11, HV12, ... are respectively equal to the multiple different clock time reference intervals HR1E1, HR1E2, ... . The variable physical parameter QU1A is characterized in the multiple different reference time intervals HV11, HV12, ... based on multiple variable physical parameter states JG11, JG12, ... . The multiple variable physical parameter states JG11, JG12, ... include the variable physical parameter state JG1A and are respectively represented by multiple variable physical parameter state codes EG11, EG12, ...

[0214] For example, the multiple variable physical parameter status codes EG11, EG12, ... are respectively identical to the multiple physical parameter specified range codes UQ11, UQ12, ..., including the variable physical parameter status code EG1A, and are arranged according to the default status code order. For example, the multiple variable physical parameter states JG11, JG12, ... are respectively multiple states that the variable physical parameter QU1A is expected to be in within the multiple different reference time intervals HV11, HV12, ...

[0215] The storage unit 332 stores a variable physical parameter status code array EGAA. The variable physical parameter status code array EGAA includes the plurality of variable physical parameter status codes EG11, EG12, ..., and is a two-dimensional variable physical parameter status code array. The light-emitting diode matrix 385 is associated with the stored variable physical parameter status code array EGAA. The processing unit 331 causes the light-emitting diode matrix 385 to perform a display operation ZJ82 based on the stored variable physical parameter status code array EGAA. For example, the display operation ZJ82 includes displaying the status indicator LL82 using the light-emitting diode 3852.

[0216] In some embodiments, the variable physical parameter QU1A is characterized based on a physical parameter target state JG1P represented by the physical parameter target state code EG1P. The input unit 380 receives a user input operation BB8H during the setting phase UC81. The processing unit 331, in response to the user input operation BB8H, immediately transmits an operation signal SG67 to the physical parameter application unit 335. The operation signal SG67 causes the physical parameter application unit 335 to place the variable physical parameter QU1A in the physical parameter target state JG1P. For example, the processing unit 331 obtains the physical parameter target state code EG1P in response to the user input operation BB8H and immediately generates the operation signal SG67 based on the obtained physical parameter target state code EG1P.

[0217] For example, the input portion 3357 of the physical parameter application unit 335 receives the operation signal SG67 from the processing unit 331. The input portion 3357 receives the operation signal SG67 from the processing unit 331 and, in response to the operation signal SG67, performs a third function operation. The third function operation controls the output portion 3358 and causes the output portion 3358 to immediately bring the variable physical parameter QU1A to the target physical parameter state JG1P.

[0218] For example, the input unit 380 includes a function switch 3807 and responds to the user input operation BB8H to cause the processing unit 331 to receive a trigger signal SA87. The function switch 3807 receives the user input operation BB8H using the function switch 3807 during the setting phase UC81 and responds to the user input operation BB8H to cause the processing unit 331 to receive the trigger signal SA87. The processing unit 331 responds to the trigger signal SA87 to obtain the physical parameter target status code EG1P. For example, the processing unit 331 relies on the function switch 3807 to obtain the physical parameter target status code EG1P. For example, the function switch 3807 is a push-button switch.

[0219] The input unit 380 includes the function switch 3805. When the function device 130 is configured in the setting phase UC81 and the variable physical parameter status code EG1A is equal to the physical parameter application status code EG1B, the function switch 3805 receives the user input operation BB8C using the function switch 3805, and responds to the user input operation BB8C to cause the processing unit 331 to receive the trigger signal SA81. The processing unit 331 responds to the trigger signal SA81 to change the variable physical parameter status code EG1A from the physical parameter application status code EG1B to the physical parameter target status code EG1C. For example, the function switch 3805 is coupled to the processing unit 331. The trigger event JQ81 occurs in the timing phase UD81.

[0220] For example, the input unit 380 receives the user input operation BB8C within the operation time TF61. When the variable physical parameter status code EG1A is equal to the physical parameter application status code EG1B, the processing unit 331 retrieves the stored physical parameter application status code EG1B in a target time interval HY1U earlier than the operation time TF61, and sets the variable physical parameter state JG1A equal to the physical parameter target state JG1B based on the retrieved physical parameter application status code EG1B. For example, the variable application time TC1A is characterized based on the target time interval HY1U. The target time interval HV1U is the same as the target time interval HY1U, but later than the target time interval HY1U.

[0221] In some embodiments, the input unit 380 receives a user input operation JS82 occurring prior to the user input operation BB8C, and responds to the user input operation JS82 to cause the processing unit 331 to receive a trigger signal SH82. The processing unit 331 responds to the trigger signal SH82 to cause the functional device 130 to enter the setting stage UC81. The input unit 380 further includes a function switch 380B coupled to the processing unit 331. The function switch 380B receives the user input operation JS82 using the function switch 380B, and responds to the user input operation JS82 to cause the processing unit 331 to receive the trigger signal SH82. For example, the processing unit 331 relies on the function switch 380B to cause the functional device 130 to enter the setting stage UC81. For example, the function switch 380B is a push-button switch.

[0222] For example, the triggering application unit 387 is controlled by the processing unit 331 to cause the triggering event JQ81 to occur. When the triggering event JQ81 is the integer overflow event, the triggering application unit 387 is controlled by the processing unit 331 to cause the integer overflow event to occur. The functional device 130 further includes a timer 343 coupled to the processing unit 331. The timer 343 is controlled by the processing unit 331. When the triggering event JQ81 is the integer overflow event, the timer 343 of the triggering application unit 387 causes the integer overflow event to occur in response to a time control GD81 associated with the processing unit 331. For example, the processing unit 331 executes the time control GD81 to control the timer 343 in response to the control signal SC81. The timer 343 responds to the time control GD81 to generate the integer overflow event.

[0223] For example, the trigger application unit 387 is one of the input unit 380, the display unit 382, ​​and the timer 343. When the trigger event JQ81 is the user input event, the input unit 380 of the trigger application unit 387 receives the user input operation JS83 to cause the user input event to occur. For example, when the functional device 130 is configured in the timing phase UD81, the input unit 380 receives the user input operation JS86 and responds to the user input operation JS86 to cause the processing unit 331 to receive the trigger signal SH86.

[0224] The processing unit 331 responds to the trigger signal SH86 to cause the functional device 130 to leave the timing phase UD81 and enter the setting phase UC82. For example, the function switch 380B receives the user input operation JS86 using the function switch 380B, and responds to the user input operation JS86 to cause the processing unit 331 to receive the trigger signal SH86.

[0225] Please see Figure 20 . Figure 20 To illustrate Figure 1 A schematic diagram of the implementation structure 9229 of the control system 921 described herein. (See diagram below.) Figure 20 As shown, the implementation structure 9229 includes the functional device 130. In some embodiments, the variable physical parameter QU1A is characterized based on the physical parameter target state JE1U. For example, the physical parameter target state JG1C is or is the same as the physical parameter target state JE1U. The functional device 130 further includes a timer 346 coupled to the processing unit 331.

[0226] The timer 346 senses the variable remaining time TA1A to generate a sensing signal ST81. For example, the variable remaining time TA1A is characterized based on a remaining time application interval HJ1EU represented by the measurement application range RJ1U. For example, the target time interval HV1U is or is the same as the remaining time application interval HJ1EU. The processing unit 331 responds to the sensing signal ST81 to obtain a measurement value NJ81, and, under the condition that the processing unit 331 determines the remaining time application interval HJ1EU in which the variable remaining time TA1A is currently located by examining the mathematical relationship KB81 between the measurement value NJ81 and the measurement application range RJ1U, places the variable physical parameter QU1A in the target physical parameter state JE1U. For example, the sensing signal ST81 is a digital signal.

[0227] Please see Figure 21 and Figure 22 . Figure 21 To illustrate Figure 1 A schematic diagram of the implementation structure 9230 of the control system 921 described herein. Figure 22 To illustrate Figure 1 A schematic diagram of the implementation structure 9231 of the control system 921 described herein. (See attached diagram.) Figure 21 and Figure 22 As shown, each of the embodiments 9230 and 9231 includes the functional device 130. In some embodiments, the functional device 130 further includes a physical parameter application unit 335 coupled to the processing unit 331. For example, the functional device 130 is a control target device. The physical parameter application unit 335 is a functional target. The input unit 380 further includes a function switch 380A coupled to the processing unit 331. For example, the timer 346 may be the same as or different from the timer 342. The variable physical parameter QU1A is related to the variable remaining time TA1A.

[0228] In some embodiments, the variable remaining time TA1A is further characterized based on a remaining time specifying interval HJ1ET, which is different from the remaining time application interval HJ1EU. For example, the remaining time specifying interval HJ1ET is earlier than the remaining time application interval HJ1EU. Before the variable remaining time TA1A enters the remaining time application interval HJ1EU, the input unit 380 receives a user input operation JS81 and responds to the user input operation JS81 to cause the processing unit 331 to receive a trigger signal SH81. The processing unit 331 responds to the trigger signal SH81 to determine a specific range code EB1T. The specific range code EB1T indicates the remaining time specifying interval HJ1ET.

[0229] For example, the processing unit 331 determines the specific range code EB1T in response to the user input operation JS81. Before the variable remaining time TA1A enters the remaining time application interval HJ1EU, the function switch 380A receives the user input operation JS81 using the function switch 380A and responds to the user input operation JS81 to cause the processing unit 331 to receive the trigger signal SH81. For example, the user input operation BB8C occurs before the user input operation JS81. The processing unit 331 starts the timer 346 in response to either the user input operation JS81 or the trigger signal SH81.

[0230] The processing unit 331 obtains the measured value NJ81 in response to the sensing signal ST81 due to the trigger signal SH81. For example, the trigger signal SH81 is used to determine the remaining time specified interval HJ1ET. The functional device 130 uses the timer 346 based on the trigger signal SH81 to check the time relationship KC81 between the variable remaining time TA1A and the remaining time application interval HJ1EU. For example, the sensing signal ST81 is the remaining time signal. The measured value NJ81 is a specific count value.

[0231] In some embodiments, the timer 346 conforms to timer specification FT31. For example, the measurement application range RJ1U is defaulted based on the timer specification FT31. The timer specification FT31 includes a full measurement range representation FJ8E for representing the full measurement range QJ8E. For example, the measurement application range RJ1U is equal to a portion of the full measurement range QJ8E. The measurement value NJ81 is obtained in a specified measurement value format HH97. The measurement application range RJ1U is defaulted based on the timer specification FT31 using the specified measurement value format HH97. For example, the remaining time application interval HR1EU is a candidate interval for remaining time. The measurement application range RJ1U is a candidate range for measurement time values. The remaining time specified interval HJ1ET is a target interval for remaining time. The specified measurement value format HH97 is a specified count value format.

[0232] The measured value application range RJ1U has an application range limit value pair DJ1U, and is represented by the measured value application range code EF1U. For example, the application range limit value pair DJ1U is defaulted. The processing unit 331 responds to one of the user input operation JS81 and the trigger signal SH81 to obtain the application range limit value pair DJ1U and the measured value application range code EF1U, and checks the mathematical relationship KB81 by comparing the measured value NJ81 and the obtained application range limit value pair DJ1U. The physical parameter target state JE1U is represented by the physical parameter target state code EW1U. The physical parameter application unit 335 has the variable physical parameter QU1A. For example, the variable physical parameter QU1A is currently in the physical parameter application state JE1T. The application range limit value pair DJ1U is a candidate range limit value pair. The measured value application range code EF1U is a candidate range code for the measured time value. The physical parameter target state code EG1C is or is the same as the physical parameter target state code EW1U.

[0233] The variable remaining time TA1A is characterized based on multiple different remaining time reference intervals HJ1E1, HJ1E2, ... . These multiple different remaining time reference intervals HJ1E1, HJ1E2, ... include the remaining time specified interval HJ1ET and the remaining time application interval HJ1EU. When the variable application time TC1A is equal to the variable remaining time TA1A, the multiple different reference time intervals HV11, HV12, ... are respectively equal to the multiple different remaining time reference intervals HJ1E1, HJ1E2, ...

[0234] In some embodiments, when the processing unit 331 determines the remaining time application interval HJ1EU in which the variable remaining time TA1A is currently located by checking the mathematical relationship KB81, the processing unit 331 obtains the physical parameter target status code EW1U based on the obtained measurement application range code EF1U, and performs physical parameter relationship checking control GX8U based on the obtained physical parameter target status code EW1U to check the physical parameter relationship KD9U between the variable physical parameter QU1A and the physical parameter target status JE1U.

[0235] When the physical parameter application state JE1T differs from the physical parameter target state JE1U, and the processing unit 331 determines the physical parameter state difference DT81 between the physical parameter target state JE1U and the physical parameter application state JE1T by executing the physical parameter relationship check control GX8U, the processing unit 331 executes signal generation control GY85 based on the obtained physical parameter target state code EW1U to generate an operation signal SG85, and transmits the operation signal SG85 to the physical parameter application unit 335. For example, the operation signal SG85 is one of a function signal and a control signal.

[0236] The physical parameter application unit 335 responds to the operation signal SG85 to cause the variable physical parameter QU1A to move from the physical parameter application state JE1T to the physical parameter target state JE1U. When the processing unit 331 determines, by checking the mathematical relation KB81, the remaining time application interval HJ1EU in which the variable remaining time TA1A is currently located, the processing unit 331 executes a data storage control operation GN8U, which causes the remaining time application interval code UG8U representing the determined remaining time application interval HJ1EU to be stored by the storage unit 332. The variable physical parameter QU1A and the variable remaining time TA1A belong to physical parameter type TU11 and remaining time type TQ21, respectively. For example, the physical parameter type TU11 is different from the remaining time type TQ21.

[0237] Please see Figure 23 , Figure 24 and Figure 25 . Figure 23 To illustrate Figure 1 A schematic diagram of the implementation structure 9232 of the control system 921 described herein. Figure 24 To illustrate Figure 1 A schematic diagram of the implementation structure 9233 of the control system 921 described herein. Figure 25 To illustrate Figure 1 A schematic diagram of the implementation structure 9234 of the control system 921 described herein. (See diagram below.) Figure 23 , Figure 24 and Figure 25 As shown, each of the embodiments 9232, 9233, and 9234 includes the functional device 130. The functional device 130 includes the processing unit 331, the storage unit 332, the input unit 380, the light-emitting diode matrix 385, and a timer 34A coupled to the processing unit 331. The timer 34A is one of the timers 342 and 346.

[0238] In some embodiments, the variable physical parameter QU1A is further characterized based on a physical parameter application state JG1E represented by a physical parameter application state code EG1E and a physical parameter target state JG1F different from the physical parameter application state JG1E. The physical parameter target state JG1F is represented by a physical parameter target state code EG1F. The storage unit 332 further stores a variable physical parameter state code EG1D representing a variable physical parameter state JG1D. For example, the variable physical parameter state JG1D is the state that the variable physical parameter QU1A is expected to be in within a target time interval HV1V adjacent to the target time interval HV1U. The variable physical parameter state codes EG1A and EG1D are arranged such that EG1D is adjacent to EG1A. The variable application time TC1A is characterized based on the target time interval HV1V. For example, the variable physical parameter states JG1A and JG1D are two variable function states, respectively. For example, the target time interval HV1V is related to the stored variable physical parameter status code EG1D.

[0239] For example, the storage unit 332 stores the variable physical parameter status code array EGAA. The variable physical parameter status code array EGAA includes the plurality of variable physical parameter status codes EG11, EG12, ... The plurality of variable physical parameter status codes EG11, EG12, ... include the variable physical parameter status code EG1A and the variable physical parameter status JG1D. Under the condition that the clock time TH1A is applied, the plurality of different clock time reference intervals HR1E1, HR1E2, ... include the target time interval HV1U and the target time interval HV1V. Under the condition that the variable remaining time TA1A is applied, the target time interval HV1V is adjacent to the remaining time application interval HJ1EU, and the variable remaining time TA1A is further characterized based on the target time interval HV1V.

[0240] In some embodiments, the target time interval HV1V is represented by the target range of measured values ​​RQ3V. When the variable physical parameter status code EG1D is equal to the physical parameter application status code EG1E and the variable physical parameter status code EG1A is changed to the physical parameter target status code EG1C by means of the input unit 380, the processing unit 331, in the setting phase UC81, uses the input unit 380 to change the variable physical parameter status code EG1D from the physical parameter application status code EG1E to the physical parameter target status code EG1F. The timer 34A senses the variable application time TC1A in the timing phase UD81 to generate a sensing signal SY61. The processing unit 331 responds to the sensing signal SY61 to obtain the measured value NY61.

[0241] When the variable physical parameter status code EG1D equals the physical parameter target status code EG1F and the functional device 130 is configured in the timing phase UD81, the processing unit 331 checks the mathematical relationship KQ61 between the measured value NY61 and the measured value application range RQ3V. When the processing unit 331 determines, by checking the mathematical relationship KQ61, that the clock time TC1A is currently in the target time interval HV1V, the processing unit 331 accesses the stored physical parameter target status code EG1F and, within the target time interval HV1V, sets the variable physical parameter QU1A to the physical parameter target state JG1F based on the accessed physical parameter target status code EG1F.

[0242] For example, the processing unit 331 transmits an operation signal SG8K to the physical parameter application unit 335 within the target time interval HV1V based on the stored physical parameter target status code EG1F. The operation signal SG8K causes the physical parameter application unit 335 to place the variable physical parameter QU1A in the physical parameter target state JG1F. For example, the input section 3357 receives the operation signal SG8K from the processing unit 331 and, in response to the operation signal SG8K, performs a fourth function operation. The fourth function operation controls the output section 3358 and causes the output section 3358 to place the variable physical parameter QU1A in the physical parameter target state JG1F.

[0243] The input unit 380 includes the function switch 3805. When the variable physical parameter status code EG1D is equal to the physical parameter application status code EG1E and the variable physical parameter status code EG1A is changed to the physical parameter target status code EG1C by means of the function switch 3805, the processing unit 331 receives a user input operation BB8F using the function switch 3805 in the setting phase UC81, and responds to the user input operation BB8F to cause the processing unit 331 to receive a trigger signal SA82. In the setting phase UC81, the processing unit 331 responds to the trigger signal SA82 to change the variable physical parameter status code EG1D from the physical parameter application status code EG1E to the physical parameter target status code EG1F.

[0244] For example, the function switch 3805 is associated with the variable physical parameter status code array EGAA. The processing unit 331 responds to either the user input operation BB8C or the trigger signal SA81 to select the variable physical parameter status code EG1A associated with the target time interval HV1U from the variable physical parameter status code array EGAA, and changes the selected variable physical parameter status code EG1A from the physical parameter application status code EG1B to the physical parameter target status code EG1C. The processing unit 331 responds to either the user input operation BB8F or the trigger signal SA82 to select the variable physical parameter status code EG1D associated with the target time interval HV1V from the variable physical parameter status code array EGAA, and changes the selected variable physical parameter status code EG1D from the physical parameter application status code EG1E to the physical parameter target status code EG1F.

[0245] For example, the processing unit 331 responds to one of the user input operation BB8C and the trigger signal SA81 to select the variable physical parameter status code EG1A from the plurality of variable physical parameter status codes EG11, EG12, ... . The processing unit 331 responds to one of the user input operation BB8F and the trigger signal SA82 to select the variable physical parameter status code EG1D from the plurality of variable physical parameter status codes EG11, EG12, ...

[0246] In some embodiments, the light-emitting diode matrix 385 is associated with the variable physical parameter status code array EGAA, and further includes light-emitting diodes 3853 associated with the target time interval HV1V. For example, the light-emitting diode 3853 is adjacent to the light-emitting diode 3852 and associated with the target time interval HV1V. When the variable physical parameter status code EG1D is equal to the physical parameter target status code EG1F and the functional device 130 is configured in the timing phase UD81, the processing unit 331 relies on the timer 34A to check a first temporal relationship between the variable application time TC1A and the target time interval HV1V. For example, the light-emitting diode 3853 is a multicolor light-emitting diode capable of emitting different colors of light at different times.

[0247] When the processing unit 331 determines, by checking the first time relationship, that the variable application time TC1A is currently in the target time interval HV1V, the processing unit 331 accesses the stored physical parameter target status code EG1F associated with the target time interval HV1V, selects the light-emitting diode 3853 associated with the target time interval HV1V, and, within the target time interval HV1V, causes the light-emitting diode 3853 to display a status indicator LL84 based on the accessed physical parameter target status code EG1F. The status indicator LL84 indicates that the variable physical parameter QU1A is configured to be in a specific state XE84 of the physical parameter target state JG1F within the target time interval HV1V. For example, the status indicator LL84 may flash. For example, the light-emitting diode 3853 is coupled to and supported by the substrate 385A.

[0248] In some embodiments, when the variable physical parameter status code EG1A is equal to the physical parameter target status code EG1C and the functional device 130 is configured in the timing phase UD81, the processing unit 331 relies on the timer 34A to check the second time relationship between the variable application time TC1A and the target time interval HV1U. When the processing unit 331 determines, due to checking the second time relationship, that the variable application time TC1A is currently in the target time interval HV1U, the processing unit 331 accesses the stored physical parameter target status code EG1C associated with the target time interval HV1U, selects the light-emitting diode 3852 associated with the target time interval HV1U, and within the target time interval HV1U, causes the selected light-emitting diode 3852 to display the status indication LL82 based on the accessed physical parameter target status code EG1C.

[0249] For example, when the processing unit 331 causes the light-emitting diode 3853 to display a status indicator LL83, the input unit 380 receives the user input operation JS81. The status indicator LL83 is used to indicate that the variable physical parameter QU1A is expected to be in a specific state XE83 of the target physical parameter state JG1F within the target time interval HV1V. For example, the status indicator LL84 is different from the status indicator LL83. The functional device 130 is used by the user 395. For example, the user 395 executes one of the user input operations JS82, BB8C, BB8F, BB8H, JS81, JS83, JS86, and any combination thereof.

[0250] For example, the LED matrix 385 includes the substrate 385A and a plurality of LEDs 3851, 3852, ..., and is associated with the plurality of variable physical parameter state codes EG11, EG12, ... . The plurality of LEDs 3851, 3852, ... include LEDs 3851, 3852, and 3853, and are all directly coupled to the substrate 385A. For example, the LED matrix 385 includes a first LED column 681 and a second LED column 682 adjacent to the first LED column 681. The first LED column 681 includes LEDs 3852 and 3853 and is associated with a first specific hour. The first specific hour includes the target time interval HV1U and the target time interval HV1V.

[0251] The second light-emitting diode (LED) column 682 comprises a plurality of LEDs and is associated with a second specific hour adjacent to the first specific hour. The plurality of LEDs 3851, 3852, ... comprise the plurality of LEDs in the second LED column 682. The second specific hour comprises a plurality of target time intervals associated with each of the plurality of LEDs. Given that the target time interval HV1V is a first end time interval, the plurality of target time intervals include a second end time interval adjacent to the target time interval HV1V. The plurality of different reference time intervals HV11, HV12, ... comprise the target time interval HV1U, the target time interval HV1V, and the plurality of target time intervals of the second specific hour.

[0252] For example, the variable physical parameter status code array EGAA includes a first variable physical parameter status code column associated with the first light-emitting diode column 681 and a second variable physical parameter status code column associated with the second light-emitting diode column 682. The first variable physical parameter status code column is associated with the first specific hour and includes the variable physical parameter status code EG1A associated with the target time interval HV1U and the variable physical parameter status code EG1D associated with the target time interval HV1V. The second variable physical parameter status code column is associated with the second specific hour and includes multiple variable physical parameter status codes; and the multiple target time intervals of the second specific hour are respectively associated with the multiple variable physical parameter status codes of the second variable physical parameter status code column.

[0253] The input unit 380 includes the plurality of function switches 3805, 380A, ... The plurality of function switches 3805, 380A, ... includes function switch 3805, function switch 3807, function switch 380A, and function switch 380B, and are coupled to each other via a silicone sheet 380Z. For example, the input unit 380 includes the silicone sheet 380Z. The silicone sheet 380Z includes a plurality of silicone portions A1, A2, ... The plurality of function switches 3805, 380A, ... each includes the plurality of silicone portions A1, A2, ... and a plurality of conductive adhesive layers B1, B2, ... respectively coupled to the plurality of silicone portions A1, A2, ...

[0254] Please see Figure 26 This is a schematic diagram of a control system 931 in various embodiments of the present disclosure. The control system 931 includes functional means 130 for a variable physical parameter QU1A. For example, the variable physical parameter QU1A is characterized based on a physical parameter target state JG1C represented by a physical parameter target state code EG1C. The functional means 130 includes a light-emitting diode matrix 385 and a processing unit 331.

[0255] The light-emitting diode matrix 385 includes light-emitting diodes 3852 associated with a target time interval HV1U. The processing unit 331, coupled to the light-emitting diode matrix 385, is configured to obtain the physical parameter target status code EG1C within the target time interval HV1U, and to cause the light-emitting diodes 3852 to display a status indication LL82 based on the obtained physical parameter target status code EG1C. The status indication LL82 indicates that the variable physical parameter QU1A is configured to be in a specific state XE82 of the physical parameter target state JG1C within the target time interval HV1U.

[0256] Please see Figure 27 and Figure 28 . Figure 27 To illustrate Figure 26 A schematic diagram of the implementation structure 9311 of the control system 931 described herein. Figure 28 To illustrate Figure 26 A schematic diagram of the implementation structure 9312 of the control system 931 described herein. (See attached diagram.) Figure 27 and Figure 28 As shown, each of the implementation structures 9311 and 9312 includes the functional device 130. In some embodiments, the processing unit 331 is coupled to a physical parameter application unit 335 having the variable physical parameter QU1A. The variable physical parameter QU1A is related to a variable application time TC1A. The variable application time TC1A is characterized based on the target time interval HV1U and is one of a variable time length, a clock time TH1A, and a variable remaining time TA1A. For example, the status indicator LL82 has a blinking effect.

[0257] For example, the target time interval HV1U is one of the clock time target interval and the remaining time target interval. When the processing unit 331 determines that the variable application time TC1A is currently in the target time interval HV1U, the processing unit 331 obtains the physical parameter target status code EG1C and transmits an operation signal SG85 to the physical parameter application unit 335 based on the obtained physical parameter target status code EG1C. The operation signal SG85 is used to cause the physical parameter application unit 335 to place the variable physical parameter QU1A in the physical parameter target state JG1C.

[0258] In some embodiments, the functional device 130 further includes an input unit 380 coupled to the processing unit 331 and a storage unit 332 coupled to the processing unit 331. The variable physical parameter QU1A is further characterized based on a physical parameter application state JG1B that is different from the physical parameter target state JG1C. The physical parameter application state JG1B is represented by a physical parameter application state code EG1B. The storage unit 332 stores the variable physical parameter state code EG1A representing the variable physical parameter state JG1A. For example, the variable physical parameter state JG1A is the state that the variable physical parameter QU1A is expected to be in within the target time interval HV1U.

[0259] When the variable physical parameter status code EG1A is equal to the physical parameter application status code EG1B, the processing unit 331 uses the input unit 380 to change the variable physical parameter status code EG1A from the physical parameter application status code EG1B to the physical parameter target status code EG1C. The input unit 380 includes a function switch 3805. For example, the function switch 3805 is coupled to the processing unit 331. When the variable physical parameter status code EG1A is equal to the physical parameter application status code EG1B, the function switch 3805 receives a user input operation BB8C using the function switch 3805 and responds to the user input operation BB8C to cause the processing unit 331 to receive a trigger signal SA81.

[0260] The processing unit 331 responds to the trigger signal SA81 to change the variable physical parameter status code EG1A from the physical parameter application status code EG1B to the physical parameter target status code EG1C. When the variable physical parameter status code EG1A equals the physical parameter target status code EG1C, the processing unit 331 retrieves the stored physical parameter target status code EG1C from the target time interval HV1U, and based on the retrieved physical parameter target status code EG1C, makes the variable physical parameter status JG1A equal to the physical parameter target status JG1C.

[0261] Please see Figure 26 , Figure 27 and Figure 28 A method MM82 for variable physical parameters QU1A is disclosed. For example, the variable physical parameters QU1A are characterized based on the physical parameter target state JG1C represented by the physical parameter target state code EG1C.

[0262] The method MM80 includes the following steps: providing a light-emitting diode matrix 385 including light-emitting diodes 3852, wherein the light-emitting diodes 3852 are associated with a target time interval HV1U; obtaining the physical parameter target status code EG1C within the target time interval HV1U; and, based on the obtained physical parameter target status code EG1C, causing the light-emitting diodes 3852 to display a status indication LL82, the status indication LL82 indicating that the variable physical parameter QU1A is configured to be in a specific state XE82 of the physical parameter target state JG1C within the target time interval HV1U.

[0263] In some embodiments, the variable physical parameter QU1A is related to the variable application time TC1A. The variable application time TC1A is characterized based on the target time interval HV1U and is one of a variable time length, a clock time TH1A, and a variable remaining time TA1A. The method MM82 further includes the following steps: providing a physical parameter application unit 335 having the variable physical parameter QU1A; obtaining the physical parameter target status code EG1C under the condition that the target time interval HV1U in which the variable application time TC1A is currently located is determined; and transmitting an operation signal SG85 to the physical parameter application unit 335 based on the obtained physical parameter target status code EG1C, the operation signal SG85 being used to cause the physical parameter application unit 335 to place the variable physical parameter QU1A in the physical parameter target state JG1C.

[0264] In some embodiments, the variable physical parameter QU1A is further characterized based on a physical parameter application state JG1B that is different from the physical parameter target state JG1C. The physical parameter application state JG1B is represented by a physical parameter application state code EG1B. The method MM82 further includes the following steps: providing a function switch 3805; and storing a variable physical parameter state code EG1A representing the variable physical parameter state JG1A, wherein the variable physical parameter state JG1A is the state that the variable physical parameter QU1A is expected to be in within the target time interval HV1U.

[0265] The method MM82 further includes the following steps: under the condition that the variable physical parameter status code EG1A is equal to the physical parameter application status code EG1B, changing the variable physical parameter status code EG1A from the physical parameter application status code EG1B to the physical parameter target status code EG1C; under the condition that the variable physical parameter status code EG1A is equal to the physical parameter target status code EG1C, retrieving the stored physical parameter target status code EG1C in the target time interval HV1U; and based on the retrieved physical parameter target status code EG1C, making the variable physical parameter state JG1A equal to the physical parameter target state JG1C.

[0266] The step of changing the variable physical parameter status code EG1A to the physical parameter target status code EG1C includes the following sub-steps: under the condition that the variable physical parameter status code EG1A is equal to the physical parameter application status code EG1B, causing the function switch 3805 to receive a user input operation BB8C using the function switch 3805; in response to the user input operation BB8C, receiving a trigger signal SA81; and in response to the trigger signal SA81, changing the variable physical parameter status code EG1A from the physical parameter application status code EG1B to the physical parameter target status code EG1C.

[0267] Please see Figure 29 This is a schematic diagram of a control system 941 in various embodiments of the present disclosure. The control system 941 includes a functional device 131 for controlling a first variable physical parameter QQ1A. For example, the first variable physical parameter QQ1A is characterized based on a target state JQ1U. The functional device 131 includes a sensing component 420, a processing unit 331, and a sensing unit 430.

[0268] The sensing component 420 is configured to sense a variable physical application parameter QR1A to generate a sensing application signal SR11. The processing unit 331 is coupled to the sensing component 420 and responds to the sensing application signal SR11 to change a second variable physical parameter QQ2A. For example, the second variable physical parameter QQ2A is characterized based on a physical parameter application range RF2EL represented by a measured value application range RK2L.

[0269] The sensing unit 430 is coupled to the processing unit 331 and configured to sense the second variable physical parameter QQ2A to generate a sensing signal SN21. For example, when the processing unit 331 determines, based on the sensing signal SN21 and the measured value application range RK2L, that the second variable physical parameter QQ2A is currently in the physical parameter application range RF2EL, the processing unit 331 places the first variable physical parameter QQ1A in the target state JQ1U.

[0270] Please see Figure 30 , Figure 31 and Figure 32 . Figure 30 To illustrate Figure 29 A schematic diagram of the implementation structure 9411 of the control system 941 described herein. Figure 31 To illustrate Figure 29 A schematic diagram of the implementation structure 9412 of the control system 941 described herein. Figure 32 To illustrate Figure 29 A schematic diagram of the implementation structure 9413 of the control system 941 described herein. (See attached diagram.) Figure 30 , Figure 31 and Figure 32 As shown, each of the implementation structures 9411, 9412 and 9413 includes the functional device 131.

[0271] In some embodiments, the functional device 131 further includes a physical parameter forming area AV21, a user operating medium 790, a first physical parameter application unit 631 coupled to the processing unit 331, a second physical parameter application unit 633 coupled to the processing unit 331, a third physical parameter application unit 635 coupled to the processing unit 331, a first trigger application unit 521 coupled to the processing unit 331, a second trigger application unit 522 coupled to the processing unit 331, and a third trigger application unit 523 coupled to the processing unit 331. The user operating medium 790 is coupled to one of the processing unit 331 and the sensing component 420.

[0272] The first trigger application unit 521 is one of a first input unit, a first receiving unit, a first timer, a first button, and a first function switch. The second trigger application unit 522 is one of a second input unit, a second receiving unit, a second timer, a second button, and a second function switch. The third trigger application unit 523 is one of a third input unit, a third receiving unit, a third timer, a third button, and a third function switch.

[0273] The processing unit 331 is configured to control the first variable physical parameter QQ1A of the first physical parameter application unit 631 and the third variable physical parameter QQ3A of the second physical parameter application unit 633. For example, the first variable physical parameter QQ1A, the second variable physical parameter QQ2A, and the third variable physical parameter QQ3A related to the sensing application signal SR11 are formed at different spatial locations. The user operation medium 790 is configured to make the variable physical application parameter QR1A variable.

[0274] For example, the first variable physical parameter QQ1A, the second variable physical parameter QQ2A, and the third variable physical parameter QQ3A belong to different physical parameter types. The second variable physical parameter QQ2A is related to the first variable physical parameter QQ1A. The third variable physical parameter QQ3A is related to the second variable physical parameter QQ2A. For example, the user operation medium 790 is one of a knob, a button, and a function switch.

[0275] The variable physical application parameter QR1A is characterized based on the physical parameter indication range RE1EA. For example, the physical parameter indication range RE1EA is represented by the measurement value indication range RJ1A. The second variable physical parameter QQ2A is characterized based on a specific physical parameter range RQ2E. For example, the specific physical parameter range RQ2E is an initial physical parameter range and includes the specific physical parameter QQ2E1 represented by the measurement reference value VQ2E1. Upon the occurrence of a first trigger event P21A associated with the first trigger application unit 521, the processing unit 331 responds to the first trigger event P21A to obtain the measurement application value ND11 based on the sensing application signal SR11. For example, the first trigger event P21A is one of a user input event, a signal input event, a state change event, and an integer overflow event.

[0276] In some embodiments, when the processing unit 331 determines the physical parameter indication range RE1EA in which the variable physical application parameter QR1A is currently located by examining the first mathematical relationship KJ1F between the measurement application value ND11 and the measurement value indication range RJ1A, the processing unit 331 determines a measurement value indication range code EJ1A representing the measurement value indication range RJ1A. For example, the measurement value indication range code EJ1A is related to a first data acquisition function FQ2A prepared for the second variable physical parameter QQ2A.

[0277] Under the condition that a second triggering event P22A occurs after the first triggering event P21A, the processing unit 331 responds to the second triggering event P22A by performing a first data acquisition operation ZQ2A to obtain the measurement reference value VQ2E1 based on the determined measurement value indication range code EJ1A and the first data acquisition function FQ2A, and generates a control signal SQ2E based on the obtained measurement reference value VQ2E1 to cause the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2E. For example, the second triggering event P22A is related to the second triggering application unit 522. For example, the second triggering event P22A is one of a user input event, a signal input event, a state change event, and an integer overflow event.

[0278] The third physical parameter application unit 635 responds to the control signal SQ2E by causing the second variable physical parameter QQ2A to be formed in the physical parameter forming region AV21, thereby placing the second variable physical parameter QQ2A within the specific physical parameter range RQ2E, and thus causing the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2E. For example, the sensing unit 430 includes the physical parameter forming region AV21. The third physical parameter application unit 635 is the same as, or is an extension of, the sensing unit 430. The measurement reference value VQ2E1 is related to at least one of the sensing unit 430 and the second variable physical parameter QQ2A. For example, the sensing unit 430 is coupled to the physical parameter forming region AV21.

[0279] In some embodiments, the target state JQ1U is represented by the target state code EQ1U. Under the condition that a third trigger event P23A occurs after the second trigger event P22A, the processing unit 331 responds to the third trigger event P23A to obtain the measurement value NN21 based on the sensing signal SN21. For example, the third trigger event P23A is related to the third trigger application unit 523. For example, the third trigger event P23A is one of a user input event, a signal input event, a state change event, and an integer overflow event.

[0280] Under the condition that the processing unit 331 determines the current application range RF2EL of the physical parameter QQ2A by examining the second mathematical relationship KK2F between the measured value NN21 and the application range RK2L of the measured value, the processing unit 331 determines a measurement application range code EK2L representing the application range RK2L of the measured value. For example, the measurement application range code EK2L is related to the second data acquisition function FQ1A prepared for the first variable physical parameter QQ1A.

[0281] The processing unit 331 performs a second data acquisition operation ZQ1A based on the determined measurement value application range code EK2L and the second data acquisition function FQ1A to obtain the target status code EQ1U. Based on the obtained target status code EQ1U, it generates a first operation signal SG1U to cause the first variable physical parameter QQ1A to be in the target state JQ1U, and transmits the first operation signal SG1U to the first physical parameter application unit 631. The first physical parameter application unit 631 responds to the first operation signal SG1U to cause the first variable physical parameter QQ1A to be in the target state JQ1U.

[0282] For example, the processing unit 331 performs the second data acquisition operation ZQ1A based on the determined measurement value application range code EK2L to obtain a control application code CQ1U associated with the target state JQ1U, and generates the first operation signal SG1U based on the obtained control application code CQ1U. For example, the control application code CQ1U is the same as the target state code EQ1U.

[0283] In some embodiments, the first variable physical parameter QQ1A is further characterized based on a specific physical parameter state JQ1E. For example, the specific physical parameter state JQ1E is represented by a specific physical parameter state code EQ1E. The measurement value indication range code EJ1A is further related to a third data acquisition function FQ1B prepared for the first variable physical parameter QQ1A.

[0284] Under the condition that the processing unit 331 determines the measurement value indication range code EJ1A, the processing unit 331 performs a third data acquisition operation ZQ1B based on the determined measurement value indication range code EJ1A and the third data acquisition function FQ1B to obtain the specific physical parameter status code EQ1E. Based on the obtained specific physical parameter status code EQ1E, the processing unit 331 generates a second operation signal SG1E to cause the first variable physical parameter QQ1A to be in the specific physical parameter state JQ1E, and transmits the second operation signal SG1E to the first physical parameter application unit 631. The first physical parameter application unit 631 responds to the second operation signal SG1E to cause the first variable physical parameter QQ1A to be in the specific physical parameter state JQ1E.

[0285] For example, when the processing unit 331 determines the measurement value indication range code EJ1A, the processing unit 331 performs the third data acquisition operation ZQ1B based on the determined measurement value indication range code EJ1A to obtain a control application code CQ1E related to the specific physical parameter state JQ1E, and generates the second operation signal SG1E based on the obtained control application code CQ1E. For example, the control application code CQ1E is the same as the specific physical parameter state code EQ1E.

[0286] In some embodiments, the measured reference value VQ2E1 is related to a fourth data acquisition function FQ3A prepared for the third variable physical parameter QQ3A. The third variable physical parameter QQ3A is characterized based on a physical parameter specified state JQ3E. For example, the physical parameter specified state JQ3E is represented by the physical parameter specified state code EQ3E.

[0287] Under the condition that the processing unit 331 determines the measurement value indication range code EJ1A, the processing unit 331 performs a fourth data acquisition operation ZQ3A based on the obtained measurement reference value VQ2E1 and the fourth data acquisition function FQ3A to obtain the physical parameter specification status code EQ3E. Based on the obtained physical parameter specification status code EQ3E, the processing unit 331 generates a function signal SP3E to cause the third variable physical parameter QQ3A to be in the physical parameter specification state JQ3E, and transmits the function signal SP3E to the second physical parameter application unit 633. The second physical parameter application unit 633 responds to the function signal SP3E to cause the third variable physical parameter QQ3A to be in the physical parameter specification state JQ3E.

[0288] For example, when the processing unit 331 determines the measurement value indication range code EJ1A, the processing unit 331 performs the fourth data acquisition operation ZQ3A based on the obtained measurement reference value VQ2E1 to obtain the control application code CQ3E related to the physical parameter specified state JQ3E, and generates the function signal SP3E based on the obtained control application code CQ3E. For example, the control application code CQ3E is the same as the physical parameter specified state code EQ3E.

[0289] Please see Figure 29 , Figure 30 , Figure 30 and Figure 32 A method MA11 for controlling a first variable physical parameter QQ1A is disclosed. For example, the first variable physical parameter QQ1A is characterized based on a target state JQ1U.

[0290] The method MA11 includes the following steps: sensing a variable physical application parameter QR1A to generate a sensing application signal SR11; in response to the sensing application signal SR11, changing a second variable physical parameter QQ2A, wherein the second variable physical parameter QQ2A is characterized based on a physical parameter application range RF2EL represented by a measured value application range RK2L; sensing the second variable physical parameter QQ2A to generate a sensing signal SN21; and placing the first variable physical parameter QQ1A in the target state JQ1U under the condition that the physical parameter application range RF2EL in which the second variable physical parameter QQ2A is currently located is determined based on the sensing signal SN21 and the measured value application range RK2L.

[0291] In some embodiments, the first variable physical parameter QQ1A, the second variable physical parameter QQ2A, and the third variable physical parameter QQ3A related to the sensing application signal SR11 are formed at different spatial locations. The variable physical application parameter QR1A is characterized based on a physical parameter indication range RE1EA. For example, the physical parameter indication range RE1EA is represented by a measurement value indication range RJ1A. The second variable physical parameter QQ2A is characterized based on a specific physical parameter range RQ2E. For example, the specific physical parameter range RQ2E is an initial physical parameter range and includes the specific physical parameter QQ2E1 represented by the measurement reference value VQ2E1.

[0292] The step of changing the second variable physical parameter QQ2A includes the following sub-steps: in response to a first trigger event P21A, obtaining a measurement application value ND11 based on the sensing application signal SR11; and, under the condition that the processing unit 331 determines the measurement application value ND11 and the measurement value indication range RJ1A by examining a first mathematical relationship KJ1F between the measurement application value ND11 and the measurement value indication range RJ1A, wherein the measurement value indication range code EJ1A is related to a first data acquisition function FQ2A prepared for the second variable physical parameter QQ2A.

[0293] The step of changing the second variable physical parameter QQ2A further includes the following sub-steps: under the condition that a second triggering event P22A occurs after the first triggering event P21A, in response to the second triggering event P22A, performing a first data acquisition operation ZQ2A based on the determined measurement value indication range code EJ1A and the first data acquisition function FQ2A to obtain the measurement reference value VQ2E1; generating a control signal SQ2E for causing the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2E based on the obtained measurement reference value VQ2E1; and in response to the control signal SQ2E, causing the second variable physical parameter QQ2A to be formed in the physical parameter forming region AV21, thereby placing the second variable physical parameter QQ2A in the specific physical parameter range RQ2E, and thus causing the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2E.

[0294] In some embodiments, the target state JQ1U is represented by the target state code EQ1U. The step of placing the first variable physical parameter QQ1A in the target state JQ1U includes the following sub-steps: obtaining a measurement value NN21 based on the sensing signal SN21 in response to a third triggering event P23A occurring after the second triggering event P22A; and determining a measurement application range code EK2L representing the measurement application range RK2L, wherein the measurement application range code EK2L is related to a second data acquisition function FQ1A prepared for the first variable physical parameter QQ1A, provided that the physical parameter application range RF2EL to which the second variable physical parameter QQ1A is currently located is determined by examining a second mathematical relationship KK2F between the measurement value NN21 and the measurement application range RK2L.

[0295] The step of placing the first variable physical parameter QQ1A in the target state JQ1U further includes the following sub-steps: applying the range code EK2L and the second data acquisition function FQ1A based on the determined measurement value, performing a second data acquisition operation ZQ1A to obtain the target state code EQ1U; generating a first operation signal SG1U for causing the first variable physical parameter QQ1A to be in the target state JQ1U based on the obtained target state code EQ1U; and responding to the first operation signal SG1U to place the first variable physical parameter QQ1A in the target state JQ1U.

[0296] In some embodiments, the first variable physical parameter QQ1A is further characterized based on a specific physical parameter state JQ1E. For example, the specific physical parameter state JQ1E is represented by a specific physical parameter state code EQ1E. The measurement value indication range code EJ1A is further related to a third data acquisition function FQ1B prepared for the first variable physical parameter QQ1A.

[0297] The method MA11 further includes the following steps: under the condition that the measurement value indication range code EJ1A is determined, performing a third data acquisition operation ZQ1B based on the determined measurement value indication range code EJ1A and the third data acquisition function FQ1B to obtain the specific physical parameter status code EQ1E; generating a second operation signal SG1E for causing the first variable physical parameter QQ1A to be in the specific physical parameter state JQ1E based on the obtained specific physical parameter status code EQ1E; and responding to the second operation signal SG1E to cause the first variable physical parameter QQ1A to be in the specific physical parameter state JQ1E.

[0298] The measured reference value VQ2E1 is related to the fourth data acquisition function FQ3A prepared for the third variable physical parameter QQ3A. The third variable physical parameter QQ3A is characterized based on the physical parameter specified state JQ3E. For example, the physical parameter specified state JQ3E is represented by the physical parameter specified state code EQ3E.

[0299] The method MA11 further includes the following steps: under the condition that the measurement value indication range code EJ1A is determined, performing a fourth data acquisition operation ZQ3A based on the obtained measurement reference value VQ2E1 and the fourth data acquisition function FQ3A to obtain the physical parameter specification status code EQ3E; generating a function signal SP3E for causing the third variable physical parameter QQ3A to be in the physical parameter specification state JQ3E based on the obtained physical parameter specification status code EQ3E; and responding to the function signal SP3E to cause the third variable physical parameter QQ3A to be in the physical parameter specification state JQ3E.

[0300] Please see Figure 33 , Figure 34 and Figure 35 . Figure 33 To illustrate Figure 29 A schematic diagram of the implementation structure 9414 of the control system 941 described herein. Figure 34 To illustrate Figure 29 A schematic diagram of the implementation structure 9415 of the control system 941 described herein. Figure 35 To illustrate Figure 29 A schematic diagram of the implementation structure 9416 of the control system 941 described herein. (See attached diagram.) Figure 33 , Figure 34 and Figure 35 As shown, each of the implementation structures 9414, 9415, and 9416 includes the functional device 131. For example, the sensing component 420, the sensing unit 430, the first physical parameter application unit 631, the second physical parameter application unit 633, the third physical parameter application unit 635, the first trigger application unit 521, the second trigger application unit 522, and the third trigger application unit 523 are all controlled by the processing unit 331.

[0301] In some embodiments, the first triggering application unit 521 is configured to cause the first triggering event P21A to occur, and in response to the first triggering event P21A, to cause the processing unit 331 to receive a trigger signal S21A. For example, the trigger signal S21A is an operation request signal. The first triggering application unit 521 generates the trigger signal S21A in response to the first triggering event P21A, provides the trigger signal S21A to the processing unit 331, and thus causes the processing unit 331 to receive the trigger signal S21A.

[0302] The second triggering application unit 522 is configured to cause the second triggering event P22A to occur, and in response to the second triggering event P22A, to cause the processing unit 331 to receive the trigger signal S22A. For example, the trigger signal S22A is an operation request signal. The second triggering application unit 522 generates the trigger signal S22A in response to the second triggering event P22A, provides the trigger signal S22A to the processing unit 331, and thus causes the processing unit 331 to receive the trigger signal S22A.

[0303] The third triggering application unit 523 is configured to cause the third triggering event P23A to occur, and in response to the third triggering event P23A, to cause the processing unit 331 to receive the trigger signal S23A. For example, the trigger signal S23A is an operation request signal. The third triggering application unit 523 generates the trigger signal S23A in response to the third triggering event P23A, provides the trigger signal S23A to the processing unit 331, and thus causes the processing unit 331 to receive the trigger signal S23A.

[0304] In some embodiments, the sensing component 420 is one of a first plurality of application sensors and conforms to a first sensor specification. The first plurality of application sensors include time sensors, electrical parameter sensors, mechanical parameter sensors, optical parameter sensors, motion sensors, magnetic parameter sensors, voltage sensors, current sensors, resistance sensors, capacitance sensors, inductive sensors, accelerometers, gyroscopes, pressure transducers, strain gauges, timers, photodetectors, temperature sensors, and humidity sensors. The measurement value indication range RJ1A is assumed based on the first sensor specification.

[0305] The sensing unit 430 is one of a second plurality of application sensors and conforms to a second sensor specification. The second plurality of application sensors includes time sensors, electrical parameter sensors, mechanical parameter sensors, optical parameter sensors, motion sensors, magnetic parameter sensors, voltage sensors, current sensors, resistance sensors, capacitance sensors, inductive sensors, accelerometers, gyroscopes, pressure transducers, strain gauges, timers, photodetectors, temperature sensors, and humidity sensors. The measured value application range RK2L and the measured reference value VQ2E1 are both assumed to be based on the second sensor specification.

[0306] In some embodiments, the variable physical application parameter QR1A is one of a plurality of specific physical parameters. These specific physical parameters include variable time parameters, variable electrical parameters, variable mechanical parameters, variable motion parameters, variable optical parameters, variable temperature, variable voltage, variable current, variable electrical power, variable resistance, variable capacitance, variable inductance, variable frequency, clock time, variable time length, variable remaining time, variable color temperature, variable brightness, variable luminous intensity, variable volume, variable data flow, variable amplitude, variable spatial position, variable displacement, variable sequential position, variable angle, variable spatial length, variable distance, variable translational velocity, variable angular velocity, variable acceleration, variable force, variable pressure, and variable mechanical power. For example, the variable time parameter is one of clock time, variable time length, and variable remaining time. The variable optical parameter is one of variable color temperature, variable brightness, and variable luminous intensity.

[0307] The first variable physical parameter QQ1A is one of a plurality of specific physical parameters. These specific physical parameters include variable time parameters, variable electrical parameters, variable mechanical parameters, variable motion parameters, variable optical parameters, variable temperature, variable voltage, variable current, variable electrical power, variable resistance, variable capacitance, variable inductance, variable frequency, clock time, variable time length, variable remaining time, variable color temperature, variable brightness, variable luminous intensity, variable volume, variable data flow, variable amplitude, variable spatial position, variable displacement, variable sequential position, variable angle, variable spatial length, variable distance, variable translational speed, variable angular velocity, variable acceleration, variable force, variable pressure, and variable mechanical power. For example, the variable time parameter is one of clock time, variable time length, and variable remaining time. The variable optical parameter is one of variable color temperature, variable brightness, and variable luminous intensity.

[0308] The second variable physical parameter QQ2A is one of a plurality of specific physical parameters. These specific physical parameters include variable time parameters, variable electrical parameters, variable mechanical parameters, variable motion parameters, variable optical parameters, variable temperature, variable voltage, variable current, variable electrical power, variable resistance, variable capacitance, variable inductance, variable frequency, clock time, variable time length, variable remaining time, variable color temperature, variable brightness, variable luminous intensity, variable volume, variable data flow, variable amplitude, variable spatial position, variable displacement, variable sequential position, variable angle, variable spatial length, variable distance, variable translational speed, variable angular velocity, variable acceleration, variable force, variable pressure, and variable mechanical power. For example, the variable time parameter is one of clock time, variable time length, and variable remaining time. The variable optical parameter is one of variable color temperature, variable brightness, and variable luminous intensity.

[0309] The third variable physical parameter QQ3A is one of several specific physical parameters. These specific physical parameters include variable time parameters, variable electrical parameters, variable mechanical parameters, variable motion parameters, variable optical parameters, variable temperature, variable voltage, variable current, variable electrical power, variable resistance, variable capacitance, variable inductance, variable frequency, clock time, variable time length, variable remaining time, variable color temperature, variable brightness, variable luminous intensity, variable volume, variable data flow, variable amplitude, variable spatial position, variable displacement, variable sequential position, variable angle, variable spatial length, variable distance, variable translational speed, variable angular velocity, variable acceleration, variable force, variable pressure, and variable mechanical power. For example, the variable time parameter is one of clock time, variable time length, and variable remaining time. The variable optical parameter is one of variable color temperature, variable brightness, and variable luminous intensity.

[0310] In some embodiments, the first physical parameter application unit 631 is one of a plurality of application components. The plurality of application components include electronic components, actuators, resistors, capacitors, inductors, relays, control switches, transistors, light-emitting diodes, motors, light-emitting units, lighting units, energy conversion units, electrical load units, timing units, printing units, display units, speakers, and any combination thereof.

[0311] The first physical parameter application unit 631 is one of a plurality of application components. The plurality of application components include electronic components, actuators, resistors, capacitors, inductors, relays, control switches, transistors, light-emitting diodes, motors, light-emitting units, lighting units, energy conversion units, electrical load units, timing units, printing units, display units, speakers, and any combination thereof.

[0312] The second physical parameter application unit 633 is one of a plurality of application components. The plurality of application components include electronic components, actuators, resistors, capacitors, inductors, relays, control switches, transistors, light-emitting diodes, motors, light-emitting units, lighting units, energy conversion units, electrical load units, timing units, printing units, display units, speakers, and any combination thereof.

[0313] The third physical parameter application unit 635 is one of a plurality of application components. The plurality of application components include electronic components, actuators, resistors, capacitors, inductors, relays, control switches, transistors, light-emitting diodes, motors, light-emitting units, lighting units, energy conversion units, electrical load units, timing units, printing units, display units, speakers, and any combination thereof.

[0314] In some embodiments, the first variable physical parameter QQ1A is further characterized based on a reference state JQ1T. For example, the reference state JQ1T is different from the target state JQ1U. The first physical parameter application unit 631 responds to the first operation signal SG1U to change the first variable physical parameter QQ1A from the reference state JQ1T to the target state JQ1U.

[0315] The first variable physical parameter QQ1A is further characterized based on a specific physical parameter state JQ1D. For example, the specific physical parameter state JQ1D is different from the specific physical parameter state JQ1E. The first physical parameter application unit 631 responds to the second operation signal SG1E to change the first variable physical parameter QQ1A from the specific physical parameter state JQ1D to the specific physical parameter state JQ1E.

[0316] The second variable physical parameter QQ2A is further characterized based on a specific physical parameter range RQ2F adjacent to the specific physical parameter range RQ2E. The third physical parameter application unit 635 responds to the control signal SQ2E to cause the second variable physical parameter QQ2A to move from the specific physical parameter range RQ2E into the specific physical parameter range RQ2F. For example, the specific physical parameter range RQ2F is different from the specific physical parameter range RQ2E.

[0317] The third variable physical parameter QQ3A is further characterized based on the physical parameter specified state JQ3D. For example, the physical parameter specified state JQ3D is different from the physical parameter specified state JQ3E. The second physical parameter application unit 633 responds to the function signal SP3E to change the third variable physical parameter QQ3A from the physical parameter specified state JQ3D to the physical parameter specified state JQ3E.

[0318] In some embodiments, the first variable physical parameter QQ1A is further characterized based on a reference state JQ1V. For example, the reference state JQ1V is different from the target state JQ1U, and may be the same as or different from the reference state JQ1T. The second variable physical parameter QQ2A is further characterized based on a physical parameter reference range RF2EM represented by a measurement reference range RK2M. For example, the measurement application range RK2M is different from the measurement application range RK2L. The measurement application range RK2M and the measurement application range RK2L are each two parts of a nominal measurement range; the nominal measurement range is assumed based on the second sensor specification.

[0319] For example, the physical parameter reference range RF2EM is different from the physical parameter application range RF2EL. The measurement application range RK2M is defaulted based on the second sensor specification. When the processing unit 331 determines, based on the sensing signal SN21 and the physical parameter reference range RF2EM, that the second variable physical parameter QQ2A is currently in the physical parameter reference range RF2EM, the processing unit 331 places the first variable physical parameter QQ1A in the reference state JQ1V.

[0320] The reference state JQ1V is represented by the reference state code EQ1V. The processing unit 331 executes a check operation ZC21 to check the second mathematical relation KK2F. Based on the check operation ZC21, the processing unit 331 makes a logical decision PA21 as to whether the second variable physical parameter QQ2A is currently within the physical parameter application range RF2EL. If the logical decision PA21 is affirmative, the processing unit 331 determines the physical parameter application range RF2EL that the second variable physical parameter QQ2A is currently within.

[0321] In some embodiments, under the condition that the logic determines PA21 is negative, the processing unit 331 performs a check operation ZC22 to check the mathematical relationship KK2G between the measured value NN21 and the measured value reference range RK2M.

[0322] Given that the processing unit 331 determines, based on the inspection operation ZC22, the current physical parameter reference range RF2EM in which the second variable physical parameter QQ2A is located, the processing unit 331 determines a measurement reference range code EK2M representing the measurement reference range RK2M. For example, the measurement reference range code EK2M is related to the second data acquisition function FQ1A prepared for the first variable physical parameter QQ1A.

[0323] The processing unit 331 performs a data acquisition operation ZQ1C to obtain the reference status code EQ1V based on the determined measurement reference range code EK2M and the second data acquisition function FQ1A. Based on the obtained reference status code EQ1V, it generates an operation signal SG1V to cause the first variable physical parameter QQ1A to be in the reference state JQ1V, and transmits the operation signal SG1V to the first physical parameter application unit 631. The first physical parameter application unit 631 responds to the operation signal SG1V to cause the first variable physical parameter QQ1A to be in the reference state JQ1V.

[0324] For example, the processing unit 331 performs the data acquisition operation ZQ1C based on the determined measurement value reference range code EK2M to obtain the control application code CQ1V associated with the reference state JQ1V, and generates the operation signal SG1V based on the obtained control application code CQ1V. For example, the control application code CQ1V is the same as the reference state code EQ1V.

[0325] In some embodiments, the variable physical application parameter QR1A is further characterized based on the physical parameter indication range RE1EB. For example, the physical parameter indication range RE1EB differs from the physical parameter indication range RE1EA and is represented by the measurement indication range RJ1B. The measurement indication range RJ1B is assumed based on the first sensor specification.

[0326] The second variable physical parameter QQ2A is further characterized based on a specific physical parameter range RQ2P, which is different from the specific physical parameter range RQ2E, is an initial physical parameter range, and includes the specific physical parameter QQ2P1 represented by the measurement reference value VQ2P1. For example, the measurement reference value VQ2P1 is assumed based on the second sensor specification and is related to at least one of the sensing unit 430 and the second variable physical parameter QQ2A.

[0327] The processing unit 331 executes a check operation ZC11 to check the first mathematical relation KJ1F. Based on the check operation ZC11, the processing unit 331 makes a logical decision PA11 as to whether the variable physical application parameter QR1A is currently within the physical parameter indication range RE1EA. If the logical decision PA11 is positive, the processing unit 331 determines the physical parameter indication range RE1EA that the variable physical application parameter QR1A is currently within.

[0328] In some embodiments, under the condition that the logical decision PA11 is negative, the processing unit 331 performs a check operation ZC12 to check the mathematical relationship KJ1G between the measurement application value ND11 and the measurement value indication range RJ1B.

[0329] Given that the processing unit 331 determines, based on the inspection operation ZC12, that the variable physical application parameter QR1A is currently within the physical parameter indication range RE1EB, the processing unit 331 determines a measurement value indication range code EJ1B representing the measurement value indication range RJ1B. For example, the measurement value indication range code EJ1B is related to the first data acquisition function FQ2A prepared for the second variable physical parameter QQ2A.

[0330] The processing unit 331 responds to the second trigger event P22A to perform a data acquisition operation ZQ2C based on the determined measurement value indication range code EJ1B and the first data acquisition function FQ2A to obtain the measurement reference value VQ2P1, and generates a control signal SQ2P based on the obtained measurement reference value VQ2P1 to cause the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2P. The third physical parameter application unit 635 responds to the control signal SQ2P to cause the second variable physical parameter QQ2A to be in the specific physical parameter range RQ2P by forming the second variable physical parameter QQ2A in the physical parameter forming region AV21, thereby causing the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2P.

[0331] For example, the second variable physical parameter QQ2A is further characterized based on a specific physical parameter range RQ2Q adjacent to the specific physical parameter range RQ2P. The third physical parameter application unit 635 responds to the control signal SQ2P to cause the second variable physical parameter QQ2A to move from the specific physical parameter range RQ2P into the specific physical parameter range RQ2Q. For example, the specific physical parameter range RQ2Q is different from the specific physical parameter range RQ2P.

[0332] Please see Figure 36 This is a schematic diagram of a control system 943 in various embodiments of the present disclosure. The control system 943 includes a functional device 132 for controlling a first variable physical parameter QQ1A. For example, the first variable physical parameter QQ1A is characterized based on a target state JQ1U. The functional device 132 includes a triggering medium 550, a processing unit 331, and a sensing unit 430.

[0333] The trigger medium 550 is configured to cause a trigger signal sequence S50A to occur. The processing unit 331 is coupled to the trigger medium 550 and responds to the trigger signal sequence S50A to change the second variable physical parameter QQ2A. For example, the second variable physical parameter QQ2A is characterized based on a physical parameter application range RF2EL represented by a measured value application range RK2L. The sensing unit 430 is coupled to the processing unit 331 and configured to sense the second variable physical parameter QQ2A to generate a sensing signal SN21. For example, if the processing unit 331 determines, based on the sensing signal SN21 and the measured value application range RK2L, that the second variable physical parameter QQ2A is currently in the physical parameter application range RF2EL, the processing unit 331 places the first variable physical parameter QQ1A in the target state JQ1U.

[0334] Please see Figure 37 , Figure 38 and Figure 39 . Figure 37 To illustrate Figure 36 A schematic diagram of the implementation structure 9431 of the control system 943 described herein. Figure 38 To illustrate Figure 36 A schematic diagram of the implementation structure 9432 of the control system 943 described herein. Figure 39 To illustrate Figure 36 A schematic diagram of the implementation structure 9433 of the control system 943 described herein. (See attached diagram.) Figure 37 , Figure 38 and Figure 39 As shown, each of the implementation structures 9431, 9432 and 9433 includes the functional device 132.

[0335] In some embodiments, the functional device 132 further includes a physical parameter forming region AV21, a first physical parameter application unit 631 coupled to the processing unit 331, a second physical parameter application unit 633 coupled to the processing unit 331, a third physical parameter application unit 635 coupled to the processing unit 331, a first trigger application unit 531 coupled to the processing unit 331, and a second trigger application unit 532 coupled to the processing unit 331. The processing unit 331 is configured to control the first variable physical parameter QQ1A of the first physical parameter application unit 631 and the third variable physical parameter QQ3A of the second physical parameter application unit 633. For example, the first variable physical parameter QQ1A, the second variable physical parameter QQ2A, and the third variable physical parameter QQ3A related to the trigger signal sequence S50A are formed at different spatial locations.

[0336] The first trigger application unit 531 is one of a first input unit, a first receiving unit, a first timer, a first button, and a first function switch. The second trigger application unit 532 is one of a second input unit, a second receiving unit, a second timer, a second button, and a second function switch.

[0337] The second variable physical parameter QQ2A is characterized based on a specific physical parameter range RQ2E. For example, the specific physical parameter range RQ2E is an initial physical parameter range and includes the specific physical parameter QQ2E1 represented by the measured reference value VQ2E1. The trigger signal sequence S50A is configured to present a total number of trigger signals V50A, including the last trigger signal S50A8, and is caused by the user input operation sequence B50A.

[0338] For example, the trigger signal sequence S50A currently contains at least one trigger signal; and the at least one trigger signal is configured to represent the total number of trigger signals V50A. The total number of trigger signals V50A is greater than or equal to 1. For example, the trigger signal sequence S50A currently contains multiple trigger signals; and the multiple trigger signals are configured to represent the total number of trigger signals V50A. The total number of trigger signals V50A is greater than or equal to 2.

[0339] The triggering medium 550 generates the trigger signal S50A8 by receiving a user input operation B50A8, and responds to the user input operation B50A8 to cause the processing unit 331 to receive the trigger signal S50A8. For example, the user input operation sequence B50A includes the user input operation B50A8. The processing unit 331 responds to the received trigger signal S50A8 by performing a total signal count determination operation Z50A8 associated with the trigger signal S50A8 to determine the total number of trigger signals V50A.

[0340] For example, the trigger medium 550 includes one of a button and a function switch. For example, when the trigger signal sequence S50A includes multiple trigger signals, the processing unit 331 responds to the received trigger signal S50A8 to perform the total signal count determination operation Z50A8 to determine the total number of trigger signals V50A. For example, the total signal count determination operation Z50A8 is a total signal count adjustment operation. The multiple trigger signals include the trigger signal S50A8.

[0341] The total number of trigger signals V50A is related to the first data acquisition function FQ2A prepared for the second variable physical parameter QQ2A. Under the condition that a first trigger event P31A occurs after the trigger signal sequence S50A, the processing unit 331 performs a first data acquisition operation ZQ2A based on the determined total number of trigger signals V50A and the first data acquisition function FQ2A to obtain the measurement reference value VQ2E1, and generates a control signal SQ2E based on the obtained measurement reference value VQ2E1 to cause the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2E.

[0342] For example, the first trigger event P31A is associated with the first trigger application unit 531. The third physical parameter application unit 635 responds to the control signal SQ2E by causing the second variable physical parameter QQ2A to be formed in the physical parameter forming region AV21, thereby placing the second variable physical parameter QQ2A within the specific physical parameter range RQ2E, and thus causing the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2E. For example, the first trigger event P31A is one of a user input event, a signal input event, a state change event, and an integer overflow event. For example, the sensing unit 430 includes the physical parameter forming region AV21. The third physical parameter application unit 635 is the same as, or is an extension of, the sensing unit 430. The measurement reference value VQ2E1 is associated with at least one of the sensing unit 430 and the second variable physical parameter QQ2A. For example, the sensing unit 430 is coupled to the physical parameter forming region AV21.

[0343] In some embodiments, the target state JQ1U is represented by the target state code EQ1U. Upon the occurrence of a second trigger event P32A following the first trigger event P31A, the processing unit 331 responds to the second trigger event P32A to obtain a measurement value NN21 based on the sensing signal SN21. For example, the second trigger event P32A is associated with the second trigger application unit 532. For example, the second trigger event P32A is one of a user input event, a signal input event, a state change event, and an integer overflow event.

[0344] Under the condition that the processing unit 331 determines the current application range RF2EL of the physical parameter QQ2A by examining the mathematical relationship KK2F between the measured value NN21 and the application range RK2L of the measured value, the processing unit 331 determines a measurement application range code EK2L representing the application range RK2L of the measured value. For example, the measurement application range code EK2L is related to the second data acquisition function FQ1A prepared for the first variable physical parameter QQ1A.

[0345] The processing unit 331 performs a second data acquisition operation ZQ1A based on the determined measurement value application range code EK2L and the second data acquisition function FQ1A to obtain the target status code EQ1U. Based on the obtained target status code EQ1U, it generates a first operation signal SG1U to cause the first variable physical parameter QQ1A to be in the target state JQ1U, and transmits the first operation signal SG1U to the first physical parameter application unit 631. The first physical parameter application unit 631 responds to the first operation signal SG1U to cause the first variable physical parameter QQ1A to be in the target state JQ1U.

[0346] For example, the processing unit 331 performs the second data acquisition operation ZQ1A based on the determined measurement value application range code EK2L to obtain a control application code CQ1U associated with the target state JQ1U, and generates the first operation signal SG1U based on the obtained control application code CQ1U. For example, the control application code CQ1U is the same as the target state code EQ1U.

[0347] In some embodiments, the first variable physical parameter QQ1A is further characterized based on a specific physical parameter state JQ1E. For example, the specific physical parameter state JQ1E is represented by a specific physical parameter state code EQ1E. The total number of trigger signals V50A is further related to a third data acquisition function FQ1B prepared for the first variable physical parameter QQ1A.

[0348] Under the condition that the processing unit 331 determines the total number of trigger signals V50A, the processing unit 331 performs a third data acquisition operation ZQ1B based on the determined total number of trigger signals V50A and the third data acquisition function FQ1B to obtain the specific physical parameter status code EQ1E. Based on the obtained specific physical parameter status code EQ1E, the processing unit 331 generates a second operation signal SG1E to cause the first variable physical parameter QQ1A to be in the specific physical parameter state JQ1E, and transmits the second operation signal SG1E to the first physical parameter application unit 631. The first physical parameter application unit 631 responds to the second operation signal SG1E to cause the first variable physical parameter QQ1A to be in the specific physical parameter state JQ1E.

[0349] For example, when the processing unit 331 determines the total number of trigger signals V50A, the processing unit 331 performs the third data acquisition operation ZQ1B based on the determined total number of trigger signals V50A to obtain a control application code CQ1E related to the specific physical parameter state JQ1E, and generates the second operation signal SG1E based on the obtained control application code CQ1E. For example, the control application code CQ1E is the same as the specific physical parameter state code EQ1E.

[0350] In some embodiments, the measured reference value VQ2E1 is related to a fourth data acquisition function FQ3A prepared for the third variable physical parameter QQ3A. The third variable physical parameter QQ3A is characterized based on a physical parameter specified state JQ3E. For example, the physical parameter specified state JQ3E is represented by the physical parameter specified state code EQ3E.

[0351] When the processing unit 331 obtains the measurement reference value VQ2E1, it performs a fourth data acquisition operation ZQ3A based on the obtained measurement reference value VQ2E1 and the fourth data acquisition function FQ3A to obtain the physical parameter specified status code EQ3E. Based on the obtained physical parameter specified status code EQ3E, it generates a function signal SP3E to cause the third variable physical parameter QQ3A to be in the physical parameter specified state JQ3E, and transmits the function signal SP3E to the second physical parameter application unit 633. The second physical parameter application unit 633 responds to the function signal SP3E to cause the third variable physical parameter QQ3A to be in the physical parameter specified state JQ3E.

[0352] For example, when the processing unit 331 executes the first data acquisition operation ZQ2A to obtain the measurement reference value VQ2E1, the processing unit 331 executes the fourth data acquisition operation ZQ3A based on the obtained measurement reference value VQ2E1 to obtain the control application code CQ3E related to the physical parameter specified state JQ3E, and generates the function signal SP3E based on the obtained control application code CQ3E. For example, the control application code CQ3E is the same as the physical parameter specified state code EQ3E.

[0353] Please see Figure 36 , Figure 37 , Figure 38 and Figure 39 A method MA21 for controlling a first variable physical parameter QQ1A is disclosed. For example, the first variable physical parameter QQ1A is characterized based on a target state JQ1U.

[0354] The method MA21 includes the following steps: causing a trigger signal sequence S50A to occur; in response to the trigger signal sequence S50A, changing a second variable physical parameter QQ2A, wherein the second variable physical parameter QQ2A is characterized based on a physical parameter application range RF2EL represented by a measured value application range RK2L; sensing the second variable physical parameter QQ2A to generate a sensing signal SN21; and placing the first variable physical parameter QQ1A in the target state JQ1U under the condition that the physical parameter application range RF2EL in which the second variable physical parameter QQ2A is currently located is determined based on the sensing signal SN21 and the measured value application range RK2L.

[0355] In some embodiments, the first variable physical parameter QQ1A, the second variable physical parameter QQ2A, and the third variable physical parameter QQ3A associated with the trigger signal sequence S50A are formed at different spatial locations. The second variable physical parameter QQ2A is characterized based on a specific physical parameter range RQ2E. For example, the specific physical parameter range RQ2E is an initial physical parameter range and includes the specific physical parameter QQ2E1 represented by the measured reference value VQ2E1. The trigger signal sequence S50A is configured to present a total number of trigger signals V50A, including the last triggered signal S50A8, and is caused by the user input operation sequence B50A.

[0356] The step that causes the trigger signal sequence P50A to occur includes the sub-step of: causing the trigger signal S50A8 to occur by receiving user input operation B50A8, wherein the user input operation sequence B50A includes the user input operation B50A8.

[0357] The step of changing the second variable physical parameter QQ2A includes the following sub-steps: receiving the trigger signal S50A8 in response to the user input operation B50A8; and performing a total signal number determination operation Z50A8 associated with the received trigger signal S50A8 to determine the total number of trigger signals V50A, wherein the total number of trigger signals V50A is related to a first data acquisition function FQ2A prepared for the second variable physical parameter QQ2A.

[0358] The step of changing the second variable physical parameter QQ2A further includes the following sub-steps: under the condition that a first trigger event P31A occurs after the trigger signal sequence S50A, performing a first data acquisition operation ZQ2A based on the determined total number of trigger signals V50A and the first data acquisition function FQ2A to obtain the measurement reference value VQ2E1; generating a control signal SQ2E based on the obtained measurement reference value VQ2E1 to cause the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2E; and responding to the control signal SQ2E, causing the second variable physical parameter QQ2A to be formed in the physical parameter forming region AV21, thereby placing the second variable physical parameter QQ2A in the specific physical parameter range RQ2E, and thus causing the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2E.

[0359] In some embodiments, the target state JQ1U is represented by the target state code EQ1U. The step of placing the first variable physical parameter QQ1A in the target state JQ1U includes the following sub-steps: obtaining a measurement value NN21 based on the sensing signal SN21 in response to the second triggering event P32A, provided that a second triggering event P32A occurs after the first triggering event P31A; and determining a measurement application range code EK2L representing the measurement application range RK2L, provided that the physical parameter application range RF2EL currently in which the second variable physical parameter QQ2A is located is determined by examining the mathematical relationship KK2F between the measurement value NN21 and the measurement application range RK2L, wherein the measurement application range code EK2L is related to a second data acquisition function FQ1A prepared for the first variable physical parameter QQ1A.

[0360] The step of placing the first variable physical parameter QQ1A in the target state JQ1U further includes the following sub-steps: applying the range code EK2L and the second data acquisition function FQ1A based on the determined measurement value, performing a second data acquisition operation ZQ1A to obtain the target state code EQ1U; generating a first operation signal SG1U for causing the first variable physical parameter QQ1A to be in the target state JQ1U based on the obtained target state code EQ1U; and responding to the first operation signal SG1U to place the first variable physical parameter QQ1A in the target state JQ1U.

[0361] In some embodiments, the first variable physical parameter QQ1A is further characterized based on a specific physical parameter state JQ1E. For example, the specific physical parameter state JQ1E is represented by a specific physical parameter state code EQ1E. The total number of trigger signals V50A is further related to a third data acquisition function FQ1B prepared for the first variable physical parameter QQ1A.

[0362] The method MA21 further includes the following steps: under the condition that the total number of trigger signals V50A is determined, performing a third data acquisition operation ZQ1B based on the determined total number of trigger signals V50A and the third data acquisition function FQ1B to obtain the specific physical parameter status code EQ1E; generating a second operation signal SG1E based on the obtained specific physical parameter status code EQ1E to cause the first variable physical parameter QQ1A to be in the specific physical parameter state JQ1E; and responding to the second operation signal SG1E to cause the first variable physical parameter QQ1A to be in the specific physical parameter state JQ1E.

[0363] The measured reference value VQ2E1 is related to the fourth data acquisition function FQ3A prepared for the third variable physical parameter QQ3A. The third variable physical parameter QQ3A is characterized based on the physical parameter specified state JQ3E. For example, the physical parameter specified state JQ3E is represented by the physical parameter specified state code EQ3E.

[0364] The method MA21 further includes the following steps: under the condition that the measurement reference value VQ2E1 is obtained, performing a fourth data acquisition operation ZQ3A based on the obtained measurement reference value VQ2E1 and the fourth data acquisition function FQ3A to obtain the physical parameter specified status code EQ3E; generating a function signal SP3E for causing the third variable physical parameter QQ3A to be in the physical parameter specified state JQ3E based on the obtained physical parameter specified status code EQ3E; and responding to the function signal SP3E to cause the third variable physical parameter QQ3A to be in the physical parameter specified state JQ3E.

[0365] Please see Figure 40 , Figure 41 and Figure 42 . Figure 40 To illustrate Figure 36 A schematic diagram of the implementation structure 9434 of the control system 943 described herein. Figure 41 To illustrate Figure 36 A schematic diagram of the implementation structure 9435 of the control system 943 described herein. Figure 42 To illustrate Figure 36 A schematic diagram of the implementation structure 9436 of the control system 943 described above. (See attached diagram.) Figure 40 , Figure 41 and Figure 42 As shown, each of the implementation structures 9434, 9435, and 9436 includes the functional device 132. The triggering medium 550, the sensing unit 430, the first physical parameter application unit 631, the second physical parameter application unit 633, the third physical parameter application unit 635, the first triggering application unit 531, and the second triggering application unit 532 are all controlled by the processing unit 331.

[0366] In some embodiments, the first triggering application unit 531 is configured to cause the first triggering event P31A to occur, and in response to the first triggering event P31A, to cause the processing unit 331 to receive a trigger signal S31A. For example, the trigger signal S31A is an operation request signal. The first triggering application unit 531 generates the trigger signal S31A in response to the first triggering event P31A, provides the trigger signal S31A to the processing unit 331, and thus causes the processing unit 331 to receive the trigger signal S31A.

[0367] The second triggering application unit 532 is configured to cause the second triggering event P32A to occur, and in response to the second triggering event P32A, to cause the processing unit 331 to receive the trigger signal S32A. For example, the trigger signal S32A is an operation request signal. The second triggering application unit 532 generates the trigger signal S32A in response to the second triggering event P32A, provides the trigger signal S32A to the processing unit 331, and thus causes the processing unit 331 to receive the trigger signal S32A.

[0368] In some embodiments, the trigger medium 550 includes a plurality of trigger units 5501, 5502, ... The trigger medium 550 causes the trigger signal sequence S50A to occur by using the plurality of trigger units 5501, 5502, ... For example, each of the plurality of trigger units 5501, 5502, ... is one of a button and a function switch.

[0369] For example, the functional device 132 further includes a trigger medium 551 coupled to the processing unit 331. For example, the trigger medium 551 includes one of a button and a function switch. The processing unit 331 relies on the trigger medium 551 to cause each of the trigger signal sequence S50A and the total number of trigger signals V50A to be initialized. The trigger medium 551 is configured to cause the processing unit 331 to receive a trigger signal S51A. The processing unit 331 responds to the trigger signal S51A to cause each of the trigger signal sequence S50A and the total number of trigger signals V50A to be initialized. For example, the trigger medium 550 and the trigger medium 551 are located in different spatial locations.

[0370] The triggering medium 551 generates the trigger signal S51A in response to a triggering event, provides the trigger signal S51A to the processing unit 331, and thus causes the processing unit 331 to receive the trigger signal S51A. For example, the triggering event is a user input event in which the triggering medium 551 receives a user input operation.

[0371] In some embodiments, the first variable physical parameter QQ1A is further characterized based on a reference state JQ1T. For example, the reference state JQ1T is different from the target state JQ1U. The first physical parameter application unit 631 responds to the first operation signal SG1U to change the first variable physical parameter QQ1A from the reference state JQ1T to the target state JQ1U.

[0372] The first variable physical parameter QQ1A is further characterized based on a specific physical parameter state JQ1D. For example, the specific physical parameter state JQ1D is different from the specific physical parameter state JQ1E. The first physical parameter application unit 631 responds to the second operation signal SG1E to change the first variable physical parameter QQ1A from the specific physical parameter state JQ1D to the specific physical parameter state JQ1E.

[0373] The second variable physical parameter QQ2A is further characterized based on a specific physical parameter range RQ2F adjacent to the specific physical parameter range RQ2E. The third physical parameter application unit 635 responds to the control signal SQ2E to cause the second variable physical parameter QQ2A to move from the specific physical parameter range RQ2E into the specific physical parameter range RQ2F. For example, the specific physical parameter range RQ2F is different from the specific physical parameter range RQ2E.

[0374] The third variable physical parameter QQ3A is further characterized based on the physical parameter specified state JQ3D. For example, the physical parameter specified state JQ3D is different from the physical parameter specified state JQ3E. The second physical parameter application unit 633 responds to the function signal SP3E to change the third variable physical parameter QQ3A from the physical parameter specified state JQ3D to the physical parameter specified state JQ3E.

[0375] In some embodiments, the processing unit 331 includes a central processing unit 3310 and an input port 331A coupled to the central processing unit 3310. The input port 331A is coupled to the trigger medium 550, receives the trigger signal sequence S50A, and has a variable voltage level V31A. The variable voltage level V31A is changed based on the trigger signal sequence S50A. The processing unit 331 further includes a storage component 3312 coupled to the central processing unit 3310. The storage component 3312 stores the variable level status code C31A. For example, the storage component 3312 includes a register.

[0376] The variable level status code C31A represents the variable voltage level state J31A of the variable voltage level V31A. The central processing unit 3310 responds to the trigger signal sequence S50A to change the stored variable level status code C31A based on the variable voltage level V31A. The central processing unit 3310 performs the total signal count determination operation Z50A8 based on the stored variable level status code C31A to determine the total number of trigger signals V50A.

[0377] Please see Figure 43This is a schematic diagram of a control system 945 in various embodiments of the present disclosure. The control system 945 includes a functional device 133 for controlling a first variable physical parameter QQ1A. For example, the first variable physical parameter QQ1A is characterized based on a target state JQ1U. The functional device 135 includes a receiving unit 337, a processing unit 331, and a sensing unit 430.

[0378] The receiving unit 337 is configured to receive a reference signal SB11. For example, the reference signal SB11 transmits a measurement reference value VQ2E1 related to the second variable physical parameter QQ2A. The processing unit 331 is coupled to the receiving unit 337 and changes the second variable physical parameter QQ2A based on the transmitted measurement reference value VQ2E1. For example, the second variable physical parameter QQ2A is characterized based on the physical parameter application range RF2EL represented by the measurement application range RK2L.

[0379] The sensing unit 430, coupled to the processing unit 331, senses the second variable physical parameter QQ2A to generate a sensing signal SN21. For example, when the processing unit 331 determines, based on the sensing signal SN21 and the measured value application range RK2L, that the second variable physical parameter QQ2A is currently in the physical parameter application range RF2EL, the processing unit 331 places the first variable physical parameter QQ1A in the target state JQ1U.

[0380] Please see Figure 44 and Figure 45 . Figure 44 To illustrate Figure 43 A schematic diagram of the implementation structure 9451 of the control system 945 described herein. Figure 45 To illustrate Figure 43 A schematic diagram of the implementation structure 9452 of the control system 945 described above. (See attached diagram.) Figure 44 and Figure 45 As shown, each of the implementation structures 9451 and 9452 includes the functional device 133.

[0381] In some embodiments, the receiving unit 337 receives the reference signal SB11 from the external device 101. The functional device 133 further includes a physical parameter forming region AV21, a first physical parameter application unit 631 coupled to the processing unit 331, a second physical parameter application unit 633 coupled to the processing unit 331, a third physical parameter application unit 635 coupled to the processing unit 331, and a trigger application unit 541 coupled to the processing unit 331. The processing unit 331 is configured to control the first variable physical parameter QQ1A of the first physical parameter application unit 631 and the third variable physical parameter QQ3A of the second physical parameter application unit 633. For example, the first variable physical parameter QQ1A, the second variable physical parameter QQ2A, and the third variable physical parameter QQ3A related to the reference signal SB11 are formed at different spatial locations.

[0382] The second variable physical parameter QQ2A is characterized based on a specific physical parameter range RQ2E. For example, the specific physical parameter range RQ2E is an initial physical parameter range and includes the specific physical parameter QQ2E1 represented by the measurement reference value VQ2E1. The processing unit 331 responds to the reference signal SB11 to obtain the transmitted measurement reference value VQ2E1, and generates a control signal SQ2E based on the obtained measurement reference value VQ2E1 to cause the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2E.

[0383] The third physical parameter application unit 635 responds to the control signal SQ2E by causing the second variable physical parameter QQ2A to be formed in the physical parameter forming region AV21, thereby placing the second variable physical parameter QQ2A within the specific physical parameter range RQ2E, and thus causing the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2E.

[0384] In some embodiments, the target state JQ1U is represented by the target state code EQ1U. Upon the occurrence of a trigger event P41A after receiving the reference signal SB11, the processing unit 331 responds to the trigger event P41A to obtain a measured value NN21 based on the sensing signal SN21. For example, the trigger event P41A is associated with the trigger application unit 541. The trigger application unit 541 is one of an input unit, a receiving unit, a timer, a button, and a function switch. The trigger event P41A is one of a user input event, a signal input event, a state change event, and an integer overflow event.

[0385] Under the condition that the processing unit 331 determines the current physical parameter application range RF2EL of the second variable physical parameter QQ2A by examining the mathematical relationship KK2F between the measured value NN21 and the measured value application range RK2L, the processing unit 331 determines a measured value application range code EK2L representing the measured value application range RK2L. For example, the measured value application range code EK2L is related to the first data acquisition function FQ1A prepared for the first variable physical parameter QQ1A.

[0386] The processing unit 331 performs a first data acquisition operation ZQ1A based on the determined measurement value application range code EK2L and the first data acquisition function FQ1A to obtain the target status code EQ1U. Based on the obtained target status code EQ1U, it generates an operation signal SG1U to cause the first variable physical parameter QQ1A to be in the target state JQ1U, and transmits the operation signal SG1U to the first physical parameter application unit 631. The first physical parameter application unit 631 responds to the operation signal SG1U to cause the first variable physical parameter QQ1A to be in the target state JQ1U.

[0387] For example, the processing unit 331 performs the first data acquisition operation ZQ1A based on the determined measurement value application range code EK2L to obtain a control application code CQ1U related to the target state JQ1U, and generates the operation signal SG1U based on the obtained control application code CQ1U. For example, the control application code CQ1U is the same as the target state code EQ1U.

[0388] In some embodiments, the measured reference value VQ2E1 is related to a second data acquisition function FQ3A prepared for the third variable physical parameter QQ3A. The third variable physical parameter QQ3A is characterized based on a physical parameter specified state JQ3E. For example, the physical parameter specified state JQ3E is represented by the physical parameter specified state code EQ3E.

[0389] Upon receiving the transmitted measurement reference value VQ2E1, the processing unit 331 performs a second data acquisition operation ZQ3A based on the obtained measurement reference value VQ2E1 and the second data acquisition function FQ3A to obtain the physical parameter specified status code EQ3E. Based on the obtained physical parameter specified status code EQ3E, it generates a function signal SP3E to cause the third variable physical parameter QQ3A to be in the physical parameter specified state JQ3E, and transmits the function signal SP3E to the second physical parameter application unit 633. The second physical parameter application unit 633 responds to the function signal SP3E to cause the third variable physical parameter QQ3A to be in the physical parameter specified state JQ3E.

[0390] For example, when the processing unit 331 obtains the transmitted measurement reference value VQ2E1, the processing unit 331 performs the second data acquisition operation ZQ3A based on the obtained measurement reference value VQ2E1 to obtain the control application code CQ3E related to the physical parameter specified state JQ3E, and generates the function signal SP3E based on the obtained control application code CQ3E. For example, the control application code CQ3E is the same as the physical parameter specified state code EQ3E.

[0391] Please see Figure 43 , Figure 44 and Figure 45 A method MA31 for controlling a first variable physical parameter QQ1A is disclosed. For example, the first variable physical parameter QQ1A is characterized based on a target state JQ1U.

[0392] The method MA31 includes the following steps: receiving a reference signal SB11, wherein the reference signal SB11 transmits a measurement reference value VQ2E1 related to the second variable physical parameter QQ2A; changing the second variable physical parameter QQ2A based on the transmitted measurement reference value VQ2E1, wherein the second variable physical parameter QQ2A is characterized based on a physical parameter application range RF2EL represented by a measurement value application range RK2L; sensing the second variable physical parameter QQ2A to generate a sensing signal SN21; and placing the first variable physical parameter QQ1A in the target state JQ1U under the condition that the physical parameter application range RF2EL in which the second variable physical parameter QQ2A is currently located is determined based on the sensing signal SN21 and the measurement value application range RK2L.

[0393] In some embodiments, the reference signal SB11 is received from an external device 101. The first variable physical parameter QQ1A, the second variable physical parameter QQ2A, and the third variable physical parameter QQ3A related to the reference signal SB11 are formed at different spatial locations. The second variable physical parameter QQ2A is characterized based on a specific physical parameter range RQ2E. For example, the specific physical parameter range RQ2E is an initial physical parameter range and includes the specific physical parameter QQ2E1 represented by the measured reference value VQ2E1.

[0394] The step of changing the second variable physical parameter QQ2A includes the following sub-steps: in response to the reference signal SB11, obtaining the transmitted measurement reference value VQ2E1; based on the obtained measurement reference value VQ2E1, generating a control signal SQ2E for causing the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2E; and in response to the control signal SQ2E, causing the second variable physical parameter QQ2A to be formed in the physical parameter forming region AV21, thereby placing the second variable physical parameter QQ2A within the specific physical parameter range RQ2E, and thus causing the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2E.

[0395] In some embodiments, the target state JQ1U is represented by the target state code EQ1U. The step of placing the first variable physical parameter QQ1A in the target state JQ1U includes the following sub-steps: obtaining a measurement value NN21 based on the sensing signal SN21 in response to a trigger event P41A occurring after receiving the reference signal SB11; and determining a measurement value application range code EK2L representing the measurement value application range RK2L, wherein the measurement value application range code EK2L is related to a first data acquisition function FQ1A prepared for the first variable physical parameter QQ1A.

[0396] The step of placing the first variable physical parameter QQ1A in the target state JQ1U further includes the following sub-steps: applying the range code EK2L and the first data acquisition function FQ1A based on the determined measurement value, performing a first data acquisition operation ZQ1A to obtain the target state code EQ1U; generating an operation signal SG1U for causing the first variable physical parameter QQ1A to be in the target state JQ1U based on the obtained target state code EQ1U; and responding to the operation signal SG1U to place the first variable physical parameter QQ1A in the target state JQ1U.

[0397] In some embodiments, the measured reference value VQ2E1 is related to a second data acquisition function FQ3A prepared for the third variable physical parameter QQ3A. The third variable physical parameter QQ3A is characterized based on a physical parameter specified state JQ3E. For example, the physical parameter specified state JQ3E is represented by the physical parameter specified state code EQ3E.

[0398] The method MA31 further includes the following steps: under the condition that the transmitted measurement reference value VQ2E1 is obtained, based on the obtained measurement reference value VQ2E1 and the second data acquisition function FQ3A, performing a second data acquisition operation ZQ3A to obtain the physical parameter specified status code EQ3E; based on the obtained physical parameter specified status code EQ3E, generating a function signal SP3E for causing the third variable physical parameter QQ3A to be in the physical parameter specified state JQ3E; and responding to the function signal SP3E, causing the third variable physical parameter QQ3A to be in the physical parameter specified state JQ3E.

[0399] Please see Figure 46 and Figure 47 . Figure 46 To illustrate Figure 43 A schematic diagram of the implementation structure 9453 of the control system 945 described herein. Figure 47 To illustrate Figure 43 A schematic diagram of the implementation structure 9454 of the control system 945 described herein. (See diagram below.) Figure 46 and Figure 47 As shown, each of the implementation structures 9453 and 9454 includes the functional device 133. The receiving unit 337, the sensing unit 430, the first physical parameter application unit 631, the second physical parameter application unit 633, the third physical parameter application unit 635, and the triggering application unit 541 are all controlled by the processing unit 331.

[0400] In some embodiments, the triggering application unit 541 is configured to cause the triggering event P41A to occur and, in response to the triggering event P41A, to cause the processing unit 331 to receive the triggering signal S41A. For example, the triggering signal S41A is an operation request signal. The triggering application unit 541 generates the triggering signal S41A in response to the triggering event P41A, provides the triggering signal S41A to the processing unit 331, and thus causes the processing unit 331 to receive the triggering signal S41A.

[0401] The receiving unit 337 receives the reference signal SB11 from the external device 101 via a communication link LK1A. For example, the communication link LK1A is either a wired link or a wireless link. The receiving unit 337 is coupled to the external device 101.

[0402] In some embodiments, the first variable physical parameter QQ1A is further characterized based on a reference state JQ1T. For example, the reference state JQ1T is different from the target state JQ1U. The first physical parameter application unit 631 responds to the operation signal SG1U to change the first variable physical parameter QQ1A from the reference state JQ1T to the target state JQ1U.

[0403] The second variable physical parameter QQ2A is further characterized based on a specific physical parameter range RQ2F adjacent to the specific physical parameter range RQ2E. The third physical parameter application unit 635 responds to the control signal SQ2E to cause the second variable physical parameter QQ2A to move from the specific physical parameter range RQ2E into the specific physical parameter range RQ2F. For example, the specific physical parameter range RQ2F is different from the specific physical parameter range RQ2E.

[0404] The third variable physical parameter QQ3A is further characterized based on the physical parameter specified state JQ3D. For example, the physical parameter specified state JQ3D is different from the physical parameter specified state JQ3E. The second physical parameter application unit 633 responds to the function signal SP3E to change the third variable physical parameter QQ3A from the physical parameter specified state JQ3D to the physical parameter specified state JQ3E.

[0405] Please see Figure 48 This is a schematic diagram of a control system 947 in various embodiments of the present disclosure. The control system 947 includes a functional device 134 for controlling a first variable physical parameter QQ1A. For example, the first variable physical parameter QQ1A is characterized based on a target state JQ1U. The functional device 134 includes a processing unit 331 and a sensing unit 430.

[0406] The processing unit 331 includes a plurality of input ports 491, 492, ... having a specific port 49A, configured to perform trigger signal reception detection ZJ11 on the plurality of input ports 491, 492, ..., and to respond to the trigger signal SX1A to change the second variable physical parameter QQ2A when the processing unit 331 determines, based on the trigger signal reception detection ZJ11, that the specific port 49A receiving the trigger signal SX1A. For example, the second variable physical parameter QQ2A is characterized based on the physical parameter application range RF2EL represented by the measurement application range RK2L. The sensing unit 430 is coupled to the processing unit 331 and senses the second variable physical parameter QQ2A to generate a sensing signal SN21. For example, when the processing unit 331 determines the current physical parameter application range RF2EL of the second variable physical parameter QQ2A based on the sensing signal SN21 and the measurement value application range RK2L, the processing unit 331 puts the first variable physical parameter QQ1A into the target state JQ1U.

[0407] Please see Figure 49 , Figure 50 and Figure 51 . Figure 49 To illustrate Figure 48 A schematic diagram of the implementation structure 9471 of the control system 947 described herein. Figure 50 To illustrate Figure 48 A schematic diagram of the implementation structure 9472 of the control system 947 described herein. Figure 51 To illustrate Figure 48 A schematic diagram of the implementation structure 9473 of the control system 947 described herein. (See attached diagram.) Figure 49 , Figure 50 and Figure 51 As shown, each of the implementation structures 9471, 9472 and 9473 includes the functional device 134.

[0408] In some embodiments, the specific port 49A is associated with a measurement reference value VQ2E1 for the second variable physical parameter QQ2A and is identified by a specific port identifier H49A. The functional device 133 further includes a physical parameter forming region AV21, a trigger medium 69A coupled to the specific port 49A, a first physical parameter application unit 631 coupled to the processing unit 331, a second physical parameter application unit 633 coupled to the processing unit 331, a third physical parameter application unit 635 coupled to the processing unit 331, and a trigger application unit 545 coupled to the processing unit 331.

[0409] The processing unit 331 is configured to control the first variable physical parameter QQ1A of the first physical parameter application unit 631 and the third variable physical parameter QQ3A of the second physical parameter application unit 633. For example, the first variable physical parameter QQ1A, the second variable physical parameter QQ2A, and the third variable physical parameter QQ3A related to the specific port 49A are respectively formed at different spatial locations.

[0410] The second variable physical parameter QQ2A is characterized based on a specific physical parameter range RQ2E. For example, the specific physical parameter range RQ2E is an initial physical parameter range and includes the specific physical parameter QQ2E1 represented by the measured reference value VQ2E1. The trigger medium 69A is configured to cause the trigger signal SX1A to occur. For example, the trigger medium 69A includes one of a button and a function switch, and responds to a trigger event associated with the trigger medium 69A to cause the specific port 49A to receive the trigger signal SX1A. For example, the trigger event is a user input event in which the trigger medium 69A receives a user input operation. For example, the specific port 49A is associated with the specific physical parameter range RQ2E.

[0411] In some embodiments, the specific port identifier H49A is associated with a first data acquisition function FQ2A prepared for the second variable physical parameter QQ2A. The processing unit 331 responds to the trigger signal SX1A to obtain the specific port identifier H49A, performs a first data acquisition operation ZQ2A based on the obtained specific port identifier H49A and the first data acquisition function FQ2A to obtain the measurement reference value VQ2E1, and generates a control signal SQ2E based on the obtained measurement reference value VQ2E1 to cause the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2E.

[0412] The third physical parameter application unit 635 responds to the control signal SQ2E by causing the second variable physical parameter QQ2A to be formed in the physical parameter forming region AV21, thereby placing the second variable physical parameter QQ2A within the specific physical parameter range RQ2E, and thus causing the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2E.

[0413] In some embodiments, the target state JQ1U is represented by the target state code EQ1U. Under the condition that a trigger event P45A occurs after receiving the trigger signal SX1A, the processing unit 331 responds to the trigger event P45A to obtain the measurement value NN21 based on the sensing signal SN21. For example, the trigger event P45A is associated with the trigger application unit 545. The trigger application unit 545 is one of an input unit, a receiving unit, a timer, a button, and a function switch. The trigger event P45A is one of a user input event, a signal input event, a state change event, and an integer overflow event.

[0414] Under the condition that the processing unit 331 determines the current application range RF2EL of the physical parameter QQ2A by examining the mathematical relationship KK2F between the measured value NN21 and the application range RK2L of the measured value, the processing unit 331 determines a measurement application range code EK2L representing the application range RK2L of the measured value. For example, the measurement application range code EK2L is related to the second data acquisition function FQ1A prepared for the first variable physical parameter QQ1A.

[0415] The processing unit 331 performs a second data acquisition operation ZQ1A based on the determined measurement value application range code EK2L and the second data acquisition function FQ1A to obtain the target status code EQ1U. Based on the obtained target status code EQ1U, it generates an operation signal SG1U to cause the first variable physical parameter QQ1A to be in the target state JQ1U, and transmits the operation signal SG1U to the first physical parameter application unit 631. The first physical parameter application unit 631 responds to the operation signal SG1U to cause the first variable physical parameter QQ1A to be in the target state JQ1U.

[0416] For example, the processing unit 331 performs the second data acquisition operation ZQ1A based on the determined measurement value application range code EK2L to obtain a control application code CQ1U associated with the target state JQ1U, and generates the operation signal SG1U based on the obtained control application code CQ1U. For example, the control application code CQ1U is the same as the target state code EQ1U.

[0417] In some embodiments, the measured reference value VQ2E1 is related to a third data acquisition function FQ3A prepared for the third variable physical parameter QQ3A. The third variable physical parameter QQ3A is characterized based on a physical parameter specified state JQ3E. For example, the physical parameter specified state JQ3E is represented by the physical parameter specified state code EQ3E.

[0418] When the processing unit 331 obtains the measurement reference value VQ2E1, it performs a third data acquisition operation ZQ3A based on the obtained measurement reference value VQ2E1 and the third data acquisition function FQ3A to obtain the physical parameter specified status code EQ3E. Based on the obtained physical parameter specified status code EQ3E, it generates a function signal SP3E to cause the third variable physical parameter QQ3A to be in the physical parameter specified state JQ3E, and transmits the function signal SP3E to the second physical parameter application unit 633. The second physical parameter application unit 633 responds to the function signal SP3E to cause the third variable physical parameter QQ3A to be in the physical parameter specified state JQ3E.

[0419] For example, when the processing unit 331 obtains the measurement reference value VQ2E1, the processing unit 331 performs the third data acquisition operation ZQ3A based on the obtained measurement reference value VQ2E1 to obtain the control application code CQ3E related to the physical parameter specified state JQ3E, and generates the function signal SP3E based on the obtained control application code CQ3E. For example, the control application code CQ3E is the same as the physical parameter specified state code EQ3E.

[0420] Please see Figure 48 , Figure 49 , Figure 50 and Figure 51 A method MA41 for controlling a first variable physical parameter QQ1A is disclosed. For example, the first variable physical parameter QQ1A is characterized based on a target state JQ1U.

[0421] The method MA41 includes the following steps: providing a plurality of input ports 491, 492, ... including a specific port 49A; performing a trigger signal reception detection ZJ11 on the plurality of input ports 491, 492, ...; changing a second variable physical parameter QQ2A in response to the trigger signal SX1A, wherein the specific port 49A receiving the trigger signal SX1A is determined based on the trigger signal reception detection ZJ11, wherein the second variable physical parameter QQ2A is characterized based on a physical parameter application range RF2EL represented by a measurement application range RK2L; sensing the second variable physical parameter QQ2A to generate a sensing signal SN21; and placing the first variable physical parameter QQ1A in the target state JQ1U, wherein the physical parameter application range RF2EL in which the second variable physical parameter QQ2A is currently located is determined based on the sensing signal SN21 and the measurement application range RK2L.

[0422] In some embodiments, the specific port 49A is associated with a measurement reference value VQ2E1 for the second variable physical parameter QQ2A and is identified by a specific port identifier H49A. The first variable physical parameter QQ1A, the second variable physical parameter QQ2A, and the third variable physical parameter QQ3A associated with the specific port 49A are formed at different spatial locations. The second variable physical parameter QQ2A is characterized based on a specific physical parameter range RQ2E. For example, the specific physical parameter range RQ2E is an initial physical parameter range and includes the specific physical parameter QQ2E1 represented by the measurement reference value VQ2E1.

[0423] The specific port 49A is coupled to the trigger medium 69A. The method MA41 further includes the step of causing the trigger signal SX1A to occur by using the trigger medium 69A. The specific port identifier H49A is associated with a first data acquisition function FQ2A prepared for the second variable physical parameter QQ2A.

[0424] The step of changing the second variable physical parameter QQ2A includes the following sub-steps: in response to the trigger signal SX1A, obtaining the specific port identifier H49A; based on the obtained specific port identifier H49A and the first data acquisition function FQ2A, performing a first data acquisition operation ZQ2A to obtain the measurement reference value VQ2E1; based on the obtained measurement reference value VQ2E1, generating a control signal SQ2E for causing the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2E; and in response to the control signal SQ2E, causing the second variable physical parameter QQ2A to be formed in the physical parameter forming region AV21, thereby placing the second variable physical parameter QQ2A within the specific physical parameter range RQ2E, and thus causing the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2E.

[0425] In some embodiments, the target state JQ1U is represented by the target state code EQ1U. The step of placing the first variable physical parameter QQ1A in the target state JQ1U includes the following sub-steps: obtaining a measurement value NN21 based on the sensing signal SN21 in response to a trigger event P45A occurring after receiving the trigger signal SX1A; and determining a measurement application range code EK2L representing the measurement application range RK2L, wherein the measurement application range code EK2L is related to a second data acquisition function FQ1A prepared for the first variable physical parameter QQ1A, provided that the physical parameter application range RF2EL to which the second variable physical parameter QQ2A is currently located is determined by examining the mathematical relationship KK2F between the measurement value NN21 and the measurement application range RK2L.

[0426] The step of placing the first variable physical parameter QQ1A in the target state JQ1U further includes the following sub-steps: applying the range code EK2L and the second data acquisition function FQ1A based on the determined measurement value, performing a second data acquisition operation ZQ1A to obtain the target state code EQ1U; generating an operation signal SG1U based on the obtained target state code EQ1U to cause the first variable physical parameter QQ1A to be in the target state JQ1U; and responding to the operation signal SG1U to place the first variable physical parameter QQ1A in the target state JQ1U.

[0427] In some embodiments, the measured reference value VQ2E1 is related to a third data acquisition function FQ3A prepared for the third variable physical parameter QQ3A. The third variable physical parameter QQ3A is characterized based on a physical parameter specified state JQ3E. For example, the physical parameter specified state JQ3E is represented by the physical parameter specified state code EQ3E.

[0428] The method MA41 further includes the following steps: under the condition that the measurement reference value VQ2E1 is obtained, performing a third data acquisition operation ZQ3A based on the obtained measurement reference value VQ2E1 and the third data acquisition function FQ3A to obtain the physical parameter specified status code EQ3E; generating a function signal SP3E based on the obtained physical parameter specified status code EQ3E to cause the third variable physical parameter QQ3A to be in the physical parameter specified state JQ3E; and responding to the function signal SP3E to cause the third variable physical parameter QQ3A to be in the physical parameter specified state JQ3E.

[0429] Please see Figure 52 , Figure 53 and Figure 54 . Figure 52 To illustrate Figure 48 A schematic diagram of the implementation structure 9474 of the control system 947 described herein. Figure 53 To illustrate Figure 48 A schematic diagram of the implementation structure 9475 of the control system 947 described herein. Figure 54 To illustrate Figure 48 A schematic diagram of the implementation structure 9476 of the control system 947 described herein. (See attached diagram.) Figure 52 , Figure 53 and Figure 54 As shown, each of the embodiments 9474, 9475, and 9476 includes the functional device 134. For example, the plurality of input ports 491, 492, ..., the sensing unit 430, the first physical parameter application unit 631, the second physical parameter application unit 633, the third physical parameter application unit 635, and the trigger application unit 545 are all controlled by the processing unit 331. For example, any two of the functional devices 131, 132, 133, and 134 are identical. The plurality of input ports 491, 492, ... are configured to form an input port array 490.

[0430] In some embodiments, the triggering application unit 545 is configured to cause the triggering event P45A to occur and, in response to the triggering event P45A, to cause the processing unit 331 to receive the triggering signal S45A. For example, the triggering signal S45A is an operation request signal. The triggering application unit 545 generates the triggering signal S45A in response to the triggering event P45A, provides the triggering signal S45A to the processing unit 331, and thus causes the processing unit 331 to receive the triggering signal S45A.

[0431] In some embodiments, the first variable physical parameter QQ1A is further characterized based on a reference state JQ1T. For example, the reference state JQ1T is different from the target state JQ1U. The first physical parameter application unit 631 responds to the first operation signal SG1U to change the first variable physical parameter QQ1A from the reference state JQ1T to the target state JQ1U.

[0432] The second variable physical parameter QQ2A is further characterized based on a specific physical parameter range RQ2F adjacent to the specific physical parameter range RQ2E. The third physical parameter application unit 635 responds to the control signal SQ2E to cause the second variable physical parameter QQ2A to move from the specific physical parameter range RQ2E into the specific physical parameter range RQ2F. For example, the specific physical parameter range RQ2F is different from the specific physical parameter range RQ2E.

[0433] The third variable physical parameter QQ3A is further characterized based on the physical parameter specified state JQ3D. For example, the physical parameter specified state JQ3D is different from the physical parameter specified state JQ3E. The second physical parameter application unit 633 responds to the function signal SP3E to change the third variable physical parameter QQ3A from the physical parameter specified state JQ3D to the physical parameter specified state JQ3E.

[0434] In some embodiments, the plurality of input ports 491, 492, ... further include a specific port 49B. For example, the specific port 49B and the specific port 49A are located in different spatial locations. The specific port 49B is associated with a measurement reference value VQ2P1 for the second variable physical parameter QQ2A and is identified by a specific port identifier H49B. The plurality of input ports 491, 492, ... includes the specific port 49B and the specific port 49A.

[0435] The second variable physical parameter QQ2A is further characterized based on a specific physical parameter range RQ2P. For example, the specific physical parameter range RQ2P is different from the specific physical parameter range RQ2E, is an initial physical parameter range, and includes the specific physical parameter QQ2P1 represented by the measurement reference value VQ2P1. When the processing unit 331 determines, based on the trigger signal reception detection ZJ11, that the specific port 49B of the received trigger signal SX1B is being received, the processing unit 331 responds to the trigger signal SX1B to change the second variable physical parameter QQ2A from the specific physical parameter range RQ2P.

[0436] In some embodiments, the functional device 133 further includes a trigger medium 69B coupled to the specific port 49B. The trigger medium 69B is configured to cause the trigger signal SX1B to occur. The specific port identifier H49B is associated with the first data acquisition function FQ2A prepared for the second variable physical parameter QQ2A. For example, the trigger medium 69B includes one of a button and a function switch, and responds to a trigger event associated with the trigger medium 69B to cause the specific port 49B to receive the trigger signal SX1B. For example, the trigger event is a user input event in which the trigger medium 69B receives a user input operation.

[0437] The processing unit 331 responds to the trigger signal SX1B to obtain the specific port identifier H49B, performs a data acquisition operation ZQ2C based on the obtained specific port identifier H49B and the first data acquisition function FQ2A to obtain the measurement reference value VQ2P1, and generates a control signal SQ2P based on the obtained measurement reference value VQ2P1 to cause the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2P. The third physical parameter application unit 635 responds to the control signal SQ2P to cause the second variable physical parameter QQ2A to be formed in the physical parameter forming area AV21, thereby placing the second variable physical parameter QQ2A within the specific physical parameter range RQ2P, and thus causing the second variable physical parameter QQ2A to change from the specific physical parameter range RQ2P.

[0438] For example, the second variable physical parameter QQ2A is further characterized based on a specific physical parameter range RQ2Q adjacent to the specific physical parameter range RQ2P. The third physical parameter application unit 635 responds to the control signal SQ2P to cause the second variable physical parameter QQ2A to move from the specific physical parameter range RQ2P into the specific physical parameter range RQ2Q. For example, the specific physical parameter range RQ2Q is different from the specific physical parameter range RQ2P. For example, the specific port 49B is related to the specific physical parameter range RQ2P.

[0439] In some embodiments, specific ports 49A and 49B have variable voltage levels V49A and V49B, respectively. The variable voltage level V49A is changed based on the trigger signal SX1A. The variable voltage level V49B is changed based on the trigger signal SX1B. The processing unit 331 further includes a central processing unit 3310 coupled to the plurality of input ports 491, 492, ... and a storage component 3312 coupled to the central processing unit 3310. The storage component 3312 stores variable voltage level status codes C49A and C49B. For example, the storage component 3312 includes registers.

[0440] The variable level status code C49A represents the variable voltage level state J49A of the variable voltage level V49A. The variable level status code C49B represents the variable voltage level state J49B of the variable voltage level V49B. The central processing unit 3310 responds to the trigger signal SX1A to change the stored variable level status code C49A based on the variable voltage level V49A, and responds to the trigger signal SX1B to change the stored variable level status code C49B based on the variable voltage level V49B. The central processing unit 3310 performs the trigger signal reception detection ZJ11 on the plurality of input ports 491, 492, ... based on the stored variable level status codes C49A and C49B.

[0441] Please see Figure 55 This is a schematic diagram of a control system 951 in various embodiments of the present disclosure. The control system 951 includes functional means 135 for controlling a first variable physical parameter QU1A. For example, the first variable physical parameter QU1A is characterized based on a target state JU5U. The functional means 135 includes a sensing component 420, a sensing unit 430, and a processing unit 331.

[0442] The sensing component 420 is configured to sense a variable physical application parameter QR1A to generate a first sensing application signal SR51. The sensing unit 430 is configured to sense a second variable physical parameter QU2A to generate a sensing signal SN61. For example, the second variable physical parameter QU2A is characterized based on a physical parameter application range RF6EL represented by a measured value application range RK6L. The processing unit 331, coupled to the sensing component 420 and the sensing unit 430, determines a first application range limit value RK6L1 of the measured value application range RK6L in response to the first sensing application signal SR51, and, under the condition that the processing unit 331 determines the physical parameter application range RF6EL in which the second variable physical parameter QU2A is currently located based on the sensing signal SN61 and the determined first application range limit value RK6L1, places the first variable physical parameter QU1A in the target state JU5U.

[0443] Please see Figure 56 , Figure 57 , Figure 58 and Figure 59 . Figure 56 To illustrate Figure 55 A schematic diagram of the implementation structure 9511 of the control system 951 described herein. Figure 57 To illustrate Figure 55 A schematic diagram of the implementation structure 9512 of the control system 951 described herein. Figure 58 To illustrate Figure 55 A schematic diagram of the implementation structure 9513 of the control system 951 described herein. Figure 59 To illustrate Figure 55 A schematic diagram of the implementation structure 9514 of the control system 951 described herein. (See attached diagram.) Figure 56 , Figure 57 , Figure 58 and Figure 59 As shown, each of the implementation structures 9511, 9512, 9513 and 9514 includes the functional device 135.

[0444] In some embodiments, the measurement application range RK6L has a first application range limit value RK6L1 and a second application range limit value RK6L2 relative to the first application range limit value RK6L1. The functional device 135 further includes a physical parameter forming area AV61, a user operation medium 790, a first physical parameter application unit 671 coupled to the processing unit 331, a second physical parameter application unit 673 coupled to the processing unit 331, a first trigger application unit 561 coupled to the processing unit 331, a second trigger application unit 562 coupled to the processing unit 331, a third trigger application unit 563 coupled to the processing unit 331, and a fourth trigger application unit 564 coupled to the processing unit 331.

[0445] The first trigger application unit 561 is one of a first input unit, a first receiving unit, a first timer, a first button, and a first function switch. The second trigger application unit 562 is one of a second input unit, a second receiving unit, a second timer, a second button, and a second function switch. The third trigger application unit 563 is one of a third input unit, a third receiving unit, a third timer, a third button, and a third function switch. The fourth trigger application unit 564 is one of a fourth input unit, a fourth receiving unit, a fourth timer, a fourth button, and a fourth function switch.

[0446] The physical parameter forming region AV61 has the second variable physical parameter QU2A. The user operating medium 790 is coupled to one of the processing unit 331 and the sensing component 420. The processing unit 331 is configured to control the first variable physical parameter QU1A of the first physical parameter application unit 671 and the third variable physical parameter QU3A of the second physical parameter application unit 673. For example, the first variable physical parameter QU1A, the second variable physical parameter QU2A, and the third variable physical parameter QU3A related to the variable physical application parameter QR1A are formed at different spatial locations. The user operating medium 790 is configured to make the variable physical application parameter QR1A variable. For example, the sensing unit 430 includes the physical parameter forming region AV61. For example, the sensing unit 430 is coupled to the physical parameter forming region AV61.

[0447] For example, the first variable physical parameter QU1A, the second variable physical parameter QU2A, and the third variable physical parameter QU3A belong to different physical parameter types. The second variable physical parameter QU2A is related to the first variable physical parameter QU1A. The third variable physical parameter QU3A is related to the second variable physical parameter QU2A. For example, the user operating medium 790 is one of a knob, a button, and a function switch.

[0448] The variable physical application parameter QR1A is characterized based on a first physical parameter indication range RE5EA, represented by a first measurement indication range RJ5A, and a second physical parameter indication range RE5EB, represented by a second measurement indication range RJ5B. For example, the second physical parameter indication range RE5EB may be the same as or different from the first physical parameter indication range RE5EA. The measurement application range RK6L is a portion of the nominal measurement range RK6Y.

[0449] In some embodiments, upon the occurrence of a first trigger event P61A associated with the first trigger application unit 561, the processing unit 331 responds to the first trigger event P61A to obtain a first measurement application value ND51 based on the first sensing application signal SR51. Upon determining, by examining a first mathematical relationship KJ5F between the first measurement application value ND51 and the first measurement value indication range RJ5A, that the variable physical application parameter QR1A is currently within the first physical parameter indication range RE5EA, the processing unit 331 determines a first measurement value indication range code EJ5A representing the first measurement value indication range RJ5A. For example, the first trigger event P61A is one of a user input event, a signal input event, a state change event, and an integer overflow event.

[0450] Under the condition that a second triggering event P62A occurs after the first triggering event P61A, the processing unit 331 responds to the second triggering event P62A by performing a first scientific calculation MU5A related to the determined first measurement value indication range code EJ5A and the rated measurement value range RK6Y to determine the first application range limit value RK6L1. For example, the second triggering event P62A is related to the second triggering application unit 562. For example, the second triggering event P62A is one of a user input event, a signal input event, a state change event, and an integer overflow event.

[0451] In some embodiments, after the second trigger event P62A occurs, the sensing component 420 senses the variable physical application parameter QR1A to generate a second sensing application signal SR52. Under the condition that a third trigger event P61B occurs after the second trigger event P62A, the processing unit 331 responds to the third trigger event P61B to obtain a second measurement application value ND52 based on the second sensing application signal SR52. For example, the third trigger event P61B is associated with the first trigger application unit 561. For example, the third trigger event P61B is one of a user input event, a signal input event, a state change event, and an integer overflow event.

[0452] Under the condition that the processing unit 331 determines the second physical parameter indication range RE5EB in which the variable physical application parameter QR1A is currently located by checking the second mathematical relationship KJ5G between the second measurement application value ND52 and the second measurement value indication range RJ5B, the processing unit 331 determines the second measurement value indication range code EJ5B representing the second measurement value indication range RJ5B.

[0453] Under the condition that a fourth trigger event P63A occurs after the third trigger event P61B, the processing unit 331 responds to the fourth trigger event P63A by performing a second scientific calculation MU5B related to the determined second measurement value indication range code EJ5B and the rated measurement value range RK6Y to determine the second application range limit value RK6L2. For example, the fourth trigger event P63A is related to the third trigger application unit 563, which may be the same as or different from the second trigger application unit 562, and the second scientific calculation MU5B is different from the first scientific calculation MU5A. The processing unit 331 determines the measurement value application range RK6L by determining the first application range limit value RK6L1 and the second application range limit value RK6L2. For example, the fourth trigger event P63A is one of a user input event, a signal input event, a state change event, and an integer overflow event.

[0454] In some embodiments, the target state JU5U is represented by the target state code EU5U. Under the condition that a fifth trigger event P64A occurs after the fourth trigger event P63A, the processing unit 331 responds to the fifth trigger event P64A to obtain a measurement value NN61 based on the sensing signal SN61. For example, the fifth trigger event P64A is related to the fourth trigger application unit 564. For example, the fifth trigger event P64A is one of a user input event, a signal input event, a state change event, and an integer overflow event.

[0455] The processing unit 331 performs a check operation ZC61 based on a third mathematical relationship KK6F1 between the measured value NN61 and the determined first application range boundary value RK6L1, to check a fourth mathematical relationship KK6F between the measured value NN61 and the determined application range RK6L. When the processing unit 331 determines, due to the check operation ZC61, that the second variable physical parameter QU2A is currently in the physical parameter application range RF6EL, the processing unit 331 determines a measurement value application range code EK6L representing the measurement value application range RK6L. For example, the measurement value application range code EK6L is related to a first data acquisition function FU1A prepared for the first variable physical parameter QU1A.

[0456] The processing unit 331 performs a first data acquisition operation ZU1A based on the determined application range code EK6L of the measured value and the first data acquisition function FU1A to obtain the target status code EU5U. Based on the obtained target status code EU5U, it generates an operation signal SG5U to cause the first variable physical parameter QU1A to be in the target state JU5U, and transmits the operation signal SG5U to the first physical parameter application unit 671. The processing unit 331 further performs the check operation ZC61 based on the fifth mathematical relationship KK6F2 between the measured value NN61 and the determined second application range limit value RK6L2. The first physical parameter application unit 671 responds to the operation signal SG5U to cause the first variable physical parameter QU1A to be in the target state JU5U.

[0457] For example, the processing unit 331 performs the first data acquisition operation ZU1A based on the determined measurement value application range code EK6L to obtain a control application code CU5U related to the target state JU5U, and generates the operation signal SG5U based on the obtained control application code CU5U. For example, the control application code CU5U is the same as the target state code EU5U.

[0458] In some embodiments, the first measurement value indication range code EJ5A is associated with a second data acquisition function FU3A prepared for the third variable physical parameter QU3A. The third variable physical parameter QU3A is characterized based on a first physical parameter specifying state JU7H. For example, the first physical parameter specifying state JU7H is represented by a first physical parameter specifying state code EU7H.

[0459] Under the condition that the processing unit 331 determines the first measurement value indication range code EJ5A, the processing unit 331 performs a second data acquisition operation ZU3A based on the determined first measurement value indication range code EJ5A and the second data acquisition function FU3A to obtain the first physical parameter specified status code EU7H. Based on the obtained first physical parameter specified status code EU7H, the processing unit 331 generates a first function signal SP7H to cause the third variable physical parameter QU3A to be in the first physical parameter specified status JU7H, and transmits the first function signal SP7H to the second physical parameter application unit 673. The second physical parameter application unit 673 responds to the first function signal SP7H to cause the third variable physical parameter QU3A to be in the first physical parameter specified status JU7H.

[0460] For example, when the processing unit 331 determines the first measurement value indication range code EJ5A, the processing unit 331 performs the second data acquisition operation ZU3A based on the determined first measurement value indication range code EJ5A to obtain the control application code CU7H related to the first physical parameter specified state JU7H, and generates the first function signal SP7H based on the obtained control application code CU7H. For example, the control application code CU7H is the same as the first physical parameter specified state code EU7H.

[0461] In some embodiments, the measurement value application range code EK6L is further related to a third data acquisition function FU3B prepared for the third variable physical parameter QU3A. The third variable physical parameter QU3A is further characterized based on a second physical parameter specified state JU7U. For example, the second physical parameter specified state JU7U is represented by a second physical parameter specified state code EU7U and may be the same as or different from the first physical parameter specified state JU7H.

[0462] Under the condition that the processing unit 331 determines the measurement value application range code EK6L, ​​the processing unit 331 performs a third data acquisition operation ZU3B based on the determined measurement value application range code EK6L and the third data acquisition function FU3B to obtain the second physical parameter specified status code EU7U. Based on the obtained second physical parameter specified status code EU7U, the processing unit 331 generates a second function signal SP7U to cause the third variable physical parameter QU3A to be in the second physical parameter specified status JU7U, and transmits the second function signal SP7U to the second physical parameter application unit 673. The second physical parameter application unit 673 responds to the second function signal SP7U to cause the third variable physical parameter QU3A to be in the second physical parameter specified status JU7U.

[0463] For example, when the processing unit 331 determines the measurement value application range code EK6L, ​​the processing unit 331 performs the third data acquisition operation ZU3B based on the determined measurement value application range code EK6L to obtain the control application code CU7U related to the second physical parameter specified state JU7U, and generates the second function signal SP7U based on the obtained control application code CU7U. For example, the control application code CU7U is the same as the second physical parameter specified state code EU7U.

[0464] Please see Figure 55 , Figure 56 , Figure 57 , Figure 58 and Figure 59 A method MA51 for controlling a first variable physical parameter QU1A is disclosed. For example, the first variable physical parameter QU1A is characterized based on a target state JU5U and related to a second variable physical parameter QU2A. The second variable physical parameter QU2A is characterized based on a physical parameter application range RF6EL represented by a measurement application range RK6L.

[0465] The method MA51 includes the following steps: sensing a variable physical application parameter QR1A to generate a first sensing application signal SR51; in response to the first sensing application signal SR51, determining a first application range limit value RK6L1 of the measurement application range RK6L; sensing a second variable physical parameter QU2A to generate a sensing signal SN61; and, under the condition that the physical parameter application range RF6EL in which the second variable physical parameter QU2A is currently located is determined based on the sensing signal SN61 and the determined first application range limit value RK6L1, placing the first variable physical parameter QU1A in the target state JU5U.

[0466] In some embodiments, the measurement application range RK6L has a first application range limit value RK6L1 and a second application range limit value RK6L2 relative to the first application range limit value RK6L1. The first variable physical parameter QU1A, the second variable physical parameter QU2A, and the third variable physical parameter QU3A related to the variable physical application parameter QR1A are respectively formed at different spatial locations.

[0467] The variable physical application parameter QR1A is characterized based on a first physical parameter indication range RE5EA, represented by a first measurement indication range RJ5A, and a second physical parameter indication range RE5EB, represented by a second measurement indication range RJ5B. For example, the second physical parameter indication range RE5EB may be the same as or different from the first physical parameter indication range RE5EA. The measurement application range RK6L is a portion of the nominal measurement range RK6Y.

[0468] The step of determining the first application range limit value RK6L1 includes the following sub-steps: in response to a first trigger event P61A, obtaining a first measurement application value ND51 based on the first sensing application signal SR51; under the condition that the first physical parameter indication range RE5EA in which the variable physical application parameter QR1A is currently located is determined by examining a first mathematical relationship KJ5F between the first measurement application value ND51 and the first measurement value indication range RJ5A, determining a first measurement value indication range code EJ5A representing the first measurement value indication range RJ5A; and under the condition that a second trigger event P62A occurs after the first trigger event P61A, in response to the second trigger event P62A, performing a first scientific calculation MU5A related to the determined first measurement value indication range code EJ5A and the nominal measurement value range RK6Y to determine the first application range limit value RK6L1.

[0469] In some embodiments, the method MA51 further includes the following steps: after the second trigger event P62A occurs, sensing the variable physical application parameter QR1A to generate a second sensing application signal SR52; and under the condition that a third trigger event P61B occurs after the second trigger event P62A, obtaining a second measurement application value ND52 based on the second sensing application signal SR52 in response to the third trigger event P61B.

[0470] The method MA51 further includes the following steps: determining a second measurement value indication range code EJ5B representing the second measurement value indication range RJ5B, provided that the second physical parameter indication range RE5EB in which the variable physical application parameter QR1A is currently located is determined by examining a second mathematical relationship KJ5G between the second measurement application value ND52 and the second measurement value indication range RJ5B; and, provided that a fourth triggering event P63A occurs after the third triggering event P61B, performing a second scientific calculation MU5B related to the determined second measurement value indication range code EJ5B and the nominal measurement value range RK6Y in response to the fourth triggering event P63A to determine the second application range limit value RK6L2, wherein the second scientific calculation MU5B is different from the first scientific calculation MU5A.

[0471] In some embodiments, the application range RK6L of the measured value is determined by determining the first application range limit value RK6L1 and the second application range limit value RK6L2. The target state JU5U is represented by the target state code EU5U.

[0472] The step of placing the first variable physical parameter QU1A in the target state JU5U includes the following sub-steps: under the condition that a fifth triggering event P64A occurs after the fourth triggering event P63A, obtaining a measurement value NN61 based on the sensing signal SN61 in response to the fifth triggering event P64A; and performing a check operation ZC61 to check the fourth mathematical relationship KK6F between the measurement value NN61 and the determined first application range limit value RK6L1 based on the third mathematical relationship KK6F1 between the measurement value NN61 and the determined application range RK6L of the measurement value, wherein the check operation ZC61 is further performed based on the fifth mathematical relationship KK6F2 between the measurement value NN61 and the determined second application range limit value RK6L2.

[0473] The step of placing the first variable physical parameter QU1A in the target state JU5U further includes the following sub-steps: under the condition that the physical parameter application range RF6EL in which the second variable physical parameter QU2A is currently located is determined due to the check operation ZC61, determining a measurement value application range code EK6L representing the measurement value application range RK6L, wherein the measurement value application range code EK6L is related to a first data acquisition function FU1A prepared for the first variable physical parameter QU1A; and based on the determined measurement value application range code EK6L and the first data acquisition function FU1A, performing a first data acquisition operation ZU1A to obtain the target state code EU5U.

[0474] The step of placing the first variable physical parameter QU1A in the target state JU5U further includes the following sub-steps: generating an operation signal SG5U based on the obtained target state code EU5U to cause the first variable physical parameter QU1A to be in the target state JU5U; and responding to the operation signal SG5U to place the first variable physical parameter QU1A in the target state JU5U.

[0475] In some embodiments, the first measurement value indication range code EJ5A is associated with a second data acquisition function FU3A prepared for the third variable physical parameter QU3A. The third variable physical parameter QU3A is characterized based on a first physical parameter specifying state JU7H. For example, the first physical parameter specifying state JU7H is represented by a first physical parameter specifying state code EU7H.

[0476] The method MA51 further includes the following steps: under the condition that the first measurement value indication range code EJ5A is determined, performing a second data acquisition operation ZU3A based on the determined first measurement value indication range code EJ5A and the second data acquisition function FU3A to obtain the first physical parameter specified status code EU7H; generating a first function signal SP7H based on the obtained first physical parameter specified status code EU7H to cause the third variable physical parameter QU3A to be in the first physical parameter specified status JU7H; and responding to the first function signal SP7H to cause the third variable physical parameter QU3A to be in the first physical parameter specified status JU7H.

[0477] In some embodiments, the measurement value application range code EK6L is further related to a third data acquisition function FU3B prepared for the third variable physical parameter QU3A. The third variable physical parameter QU3A is further characterized based on a second physical parameter specified state JU7U. For example, the second physical parameter specified state JU7U is represented by a second physical parameter specified state code EU7U and may be the same as or different from the first physical parameter specified state JU7H.

[0478] The method MA51 further includes the following steps: under the condition that the measurement value application range code EK6L is determined, performing a third data acquisition operation ZU3B based on the determined measurement value application range code EK6L and the third data acquisition function FU3B to obtain the second physical parameter specified status code EU7U; generating a second function signal SP7U based on the obtained second physical parameter specified status code EU7U to cause the third variable physical parameter QU3A to be in the second physical parameter specified status JU7U; and responding to the second function signal SP7U to cause the third variable physical parameter QU3A to be in the second physical parameter specified status JU7U.

[0479] Please see Figure 60 and Figure 61 . Figure 60 To illustrate Figure 55 A schematic diagram of the implementation structure 9515 of the control system 951 described herein. Figure 61 To illustrate Figure 55 A schematic diagram of the implementation structure 9516 of the control system 951 described herein. (See attached diagram.) Figure 60 and Figure 61 As shown, each of the implementation structures 9515 and 9516 includes the functional device 135. For example, the sensing component 420, the sensing unit 430, the first physical parameter application unit 671, the second physical parameter application unit 673, the first trigger application unit 561, the second trigger application unit 562, the third trigger application unit 563, and the fourth trigger application unit 563 are all controlled by the processing unit 331.

[0480] In some embodiments, the first triggering application unit 561 is configured to cause the first triggering event P61A to occur, and in response to the first triggering event P61A, to cause the processing unit 331 to receive a trigger signal S61A. For example, the trigger signal S61A is an operation request signal. The first triggering application unit 561 generates the trigger signal S61A in response to the first triggering event P61A, provides the trigger signal S61A to the processing unit 331, and thus causes the processing unit 331 to receive the trigger signal S61A.

[0481] The second triggering application unit 562 is configured to cause the second triggering event P62A to occur, and in response to the second triggering event P62A, to cause the processing unit 331 to receive the trigger signal S62A. For example, the trigger signal S62A is an operation request signal. The second triggering application unit 562 generates the trigger signal S62A in response to the second triggering event P62A, provides the trigger signal S62A to the processing unit 331, and thus causes the processing unit 331 to receive the trigger signal S62A.

[0482] The first triggering application unit 561 is configured to cause the third triggering event P61B to occur, and in response to the third triggering event P61B, causes the processing unit 331 to receive the trigger signal S61B. For example, the trigger signal S61B is an operation request signal. The first triggering application unit 561 generates the trigger signal S61B in response to the third triggering event P61B, provides the trigger signal S61B to the processing unit 331, and thus causes the processing unit 331 to receive the trigger signal S61B.

[0483] The third triggering application unit 563 is configured to cause the fourth triggering event P63A to occur, and in response to the fourth triggering event P63A, to cause the processing unit 331 to receive the trigger signal S63A. For example, the trigger signal S63A is an operation request signal. The third triggering application unit 563 generates the trigger signal S63A in response to the fourth triggering event P63A, provides the trigger signal S63A to the processing unit 331, and thus causes the processing unit 331 to receive the trigger signal S63A.

[0484] The fourth triggering application unit 564 is configured to cause the fifth triggering event P64A to occur, and in response to the fifth triggering event P64A, to cause the processing unit 331 to receive the trigger signal S64A. For example, the trigger signal S64A is an operation request signal. The fourth triggering application unit 564 generates the trigger signal S64A in response to the fifth triggering event P64A, provides the trigger signal S64A to the processing unit 331, and thus causes the processing unit 331 to receive the trigger signal S64A.

[0485] In some embodiments, the sensing component 420 is one of a first plurality of application sensors and conforms to a first sensor specification. The first plurality of application sensors include time sensors, electrical parameter sensors, mechanical parameter sensors, optical parameter sensors, motion sensors, magnetic parameter sensors, voltage sensors, current sensors, resistance sensors, capacitance sensors, inductive sensors, accelerometers, gyroscopes, pressure transducers, strain gauges, timers, photodetectors, temperature sensors, and humidity sensors. The first measurement value indication range RJ5A and the second measurement value indication range RJ5B are both assumed to be based on the first sensor specification.

[0486] The sensing unit 430 is one of a second plurality of application sensors and conforms to a second sensor specification. The second plurality of application sensors includes time sensors, electrical parameter sensors, mechanical parameter sensors, optical parameter sensors, motion sensors, magnetic parameter sensors, voltage sensors, current sensors, resistance sensors, capacitance sensors, inductive sensors, accelerometers, gyroscopes, pressure transducers, strain gauges, timers, photodetectors, temperature sensors, and humidity sensors. The measured value application range RK6L and the rated measured value range RK6Y are both assumed to be based on the second sensor specification.

[0487] In some embodiments, the variable physical application parameter QR1A is one of a plurality of specific physical parameters. These specific physical parameters include variable time parameters, variable electrical parameters, variable mechanical parameters, variable motion parameters, variable optical parameters, variable temperature, variable voltage, variable current, variable electrical power, variable resistance, variable capacitance, variable inductance, variable frequency, clock time, variable time length, variable remaining time, variable color temperature, variable brightness, variable luminous intensity, variable volume, variable data flow, variable amplitude, variable spatial position, variable displacement, variable sequential position, variable angle, variable spatial length, variable distance, variable translational velocity, variable angula...

Claims

1. A functional device for controlling a first variable physical parameter, wherein the first variable physical parameter of a first physical parameter application unit is characterized based on a target state and a reference state, the first physical parameter application unit is an electrical load unit, the first variable physical parameter is one of a variable optical parameter, a variable temperature, and a variable volume, and the reference state is different from the target state, the functional device comprising: The triggering medium is configured to cause a first trigger signal sequence to occur; A sensing unit is configured to sense a second variable physical parameter to generate a sensing signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range and a physical parameter reference range represented by a measured value reference range, and the physical parameter reference range and the measured value reference range are different from the physical parameter application range and the measured value application range, respectively. as well as A processing unit, coupled to the first physical parameter application unit, the triggering medium, and the sensing unit, responds to the first trigger signal sequence to determine a first application range limit value for the application range of the measured value, obtains a measured value based on the sensing signal, performs a first check operation to check a second mathematical relationship KK6F between the measured value and the determined first application range limit value based on a first mathematical relationship KK6F1 between the measured value and the application range of the measured value, and makes a logical decision on whether the second variable physical parameter is currently within the application range of the physical parameter based on the first check operation, wherein: Under the condition that the logical decision is affirmative, the processing unit determines a measurement value application range code representing the application range of the measurement value, obtains a target status code representing the target state based on the determined measurement value application range code, and causes a first operation signal to be transmitted to the first physical parameter application unit based on the obtained target status code. The first physical parameter application unit responds to the first operation signal to cause the first variable physical parameter to be in the target state; If the logical decision is negative, the processing unit performs a second check operation to check the mathematical relationship KK6G between the measured value and the reference range of the measured value; Under the condition that the processing unit determines, based on the second inspection operation, the current physical parameter reference range of the second variable physical parameter, the processing unit determines a measurement value reference range code representing the measurement value reference range, obtains a reference status code representing the reference state based on the determined measurement value reference range code, and causes a second operation signal to be transmitted to the first physical parameter application unit based on the obtained reference status code; and The first physical parameter application unit responds to the second operation signal to cause the first variable physical parameter to be in the reference state.

2. The functional device according to claim 1, wherein: The application range of the measured value has a first application range limit value and a second application range limit value relative to the first application range limit value; The functional device further includes a physical parameter forming area, a first physical parameter application unit coupled to the processing unit, a second physical parameter application unit coupled to the processing unit, a first trigger application unit coupled to the processing unit, a second trigger application unit coupled to the processing unit, and a third trigger application unit coupled to the processing unit. The physical parameter forming region has the second variable physical parameter; The processing unit is configured to control the first variable physical parameter of the first physical parameter application unit and the third variable physical parameter of the second physical parameter application unit, wherein the first variable physical parameter, the second variable physical parameter and the third variable physical parameter related to the first trigger signal sequence are respectively formed at different spatial locations; The range of application of the measured values ​​is equal to a portion of the rated range of measured values; The first trigger signal sequence is configured to present a first total number of trigger signals, including the last occurring first trigger signal, and caused by a first user input operation sequence; The triggering medium generates the first trigger signal by receiving a first user input operation, and responds to the first user input operation to cause the processing unit to receive the first trigger signal, wherein the first user input operation sequence includes the first user input operation; The processing unit responds to the received first trigger signal to perform a first total signal count determination operation related to the first trigger signal to determine the first total trigger signal count; Under the condition that a first triggering event occurs after the first triggering signal sequence, the processing unit responds to the first triggering event by performing a first scientific calculation related to the determined first total number of triggering signals and the rated measurement range to determine the first application range limit value, wherein the first triggering event is related to the first triggering application unit; The triggering medium is used to cause a second triggering signal sequence to occur, wherein the second triggering signal sequence is the same as or different from the first triggering signal sequence; The second trigger signal sequence is configured to present a second total number of trigger signals, including the last occurring second trigger signal, and caused by a second user input operation sequence, wherein the second total number of trigger signals is the same as or different from the first total number of trigger signals; The triggering medium generates the second trigger signal by receiving a second user input operation, and responds to the second user input operation to cause the processing unit to receive the second trigger signal, wherein the second user input operation sequence includes the second user input operation; The processing unit responds to the received second trigger signal to perform a second total signal number determination operation related to the second trigger signal to determine the second total trigger signal number; Under the condition that a second triggering event occurs after at least one of the first triggering event and the second triggering signal sequence, the processing unit responds to the second triggering event to perform a second scientific calculation related to the determined second total number of triggering signals and the rated measurement range to determine the second application range limit value, wherein the second scientific calculation is different from the first scientific calculation, the second triggering event is related to the second triggering application unit, and the second triggering application unit is the same as or different from the first triggering application unit; The processing unit determines the application range of the measurement value by determining the first application range limit value and the second application range limit value; Under the condition that a third triggering event occurs after the second triggering event, the processing unit responds to the third triggering event to obtain the measurement value based on the sensing signal, wherein the third triggering event is related to the third triggering application unit; The measured value application range code is related to the first data acquisition function prepared for the first variable physical parameter; The processing unit performs a first data acquisition operation based on the determined measurement value application range code and the first data acquisition function to obtain the target status code, generates a first operation signal based on the obtained target status code to cause the first variable physical parameter to be in the target state, and transmits the first operation signal to the first physical parameter application unit. The processing unit further performs the first inspection operation based on the third mathematical relationship KK6F2 between the measured value and the determined second application range limit value; The first total number of trigger signals is related to the second data acquisition function prepared for the third variable physical parameter; The third variable physical parameter is characterized based on the state specified by the first physical parameter, wherein the state specified by the first physical parameter is represented by the state code specified by the first physical parameter. Under the condition that the processing unit determines the first total number of trigger signals, the processing unit performs a second data acquisition operation based on the determined first total number of trigger signals and the second data acquisition function to obtain the first physical parameter specified status code, generates a first functional signal for causing the third variable physical parameter to be in the first physical parameter specified state based on the obtained first physical parameter specified status code, and transmits the first functional signal to the second physical parameter application unit. The second physical parameter application unit responds to the first function signal to make the third variable physical parameter be in the state specified by the first physical parameter; The measurement value application range code is further related to the third data acquisition function prepared for the third variable physical parameter; The third variable physical parameter is further characterized based on the state specified by the second physical parameter, wherein the state specified by the second physical parameter is represented by the state code specified by the second physical parameter and may be the same as or different from the state specified by the first physical parameter. Under the condition that the processing unit determines the measurement value application range code, the processing unit performs a third data acquisition operation based on the determined measurement value application range code and the third data acquisition function to obtain the second physical parameter specified status code, generates a second functional signal for causing the third variable physical parameter to be in the second physical parameter specified state based on the obtained second physical parameter specified status code, and transmits the second functional signal to the second physical parameter application unit; and The second physical parameter application unit responds to the second function signal to put the third variable physical parameter into the state specified by the second physical parameter.

3. A method for controlling a first variable physical parameter, wherein the first variable physical parameter of a physical parameter application unit is characterized based on a target state and a reference state and related to a second variable physical parameter, the physical parameter application unit being one of a relay, a control switch, and a motor, the first variable physical parameter being a variable frequency, the reference state being different from the target state, the second variable physical parameter being characterized based on a physical parameter application range represented by a measured value application range and a physical parameter reference range represented by a measured value reference range, wherein the physical parameter reference range and the measured value reference range are different from the physical parameter application range and the measured value application range, respectively, the method comprising the following steps: A processing unit coupled to the physical parameter application unit is provided; This causes the trigger signal sequence to occur; The application range limit value of the measurement value is determined by using the processing unit in response to the trigger signal sequence. Sensing the second variable physical parameter to generate a sensing signal; The measured value is obtained based on the sensing signal by using the processing unit; By using the processing unit, a first check operation is performed to check the second mathematical relationship KK6F between the measured value and the application range limit value, based on the first mathematical relationship KK6F1 between the measured value and the determined application range limit value. By using the processing unit, a logical decision is made on whether the second variable physical parameter is currently within the application range of the physical parameter based on the first check operation; If the logical decision is affirmative, the processing unit is used to determine a measurement value application range code representing the application range of the measurement value. By using the processing unit, a target state code representing the target state is obtained by applying a range code based on the determined measurement value; By using the processing unit, a first operation signal is transmitted to the physical parameter application unit based on the obtained target status code; By using the physical parameter application unit, the first variable physical parameter is brought into the target state in response to the first operation signal; Under the condition that the logical decision is negative, a second check operation for checking the mathematical relationship KK6G between the measured value and the reference range of the measured value is performed by using the processing unit; Under the condition that the physical parameter reference range in which the second variable physical parameter is currently located is determined by the processing unit based on the second inspection operation, the processing unit is used to determine a measurement value reference range code representing the measurement value reference range; By using the processing unit, a reference state code representing the reference state is obtained based on the determined measurement value reference range code; The processing unit transmits a second operation signal to the physical parameter application unit based on the obtained reference status code. as well as By using the physical parameter application unit, the first variable physical parameter is brought into the reference state in response to the second operation signal.

4. A functional device for controlling a first variable physical parameter, wherein the first variable physical parameter of a first physical parameter application unit is characterized based on a target state and a reference state, the first physical parameter application unit is an electrical load unit, the first variable physical parameter is one of a variable optical parameter, a variable temperature, and a variable volume, and the reference state is different from the target state, the functional device comprising: A sensing unit is configured to sense a second variable physical parameter to generate a sensing signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range and a physical parameter reference range represented by a measured value reference range, and the physical parameter reference range and the measured value reference range are different from the physical parameter application range and the measured value application range, respectively. The triggering medium is configured to cause a sequence of trigger signals to occur. as well as A processing unit, coupled to the first physical parameter application unit, the sensing unit, and the triggering medium, responds to the trigger signal sequence to change the second variable physical parameter, wherein: After the second variable physical parameter is changed in response to the trigger signal sequence, the processing unit obtains a measurement value based on the sensing signal, performs a first check operation to check the mathematical relationship KK2F between the measurement value and the range of application of the measurement value, and makes a logical decision on whether the second variable physical parameter is currently within the range of application of the physical parameter based on the first check operation. Under the condition that the logical decision is affirmative, the processing unit determines a measurement value application range code representing the application range of the measurement value, obtains a target status code representing the target state based on the determined measurement value application range code, and transmits a first operation signal SG1U to the first physical parameter application unit based on the obtained target status code. The first physical parameter application unit responds to the first operation signal SG1U to bring the first variable physical parameter to the target state; If the logical decision is negative, the processing unit performs a second check operation to check the mathematical relationship KK2G between the measured value and the reference range of the measured value; Under the condition that the processing unit determines the current physical parameter reference range of the second variable physical parameter based on the second check operation, the processing unit determines a measurement value reference range code representing the measurement value reference range, obtains a reference status code representing the reference state based on the determined measurement value reference range code, and transmits the operation signal SG1V to the first physical parameter application unit based on the obtained reference status code; and The first physical parameter application unit responds to the operation signal SG1V to bring the first variable physical parameter into the reference state.

5. The functional device according to claim 4, wherein: The second variable physical parameter is further characterized based on a specific physical parameter range, which includes the specific physical parameter represented by the measured reference value; The functional device further includes a physical parameter forming area, a first physical parameter application unit coupled to the processing unit, a second physical parameter application unit coupled to the processing unit, a first trigger application unit coupled to the processing unit, and a second trigger application unit coupled to the processing unit. The processing unit is configured to control the first variable physical parameter of the first physical parameter application unit and the third variable physical parameter of the second physical parameter application unit, wherein the first variable physical parameter, the second variable physical parameter and the third variable physical parameter related to the trigger signal sequence are respectively formed at different spatial locations; The specific range of physical parameters is the initial range of physical parameters; The trigger signal sequence is configured to represent the total number of trigger signals, including the last trigger signal that occurred, and is caused by a user-input sequence of operations. The triggering medium generates the trigger signal by receiving user input operations, and responds to the user input operations to cause the processing unit to receive the trigger signal, wherein the user input operation sequence includes the user input operations; The processing unit responds to the received trigger signal by performing a total signal number determination operation related to the trigger signal to determine the total number of trigger signals; The total number of trigger signals is related to the first data acquisition function prepared for the second variable physical parameter; Under the condition that a first triggering event occurs after the triggering signal sequence, the processing unit performs a first data acquisition operation based on the determined total number of triggering signals and the first data acquisition function to obtain the measurement reference value, and generates a control signal based on the obtained measurement reference value to cause the second variable physical parameter to change from the specific physical parameter range, wherein the first triggering event is related to the first triggering application unit; The sensing unit responds to the control signal by causing the second variable physical parameter to be within the specific physical parameter range by forming the second variable physical parameter in the physical parameter forming region; Under the condition that a second triggering event occurs after the first triggering event, the processing unit responds to the second triggering event to obtain the measurement value based on the sensing signal, wherein the second triggering event is related to the second triggering application unit; The measured value application range code is related to the second data acquisition function prepared for the first variable physical parameter; The processing unit performs a second data acquisition operation based on the determined measurement value application range code and the second data acquisition function to obtain the target status code, generates a first operation signal SG1U based on the obtained target status code to cause the first variable physical parameter to be in the target state, and transmits the first operation signal SG1U to the first physical parameter application unit. The first variable physical parameter is further characterized based on a specific physical parameter state, wherein the specific physical parameter state is represented by a specific physical parameter state code; The total number of trigger signals is further related to a third data acquisition function prepared for the first variable physical parameter; Under the condition that the processing unit determines the total number of trigger signals, the processing unit performs a third data acquisition operation based on the determined total number of trigger signals and the third data acquisition function to obtain the specific physical parameter status code, generates a second operation signal SG1E for causing the first variable physical parameter to be in the specific physical parameter state based on the obtained specific physical parameter status code, and transmits the second operation signal SG1E to the first physical parameter application unit. The first physical parameter application unit responds to the second operation signal SG1E to put the first variable physical parameter into the specific physical parameter state; The measurement reference value is related to a fourth data acquisition function prepared for the third variable physical parameter; The third variable physical parameter is characterized based on the physical parameter specified state, wherein the physical parameter specified state is represented by the physical parameter specified state code; Under the condition that the processing unit obtains the measurement reference value, the processing unit performs a fourth data acquisition operation based on the obtained measurement reference value and the fourth data acquisition function to obtain the physical parameter specified status code, generates a function signal for causing the third variable physical parameter to be in the physical parameter specified state based on the obtained physical parameter specified status code, and transmits the function signal to the second physical parameter application unit; and The second physical parameter application unit responds to the function signal to put the third variable physical parameter into the state specified by the physical parameter.

6. A method for controlling a first variable physical parameter, wherein the first variable physical parameter of a physical parameter application unit is characterized based on a target state and a reference state and related to a second variable physical parameter, the physical parameter application unit being one of a relay, a control switch, and a motor, the first variable physical parameter being a variable frequency, and the reference state being different from the target state, the method comprising the following steps: A processing unit coupled to the physical parameter application unit is provided; The second variable physical parameter is sensed to generate a sensing signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range and a physical parameter reference range represented by a measured value reference range, and the physical parameter reference range and the measured value reference range are different from the physical parameter application range and the measured value application range, respectively. This causes the trigger signal sequence to occur; The second variable physical parameter is changed by using the processing unit in response to the trigger signal sequence; After the second variable physical parameter is changed in response to the trigger signal sequence, a measurement value is obtained based on the sensing signal by using the processing unit; By using the processing unit, a first check operation is performed to check the mathematical relationship KK2F between the measured value and the range of application of the measured value; By using the processing unit, a logical decision is made on whether the second variable physical parameter is currently within the application range of the physical parameter based on the first check operation; If the logical decision is affirmative, the processing unit is used to determine a measurement value application range code representing the application range of the measurement value. By using the processing unit, a target state code representing the target state is obtained by applying a range code based on the determined measurement value; By using the processing unit, a first operation signal is transmitted to the physical parameter application unit based on the obtained target status code; By using the physical parameter application unit, the first variable physical parameter is brought to the target state in response to the first operation signal; Under the condition that the logical decision is negative, a second check operation for checking the mathematical relationship KK2G between the measured value and the reference range of the measured value is performed by using the processing unit; Under the condition that the physical parameter reference range in which the second variable physical parameter is currently located is determined by the processing unit based on the second inspection operation, the processing unit is used to determine a measurement value reference range code representing the measurement value reference range; By using the processing unit, a reference state code representing the reference state is obtained based on the determined measurement value reference range code; The processing unit transmits a second operation signal to the physical parameter application unit based on the obtained reference status code. as well as By using the physical parameter application unit, the first variable physical parameter is brought into the reference state in response to the second operation signal.

7. A functional device for controlling a first variable physical parameter, wherein the first variable physical parameter of a first physical parameter application unit is characterized based on a target state and a reference state, the first physical parameter application unit is an electrical load unit, the first variable physical parameter is one of a variable optical parameter, a variable temperature, and a variable volume, and the reference state is different from the target state, the functional device comprising: The sensing component is configured to sense variable physical application parameters to generate a first sensing application signal; A sensing unit is configured to sense a second variable physical parameter to generate a sensing signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range and a physical parameter reference range represented by a measured value reference range, and the physical parameter reference range and the measured value reference range are different from the physical parameter application range and the measured value application range, respectively. as well as A processing unit, coupled to the first physical parameter application unit, the sensing component, and the sensing unit, responds to the first sensing application signal to determine a first application range limit value for the application range of the measured value, obtains a measured value based on the sensing signal, performs a first check operation based on a third mathematical relationship KK6F1 between the measured value and the determined first application range limit value to check a fourth mathematical relationship KK6F between the measured value and the application range of the measured value, and makes a logical decision based on the first check operation as to whether the second variable physical parameter is currently within the application range of the physical parameter, wherein: Under the condition that the logical decision is affirmative, the processing unit determines a measurement value application range code representing the application range of the measurement value, obtains a target status code representing the target state based on the determined measurement value application range code, and causes a first operation signal to be transmitted to the first physical parameter application unit based on the obtained target status code. The first physical parameter application unit responds to the first operation signal to cause the first variable physical parameter to be in the target state; If the logical decision is negative, the processing unit performs a second check operation to check the mathematical relationship KK6G between the measured value and the reference range of the measured value; Under the condition that the processing unit determines, based on the second inspection operation, the current physical parameter reference range of the second variable physical parameter, the processing unit determines a measurement value reference range code representing the measurement value reference range, obtains a reference status code representing the reference state based on the determined measurement value reference range code, and causes a second operation signal to be transmitted to the first physical parameter application unit based on the obtained reference status code; and The first physical parameter application unit responds to the second operation signal to cause the first variable physical parameter to be in the reference state.

8. The functional device according to claim 7, wherein: The application range of the measured value has a first application range limit value and a second application range limit value relative to the first application range limit value; The functional device further includes a physical parameter forming area, a user operation medium, a first physical parameter application unit coupled to the processing unit, a second physical parameter application unit coupled to the processing unit, a first trigger application unit coupled to the processing unit, a second trigger application unit coupled to the processing unit, a third trigger application unit coupled to the processing unit, and a fourth trigger application unit coupled to the processing unit. The physical parameter forming region has the second variable physical parameter; The user operating medium is coupled to one of the processing unit and the sensing component; The processing unit is configured to control the first variable physical parameter of the first physical parameter application unit and the third variable physical parameter of the second physical parameter application unit, wherein the first variable physical parameter, the second variable physical parameter and the third variable physical parameter related to the variable physical application parameter are respectively formed at different spatial locations; The user operating medium is configured to make the variable physical application parameters variable; The variable physical application parameters are characterized based on a first physical parameter indication range represented by a first measurement value indication range and a second physical parameter indication range represented by a second measurement value indication range, wherein the second physical parameter indication range is the same as or different from the first physical parameter indication range; The range of application of the measured values ​​is equal to a portion of the rated range of measured values; Under the condition that a first triggering event related to the first triggering application unit occurs, the processing unit responds to the first triggering event to obtain a first measurement application value based on the first sensing application signal; Under the condition that the processing unit determines the first physical parameter indication range in which the variable physical application parameter is currently located by checking the first mathematical relationship KJ5F between the first measurement application value and the first measurement value indication range, the processing unit determines a first measurement value indication range code representing the first measurement value indication range. Under the condition that a second triggering event occurs after the first triggering event, the processing unit responds to the second triggering event to perform a first scientific calculation related to the determined first measurement value indication range code and the nominal measurement value range to determine the first application range limit value, wherein the second triggering event is related to the second triggering application unit; After the second triggering event occurs, the sensing component senses the variable physical application parameters to generate a second sensing application signal; Under the condition that a third triggering event occurs after the second triggering event, the processing unit responds to the third triggering event to obtain a second measurement application value based on the second sensing application signal, wherein the third triggering event is related to the first triggering application unit; Under the condition that the processing unit determines the second physical parameter indication range in which the variable physical application parameter is currently located by checking the second mathematical relationship KJ5G between the second measurement application value and the second measurement value indication range, the processing unit determines a second measurement value indication range code representing the second measurement value indication range; Under the condition that a fourth triggering event occurs after the third triggering event, the processing unit responds to the fourth triggering event to perform a second scientific calculation related to the determined second measurement value indication range code and the rated measurement value range to determine the second application range limit value, wherein the fourth triggering event is related to the third triggering application unit, the third triggering application unit is the same as or different from the second triggering application unit, and the second scientific calculation is different from the first scientific calculation; The processing unit determines the application range of the measurement value by determining the first application range limit value and the second application range limit value; Under the condition that a fifth triggering event occurs after the fourth triggering event, the processing unit responds to the fifth triggering event to obtain the measurement value based on the sensing signal, wherein the fifth triggering event is related to the fourth triggering application unit; The measured value application range code is related to the first data acquisition function prepared for the first variable physical parameter; The processing unit performs a first data acquisition operation based on the determined measurement value application range code and the first data acquisition function to obtain the target status code, generates a first operation signal based on the obtained target status code to cause the first variable physical parameter to be in the target state, and transmits the first operation signal to the first physical parameter application unit. The processing unit further performs the first inspection operation based on the fifth mathematical relationship KK6F2 between the measured value and the determined second application range limit value; The first measurement value indicates a range code related to a second data acquisition function prepared for the third variable physical parameter; The third variable physical parameter is characterized based on the state specified by the first physical parameter, wherein the state specified by the first physical parameter is represented by the state code specified by the first physical parameter. Under the condition that the processing unit determines the first measurement value indication range code, the processing unit performs a second data acquisition operation based on the determined first measurement value indication range code and the second data acquisition function to obtain the first physical parameter specified status code, generates a first function signal for causing the third variable physical parameter to be in the first physical parameter specified state based on the obtained first physical parameter specified status code, and transmits the first function signal to the second physical parameter application unit. The second physical parameter application unit responds to the first function signal to make the third variable physical parameter be in the state specified by the first physical parameter; The measurement value application range code is further related to the third data acquisition function prepared for the third variable physical parameter; The third variable physical parameter is further characterized based on the state specified by the second physical parameter, wherein the state specified by the second physical parameter is represented by the state code specified by the second physical parameter and may be the same as or different from the state specified by the first physical parameter. Under the condition that the processing unit determines the measurement value application range code, the processing unit performs a third data acquisition operation based on the determined measurement value application range code and the third data acquisition function to obtain the second physical parameter specified status code, generates a second functional signal for causing the third variable physical parameter to be in the second physical parameter specified state based on the obtained second physical parameter specified status code, and transmits the second functional signal to the second physical parameter application unit; and The second physical parameter application unit responds to the second function signal to put the third variable physical parameter into the state specified by the second physical parameter.

9. A method for controlling a first variable physical parameter, wherein the first variable physical parameter of a physical parameter application unit is characterized based on a target state and a reference state and related to a second variable physical parameter, the physical parameter application unit being one of a relay, a control switch, and a motor, the first variable physical parameter being a variable frequency, the reference state being different from the target state, the second variable physical parameter being characterized based on a physical parameter application range represented by a measured value application range and a physical parameter reference range represented by a measured value reference range, wherein the physical parameter reference range and the measured value reference range are different from the physical parameter application range and the measured value application range, respectively, the method comprising the following steps: A processing unit coupled to the physical parameter application unit is provided; Sensing variable physical application parameters to generate sensing application signals; By using the processing unit, the application range limit value of the measurement value application range is determined in response to the sensing application signal; Sensing the second variable physical parameter to generate a sensing signal; The measured value is obtained based on the sensing signal by using the processing unit; By using the processing unit, a first check operation is performed to check the second mathematical relationship KK6F between the measured value and the application range limit value, based on the first mathematical relationship KK6F1 between the measured value and the determined application range limit value. By using the processing unit, a logical decision is made on whether the second variable physical parameter is currently within the application range of the physical parameter based on the first check operation; If the logical decision is affirmative, the processing unit is used to determine a measurement value application range code representing the application range of the measurement value. By using the processing unit, a target state code representing the target state is obtained by applying a range code based on the determined measurement value; By using the processing unit, a first operation signal is transmitted to the physical parameter application unit based on the obtained target status code; By using the physical parameter application unit, the first variable physical parameter is brought into the target state in response to the first operation signal; Under the condition that the logical decision is negative, a second check operation for checking the mathematical relationship KK6G between the measured value and the reference range of the measured value is performed by using the processing unit; Under the condition that the physical parameter reference range in which the second variable physical parameter is currently located is determined by the processing unit based on the second inspection operation, the processing unit is used to determine a measurement value reference range code representing the measurement value reference range; By using the processing unit, a reference state code representing the reference state is obtained based on the determined measurement value reference range code; The processing unit transmits a second operation signal to the physical parameter application unit based on the obtained reference status code. as well as By using the physical parameter application unit, the first variable physical parameter is brought into the reference state in response to the second operation signal.

10. A functional device for controlling a first variable physical parameter, wherein the first variable physical parameter of a first physical parameter application unit is characterized based on a target state and a reference state, the first physical parameter application unit is an electrical load unit, the first variable physical parameter is one of a variable optical parameter, a variable temperature, and a variable volume, and the reference state is different from the target state, the functional device comprising: A sensing unit is configured to sense a second variable physical parameter to generate a sensing signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range and a physical parameter reference range represented by a measured value reference range, and the physical parameter reference range and the measured value reference range are different from the physical parameter application range and the measured value application range, respectively. Sensing components are configured to sense variable physical application parameters to generate sensing application signals; as well as A processing unit, coupled to the first physical parameter application unit, the sensing unit, and the sensing component, and responds to the sensing application signal to change the second variable physical parameter, wherein: After the second variable physical parameter is changed in response to the sensing application signal, the processing unit obtains a measurement value based on the sensing signal, performs a first check operation to check the second mathematical relationship KK2F between the measurement value and the application range of the measurement value, and makes a logical decision on whether the second variable physical parameter is currently within the application range of the physical parameter based on the first check operation. Under the condition that the logical decision is affirmative, the processing unit determines a measurement value application range code representing the application range of the measurement value, obtains a target status code representing the target state based on the determined measurement value application range code, and transmits a first operation signal SG1U to the first physical parameter application unit based on the obtained target status code. The first physical parameter application unit responds to the first operation signal SG1U to bring the first variable physical parameter to the target state; If the logical decision is negative, the processing unit performs a second check operation to check the mathematical relationship KK2G between the measured value and the reference range of the measured value; Under the condition that the processing unit determines the current physical parameter reference range of the second variable physical parameter based on the second check operation, the processing unit determines a measurement value reference range code representing the measurement value reference range, obtains a reference status code representing the reference state based on the determined measurement value reference range code, and transmits the operation signal SG1V to the first physical parameter application unit based on the obtained reference status code; and The first physical parameter application unit responds to the operation signal SG1V to bring the first variable physical parameter into the reference state.

11. The functional device according to claim 10, wherein: The second variable physical parameter is further characterized based on a specific physical parameter range, which includes the specific physical parameter represented by the measured reference value; The functional device further includes a physical parameter forming area, a user operation medium, a first physical parameter application unit coupled to the processing unit, a second physical parameter application unit coupled to the processing unit, a first trigger application unit coupled to the processing unit, a second trigger application unit coupled to the processing unit, and a third trigger application unit coupled to the processing unit. The user operating medium is coupled to one of the processing unit and the sensing component; The processing unit is configured to control the first variable physical parameter of the first physical parameter application unit and the third variable physical parameter of the second physical parameter application unit, wherein the first variable physical parameter, the second variable physical parameter and the third variable physical parameter related to the variable physical application parameter are respectively formed at different spatial locations; The user operating medium is configured to make the variable physical application parameters variable; The variable physical application parameters are characterized based on a physical parameter indication range, wherein the physical parameter indication range is represented by a measurement value indication range; The specific range of physical parameters is the initial range of physical parameters; Under the condition that a first triggering event associated with the first triggering application unit occurs, the processing unit responds to the first triggering event to obtain a measurement application value based on the sensing application signal; Under the condition that the processing unit determines the physical parameter indication range in which the variable physical application parameter is currently located by checking the first mathematical relationship KJ1F between the measurement application value and the measurement value indication range, the processing unit determines a measurement value indication range code representing the measurement value indication range, wherein the measurement value indication range code is related to a first data acquisition function prepared for the second variable physical parameter; Under the condition that a second triggering event occurs after the first triggering event, the processing unit responds to the second triggering event by performing a first data acquisition operation based on the determined measurement value indication range code and the first data acquisition function to obtain the measurement reference value, and generates a control signal based on the obtained measurement reference value to cause the second variable physical parameter to change from the specific physical parameter range, wherein the second triggering event is related to the second triggering application unit; The sensing unit responds to the control signal by causing the second variable physical parameter to be within the specific physical parameter range by forming the second variable physical parameter in the physical parameter forming region; Under the condition that a third triggering event occurs after the second triggering event, the processing unit responds to the third triggering event to obtain the measurement value based on the sensing signal, wherein the third triggering event is related to the third triggering application unit; The measured value application range code is related to the second data acquisition function prepared for the first variable physical parameter; The processing unit performs a second data acquisition operation based on the determined measurement value application range code and the second data acquisition function to obtain the target status code, generates a first operation signal SG1U based on the obtained target status code to cause the first variable physical parameter to be in the target state, and transmits the first operation signal SG1U to the first physical parameter application unit. The first variable physical parameter is further characterized based on a specific physical parameter state, wherein the specific physical parameter state is represented by a specific physical parameter state code; The measured value indication range code is further related to a third data acquisition function prepared for the first variable physical parameter; Under the condition that the processing unit determines the measurement value indication range code, the processing unit performs a third data acquisition operation based on the determined measurement value indication range code and the third data acquisition function to obtain the specific physical parameter status code, generates a second operation signal SG1E for causing the first variable physical parameter to be in the specific physical parameter state based on the obtained specific physical parameter status code, and transmits the second operation signal SG1E to the first physical parameter application unit. The first physical parameter application unit responds to the second operation signal SG1E to put the first variable physical parameter into the specific physical parameter state; The measurement reference value is related to a fourth data acquisition function prepared for the third variable physical parameter; The third variable physical parameter is characterized based on the physical parameter specified state, wherein the physical parameter specified state is represented by the physical parameter specified state code; Under the condition that the processing unit determines the measurement value indication range code, the processing unit performs a fourth data acquisition operation based on the obtained measurement reference value and the fourth data acquisition function to obtain the physical parameter specified status code, generates a function signal for causing the third variable physical parameter to be in the physical parameter specified state based on the obtained physical parameter specified status code, and transmits the function signal to the second physical parameter application unit; and The second physical parameter application unit responds to the function signal to put the third variable physical parameter into the state specified by the physical parameter.

12. A method for controlling a first variable physical parameter, wherein the first variable physical parameter of a physical parameter application unit is characterized based on a target state and a reference state and related to a second variable physical parameter, the physical parameter application unit being one of a relay, a control switch, and a motor, the first variable physical parameter being a variable frequency, and the reference state being different from the target state, the method comprising the following steps: A processing unit coupled to the physical parameter application unit is provided; The second variable physical parameter is sensed to generate a sensing signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range and a physical parameter reference range represented by a measured value reference range, and the physical parameter reference range and the measured value reference range are different from the physical parameter application range and the measured value application range, respectively. Sensing variable physical application parameters to generate sensing application signals; The second variable physical parameter is changed by using the processing unit in response to the sensing application signal; After the second variable physical parameter is changed in response to the sensing application signal, a measurement value is obtained based on the sensing signal by using the processing unit; By using the processing unit, a first check operation is performed to check the mathematical relationship KK2F between the measured value and the range of application of the measured value; By using the processing unit, a logical decision is made on whether the second variable physical parameter is currently within the application range of the physical parameter based on the first check operation; If the logical decision is affirmative, the processing unit is used to determine a measurement value application range code representing the application range of the measurement value. By using the processing unit, a target state code representing the target state is obtained by applying a range code based on the determined measurement value; By using the processing unit, a first operation signal is transmitted to the physical parameter application unit based on the obtained target status code; By using the physical parameter application unit, the first variable physical parameter is brought to the target state in response to the first operation signal; Under the condition that the logical decision is negative, a second check operation for checking the mathematical relationship KK2G between the measured value and the reference range of the measured value is performed by using the processing unit; Under the condition that the physical parameter reference range in which the second variable physical parameter is currently located is determined by the processing unit based on the second inspection operation, the processing unit is used to determine a measurement value reference range code representing the measurement value reference range; By using the processing unit, a reference state code representing the reference state is obtained based on the determined measurement value reference range code; The processing unit transmits a second operation signal to the physical parameter application unit based on the obtained reference status code. as well as By using the physical parameter application unit, the first variable physical parameter is brought into the reference state in response to the second operation signal.

13. A functional device for controlling a first variable physical parameter, wherein the first variable physical parameter of a first physical parameter application unit is characterized based on a target state and a reference state, the first physical parameter application unit is an electrical load unit, the first variable physical parameter is one of a variable optical parameter, a variable temperature, and a variable volume, and the reference state is different from the target state, the functional device comprising: A sensing unit is configured to sense a second variable physical parameter to generate a sensing signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range and a physical parameter reference range represented by a measured value reference range, and the physical parameter reference range and the measured value reference range are different from the physical parameter application range and the measured value application range, respectively. The receiving unit is configured to receive a first reference signal, wherein the first reference signal transmits a first application range limit value for the application range of the measurement value; as well as A processing unit, coupled to the first physical parameter application unit, the sensing unit, and the receiving unit, determines the transmitted first application range boundary value in response to the first reference signal, obtains a measurement value based on the sensing signal, performs a first check operation to check a second mathematical relationship KK6F between the measurement value and the determined first application range boundary value based on a first mathematical relationship KK6F1 between the measurement value and the measurement value application range, and makes a logical decision on whether the second variable physical parameter is currently within the physical parameter application range based on the first check operation, wherein: Under the condition that the logical decision is affirmative, the processing unit determines a measurement value application range code representing the application range of the measurement value, obtains a target status code representing the target state based on the determined measurement value application range code, and causes a first operation signal to be transmitted to the first physical parameter application unit based on the obtained target status code. The first physical parameter application unit responds to the first operation signal to cause the first variable physical parameter to be in the target state; If the logical decision is negative, the processing unit performs a second check operation to check the mathematical relationship KK6G between the measured value and the reference range of the measured value; Under the condition that the processing unit determines, based on the second inspection operation, the current physical parameter reference range of the second variable physical parameter, the processing unit determines a measurement value reference range code representing the measurement value reference range, obtains a reference status code representing the reference state based on the determined measurement value reference range code, and causes a second operation signal to be transmitted to the first physical parameter application unit based on the obtained reference status code; and The first physical parameter application unit responds to the second operation signal to cause the first variable physical parameter to be in the reference state.

14. The functional device according to claim 13, wherein: The application range of the measured value has a first application range limit value and a second application range limit value relative to the first application range limit value; The functional device further includes a physical parameter forming area, a first physical parameter application unit coupled to the processing unit, a second physical parameter application unit coupled to the processing unit, and a trigger application unit coupled to the processing unit. The physical parameter forming region has the second variable physical parameter; The processing unit is configured to control the first variable physical parameter of the first physical parameter application unit and the third variable physical parameter of the second physical parameter application unit, wherein the first variable physical parameter, the second variable physical parameter and the third variable physical parameter related to the first reference signal are respectively formed at different spatial locations; The range of application of the measured values ​​is equal to a portion of the rated range of measured values; The processing unit responds to the first reference signal to determine the transmitted first application range limit value; After the receiving unit receives the first reference signal, the receiving unit is configured to receive a second reference signal, wherein the second reference signal conveys the second application range limit value of the application range of the measurement value; The processing unit responds to the second reference signal to determine the transmitted second application range limit value; The processing unit determines the application range of the measurement value by determining the first application range limit value and the second application range limit value; The receiving unit receives the first reference signal and the second reference signal from an external device; Under the condition that a trigger event occurs after receiving the second reference signal, the processing unit responds to the trigger event to obtain the measurement value based on the sensing signal, wherein the trigger event is related to the trigger application unit; The measured value application range code is related to the first data acquisition function prepared for the first variable physical parameter; The processing unit performs a first data acquisition operation based on the determined measurement value application range code and the first data acquisition function to obtain the target status code, generates a first operation signal based on the obtained target status code to cause the first variable physical parameter to be in the target state, and transmits the first operation signal to the first physical parameter application unit. The processing unit further performs the first inspection operation based on the third mathematical relationship KK6F2 between the measured value and the determined second application range limit value; The first application scope limit value is related to the second data acquisition function prepared for the third variable physical parameter; The third variable physical parameter is characterized based on the state specified by the first physical parameter, wherein the state specified by the first physical parameter is represented by the state code specified by the first physical parameter. Under the condition that the processing unit determines the first application range limit value, the processing unit performs a second data acquisition operation based on the determined first application range limit value and the second data acquisition function to obtain the first physical parameter specified status code, generates a first function signal for causing the third variable physical parameter to be in the first physical parameter specified state based on the obtained first physical parameter specified status code, and transmits the first function signal to the second physical parameter application unit. The second physical parameter application unit responds to the first function signal to make the third variable physical parameter be in the state specified by the first physical parameter; The measurement value application range code is further related to the third data acquisition function prepared for the third variable physical parameter; The third variable physical parameter is further characterized based on the state specified by the second physical parameter, wherein the state specified by the second physical parameter is represented by the state code specified by the second physical parameter and may be the same as or different from the state specified by the first physical parameter. Under the condition that the processing unit determines the measurement value application range code, the processing unit performs a third data acquisition operation based on the determined measurement value application range code and the third data acquisition function to obtain the second physical parameter specified status code, generates a second functional signal for causing the third variable physical parameter to be in the second physical parameter specified state based on the obtained second physical parameter specified status code, and transmits the second functional signal to the second physical parameter application unit; and The second physical parameter application unit responds to the second function signal to put the third variable physical parameter into the state specified by the second physical parameter.

15. A method for controlling a first variable physical parameter, wherein the first variable physical parameter of a physical parameter application unit is characterized based on a target state and a reference state and related to a second variable physical parameter, the physical parameter application unit being one of a relay, a control switch, and a motor, the first variable physical parameter being a variable frequency, the reference state being different from the target state, the second variable physical parameter being characterized based on a physical parameter application range represented by a measured value application range and a physical parameter reference range represented by a measured value reference range, wherein the physical parameter reference range and the measured value reference range are respectively different from the physical parameter application range and the measured value application range, the method comprising the following steps: A processing unit coupled to the physical parameter application unit is provided; Receive a reference signal, wherein the reference signal transmits the application range limit value of the application range of the measured value; The application range limit value is determined by using the processing unit in response to the reference signal; Sensing the second variable physical parameter to generate a sensing signal; The measured value is obtained based on the sensing signal by using the processing unit; By using the processing unit, a first check operation is performed to check the second mathematical relationship KK6F between the measured value and the application range limit value, based on the first mathematical relationship KK6F1 between the measured value and the determined application range limit value. By using the processing unit, a logical decision is made on whether the second variable physical parameter is currently within the application range of the physical parameter based on the first check operation; If the logical decision is affirmative, the processing unit is used to determine a measurement value application range code representing the application range of the measurement value. By using the processing unit, a target state code representing the target state is obtained by applying a range code based on the determined measurement value; By using the processing unit, a first operation signal is transmitted to the physical parameter application unit based on the obtained target status code; By using the physical parameter application unit, the first variable physical parameter is brought into the target state in response to the first operation signal; Under the condition that the logical decision is negative, a second check operation for checking the mathematical relationship KK6G between the measured value and the reference range of the measured value is performed by using the processing unit; Under the condition that the physical parameter reference range in which the second variable physical parameter is currently located is determined by the processing unit based on the second inspection operation, the processing unit is used to determine a measurement value reference range code representing the measurement value reference range; By using the processing unit, a reference state code representing the reference state is obtained based on the determined measurement value reference range code; The processing unit transmits a second operation signal to the physical parameter application unit based on the obtained reference status code. as well as By using the physical parameter application unit, the first variable physical parameter is brought into the reference state in response to the second operation signal.

16. A functional device for controlling a first variable physical parameter, wherein the first variable physical parameter of a first physical parameter application unit is characterized based on a target state and a reference state, the first physical parameter application unit is an electrical load unit, the first variable physical parameter is one of a variable optical parameter, a variable temperature, and a variable volume, and the reference state is different from the target state, the functional device comprising: A sensing unit is configured to sense a second variable physical parameter to generate a sensing signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range and a physical parameter reference range represented by a measured value reference range, and the physical parameter reference range and the measured value reference range are different from the physical parameter application range and the measured value application range, respectively. A receiving unit is configured to receive a reference signal, wherein the reference signal transmits a measurement reference value related to the second variable physical parameter; as well as A processing unit, coupled to the first physical parameter application unit, the sensing unit, and the receiving unit, changes the second variable physical parameter based on the transmitted measurement reference value, wherein: After the second variable physical parameter is changed based on the input measurement reference value, the processing unit obtains the measurement value based on the sensing signal, performs a first check operation to check the mathematical relationship KK2F between the measurement value and the range of application of the measurement value, and makes a logical decision on whether the second variable physical parameter is currently within the range of application of the physical parameter based on the first check operation. Under the condition that the logical decision is affirmative, the processing unit determines a measurement value application range code representing the application range of the measurement value, obtains a target status code representing the target state based on the determined measurement value application range code, and transmits a first operation signal to the first physical parameter application unit based on the obtained target status code. The first physical parameter application unit responds to the first operation signal to bring the first variable physical parameter to the target state; If the logical decision is negative, the processing unit performs a second check operation to check the mathematical relationship KK2G between the measured value and the reference range of the measured value; Under the condition that the processing unit determines the current physical parameter reference range of the second variable physical parameter based on the second check operation, the processing unit determines a measurement value reference range code representing the measurement value reference range, obtains a reference status code representing the reference state based on the determined measurement value reference range code, and transmits a second operation signal to the first physical parameter application unit based on the obtained reference status code; and The first physical parameter application unit responds to the second operation signal to bring the first variable physical parameter into the reference state.

17. The functional device according to claim 16, wherein: The second variable physical parameter is further characterized based on a specific physical parameter range, which includes the specific physical parameter represented by the measured reference value; The receiving unit receives the reference signal from an external device; The functional device further includes a physical parameter forming area, a first physical parameter application unit coupled to the processing unit, a second physical parameter application unit coupled to the processing unit, and a trigger application unit coupled to the processing unit. The processing unit is configured to control the first variable physical parameter of the first physical parameter application unit and the third variable physical parameter of the second physical parameter application unit, wherein the first variable physical parameter, the second variable physical parameter and the third variable physical parameter related to the reference signal are respectively formed at different spatial locations; The specific range of physical parameters is the initial range of physical parameters; The processing unit generates a control signal based on the obtained measurement reference value to cause the second variable physical parameter to change from the specific physical parameter range; The sensing unit responds to the control signal by causing the second variable physical parameter to be within the specific physical parameter range by forming the second variable physical parameter in the physical parameter forming region; Under the condition that a trigger event occurs after receiving the reference signal, the processing unit responds to the trigger event to obtain the measurement value based on the sensing signal, wherein the trigger event is related to the trigger application unit; The measured value application range code is related to the first data acquisition function prepared for the first variable physical parameter; The processing unit performs a first data acquisition operation based on the determined measurement value application range code and the first data acquisition function to obtain the target status code, generates a first operation signal based on the obtained target status code to cause the first variable physical parameter to be in the target state, and transmits the first operation signal to the first physical parameter application unit. The measurement reference value is related to a second data acquisition function prepared for the third variable physical parameter; The third variable physical parameter is characterized based on the physical parameter specified state, wherein the physical parameter specified state is represented by the physical parameter specified state code; Under the condition that the processing unit obtains the transmitted measurement reference value, the processing unit performs a second data acquisition operation based on the obtained measurement reference value and the second data acquisition function to obtain the physical parameter specified status code, generates a function signal for causing the third variable physical parameter to be in the physical parameter specified state based on the obtained physical parameter specified status code, and transmits the function signal to the second physical parameter application unit; and The second physical parameter application unit responds to the function signal to put the third variable physical parameter into the state specified by the physical parameter.

18. A method for controlling a first variable physical parameter, wherein the first variable physical parameter of a physical parameter application unit is characterized based on a target state and a reference state and related to a second variable physical parameter, the physical parameter application unit being one of a relay, a control switch, and a motor, the first variable physical parameter being a variable frequency, and the reference state being different from the target state, the method comprising the following steps: A processing unit coupled to the physical parameter application unit is provided; The second variable physical parameter is sensed to generate a sensing signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range and a physical parameter reference range represented by a measured value reference range, and the physical parameter reference range and the measured value reference range are different from the physical parameter application range and the measured value application range, respectively. Receive a reference signal, wherein the reference signal transmits a measurement reference value related to the second variable physical parameter; The second variable physical parameter is changed by using the processing unit based on the transmitted measurement reference value; After the second variable physical parameter is changed based on the delivered measurement reference value, the measurement value is obtained based on the sensing signal by using the processing unit; By using the processing unit, a first check operation is performed to check the mathematical relationship KK2F between the measured value and the range of application of the measured value; By using the processing unit, a logical decision is made on whether the second variable physical parameter is currently within the application range of the physical parameter based on the first check operation; If the logical decision is affirmative, the processing unit is used to determine a measurement value application range code representing the application range of the measurement value. By using the processing unit, a target state code representing the target state is obtained by applying a range code based on the determined measurement value; By using the processing unit, a first operation signal is transmitted to the physical parameter application unit based on the obtained target status code; By using the physical parameter application unit, the first variable physical parameter is brought to the target state in response to the first operation signal; Under the condition that the logical decision is negative, a second check operation for checking the mathematical relationship KK2G between the measured value and the reference range of the measured value is performed by using the processing unit; Under the condition that the physical parameter reference range in which the second variable physical parameter is currently located is determined by the processing unit based on the second inspection operation, the processing unit is used to determine a measurement value reference range code representing the measurement value reference range; By using the processing unit, a reference state code representing the reference state is obtained based on the determined measurement value reference range code; The processing unit transmits a second operation signal to the physical parameter application unit based on the obtained reference status code. as well as By using the physical parameter application unit, the first variable physical parameter is brought into the reference state in response to the second operation signal.

19. A functional device for controlling a first variable physical parameter, wherein the first variable physical parameter of a first physical parameter application unit is characterized based on a target state and a reference state, the first physical parameter application unit is an electrical load unit, the first variable physical parameter is one of a variable optical parameter, a variable temperature, and a variable volume, and the reference state is different from the target state, the functional device comprising: A sensing unit is configured to sense a second variable physical parameter to generate a sensing signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range and a physical parameter reference range represented by a measured value reference range, and the physical parameter reference range and the measured value reference range are different from the physical parameter application range and the measured value application range, respectively. as well as A processing unit, comprising a plurality of input ports having a first specific port, coupled to the first physical parameter application unit and the sensing unit, is configured to perform a first trigger signal reception detection on the plurality of input ports, and, under the condition that the processing unit determines, based on the first trigger signal reception detection, the first specific port receiving the first trigger signal, responds to the first trigger signal to determine a first application range limit value for the application range of the measured value, obtains a measured value based on the sensing signal, performs a first check operation for checking a second mathematical relationship KK6F between the measured value and the determined first application range limit value based on a first mathematical relationship KK6F1 between the measured value and the determined first application range limit value, and makes a logical decision on whether the second variable physical parameter is currently within the application range of the physical parameter based on the first check operation, wherein: Under the condition that the logical decision is affirmative, the processing unit determines a measurement value application range code representing the application range of the measurement value, obtains a target status code representing the target state based on the determined measurement value application range code, and causes a first operation signal to be transmitted to the first physical parameter application unit based on the obtained target status code. The first physical parameter application unit responds to the first operation signal to cause the first variable physical parameter to be in the target state; If the logical decision is negative, the processing unit performs a second check operation to check the mathematical relationship KK6G between the measured value and the reference range of the measured value; Under the condition that the processing unit determines, based on the second inspection operation, the current physical parameter reference range of the second variable physical parameter, the processing unit determines a measurement value reference range code representing the measurement value reference range, obtains a reference status code representing the reference state based on the determined measurement value reference range code, and causes a second operation signal to be transmitted to the first physical parameter application unit based on the obtained reference status code; and The first physical parameter application unit responds to the second operation signal to cause the first variable physical parameter to be in the reference state.

20. The functional device according to claim 19, wherein: The first specific port is related to the range of application of the measurement value and is identified by a first specific port identifier; The application range of the measured value has a first application range limit value and a second application range limit value relative to the first application range limit value; The functional device further includes a physical parameter forming area, a first triggering medium coupled to the first specific port, a first physical parameter application unit coupled to the processing unit, a second physical parameter application unit coupled to the processing unit, and a triggering application unit coupled to the processing unit. The physical parameter forming region has the second variable physical parameter; The processing unit is configured to control the first variable physical parameter of the first physical parameter application unit and the third variable physical parameter of the second physical parameter application unit, wherein the first variable physical parameter, the second variable physical parameter and the third variable physical parameter related to the first specific port are respectively formed in different spatial locations; The range of application of the measured values ​​is equal to a portion of the rated range of measured values; The first triggering medium is configured to cause the first triggering signal to occur; The processing unit responds to the first trigger signal to obtain the first specific port identifier, and performs a first scientific calculation related to the obtained first specific port identifier and the rated measurement range to determine the first application range limit value; The plurality of input ports include a second specific port, wherein the second specific port is related to the range of application of the measurement value, is identified by a second specific port identifier, and is the same as or different from the first specific port; After the processing unit performs the first trigger signal reception detection, the processing unit performs a second trigger signal reception detection on the plurality of input ports, and responds to the second trigger signal to obtain the second specific port identifier if the processing unit determines the second specific port receiving the second trigger signal based on the second trigger signal reception detection, and performs a second scientific calculation related to the obtained second specific port identifier and the nominal measurement value range to determine the second application range limit value, wherein the second scientific calculation is different from the first scientific calculation; The functional device includes a second trigger medium coupled to the second specific port, wherein the second trigger medium is configured to cause the second trigger signal to occur; Under the condition that a trigger event occurs after receiving the second trigger signal, the processing unit responds to the trigger event to obtain the measurement value based on the sensing signal, wherein the trigger event is related to the trigger application unit; The measured value application range code is related to the first data acquisition function prepared for the first variable physical parameter; The processing unit performs a first data acquisition operation based on the determined measurement value application range code and the first data acquisition function to obtain the target status code, generates a first operation signal based on the obtained target status code to cause the first variable physical parameter to be in the target state, and transmits the first operation signal to the first physical parameter application unit. The processing unit further performs the first inspection operation based on the third mathematical relationship KK6F2 between the measured value and the determined second application range limit value; The first application scope limit value is related to the second data acquisition function prepared for the third variable physical parameter; The third variable physical parameter is characterized based on the state specified by the first physical parameter, wherein the state specified by the first physical parameter is represented by the state code specified by the first physical parameter. Under the condition that the processing unit determines the first application range limit value, the processing unit performs a second data acquisition operation based on the determined first application range limit value and the second data acquisition function to obtain the first physical parameter specified status code, generates a first function signal for causing the third variable physical parameter to be in the first physical parameter specified state based on the obtained first physical parameter specified status code, and transmits the first function signal to the second physical parameter application unit. The second physical parameter application unit responds to the first function signal to make the third variable physical parameter be in the state specified by the first physical parameter; The measurement value application range code is further related to the third data acquisition function prepared for the third variable physical parameter; The third variable physical parameter is further characterized based on the state specified by the second physical parameter, wherein the state specified by the second physical parameter is represented by the state code specified by the second physical parameter and may be the same as or different from the state specified by the first physical parameter. Under the condition that the processing unit determines the measurement value application range code, the processing unit performs a third data acquisition operation based on the determined measurement value application range code and the third data acquisition function to obtain the second physical parameter specified status code, generates a second functional signal for causing the third variable physical parameter to be in the second physical parameter specified state based on the obtained second physical parameter specified status code, and transmits the second functional signal to the second physical parameter application unit; and The second physical parameter application unit responds to the second function signal to put the third variable physical parameter into the state specified by the second physical parameter.

21. A method for controlling a first variable physical parameter, wherein the first variable physical parameter of a physical parameter application unit is characterized based on a target state and a reference state and related to a second variable physical parameter, the physical parameter application unit being one of a relay, a control switch, and a motor, the first variable physical parameter being a variable frequency, the reference state being different from the target state, the second variable physical parameter being characterized based on a physical parameter application range represented by a measured value application range and a physical parameter reference range represented by a measured value reference range, wherein the physical parameter reference range and the measured value reference range are respectively different from the physical parameter application range and the measured value application range, the method comprising the following steps: A processing unit coupled to the physical parameter application unit is provided, wherein the processing unit includes multiple input ports having specific ports; By using the processing unit, trigger signal reception detection is performed on the plurality of input ports; Under the condition that the specific port receiving the trigger signal is determined by the processing unit based on the trigger signal reception detection, the application range limit value of the application range of the measurement value is determined by using the processing unit to respond to the trigger signal; Sensing the second variable physical parameter to generate a sensing signal; The measured value is obtained based on the sensing signal by using the processing unit; By using the processing unit, a first check operation is performed to check the second mathematical relationship KK6F between the measured value and the application range limit value, based on the first mathematical relationship KK6F1 between the measured value and the determined application range limit value. By using the processing unit, a logical decision is made on whether the second variable physical parameter is currently within the application range of the physical parameter based on the first check operation; If the logical decision is affirmative, the processing unit is used to determine a measurement value application range code representing the application range of the measurement value. By using the processing unit, a target state code representing the target state is obtained by applying a range code based on the determined measurement value; By using the processing unit, a first operation signal is transmitted to the physical parameter application unit based on the obtained target status code; By using the physical parameter application unit, the first variable physical parameter is brought into the target state in response to the first operation signal; Under the condition that the logical decision is negative, a second check operation for checking the mathematical relationship KK6G between the measured value and the reference range of the measured value is performed by using the processing unit; Under the condition that the physical parameter reference range in which the second variable physical parameter is currently located is determined by the processing unit based on the second inspection operation, the processing unit is used to determine a measurement value reference range code representing the measurement value reference range; By using the processing unit, a reference state code representing the reference state is obtained based on the determined measurement value reference range code; The processing unit transmits a second operation signal to the physical parameter application unit based on the obtained reference status code. as well as By using the physical parameter application unit, the first variable physical parameter is brought into the reference state in response to the second operation signal.

22. A functional device for controlling a first variable physical parameter, wherein the first variable physical parameter of a first physical parameter application unit is characterized based on a target state and a reference state, the first physical parameter application unit is an electrical load unit, the first variable physical parameter is one of a variable optical parameter, a variable temperature, and a variable volume, and the reference state is different from the target state, the functional device comprising: A sensing unit is configured to sense a second variable physical parameter to generate a sensing signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range and a physical parameter reference range represented by a measured value reference range, and the physical parameter reference range and the measured value reference range are different from the physical parameter application range and the measured value application range, respectively. as well as A processing unit, coupled to the first physical parameter application unit and the sensing unit, includes a plurality of input ports having specific ports, is configured to perform trigger signal reception detection on the plurality of input ports, and, upon the processing unit determining, based on the trigger signal reception detection, to receive the specific port receiving the trigger signal, respond to the trigger signal to change the second variable physical parameter, wherein: After the second variable physical parameter is changed in response to the trigger signal, the processing unit obtains a measurement value based on the sensing signal, performs a first check operation to check the mathematical relationship KK2F between the measurement value and the range of application of the measurement value, and makes a logical decision on whether the second variable physical parameter is currently within the range of application of the physical parameter based on the first check operation. Under the condition that the logical decision is affirmative, the processing unit determines a measurement value application range code representing the application range of the measurement value, obtains a target status code representing the target state based on the determined measurement value application range code, and transmits a first operation signal to the first physical parameter application unit based on the obtained target status code. The first physical parameter application unit responds to the first operation signal to bring the first variable physical parameter to the target state; If the logical decision is negative, the processing unit performs a second check operation to check the mathematical relationship KK2G between the measured value and the reference range of the measured value; Under the condition that the processing unit determines the current physical parameter reference range of the second variable physical parameter based on the second check operation, the processing unit determines a measurement value reference range code representing the measurement value reference range, obtains a reference status code representing the reference state based on the determined measurement value reference range code, and transmits a second operation signal to the first physical parameter application unit based on the obtained reference status code; and The first physical parameter application unit responds to the second operation signal to bring the first variable physical parameter into the reference state.

23. The functional device according to claim 22, wherein: The second variable physical parameter is further characterized based on a specific physical parameter range, which includes the specific physical parameter represented by the measured reference value; The specific port is associated with a measurement reference value for the second variable physical parameter and is identified by a specific port identifier; The functional device further includes a physical parameter forming area, a triggering medium coupled to the specific port, a first physical parameter application unit coupled to the processing unit, a second physical parameter application unit coupled to the processing unit, and a triggering application unit coupled to the processing unit. The processing unit is configured to control the first variable physical parameter of the first physical parameter application unit and the third variable physical parameter of the second physical parameter application unit, wherein the first variable physical parameter, the second variable physical parameter and the third variable physical parameter related to the specific port are respectively formed in different spatial locations; The specific range of physical parameters is the initial range of physical parameters; The triggering medium is configured to cause the trigger signal to occur; The specific port identifier is related to the first data acquisition function prepared for the second variable physical parameter; The processing unit responds to the trigger signal to obtain the specific port identifier, performs a first data acquisition operation based on the obtained specific port identifier and the first data acquisition function to obtain the measurement reference value, and generates a control signal based on the obtained measurement reference value to cause the second variable physical parameter to change from the specific physical parameter range. The sensing unit responds to the control signal by causing the second variable physical parameter to be within the specific physical parameter range by forming the second variable physical parameter in the physical parameter forming region; Under the condition that a trigger event occurs after receiving the trigger signal, the processing unit responds to the trigger event to obtain the measurement value based on the sensing signal, wherein the trigger event is related to the trigger application unit; The measured value application range code is related to the second data acquisition function prepared for the first variable physical parameter; The processing unit performs a second data acquisition operation based on the determined measurement value application range code and the second data acquisition function to obtain the target status code, generates a first operation signal based on the obtained target status code to cause the first variable physical parameter to be in the target state, and transmits the first operation signal to the first physical parameter application unit. The measurement reference value is related to a third data acquisition function prepared for the third variable physical parameter; The third variable physical parameter is characterized based on the physical parameter specified state, wherein the physical parameter specified state is represented by the physical parameter specified state code; Under the condition that the processing unit obtains the measurement reference value, the processing unit performs a third data acquisition operation based on the obtained measurement reference value and the third data acquisition function to obtain the physical parameter specified status code, generates a function signal for causing the third variable physical parameter to be in the physical parameter specified state based on the obtained physical parameter specified status code, and transmits the function signal to the second physical parameter application unit; and The second physical parameter application unit responds to the function signal to put the third variable physical parameter into the state specified by the physical parameter.

24. A method for controlling a first variable physical parameter, wherein the first variable physical parameter of a physical parameter application unit is characterized based on a target state and a reference state and related to a second variable physical parameter, the physical parameter application unit being one of a relay, a control switch, and a motor, the first variable physical parameter being a variable frequency, and the reference state being different from the target state, the method comprising the following steps: A processing unit coupled to the physical parameter application unit is provided, wherein the processing unit includes multiple input ports having specific ports; The second variable physical parameter is sensed to generate a sensing signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range and a physical parameter reference range represented by a measured value reference range, and the physical parameter reference range and the measured value reference range are different from the physical parameter application range and the measured value application range, respectively. By using the processing unit, trigger signal reception detection is performed on the plurality of input ports; Under the condition that the specific port receiving the trigger signal is determined by the processing unit based on the trigger signal reception detection, the second variable physical parameter is changed by using the processing unit in response to the trigger signal; After the second variable physical parameter is changed in response to the trigger signal, a measurement value is obtained based on the sensing signal by using the processing unit; By using the processing unit, a first check operation is performed to check the mathematical relationship KK2F between the measured value and the range of application of the measured value; By using the processing unit, a logical decision is made on whether the second variable physical parameter is currently within the application range of the physical parameter based on the first check operation; If the logical decision is affirmative, the processing unit is used to determine a measurement value application range code representing the application range of the measurement value. By using the processing unit, a target state code representing the target state is obtained by applying a range code based on the determined measurement value; By using the processing unit, a first operation signal is transmitted to the physical parameter application unit based on the obtained target status code; By using the physical parameter application unit, the first variable physical parameter is brought to the target state in response to the first operation signal; Under the condition that the logical decision is negative, a second check operation for checking the mathematical relationship KK2G between the measured value and the reference range of the measured value is performed by using the processing unit; Under the condition that the physical parameter reference range in which the second variable physical parameter is currently located is determined by the processing unit based on the second inspection operation, the processing unit is used to determine a measurement value reference range code representing the measurement value reference range; By using the processing unit, a reference state code representing the reference state is obtained based on the determined measurement value reference range code; The processing unit transmits a second operation signal to the physical parameter application unit based on the obtained reference status code. as well as By using the physical parameter application unit, the first variable physical parameter is brought into the reference state in response to the second operation signal.

25. A functional device for controlling a first variable physical parameter, wherein the first variable physical parameter of a physical parameter application unit is characterized based on a target state and a reference state, the physical parameter application unit being an electrical load unit, the first variable physical parameter being one of a variable optical parameter, a variable temperature, and a variable volume, and the reference state being different from the target state, the functional device comprising: Multiple printing status indicators, including a first specific printing status indicator and a second specific printing status indicator different from the first specific printing status indicator, wherein the first specific printing status indicator is configured to present the target status, and the second specific printing status indicator is configured to present the reference status; A sensing unit is configured to sense a second variable physical parameter to generate a sensing signal, wherein the second variable physical parameter is characterized based on a physical parameter application range represented by a measured value application range and a physical parameter reference range represented by a measured value reference range, and the physical parameter reference range and the measured value reference range are different from the physical parameter application range and the measured value application range, respectively. as well as A processing unit, coupled to the physical parameter application unit, the plurality of printing status indicators, and the sensing unit, obtains a measurement value based on the sensing signal, performs a first check operation to check the mathematical relationship KK2F between the measurement value and the measurement value application range, makes a logical decision based on the first check operation as to whether the second variable physical parameter is currently within the physical parameter application range, determines a measurement value application range code representing the measurement value application range if the logical decision is affirmative, obtains a target status code representing the target state based on the determined measurement value application range code, and causes a first operation signal to be transmitted to the physical parameter application unit based on the obtained target status code, wherein: The physical parameter application unit responds to the first operation signal to cause the first variable physical parameter to be in the target state; Under the condition that the logical decision is negative, the processing unit performs a second check operation to check the mathematical relationship KK2G between the measured value and the measured value reference range. Under the condition that the processing unit determines the physical parameter reference range in which the second variable physical parameter is currently located based on the second check operation, it determines a measured value reference range code representing the measured value reference range. Based on the determined measured value reference range code, it obtains a reference status code representing the reference state, and based on the obtained reference status code, it causes a second operation signal to be transmitted to the physical parameter application unit; and The physical parameter application unit responds to the second operation signal to cause the first variable physical parameter to be in the reference state.

26. The functional device according to claim 25, wherein: The functional device includes a physical parameter forming region having the first variable physical parameter; The first specific printing status indicator has a specific color and a specific symbol, and is configured to present the target status according to at least one of the specific color and the specific symbol; The plurality of printing status indicators are configured to form a printing status indicator array, wherein the printing status indicator array is one of a linear array and a circular array; The functional device further includes the physical parameter application unit and is configured to be in one of the first structural state BN11 and the second structural state BN21. The physical parameter application unit is coupled to the processing unit and the plurality of printing status indicators, and is a light-emitting unit, wherein the light-emitting unit is a light-emitting diode; Under the condition that the functional device is configured in the first structural state BN11: The functional device further includes the peripheral area of ​​the physical parameter application unit; The physical parameter application unit is coupled to and surrounded by the peripheral region; and The plurality of printing status indicators are disposed in the peripheral area and configured to surround the physical parameter application unit; as well as Under the condition that the functional device is configured in the second structural state BN21: The physical parameter application unit includes a movable part and a monitoring part coupled to the movable part; The movable part has the first variable physical parameter; and The plurality of printing status indicators are set on the monitoring section.

27. A method for controlling a first variable physical parameter, wherein the first variable physical parameter of a physical parameter application unit is characterized based on a target state and a reference state and related to a second variable physical parameter, the physical parameter application unit being one of a relay, a control switch, and a motor, the first variable physical parameter being a variable frequency, the reference state being different from the target state, the second variable physical parameter being characterized based on a physical parameter application range represented by a measured value application range and a physical parameter reference range represented by a measured value reference range, wherein the physical parameter reference range and the measured value reference range are different from the physical parameter application range and the measured value application range, respectively, the method comprising the following steps: A plurality of printing status indicators are provided, wherein the plurality of printing status indicators include a first specific printing status indicator and a second specific printing status indicator different from the first specific printing status indicator, the first specific printing status indicator being configured to present the target status, and the second specific printing status indicator being configured to present the reference status; A processing unit is provided, wherein the processing unit is coupled to the physical parameter application unit and the plurality of printing status indicators; Sensing the second variable physical parameter to generate a sensing signal; The measured value is obtained based on the sensing signal by using the processing unit; By using the processing unit, a first check operation is performed to check the mathematical relationship KK2F between the measured value and the range of application of the measured value; By using the processing unit, a logical decision is made on whether the second variable physical parameter is currently within the application range of the physical parameter based on the first check operation; If the logical decision is affirmative, the processing unit is used to determine a measurement value application range code representing the application range of the measurement value. By using the processing unit, a target state code representing the target state is obtained by applying a range code based on the determined measurement value; By using the processing unit, a first operation signal is transmitted to the physical parameter application unit based on the obtained target status code; By using the physical parameter application unit, the first variable physical parameter is brought to the target state in response to the first operation signal; Under the condition that the logical decision is negative, a second check operation for checking the mathematical relationship KK2G between the measured value and the reference range of the measured value is performed by using the processing unit; Under the condition that the physical parameter reference range in which the second variable physical parameter is currently located is determined by the processing unit based on the second inspection operation, the processing unit is used to determine a measurement value reference range code representing the measurement value reference range; By using the processing unit, a reference state code representing the reference state is obtained based on the determined measurement value reference range code; The processing unit transmits a second operation signal to the physical parameter application unit based on the obtained reference status code. as well as By using the physical parameter application unit, the first variable physical parameter is brought into the reference state in response to the second operation signal.

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