Adjusting method and device for intelligent system

Abstract

The invention relates to the field of intelligent systems, and provides an adjusting method and device of an intelligent system, and the method comprises the steps: obtaining a position signal of a target object; based on the position signal, controlling target controllers within a set distance or number around the target object to work; and acquiring a real-time operation value of the target controller, and when the real-time operation value is inconsistent with a preset standard operation value, adjusting the real-time operation value of the target controller to keep consistent with the standard operation value. The intelligent system adjusting method and the intelligent system are used for overcoming the defect that the intelligent degree of an intelligent system in the related technology is not enough, intelligent adjustment of the intelligent system can be achieved, and full-automatic light following and constant illumination adjustment of the intelligent system are achieved.

Description

Technical Field

[0001] This invention relates to the field of intelligent system technology, and in particular to an adjustment method and device for an intelligent system. Background Technology

[0002] Intelligent systems are a crucial component of modern society, and today's intelligent systems are progressing towards full intelligence.

[0003] However, at present, the intelligence level of intelligent systems in related technologies is still insufficient and cannot meet the needs of users. Summary of the Invention

[0004] This invention provides a method and apparatus for adjusting an intelligent system, which addresses the shortcomings of insufficient intelligence in related technologies. The method for adjusting an intelligent system provided in this application can achieve intelligent adjustment of the intelligent system, enabling the intelligent system to achieve fully automatic adjustment and control.

[0005] This invention provides a method for regulating an intelligent system, comprising: Acquire the position signal of the target object; Based on the position signal, the target controller within a set distance or number of surrounding objects is controlled to operate. The real-time operating value of the target controller is obtained. When the real-time operating value is inconsistent with the preset standard operating value, the real-time operating value of the target controller is adjusted to keep it consistent with the standard operating value.

[0006] According to the adjustment method of the intelligent system provided by the present invention, the intelligent system includes: Several device terminals, each device terminal including several detection devices and several target controllers corresponding one-to-one with the detection devices; The detection device is used to acquire the position signal of the target object; When the target object does not exist, the signal state of the detection device is set to 0, the corresponding target device does not generate a trigger signal, and the target controller corresponding to the target detection device operates according to the static value; The method of controlling the target controller within a set distance or number of targets around the target object based on the position signal includes: When the target object is present, the signal state of the detection device is set to 1, and the corresponding target device generates a trigger signal. Under the trigger signal, the target controller corresponding to the target detection device, and the target controllers within a set distance or a set number of surrounding objects corresponding to the target controller are adjusted from static values ​​to following values.

[0007] According to the adjustment method of the intelligent system provided by the present invention, under the triggering of the triggering signal, the target controller corresponding to the target detection device and the target controller within a set distance or a set number of surrounding targets corresponding to the target controller are adjusted from static values ​​to following values, and then the method further includes: After the location signal of the target object is no longer received, the signal status of the target detection device is set to 0; After the signal status of the target detection device is set to 0, the target controller and the target controllers within a set distance or number of surrounding targets are controlled to maintain the following value operation for a set period of time.

[0008] After the set duration ends, the target controller and the target controllers within the set distance or number of surrounding areas are adjusted from the following value to the static value.

[0009] According to the adjustment method of the intelligent system provided by the present invention, the intelligent system includes: The system comprises a user terminal, a cloud platform, and several device terminals, including a communication module, a conversion module, a calculation module, a judgment module, a processing module, an instruction module, an alarm module block, and an execution model. It also includes several detection devices and several target controllers that correspond one-to-one with each of the detection devices, which are used to acquire the position signals of the target objects. The plurality of device terminals are numbered in the order of first device terminal, second device terminal, third device terminal, ... The plurality of detection devices at the plurality of device ends are numbered in the order of first detection device, second detection device, third detection device, ... The target controllers of the plurality of device terminals are numbered in the order of first controller, second controller, third controller, ... On the user side, the parameters M, N, E, E0, and T are set. M is the number of target controllers calculated from the trigger target controller in the direction of smaller numbers, N is the number of target controllers calculated from the trigger target controller in the direction of larger numbers, E is the follow value, E0 is the static value, and T is the set duration. The method of controlling the target controller within a set distance or number of targets around the target object based on the position signal includes: When the target object does not exist, the signal state of the detection device is set to 0, the corresponding target device does not generate a trigger signal, and the target controller corresponding to the detection device operates according to the static value; When the detection device detects the presence of the target object, it sets the signal state of the detection device to 1, and the target device corresponding to the detection device generates a trigger signal. Upon triggering by the trigger signal, the target controller corresponding to the detection device is triggered; When triggered by the trigger signal, the target controller and the M+N surrounding target controllers are triggered, and the 1+M+N target controllers are adjusted from the static value E0 to the following value E to operate. After the detection device signal ends in state 1, the 1+M+N target controllers that were triggered continue to run for a delay T according to the following value E, and then the 1+M+N target controllers that were triggered are adjusted from the following value E to the static value E0. When the system samples again, it continues to operate according to the above logic.

[0010] According to the adjustment method of the intelligent system provided by the present invention, the step of acquiring the real-time operating value of the target controller around the target object, and adjusting the real-time operating value of the target controller to maintain consistency with the standard operating value when the real-time operating value is inconsistent with the preset standard operating value, includes: The real-time operating values ​​of the monitored points are obtained through detection devices; When the real-time operating value is inconsistent with the standard operating value, an adjustment signal is sent to the target controller of the monitored point; When triggered by the adjustment signal, the output operating value of the target controller is adjusted to maintain consistency with the standard operating value.

[0011] According to the adjustment method of the intelligent system provided by the present invention, the step of issuing an adjustment signal to the target controller of the monitored point when the real-time operating value is inconsistent with the standard operating value includes: The standard operating value is compared with the real-time operating value to obtain a comparison value; Based on the comparison values, a feedback value is determined; Based on the feedback value, an adjustment signal is sent to the target controller of the monitored point to maintain consistency with the standard operating value.

[0012] According to the adjustment method of the intelligent system provided by the present invention, the intelligent system includes: The system comprises a user terminal, a cloud platform, and several device terminals, including a communication module, a conversion module, a calculation module, a judgment module, a processing module, an instruction module, an alarm module block, and an execution model. It also includes several detection devices and several target controllers that correspond one-to-one with each of them. The user terminal presets the standard operating value G0, the operating threshold G1, and the sampling time Δt. The real-time operating value Gt of the monitored point is obtained using the detection device. The preset standard operating value G0 is compared with the real-time operating value Gt to obtain the comparison value ΔG, where ΔG = G0 - Gt; When the comparison value -△G is greater than or equal to the running threshold G1, the real-time running value Gt is displayed on the user terminal, and the execution instruction value U+△U is output, where U is the execution instruction value corresponding to the real-time running value Gt, and △U is the execution instruction value corresponding to the comparison value △G. The execution instruction value U+△U adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller, Gt+ΔG; Make the output running value Gt+△G consistent with the standard running value G0, where Gt+△G=Gt+G0-Gt=G0; When the comparison value -△G is less than or equal to the operating threshold G1, no alarm is triggered and no execution command value U+△U is output. When the system samples again after a sampling time of Δt, the system continues to operate according to the above logic; When the absolute value of the comparison value △G, |△G|, is greater than or equal to the running threshold G1, the real-time running value Gt is displayed on the user terminal, and the execution instruction value U+△U is output, where U is the execution instruction value corresponding to the real-time running value Gt, and △U is the execution instruction value corresponding to the comparison value △G. The execution instruction value U+△U adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller, Gt+ΔG; Make the output running value Gt+△G consistent with the standard running value G0, where Gt+△G=Gt+G0-Gt=G0; When the absolute value of the comparison value △G, |△G|, is less than or equal to the operating threshold G1, no alarm is triggered and no execution command value U+△U is output. When the system samples again after a sampling time of Δt, the system continues to operate according to the above logic; When the comparison value △G is greater than or equal to the running threshold G1, the real-time running value Gt is displayed on the user terminal, and the execution instruction value U+△U is output, where U is the execution instruction value corresponding to the real-time running value Gt, and △U is the execution instruction value corresponding to the comparison value △G. The execution instruction value U+△U adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller, Gt+ΔG; Make the output running value Gt+△G consistent with the standard running value G0, where Gt+△G=Gt+G0-Gt=G0; When the comparison value △G is less than or equal to the operating threshold G1, no alarm is triggered and no execution command value U+△U is output. When the system samples again after a sampling time of Δt, the system continues to operate according to the above logic.

[0013] The adjustment method for an intelligent system provided by the present invention further includes: Place the detection device at the monitoring point, obtain the output V of the conversion module, then place the standard instrument at the same monitoring point, read the operating value G of the standard instrument, calculate the detection device coefficient K of the detection device, where K=V / G, and complete the calibration of the detection device coefficient K of the detection device. The detection device coefficient K is preset on the user end.

[0014] The adjustment method for an intelligent system provided by the present invention includes: The user terminal presets the standard operating value G0, the operating threshold G1, the sampling time Δt, and the detection device coefficient K. The real-time operating value Gt of the monitored point is obtained using the detection device. The real-time operating value Gt is converted into Vt by the conversion module, where Vt=K Gt; The standard operating value G0 is output as V0 by the arithmetic module, where V0 = K G0; The operating threshold G1 is output as V1 by the calculation module, where V1=K G1; The V0 is compared with the Vt to obtain the comparison value ΔV, where ΔV = V0 - Vt; When the comparison value -△V is greater than or equal to the running threshold V1, the real-time running value Gt is displayed on the user terminal, and the execution instruction value U+△U is output, where U is the execution instruction value corresponding to Vt, and △U is the execution instruction value corresponding to the comparison value △V. The execution instruction value U+△U adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller, Gt+△G, where U is the execution instruction value corresponding to the real-time operating value Gt, and △U is the execution instruction value corresponding to the comparison value △G. Make the output running value Gt+△G consistent with the standard running value G0, where Gt+△G=Gt+G0-Gt=G0; When the comparison value -△V is less than or equal to the running threshold V1, the execution instruction value U+△U is not output; When the system samples again after a sampling time of Δt, the system continues to operate according to the above logic; When the absolute value of the comparison value △V, |△V|, is greater than or equal to the running threshold V1, the real-time running value Gt is displayed on the user terminal, and the execution instruction value U+△U is output, where U is the execution instruction value corresponding to Vt, and △U is the execution instruction value corresponding to the comparison value △V. The execution instruction value U+△U adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller, Gt+△G, where U is the execution instruction value corresponding to the real-time operating value Gt, and △U is the execution instruction value corresponding to the comparison value △G. Make the output running value Gt+△G consistent with the standard running value G0, where Gt+△G=Gt+G0-Gt=G0; When the absolute value of the comparison value △V, |△V|, is less than or equal to the running threshold V1, the execution instruction value U+△U is not output. When the system samples again after a sampling time of Δt, the system continues to operate according to the above logic; When the comparison value △V is greater than or equal to the running threshold V1, the real-time running value Gt is displayed on the user terminal, and the execution instruction value U+△U is output, where U is the execution instruction value corresponding to Vt, and △U is the execution instruction value corresponding to the comparison value △V. The execution instruction value U+△U adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller, Gt+△G, where U is the execution instruction value corresponding to the real-time operating value Gt, and △U is the execution instruction value corresponding to the comparison value △G. Make the output running value Gt+△G consistent with the standard running value G0, where Gt+△G=Gt+G0-Gt=G0; When the comparison value △V is less than or equal to the running threshold V1, the execution instruction value U+△U is not output; When the system samples again after a sampling time of Δt, the system continues to operate according to the above logic.

[0015] The present invention also provides an electronic device, including a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor executes the program to implement the adjustment method of any of the intelligent systems described above.

[0016] The present invention also provides a non-transitory computer-readable storage medium having a computer program stored thereon, which, when executed by a processor, implements the adjustment method of any of the intelligent systems described above.

[0017] The present invention also provides a computer program product, including a computer program that, when executed by a processor, implements the adjustment method of any of the intelligent systems described above.

[0018] The intelligent system adjustment method provided in this application can realize intelligent adjustment of the intelligent system, enabling the intelligent system to achieve fully automatic light following and constant illuminance adjustment. Attached Figure Description

[0019] To more clearly illustrate the technical solutions in this invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are some embodiments of this invention. For those skilled in the art, other drawings can be obtained from these drawings without creative effort.

[0020] Figure 1 This is a flowchart illustrating the adjustment method of the intelligent system provided in an embodiment of the present invention; Figure 2 This is a schematic diagram of the structure of the intelligent system provided in an embodiment of the present invention; Figure 3 This is a schematic diagram of the lighting adjustment method of the intelligent system provided in an embodiment of the present invention; Figure 4 This is a schematic diagram of the physical structure of the electronic device provided in an embodiment of the present invention. Detailed Implementation

[0021] To make the objectives, technical solutions, and advantages of this invention clearer, the technical solutions of this invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of this invention. All other embodiments obtained by those skilled in the art based on the embodiments of this invention without creative effort are within the scope of protection of this invention.

[0022] Figure 1 This is a flowchart illustrating the adjustment method of the intelligent system provided in this embodiment of the invention.

[0023] This invention provides a method for regulating an intelligent system, which can have two execution logics at the start of execution, such as... Figure 1 As shown, the left side represents the first type of execution logic, which includes: Acquire the position signal of the target object; Based on the position signal, the target controller within a set distance or number of surrounding objects is controlled to operate. Figure 1 The right side represents the second type of execution logic, including: The real-time operating value of the target controller is obtained. When the real-time operating value is inconsistent with the preset standard operating value, the real-time operating value of the target controller is adjusted to keep it consistent with the standard operating value.

[0024] In practical applications, the intelligent system corresponding to the adjustment method of the intelligent system described in the above embodiments includes: Several device terminals, each device terminal including several detection devices and several target controllers corresponding one-to-one with the detection devices; The detection device is used to acquire the position signal of the target object; When the target object does not exist, the signal state of the detection device is set to 0, the corresponding target device does not generate a trigger signal, and the target controller corresponding to the detection device operates according to the static value; The method of controlling the target controller within a set distance or number of targets around the target object based on the position signal includes: When the target object is present, the signal state of the detection device is set to 1, and the corresponding target device generates a trigger signal. Under the trigger signal, the target controller corresponding to the detection device, and the target controllers within a set distance or a set number of surrounding objects corresponding to the target controller are adjusted from static values ​​to following values.

[0025] Upon triggering by the trigger signal, the target controller corresponding to the target detection device, and the target controllers within a set distance or a set number of surrounding targets corresponding to the target controller, are adjusted from static values ​​to following values, and then the process further includes: After the location signal of the target object is no longer received, the signal status of the detection device is set to 0; After the signal status of the detection device is set to 0, the target controller and the target controllers within a set distance or number of surrounding targets are controlled to maintain the following value operation for a set period of time.

[0026] After the set duration ends, the target controller and the target controllers within a set distance or number of surrounding targets are adjusted from the following value to the static value.

[0027] In practical applications, the step of acquiring the real-time operating value of the target controller and adjusting the real-time operating value of the target controller to maintain consistency with the standard operating value when the real-time operating value is inconsistent with the preset standard operating value includes: The real-time operating values ​​of the monitored points are obtained through detection devices; When the real-time operating value is inconsistent with the standard operating value, an adjustment signal is sent to the target controller of the monitored point; When triggered by the adjustment signal, the output operating value of the target controller is adjusted to maintain consistency with the standard operating value.

[0028] In practical applications, when the real-time operating value differs from the standard operating value, issuing an adjustment signal to the target controller of the monitored point includes: The standard operating value is compared with the real-time operating value to obtain a comparison value; Based on the comparison values, a feedback value is determined; Based on the feedback value, an adjustment signal is sent to the target controller of the monitored point to maintain consistency with the standard operating value.

[0029] Figure 2 This is a schematic diagram of the structure of the intelligent system provided in an embodiment of the present invention.

[0030] like Figure 2 As shown, in practical applications, the intelligent system includes: The system comprises a user terminal 201, a cloud platform 202, and several device terminals 203. The several device terminals include a communication module, a conversion module, a calculation module, a judgment module, a processing module, an instruction module, an alarm module block, and an execution model. Each of the several device terminals 203 also includes several detection devices S and several target controllers P that correspond to each of them. For example, device 2031 includes detection device S11 and corresponding target controller P11, detection device S12 and corresponding target controller P12, detection device S13 and corresponding target controller P13, ...; The device 2032 includes a detection device S21 and a corresponding target controller P21, a detection device S22 and a corresponding target controller P22, a detection device S23 and a corresponding target controller P23, ...; The equipment end 2033 includes a detection device S31 and a corresponding target controller P31, a detection device S32 and a corresponding target controller P32, a detection device S33 and a corresponding target controller P33, ...; ......; The detection device S is used to acquire the position signal of the target object; The plurality of device terminals are numbered in the order of first device terminal, second device terminal, third device terminal, ... The plurality of detection devices at the plurality of device ends are numbered in the order of first detection device, second detection device, third detection device, ... The target controllers of the plurality of device terminals are numbered in the order of first controller, second controller, third controller, ... On the user side, the parameters M, N, E, E0, and T are set. M is the number of target controllers calculated from the trigger target controller in the direction of smaller numbers, N is the number of target controllers calculated from the trigger target controller in the direction of larger numbers, E is the follow value, E0 is the static value, and T is the set duration. The detection device has two signal states: 0 and 1. 0 indicates that no object is detected, and 1 indicates that an object is detected.

[0031] The method of controlling the target controller within a set distance or number of targets around the target object based on the position signal includes: When the target object does not exist, the signal state of the detection device is set to 0, the corresponding target device does not generate a trigger signal, and the target controller corresponding to the detection device operates according to the static value E0; When the detection device detects the presence of the target object, it sets the signal state of the detection device to 1, and generates a trigger signal from the target device corresponding to the detection device. Except for the target controller that receives the execution command, the target controller corresponding to the detection device whose other signals are in the 0 state runs according to the static value E. Upon triggering by the trigger signal, the target controller corresponding to the detection device is triggered; When triggered by the trigger signal, the target controller and the M+N surrounding target controllers are triggered, and the 1+M+N target controllers are adjusted from the static value E0 to the following value E to operate. The 1+M+N target controllers are as follows: 1 is the target controller corresponding to the detection device when the detection device is in the 1 signal state; M is the M target controllers counted from the trigger target controller (excluding the trigger target controller) in the direction of smaller numbers; N is the N target controllers counted from the trigger target controller (excluding the trigger target controller) in the direction of larger numbers.

[0032] After the detection device signal ends in state 1, the 1+M+N target controllers that were triggered continue to run for a delay T according to the following value E, and then the 1+M+N target controllers that were triggered are adjusted from the following value E to the static value E0. When the system samples again, it continues to operate according to the above logic.

[0033] The following is an example Figure 3A specific embodiment is provided to illustrate the intelligent system and corresponding control method provided by the solution of this application. This control method can realize light following of people or vehicles.

[0034] Intelligent systems include: The system comprises a user terminal 301, a cloud platform 302, and several device terminals 303. The several device terminals include a communication module, a conversion module, a calculation module, a judgment module, a processing module, an instruction module, an alarm module block, and an execution model. Each of the several device terminals 303 also includes several detection devices S and several target controllers P that correspond to each of them. For example, device 3031 includes detection device S11 and corresponding target controller P11, detection device S12 and corresponding target controller P12, detection device S13 and corresponding target controller P13, ...; The device 3032 includes a detection device S21 and a corresponding target controller P21, a detection device S22 and a corresponding target controller P22, a detection device S23 and a corresponding target controller P23, ...; ......; Assume the intelligent system has 15 devices, each device has 3 detection devices and 3 corresponding target controllers, and each target controller contains 9 parallel dimmable light sources, each with a power of 100W.

[0035] For example, device 3031 includes a detection device S11 and a corresponding target controller P11, wherein P11 includes light sources D111, D112, ..., D119, and power supply line U11 and control line V11 of the light sources; detection device S12 and a corresponding target controller P12, wherein P12 includes light sources D121, D122, ..., D129, and power supply line U12 and control line V12 of the light sources; detection device S13 and a corresponding target controller P13, wherein P13 includes light sources D131, D132, ..., D139, and power supply line U13 and control line V13 of the light sources; Device 3032 includes a detection device S21 and a corresponding target controller P21, wherein P21 includes light sources D211, D212, ..., D219, and power supply line U21 and control line V21 of the light sources; detection device S22 and a corresponding target controller P22, wherein P22 includes light sources D221, D222, ..., D229, and power supply line U22 and control line V22 of the light sources; detection device S23 and a corresponding target controller P23, wherein P23 includes light sources D231, D232, ..., D239, and power supply line U23 and control line V23 of the light sources; ......; Device 30315 includes a detection device S151 and a corresponding target controller P151, wherein P151 includes light sources D1511, D1512, ..., D1519, and power supply lines U151 and V151 for the light sources; detection device S152 and a corresponding target controller P152, wherein P152 includes light sources D1521, D1522, ..., D1529, and power supply lines U152 and V152 for the light sources; detection device S153 and a corresponding target controller P153, wherein P153 includes light sources D1531, D1532, ..., D1539, and power supply lines U153 and V153 for the light sources; The 15 terminal devices 303 are numbered sequentially from smallest to largest as SB1, SB2, SB3, ..., SB15; each device has 3 detection units, for a total of 15. Three detection devices will detect 15 The three detection devices are numbered sequentially from smallest to largest as S11, S12, S13, S21, S22, S23, ..., S151, S152, S153; 15 3 detection devices, one-to-one correspondence 15 Three target controllers will control 15 The three target controllers are numbered sequentially from smallest to largest as P11, P12, P13, P21, P22, P23, ..., P151, P152, P153.

[0036] The target objects are three vehicles, designated as vehicle number one, vehicle number two, and vehicle number three. These three vehicles are in the system and trigger signal 1. The vehicles can be stationary or moving.

[0037] On the user side, set the parameters M=2, N=3, E=80W, E0=10W, and T=60S.

[0038] The system's operating logic is as follows: During system sampling, assuming the three vehicles are detected by three detection devices S23, S82, and S122 (S23 → vehicle 1, S82 → vehicle 2, S122 → vehicle 3), the signal state of the three detection devices is 1. Each detection device in signal state 1 reports an execution signal to the cloud platform. The cloud platform then issues execution commands to the corresponding three devices according to the design logic. (2+1+3) target controllers, the 3 The power of each light source of the (2+1+3) target controllers operates at a follow-up value of 80W, that is: The signal state of the detection device S23, which detects the presence of vehicle number one, is set to 1. The device terminal SB1 corresponding to the detection device S23 reports an execution signal to the cloud platform. The cloud platform issues an execution command to the corresponding (2+1+3) target controllers P21, P22, P23, P31, P32, and P33 according to the design logic. Through the control lines V21, V22, V23, V31, V32, and V33 of the (2+1+3) target controllers, the power of each light source is made to operate at the following value of 80W. The detection device S82, which detects the presence of vehicle number two, is in signal state 1. The device terminal SB8 corresponding to the detection device S82 reports an execution signal to the cloud platform. The cloud platform issues an execution command to the corresponding (2+1+3) target controllers P73, P81, P82, P83, P91, and P92 according to the design logic. Through the control lines V73, V81, V82, V83, V91, and V92 of the (2+1+3) target controllers, the power of each light source is made to operate at the following value of 80W. The detection device S122, which detects the presence of vehicle number three, is in state 1. The device terminal SB12 corresponding to the detection device S122 reports an execution signal to the cloud platform. The cloud platform issues an execution command to the corresponding (2+1+3) target controllers P113, P121, P122, P123, P131, and P132 according to the design logic. Through the control lines V113, V121, V122, V123, V131, and V132 of the (2+1+3) target controllers, the power of each light source is made to run at the following value of 80W.

[0039] In addition to the target controller that receives the execution command, the target controllers corresponding to other detection devices with signals in the 0 state operate at a static value of 10W.

[0040] When signal 1 ends, the 3 The (2+1+3) target controllers continue to run for 60 (s) with a follow value of 80W and a delay. After 60 (s), the 3 (2+1+3) target controllers operate at a static value of 10W.

[0041] This enables the light-following function for people or vehicles.

[0042] When the system samples again, it continues to operate according to the above logic.

[0043] During implementation, real-time operating values ​​of the target monitoring points can also be obtained through detection devices; When the real-time operating value is inconsistent with the standard operating value, an adjustment signal is sent to the target controller of the monitored point; When triggered by the adjustment signal, the output operating value of the target controller is adjusted to maintain consistency with the standard operating value.

[0044] In practical applications, at the monitored point, the real-time operating value can be detected in real time by the detection device, compared with the standard operating value entered by the user terminal, the difference between the real-time operating value and the standard operating value is calculated, a feedback value is determined based on the difference, and an adjustment signal is sent to the target controller of the monitored point based on the feedback value to keep the standard operating value constant.

[0045] In such Figure 2 In one specific embodiment, the intelligent system includes: The system comprises a user terminal 201, a cloud platform 202, and several device terminals 203. The several device terminals include a communication module, a conversion module, a calculation module, a judgment module, a processing module, an instruction module, an alarm module block, and an execution model. Each of the several device terminals 203 also includes several detection devices S and several target controllers P that correspond to each of them. For example, device 2031 includes a detection device S11 and a corresponding target controller P11, a detection device S12 and a corresponding target controller P12, ...; The device 2032 includes a detection device S21 and a corresponding target controller P21, a detection device S22 and a corresponding target controller P22, ...; The equipment end 2033 includes a detection device S31 and a corresponding target controller P31, a detection device S32 and a corresponding target controller P32, a detection device S33 and a corresponding target controller P33, ...; ......; The detection device S is used to acquire the position signal of the target object; When the user terminal presets the standard operating value G0, the operating threshold G1, and the sampling time Δt; The real-time operating value Gt of the monitored point is obtained using the detection device. The preset standard operating value G0 is compared with the real-time operating value Gt to obtain the comparison value ΔG, where ΔG = G0 - Gt; When the comparison value -△G is greater than or equal to the running threshold G1, the real-time running value Gt is displayed on the user terminal, and the execution instruction value U+△U is output, where U is the execution instruction value corresponding to the real-time running value Gt, and △U is the execution instruction value corresponding to the comparison value △G. The execution instruction value U+△U adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller, Gt+ΔG; Make the output running value Gt+△G consistent with the standard running value G0, where Gt+△G=Gt+G0-Gt=G0; When the comparison value -△G is less than or equal to the operating threshold G1, no alarm is triggered and no execution command value U+△U is output. When the system samples again after a sampling time of Δt, the system continues to operate according to the above logic; When the absolute value of the comparison value △G, |△G|, is greater than or equal to the running threshold G1, the real-time running value Gt is displayed on the user terminal, and the execution instruction value U+△U is output, where U is the execution instruction value corresponding to the real-time running value Gt, and △U is the execution instruction value corresponding to the comparison value △G. The execution instruction value U+△U adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller, Gt+ΔG; Make the output running value Gt+△G consistent with the standard running value G0, where Gt+△G=Gt+G0-Gt=G0; When the absolute value of the comparison value △G, |△G|, is less than or equal to the operating threshold G1, no alarm is triggered and no execution command value U+△U is output. When the system samples again after a sampling time of Δt, the system continues to operate according to the above logic; When the comparison value △G is greater than or equal to the running threshold G1, the real-time running value Gt is displayed on the user terminal, and the execution instruction value U+△U is output, where U is the execution instruction value corresponding to the real-time running value Gt, and △U is the execution instruction value corresponding to the comparison value △G. The execution instruction value U+△U adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller, Gt+ΔG; Make the output running value Gt+△G consistent with the standard running value G0, where Gt+△G=Gt+G0-Gt=G0; When the comparison value △G is less than or equal to the operating threshold G1, no alarm is triggered and no execution command value U+△U is output. When the system samples again after a sampling time of Δt, the system continues to operate according to the above logic.

[0046] The above embodiments also include: Place the detection device at the monitoring point, obtain the output V of the conversion module, then place the standard instrument at the same monitoring point, read the operating value G of the standard instrument, calculate the detection device coefficient K of the detection device, where K=V / G, and complete the calibration of the detection device coefficient K of the detection device. The detection device coefficient K is preset on the user end.

[0047] Furthermore, based on the detection device coefficient K, the intelligent system provided in this embodiment includes: The user terminal presets the standard operating value G0, the operating threshold G1, the sampling time Δt, and the detection device coefficient K. The real-time operating value Gt of the monitored point is obtained using the detection device. The real-time operating value Gt is converted into Vt by the conversion module, where Vt=K Gt; The standard operating value G0 is output as V0 by the arithmetic module, where V0 = K G0; The operating threshold G1 is output as V1 by the calculation module, where V1=K G1; The V0 is compared with the Vt to obtain the comparison value ΔV, where ΔV = V0 - Vt; When the comparison value -△V is greater than or equal to the running threshold V1, the real-time running value Gt is displayed on the user terminal, and the execution instruction value U+△U is output, where U is the execution instruction value corresponding to Vt, and △U is the execution instruction value corresponding to the comparison value △V. The execution instruction value U+△U adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller, Gt+△G, where U is the execution instruction value corresponding to the real-time operating value Gt, and △U is the execution instruction value corresponding to the comparison value △G. Make the output running value Gt+△G consistent with the standard running value G0, where Gt+△G=Gt+G0-Gt=G0; When the comparison value -△V is less than or equal to the running threshold V1, the execution instruction value U+△U is not output; When the system samples again after a sampling time of Δt, the system continues to operate according to the above logic; When the absolute value of the comparison value △V, |△V|, is greater than or equal to the running threshold V1, the real-time running value Gt is displayed on the user terminal, and the execution instruction value U+△U is output, where U is the execution instruction value corresponding to Vt, and △U is the execution instruction value corresponding to the comparison value △V. The execution instruction value U+△U adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller, Gt+△G, where U is the execution instruction value corresponding to the real-time operating value Gt, and △U is the execution instruction value corresponding to the comparison value △G. Make the output running value Gt+△G consistent with the standard running value G0, where Gt+△G=Gt+G0-Gt=G0; When the absolute value of the comparison value △V, |△V|, is less than or equal to the running threshold V1, the execution instruction value U+△U is not output. When the system samples again after a sampling time of Δt, the system continues to operate according to the above logic; When the comparison value △V is greater than or equal to the running threshold V1, the real-time running value Gt is displayed on the user terminal, and the execution instruction value U+△U is output, where U is the execution instruction value corresponding to Vt, and △U is the execution instruction value corresponding to the comparison value △V. The execution instruction value U+△U adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller, Gt+△G, where U is the execution instruction value corresponding to the real-time operating value Gt, and △U is the execution instruction value corresponding to the comparison value △G. Make the output running value Gt+△G consistent with the standard running value G0, where Gt+△G=Gt+G0-Gt=G0; When the comparison value △V is less than or equal to the running threshold V1, the execution instruction value U+△U is not output; When the system samples again after a sampling time of Δt, the system continues to operate according to the above logic.

[0048] The following specific embodiment illustrates the intelligent system and corresponding control method provided by this application.

[0049] The user terminal presets the standard operating value G0=300Lx, the operating threshold G1=20Lx, and the sampling time Δt=2s; The real-time operating value of the monitored point, Gt=326Lx, was obtained using the detection device. The preset standard operating value G0 is compared with the real-time operating value Gt to obtain the comparison value ΔG, where ΔG = G0 - Gt = 300Lx - 326Lx = -26Lx; When the comparison value -△G = -(-26Lx) = 26Lx is greater than the running threshold G1 = 20Lx, the real-time running value Gt = 326Lx is displayed on the user terminal, and the execution instruction value U + △U = 3.26V - 0.26V = 3V is output, where U = 3.26V is the execution instruction value corresponding to the real-time running value Gt = 326Lx, and △U = -0.26V is the execution instruction value corresponding to the comparison value △G = -26Lx; The execution command value U+△U=3V adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller: Gt + ΔG = 326Lx - 26Lx = 300Lx; Make the output running value Gt+△G=300Lx consistent with the standard running value G0=300Lx, where Gt+△G=326Lx+300Lx-326Lx=300Lx; When the system samples again after a sampling time of Δt = 2s, the system continues to operate according to the above logic; When the absolute value of the comparison value △G=-26Lx, |△G|=|-26Lx|=26Lx, is greater than the running threshold G1=20Lx, the real-time running value Gt=326Lx is displayed on the user terminal, and the execution instruction value U+△U=3.26V-0.26V=3V is output, where U=3.26V is the execution instruction value corresponding to the real-time running value Gt=326Lx, and △U=-0.26V is the execution instruction value corresponding to the comparison value △G=-26Lx; The execution command value U+△U=3V adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller: Gt + ΔG = 326Lx - 26Lx = 300Lx; Make the output running value Gt+△G=300Lx consistent with the standard running value G0=300Lx, where Gt+△G=326Lx+300Lx-326Lx=300Lx; When the system samples again after a sampling time of Δt = 2s, the system continues to operate according to the above logic; When the comparison value △G=-26Lx is less than the running threshold G1=20Lx, the real-time running value is not displayed on the user terminal and no execution command is output.

[0050] When the system samples again after a sampling time of Δt=2s, the system continues to operate according to the above logic.

[0051] The following is an example Figure 3A specific embodiment is provided to illustrate the intelligent system and corresponding control method provided by the present application. This control method can realize constant illuminance control of the lighting environment.

[0052] The detection device uses a photosensitive sensor, and the standard instrument uses a standard illuminance meter. Place the photosensitive sensor at the monitoring point and obtain the output V=3.3v from the conversion module. Then place the standard illuminance meter at the same monitoring point and read the operating value G=500Lx of the standard instrument. Calculate the detection device coefficient K=0.0066v / Lx, where K=V / G=3.3v / 500Lx=0.0066v / Lx. This completes the calibration of the detection device coefficient K. Furthermore, based on the detection device coefficient K=0.0066v / Lx, the intelligent system provided in this embodiment includes: When the user terminal presets the standard operating value G0=200Lx, the operating threshold G1=20Lx, the sampling time Δt=3s, and the detection device coefficient K=0.0066v / Lx; The real-time operating value of the monitored point, Gt=170Lx, was obtained using the detection device. The real-time operating value Gt=170Lx is output as Vt through the conversion module, where Vt=K Gt=0.0066v / Lx 170Lx = 1.122V; the standard operating value G0 = 200Lx is output as V0 by the calculation module, where V0 = K. G0=0.0066v / Lx 200Lx = 1.32V; the operating threshold G1 = 20Lx outputs V1 = 0.132V through the calculation module, where V1 = K G1=0.0066v / Lx 20Lx = 0.132V; The V0 is compared with the Vt to obtain the comparison value ΔV, where ΔV = V0 - Vt = 1.32v - 1.122v = 0.198v; When the comparison value -△V=0.198v is less than the running threshold V1=0.132v, the real-time running value is not displayed on the user terminal and no execution command is output.

[0053] When the system samples again after a sampling time of Δt = 3 seconds, the system continues to operate according to the above logic. When the absolute value of the comparison value △V=0.198v, |△V|=|0.198v|=0.198v, is greater than or equal to the running threshold V1=0.132v, the real-time running value Gt=170Lx is displayed on the user terminal, and the execution instruction value U+△U=3.4v+0.6v=4v is output, where U=3.4v is the execution instruction value corresponding to Vt=1.122v, and △U=0.6v is the execution instruction value corresponding to the comparison value △V=0.198v; The execution instruction value U+△U=4v adjusts the output of the target controller; The output of the target controller adjusts the power of each light source through the control line V of the target controller; This adjusts the target controller's operating value output Gt+△G=170Lx+30Lx=200Lx, where U=3.4v is the execution instruction value corresponding to the real-time operating value Gt=170Lx, and △U=0.6v is the execution instruction value corresponding to the comparison value △G=30Lx. Make the output running value Gt+△G=200Lx consistent with the standard running value G0=200Lx, where Gt+△G=170Lx+200Lx-170Lx=200Lx; This enables constant illuminance control of the lighting environment.

[0054] When the system samples again after a sampling time of Δt=3s, the system continues to operate according to the above logic.

[0055] When the comparison value △V=0.198v is greater than or equal to the running threshold V1=0.132v, the real-time running value Gt=170Lx is displayed on the user terminal, and the execution instruction value U+△U=3.4v+0.6v=4v is output, where U=3.4v is the execution instruction value corresponding to Vt=1.122v, and △U=0.6v is the execution instruction value corresponding to the comparison value △V=0.198v; The execution instruction value U+△U=4v adjusts the output of the target controller; The output of the target controller adjusts the power of each light source through the control line V of the target controller; This adjusts the target controller's operating value output Gt+△G=170Lx+30Lx=200Lx, where U=3.4v is the execution instruction value corresponding to the real-time operating value Gt=170Lx, and △U=0.6v is the execution instruction value corresponding to the comparison value △G=30Lx. Make the output running value Gt+△G=200Lx consistent with the standard running value G0=200Lx, where Gt+△G=170Lx+200Lx-170Lx=200Lx; This enables constant illuminance control of the lighting environment.

[0056] When the system samples again after a sampling time of Δt=3s, the system continues to operate according to the above logic.

[0057] Figure 4 An example is a schematic diagram of the physical structure of an electronic device, such as... Figure 4 As shown, the electronic device may include: a processor 310, a communication interface 320, a memory 330, and a communication bus 340, wherein the processor 310, the communication interface 320, and the memory 330 communicate with each other via the communication bus 340. The processor 310 can call logical instructions in the memory 330 to execute the adjustment method of the intelligent system, the method including: Acquire the position signal of the target object; Based on the position signal, the target controller within a set distance or number of surrounding objects is controlled to operate. The real-time operating value of the target controller is obtained. When the real-time operating value is inconsistent with the preset standard operating value, the real-time operating value of the target controller is adjusted to keep it consistent with the standard operating value.

[0058] Furthermore, the logical instructions in the aforementioned memory 330 can be implemented as software functional units and, when sold or used as independent products, can be stored in a computer-readable storage medium. Based on this understanding, the technical solution of the present invention, in essence, or the part that contributes to the prior art, or a part of the technical solution, can be embodied in the form of a software product. This computer software product is stored in a storage medium and includes several instructions to cause a computer device (which may be a personal computer, server, or network device, etc.) to execute all or part of the steps of the methods of the various embodiments of the present invention. The aforementioned storage medium includes various media capable of storing program code, such as USB flash drives, portable hard drives, read-only memory (ROM), random access memory (RAM), magnetic disks, or optical disks.

[0059] On the other hand, the present invention also provides a computer program product, which includes a computer program that can be stored on a non-transitory computer-readable storage medium. When the computer program is executed by a processor, the computer is able to execute the adjustment method of the intelligent system provided by the above methods, the method including: Acquire the position signal of the target object; Based on the position signal, the target controller within a set distance or number of surrounding objects is controlled to operate. The real-time operating value of the target controller is obtained. When the real-time operating value is inconsistent with the preset standard operating value, the real-time operating value of the target controller is adjusted to keep it consistent with the standard operating value.

[0060] In another aspect, the present invention also provides a non-transitory computer-readable storage medium having a computer program stored thereon, which, when executed by a processor, is implemented to perform the regulation method of the intelligent system provided by the above methods, the method comprising: Acquire the position signal of the target object; Based on the position signal, the target controller within a set distance or number of surrounding objects is controlled to operate. The real-time operating value of the target controller is obtained. When the real-time operating value is inconsistent with the preset standard operating value, the real-time operating value of the target controller is adjusted to keep it consistent with the standard operating value.

[0061] The device embodiments described above are merely illustrative. The units described as separate components may or may not be physically separate, and the components shown as units may or may not be physical units; that is, they may be located in one place or distributed across multiple network units. Some or all of the modules can be selected to achieve the purpose of this embodiment according to actual needs. Those skilled in the art can understand and implement this without any creative effort.

[0062] Through the above description of the embodiments, those skilled in the art can clearly understand that each embodiment can be implemented by means of software plus necessary general-purpose hardware platforms, and of course, it can also be implemented by hardware. Based on this understanding, the above technical solutions, in essence or the part that contributes to the prior art, can be embodied in the form of a software product. This computer software product can be stored in a computer-readable storage medium, such as ROM / RAM, magnetic disk, optical disk, etc., including several instructions to cause a computer device (which may be a personal computer, server, or network device, etc.) to execute the methods of various embodiments or some parts of embodiments.

[0063] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention, and not to limit them; although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some of the technical features; and these modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims

1. A method for regulating an intelligent system, characterized in that, include: Acquire the position signal of the target object; Based on the position signal, the target controller within a set distance or number of surrounding objects is controlled to operate. The real-time operating value of the target controller is obtained. When the real-time operating value is inconsistent with the preset standard operating value, the real-time operating value of the target controller is adjusted to keep it consistent with the standard operating value.

2. The adjustment method for the intelligent system according to claim 1, characterized in that, The intelligent system includes: Several device terminals, each device terminal including several detection devices and several target controllers corresponding one-to-one with the detection devices; The detection device is used to acquire the position signal of the target object; When the target object does not exist, the signal state of the detection device is set to 0, the corresponding target device does not generate a trigger signal, and the target controller corresponding to the detection device operates according to the static value; The method of controlling the target controller within a set distance or number of targets around the target object based on the position signal includes: When the target object is present, the signal state of the detection device is set to 1, and the corresponding target device generates a trigger signal. Under the trigger signal, the target controller corresponding to the detection device, and the target controllers within a set distance or a set number of surrounding objects corresponding to the target controller are adjusted from static values ​​to following values.

3. The adjustment method for the intelligent system according to claim 2, characterized in that, Upon triggering by the trigger signal, the target controller corresponding to the target detection device, and the target controllers within a set distance or a set number of surrounding targets corresponding to the target controller, are adjusted from static values ​​to following values, and then the process further includes: After the location signal of the target object is no longer received, the signal status of the detection device is set to 0; After the signal status of the detection device is set to 0, the target controller and the target controllers within a set distance or number of surrounding targets are controlled to maintain the following value operation for a set period of time. After the set duration ends, the target controller and the target controllers within a set distance or number of surrounding targets are adjusted from the following value to the static value.

4. The adjustment method for the intelligent system according to claim 1, characterized in that, The intelligent system includes: The system comprises a user terminal, a cloud platform, and several device terminals, including a communication module, a conversion module, a calculation module, a judgment module, a processing module, an instruction module, an alarm module block, and an execution model. It also includes several detection devices and several target controllers that correspond one-to-one with each of the detection devices, which are used to acquire the position signals of the target objects. The plurality of device terminals are numbered in the order of first device terminal, second device terminal, third device terminal, ... The plurality of detection devices at the plurality of device ends are numbered in the order of first detection device, second detection device, third detection device, ... The target controllers of the plurality of device terminals are numbered in the order of first controller, second controller, third controller, ... On the user side, the parameters M, N, E, E0, and T are set. M is the number of target controllers calculated from the trigger target controller in the direction of smaller numbers, N is the number of target controllers calculated from the trigger target controller in the direction of larger numbers, E is the follow value, E0 is the static value, and T is the set duration. The method of controlling the target controller within a set distance or number of targets around the target object based on the position signal includes: When the target object does not exist, the signal state of the detection device is set to 0, the corresponding target device does not generate a trigger signal, and the target controller corresponding to the detection device operates according to the static value; When the detection device detects the presence of the target object, it sets the signal state of the detection device to 1, and the target device corresponding to the detection device generates a trigger signal. Upon triggering by the trigger signal, the target controller corresponding to the detection device is triggered; When triggered by the trigger signal, the target controller and the M+N surrounding target controllers are triggered, and the 1+M+N target controllers are adjusted from the static value E0 to the following value E to operate. After the detection device signal ends in state 1, the 1+M+N target controllers that were triggered continue to run for a delay T according to the following value E, and then the 1+M+N target controllers that were triggered are adjusted from the following value E to the static value E0. When the system samples again, it continues to operate according to the above logic.

5. The adjustment method for an intelligent system according to claim 1, characterized in that, The step of acquiring the real-time operating value of the target controller, and adjusting the real-time operating value of the target controller to maintain consistency with the standard operating value when the real-time operating value is inconsistent with the preset standard operating value, includes: The real-time operating values ​​of the monitored points are obtained through detection devices; When the real-time operating value is inconsistent with the standard operating value, an adjustment signal is sent to the target controller of the monitored point; When triggered by the adjustment signal, the output operating value of the target controller is adjusted to maintain consistency with the standard operating value.

6. The adjustment method for an intelligent system according to claim 5, characterized in that, The step of issuing an adjustment signal to the target controller of the monitored point when the real-time operating value is inconsistent with the standard operating value includes: The standard operating value is compared with the real-time operating value to obtain a comparison value; Based on the comparison values, a feedback value is determined; Based on the feedback value, an adjustment signal is sent to the target controller of the monitored point to maintain consistency with the standard operating value.

7. The adjustment method for an intelligent system according to claim 1, characterized in that, The intelligent system includes: The system comprises a user terminal, a cloud platform, and several device terminals, including a communication module, a conversion module, a calculation module, a judgment module, a processing module, an instruction module, an alarm module block, and an execution model. It also includes several detection devices and several target controllers that correspond one-to-one with each of them. The user terminal presets the standard operating value G0, the operating threshold G1, and the sampling time Δt. The real-time operating value Gt of the monitored point is obtained using the detection device. The preset standard operating value G0 is compared with the real-time operating value Gt to obtain the comparison value ΔG, where ΔG = G0 - Gt; When the comparison value -△G is greater than or equal to the running threshold G1, the real-time running value Gt is displayed on the user terminal, and the execution instruction value U+△U is output, where U is the execution instruction value corresponding to the real-time running value Gt, and △U is the execution instruction value corresponding to the comparison value △G. The execution instruction value U+△U adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller, Gt+ΔG; Make the output running value Gt+△G consistent with the standard running value G0, where Gt+△G=Gt+G0-Gt=G0; When the comparison value -△G is less than or equal to the operating threshold G1, no alarm is triggered and no execution command value U+△U is output. When the system samples again after a sampling time of Δt, the system continues to operate according to the above logic; When the absolute value of the comparison value △G, |△G|, is greater than or equal to the running threshold G1, the real-time running value Gt is displayed on the user terminal, and the execution instruction value U+△U is output, where U is the execution instruction value corresponding to the real-time running value Gt, and △U is the execution instruction value corresponding to the comparison value △G. The execution instruction value U+△U adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller, Gt+ΔG; Make the output running value Gt+△G consistent with the standard running value G0, where Gt+△G=Gt+G0-Gt=G0; When the absolute value of the comparison value △G, |△G|, is less than or equal to the operating threshold G1, no alarm is triggered and no execution command value U+△U is output. When the system samples again after a sampling time of Δt, the system continues to operate according to the above logic; When the comparison value △G is greater than or equal to the running threshold G1, the real-time running value Gt is displayed on the user terminal, and the execution instruction value U+△U is output, where U is the execution instruction value corresponding to the real-time running value Gt, and △U is the execution instruction value corresponding to the comparison value △G. The execution instruction value U+△U adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller, Gt+ΔG; Make the output running value Gt+△G consistent with the standard running value G0, where Gt+△G=Gt+G0-Gt=G0; When the comparison value △G is less than or equal to the operating threshold G1, no alarm is triggered and no execution command value U+△U is output. When the system samples again after a sampling time of Δt, the system continues to operate according to the above logic.

8. The adjustment method for an intelligent system according to claim 7, characterized in that, Also includes: Place the detection device at the monitoring point, obtain the output V of the conversion module, then place the standard instrument at the same monitoring point, read the operating value G of the standard instrument, calculate the detection device coefficient K of the detection device, where K=V / G, and complete the calibration of the detection device coefficient K of the detection device. The detection device coefficient K is preset on the user end.

9. The adjustment method for an intelligent system according to claim 8, characterized in that, include: The standard operating value G0, operating threshold G1, sampling time Δt, and detection device coefficient K are preset on the user end. The real-time operating value Gt of the monitored point is obtained using the detection device. The real-time operating value Gt is output as Vt through the conversion module, where Vt=K Gt; The standard operating value G0 is output as V0 by the arithmetic module, where V0 = K G0; The operating threshold G1 is output as V1 by the calculation module, where V1=K G1; The V0 is compared with the Vt to obtain the comparison value ΔV, where ΔV = V0 - Vt; When the comparison value -△V is greater than or equal to the running threshold V1, the real-time running value Gt is displayed on the user terminal, and the execution instruction value U+△U is output, where U is the execution instruction value corresponding to Vt, and △U is the execution instruction value corresponding to the comparison value △V. The execution instruction value U+△U adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller, Gt+△G, where U is the execution instruction value corresponding to the real-time operating value Gt, and △U is the execution instruction value corresponding to the comparison value △G. Make the output running value Gt+△G consistent with the standard running value G0, where Gt+△G=Gt+G0-Gt=G0; When the comparison value -△V is less than or equal to the running threshold V1, the execution instruction value U+△U is not output; When the system samples again after a sampling time of Δt, the system continues to operate according to the above logic; When the absolute value of the comparison value △V, |△V|, is greater than or equal to the running threshold V1, the real-time running value Gt is displayed on the user terminal, and the execution instruction value U+△U is output, where U is the execution instruction value corresponding to Vt, and △U is the execution instruction value corresponding to the comparison value △V. The execution instruction value U+△U adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller, Gt+△G, where U is the execution instruction value corresponding to the real-time operating value Gt, and △U is the execution instruction value corresponding to the comparison value △G. Make the output running value Gt+△G consistent with the standard running value G0, where Gt+△G=Gt+G0-Gt=G0; When the absolute value of the comparison value △V, |△V|, is less than or equal to the running threshold V1, the execution instruction value U+△U is not output. When the system samples again after a sampling time of Δt, the system continues to operate according to the above logic; When the comparison value △V is greater than or equal to the running threshold V1, the real-time running value Gt is displayed on the user terminal, and the execution instruction value U+△U is output, where U is the execution instruction value corresponding to Vt, and △U is the execution instruction value corresponding to the comparison value △V. The execution instruction value U+△U adjusts the output of the target controller; The output of the target controller adjusts the operating value output of the target controller, Gt+△G, where U is the execution instruction value corresponding to the real-time operating value Gt, and △U is the execution instruction value corresponding to the comparison value △G. Make the output running value Gt+△G consistent with the standard running value G0, where Gt+△G=Gt+G0-Gt=G0; When the comparison value △V is less than or equal to the running threshold V1, the execution instruction value U+△U is not output; When the system samples again after a sampling time of Δt, the system continues to operate according to the above logic.

10. An electronic device comprising a memory, a processor, and a computer program stored in the memory and executable on the processor, characterized in that, When the processor executes the program, it implements the adjustment method of the intelligent system as described in any one of claims 1-9.

Images