A receiving device of a large amount of information transmitting device

Abstract

A receiving device of a large amount of information emitting device belongs to the technical field of information network remote control and is an intelligent control information technology. The application is one of indispensable technologies in enterprise multiple achievements. The applicant has an achievement that directly uses 12 keys of a telephone to generate numerous network control instructions such as hundreds of network control instructions, and the network control instructions can be further converted into corresponding radio code instructions. The application mainly cooperates with the emission to become a complete product. The scheme comprises a radio remote control carrier receiving module, a decoding processing system and an execution system. Each system further comprises multiple boards and multiple units and is connected according to a certain rule. The input end series of the latter system are connected with the output end series of the former stage or the output end series. The features are that the internal components of the above systems are composed of digital and analog circuits, and the receiving device can receive numerous control signals. In particular, the receiving device can receive three different emission form signals, thereby greatly improving the advantages of local radio emission and reception.

Description

Technical Field

[0001] A receiving device for a high-information-capacity transmitting device belongs to the field of information network remote control technology. It involves the simultaneous control of numerous objects at both long and short distances via a communication network and is a type of intelligent control information technology. Background Technology

[0002] This application is a closely integrated technology among multiple achievements of the enterprise project.

[0003] To enrich the variety of network control products, the applicant has proposed a new technological solution. Its first feature is the direct use of ordinary telephone networks, employing both cordless and wired telephones as the network control receiving platform. This platform uses classic digital circuitry to process control command signals from the 12 keypads of the telephone. This offers several advantages, one of which is the ability to control up to 100 remotely connected network control signals. The second feature is the ability to transmit the processed network control signals wirelessly to numerous controlled objects within the designated area. It also possesses communication capabilities. This is a novel product with significant advantages.

[0004] For ease of description, products based on telephone network principles are referred to as decoding products.

[0005] A search revealed that while decoding products exist in publicly available technologies, the biggest difference between these and the applicant's existing technology lies in three aspects: First, the existing technology boasts superior information processing capabilities. It can convert 12 telephone keypad signals into 100 network control signals, enabling long-distance network control. Second, it can further convert these 100 network control signals into 100 radio transmission signals, essentially using the 12 telephone keys to simulate 100 coded integrated circuit transmission control switches, providing short-range remote control functionality while maintaining communication compatibility. Third, it can generate multiple transmission modes, resulting in various different logical effects upon receiving the data. This significantly enhances the performance of short-range remote control.

[0006] This application corresponds to an existing work, whose publication number is CN118553083A. The purpose of this application is to complement the aforementioned existing achievements, to generate a corresponding receiver to control the control body, and to form a complete product. The difficulty lies in two aspects: first, to achieve the many excellent performance characteristics mentioned above; and second, to avoid using high-end components such as microprocessors, which has many advantages such as reducing the technical content of production, reducing the unit price, and improving reliability. Summary of the Invention

[0007] It complements the applicant's existing achievements, receives radio remote control signals emitted by existing achievements, and has the following characteristics: first, it can accept a large number of signals; second, the receiving objects will not interfere with each other; and third, it can receive multiple transmission modes generated by the transmitting device; thus, together with the applicant's corresponding related achievements, it forms a product with excellent properties.

[0008] The main measures are: 1. A receiving device for a high-information-capacity transmitting device, comprising a radio remote control carrier receiving module, a decoding processing system, and an execution system; characterized in that: the output terminal of the radio remote control carrier receiving module is connected to a series of input terminals of the decoding processing system, the output terminal series of the decoding processing system is connected to a series of multi-bit input terminals of the execution system, and the series of multi-bit output terminals of the execution system is a series of output terminals of the receiving device for a high-information-capacity transmitting device.

[0009] The decoding processing system mainly consists of a decoding module and a logic processing module. The decoding module contains one or more decoding integrated circuits, and the output series of the decoding integrated circuits is the output series of the decoding module. The logic processing module contains one or more identical logic processing units, which contain the main components of memory circuits. The inputs of multiple logic processing units are the input series of the logic processing module, and each logic processing unit input is connected to the output of the decoding module. The outputs of each logic processing unit constitute the output of the logic processing module. The outputs of multiple logic processing modules form the output series of the decoding processing system. Each output of the decoding processing system output series is connected to the input of one of the many execution units in the execution system, outputting the received and scientifically processed logic signal to the execution system.

[0010] The transmitting device has been designed to generate up to 100 coded signals using 12 telephone keypad signals. A corresponding decoding integrated circuit can be used to generate these signals. The control signals are independent and unique, and the circuitry is simple. It can receive, decode, process, and transmit the same number of independent signals.

[0011] The output series of the decoding processing system is connected to the input series of multiple execution units in the execution system. Each execution unit can control one object, so the execution system can control the same number of controlled objects. It can also be extended to control multiple control bodies, and each control body can implement various logical program function control forms, which improves the performance of radio reception.

[0012] The logic processing unit in the decoding module contains the main components of the memory circuit. With the cooperation of related circuits, it can form signals that recognize and process different states output by the decoding integrated circuit, and generate three corresponding logic effects to control the controlled object, thereby further improving the performance of radio remote control transmission.

[0013] 2. A receiving device for a transmitting device with a large information capacity is characterized in that: each logic processing unit is composed of a decoding board with one bit output, an integrating circuit, and a flip-flop or counter with memory. The decoding board with one bit output is connected to the signal input of the flip-flop or counter with memory. The decoding board with one bit output is connected to the input of the integrating circuit. The output of the integrating circuit is connected to the clear input of the flip-flop or counter. The output of the flip-flop or counter is also a bit output of the logic processing unit and the decoding processing system.

[0014] Since the decoding integrated circuit is connected in a transient output form, the output terminal of the decoding integrated circuit will form a state of long-term or short-term output signal according to the transmission situation.

[0015] When a short signal is output based on a decoding integrated circuit, there is a trigger signal at the input terminal of the trigger or counter signal, and a signal is output at the output terminal.

[0016] When the decoding integrated circuit outputs a long signal, the signal output by the integrator circuit causes the reset terminal of the flip-flop or counter to be blocked, resulting in no output.

[0017] Based on the output signal and disappearance process of the decoding circuit, it is connected to the flip-flop or counter to form a corresponding edge triggering form. Therefore, during the integration process, the flip-flop or counter will maintain its original output state.

[0018] Based on the above reasons, the different time states of the output of a single-bit decoded signal generate two different forms of logic signals, doubling the control signal. Furthermore, the long and short signals do not cause any hazard competition throughout the entire logic process, ensuring reliable and unique logic. This forms the first of the three forms of the single-code dual-control method for the first type of receiving relationship. This form can be extended to control multiple controlled entities, and each controlled entity has the advantage of multiple logic program controls.

[0019] 3. A receiving device for a transmitting device with a large information capacity is characterized in that: the logic processing unit is composed of a decoding board with one output line, a differentiating circuit, an integrating circuit, and a memory circuit with two trigger terminals; the input terminals of the integrating circuit and the differentiating circuit are simultaneously connected to one output terminal of the decoding board; the output terminal of the differentiating circuit is connected to one signal input terminal of the memory circuit; the output terminal of the integrating circuit is connected to another clear input terminal of the memory circuit; the one output terminal of the memory circuit is the output terminal of the logic processing unit and also one output terminal of the decoding processing system, and this terminal is connected to one input terminal of the execution system.

[0020] The decoding integrated circuit is connected to form a transient output form, so the decoding integrated circuit will form a state of long-term or short-term output signal according to the transmission situation.

[0021] Because the logic states of the differential and integral circuits are different when the decoding integrated circuit outputs long and short signals, and they are triggered separately, the memory circuit will eventually have two different output states.

[0022] Based on the difference between the logic processing unit and the first form, the requirements are reduced in many aspects on the basis of logical reliability, which is conducive to productization, thus forming the second form of the single-code dual-control method.

[0023] The second form can double the number of control signals and can be extended to control multiple controlled entities, while each controlled entity has the advantage of multiple logic program controls.

[0024] 4. The receiving device of a transmitting device with a large information capacity is characterized in that: the third form of the single-code dual-control method consists of a logic processing unit composed of a decoding board with one output line, a differentiating circuit, an integrating circuit, a memory circuit with two trigger terminals, and a delay circuit; the input terminals of the integrating circuit and the differentiating circuit are simultaneously connected to one output terminal of the decoding board, the output terminal of the differentiating circuit is connected to one signal input terminal of the memory circuit, the output terminal of the integrating circuit is connected to another clear input terminal of the memory circuit, and the output terminal of the memory circuit is also connected to a delay circuit. The output terminal of the delay circuit is the output terminal of the logic processing unit and also one output terminal of the decoding processing system.

[0025] Because the decoding integrated circuit is connected to form a transient output, the decoding integrated circuit will follow the transmission to become a state of output signal for a long time or a short time.

[0026] Because the differential and integral circuits have different logic states and are triggered separately when the decoding integrated circuit outputs long and short signals, the memory circuit will have two output signal states.

[0027] Based on the newly added delay circuit, while retaining the principle and advantages of the second form, the performance of the second form of the logic processing unit is improved, thus forming the third form of the single-code dual-control method; the third form can be extended to control multiple controlled entities, and the control of each controlled entity can realize multiple logic program controls.

[0028] 5. The receiving device of a transmitting device with a large amount of information is characterized in that the decoding processing system is mainly composed of a decoding board and a logic processing board. The multi-bit output terminals in the decoding processing system, with each pair of output terminals becoming an output terminal unit of the system, are correspondingly connected to a logic processing unit in the logic processing board. Each logic processing unit has the same structure and is composed of a memory circuit with a double-ended trigger terminal.

[0029] In the decoding processing system, one bit of the signal trigger output of one output unit is connected to the signal input of the memory circuit; the other bit of the clear output is connected to the clear input of the memory circuit.

[0030] Based on the above connection relationship, when the decoding processing system outputs a valid signal or a clear signal respectively, the two input terminals of the memory circuit are triggered by different logic signals, and thus can output two different state signals to the execution system respectively. Under the premise of logical reliability, it is suitable for the operating habits of a certain type of person. This forms the receiving relationship of the separately triggered circuit of the second dual-code dual-control method. This relationship can also be extended to the control of multiple controlled entities, and the control of each controlled entity has the advantage of multiple logic control programs.

[0031] 6. The receiving device of a transmitting device with a large amount of information is characterized in that: the decoding processing system is mainly composed of a decoding board; the decoding board contains one or more decoding integrated circuits, and the output terminal series of the decoding board is also the output terminal series of the decoding processing system, which is connected to the input terminal series of the execution part, thereby forming a receiving relationship of a third type of multi-code multi-control circuit.

[0032] Based on the above composition and connection relationship, the decoding integrated circuit is inherently connected and forms a locked output form. Therefore, in the series of output terminals of the numerous decoding modules, there are two situations: first, only one output terminal has an output at each logic stage; second, when there is a signal at the current output terminal, the previous output terminal automatically shuts off the originally received signal.

[0033] Because the decoding integrated circuit and the encoding integrated circuit of the transmitting device in this measure have been learned to be paired, they can receive according to the pattern of transmission.

[0034] Based on the above composition, structure and characteristics, this measure can receive three transmission modes of multi-code multi-control from the transmitting device, producing three different logical effects.

[0035] advantage

[0036] This application is an indispensable technology for enterprise-specific projects; The key features of this project are: First, it directly utilizes ordinary telephone networks, using both cordless and wired telephones as the network control receiving platform. This platform uses classic digital circuits to process control command signals from the 12 keypads of the telephone. This offers several advantages, one of which is the ability to control numerous signals, such as 100, over a long distance. Second, it can scientifically and tightly link the processed 100 network control signals with radio codes, transmitting them wirelessly to numerous controlled objects within the designated area. Third, it does not use microprocessors or similar devices, resulting in several advantages. Based on this scheme, which includes a radio remote control carrier receiving line, a decoding and processing system, and an execution system, and is connected in a certain way, and can be scientifically paired with the transmitting device, it forms two major technical features.

[0037] First, the aforementioned components are mainly composed of digital and analog circuits. Second, it can receive numerous control signals from corresponding transmitting devices. Most importantly, it can receive signals in various different transmission formats.

[0038] The main advantages are as follows: 1. First, it can receive numerous control signals emitted by the transmitting device, such as 100 radio remote control signals; second, the received signals do not interfere with each other, the circuit is simplified, and it has strong applicability. This is hereinafter referred to as the multi-code reception method.

[0039] Third, the multi-code receiving method can be extended to control multiple controlled entities, and multiple logical program functions can be generated for each controlled entity.

[0040] 2. Importantly, it can be scientifically paired with the transmitting device to generate three transmission schemes, which greatly improves the performance of radio remote control. 2.1 The first receiving relationship proposes three different single-code dual-control receiving processing circuits. The macroscopic significance is twofold: First, it transforms one signal into two different logical functions; the 100 independent transmitted signals can be further enhanced into 200 logical signals with different meanings. This not only fully utilizes control signal resources but also ensures logical reliability and uniqueness, independent of the initial state of the controlled object, making it convenient to use. Second, it can be extended to control multiple controlled entities, and multiple logical program functions can be generated for each controlled entity.

[0041] 2.2 It can form a second receiving relationship of dual-code dual-control circuit, which is logically reliable, easy to use, and very suitable for the operating habits of a certain type of people, thus enhancing performance; at the same time, it can also be extended to control multiple controlled entities, and multiple logic program functions can be generated for each controlled entity.

[0042] 2.3. To realize the third receiving relationship of the multi-code multi-control circuit, there are three receiving methods.

[0043] 3. This application does not use high-end components such as microprocessors, which has many advantages such as reducing the technical content of production, reducing unit price, and improving reliability.

[0044] 4. The final product has a series of unique advantages compared to Wi-Fi products, enriching the network product offerings.

[0045] First, the final product, i.e., the platform, does not require AC power or broadband cables for installation, making it more flexible in use.

[0046] Secondly, it has a strong information processing capability and possesses all the advantages described in the previous two points.

[0047] Third, the resulting products are energy-saving, can be configured with small-capacity batteries, and are highly resistant to accidents.

[0048] Fourth, it does not require software installation or related maintenance, and does not create scientific illiteracy.

[0049] Fifth, it is easy to use. The paired transmitter can be operated using ordinary mobile phones, including smartphones.

[0050] Sixth, it can achieve two control methods: long-distance remote control and short-distance remote control of multiple objects. It is also compatible with communication telephone functions, and has a series of other advantages. Attached Figure Description

[0051] Figure 1 This is a schematic diagram illustrating the overall relationship of this application.

[0052] In the diagram: 1. Radio remote control carrier receiving module; 1C. Output terminal of radio remote control carrier receiving module; 2. Decoding processing system; 2W. Input terminal series of decoding processing system composed of multiple decoding integrated circuit input terminals; 2.1. Decoding module in decoding processing system; 2.11. First decoding integrated circuit in decoding module; 2.1X. Multiple identical decoding integrated circuits omitted in decoding module; 2.11W. Signal input terminal of the first decoding integrated circuit in decoding system, also the first input terminal of the system; 2.1C. Output terminal series of decoding module; 2.11C. Multiple output terminals of the first decoding integrated circuit in decoding module; 2.2. Logic processing module in decoding processing system; 2.2W. Input terminal series of logic processing module; 2.21. First unit in logic processing module; 2.21W. Input terminal of the first unit of logic processing module; 2.2X. Multiple identical units omitted in decoding module; 2C. Output terminal series of decoding processing system, also the output terminal series of logic processing module. 2.21C, The output terminal of the first unit in the logic processing module, which is also a bit output terminal of the logic processing system; 3, Execution system; 3.1 The same first execution unit in the execution system; 3X, Multiple identical units omitted in the execution system; 3W, Execution system input terminal series; 3.1W, The input terminal of the first execution unit in the execution system; 3.1C, The output terminal of the first unit in the execution system; 3C, Execution system output terminal series, which is also the output terminal series of the receiving device of a large information transmission device.

[0053] Figure 2 This is a schematic diagram showing the first form of the single-code dual-control method used by multiple identical units in the logic processing module, hereinafter referred to as the first form.

[0054] In the diagram: 2. Decoding processing system; 2.1. Decoding module in the decoding processing system; 2.1C. Output series in the decoding module; 2.1C1. First output terminal in the output series of the decoding module; 2.2. Logic processing module in the decoding processing system; 2.2Y. Schematic diagram of the first unit of the first form; 2.2W. Input series of the logic processing module; 2.2YW1. Input terminal of the first logic processing unit of the first form; 2.2Y1. Counter in the first processing unit of the first form; 2.2Y11. Counter signal input terminal in the first processing unit of the first form; 2.2Y12. The counter clearing input terminal in the first processing unit of the first form; 2.2Y2, the integrating circuit in the first processing unit of the first form; 2.2Y21, the signal input terminal of the integrating circuit in the first processing unit of the first form; 2.2Y22, the output terminal of the integrating circuit in the first processing unit of the first form; 2.2Y1C, the memory circuit output terminal of the first processing unit of the first form, which is also the first output terminal of the logic processing module and the decoding processing system; 2.2YX, the same logic processing unit omitted in the logic processing module of the first form; 2C, the output terminal series of the decoding processing system, which is also the output terminal series of the logic processing module.

[0055] Figure 3 This is a schematic diagram showing the second form of the single-code dual-control method used by multiple identical units in the logic processing module, hereinafter referred to as the second form.

[0056] In the diagram: 2. Decoding processing system; 2.1. Decoding module in the decoding processing system; 2.1C. Output series of the decoding module; 2.1C1. First output terminal in the output series of the decoding module; 2.2. Logic processing module in the decoding processing system; 2.2R. Schematic diagram of the first unit of the second form; 2.2R1. RS memory circuit in the first unit of the second form; 2.2R11. Signal input terminal of RS memory circuit in the first unit of the second form; 2.2R12. Clear input terminal of RS memory circuit in the first unit of the second form; 2.2R13. RS memory circuit in the first unit of the second form. Memory circuit output; 2.2R2, Differentiating circuit in the first unit of the second form; 2.2R22, Differentiating circuit output in the first unit of the second form; 2.2R3, Integrating circuit in the first unit of the second form; 2.2R32, Integrating circuit output in the first unit of the second form; 2.2RX, Multiple identical units omitted in the logic processing block of the second form; 2.2W, Logic processing block input series; 2.2RW1, Input of the first logic processing unit of the second form, also one bit of the logic processing block input series; 2C decoding processing system output series.

[0057] Figure 4This is a schematic diagram showing multiple identical units in the logic processing module using the third form of the single-code dual-control method, hereinafter referred to as the third form.

[0058] In the diagram: 2. Decoding processing system; 2.1. Decoding module in the decoding processing system; 2.1C. Output series of the decoding module; 2.1C1. First output terminal in the output series of the decoding module; 2.2. Logic processing module in the decoding processing system; 2.2S. Schematic diagram of the first unit of the third form; 2.2S1. RS memory circuit in the first unit of the third form; 2.2S11. Signal input terminal of RS memory circuit in the first unit of the third form; 2.2S12. Clear input terminal of RS memory circuit in the first unit of the third form; 2.2S13. Output terminal of RS memory circuit in the first unit of the third form; 2.2S2. Differential in the first unit of the third form. Circuit; 2.2S22, the output of the differentiating circuit in the first unit of the third form; 2.2S3, the integrating circuit in the first unit of the third form; 2.2S32, the output of the integrating circuit in the first unit of the third form; 2.2S4, the delay circuit in the first unit of the third form; 2.2S4C, the output of the first logic processing unit of the third form; also the first output of the decoding logic processing system output series; 2.2SX, multiple units with the same structure omitted in the logic processing block of the third form; 2.2SW1, the first input in the input series of the third form processing block; 2.2W, the input series of the logic processing block; 2C, the output series of the decoding processing system.

[0059] Figure 5 This is a schematic diagram showing multiple identical units in the logic processing module using a dual-code dual-control method.

[0060] In the diagram: 2. Decoding processing system; 2.1. Decoding module in the decoding processing system; 2.1C. Output series of the decoding module; 2.1C1. First output terminal in the output series of the decoding module; 2.2. Logic processing module in the decoding processing system; 2.2K. Schematic diagram of the first unit in the dual-code dual-control method; 2.2KX. Identical units omitted in the dual-code dual-control logic processing module; 2.2W. Input series of the logic processing module; 2.2WX. One of the multiple input units consisting of two lines in the input series of the dual-code dual-control logic processing module; 2.2KW1, Two-bit lines contained in the input unit of the first logic processing unit of the dual-code dual-control method; 2.2KW11, Signal lines contained in the first unit; 2.2KW12, Clear line contained in the first unit; 2.2K1, RS memory circuit in the processing unit of the dual-code dual-control method; 2.2K11, Signal input terminal of RS memory circuit in the processing unit of the dual-code dual-control method; 2.2K12, Clear input terminal of RS memory circuit in the processing unit of the dual-code dual-control method; 2.2K13, Output terminal of RS memory circuit in the processing unit of the dual-code dual-control method; 2C, Output terminal series of the decoding processing system.

[0061] Figure 6 This is a schematic diagram showing the relationship between the multi-code, multi-control decoding processing system and the execution system.

[0062] In the diagram: 2. Decoding processing system; 2.1. Decoding module in the decoding processing system; 2.1C. Output series of the decoding module in the decoding processing system, which is also the output series of the decoding processing system; 2C. Output series of the decoding processing system; 3. Execution system; 3.1. First unit of multiple execution units with the same structure in the execution system; 3.11. Input terminal of the first unit in the execution system; 3.12. Output terminal of the first unit in the execution system; 3.X. Multiple execution units with the same structure omitted in the execution system; 3W. Input series in the execution system; 3C. Output series of the execution system, which is also the output series of the receiving device of a large-capacity transmitting device. Specific implementation examples

[0063] To clearly and completely express the three aspects of the existence of this application document, it is expressed in nine parts: I. Relevant Explanation of the Applicant's Special Project 1.1 The value and significance of this application.

[0064] This application is one of the core projects in a series of "special projects" that our company has been developing for a long time. The existing achievements of the "special project series" are that using a wireless or wired telephone as a telephone network control and processing platform can produce the following special benefits.

[0065] Firstly, it can process the 12 key signals from a telephone to generate numerous control signals, such as hundreds, for long-distance network control. Secondly, it can use the 12 key signals to achieve wireless remote control of numerous, such as hundreds, controlled entities at close range, thus realizing two control methods and being compatible with the third communication function. Hereinafter referred to as a decoding product.

[0066] Secondly, because it does not require broadband transmission, it does not require broadband cables or AC power that consumes current, similar to WIFI, which greatly improves the flexibility and ease of use.

[0067] Third, it requires no software maintenance, making it highly practical; it does not require a microprocessor, resulting in low cost; and it can be paired with batteries of small capacity, improving its ability to prevent accidents. Therefore, the final product is a very distinctive product.

[0068] The documents in this application are an indispensable technical component of the complete product. The main task of this application is to convert existing technology, publication number CN118553083A, into radio remote control receiving signals to control numerous, such as hundreds, of controlled objects within a given area.

[0069] 1.2. Macroscopic Description of the Applicant's Launching Device: Launching device, Publication No.: CN118553083A The macroscopic principle of transmission is that a dual-control method is used on the encoding integrated circuit such as 301, but it follows all the rules of the encoding integrated circuit 301, so it can easily transmit numerous, such as hundreds, of control signals. Moreover, each encoded signal is independent of each other, that is, 100 signals are divided into ten control groups or units, and each control group can control ten specific objects, so hundreds of control objects can be controlled. Each specific transmitting target corresponds to a single data input bit in the coding integrated circuit within its group. Therefore, the entire transmitting device contains multiple coding integrated circuits such as 301. The 100 signals, according to the grouping or unit rules and the control rules for the controlled object within each group, correspond to a single input bit line of all coding integrated circuits such as 301. Therefore, the launch procedure is to first use 12 buttons to select the control group where the controlled object is located, that is, the coding integrated circuit in the control group, and then select the specific input bit line of the coding integrated circuit in the control group. This leads to the following characteristics: First, the transmitting device can use 12 telephone keypad signals, replacing the 100 analog switches and the tight connection of all the encoding integrated circuits such as the 301. Each 301 encoding integrated circuit has four outputs, thus enabling the generation of numerous control signals. Second, the selection of 10 control group signals and the 10 encoded signals within each group using the 12 telephone keypad signals is random and arbitrary. This is equivalent to the arbitrary selection of the 100 analog switches required by the 100 encoding integrated circuits. Third, the ability to generate patterns of long-duration and short-duration transmissions creates the necessary conditions for developing various receiving and processing methods.

[0070] 1.3. Explanation of Supporting Macroeconomic Key Points for This Measure This receiving method, as long as the decoding integrated circuit and the transmitting device's encoding integrated circuit 301 correspond, can easily achieve the reception of numerous signals, such as 100. The advantages are: First, a single decoding integrated circuit, TDH6300, can receive four coded signals, equivalent to the function of four complex extensions in some solutions, thus facilitating the control of numerous signals and producing effects that some products cannot achieve. Second, because it uses a mature pairing of radio transmitting codecs such as 301 and receiving decoding circuits such as TDH6300, the principle of transmission and reception is reliable. Third, the innovation of this technical measure lies in utilizing the characteristics of transmitting both long and short signals to receive and process them into various different logical effects, thus comprehensively improving the electrical performance of radio remote control. Fourth, although the transmitting device solves the interface relationship between the 12 buttons of the telephone and the encoding integrated circuit, this measure still has many contradictions that need to be resolved.

[0071] It should be noted that all measures in this application utilize all the characteristics of existing launching devices, which will not be repeated hereafter.

[0072] Second, the current state of decoding product related technologies. According to the search, there are a number of known patented decoding products, and they have been authorized, which shows that this solution has been fully recognized and has certain advantages in terms of network control.

[0073] However, on the other hand, the communication methods transmitted between the network control signals and the controlled objects after processing still fall short of societal requirements and need further enrichment and development, which is precisely the issue raised in this application.

[0074] The main shortcomings in the transmission problem are as follows: One type of case only proposes using decoding integrated circuits to form decoding products, but does not address how the decoded signal is connected to the controlled entity; One type of case involves directly connecting the decoded signal to the controlled object via wired electricity; One type of situation is that although remote control communication can be achieved using radio transmission, it is impossible to control up to 100 signals using only 12 buttons on a telephone, and some receivers are quite complex. Because the first step of the launch is flawed, it is difficult to further improve the radio reception performance proposed in this application.

[0075] III. Examples of the Multi-Code Reception Method in this Scheme 3.1 The main significance of forming examples of the multi-code reception method First, it can accept numerous independent signals from the applicant's existing results, such as the above 100 control signals; second, the numerous controlled objects will not interfere with each other; third, the circuit is simple and easy to implement, avoiding the complex extension form used in some documents, and can easily generate control functions for numerous signals.

[0076] This application corresponds to an existing work, whose publication number is CN118553083A. 3.2. Extended significance, operation and principle of multi-code reception method That is, it can form a system that controls multiple controlled entities, and each controlled entity can implement various program logic controls.

[0077] The main principle behind this formation is explained in detail below: multiple control signals are used to control a control entity, and each signal becomes a logic of a controlled entity.

[0078] 3.3 Specific Composition and Structure of Multi-Code Reception Method As attached Figure 1 As shown, a receiving device for a high-information-capacity transmitting device includes a radio remote control carrier receiving module, a decoding processing system, and an execution system. The output of the radio remote control carrier receiver module is connected to the input of the decoding processing system. The output of the decoding processing system is connected to the multi-bit input of the execution system. The multi-bit output of the execution system is the output of the receiver of a transmitter with a large amount of information. The decoding processing system mainly consists of a decoding module and a logic processing module. The decoding module contains one or more decoding integrated circuits, and the output series of the decoding integrated circuits is the output series of the decoding module. The logic processing module contains one or more identical logic processing units, which contain the main components of memory circuits. The inputs of multiple logic processing units are the input series of the logic processing module, and each logic processing unit input is connected to the output of the decoding module. The outputs of each logic processing unit constitute the output of the logic processing module. The outputs of multiple logic processing modules form the output series of the decoding processing system. Each output of the decoding processing system output series is connected to the input of one of the many execution units in the execution system, outputting the received and scientifically processed logic signal to the execution system.

[0079] The following points should be noted in the above examples: For the radio remote control receiver template, either super-regenerative or superheterodyne types can be selected.

[0080] In this example, the decoding integrated circuit is paired with a learning code or rolling code type encoding and decoding integrated circuit; the decoding integrated circuit uses TDH6300 / PIC16F630, etc.; the execution unit can be composed of power amplifier circuits and relays, or it can be a power amplifier electronic circuit represented by a thyristor; the connection between the execution unit and the controlled object can be direct connection; or it can be converted and converted through a power socket, that is, the output of this measure is first connected to the power socket, and the control part of the relevant program of the controlled object is inserted into the controlled power socket to become a whole.

[0081] 3.4 Explanation of the basic logic principle of the multi-code reception method example operation: Operating instructions: As mentioned in Clauses 1 and 2 above, first use the 12 buttons to select the control group where the controlled object is located, that is, the encoding integrated circuit within the control group, and then select the specific input bit line of the encoding integrated circuit within the control group.

[0082] Basic Logic Principles 3.41. Based on the transmitting device, the transmission connection and conversion between the network control signal and the encoding integrated circuit is completed. That is, up to 100 encoded signals can be generated using 12 telephone key signals. The details have been introduced above. Moreover, this application can learn and pair with multiple decoding integrated circuits. Therefore, each received control signal is independent and will not interfere with each other. The circuit is also simple.

[0083] 3.42. The decoding integrated circuit in the decoding module has multiple independent signal output terminals and corresponding encoding integrated circuits of the transmitting device. The multi-bit output terminals of the decoding module are connected and cooperate with multiple logic units in the logic processing module. The number of encoding integrated circuits in the transmitting device can generate 100 signals. The decoding integrated circuits in the decoding module can be easily paired with them. Thus, this application can receive, decode, and process numerous signals, such as 100 independent signals.

[0084] 3.43. Furthermore, since the units within the decoding module contain the main components of memory circuits, and with the cooperation of related circuits, it can generate signals that recognize and process different states output by the decoding integrated circuit, producing corresponding logical effects to control the controlled object, thereby greatly improving the performance of radio remote control transmission. For details, please refer to the relevant explanations below.

[0085] 3.44. Based on the multiple logic processing units of the decoding processing system, each unit is connected to and controls one execution unit in the execution system. One control unit can control one controlled object. The execution system consists of numerous execution units, so the execution system can control many, such as 100, controlled objects.

[0086] 3.45. Based on the fact that this measure has the ability to receive and process 100 control signals, this measure can also be extended to control multiple control bodies, and for each control body, multiple logical program function control forms can be implemented, thereby improving the performance of radio reception.

[0087] 3.5. Explanation of the principle of extended significance of multi-code reception method examples: 3.51. That is, it can form a system that controls multiple controlled entities, and each controlled entity can be subject to various logical controls.

[0088] The main method is that numerous control signals, such as 100 signals, can be divided into several groups, namely X groups. Each group corresponds to a control body. Since each group has multiple control signals, and each control signal can generate a corresponding logic for the corresponding control body, it is possible to control multiple programs of X control bodies.

[0089] 3.52. The specific operating methods and principles are similar to those in clause 3.4, namely, the explanation of the basic logical principles of receiving.

[0090] IV. Example of the first form of the single-code dual-control method in this scheme 4.1 The significance of the first form of the single-code dual-control method 4.11. Basic Significance The first significance is to transform the same control signal into two logical signals with different meanings.

[0091] This means transforming 100 control signals into 200 logic signals, thereby greatly enhancing the function of radio transmission and remote control.

[0092] The second significance is the requirement for accurate coordination between transmission and reception logic. Since no one is present at the location where the controlled object is located, if an unexpected signal is missed in the radio transmission system, the controlled object cannot relay the information back to the operator. Therefore, the transmitted signal must correspond precisely to the transmitted logic, regardless of the initial state of the controlled object. This allows for the repeated transmission of the same signal in both states to avoid accidental signal misses. For example, this cannot be achieved using a T-flip trigger. While a T-flip trigger can generate two logical states with the same signal, the operator, unaware of the controlled object's initial state, might produce the opposite logical result.

[0093] The third significance is that it conforms to the operating habits of a certain type of person; since the single-code dual-control method has three forms in this application, this is the first form of one of them.

[0094] 4.12. Extended Meaning That is, it can form control over multiple controlled entities, and each controlled entity can be subject to various logical controls.

[0095] The main principle behind this is that 100 control signals can be increased to 200, thus forming the principle of extended meaning of multi-code reception method.

[0096] 4.2 Composition and Structure of the First Form Example of the Single-Code Dual-Control Method As attached Figure 2 As shown, a receiving device for a high-information-capacity transmitting device includes a decoding processing system, which mainly consists of a decoding module and a logic processing module. The decoding module contains one or more decoding integrated circuits, and the output series of the decoding integrated circuits is the output series of the decoding module. The logic processing module contains one or more logic processing units with the same structure. Each logic processing unit consists of a single output terminal of the decoding module, an integrator circuit, and a flip-flop or counter with memory. The single output terminal of the decoding module is connected to the signal input terminal of the flip-flop or counter with memory. The single output terminal of the decoding module is connected to the input terminal of the integrator circuit. The output terminal of the integrator circuit is connected to the clear input terminal of the flip-flop or counter. The output terminal of the flip-flop or counter is also a single output terminal of the logic processing unit and the decoding processing system.

[0097] The relevant matters are explained as follows: (1) The TDH6300 decoding integrated circuit is connected to become a transient output mode, which is characterized by being 1 when the output signal is active and 0 when the signal disappears.

[0098] (2) Select the 4017 counter as the trigger and counter with memory. And connect it in the form of bottom edge trigger.

[0099] (3) The corresponding transmitting device in the example still has the function of multi-code transmission of existing results, and still has the ability of long transmission and short transmission.

[0100] 4.3 Operation steps of the transmitting device corresponding to the first form of the single-code dual-control method: First, the corresponding control object is determined, and the operation method is as follows: multi-code reception method. Second, transmitting a signal to the same control object can produce a transmission state for a relatively long time, referred to as long transmission below. Third, transmitting a signal to the same control object can produce a transmission state for a relatively short time, referred to as short transmission below. Thus, the logic of allowing the controlled object to generate two different state meanings with long transmission and short transmission states is as follows.

[0101] 4.4 Explanation of the basic circuit principle in the first form example of the single-code dual-control method Since the decoding integrated circuit is connected in a transient output form, the output of the decoding integrated circuit will change with the length of the transmission time. That is, if the transmission is long, the decoding integrated circuit TDH6300 will output a long signal, and vice versa.

[0102] Therefore, the operation method of this measure is the same as the first form of the single-code dual-control method. Each transmission generates only one coded signal, so the TDH6300 receives a unique, corresponding signal, thus forming the basis of single-code control. Based on this, long and short signal operation methods are then used to realize the logical meaning of two different signals.

[0103] Based on the above structure and connection relationship, when the decoding integrated circuit outputs a short signal, the input terminal of the counter 4017 receives a trigger signal, and the output terminal outputs a signal, which becomes a control signal for the next stage execution unit, such as an "on" signal. When a short signal is received, because the integration time of the integrator circuit has not been completed, there is no output, and the counter 4017 is not closed, so the output terminal outputs a normal signal, which becomes a state control signal, such as an "on" signal.

[0104] When the TDH6300 decoding integrated circuit outputs a long signal, the output of the integrator circuit outputs a gate signal, and the output of the counter 4017 will not have a signal output; that is, when a long signal is received, because the integrator circuit has an output, the counter 4017 is gated, so there is no normal output, and it can only become a control signal in another state, such as a closed signal.

[0105] During the time before the integrating circuit reaches its position, i.e. during the integration process, the TDH6300 decoding circuit always outputs a high bit; since the counter is connected in a bottom-edge triggered form, it will maintain its original output state.

[0106] The decoder output is 1 when there is a valid signal and 0 when there is no signal. Therefore, at the special point where it changes from 1 to 0, a falling edge occurs. However, because the integrator circuit has already output the high-order bit for clearing, the counter 4017 is blocked, and clearing to 0 will not produce an output. After the integrator circuit is in place, through the coordination of various circuit details, the high-order bit after the integration is in place, that is, the transient process of the special lower edge of the decoder integrated circuit TDH6300 changing from 1 to 0, can be delayed. The counter will still not produce an output, and no race condition will occur.

[0107] For the reasons mentioned above, the most significant feature of this measure is that no risky competition will occur during the entire process of operating long and short signals in the logic, ensuring logical reliability and uniqueness, thus making it an excellent circuit.

[0108] Since each transmission generates only one bit of coded signal, the received signal is unique. The long and short signals become two different logical meanings of the corresponding unique control signal, thus forming the first form of single code dual control.

[0109] Because the logic of single-code dual control is independent of the initial state of the controlled object, it is only related to the transmission state, that is, to the corresponding decoding output. Therefore, if the corresponding logic signal required is repeatedly operated, the accident caused by missing numbers can be completely avoided.

[0110] The three forms of the single-code dual-control method, including the first form mentioned here, can fully utilize control signal resources. For example, the existing 100 independent control signals can be further increased to 200 logic signals. Moreover, long and short signals will not compete for each other, ensuring logical uniqueness and reliability, which are significant advantages.

[0111] 4.5. Explanation of the logical principle of the extended meaning of the first form example of the single-code dual-control method: 4.51. That is, it can form control over multiple controlled entities, and each controlled entity can be subject to various logical controls.

[0112] The measures and principles are as follows: the first form of the single-code dual-control method can increase the number of signals controlled by the multi-code receiving method from 100 to 200, thus forming an extension of the multi-code receiving method.

[0113] 4.52. The specific operation method and formation principle are similar to the main operation method and basic logical principle of the first form of the single code dual control method.

[0114] V. Implementation of the second form of the single-code dual-control method in this scheme: 5.1 The significance of the second form of the single-code dual-control method 5.11. Basic Significance The significance is twofold: firstly, it possesses the primary advantage of the first form of the single-code dual-control method, enabling the conversion of 100 received signals into 200 signals with different logical meanings; secondly, it requires less manufacturing technology, as it does not involve issues related to upper or lower edge triggering. The logical principle is simpler, and production is easier.

[0115] 5.12. Extended Meaning Similar to the first form of the single-code dual-control method, it can still be improved to 200 signals to control multiple controlled entities, and each controlled entity can implement multiple program logic controls.

[0116] 5.2 Composition and Structure of the Second Form of the Single-Code Dual-Control Method As attached Figure 3 As shown, a receiving device for a high-information-capacity transmitting device includes a decoding processing system, primarily composed of a decoding module and a logic processing module. The decoding module contains one or more decoding integrated circuits, and the output series of these integrated circuits is the output series of the decoding module. The logic processing module consists of one or more logic processing units with identical structures. Each logic processing unit comprises a single-bit output line from the decoding module, a differentiating circuit, an integrating circuit, and a memory circuit with two trigger terminals. The inputs of the integrating circuit and the differentiating circuit are simultaneously connected to a single-bit output of the decoding module. The output of the differentiating circuit is connected to a single-bit signal input of the memory circuit, and the output of the integrating circuit is connected to another clear-to-zero input of the memory circuit. The single-bit output of the memory circuit is the output of the logic processing unit and also a single-bit output of the decoding processing system; this output is connected to a single-bit input of the execution system. In this example: the memory circuit uses an RS trigger circuit; the decoding integrated circuit TDH6300 is configured as a transient output.

[0117] 5.3 Explanation of the second form of the single-code dual-control method: operation method and logical principle 5.31. Explanation of Operation Methods and Basic Logic Principles The operation method is the same as the first form of the single-code dual-control method.

[0118] Basic Principles Explanation Because the TDH6300 decoder is connected to provide transient output, the output of the TDH6300 will change according to the duration of transmission. That is, if the transmission is long, the TDH6300 will output a long-duration signal, and vice versa.

[0119] Therefore, the operation method of this measure is still the same as the first form of the single code dual control method.

[0120] Since each transmission generates only one coded signal, the received signal is unique, forming the basis of single-code control. Long and short signals thus represent two logical signals corresponding to a single unique object.

[0121] Based on the above connection relationship, when the decoding integrated circuit TDH6300 outputs a brief valid signal, the differentiating circuit will output a brief trigger signal, the integrating circuit will not output, and thus the RS memory circuit will be in a state with an output signal.

[0122] Although the differentiation process is very short, the RS memory circuit has been triggered and flipped, and can remember this very short trigger signal, outputting a signal with a long flip state. This can ensure the correctness of the differentiation signal logic of the short signal, and also output a control logic signal, such as an on state signal.

[0123] When the TDH6300 decoding integrated circuit outputs a relatively long effective signal, the integrator circuit will output a trigger signal. The differentiator circuit is isolated after the capacitor is fully charged, and eventually becomes a state with no output. Thus, the RS memory circuit becomes another logical state with no output signal, which is a kind of trigger effect of the integrator circuit. That is, when the long signal is output, the function of the differentiator circuit has ended and there will be no output; only the integrator circuit signal is triggered, so the logical relationship is clearly distinguished.

[0124] It should be noted that the duration of the effect of the differentiating circuit depends mainly on the parameters of the differentiating capacitor and resistor, and is basically unrelated to the duration of the operation.

[0125] Therefore, as long as the differential capacitor and resistor values ​​are adjusted correctly, it will not affect operating habits. This means that after prolonged operation, the memory circuit will not have a long differential effect that would affect electrical performance. In other words, the electronic circuit operates much faster than other programs, and this brief differential time has a negligible impact on engineering applications.

[0126] The performance of an integrator circuit depends primarily on its parameters; the time required to operate is greater than the integration parameters.

[0127] Therefore, as long as the corresponding timing parameters of the differentiating and integrating circuits are adjusted, it can both conform to the operating habits of long and short signals and produce accurate logical state results.

[0128] For the reasons mentioned above, after the logic ends, there is no risky competition between long and short signals; they will only produce the logical effect triggered by the corresponding signal.

[0129] During long signal processes, although there is an initial brief triggering process of the differentiating circuit, the time of the differentiating circuit parameters is very short, so in actual engineering, it has almost no effect on the controlled object, and its existence is almost imperceptible to humans. Under normal circumstances, it meets engineering requirements.

[0130] For the reasons mentioned above, the logic of long and short signals is clearly distinguished. Repeatedly operating the same signal will not affect the correctness of the logic due to the number of transmissions. The advantage is that it allows for multiple transmissions, avoiding unexpected missed signals.

[0131] Since this measure avoids the requirement of bottom edge triggering in the first form, the RS circuit logic triggering has lower requirements compared to other flip-flops, making production easier, reducing technical requirements, and improving reliability. Therefore, it has an advantage over the first form in this respect.

[0132] RS memory circuits can also store very short-lived differential circuit signals. The entire circuit logic is sensitive and reliable, meeting the requirements of ordinary control, making it an excellent circuit.

[0133] Based on this measure, the RS memory circuit in the logic processing unit has a different structure than the flip-flop or counter in the first form, resulting in superior performance. This forms the second of the three forms of the first receiving relationship, namely the single-code dual-control method. This form still has the function of receiving more signals and can once again double the performance.

[0134] 5.32. Explanation of the operation and principles of extended meaning: That is, the number of control signals can be increased to 200 to control multiple controlled entities, and each controlled entity can implement multiple program logic controls.

[0135] The specific operation method and formation principle are similar to the first form of single-code dual-control transmission. VI. Implementation of the third form of the single-code dual-control method in this scheme: 6.1 The significance of the third form of the single-code dual-control method 6.11. Basic Significance First, it has the main significance of having a single code dual control method; second, it has low production technology content, does not involve the problem of upper or lower edge triggering, and is easier to produce.

[0136] Third, it can overcome the theoretical shortcomings of the second form and can be used in higher-level applications.

[0137] 6.12, Extended Meaning The operation and principle are similar to the first form of the single-code dual-control method, that is, it can still be upgraded to 200 signals to form the control of multiple controlled entities, and each controlled entity can be subjected to multiple program logic controls.

[0138] 6.2 Composition and Structure of the Third Form of the Single-Code Dual-Control Method As attached Figure 4 As shown, the receiving device of a high-information-capacity transmitting device, in the third form of the single-code dual-control method, comprises the following structure: the decoding processing system mainly consists of a decoding module and a logic processing module. The decoding module contains one or more decoding integrated circuits, and the output series of the decoding integrated circuits is the output series of the decoding module. The logic processing module consists of one or more logic processing units with identical structures. Each logic processing unit consists of a single-bit output line from the decoding module, a differentiating circuit, an integrating circuit, a memory circuit with two trigger terminals, and a delay circuit. The input terminals of the integrating circuit and the differentiating circuit are simultaneously connected to a single-bit output terminal of the decoding module. The output terminal of the differentiating circuit is connected to a single-bit signal input terminal in the memory circuit. The output terminal of the integrating circuit is connected to another clear-to-zero input terminal of the memory circuit. The output terminal of the memory circuit is also connected to a delay circuit. The output terminal of the delay circuit is the output terminal of the logic processing unit and also a single-bit output terminal of the decoding processing system.

[0139] In this example: the memory circuit uses an RS trigger circuit; the delay circuit connected to the output of the memory circuit uses an integrator circuit.

[0140] The decoding integrated circuit TDH6300 is configured as a transient output.

[0141] 6.3. Explanation of the operational method and logical principle of the third form of the single-code dual-control method. 6.31. Explanation of Operating Methods and Basic Logic Principles Operating method The operation method is the same as the first form of the single-code dual-control method.

[0142] Basic Principles Explanation This main principle is derived from the second form.

[0143] In the second form of the measure, the logic process of the long signal involves a logic that is first triggered by a short differential and then becomes the logic effect of the long signal integration circuit, although the effect is small. This measure can eliminate this theoretically small deficiency by extending the time by the integration of a small time.

[0144] Because the electronic circuit operates at a very high speed, the triggering differential circuit and the newly added integral delay circuit have very short durations, so their effects are not apparent in practical engineering; they are merely a theoretical compensation. However, theoretically, its performance is superior to the second form.

[0145] The composition and connection relationships of this measure, as well as the long and short signal states, will ultimately prevent any risky competition. This is because during short-term transmission, only the differentiating circuit has an output. During long-term transmission, the differentiating circuit has no output, and only the integrating circuit has an output.

[0146] This measure evolved from the second of the three forms of the single-code dual-control method. Therefore, this form still has the function of receiving more signals and can once again double the signal reception.

[0147] 6.32. Explanation of the extended meaning, operation, and principles: That is, the number of control signals can be increased to 200 to control multiple controlled entities, and each controlled entity can be subject to various program logic controls.

[0148] The specific operation method and formation principle are similar to the first form of single-code dual-control transmission.

[0149] VII. Implementation example of the dual-code dual-control method in this scheme: 7.1 The significance of the dual-code dual-control method 7.11. Basic Significance First, the signals from the two outputs of a decoding integrated circuit are used to control the same object. For example, one control signal is used for the on state, and another control signal is used for the off state. The advantages are: 1) The logic is clear and unique, allowing for repeated operation and providing the necessary logic signals. The controlled object is unaffected by the initial state, avoiding signal omissions. 2) It conforms to the operating methods and habits of a specific group of people, eliminating the need for long-transmission or short-transmission operation methods. 3) The circuit is simple, production is easy, and 50 objects are sufficient to meet the requirements of many applications.

[0150] The specific operating method of the launching device is as follows: The 100 control signals were divided into 50 groups, with each group controlling one controlled entity. Each group had two control signals.

[0151] Directly manipulate the two corresponding symbols for each of the 50 controlled objects. One symbol represents a state, such as an "on" signal, and the other represents a second state, such as a "off" signal. By repeating the above steps, logical operations can be performed on any of the 50 groups of objects.

[0152] 7.12. Extended Meaning The basic meaning can be extended further to include the control of multiple controlled entities, and each controlled entity can form multiple logical controls of programs.

[0153] The main principle behind this is that numerous control signals, such as 50 signals, can be divided into several groups, and each group can be further divided into Z smaller units. Each unit controls a controlled entity, and the principle formed thereafter is similar to the extended principle formed by all the measures mentioned above.

[0154] 7.2. Example Structure of the Dual-Code Dual-Control Method As attached Figure 5 As shown, the decoding processing system of the receiving device of a high-information-capacity transmitting device mainly consists of a decoding module and a logic processing module. The decoding processing system has numerous output terminals, such as 100, with each pair of output terminals forming an output unit. Each output unit is connected to one logic processing unit within one of the numerous logic processing modules, such as 50. Each logic processing unit has the same structure, consisting of a memory circuit with a double-ended trigger terminal. One signal trigger output terminal of one output unit of the decoding processing system is connected to the signal input terminal of the memory circuit; the other clear-to-zero output terminal is connected to the clear-to-zero input terminal of the memory circuit.

[0155] 7.3 Explanation of the operation method and logic principle of the dual-code dual-control method 7.31. The operating method is as follows: Two control signals control one controlled entity. That is, two outputs of the decoding processing system form an output unit, and one output unit controls one controlled entity. 100 signals control 50 corresponding controlled entities. Determining the specific controlled object means determining a specific output unit in the decoding processing system. Then, determining the corresponding logic for that output unit involves operating one or both output signals of that output unit. For example, given existing results, 100 control output signals can be divided into 50 output units, meaning 50 controlled entities can be controlled. Operating the 18th output unit controls the 18th controlled entity. Operating one of the two outputs of that 18 output units sets the controlled entity to one control state; the other, a cleared output, sets it to another control state.

[0156] 7.32. The logical principle behind its formation: Basic principles Based on the above connection relationship and operation method, when the decoding processing system receives the signal or clear signal from the transmitting device, the input terminal of the memory circuit RS circuit will be triggered by different signals, and the output terminal of the memory circuit RS circuit will output the trigger and clear signals to the execution system respectively due to the different trigger signals; thus forming the circuit mode of separate triggering of the dual code dual control method.

[0157] The RS memory circuit in each logic processing unit adopts the standard method of separate triggering in logic circuits, so the logic is reliable.

[0158] The advantages of this control system are: first, the logic signals are unique and accurate; second, the corresponding logic signals can be repeatedly operated on, avoiding accidental omissions; third, it conforms to the operating habits of a certain group of people, increasing applicability; and fourth, the numerous identical logic processing units are in the simplest form, containing only a single double-ended triggered memory circuit, which brings multiple benefits.

[0159] Explanation of extended meaning and logical principles The 100 control signals are divided into 50 groups, which are then further divided into Z smaller units. Each unit controls a controlled object, and the resulting principle is similar to the extended principle formed by all the measures mentioned above.

[0160] The specific launch methods and the principles and operations of reception are similar to those in Clause 7.31.

[0161] VIII. Implementation Examples of the Multi-Code Multi-Control Method in this Scheme: 8.1 The significance of the multi-code, multi-control method Firstly, it can be used to generate numerous, such as hundreds, program control functions for the same controlled object. For example, it can be used for controlling numerous nodes in an assembly line, or for controlling the movement and trajectory of a body.

[0162] Secondly, it can generate three operation methods, resulting in three different logics.

[0163] 8.2 The operating steps and three operating methods of the multi-code multi-control method transmitter are as follows: As explained in Clause 3.2 above, existing results have shown that a telephone with 12 buttons can be used to select and transmit arbitrarily 100 control signals. Therefore, this multi-code receiving and multi-control method can achieve three different logical effects.

[0164] Operation Method 1: Operate the 100 existing control signals in the order of their numbers 1 to 100. Operate sequentially on the first group, i.e., the first specific number in the unit, and then sequentially operate on the second to the tenth number in the same group, i.e., the unit.

[0165] Repeat the same process for the second group, i.e., the first number of the unit, until the 10th number.

[0166] Operate the third, fourth, and so on up to the tenth unit using the same method. Operate the ten numbered points of each unit sequentially according to the aforementioned method. This will create a total of 100 program control points.

[0167] Method 2: Take the 100 existing control signals, first transmit them according to one rule, and then change to another rule. For example, change the sequence to transmit from largest to smallest, or only use a part of the sequence, etc. Referring to the method in the previous article, use the new rule to select the group and group class of the controlled object.

[0168] Method 3: Take the 100 existing control signals and transmit them randomly. For example, randomly control a point or a portion of the 100 control points. Use the 12 telephone buttons to select the 100 control signals, their group, and then select the specific control object within the group.

[0169] 8.3 Composition and Structure of Examples of Multi-Code Multi-Control Method As attached Figure 6 As shown, a receiving device for a high-information-capacity transmitting device includes a decoding processing system, which is mainly composed of a decoding module. The decoding module contains one or more decoding integrated circuits. The output series of the decoding module is also the output series of the decoding processing system, which is connected to the input series of the execution part, thus forming a third type of multi-code multi-control circuit receiving form.

[0170] 8.4 Circuit Logic Principles Formed by the Multi-Code Multi-Control Method Example Based on the above composition and connection relationships, the receiving configuration formed by the decoding integrated circuit is as follows: First, among numerous decoding integrated circuit output series, only one output terminal has an output. Second, when the current output terminal has a signal, the previous output terminal automatically shuts off the previously received signal.

[0171] Since the transmitting device can transmit according to three rules, and the decoding integrated circuit and the encoding integrated circuit of the transmitting device in this measure have been learned and paired, they can be received according to the three rules of transmission.

[0172] 8.5. Key Features of the Multi-Code, Multi-Control Formation First, it can control 100 kinds of logic programs or nodes of the controlled object; Secondly, it can generate corresponding control logic states for the three operation methods.

[0173] Thirdly, consider combining the single-code dual-control method to generate a logic program control with 200 control signals. The operation method refers to the three forms of the single-code dual-control method and the dual-code dual-control method, including their principles and operation methods.

[0174] IX. Explanation of relevant matters in this application: 9.1. Since this is not an actual engineering design drawing, the connections between circuits do not emphasize or include details such as interface circuits. The significance of interfaces or detailed circuits is as follows: For example, when a higher-level circuit triggers a lower-level circuit, the phases are mismatched, requiring a 0 signal, while the higher-level circuit requires a 1 signal; therefore, an interface circuit inverter needs to be added. Similarly, to ensure more accurate and reliable logic, relevant detailed circuits should be added between two circuits to guarantee greater logic accuracy, etc.

[0175] 9.2. Various embodiments disclosed in this application have been described above. The above description is exemplary and not exhaustive, and is not limited to other described embodiments; for example, the division of components in the scheme can be freely and flexibly combined, and the digital circuit expression can be flexible, and certain modifications or changes can also be made, which also fall within the protection scope of this application. The terminology used herein is intended to best explain the principles of the various embodiments, and is not intended to limit. Components with the same logical function but different names also fall within the protection scope of this application.

Claims

1. A receiving device for a high-information-capacity transmitting device, comprising a radio remote control carrier receiving module, a decoding processing system, and an execution system; characterized in that... The output of the radio remote control carrier receiver module is connected to the input of the decoding processing system. The output of the decoding processing system is connected to the multi-bit input of the execution system. The multi-bit output of the execution system is the output of the receiver of a transmitter with a large amount of information. The decoding processing system mainly consists of a decoding module and a logic processing module. The decoding module contains one or more decoding integrated circuits, and the output series of the decoding integrated circuits is the output series of the decoding module. The logic processing module contains one or more identical logic processing units, which contain the main components of memory circuits. The inputs of multiple logic processing units are the input series of the logic processing module, and each logic processing unit input is connected to the output of the decoding module. The outputs of each logic processing unit constitute the output of the logic processing module, and the outputs of multiple logic processing modules form the output series of the decoding processing system. Each output of the decoding processing system output series is connected to the input of one of the many execution units in the execution system, outputting the processed logic signal to the execution system. The first form of the logic processing module is that each logic processing unit consists of a decoding module with one output, an integrator circuit, and a flip-flop or counter with memory. The decoding module with one output is connected to the signal input of the flip-flop or counter with memory. The decoding module with one output is connected to the input of the integrator circuit. The output of the integrator circuit is connected to the reset input of the flip-flop or counter. The output of the flip-flop or counter is also a one-bit output of the logic processing unit and the decoding processing system. The decoding integrated circuits are connected in the form of transient output. The output of the decoding integrated circuit will form a state of long-term or short-term output signal depending on the transmission situation. When the decoding integrated circuit outputs a short signal, there is a trigger signal at the input terminal of the flip-flop or counter signal, and a signal output at the output terminal. When the decoding integrated circuit outputs a long signal, the signal output by the integrating circuit causes the reset terminal of the flip-flop or counter to be blocked, and there is no output at the output terminal; Based on the above reasons, the different time states of the output of a single-bit decoded signal generate two different forms of logic signals, doubling the control signal. Furthermore, the long and short signals do not cause any obstacles or competition throughout the entire logic process, ensuring reliable and unique logic. This forms the first of the three forms of the single-code dual-control method for the first type of receiving relationship. This form can be extended to control multiple controlled entities, and each controlled entity has the advantage of multiple logic program controls. The transmitting device has been able to generate up to 100 encoded signals using 12 telephone keypad signals. The decoding integrated circuit can correspond to these signals, and the control signals are independent and unique. The circuit is simple and can receive, decode, process, and transmit the same number of independent signals. The output series of the decoding processing system is connected to the input series of multiple execution units in the execution system. Each execution unit can control one object, so the execution system can control the same number of controlled objects. It can also be extended to control multiple control bodies. For each control body, multiple logical program function control forms can be implemented, which improves the performance of radio reception. The logic processing unit in the decoding module contains the main components of the memory circuit. With the cooperation of related circuits, it can form signals that recognize and process different states output by the decoding integrated circuit, and generate three corresponding logic effects to control the controlled object, thereby further improving the performance of radio remote control transmission.

2. The receiving device of a transmitting device with a large information capacity as described in claim 1, characterized in that: wherein, The logic processing unit consists of a decoder board with one output line, a differentiator circuit, an integrator circuit, and a memory circuit with two trigger terminals. The input terminals of the integrator circuit and the differentiator circuit are connected to one output terminal of the decoder board. The output terminal of the differentiator circuit is connected to one signal input terminal of the memory circuit. The output terminal of the integrator circuit is connected to another clear input terminal of the memory circuit. The one output terminal of the memory circuit is the output terminal of the logic processing unit and also one output terminal of the decoder processing system. This output terminal is connected to one input terminal of the execution system. Based on the connection of the decoding integrated circuit, the output becomes transient, so the decoding integrated circuit will form a state of long-term or short-term output signal depending on the transmission situation; Because the logic states of the differential and integral circuits are different when the decoding integrated circuit outputs long and short signals, and they are triggered separately, the memory circuit will eventually have two different output states. Based on the difference between the logic processing unit and the first form, the requirements are reduced in many aspects on the basis of logical reliability, which is conducive to productization, thus forming the second form of the single code dual control method; The second form can double the number of control signals and can be extended to control multiple controlled entities, while each controlled entity has the advantage of multiple logic program controls.

3. The receiving device of a transmitting device with a large information capacity as described in claim 1, characterized in that: wherein, The third form of the single-code dual-control method consists of a logic processing unit composed of a decoding board with one output line, a differentiating circuit, an integrating circuit, a memory circuit with two trigger terminals, and a delay circuit. The input terminals of the integrating circuit and the differentiating circuit are connected to one output terminal of the decoding board. The output terminal of the differentiating circuit is connected to one signal input terminal of the memory circuit. The output terminal of the integrating circuit is connected to another clear input terminal of the memory circuit. The output terminal of the memory circuit is also connected to a delay circuit. The output terminal of the delay circuit is the output terminal of the logic processing unit and also one output terminal of the decoding processing system. Since the decoding integrated circuit is connected to form a transient output, the decoding integrated circuit will follow the transmission to become a state of output signal for a long time or a short time. Based on the fact that when the decoding integrated circuit outputs long and short signals, the logic states of the differential and integral circuits are different and they are triggered separately, the memory circuit will become two output signal states. Based on the newly added extended time circuit, while retaining the principle and advantages of the second form, the performance of the second form of the logic processing unit is improved, thus forming the third form of the single-code dual-control method; the third form can be extended to control multiple controlled entities, and the control of each controlled entity can realize multiple logic program controls.

4. The receiving device of a transmitting device with a large information capacity as described in claim 1, characterized in that: The decoding processing system mainly consists of a decoding module and a logic processing module. The multi-bit output terminals in the decoding processing system are arranged in pairs, forming an output unit that is connected to a logic processing unit in the logic processing module. Each logic processing unit has the same structure, consisting of a memory circuit with a double-ended trigger terminal. One signal trigger output terminal of one output unit in the decoding processing system is connected to the signal input terminal of the memory circuit; the other clear-to-zero output terminal is connected to the clear-to-zero input terminal of the memory circuit. Based on the above connection relationship, when the decoding processing system outputs a valid signal or a clear signal respectively, the two input terminals of the memory circuit are triggered by different logic signals, and thus output two different state signals to the execution system respectively. Under the premise of logical reliability, this is suitable for the operating habits of a certain type of person. This forms the receiving relationship of the separately triggered circuit in the second dual-code dual-control method. This relationship can also be extended to the control of multiple controlled entities, and the control of each controlled entity has the advantage of multiple logic control programs.

5. The receiving device of a transmitting device with a large information capacity as described in claim 1, characterized in that: The decoding processing system mainly consists of a decoding module; the decoding module contains one or more decoding integrated circuits, and the output series of the decoding module is also the output series of the decoding processing system, which is connected to the input series of the execution module, thus forming a third type of multi-code multi-control circuit receiving relationship; Based on the above composition and connection relationship, the decoding integrated circuit is inherently connected and forms a locked output form. Therefore, in the series of output terminals of the numerous decoding modules, there are two situations: firstly, only one output terminal has an output at each logic stage; secondly, when there is a signal at the current output terminal, the previous output terminal automatically shuts off the originally received signal. Since the decoding integrated circuit and the encoding integrated circuit of the transmitting board of the receiving device have been learned and paired, they can receive according to the transmission pattern. Based on the above composition, structure and characteristics, the receiving device can receive the three transmission modes of multi-code multi-control emitted by the transmitting device, producing three different logical effects.

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