Receiving scheme for transmission with large information amount

Abstract

The invention discloses a receiving scheme for transmitting a large amount of information, belongs to the technical field of information network remote control, and relates to an intelligent control information technology. The method is an indispensable technology in multiple achievements of an enterprise. The applicant has the following achievements: 1, numerous network control instructions such as hundreds of network control instructions are generated by directly using 12 keys of the telephone and can be converted into corresponding radio coding instructions again, and the application is mainly matched with 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 comprises a plurality of plates and a plurality of units which are connected according to a certain rule; the input end series of the rear system is connected with the pre-stage output end or the output end series, and the system is characterized in that firstly, the internal components of the systems are jointly composed of digital and analog circuits, and secondly, numerous control signals can be received; more importantly, signals in three different emission forms can be received, so that the advantages of belonging radio emission and reception are greatly improved.

Description

Technical Field

[0001] A receiving scheme for a large-information emission, belonging to the technical field of information network remote control, involving the simultaneous control of many objects at long and short distances through a communication network, and being an intelligent control information technology. Background Art

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

[0003] To enrich the varieties of network control, the applicant has proposed a new technical solution. The first feature is that it directly uses an ordinary telephone network, with wireless and wired telephones as the network control receiving platform. This platform can process the control instruction signals sent by the 12 keys of the telephone using classical digital circuits, resulting in many advantages. One of them is that it can achieve the control of 100 long-distance network control signals. The second feature is that it can also transmit the processed numerous network control signals to many control objects in the affiliated area in the way of radio remote control, and has a communication function. It is a product with a brand-new meaning and outstanding advantages.

[0004] For the convenience of description, the product formed by the principle of the telephone network is called a decoding product.

[0005] After retrieval, among the currently publicly known technologies, there are decoding products. The biggest gap from the applicant's existing achievements is that, firstly, the existing achievements have a strong information processing ability. It can convert the signals of the 12 keys of the telephone into 100 network control signals to generate long-distance network control. Secondly, it can convert the 100 network control signals into 100 signals transmitted by radio again, that is, use the 12 keys of the telephone to simulate the transmitting control switches of 100 coding integrated circuits to generate a short-distance remote control method and be compatible with the communication function. Thirdly, it can generate multiple transmitting methods, and this document generates multiple different logical effects after reception, greatly improving the performance of short-distance remote control.

[0006] This application corresponds to the existing achievement, and its publication number: CN118553083A The proposal of this application is mainly to support the above-mentioned existing achievement, generate corresponding reception to control the control body, and become an integral part of a complete product. The difficulties lie in that, firstly, it is necessary to achieve the above-mentioned multiple excellent performances; secondly, this application does not use relatively high-end microprocessors and other components, which has many benefits for reducing the production technical content, reducing the unit price, and improving the reliability, etc. Summary of the Invention

[0007] It is compatible with the applicant's existing achievements, receives the radio remote control signals sent by the existing achievements, and on this basis, has the following characteristics: First, it can accept numerous signals; second, the received objects will not interfere with each other; third, it can receive various transmission methods generated by the transmission achievements; thus, it forms a product with excellent properties together with the applicant's corresponding relevant achievements.

[0008] The main measures are as follows: 1. A receiving scheme for a large-information-volume transmission, which includes a radio remote control carrier receiving module, a decoding processing system, and an execution system; the feature is that the output end of the radio remote control carrier receiving module is connected to the input end series of the decoding processing system, the output end series of the decoding processing system is connected to the multiple input end series of the execution system, and the multiple output end series of the execution system is the output end series of a receiving scheme for a large-information-volume transmission.

[0009] The said decoding processing system is mainly composed of a decoding board and a logic processing board together. The decoding board contains one or more decoding integrated circuits, and the output end series of the decoding integrated circuits is the output series of the decoding board. The logic processing board contains one or more identical logic processing units. The logic processing unit contains the main components of the memory circuit. The input ends of the multiple logic processing units are the input end series of the logic processing board. Each input end of the logic processing unit is connected to the output end of the decoding board; the output ends of each logic processing unit form the output end of the logic processing board, and the output ends of the multiple logic processing boards become the output end series of the decoding processing system. One output end of the output end series of the decoding processing system is respectively connected to the input end of one execution unit among the numerous execution units of the execution system, and outputs the received and scientifically processed logic signals to the execution system.

[0010] Based on the fact that the transmission achievements have completed that up to about 100 encoded signals can be generated by 12 telephone keypad signals, the decoding integrated circuit of this application can correspond to it. The control signals are independent and unique, and the matching circuit is simple, and it can receive, decode, process, and output the same number of independent signals as the transmission.

[0011] Based on the fact that the output end series of the decoding processing system are respectively connected to the input end series of multiple execution units in the execution system, and each execution unit can control one object, so the execution system can control the same number of controlled objects, and can also be extended to the control of multiple control bodies, and for each control body, various logical program function control forms can be realized, which improves the performance of radio reception.

[0012] Based on the fact that the main components of the memory circuit are included in the logic processing unit in the decoding section, and with the cooperation of relevant circuits, it is possible to form signals that can identify and process different states of the output of the decoding integrated circuit, generate corresponding multiple logic effect reception methods to control the controlled object, and further improve the performance of wire and radio remote control transmission.

[0013] 2. A receiving scheme for a large-information transmission is characterized in that the decoding processing system is mainly composed of a decoding section and a logic processing section. The decoding section contains one or more decoding integrated circuits. The output series of the decoding integrated circuit is the output series of the decoding section. The logic processing section contains one or more logic processing units with the same structure. Each logic processing unit is jointly composed of one output terminal of the decoding section, an integrating circuit, a flip-flop or counter group with memory. One output terminal of the decoding section is connected to the signal input terminal of the flip-flop or counter with memory. The same output terminal of the decoding section is connected to the input terminal of the integrating circuit. The output terminal of the integrating circuit is connected to the clear input terminal of the flip-flop or counter. The output terminal of the flip-flop or counter is one output terminal of the logic processing unit and also the decoding processing system.

[0014] Based on the fact that the decoding integrated circuits are connected in a transient output form, the output terminals of the decoding integrated circuits will follow the transmission situation to form a state of long-time or short-time output signals.

[0015] Based on the fact that when the decoding integrated circuit outputs a short signal, there is a trigger signal at the signal input terminal of the flip-flop or counter, and there is a signal output at the output terminal.

[0016] When the decoding integrated circuit outputs a long signal, the signal output by the integrating circuit blocks the clear terminal of the flip-flop or counter, and there is no output at the output terminal.

[0017] Based on the output signal and disappearance state process at the output terminal of the decoding circuit, which is connected to the flip-flop or counter in a corresponding edge-triggered form, there will be no output state during the integration process.

[0018] For the above reasons, different time states of the output of a single-bit decoding signal generate two different logic signal forms, doubling the control signals, and there will be no hazard competition between long and short signals throughout the logic process. The logic is reliable and unique, thus forming the first excellent form among the three forms of the single-code dual-control method of the first receiving relationship. This form can be extended to the control of multiple controlled objects, and each controlled object has the advantage of multiple logic program controls.

[0019] 3. A receiving scheme for a large-information transmission is characterized in that: the decoding processing system is mainly composed of a decoding section and a logic processing section. The decoding section contains one or more decoding integrated circuits. The output series of the decoding integrated circuits is the output series of the decoding section. The logic processing section is composed of one or more logic processing units with the same structure. The logic processing unit is composed of an output line of one bit of the decoding section, 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 an output terminal of one bit of the decoding section. The output terminal of the differentiating circuit is connected to a signal input terminal of one bit in the memory circuit. The output terminal of the integrating circuit is connected to another clear input terminal of the memory circuit. An output terminal of one bit of the memory circuit is the output terminal of the logic processing unit and also an output terminal of one bit of the decoding processing system, and this terminal is connected to an input terminal of one bit of the execution system.

[0020] Based on the connection of the decoding integrated circuits to form a transient output form, the decoding integrated circuits will follow the transmission situation to form a state of outputting signals for a long time or a short time.

[0021] Based on the different logic states of the differentiating and integrating circuits when the decoding integrated circuits output long and short signals and the form of separate triggering, the memory circuit will finally become two different output states.

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

[0023] The second form can double the control signal and can also be extended to the control of multiple controlled objects, and each controlled object has the advantage of multiple logical program controls.

[0024] 4. A receiving scheme for a large-information transmission is characterized in that: the composition and structure of the third form of the single-code dual-control method is that the decoding processing system is mainly composed of a decoding section and a logic processing section. The decoding section contains one or more decoding integrated circuits. The output series of the decoding integrated circuits is the output series of the decoding section. The logic processing section is composed of one or more logic processing units with the same structure. The logic processing unit is composed of an output line of one bit of the decoding section, 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 an output terminal of one bit of the decoding section. The output terminal of the differentiating circuit is connected to a signal input terminal of one bit in 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, and the output terminal of the delay circuit is the output terminal of the logic processing unit and also an output terminal of one bit of the decoding processing system.

[0025] Based on the fact that the decoding integrated circuit is connected to form a transient output form, the decoding integrated circuit will follow the transmission and become a state of outputting signals for a long or short time.

[0026] Based on the different logic states of the differential and integral circuits when the decoding integrated circuit outputs long and short signals, and they are triggered separately, the memory circuit will become two states of output signals.

[0027] Based on the newly added extended time circuit, while retaining the principle and advantages of the second form, it improves the performance of the second form of the logic processing unit, thus forming the third excellent form of the single-code dual-control method; the third form can be extended to the control of multiple controlled bodies, and the control of each controlled body can also achieve program control of multiple logics.

[0028] 5. A receiving scheme for a large-information transmission is characterized in that the decoding processing system is mainly composed of a decoding board and a logic processing board. The multiple output terminals in the decoding processing system, every two output terminals form an output terminal unit of the system, and 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 dual-edge trigger terminals.

[0029] A signal trigger output terminal of one bit in an output unit of the decoding processing system is connected to the signal input terminal of the memory circuit; the other clear-0 output terminal is connected to the clear-0 input terminal of the memory circuit.

[0030] Based on the above connection relationship, when the decoding processing system outputs valid signals or clear-0 signals respectively, the two input terminals of the memory circuit are triggered by different logic signals respectively, so that two different state signals can be output to the execution system respectively. On the premise of logical reliability, it suits the operation habits of a certain group of people; thus forming an excellent way of the separately-triggered circuit of the third type of dual-code dual-control method for reception. This way can also be extended to the control of multiple controlled bodies, and for the control of each controlled body, there are also the advantages of multiple-logic control programs.

[0031] 6. A receiving scheme for a large-information transmission 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. The output terminal series of the decoding board, which is also the output terminal series of the decoding processing system, is connected to the input terminal series of the execution part, thus forming the third receiving form of the multi-code multi-control circuit.

[0032] Based on the above composition and connection relationship, the decoding integrated circuit is inherent and connected to a locked output form, so among the numerous decoding block output terminal series, only one output terminal has output each time in logic. Secondly, when there is a signal at the current output terminal, the previous output terminal automatically shuts down the originally received signal.

[0033] Based on the decoding integrated circuit in this method and the encoding integrated circuit of the transmission result, they have been learned to pair, so they can be received according to the transmission rules.

[0034] Based on the above composition, structure and characteristics, this measure can receive three transmission modes of multi-code and multi-control sent by the transmission results and produce three different logical effects. advantage

[0035] This application is an indispensable technology for the enterprise's special project; The first feature of the special project is that it directly uses ordinary telephone networks, wireless phones and wired phones as network control receiving platforms. The platform uses classic digital circuits to process the control command signals sent by the 12 buttons of the phone. There are many advantages. One is that it can achieve the purpose of controlling a large number of signals, such as 100 signals, over a long distance. Second, the processed 100 network control signals can be closely connected with radio codes in a scientific way and transmitted to the many control objects in the area by radio remote control. Third, it does not use devices such as microprocessors, which produces many advantages; Based on this scheme, it includes a radio remote control carrier receiving circuit, a decoding processing system, and an execution system; and is connected according to a certain rule; and can be scientifically paired with the transmitting results, thus forming two major technical features again.

[0036] The first feature is that the above components are mainly composed of digital circuits and analog circuits. The second feature is that a large number of corresponding emission results control signals can be received. More importantly, a variety of different emission form signals can be received.

[0037] The main advantages are as follows: 1. First, it can receive a large number of control signals sent by the transmitter, such as 100 radio remote control signals; second, the received signals will not interfere with each other, the line is simple, and the applicability is strong. It is referred to as the multi-code reception method.

[0038] Third, the multi-code receiving method can be extended to control multiple controlled objects, and multiple logical program functions can be generated for each controlled object.

[0039] 2. The most important thing is that it can be scientifically matched with the launch results to produce three launch schemes, which greatly improves the performance of radio remote control; 2.1. The first receiving solution proposes three receiving and processing circuits with different characteristics for the single-code dual-control method. Macroscopically, first, one type of signal is transformed into two different logical functions. The 100 independent signals transmitted can be further enhanced to 200 logical signals with different meanings. This not only makes full use of the control signal resources, but also has a reliable and unique logic, is independent of the initial state of the controlled object, and is convenient to use. Second, it can be extended to the control of multiple controlled bodies, and multiple logical program functions can be generated for each controlled body.

[0040] 2.2. The second receiving solution that can form a dual-code dual-control circuit is logically reliable, easy to use, very suitable for the operating habits of a certain group of people, and at the same time conforms to the operating habits of a certain group of people, enhancing performance. At the same time, it can also be extended to the control of multiple controlled bodies, and multiple logical program functions can be generated for each controlled body.

[0041] 2.3. The third form for implementing a multi-code multi-control circuit has three receiving methods.

[0042] 3. This application does not use relatively high-end components such as microprocessors, which has many benefits in reducing the production technical content, reducing the unit price, and improving reliability.

[0043] 4. Compared with wifi products, the finally formed product has a series of characteristic advantages, enriching network products.

[0044] First, the finally formed product, that is, the platform installation location does not require alternating current and broadband network cables, and is more flexible to use.

[0045] Second, it has a powerful information processing ability and has all the advantages described above.

[0046] Third, the formed product is power-saving, can be equipped with a battery with a small capacity, and has strong anti-accident ability.

[0047] Fourth, it does not require software installation and related maintenance, and does not create technological illiteracy.

[0048] Fifth, it is convenient to use. The paired transmission results can be operated with an ordinary mobile phone, including smart phones.

[0049] Sixth, it can achieve two control methods: long-distance remote control and short-distance remote control of multiple objects, and at the same time is compatible with the communication phone function. In addition, there are a series of other advantages. BRIEF DESCRIPTION OF THE DRAWINGS

[0050] Figure 1 It is a schematic diagram of the overall relationship of this application.

[0051] In the figure: 1. Radio remote control carrier receiving module; 1c. Output end of the radio remote control carrier receiving module; 2. Decoding and processing system; 2W. Input end series of the decoding and processing system composed of input ends of multiple decoding integrated circuits; 2.1. Decoding section in the decoding and processing system; 2.11. First decoding integrated circuit in the decoding section; 2.1X. Multiple identical decoding integrated circuits omitted in the decoding section; 2.11W. Signal input end of the first decoding integrated circuit in the decoding system, and also the first input end of the system; 2.1c. Output end series of the decoding section: 2.11C. Multiple output ends of the first decoding integrated circuit in the decoding section; 2.2. Logic processing section in the decoding and processing system; 2.2w. Input end series of the logic processing section; 2.21. First unit in the logic processing section; 2.21w. Input end of the first unit of the logic processing section; 2.2X. Multiple identical units omitted in the decoding section; 2C. Output end series of the decoding and processing system, and also the output end series of the logic processing section. 2.21c. Output end of the first unit in the logic processing section, and also one output end of the logic processing system; 3. Execution system; 3.1. First identical execution unit in the execution system; 3X. Multiple identical units omitted in the execution system; 3w. Input end series of the execution system; 3.1w. Input end of the first execution unit in the execution system; 3.1C. Output end of the first unit in the execution system; 3c. Output end series of the execution system, and also the output end series of a receiving scheme with a large amount of information transmitted.

[0052] Figure 2 It is a schematic diagram of the first form of the single-code dual-control method for multiple identical units in the logic processing section, hereinafter simply referred to as the first form.

[0053] In the figure: 2, decoding processing system; 2.1, decoding block in the decoding processing system; 2.1c, output terminal series in the decoding block; 2.1c1, the first output terminal in the output terminal series of the decoding block; 2.2, logic processing block in the decoding processing system; 2.2Y, schematic diagram of the first unit in the first form. 2.2W, input terminal series of the logic processing block; 2.2YW1, input terminal of the first logic processing unit in the first form; 2.2Y1, counter in the first processing unit in the first form; 2.2Y11, counter signal input terminal in the first processing unit in the first form; 2.2Y12, counter clear 0 input terminal in the first processing unit in the first form; 2.2Y2, integration circuit in the first processing unit in the first form; 2.2Y21, integration circuit signal input terminal in the first processing unit in the first form. 2.2Y22, output terminal of the integration circuit in the first processing unit in the first form; 2.2Y1c, output terminal of the memory circuit in the first processing unit in the first form, and also the first output terminal of the logic processing block and the decoding processing system. 2.2YX, omitted identical logic processing units in the first form of the logic processing block; 2C, output terminal series of the decoding processing system, and also the output terminal series of the logic processing block.

[0054] Figure 3 It is a schematic diagram of the second form of the single-code dual-control method for multiple identical units in the logic processing block, hereinafter referred to as the second form for short.

[0055] In the figure: 2, decoding processing system; 2.1, decoding block in the decoding processing system; 2.1c, output terminal series of the decoding block; 2.1c1, the first output terminal in the output terminal series of the decoding block; 2.2., logic processing block in the decoding processing system; 2.2R, schematic diagram of the first unit in the second form; 2.2R1, Rs memory circuit in the first unit of the second form; 2.2R11, Rs memory circuit signal input terminal in the first unit of the second form; 2.2R12, Rs memory circuit clear 0 input terminal of the first unit of the second form; 2.2R13, output terminal of the Rs memory circuit in the first unit of the second form; 2.2R2, differential circuit in the first unit of the second form; 2.2R22, output terminal of the differential circuit in the first unit of the second form; 2.2R3, integration circuit in the first unit of the second form; 2.2R32, output terminal of the integration circuit in the first unit of the second form; 2.2RX, omitted multiple identical units in the logic processing block of the second form; 2.2W, input terminal series of the logic processing block; 2.2RW1, input terminal of the first logic processing unit in the second form, and also the input terminal of one position in the input series of the logic processing block; 2C, output terminal series of the decoding processing system.

[0056] Figure 4It is a schematic diagram composed of multiple identical units in the logic processing section using the third form of the single-code dual-control method, hereinafter simply referred to as the third form.

[0057] In the figure: 2, decoding processing system; 2.1, decoding section in the decoding processing system; 2.1c, series of output terminals of the decoding section; 2.1c1, the first output terminal in the series of output terminals of the decoding section; 2.2, logic processing section in the decoding processing system; 2.2S, schematic diagram of the first unit in the third form; 2.2S1, Rs memory circuit in the first unit of the third form; 2.2S11, signal input terminal of the Rs memory circuit in the first unit of the third form; 2.2S12, clear-0 input terminal of the Rs memory circuit in the first unit of the third form; 2.2S13, output terminal of the Rs memory circuit in the first unit of the third form; 2.2S2, differential circuit in the first unit of the third form; 2.2S22, output terminal of the differential circuit in the first unit of the third form; 2.2S3, integral circuit in the first unit of the third form; 2.2S32, output terminal of the integral circuit in the first unit of the third form; 2.2S4, delay circuit in the first unit of the third form; 2.2S4C, output terminal of the first logic processing unit in the third form; also the first output terminal in the series of output terminals of the decoding logic processing system; 2.2SX, multiple identical units with the same structure omitted in the logic processing section of the third form; 2.2SW1, the first input terminal in the series of input terminals of the third form processing section; 2.2W, series of input terminals of the logic processing section; 2C, series of output terminals of the decoding processing system.

[0058] Figure 5 It is a schematic diagram composed of multiple identical units in the logic processing section using the dual-code dual-control method.

[0059] In the figure: 2, decoding processing system; 2.1, decoding section in the decoding processing system; 2.1C, series of output terminals of the decoding section; 2.1c1, the first output terminal in the series of output terminals of the decoding section; 2.2, logic processing section in the decoding processing system; 2.2K, schematic diagram of the first unit in the dual-code dual-control method form; 2.2KX, identical units omitted in the logic processing section of the dual-code dual-control method; 2.2w, series of input terminals of the logic processing section. 2.2wx, one of the input units composed of two lines in the input end series of the dual-code dual-control method logic processing section, 2.2KW1, the two-line in the input unit of the first logic processing unit of the dual-code dual-control method; 2.2Kw1, the signal line contained in the first unit; 2.2K1w2, the clear-0 line contained in the first unit; 2.2k1, the Rs memory circuit in the dual-code dual-control method processing unit; 2.2k11, the signal input end of the Rs memory circuit of the dual-code dual-control method processing unit; 2.2k12, the clear-0 input end of the Rs memory circuit of the dual-code dual-control method processing unit; 2.2k13, the output end of the Rs memory circuit of the dual-code dual-control method processing unit; 2c, the output end series of the decoding processing system.

[0060] Figure 6 It is a schematic diagram of the relationship connection between the multi-code multi-control method decoding processing system and the execution system.

[0061] In the figure: 2, the decoding processing system; 2.1, the decoding section in the decoding processing system; 2.1C, the output end series of the decoding section in the decoding processing system, which is also the output end series of the decoding processing system; 2C, the output end series of the decoding processing system; 3, the execution system; 3.1, the first unit of multiple execution units with the same structure in the execution system; 3.11, the input end of the first unit in the execution system; 3.12, the output end of the first unit in the execution system; 3.X, multiple execution units with the same structure omitted in the execution system; 3w, the input end series in the execution system; 3c, the output end series of the execution system, which is also the output end series of a reception scheme with a large amount of information transmission. Specific implementation examples

[0062] To clearly and completely express the three characteristics of this application document, it is divided into nine parts for expression: I. Related descriptions of the applicant's special project 1.1. The value and significance of this application.

[0063] This application is one of the core projects among many "special project series" developed by this enterprise for a long time. The existing achievements of the "special project series" are that using a radio or wired telephone as a telephone network control processing platform can have the following special significance.

[0064] First, after processing the 12 key signals of the incoming telephone, it can generate the ability to remotely control hundreds of control signals, and can also use the 12 key signals to achieve radio remote control of hundreds of controlled objects at close range, that is, to implement two control methods and be compatible with the third communication function. Hereinafter, it is simply referred to as the decoding product.

[0065] Second, since broadband transmission is not required, there is no need for broadband network cables similar to those required by Wi-Fi and alternating current that consumes electricity, greatly improving the flexibility of convenient use.

[0066] Third, no software maintenance is required, and it has strong practicability; no microprocessor is required, so the cost is low; it can be equipped with a battery with a small capacity, etc., improving the ability to prevent accidents. Therefore, the final product formed is a very characteristic product.

[0067] And the document of this application is an indispensable technical link for the complete product. Because the main task of this application is to convert the existing achievements, | its publication number: CN118553083A into radio remote control receiving signals to control numerous controlled objects such as hundreds in the area.

[0068] 1.2. Macroscopic key points of the applicant's emission results Emission results, publication number: CN118553083A The macroscopic emission principle is that a double-control method is adopted for the coding integrated circuit such as 301, but all the rules of the coding integrated circuit 301 are followed, so numerous control signals such as hundreds can be conveniently emitted. Moreover, each coding signal is independent, 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 emission object corresponds to one data input terminal in the coding integrated circuit within the corresponding group. Therefore, the entire emission result includes multiple coding integrated circuits such as 301; 100 signals, according to the grouping or unit rule and the control rule for the controlled object within each group, respectively correspond to one input terminal line of all the coding integrated circuits such as 301; Therefore, the emission operation procedure is to first use 12 buttons to select the control group where the control object is located, that is, the coding integrated circuit within the control group, and then select the specific input bit line of the coding integrated circuit within the control group; From this, the following characteristics can also be formed. First, 12 telephone key signals in the emission result can replace the 100 analog switches required by the coding integrated circuit and the close cooperation connection of all the coding integrated circuits such as 301. Each coding integrated circuit 301 has four outputs, so numerous control signals can be emitted. Second, the 12 signals of the telephone keys are used to randomly select 10 control group signals and 10 coding signals within the group, that is, the specific controlled objects are random. This is equivalent to the arbitrary selection of 100 analog switches required by 100 coding integrated circuits. Third, the rules of long-time emission and short-time emission can be generated, creating the necessary conditions for this measure to generate various receiving and processing methods.

[0069] 1.3. Macroscopic key points of the reception and matching of this measure This receiving measure can completely avoid the extremely complex forms in each extension of the measure in Comparative Document 2 as long as the decoding integrated circuit corresponds to the transmitting result encoding integrated circuit 301. And for the measure of this application, as long as a large number of corresponding decoding circuits are used, it can easily receive a large number of signals such as 100 signals; the second advantage is that a decoding integrated circuit TD6300 can receive four encoded signals, which is equivalent to the functions of four complex extensions in some solutions. Therefore, it can conveniently control a large number of signals and produce effects that cannot be achieved by some documents. Thirdly, because a mature radio transmission encoding such as 301 and a receiving decoding circuit such as TD6300 are paired. So the principle formed by transmission and reception is reliable. Fourthly, the innovation point of this technical measure lies in that on the basis of the above, by using the characteristics that the transmitter can transmit long signals and short signals, it can receive and process them into various different logical effects, so the electrical performance of radio remote control is comprehensively improved. Fifthly, although the transmitting result has solved the docking relationship between the 12 keys of the telephone and the encoding integrated circuit, there are still many contradictions to be solved in this measure.

[0070] It should be particularly noted that. All the measures in this application utilize all the characteristics of the existing transmitting results and will not be repeated later.

[0071] II. Current technical status of decoding products According to the search, there are a certain number of decoding products in the well-known patent system and they have been authorized, indicating that this solution has been fully affirmed and has certain advantages in the aspect of network control.

[0072] On the other hand, however, after the network control signal is processed, there is still a gap between the way of transmitting with the controlled object and the requirements of society, and it still needs to be enriched and developed, which is exactly the problem proposed by this application.

[0073] The main deficiencies in the transmission problem are as follows: One situation is that only the formation of a decoding product using a decoding integrated circuit is proposed, but the problem of how to connect the decoded signal to the controlled body is not proposed. One situation is that the decoded signal is directly connected to the controlled body by wire. | One situation is that although radio transmission remote control connection can be adopted, it is impossible to control up to 100 signals with the 12 keys of the telephone, and some receiving parts are still very complex. Because there are deficiencies in the first step of transmission, it is difficult to further improve the radio receiving performance proposed by this application.

[0074] III. Example of multi-code receiving method of this solution 3.1. Main significance of the formation of the multi-code receiving method example One is that it can accept numerous independent signals sent by the applicant's existing achievements, such as the above 100 control signals; the other is that numerous control objects will not interfere with each other; the third is that the circuit is simple and can be conveniently implemented, avoiding the form of complex extensions used in some documents, and enabling the convenient generation of the control function of numerous signals.

[0075] This application corresponds to the existing achievements, and its publication number: CN118553083A3 3.2. Extended meaning, operation and principle of the multi-code reception method That is, it can form the control of multiple controlled bodies, and for each controlled body, various program logic controls can be achieved.

[0076] The main principle formed is described in detail later. That is, multiple control signals are used to control a control body, and each signal becomes a kind of logic of a controlled body.

[0077] 3.3. Specific composition and structure of the multi-code reception method As shown in the appendix Figure 1 shown, a reception scheme for a large amount of information transmission includes a radio remote control carrier reception module, a decoding processing system, and an execution system; The output end of the radio remote control carrier reception module is connected to the input end series of the decoding processing system, the output end series of the decoding processing system is connected to the multiple input end series of the execution system, and the multiple output end series of the execution system is the output end series of a reception scheme for a large amount of information transmission; The described decoding processing system is mainly composed of a decoding board and a logic processing board. The decoding board contains one or more decoding integrated circuits. The output end series of the decoding integrated circuits is the output series of the decoding board. The logic processing board contains one or more identical logic processing units. The logic processing unit contains the main components of a memory circuit. The input ends of multiple logic processing units are the input end series of the logic processing board. Each input end of the logic processing unit is connected to the output end of the decoding board; the output ends of each logic processing unit form the output end of the logic processing board. The output ends of multiple logic processing boards become the output end series of the decoding processing system. One output end of the output end series of the decoding processing system is respectively connected to the input end of one execution unit in the execution system, and a logical signal that has been received and scientifically processed is output to the execution system.

[0078] In the above example, the relevant matters are explained as follows: For the radio remote control reception template, either super-regenerative or super-heterodyne can be selected.

[0079] In the example, the decoding integrated circuit is paired with an encoding and decoding integrated circuit of the learning code or rolling code type; the decoding integrated circuit uses TDH6300 / PIC16F630, etc. The execution unit can be composed of a power amplifier circuit and a relay, or can be a power amplifier electronic circuit represented by a thyristor; the connection between the execution unit and the controlled object can be directly connected, or can be connected through a power socket for conversion and transfer, 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 form a whole.

[0080] 3.4. Explanation of the basic logic principle of the operation method of the multi-code reception method example: Operation method: As described in the previous Articles 1 and 2, first use 12 buttons to select the control group where the control object is located, that is, the encoding integrated circuit line within the control group, and then select the specific input bit line of the encoding integrated circuit within the control group.

[0081] Basic logic principle 3.41. Based on the transmission result, the transmission connection conversion between the network control signal and the encoding integrated circuit is completed. That is, 12 telephone key signals can generate up to 100 encoding signals. The detailed situation has been introduced in the previous text, and this application can be paired with multiple decoding integrated circuits for learning. Therefore, each received control signal is independent, does not interfere with each other, and the matching circuit is simple.

[0082] 3.42. Based on the fact that the decoding integrated circuit in the decoding board has multiple independent signal output terminals corresponding to the encoding integration of the transmission result, the multiple output terminals of the decoding board are connected and coordinated with multiple logic processing units in the logic processing board; the number of encoding integrated circuits in the transmission result can generate 100 signals, and the decoding integrated circuit in the decoding board can be easily paired with it. Therefore, this application can receive, decode, and process numerous independent signals such as 100 signals.

[0083] 3.43. Also, based on the fact that the unit in the decoding board contains the main components of the memory circuit, with the cooperation of relevant circuits, it can form signals that recognize and process different states output by the decoding integrated circuit, generate corresponding multiple logic effects to control the controlled object, thereby greatly improving the performance of radio remote control transmission. For the specific situation, please refer to the relevant description in the following text.

[0084] 3.44. Based on multiple logic processing units in the decoding processing system, one execution unit in an execution system is correspondingly connected and controlled. One control unit can control one controlled object, and the execution system is composed of numerous execution units. Therefore, the execution system can control numerous controlled objects such as 100.

[0085] 3.45. Based on the ability of this measure to receive and process 100 control signals, this measure can also be extended to control multiple controlled bodies, and for each controlled body, various logical program function controls can be realized, improving the performance of radio reception.

[0086] 3.5. Principle explanation of the extended meaning of the multi-code reception method example: 3.51. That is, it can form control over multiple controlled bodies, and for each controlled body, various program logic controls can be carried out.

[0087] The main measure formed is that numerous control signals, such as 100 signals, can be divided into several groups, namely X groups. Each group corresponds to one controlled body. Since each group has multiple control signals, and each control signal can cause a corresponding logic for the corresponding controlled body, multiple program controls for X controlled bodies can be realized.

[0088] 3.52. The specific operation method and the formed principle are similar to those in Clause 3.5, that is, the basic logic principle explanation for reception.

[0089] IV. Example of the first form of the single-code dual-control method of this scheme 4.1. Significance of the first form of the single-code dual-control method 4.11. Basic significance The first significance is to change the same control signal into two logic signals with different meanings.

[0090] That is, to change the 100 signal control signals into the control meaning of 200 logic signals again, thus greatly improving the function of radio transmission and remote control.

[0091] The second significance is that it requires accurate cooperation logic between transmission and reception. Because there is no one at the place where the controlled object is set, once there is an accidental missing signal in the radio transmission system, the controlled object place cannot feedback information to the operator. Therefore, it is required that the signal transmitted corresponds to the corresponding logic function, regardless of the initial state of the controlled body. Thus, two state signals of the same signal can be repeatedly transmitted to avoid accidental missing signals. For example, the function of a T flip-flop cannot be realized because although the T flip-flop can produce two logic states with the same signal, when the operator operates without knowing the initial state of the controlled body, it may produce opposite logic results.

[0092] The third significance is in line with the operating habits of a certain group of people; since the single-code dual-control method has three forms in this application, this is the first form of one of them.

[0093] 4.12. Extended significance That is, it can form control over multiple controlled bodies, and for each controlled body, various program logic controls can be carried out.

[0094] The main principle formed is that for 100 control signals, 200 control signals can be further enhanced, thus forming the principle of the extended meaning of the multi-code reception method.

[0095] 4.2 Composition and structure of the first form example of the single-code dual-control method As shown in the appendix Figure 2 As shown, a reception scheme for a large amount of information transmission. The decoding processing system is mainly composed of a decoding section and a logic processing section. The decoding section contains one or more decoding integrated circuits. The output series of the decoding integrated circuit is the output series of the decoding section. The logic processing section contains one or more logic processing units with the same structure. Each logic processing unit is jointly composed of an output terminal of the decoding section, an integrating circuit, a flip-flop or counter group with memory. The output terminal of one bit of the decoding section is connected to the signal input terminal of the flip-flop or counter with memory. The output terminal of the same bit of the decoding section is connected to the input terminal of the integrating circuit. The output terminal of the integrating circuit is connected to the clear input terminal of the flip-flop or counter. The output terminal of the flip-flop or counter is an output terminal of the logic processing unit and also of the decoding processing system.

[0096] The relevant matters are explained as follows: (1) The decoding integrated circuit TD6300 is connected in a transient output mode, and its characteristic is that the output signal is 1 when the signal is present and 0 after the signal disappears.

[0097] (2) The flip-flop and counter with memory select the 4017 counter and are connected in a falling-edge trigger form.

[0098] (3) The corresponding transmission results in the example are: first, it still has the function of multi-code transmission of the existing results; second, it still has the ability of long transmission and short transmission.

[0099] 4.3 Operating steps of the transmission results corresponding to the first form of the single-code dual-control method First, determine the corresponding control object, and the operation method is the same as that of the multi-code reception method; second, transmit a signal to the same control object, which can generate a long transmission state, hereinafter referred to as long transmission; third, transmit a signal to the same control object, which can also generate a short transmission state, hereinafter referred to as short transmission; thus, the long transmission and short transmission states enable the controlled object to generate two different state meanings of logic.

[0100] 4.4 Explanation of the basic circuit principle in the example of the first form of the single-code dual-control method Since the decoding integrated circuit is connected to form a transient output, the output of the decoding integrated circuit will change according to the length of the transmission time. That is, if the transmission is a long-time transmission, the decoding integrated circuit TDH6300 will output a long-time signal, and vice versa, it will output a short-time signal.

[0101] Therefore, the operation method of this measure is the same as the first form of the single-code dual-control method. That is, each transmission will only generate one encoded signal. Therefore, the signal received by TDH6300 is the corresponding and unique signal, which forms the basis of single-code control. Based on this, the operation methods of long and short signals are used to realize the logical meanings of two different signals.

[0102] Based on the above composition and connection relationship; when the decoding integrated circuit outputs a short signal, a trigger signal is input to the signal input terminal of the counter 4017, and there will be an output at the output terminal, which becomes a control signal for the subsequent execution unit, such as an on signal; when receiving a short signal, since the integration time of the integration circuit is not in place and there is no output, the counter 4017 is not blocked by the gate, so there is a normal output at the output terminal, which becomes a control signal for a subsequent state, such as an on signal.

[0103] When the decoding integrated circuit TDH6300 outputs a long signal, the output terminal of the integration circuit outputs a signal to block the gate, and there will be no signal output at the output terminal of the counter 4017; That is, when receiving a long signal, since the integration circuit has an output. The counter 4017 is blocked by the gate, so there is no normal output and can only become a control signal for another subsequent state, such as an off signal.

[0104] Within the time when the integration circuit does not reach the in-place time, that is, during the integration process, since the decoding circuit TDH6300 always outputs the high bit; the counter is connected in a falling-edge trigger form, so there will be no output state either.

[0105] When the decoding output terminal TD6300 outputs a valid signal, it is 1, and when there is no signal, it is 0; therefore, at the moment of the special point when it changes from 1 to 0, a falling edge appears, but because the integration circuit has output the high bit for clearing 0 and the counter 4017 has been blocked by the gate, there will be no output for clearing 0. After the integration circuit reaches the in-place state, with the detailed cooperation of various circuits, the high bit after the integration reaches the in-place state can be delayed, that is, the transient process of the special falling edge when the decoding integrated circuit TD6300 changes from 1 to 0, and the counter still will not generate an output. There will be no hazard competition.

[0106] For the above reasons, the biggest feature of this measure is that during the entire logical process of operating long and short signals, there will be no hazard competition, and the logic is reliable and unique, so it is an excellent circuit.

[0107] Based on the fact that each emission only generates a one-bit encoded signal, the received corresponding signal is unique. The long and short signals become two different logical meaning signals corresponding to the unique control signal, so a first acceptance form of single-code dual control is formed.

[0108] Because of the logic of single-code dual control, it has nothing to do with the initial state of the controlled object and only relates to the emission state, that is, it relates to the corresponding decoding output situation. Therefore, if the corresponding logical signals required for repeated operations are used, the accident caused by missed received signals can be completely avoided.

[0109] The three forms of the single-code dual control method, including the first form in this article, can make full use of the resources of control signals. For example, 100 independent control signals of existing achievements can be upgraded to 200 logical signals again. Moreover, the long and short signals will not compete riskily, and the logic is unique and reliable, which becomes a prominent advantage.

[0110] 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 the control of multiple controlled objects, and for each controlled object, various program logical controls can be carried out.

[0111] The measures and principles are that the first form example of the single-code dual control method can upgrade the 100 signals controlled by the multi-code reception method to 200 signals again, and then form the extended thinking principle of the multi-code reception method.

[0112] 4.52. The specific operation method and the formed principle are similar to the basic logical principle of the main operation method of the first formation of the single-code dual control method.

[0113] V. Implementation of the second form example of the single-code dual control method in this scheme: 5.1. Significance of the second form of the single-code dual control method 5.11. Basic significance The first significance is that it has the main significance of the first form of the single-code dual control method, and can upgrade 100 received signals to 200 signals with different logical meanings; the second is that the production technology content is lower and it does not involve the problems of upper or lower edge triggering. The logical principle is simpler and the production is easier.

[0114] 5.12. Extended significance Similar to the first form of the single-code dual control method, that is, it can still use the signals upgraded to 200 to form the control of multiple controlled objects, and for each control object, various program logical controls can be realized.

[0115] 5.2. Composition and structure of the second form of the single-code dual control method As attached Figure 3As shown in the figure, a receiving scheme for a large-information transmission. The decoding processing system is mainly composed of a decoding board and a logic processing board. The decoding board contains one or more decoding integrated circuits. The output series of the decoding integrated circuits is the output series of the decoding board. The logic processing board is composed of one or more identical logic processing units. The logic processing unit is composed of an output line of the decoding board, 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 an output terminal of the decoding board. The output terminal of the differentiating circuit is connected to a signal input terminal in the memory circuit. The output terminal of the integrating circuit is connected to the other clear input terminal in the memory circuit. An output terminal of the memory circuit is the output terminal of the logic processing unit and also an output terminal of the decoding processing system. This terminal is connected to an input terminal of the execution system. In this example: For the memory circuit, an Rs trigger circuit is used. The decoding integrated circuit TD6300 is connected in a form of transient output.

[0116] 5.3. Second form operation method and logic principle description of the single-code dual-control method 5.31. Operation method and basic logic principle description. Operation method The operation method is the same as that of the first form of the single-code dual-control method.

[0117] Basic principle description Since the decoding TD6300 is connected in a form of transient output, the output terminal of TD6300 will change with the length of the transmission time. That is, if the transmission is a long-time transmission, TD6300 will output a long-time signal; otherwise, it will output a short-time signal.

[0118] Therefore, the operation method of this measure is still the same as that of the first form of the single-code dual-control method.

[0119] Based on the fact that each transmission will only generate one encoded signal, the received signal is corresponding and unique, forming the basis of single-code control. The long signal and the short signal become the meanings of two logic signals corresponding to the unique object.

[0120] Based on the above connection relationship, when the decoding integrated circuit TD6300 outputs a short valid signal, the differentiating circuit will output a short trigger signal, and the integrating circuit has no output. Thus, the Rs memory circuit will be in a state with an output signal.

[0121] Although the differential signal process is very short, the Rs memory circuit has been triggered and flipped, and can remember this very short trigger signal, outputting a long-lasting flipped state signal, which can ensure the correct logic of the differential signal of the short signal and output a control logic signal, such as a signal in the on state.

[0122] When the decoding integrated circuit TD6300 outputs a relatively long-duration valid signal, the integrating circuit will output a trigger signal. The differentiating circuit isolates after the capacitor is fully charged and finally reaches a state of no output, so that the Rs memory circuit will become another logical state of no output signal for the triggering effect of the integrating circuit. That is, when a long signal is output, the function of the differentiating circuit has ended and there will be no output; only the triggering of the integrating circuit signal, so the logical relationship is clearly distinguishable.

[0123] It should be noted that Based on the duration of the effect of the differentiating circuit, it mainly only relates to the parameters of the differentiating capacitor and resistor, and is basically independent of the duration of the operation.

[0124] So as long as the values of the differentiating capacitor and resistor are adjusted, it will neither affect the operating habits. That is, after a long-time operation, the memory circuit will not have a long differentiating effect and affect the electrical performance. That is, the working speed of the electronic circuit is much higher than that of other programs. That is, this short differentiating time has a negligible impact on the project and can be ignored.

[0125] The performance of the integrating circuit mainly depends on the parameters of the integrating circuit, and it is sufficient during the operation time to be greater than the integrating parameter time.

[0126] So as long as the corresponding time parameters of the differentiating circuit and the integrating circuit are adjusted. So it can not only conform to the operating habits of long signals and short signals, but also produce accurate logical state results.

[0127] Due to the above reasons, after the logic ends, there is no risky competition between long and short signals, and only the logical effects triggered by the corresponding signals will be produced.

[0128] During the process of a long signal, although there is a short triggering process of the differentiating circuit at the beginning. But because the parameter time of the differentiating circuit is very short, in actual engineering, it has almost no impact on the controlled object, and it is hardly perceptible by humans. Under normal circumstances, it meets the engineering requirements.

[0129] Due to the above reasons, the logic of long signals and short signals is clearly distinguishable. If the same signal is repeatedly operated, it will not affect the logical correctness due to the number of transmissions. The advantage is that it can be transmitted multiple times to avoid the accident of missing numbers.

[0130] Since this measure can avoid the requirement of the first form for triggering by the falling edge, the logic triggering of the Rs circuit has lower requirements than that of the flip-flop, and the production is easier, reducing the technical requirements and improving the reliability. Therefore, it has an advantage over the first form in this regard.

[0131] The Rs memory circuit can also remember very short differential circuit signals. The entire circuit logic is sensitive and reliable, meeting the requirements of ordinary control. Therefore, it is an excellent circuit.

[0132] Based on this measure, the Rs memory circuit in the logic processing unit has a different form structure from the flip-flop or counter in the first form, and has more excellent aspects in terms of effects, thus forming the first receiving relationship, that is, the second excellent form among the three forms of the single-code dual-control method. This form still has the function of receiving multiple signals and can double the effect again.

[0133] 5.32. Explanation of operations and principles with extended meanings: That is, it can be further enhanced to 200 control signals to form the control of multiple controlled objects, and each controlled object can implement the logical control of multiple programs.

[0134] The specific operation method and the formed principle are similar to the first form of the single-code dual-control method. VI. Implementation of the third form example of the single-code dual-control method in this scheme: 6.1. Significance of the third form of the single-code dual-control method 6.11. Basic significance One is the main significance of having the function of the single-code dual-control method; the other is that the production technical content is low and it does not involve the problem of upper or lower edge triggering. Production is easier.

[0135] Three is that it can overcome the deficiencies existing in theory in the second form and can be used in higher places.

[0136] 6.12. Extended significance The operation and principle significance are similar to the first form of the single-code dual-control method, that is, it can still be further enhanced to 200 signals to form the control of multiple controlled objects, and for each control object, multiple program logical controls can be carried out.

[0137] 6.2. Composition and structure of the third form example of the single-code dual-control method As shown in the appendix Figure 4 A receiving scheme with a large amount of information transmission. The composition and structure of the third form of the single-code dual-control method are as follows: The described decoding processing system is mainly composed of a decoding board and a logic processing board. The decoding board contains one or more decoding integrated circuits. The output series of the decoding integrated circuits is the output series of the decoding board. The logic processing board is composed of one or more logic processing units with the same structure. The logic processing unit is composed of an output line of one bit of the decoding board, a differential circuit. It consists of 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 an output terminal of the decoding section. The output terminal of the differentiating circuit is connected to a signal input terminal of one bit in the memory circuit. The output terminal of the integrating circuit is connected to another clear input terminal of one bit in 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 an output terminal of one bit of the decoding processing system.

[0138] In this example: The memory circuit uses an Rs trigger circuit; the delay circuit connected to the output terminal of the memory circuit uses an integrating circuit.

[0139] The decoding integrated circuit TD6300 is connected in the form of transient output.

[0140] 6.3. Example operation method and formation logic principle description of the third form of the single-code dual-control method 6.31. Description of the operation method and basic logic principle Operation method The operation method is the same as that of the first form of the single-code dual-control method.

[0141] Basic principle description The main principle of this article is evolved based on the second form.

[0142] In the measures of the second form, in the logic process of the long signal, there is a logic of short differential triggering first, and finally the logic effect of the integrating circuit of the long signal is formed, although the effect is small; in this measure, after the short time of the integral is extended, this small theoretical deficiency can be eliminated.

[0143] Due to the very fast working speed of the electronic circuit. The time of the triggering differentiating circuit and the newly added integrating delay circuit is very short, so it cannot be reflected in the actual engineering, and it is only a theoretical compensation. But in theory, its performance is better than that of the second form.

[0144] For the composition and connection relationship of this measure, the long signal and short signal states will not finally produce the situation of adventurous competition. Because when the short emission occurs, only the differentiating circuit has an output. When the long emission occurs, the differentiating circuit has no output, and only the integrating circuit has an output.

[0145] Based on the fact that this measure is evolved from the second form of the three forms of the single-code dual-control method. So this form still has the function of receiving more signals and can double the function again.

[0146] 6.32. Explanation of operations and principles with extended meanings: That is, it can be promoted again to form 200 control signals to control multiple controlled objects, and each controlled object can perform logical control of multiple programs.

[0147] The specific operation method and the formed principle are similar to the first form of single-code dual control.

[0148] VII. Implementation of the dual-code dual-control method example of this solution: 7.1. Significance of the dual-code dual-control method 7.11. Basic significance First, use the signals at the two output terminals of the decoding integrated circuit 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 first advantage is that the logic is clear and unique, and it can be operated repeatedly, and the required logic signals are obtained. The controlled object is not affected by the initial state, and the situation of missing signals can be avoided. Second, it conforms to the operation methods and habits of a certain group of people, and there is no need to adopt the operation methods of long emission or short emission. Third, the circuit is simple and easy to produce, and 50 objects can meet the requirements in many places.

[0149] The specific operation method of the emission result is: Divide 100 control signals into 50 groups, and each group controls one controlled object. Each group has two control signals.

[0150] Directly operate the two corresponding numbers corresponding to 50 control objects. One is one state, for example, an on signal, and the other is the second state, for example, an off signal. Repeat the above operation steps to achieve the logical operation of any object in 50 groups.

[0151] 7.12. Extended significance The basic significance can be extended again to achieve control over multiple controlled objects, and each controlled object can form logical control of multiple programs.

[0152] The main principle formed is that numerous control signals, such as 50 signals, can be divided into several groups, and each group is further divided into z smaller units. Each unit corresponds to control one controlled object, and then the formed principle is similar to the extended principle formed by all the previous measures. The extended principle formed by the measures.

[0153] 7.2. Composition structure of the dual-code dual-control method example As attached Figure 5As shown in the figure, a decoding processing system for a large-information transmission receiving scheme is mainly composed of a decoding board and a logic processing board. There are many output terminals in the decoding processing system, such as 100. Every two output terminals form an output unit of the decoding processing system, and each output unit is correspondingly connected to one logic processing unit among many, such as 50 logic processing units. Each logic processing unit has the same structure and is composed of a memory circuit with a dual-edge trigger terminal; one bit signal trigger output terminal in an output unit of the decoding processing system is connected to the signal input terminal of the memory circuit; the other clear-zero output terminal is connected to the clear-zero input terminal of the memory circuit.

[0154] 7.3. Explanation of the operation method and logic principle of the dual-code dual-control method 7.31. The operation method is as follows: Use two control signals to control a controlled object. That is, two output terminals of the decoding processing system form an output unit, and one output unit controls one controlled object. 100 signals control 50 corresponding controlled objects. Determine the specific control object, that is, determine a specific output unit in the decoding processing system, and then determine the corresponding logic of the output unit, that is, operate the signal of one or both output terminals of the output unit respectively; for example, 100 control output signals of existing achievements can be divided into 50 output units, that is, 50 controlled objects can be controlled. At this time, operate the 18th output unit, that is, control the 18th controlled object. Then operate the signal output terminal of one of the two output terminals in the 18th output unit to make the control object in one control state; the clear-zero output terminal of the other makes it in another control state.

[0155] 7.32. The formed logic principle: Basic principle Based on the above connection relationship and operation method, when the decoding processing system receives the signal or clear-zero signal sent by the transmission achievement respectively, the input terminal of the memory circuit Rs circuit of the memory circuit will be triggered by different signals, and the output terminal of the memory circuit Rs circuit will output signals in two states of trigger and clear-zero respectively due to different trigger signals; thus forming a circuit method of separate triggering of the dual-code dual-control method.

[0156] In each logic processing unit, the Rs memory circuit of the memory circuit adopts the standard method of separate triggering in the logic circuit, so the logic is reliable.

[0157] The benefits of forming this control are: first, the logic signal is unique and accurate; second, the signal corresponding to the logic can be operated repeatedly to avoid the accident of missing numbers; third, it conforms to the operation habits of a certain group of people and increases applicability; fourth, the internal structure of many identical logic processing units is the simplest form, and only one memory circuit with a dual-edge trigger generates multiple benefits.

[0158] Explanation of the Extended Meaning Logic Principle The 50 groups formed by dividing 100 control signals are further divided into z smaller units, with each unit corresponding to controlling a controlled object. After that, the formed principle is similar to the extended principle formed by all the previous measures.

[0159] The specific emission method, reception principle, and operation are similar to those in Clause 7.31.

[0160] VIII. Implementation of the Multi - Code Multi - Control Method Form Example of this Scheme: 8.1. Significance of the Multi - Code Multi - Control Method Form One is to generate numerous program control functions, such as hundreds, for the same controlled object. For example, it can be used for controlling numerous nodes in an assembly line, controlling the trajectory of a moving object, etc.

[0161] Two is that it can generate three operation methods, resulting in three different logics.

[0162] 8.2. Operation Steps of the Multi - Code Multi - Control Method Emission Results and Three Operation Methods are as follows: According to the description in Clause 3.2 of the previous text, the existing results can already use 12 keys of a telephone to achieve arbitrary selection and emission of 100 control signals. Therefore, this multi - code reception and multi - control method can achieve operation methods with three logical effects.

[0163] Operation Method One: Operate and control the existing 100 control signals in the order of serial numbers from 1 to 100; Operate the first specific number in the first group (i.e., unit) in sequence, and then operate the second to the tenth numbers in this group (i.e., unit) in sequence.

[0164] Use the same method to operate the first number in the second group (i.e., unit) in sequence until the tenth number.

[0165] Use the same method to operate the third unit, the fourth unit... until the tenth unit. Operate the ten numbers in each unit in sequence according to the above - mentioned relevant method. A total of 100 program control points can be formed in sequence.

[0166] Operation Method Two: First, emit and control the existing 100 control signals according to one rule, and then change to another rule for emission and control. For example, change the order to emit according to the rule from large to small, or only use a part of the rule in the sequence for emission, etc.; Refer to the operation method in the previous item and use the new rule to select the group and the object of the group category where the control object is located.

[0167] Operation method three, use random operation to launch and control the existing 100 control signals: for example, randomly control a certain point or part of the 100 control points, etc.; use 12 telephone buttons to select the 100 control signals, the group they are in, and then select the specific control object in the group.

[0168] 8.3 Composition and structure of multi-code multi-control method example As attached Figure 6 As shown, a receiving scheme for transmission with a large amount of information, the decoding processing system is mainly composed of a decoding block; the decoding block contains one or more decoding integrated circuits, the output terminal series of the decoding block is also the output terminal series of the decoding processing system, connected to the input terminal series of the execution part, thereby forming a third receiving form of a multi-code and multi-control circuit.

[0169] 8.4. Circuit logic principle of multi-code multi-control method example Based on the above composition and connection relationship, the receiving situation formed by the decoding integrated circuit is as follows: First, among the numerous decoding integrated circuit output terminal series, only one bit output terminal has output; second, when there is a signal at the current bit output terminal, the previous bit output terminal automatically shuts down the originally received signal.

[0170] Since the transmission results can be transmitted according to three rules, and the decoding integrated circuit in this method has been paired with the encoding integrated circuit of the transmission results, it can be received according to the three transmission rules.

[0171] 8.5. Important features of multi-code and multi-control First, it can realize the control of 100 kinds of logic programs or nodes of the controlled object; Second, corresponding control logic conditions can be generated corresponding to the three operation methods.

[0172] Third, consider combining the single-code dual-control method to generate a logic program control of 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, the relevant principles and operation methods.

[0173] IX. Explanation of relevant matters of this application: 9.1. Since it is not an actual engineering design drawing, the connection between the lines is not emphasized or includes details such as interface circuits. The meaning of interfaces or detail circuits is as follows: for example, when the upper circuit triggers the lower circuit, the phase is inconsistent and a 0 signal is required, but the upper circuit is a 1 signal; an interface circuit inverter should be added. For another example, in order to make the logic more accurate and reliable, relevant detail circuits should be added between the two circuits to ensure more accurate logic, etc.

[0174] 9.2. The various embodiments disclosed in the present application have been described above. The above description is exemplary and not exhaustive, and is not limited to the other described embodiments; for example, the division of components in the solutions can be freely and flexibly combined, the digital circuit expressions are flexible, and certain modifications or changes can also be made, which also fall within the protection scope of the present application. The terms used herein are intended to best explain the principles of each embodiment rather than to limit. Those with the same logical function but different names also fall within the protection scope of the present application.

Claims

1. A receiving scheme for transmission with large amount of information, comprising a radio remote control carrier receiving module, a decoding processing system, and an execution system; characterized in that : The output end of the radio remote control carrier receiving module is connected to the input end series of the decoding processing system, the output end series of the decoding processing system, the multi-bit input end series of the execution system, and the multi-bit output end series of the execution system. It is a receiving scheme output end series with a large amount of information; The decoding processing system is mainly composed of a decoding block and a logic processing block. The decoding block contains one or more decoding integrated circuits. The output terminal series of the decoding integrated circuit is the output terminal series of the decoding block. The logic processing block contains one or more identical logic processing units. The logic processing unit contains the main components of the memory circuit. The input terminals of multiple logic processing units are the input terminal series of the logic processing block. Each logic processing unit input terminal is connected to the output terminal of the decoding block. The output terminal of each logic processing unit constitutes the output terminal of the logic processing block. The output terminals of multiple logic processing blocks become the output terminal series of the decoding processing system. One output terminal of the output terminal series of the decoding processing system is respectively connected to the input terminal of one of the numerous execution units of the execution system, and outputs the received and scientifically processed logic signal to the execution system. Based on the transmission results, 12 telephone key signals can generate up to 100 coded signals, so the decoding integrated circuit of the present application can correspond to it, the control signal is independent and unique, the matching line is simple, and it can receive, decode, process and transmit the same number of independent signals; Based on the decoding processing system output terminal series corresponding to the input terminal 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 control objects, and 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 block contains the main components of the memory circuit. With the cooperation of relevant circuits, it can form signals of different states of the decoding integrated circuit output to identify and process them, generate corresponding three logic effect receiving modes to control the controlled object, and further improve the performance of wire-based remote control transmission.

2. A receiving scheme for transmission with large amount of information as claimed in claim 1, characterized in that: The decoding processing system is mainly composed of a decoding block and a logic processing block. The decoding block contains one or more decoding integrated circuits. The output terminal series of the decoding integrated circuit is the output terminal series of the decoding block. The logic processing block contains one or more logic processing units with the same structure. Each logic processing unit is composed of a one-bit output terminal of the decoding block, an integration circuit, and a trigger or counter group with memory. The one-bit output terminal of the decoding block is connected to the signal input terminal of the trigger or counter with memory. The same-bit output terminal of the decoding block is connected to the input terminal of the integration circuit. The output terminal of the integration circuit is connected to the The reset input terminal of the trigger or counter, the output terminal of the trigger or counter, is the logic processing unit and the one-bit output terminal of the decoding processing system; Since the decoding integrated circuit is connected in a transient output form, the output end of the decoding integrated circuit will form a state of long-term or short-term output signal according to the transmission situation; When the decoding integrated circuit outputs a short signal, there is a trigger signal at the trigger or counter signal input end and a signal output at the output end; When the decoding integrated circuit outputs a long signal, the signal output by the integration circuit causes the trigger or counter to clear to 0 and the output end to be blocked, and there is no output; Based on the output signal and disappearance state process at the output end of the decoding circuit, the trigger or counter is connected to a corresponding edge trigger form, so no output state will be generated during the integration process; Based on the above reasons, two different forms of logic numbers are generated by using the different time states of a one-bit decoding signal output, the control signal is doubled, and there will be no risky competition between long and short signals in the entire logical process. The logic is reliable and unique, thus forming the first excellent form of the three forms of single-code dual-control method with the first receiving relationship; this form can be extended to the control of multiple controlled objects, and each controlled object has the advantage of multiple logical program control.

3. A receiving scheme for transmission with large amount of information as claimed in claim 1, characterized in that: The decoding processing system is mainly composed of a decoding block and a logic processing block. The decoding block contains one or more decoding integrated circuits. The output terminal series of the decoding integrated circuit is the output series of the decoding block. The logic processing block is composed of one or more logic processing units with the same structure. The logic processing unit is composed of a decoding block output line, a differential circuit, and an integral circuit. A memory circuit with two trigger terminals is composed of the input terminals of the integral circuit and the differential circuit connected to the one-bit output terminal of the decoding block at the same time, the output terminal of the differential circuit is connected to the one-bit signal input terminal of the memory circuit, the output terminal of the integral circuit is connected to the other-bit clear input terminal of the memory circuit, the one-bit output terminal of the memory circuit is the output terminal of the logic processing unit, and is also the one-bit output terminal of the decoding processing system, which is connected to the one-bit input terminal of the execution system; Based on the decoding integrated circuit connection, the output is in the form of transient output, so that the decoding integrated circuit will form a state of long-term or short-term output signal according to the transmission situation; 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, so the memory circuit will eventually become two different output states; The logic processing unit is different from the first form. On the basis of reliable logic, the requirements are reduced in many aspects, which is conducive to productization, thus forming the second excellent form of the single-code dual-control method. The second form can double the control signal and can be extended to control multiple controlled objects. The control body has the advantage of multiple logical program controls.

4. A receiving scheme for transmission with large amount of information as claimed in claim 1, characterized in that: The third form of the single-code dual-control method is composed of a decoding processing system mainly composed of a decoding block and a logic processing block. The decoding block contains one or more decoding integrated circuits. The output terminal series of the decoding integrated circuit is the output series of the decoding block. The logic processing block is composed of one or more logic processing units with the same structure. The logic processing unit is composed of a one-bit output terminal line of the decoding block, a differential circuit, an integral circuit, a memory circuit with two trigger terminals and a delay circuit. The input terminals of the integral circuit and the differential circuit are simultaneously connected to a one-bit output terminal of the decoding block, the output terminal of the differential circuit is connected to a one-bit signal input terminal in the memory circuit, the output terminal of the integral circuit is connected to another one-bit 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 the one-bit output terminal of the decoding processing system. Based on the decoding integrated circuit connection, the output is in the form of transient output, so the decoding integrated circuit will follow the transmission to become a state of long-term or short-term output signal; 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, so the memory circuit will become the state of two output signals; Based on the newly added time extension circuit, the performance of the second form of the logic processing unit is improved while retaining the principles and advantages of the second form, thereby forming a third excellent form of the single-code dual-control method; the third form can be extended to control multiple controlled objects, and the control of each controlled object can realize multiple logical program controls.

5. A receiving scheme for transmission with large amount of information as claimed in claim 1, characterized in that: The decoding processing system is mainly composed of a decoding block and a logic processing block. The multi-bit output terminals in the decoding processing system, every two output terminals become an output terminal unit of the system, and are correspondingly connected to a logic processing unit in the logic processing block. Each logic processing unit has the same structure and is composed of a memory circuit with a double-terminal trigger terminal; a signal trigger output terminal of an output unit in an output unit of the decoding processing system is connected to the signal input terminal of the memory circuit; another clear output terminal is connected to the clear 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 ends of the memory circuit are triggered by different logic signals respectively, and 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 group of people; thus forming an excellent way to receive the separately triggered circuits of the third type of dual-code dual-control method. This method can also be extended to the control of multiple controlled objects, and the control of each controlled object has the advantage of multiple logic control programs.

6. A receiving scheme for transmission with large amount of information as claimed in claim 1, characterized in that: The decoding processing system is mainly composed of a decoding block; the decoding block contains one or more decoding integrated circuits, and the output terminal series of the decoding block is also the output terminal series of the decoding processing system, which is connected to the input terminal series of the execution block, thereby forming a third multi-code multi-control circuit receiving form; Based on the above composition and connection relationship, the decoding integrated circuit is inherent and connected to a locked output form, so among the numerous decoding block output terminal series, only one output terminal has output each time. Secondly, when there is a signal at the current output terminal, the previous output terminal automatically shuts down the originally received signal. Based on the fact that the decoding integrated circuit in this measure and the encoding integrated circuit of the transmitting plate have been paired, they can be received according to the transmission rules; Based on the above composition, structure and characteristics, this measure can receive three transmission modes of multi-code and multi-control sent by the transmission results and produce three different logical effects.

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