Practical and convenient infrared wireless transmission production test system and method

Abstract

The invention relates to the technical field of software, and discloses a practical and convenient infrared wireless transmission production test system and method.The transmitting unit is used for transmitting infrared wireless information, the receiving unit is used for receiving the infrared wireless information, and the collecting unit is used for collecting data information of a test site; the processing unit is used for processing data information collected by the transmitting unit and calculating an adjusting value T. The center unit is used for information processing. Data transmission is carried out in an infrared wireless transmission mode, the directivity is higher during working, the transmission distance is farther, operation is more convenient, influence of other factors is not likely to happen during use, in a relatively stable production environment, the reliability of data transmission can be guaranteed, the bandwidth is large, and the data transmission efficiency is improved. The high-capacity audio and video signals can be transmitted, and the accuracy and integrity of test data can be ensured in some production test scenes with high signal quality requirements, such as tests of audio equipment and video equipment.

Description

Technical Field

[0001] The present invention relates to the field of software technology, and more specifically to a practical and convenient infrared wireless transmission production test system and method. Background Art

[0002] The test system is a key device used to check whether each component in the automatic control system is operating normally and ensure the reliability and stability of the entire system. It can verify whether the controller, motor, sensor and other key components are working according to the design requirements. If the test system finds problems or errors, these problems can be identified and eliminated in time before the production line is put into operation;

[0003] The test system plays an important role in the automatic control system. The test system can not only ensure the normal operation of the production line, but also improve production efficiency and product quality. Through the detection of the test system, potential problems can be discovered and eliminated, the stability and reliability of the equipment can be ensured, and the losses and downtime in the production process can be reduced.

[0004] Today's test systems generally use WiFi, Bluetooth, Zigbee technology, etc. for data transmission. However, the transmission cost is high when the above methods are used for data transmission, and the directionality of the above methods is low, which is easily affected by other transmission methods, and the parameter distance during transmission is close. Summary of the invention

[0005] In order to overcome the above-mentioned defects of the prior art, the implementation regulations of the present invention provide a practical and convenient infrared wireless transmission production test system and method to solve the technical problems raised in the background technology.

[0006] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a practical and convenient infrared wireless transmission production test system, comprising a transmitting unit, a receiving unit, a collection unit, a processing unit, a central unit, a safety unit, a notification unit, a preparation unit and a sleep and wake-up unit, wherein the transmitting unit is used for infrared wireless information transmission, the receiving unit is used for infrared wireless information reception, the collection unit is used for collecting data information at the test site, the processing unit is used for processing the data information collected by the transmitting unit and calculating the adjustment value T, the central unit is used for information processing, the safety unit detects whether the equipment changes after the test, the notification unit performs early warning and data display, the preparation unit is used to detect the transmitting unit and the receiving unit before the test, and the sleep and wake-up unit is used to adjust the sleep and wake-up working states of the transmitting unit and the receiving unit;

[0007] The transmitting unit includes a device transmitting module and a tool transmitting module, and the receiving unit includes a device receiving module and a tool receiving module;

[0008] The acquisition unit collects the temperature data information WD, dust data information HC and light intensity data information GQ of the test site and sends them to the processing unit. The processing unit receives the data collected by the acquisition unit and calculates the adjustment value T. The calculation formula of the adjustment value T is: Wherein k1 and k2 are weights, and 0≤k1≤1, 0≤k2≤1, BZ is the standard theoretical ambient temperature, and the processing unit sends the calculated adjustment value T to the central unit.

[0009] In a preferred embodiment, the central unit receives the adjustment value T and calculates the actual power P. The calculation formula of the actual power P is P=P bz ×T, where P bc is the theoretical power of the infrared transmitter when it is working. The central unit uses the calculated actual power P to control the equipment transmitting module and the tooling transmitting module to perform infrared transmission.

[0010] In a preferred embodiment, the security unit is used to detect the infrared radiation energy data NL received by the device receiving module in the receiving unit, and the security unit sends the detected infrared radiation energy data NL to the central unit. The central unit receives the data sent by the security unit and calculates the energy value NZ. The calculation formula of the energy value NZ is NZ=NL-GQ×C, where C is the correlation coefficient between the light intensity data information GQ and the infrared radiation energy. The value calculated by multiplying the light intensity data information GQ with the coefficient C is the infrared energy data of the light intensity.

[0011] In a preferred embodiment, the central unit compares the calculated energy value NZ with the expected internal energy threshold NY. When the energy value NZ>energy threshold NY, the safety unit sends a safety instruction to the notification unit. When the energy value NZ≤energy threshold NY, the safety unit sends a danger instruction to the notification unit. The notification unit does not issue an alarm when receiving the safety instruction, and issues an alarm when receiving the danger instruction.

[0012] In a preferred embodiment, the preparation unit detects the infrared radiation energy values ​​N1 and N2 received by the equipment receiving module and the tooling receiving module in the receiving unit, and the preparation unit performs detection before the test equipment performs testing, and the preparation unit sends the detected infrared radiation energy value N1 and the infrared radiation energy value N2 to the central unit, and the central unit compares the infrared radiation energy value N1 and the infrared radiation energy value N2 with the standard threshold BY. When the infrared radiation energy value N1>the standard threshold BY, the central unit sends a first qualified instruction to the notification unit, and when the infrared radiation energy value N1≤the standard threshold BY, the central unit sends a first unqualified instruction to the notification unit, and when the infrared radiation energy value N2>the standard threshold BY, the central unit sends a second qualified instruction to the notification unit, and when the infrared radiation energy value N2≤the standard threshold BY, the central unit sends a second unqualified instruction to the notification unit.

[0013] In a preferred embodiment, when the notification unit receives the first qualified instruction and the second qualified instruction, the notification unit issues a qualified notification; when the notification unit receives the first unqualified instruction and the second qualified instruction, the notification unit notifies that the device receiving module and the device sending module are not aligned; when the notification unit receives the first qualified instruction and the second unqualified instruction, the notification unit notifies that the tooling receiving module and the tooling sending module are not aligned, and the notification unit notifies and displays through a computer.

[0014] In a preferred embodiment, the sleep-wake-up unit divides the tooling transmitting module and the tooling receiving module into a first group, and the sleep-wake-up unit divides the device transmitting module and the device receiving module into a first group of devices. The sleep-wake-up unit controls the first group of devices and the second group of devices to sleep and wake up, and the first group of devices and the second group of devices are independent of each other.

[0015] In a preferred embodiment, when the transmitting unit and the receiving unit transmit data, the transmitting unit performs data transmission on both sides, the receiving unit sends the two sets of received data to the proofreading unit, the proofreading unit compares the two sets of received data, when the two sets of data received by the receiving unit are the same, the receiving unit displays the data in the computer of the notification unit, when the two sets of data received by the receiving unit are different, the receiving unit issues an alarm through the notification unit.

[0016] A practical and convenient infrared wireless transmission production test method comprises the following steps:

[0017] Step S101, placing the test equipment in the test station, and aligning the equipment transmitting module of the transmitting unit and the tooling transmitting module testing equipment with the receiving unit including the equipment receiving module and the tooling receiving module respectively;

[0018] Step S102, the preparation unit detects whether the receiving module receives the test instruction sent by the transmitting module;

[0019] Step S103: If no test instruction is received, the alignment work continues until a test instruction is received. After receiving the test instruction, the test equipment enters the production test mode, and the transmitting unit sends the test data according to the planned protocol;

[0020] Step S104: collect on-site data information, calculate the adjustment value T according to the collected information, and calculate the actual power P according to the adjustment value T, and the device transmitting module works at the actual power P;

[0021] Step S105: the tool receiving module parses the test data, compares it with the proofreading unit, and then sends it to the notification unit;

[0022] Step S106: Notify the computer in the unit to display the test data, and make corresponding judgments to give test results.

[0023] Technical effects and advantages of the present invention:

[0024] 1. The present invention adopts infrared wireless transmission to transmit data. Infrared wireless transmission has stronger directivity when working, longer transmission distance, more convenient operation, and is not easily affected by other factors when in use. In a relatively stable production environment, it can ensure the reliability of data transmission, has a large bandwidth, and can transmit large-capacity audio and video signals. In some production test scenarios with high signal quality requirements, such as the test of audio equipment and video equipment, the accuracy and integrity of the test data can be guaranteed;

[0025] 2. The present invention collects the temperature data information WD, dust data information HC and light intensity data information GQ of the test site, and the calculated adjustment value T can accurately reflect the adjustment direction required by the equipment transmitting module and the tooling transmitting module in the transmitting unit. The actual power P calculated by the adjustment value T is used to control the transmitting unit, so that the equipment transmitting module and the tooling transmitting module in the transmitting unit are in a relatively stable state when working, ensuring the data transmission effect while avoiding damage to the equipment transmitting module and the tooling transmitting module;

[0026] 3. The present invention detects infrared radiation energy data. The energy value NZ calculated according to the infrared radiation energy data NL and the light intensity data information GQ is the actual energy intensity of the device receiving module when receiving the test data. When the energy value NZ>energy threshold NY, it means that the light intensity of the external environment has a greater impact at this time, and the infrared radiation energy data NL occupies a smaller amount. At this time, the device receiving module and the device transmitting module are not aligned, which reduces the infrared radiation energy data NL. Therefore, an alarm is issued in time to avoid invalid detection. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] Figure 1 It is a schematic diagram of the system composition structure of the present invention.

[0028] Figure 2 It is a schematic diagram of the detection process of the present invention. DETAILED DESCRIPTION

[0029] The technical solution of the present invention will be clearly and completely described below in conjunction with the accompanying drawings in the present invention. In addition, the forms of the various structures recorded in the following embodiments are only examples. The practical and convenient infrared wireless transmission production test system and method involved in the present invention are not limited to the various structures recorded in the following embodiments. All other implementations obtained by ordinary technicians in this field without making creative work belong to the scope of protection of the present invention.

[0030] Reference Figure 1 The present invention provides a practical and convenient infrared wireless transmission production test system, including a transmitting unit, a receiving unit, a collection unit, a processing unit, a central unit, a safety unit, a notification unit, a preparation unit and a sleep and wake-up unit. The transmitting unit is used for infrared wireless information transmission, the receiving unit is used for infrared wireless information reception, the collection unit is used to collect data information at the test site, the processing unit is used to process the data information collected by the transmitting unit and calculate the adjustment value T, the central unit is used to perform information processing, the safety unit detects whether the equipment changes after the test, the notification unit performs early warning and data display, the preparation unit is used to detect the transmitting unit and the receiving unit before the test, the sleep and wake-up unit is used to adjust the sleep and wake-up working states of the transmitting unit and the receiving unit, the transmitting unit includes an equipment transmitting module and a tooling transmitting module, and the receiving unit includes an equipment receiving module and a tooling receiving module.

[0031] In the embodiments of the present application, when conducting tests, the present application adopts infrared wireless transmission to transmit data. Infrared wireless transmission has stronger directionality when working, longer transmission distance, more convenient operation, and is not easily affected by other factors when in use. In a relatively stable production environment, the reliability of data transmission can be guaranteed. The bandwidth is large and large-capacity audio and video signals can be transmitted. In some production test scenarios with high requirements on signal quality, such as the testing of audio equipment and video equipment, the accuracy and completeness of the test data can be guaranteed. In addition, the transmitting unit of the present application includes a device transmitting module and a tooling transmitting module, and the receiving unit includes a device receiving module and a tooling receiving module, so it can be divided into two groups. The device transmitting module and the device receiving module are a group for sending and receiving data after receiving the device test, and the tooling transmitting module and the tooling receiving module are a group for sending and receiving data of the test tooling.

[0032] Furthermore, the acquisition unit collects the temperature data information WD, dust data information HC and light intensity data information GQ of the test site and sends them to the processing unit. The processing unit receives the data collected by the acquisition unit and calculates the adjustment value T. The calculation formula of the adjustment value T is: Where k1 and k2 are weights, and 0≤k1≤1, 0≤k2≤1, BZ is the standard theoretical ambient temperature, the processing unit sends the calculated adjustment value T to the central unit, the central unit receives the adjustment value T and calculates the actual power P, the calculation formula of the actual power P is P=P bz ×T, where P bc It is the theoretical power of the infrared transmitter when it is working. The central unit uses the calculated actual power P to control the equipment transmitting module and the tooling transmitting module to perform infrared transmission.

[0033] In the embodiments of the present application, although infrared wireless transmission is relatively stable, it is still affected by the environment. For example, when data is transmitted under strong light, the output power needs to be increased to prevent the infrared light from being affected by external light. When there is a lot of dust outside, the power may need to be increased so that the infrared light can pass through the dust. When the external temperature is high, the temperature needs to be lowered to avoid damage to the device. Therefore, the acquisition unit of the present application collects the temperature data information WD, dust degree data information HC and light intensity data information GQ at the test site. The adjustment value T calculated using the above three sets of data can accurately reflect the adjustment direction required for the device transmission module and the tooling transmission module in the transmission unit. The actual power P calculated using the adjustment value T is used to control the transmission unit, so that the device transmission module and the tooling transmission module in the transmission unit are in a relatively stable state when working, thereby ensuring the data transmission effect while avoiding damage to the device transmission module and the tooling transmission module.

[0034] Furthermore, the safety unit is used to detect the infrared radiation energy data NL received by the device receiving module in the receiving unit, and the safety unit sends the detected infrared radiation energy data NL to the central unit. The central unit receives the data sent by the safety unit and calculates the energy value NZ. The calculation formula of the energy value NZ is NZ=NL-GQ×C, where C is the correlation coefficient between the light intensity data information GQ and the infrared radiation energy. The value calculated by multiplying the light intensity data information GQ with the coefficient C is the infrared energy data of the light intensity. The central unit compares the calculated energy value NZ with the expected internal energy threshold NY. When the energy value NZ>energy threshold NY, the safety unit sends a safety instruction to the notification unit. When the energy value NZ≤energy threshold NY, the safety unit sends a danger instruction to the notification unit. The notification unit does not issue an alarm when receiving the safety instruction, and issues an alarm when receiving the danger instruction.

[0035] In the embodiment of the present application, when the device is being tested, the device will automatically undergo certain changes. At this time, when the device receiving module receives the data sent by the device transmitting module on the device, since it transmits data via infrared wireless, the present application directly detects the infrared radiation energy data, and the detection result is the infrared radiation energy data NL. The energy value NZ calculated by the central unit based on the infrared radiation energy data NL and the light intensity data information GQ is the actual energy intensity of the device receiving module when receiving the test data. When the energy value NZ>the energy threshold NY, it means that the light intensity of the external environment has a greater impact at this time, and the infrared radiation energy data NL occupies a smaller amount. At this time, the device receiving module and the device transmitting module are not aligned, which reduces the infrared radiation energy data NL. Therefore, an alarm is issued in time to avoid invalid detection. The present application will take the external light intensity into consideration, rather than using infrared radiation energy data alone, to improve the accuracy of detection.

[0036] Furthermore, the preparation unit detects the infrared radiation energy values ​​N1 and N2 received by the device receiving module and the tooling receiving module in the receiving unit, and the preparation unit performs detection before the test equipment performs testing, and the preparation unit sends the detected infrared radiation energy value N1 and the infrared radiation energy value N2 to the central unit, and the central unit compares the infrared radiation energy value N1 and the infrared radiation energy value N2 with the standard threshold BY. When the infrared radiation energy value N1>the standard threshold BY, the central unit sends a first qualified instruction to the notification unit, and when the infrared radiation energy value N1≤the standard threshold BY, the central unit sends a first unqualified instruction to the notification unit. When the infrared radiation energy value N2 is greater than the standard threshold BY, the central unit sends a second qualified instruction to the notification unit; when the infrared radiation energy value N2 is less than or equal to the standard threshold BY, the central unit sends a second unqualified instruction to the notification unit; when the notification unit receives the first qualified instruction and the second qualified instruction, the notification unit issues a qualified notification; when the notification unit receives the first unqualified instruction and the second qualified instruction, the notification unit notifies the device receiving module and the device sending module that they are not aligned; when the notification unit receives the first qualified instruction and the second unqualified instruction, the notification unit notifies the tooling receiving module and the tooling sending module that they are not aligned, and the notification unit notifies and displays through a computer.

[0037] In the embodiment of the present application, the infrared radiation energy value N1 and the infrared radiation energy value N2 are the infrared radiation energy received by the device receiving module and the infrared radiation energy received by the working receiving module. Both need to ensure that the data transmission is sufficiently stable to ensure the success of the overall testing process. Therefore, the present application compares the infrared radiation energy value N1 and the infrared radiation energy value N2 with the standard threshold BY respectively. Since the present application works in the same environment, the infrared radiation energy value N1 is the same as the infrared radiation energy value N2. After comparing with the standard threshold BY, only when both are qualified will they be qualified. At this time, the notification unit issues a qualified notification. When either or both are unqualified, they are notified and displayed through the computer, so that problems can be discovered in time.

[0038] Furthermore, the sleep and wake-up unit divides the tooling transmitting module and the tooling receiving module into a first group, and divides the device transmitting module and the device receiving module into a first group of devices. The sleep and wake-up unit controls the first group of devices and the second group of devices to sleep and wake up, and the first group of devices and the second group of devices are independent of each other.

[0039] In the embodiment of the present application, the present application detects the device. When the device detection is not completed, there is no need to work and it is in a sleep state, which saves energy. After the detection is completed, when data transmission is required, the device in the sleep state is awakened to complete the data transmission work normally.

[0040] Furthermore, when the transmitting unit and the receiving unit transmit data, the transmitting unit performs data transmission on both sides, the receiving unit sends the two sets of received data to the proofreading unit, the proofreading unit compares the two sets of received data, when the two sets of data received by the receiving unit are the same, the receiving unit displays the data in the computer of the notification unit, when the two sets of data received by the receiving unit are different, the receiving unit issues an alarm through the notification unit.

[0041] In an embodiment of the present application, when performing data transmission, in order to avoid problems in the data transmission process, the present application directly performs secondary data transmission when transmitting data, and compares the results of the two data transmissions. When the results of the secondary data transmission are the same, there is no problem with the transmission at this time, and when the two sets of data are different, there is a problem, thereby avoiding receiving erroneous data and ensuring the accuracy of detection.

[0042] Reference Figure 2 , a practical and convenient infrared wireless transmission production test method, comprising the following steps:

[0043] Step S101, placing the test equipment in the test station, and aligning the equipment transmitting module of the transmitting unit and the tooling transmitting module testing equipment with the receiving unit including the equipment receiving module and the tooling receiving module respectively;

[0044] Step S102, the preparation unit detects whether the receiving module receives the test instruction sent by the transmitting module;

[0045] Step S103: If no test instruction is received, the alignment work continues until a test instruction is received. After receiving the test instruction, the test equipment enters the production test mode, and the transmitting unit sends the test data according to the planned protocol;

[0046] Step S104: collect on-site data information, calculate the adjustment value T according to the collected information, and calculate the actual power P according to the adjustment value T, and the device transmitting module works at the actual power P;

[0047] Step S105: the tool receiving module parses the test data, compares it with the proofreading unit, and then sends it to the notification unit;

[0048] Step S106: Notify the computer in the unit to display the test data, and make corresponding judgments to give test results.

[0049] The above embodiments can be implemented in whole or in part by software, hardware, firmware or any other combination. When implemented using software, the above embodiments can be implemented in whole or in part in the form of a computer program product. The units and algorithm steps of each example described in the embodiment can be implemented in electronic hardware or a combination of computer software and electronic hardware. Whether these functions are performed in hardware or software depends on the specific application and design constraints of the technical solution. Professional and technical personnel can use different methods to implement the described functions for each specific application, but such implementation should not be considered to be beyond the scope of this application.

[0050] In the several embodiments provided in the present application, it should be understood that the disclosed systems, devices and methods can be implemented in other ways. For example, the device embodiments described above are only schematic. For example, the division of the units is only a logical function division. There may be other division methods in actual implementation, such as multiple units or components can be combined or integrated into another system, or some features can be ignored or not executed. Another point is that the mutual coupling or direct coupling or communication connection shown or discussed can be through some interfaces, indirect coupling or communication connection of devices or units, which can be electrical, mechanical or other forms.

[0051] The above is only a specific implementation of the present application, but the protection scope of the present application is not limited thereto. Any person skilled in the art who is familiar with the present technical field can easily think of changes or substitutions within the technical scope disclosed in the present application, which should be included in the protection scope of the present application. Therefore, the protection scope of the present application should be based on the protection scope of the claims.

[0052] Finally: The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A practical and convenient infrared wireless transmission production test system, characterized by: It includes a transmitting unit, a receiving unit, a collecting unit, a processing unit, a central unit, a safety unit, a notification unit, a preparation unit and a sleep awakening unit. The transmitting unit is used for infrared wireless information transmission, the receiving unit is used for infrared wireless information reception, the collecting unit is used for collecting data information at the test site, the processing unit is used for processing the data information collected by the transmitting unit and calculating the adjustment value T, the central unit is used for information processing, the safety unit detects whether the equipment changes after the test, the notification unit performs early warning and data display, the preparation unit is used to detect the transmitting unit and the receiving unit before the test, and the sleep awakening unit is used to adjust the sleep and awakening working states of the transmitting unit and the receiving unit; The transmitting unit includes a device transmitting module and a tool transmitting module, and the receiving unit includes a device receiving module and a tool receiving module; The acquisition unit collects the temperature data information WD, dust data information HC and light intensity data information GQ of the test site and sends them to the processing unit. The processing unit receives the data collected by the acquisition unit and calculates the adjustment value T. The calculation formula of the adjustment value T is: Wherein k1 and k2 are weights, and 0≤k1≤1, 0≤k2≤1, BZ is the standard theoretical ambient temperature, and the processing unit sends the calculated adjustment value T to the central unit.

2. According to claim 1, a practical and convenient infrared wireless transmission production test system is characterized in that: The central unit receives the adjustment value T and calculates the actual power P. The calculation formula of the actual power P is P=P bz ×T, where P bc is the theoretical power of the infrared transmitter when it is working. The central unit uses the calculated actual power P to control the equipment transmitting module and the tooling transmitting module to perform infrared transmission.

3. According to claim 1, a practical and convenient infrared wireless transmission production test system is characterized in that: The safety unit is used to detect the infrared radiation energy data NL received by the device receiving module in the receiving unit, and the safety unit sends the detected infrared radiation energy data NL to the central unit. The central unit receives the data sent by the safety unit and calculates the energy value NZ. The calculation formula of the energy value NZ is NZ=NL-GQ×C, where C is the correlation coefficient between the light intensity data information GQ and the infrared radiation energy. The value calculated by multiplying the light intensity data information GQ with the coefficient C is the infrared energy data of the light intensity.

4. A practical and convenient infrared wireless transmission production test system according to claim 3, characterized in that: The central unit compares the calculated energy value NZ with the expected internal energy threshold NY. When the energy value NZ>energy threshold NY, the safety unit sends a safety instruction to the notification unit. When the energy value NZ≤energy threshold NY, the safety unit sends a danger instruction to the notification unit. The notification unit does not issue an alarm when receiving the safety instruction, and issues an alarm when receiving the danger instruction.

5. A practical and convenient infrared wireless transmission production test system according to claim 1, characterized in that: The preparation unit detects the infrared radiation energy values ​​N1 and N2 received by the equipment receiving module and the tooling receiving module in the receiving unit, and the preparation unit performs detection before the test equipment performs testing, and the preparation unit sends the detected infrared radiation energy value N1 and the infrared radiation energy value N2 to the central unit, and the central unit compares the infrared radiation energy value N1 and the infrared radiation energy value N2 with the standard threshold BY. When the infrared radiation energy value N1>the standard threshold BY, the central unit sends a first qualified instruction to the notification unit, and when the infrared radiation energy value N1≤the standard threshold BY, the central unit sends a first unqualified instruction to the notification unit, and when the infrared radiation energy value N2>the standard threshold BY, the central unit sends a second qualified instruction to the notification unit, and when the infrared radiation energy value N2≤the standard threshold BY, the central unit sends a second unqualified instruction to the notification unit.

6. A practical and convenient infrared wireless transmission production test system according to claim 5, characterized in that: When the notification unit receives the first qualified instruction and the second qualified instruction, the notification unit issues a qualified notification; when the notification unit receives the first unqualified instruction and the second qualified instruction, the notification unit notifies that the device receiving module and the device sending module are not aligned; when the notification unit receives the first qualified instruction and the second unqualified instruction, the notification unit notifies that the tooling receiving module and the tooling sending module are not aligned, and the notification unit notifies and displays through a computer.

7. A practical and convenient infrared wireless transmission production test system according to claim 1, characterized in that: The sleep and wake-up unit divides the tooling transmitting module and the tooling receiving module into a first group, and divides the equipment transmitting module and the equipment receiving module into a first group of equipment. The sleep and wake-up unit controls the first group of equipment and the second group of equipment to sleep and wake up, and the first group of equipment and the second group of equipment are independent of each other.

8. The practical and convenient infrared wireless transmission production test system according to claim 1 is characterized by: When the transmitting unit and the receiving unit transmit data, the transmitting unit performs data transmission on both sides, the receiving unit sends the two sets of received data to the proofreading unit, the proofreading unit compares the two sets of received data, when the two sets of data received by the receiving unit are the same, the receiving unit displays the data in the computer of the notification unit, when the two sets of data received by the receiving unit are different, the receiving unit issues an alarm through the notification unit.

9. A practical and convenient infrared wireless transmission production test method, characterized in that: A practical and convenient infrared wireless transmission production test system applied to any one of claims 1-8 comprises the following steps: Step S101, placing the test equipment in the test station, and aligning the equipment transmitting module of the transmitting unit and the tooling transmitting module testing equipment with the receiving unit including the equipment receiving module and the tooling receiving module respectively; Step S102: The preparation unit detects whether the receiving module receives the test instruction sent by the transmitting module; Step S103: If no test instruction is received, the alignment work continues until a test instruction is received. After receiving the test instruction, the test equipment enters the production test mode, and the transmitting unit sends the test data according to the planned protocol; Step S104, collecting on-site data information, calculating the adjustment value T according to the collected information, and calculating the actual power P according to the adjustment value T, and the device transmitting module works at the actual power P; Step S105: the tool receiving module parses the test data, compares it with the proofreading unit, and then sends it to the notification unit; Step S106: Notify the computer in the unit to display the test data, and make corresponding judgments to give test results.

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