Ultra-high frequency near-field electric field component aging positioning device integrating convolutional network mixing technology

Abstract

The present invention relates to a positioning method and device, and specifically to an ultra-high frequency near-zone electric field element aging positioning method and device fused with convolution network mixing technology, comprising the following positioning method: S1, detecting ultra-high frequency near-zone electric field elements, S2, establishing a fused convolution network mixing electric field, S3, determining the detection frequency of the mixing electric field in each type of cable, S4, detecting the ultra-high frequency near-zone electric field elements, and S5, transmitting the detection data to a receiver in reverse for a second time; a first weight end is electrically connected to a first function threshold, a second weight end is electrically connected to a second function threshold, a PC for carrying is arranged between a detection terminal and a loss function terminal, and through the setting of the first function threshold and the second function threshold, in actual use, a function formula can be stopped in time after the threshold is calculated, thereby effectively ensuring that the detected data will not be over-solved and translated, and providing a more scientific and objective detection structure.

Description

Technical Field

[0001] The present invention relates to a positioning device, in particular to an ultra-high frequency near-zone electric field element aging positioning device integrating convolutional network mixing technology, and belongs to the technical field of electric field positioning. Background Art

[0002] High-frequency electromagnetic radiation is also a kind of electromagnetic wave. It has no ionizing effect and has the characteristics of all waves. In the high-frequency band and the high-frequency near-field, the effect on the human body is electromagnetic induction, and the electromagnetic energy is applied to the human body. It is precisely because of electromagnetic induction that the spatial field strength is often high. In the high-frequency near-field, the electric field component and the magnetic field component are not in a certain proportional relationship. They act on the human body separately. Some high-power wireless transmitting equipment has a certain proportional relationship between the electric field component and the magnetic field component, and releases the electric field energy in a larger spatial range, causing pollution.

[0003] However, there is currently no established solution to detect the aging degree of components inside the UHF near-field electric field, especially to perform non-destructive testing without shutting down the machine.

[0004] In view of this, the present invention is proposed. Summary of the invention

[0005] The purpose of the present invention is to provide an ultra-high frequency near-zone electric field element aging positioning device integrating convolutional network mixing technology in order to solve the above-mentioned problems.

[0006] The present invention achieves the above-mentioned purpose through the following technical solutions, and the ultra-high frequency near-zone electric field component aging positioning device integrating convolutional network mixing technology includes:

[0007] The detection terminal is used to accurately locate the aging position of the UHF near-zone electric field components, and to comprehensively dispatch and control the various instruments in the device;

[0008] An input terminal is used to decode and convert data input to a detection terminal to ensure that the input data is accurate and complete;

[0009] A fused convolutional network generating device is arranged inside a device-carrying body;

[0010] The ultra-high frequency near-zone electric field feedback terminal is arranged inside the device-carrying body.

[0011] The input terminal is electrically connected to the detection terminal, the detection terminal is provided with an anti-resonance terminal in parallel, the anti-resonance terminal is electrically connected to the detection terminal, the detection terminal is also electrically connected to a storage terminal for storing data, the detection terminal includes a detection local terminal and a feedback system terminal, the detection local terminal and the feedback system terminal are interwoven in series.

[0012] Further: the detection terminal includes an electric field detection module, a conditioning circuit module, a controller module and a power supply module. The electric field detection module, the conditioning circuit module and the controller module are electrically connected in sequence. The power supply module is electrically connected to the conditioning circuit module and the controller module respectively. The controller module is wirelessly connected to a PC via a wireless local area network.

[0013] Further: the input terminal includes a first input module and a second input module, the first input module is electrically connected to a first weight terminal and a second weight terminal, the first weight terminal is electrically connected to a first function threshold, the second weight terminal is electrically connected to a second function threshold, the first function threshold and the second function threshold program are connected to the same loss function terminal, the loss function terminal is electrically connected to a detection terminal, and a PC for carrying is arranged between the detection terminal and the loss function terminal.

[0014] Furthermore: the top of the fused convolutional network generating device is connected to a transmission rod by rotation, and the top of the transmission rod is fixedly connected to a bearing shell for carrying the detection terminal, the transmission rod is located in the inner section of the fused convolutional network generating device, and the outer wall is fixedly sleeved with a steering screw, and the steering screw is threadedly engaged with a rotating disk, and a servo motor is arranged through the side wall of the fused convolutional network generating device, and the output shaft of the servo motor is fixedly connected to a driving gear engaged with the rotating disk.

[0015] Furthermore: the fused convolutional network generating device is also provided with a storage box for setting up the fused network, and the storage box is provided with a fused convolutional network generator, and the fused convolutional network generator includes a network wave frequency regulator.

[0016] Further: a buffer base is provided at the bottom of the fused convolutional network generating device, and the upper base surface of the buffer base is fixedly connected to the bottom of the storage box through the same support rod.

[0017] Further: one end of the ultra-high frequency near-zone electric field feedback terminal is located inside the fused convolutional network generating device, and the ultra-high frequency near-zone electric field feedback terminal is located inside the fused convolutional network generating device and is fixedly connected to an ultra-high frequency near-zone electric field feedback host, and the bottom of the ultra-high frequency near-zone electric field feedback host is fixedly connected to a power supply arranged on the bottom edge of the fused convolutional network generating device, and the power supply is electrically connected to a power supply module.

[0018] Further: the following positioning methods are provided:

[0019] S1, detect the UHF near-zone electric field element;

[0020] S2, establish the fusion convolutional network mixing electric field;

[0021] S3, determining the detection frequency of the mixed frequency electric field in each type of cable;

[0022] S4, testing the UHF near-zone electric field element;

[0023] S5, transmitting the detection data to the receiver in reverse for a second time.

[0024] The technical effects and advantages of the present invention are as follows: by providing a detection terminal, the aging position of the ultra-high frequency near-zone electric field element can be accurately located, and at the same time, various instruments in the device can be comprehensively scheduled and controlled; the input terminal can decode and convert the data input to the detection terminal to ensure that the input data is accurate and complete; the combined convolutional network generating device can be inside the device-bearing body; the ultra-high frequency near-zone electric field feedback terminal is arranged inside the device-bearing body, and can achieve good protection for the ultra-high frequency near-zone electric field feedback terminal; at the same time, the input terminal is electrically connected to the detection terminal, and the detection terminal is provided with an anti-resonance terminal in parallel, and the anti-resonance terminal is electrically connected to the detection terminal; the detection terminal is also electrically connected to a storage terminal for data storage; the detection terminal includes a detection local terminal and a feedback system terminal, and the detection local terminal and the feedback system terminal are intertwined and connected in series with each other; the detection local terminal and the feedback system terminal intertwined and connected in series with each other can improve the data detected by the device as a whole, thereby ensuring that the located position is more accurate.

[0025] The input terminal includes a first input module and a second input module, the first input module is electrically connected to a first weight terminal and a second weight terminal, the first weight terminal is electrically connected to a first function threshold, the second weight terminal is electrically connected to a second function threshold, the first function threshold and the second function threshold program are connected to the same loss function terminal, the loss function terminal is electrically connected to a detection terminal, and a PC for carrying is arranged between the detection terminal and the loss function terminal. Through the setting of the first function threshold and the second function threshold, in actual use, the function formula can be stopped in time after the threshold is calculated, thereby effectively ensuring that the detected data will not be over-solved and translated, and can provide a more scientific and objective detection structure.

[0026] By starting the servo motor, the output shaft of the servo motor drives the mutually meshing steering screw and rotating disk. The rotating steering screw can further realize the rotation of the transmission rod, thereby achieving the purpose of driving the bearing shell to rotate through the transmission rod in actual use. The rotating bearing shell can greatly increase the detection range of the detection terminal, thereby improving the detection efficiency and accuracy, and ensuring the scientific nature of the detection results.

[0027] Providing power to the UHF near-field electric field feedback host through the power supply can greatly reduce the interference of external current, thereby fundamentally improving the accuracy of the received signal and ensuring the scientific degree of the detection structure. At the same time, connecting the controller module and the PC through a wireless LAN can greatly reduce the usage rate of cables and achieve the purpose of placing the PC at will, thereby improving the randomness of use and making scheduling more flexible. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 It is a structural schematic diagram of the connection between the detection terminal and the input terminal of the present invention;

[0029] Figure 2 A schematic diagram of the structure of the input terminal system connection of the present invention;

[0030] Figure 3 It is a schematic diagram of the specific system structure of the detection terminal of the present invention;

[0031] Figure 4 It is a structural schematic diagram of the positioning step of the device of the present invention;

[0032] Figure 5 It is a structural schematic diagram of a specific real-time method of the present invention;

[0033] Figure 6 It is a schematic structural diagram of the device carrier of the present invention;

[0034] Figure 7 It is a schematic structural diagram of the cross section of the device carrier of the present invention.

[0035] In the figure: 1. Detection terminal; 101. Detection local terminal; 102. Feedback system terminal; 103. Electric field detection module; 104. Conditioning circuit module; 105. Controller module; 106. Power module; 107. PC terminal; 2. Input terminal; 201. First input module; 202. Second input module; 203. First weight terminal; 204. Second weight terminal; 205. First function threshold; 206. Second function threshold; 207. Loss function terminal; 209. PC; 3. Fusion convolution network generating device; 301. Transmission rod; 302. Bearing shell; 303. Steering screw; 304. Rotating disk; 305. Servo motor; 306. Fusion convolution network generator; 307. Network wave frequency regulator; 4. UHF near-zone electric field feedback terminal; 5. Anti-resonance terminal; 6. Storage terminal; 7. Buffer base; 8. UHF near-zone electric field feedback host; 9. Power supply. DETAILED DESCRIPTION

[0036] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0037] See also Figure 1-7 As shown, the ultra-high frequency near-zone electric field component aging positioning device integrating convolutional network mixing technology includes:

[0038] Detection terminal 1 is used to accurately locate the aging position of the UHF near-zone electric field element and to comprehensively dispatch and control various instruments in the device;

[0039] Input terminal 2, used to decode and convert the data input to detection terminal 1 to ensure that the input data is accurate and complete;

[0040] A fused convolutional network generating device 3 is arranged inside a device-carrying body;

[0041] The ultra-high frequency near-zone electric field feedback terminal 4 is arranged inside the device carrying body.

[0042] The input terminal 2 is electrically connected to the detection terminal 1, and the detection terminal 1 is provided with an anti-resonance terminal 5 in parallel, and the anti-resonance terminal 5 is electrically connected to the detection terminal 1. The detection terminal 1 is also electrically connected to a storage terminal 6 for storing data. The detection terminal 1 includes a detection local terminal 101 and a feedback system terminal 102, and the detection local terminal 101 and the feedback system terminal 102 are intertwined and connected in series.

[0043] As a technical optimization solution of the present invention: the detection terminal 1 includes an electric field detection module 103, a conditioning circuit module 104, a controller module 105 and a power supply module 106. The electric field detection module 103, the conditioning circuit module 104 and the controller module 105 are electrically connected in sequence. The power supply module 106 is electrically connected to the conditioning circuit module 104 and the controller module 105 respectively. The controller module 105 is wirelessly connected to a PC terminal 107 via a wireless local area network.

[0044] As a technical optimization solution of the present invention: the input terminal 2 includes a first input module 201 and a second input module 202, the first input module 201 is electrically connected to a first weight terminal 203 and a second weight terminal 204, the first weight terminal 203 is electrically connected to a first function threshold 205, the second weight terminal 204 is electrically connected to a second function threshold 206, the first function threshold 205 and the second function threshold 206 are program-connected to the same loss function terminal 207, the loss function terminal 207 is electrically connected to a detection terminal 1, and a PC 209 for carrying is arranged between the detection terminal 1 and the loss function terminal 207.

[0045] As a technical optimization solution of the present invention: the top of the fused convolutional network generating device 3 is connected with a transmission rod 301 by rotation, and the top of the transmission rod 301 is fixedly connected with a bearing shell 302 for carrying the detection terminal 1, and the transmission rod 301 is located on the outer wall of the inner section of the fused convolutional network generating device 3 and is fixedly sleeved with a steering screw 303, and the steering screw 303 is threadedly engaged with a rotating disk 304, and a servo motor 305 is arranged through the side wall of the fused convolutional network generating device 3, and the output shaft of the servo motor 305 is fixedly connected with an active gear engaged with the rotating disk 304.

[0046] As a technical optimization solution of the present invention: the fused convolutional network generating device 3 is also provided with a storage box for setting up the fused network, and the storage box is provided with a fused convolutional network generator 306, and the fused convolutional network generator 306 includes a network wave frequency regulator 307.

[0047] As a technical optimization solution of the present invention: a buffer base 7 is arranged at the bottom of the fused convolutional network generating device 3, and the upper base surface of the buffer base 7 is fixedly connected to the bottom of the storage box through the same support rod.

[0048] As a technical optimization solution of the present invention: one end of the ultra-high frequency near-zone electric field feedback terminal 4 is located inside the fused convolutional network generating device 3, and the ultra-high frequency near-zone electric field feedback terminal 4 is located inside the fused convolutional network generating device 3 and is fixedly connected to an ultra-high frequency near-zone electric field feedback host 8. The bottom of the ultra-high frequency near-zone electric field feedback host 8 is fixedly connected to a power supply 9 arranged on the bottom edge of the fused convolutional network generating device 3, and the power supply 9 is electrically connected to the power module 106.

[0049] As a technical optimization solution of the present invention: the following positioning method is provided:

[0050] S1, detect the UHF near-zone electric field element;

[0051] S2, establish the fusion convolutional network mixing electric field;

[0052] S3, determining the detection frequency of the mixed frequency electric field in each type of cable;

[0053] S4, testing the UHF near-zone electric field element;

[0054] S5, transmitting the detection data to the receiver in reverse for a second time.

[0055] When the present invention is in use, by providing a detection terminal 1, it is possible to accurately locate the aging position of the ultra-high frequency near-zone electric field element, and at the same time, comprehensively dispatch and control various instruments in the device; the input terminal 2 is capable of decoding and converting the data input to the detection terminal 1 to ensure that the input data is accurate and complete; the convolution network generating device 3 is capable of providing the inside of the device bearing body; the ultra-high frequency near-zone electric field feedback terminal 4 is provided inside the device bearing body, and can achieve good protection for the ultra-high frequency near-zone electric field feedback terminal 4; at the same time, the input terminal 2 is electrically connected to the detection terminal 1; the detection terminal 1 is provided with an anti-resonance terminal 5 in parallel; the anti-resonance terminal 5 is electrically connected to the detection terminal 1; and the detection terminal 1 is also electrically connected to The storage terminal 6 is used for storing data, the detection terminal 1 includes a detection local terminal 101 and a feedback system terminal 102, the detection local terminal 101 and the feedback system terminal 102 are intertwined and connected in series, and the detection local terminal 101 and the feedback system terminal 102 intertwined and connected in series can improve the data detected by the device as a whole, thereby ensuring that the positioned position is more accurate, and the input terminal 2 includes a first input module 201 and a second input module 202, the first input module 201 is electrically connected to a first weight terminal 203 and a second weight terminal 204, the first weight terminal 203 is electrically connected to a first function threshold 205, and the second weight terminal 204 is electrically connected to a second function threshold 206, the first function The numerical threshold value 205 and the second function threshold value 206 are program-connected with the same loss function terminal 207, and the loss function terminal 207 is electrically connected with the detection terminal 1. A PC 209 for carrying is arranged between the detection terminal 1 and the loss function terminal 207. By setting the first function threshold value 205 and the second function threshold value 206, the function formula can be stopped in time after the threshold value is calculated in actual use, thereby effectively ensuring that the detected data will not be over-solved and translated, and providing a more scientific and objective detection structure. By starting the servo motor 305, the output shaft of the servo motor 305 drives the mutually meshing steering screw 303 and the rotating disk 304, and the rotating steering screw 303 can be further The transmission rod 301 is rotated to achieve the purpose of driving the bearing shell 302 to rotate through the transmission rod 301 in actual use. The rotating bearing shell 302 can greatly increase the detection range of the detection terminal 1, thereby improving the detection efficiency and accuracy, and ensuring the scientific nature of the detection result. The power supply 9 provides power to the ultra-high frequency near-field electric field feedback host 8, which can greatly improve the interference of external current, thereby fundamentally improving the accuracy of the received signal and ensuring the scientific nature of the detection structure. At the same time, the controller module 105 and the PC terminal 107 are connected through a wireless LAN, which can greatly reduce the utilization rate of the cable and achieve the purpose of placing the PC terminal 107 at will, thereby improving the randomness of use and making the scheduling more flexible.

[0056] It will be apparent to those skilled in the art that the invention is not limited to the details of the exemplary embodiments described above and that the invention can be implemented in other specific forms without departing from the spirit or essential features of the invention. Therefore, the embodiments should be considered exemplary and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description, and it is intended that all variations falling within the meaning and scope of the equivalent elements of the claims be included in the invention. Any reference numeral in a claim should not be considered as limiting the claim to which it relates.

[0057] In addition, it should be understood that although the present specification is described according to implementation modes, not every implementation mode contains only one independent technical solution. This description of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment may also be appropriately combined to form other implementation modes that can be understood by those skilled in the art.

Claims

1. Ultra-high frequency near-field electric field component aging positioning device integrating convolutional network mixing technology, include: The detection terminal (1) is used to accurately locate the aging position of the ultra-high frequency near-zone electric field element and to comprehensively dispatch and control various instruments in the device; An input terminal (2) is used to decode and convert data inputted into the detection terminal (1) to ensure that the inputted data is accurate and complete; A fused convolutional network generating device (3) is arranged inside a device-carrying body; An ultra-high frequency near-zone electric field feedback terminal (4) is arranged inside the device-carrying body; The input terminal (2) is electrically connected to the detection terminal (1); the detection terminal (1) is provided with an anti-resonance terminal (5) in parallel; the anti-resonance terminal (5) is electrically connected to the detection terminal (1); the detection terminal (1) is also electrically connected to a storage terminal (6) for storing data; the detection terminal (1) comprises a detection local terminal (101) and a feedback system terminal (102); the detection local terminal (101) and the feedback system terminal (102) are mutually intertwined and connected in series; The following positioning methods are available: S1, detect the UHF near-zone electric field element; S2, establish the fusion convolutional network mixing electric field; S3, determining the detection frequency of the mixed frequency electric field in each type of cable; S4, testing the UHF near-zone electric field element; S5, transmitting the detection data to the receiver in reverse for a second time; The input terminal (2) includes a first input module (201) and a second input module (202); the first input module (201) is electrically connected to a first weight terminal (203) and a second weight terminal (204); the first weight terminal (203) is electrically connected to a first function threshold (205); the second weight terminal (204) is electrically connected to a second function threshold (206); the first function threshold (205) and the second function threshold (206) are program-connected to the same loss function terminal (207); the loss function terminal (207) is electrically connected to a detection terminal (1); and a PC (209) for carrying is provided between the detection terminal (1) and the loss function terminal (207).

2. The ultra-high frequency near-zone electric field element aging positioning device integrating convolutional network mixing technology according to claim 1, Features: The detection terminal (1) comprises an electric field detection module (103), a conditioning circuit module (104), a controller module (105) and a power module (106); the electric field detection module (103), the conditioning circuit module (104) and the controller module (105) are electrically connected in sequence; the power module (106) is electrically connected to the conditioning circuit module (104) and the controller module (105) respectively; and the controller module (105) is wirelessly connected to a PC terminal (107) via a wireless local area network.

3. The ultra-high frequency near-zone electric field element aging positioning device integrating convolutional network mixing technology according to claim 1, Features: The top of the fused convolutional network generating device (3) is connected to a transmission rod (301) by rotation, and the top of the transmission rod (301) is fixedly connected to a bearing shell (302) for bearing the detection terminal (1). The transmission rod (301) is located in the inner section of the fused convolutional network generating device (3) and is fixedly sleeved with a steering screw (303) on the outer wall. The steering screw (303) is threadedly engaged with a rotating disk (304). A servo motor (305) is provided through the side wall of the fused convolutional network generating device (3), and the output shaft of the servo motor (305) is fixedly connected to a driving gear engaged with the rotating disk (304).

4. The ultra-high frequency near-zone electric field element aging positioning device integrating convolutional network mixing technology according to claim 3, Features: The fused convolutional network generating device (3) is also provided with a storage box for setting up the fused network, and the storage box is provided with a fused convolutional network generator (306), and the fused convolutional network generator (306) includes a network wave frequency regulator (307).

5. The ultra-high frequency near-field electric field element aging positioning device integrating convolutional network mixing technology according to claim 1, Features: A buffer base (7) is provided at the bottom of the fused convolutional network generating device (3), and the upper base surface of the buffer base (7) is fixedly connected to the bottom of the storage box via the same support rod.

6. The ultra-high frequency near-zone electric field element aging positioning device integrating convolutional network mixing technology according to claim 1, Features: One end of the ultra-high frequency near-zone electric field feedback terminal (4) is located inside the fused convolutional network generating device (3); the ultra-high frequency near-zone electric field feedback terminal (4) is located inside the fused convolutional network generating device (3) and is fixedly connected to an ultra-high frequency near-zone electric field feedback host (8); the bottom of the ultra-high frequency near-zone electric field feedback host (8) is fixedly connected to a power supply (9) arranged at the bottom edge of the fused convolutional network generating device (3); and the power supply (9) is electrically connected to a power supply module (106).

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