Electrical automation monitoring device for distribution automation equipment

Abstract

The invention discloses an electrical automation monitoring device for power distribution automation equipment, and relates to the technical field of monitoring equipment, and the electrical automation monitoring device comprises a housing, a supporting seat, a driving assembly, a controller, and a scanning assembly. The supporting seat is fixed below the shell; positioning lugs are fixed on two sides of the supporting seat, and the supporting seat is fixed on equipment needing to be monitored through bandages; the axis of the shell is horizontally arranged, the front end face of the shell is rotationally connected with a scanning assembly, a temperature measuring probe is arranged in the scanning assembly, and large-range temperature monitoring is conducted on equipment by rotating the scanning assembly. The technical effects of scanning the temperature of the equipment in a large area and cooling the equipment in time are achieved.

Description

Technical Field

[0001] The present invention relates to the technical field of monitoring equipment, and in particular to an electrical automation monitoring device for power distribution automation equipment. Background Art

[0002] As an important part of the power industry, the continuous and rapid growth of demand for distribution automation equipment has significantly accelerated the development of the power industry. These devices, covering various power facilities, have penetrated into every corner of daily life. It should be pointed out that distribution automation equipment inevitably has resistance during operation, and these resistances will generate heat when the equipment is working. If the heat cannot be effectively dissipated and accumulates in large quantities, it may cause safety accidents such as fires, posing a serious threat to the safety of public life and property.

[0003] At present, the temperature monitoring devices of electrical equipment generally adopt infrared monitoring technology, which can deal with the situation of high temperature of electrical components by real-time monitoring of the parts prone to heat at fixed points. However, due to the dense arrangement and complex distribution of the internal components of the power distribution equipment, it is difficult to conduct a comprehensive monitoring of each part with the risk of heat generation through fixed-point monitoring; a large number of temperature detectors are required, which are complex in structure and costly, and too many monitoring lines are prone to additional electrical failure risks, and the temperature detectors for fixed-point monitoring are difficult to move after being fixed; secondly, even if abnormal temperature rise is detected, it is difficult for the existing temperature measurement mechanism to cool down the faulty part in time. Therefore, an electrical automation monitoring device for distribution automation equipment is needed to solve the above problems. Summary of the invention

[0004] The embodiment of the present application provides an electrical automation monitoring device for distribution automation equipment, which solves the technical problem that the temperature measuring device in the prior art needs to perform fixed-point monitoring at each location, resulting in complex circuits and prone to failure risks, and achieves the technical effect of being able to scan the temperature of the equipment over a large area and cool the equipment in a timely manner.

[0005] An embodiment of the present application provides an electrical automation monitoring device for distribution automation equipment, comprising a shell, a support base, a drive assembly, a controller and a scanning assembly; the shell as a whole is a hollow cylinder; the support base is fixed under the shell to support the shell; positioning ears are fixed on both sides of the support base, and the positioning ears are used to connect straps and are fixed to the equipment to be monitored through the straps; the axis of the shell is horizontally arranged, and the front end face of the shell is rotatably connected to the scanning assembly, and the scanning assembly includes a temperature probe inside, and the equipment is subjected to a large range of temperature monitoring by rotating the scanning assembly; the drive assembly and the controller are located inside the shell, and are used to drive the scanning assembly and control the operation of the monitoring device.

[0006] Preferably, a driving cavity is coaxially opened at the center of the shell, and an annular air duct is coaxially opened at the periphery of the driving cavity; the driving cavity is a closed cylindrical cavity, and a rotating motor is fixed to the side of the driving cavity away from the front end face, the output end of the rotating motor faces the front end face of the shell, and the output end of the rotating motor is connected to a driving main shaft, the driving main shaft is coaxially arranged with the shell, and the driving main shaft is rotatably connected to the front end face of the shell; an annular through groove is coaxially opened at the side of the driving cavity away from the rotating motor, a rotating ring is rotatably connected in the annular through groove, and the middle part of the scanning assembly is fixed to the rotating ring; the driving main shaft and the rotating ring are fixedly connected by a connecting rod; there are two connecting rods, and the two connecting rods are symmetrically arranged about the driving main shaft.

[0007] Preferably, the annular air duct is provided with an annular opening near the front end surface of the shell, and a plurality of grid plates are fixed in the annular opening. The plurality of grid plates are evenly distributed along the circumference of the annular opening with the driving main shaft as the axis, and are used to support and protect the annular opening.

[0008] Preferably, a blower is fixed on one side below the shell, the blower includes an outer shell and a motor, an air inlet slot is opened inside the annular air duct, and the air inlet slot is a through slot; the upper end of the blower outer shell is fixedly connected with the air inlet slot of the annular air duct, and a plurality of air inlet holes are opened on the side wall of the outer shell, and the air inlet holes are used for air intake of the motor; the lower end of the outer shell is fixed to the top inside the support seat, which can enhance the structural strength of the outer shell at the same time; when the blower is started, external air flows from the air inlet hole into the annular air duct, and is blown out from the annular opening onto the equipment, thereby cooling the heat-generating parts of the equipment; the driving motor, scanning component and blower are all connected with the controller signal.

[0009] Initially, the user fixes the shell to the position where the temperature needs to be monitored through the positioning ears. During operation, the drive motor drives the drive spindle to rotate, the drive spindle drives the rotating ring to rotate, and the rotating ring drives the scanning component to rotate, thereby continuously scanning the temperature of the equipment and feeding back the scanned temperature to the controller in real time. The controller compares the real-time scanned temperature feedback value with the set temperature range. When the temperature fed back by the equipment exceeds the set temperature range, the controller controls the blower to start, and the blower blows air from the annular air duct to the overheated part of the equipment, thereby timely cooling down the equipment. At the same time, the controller feeds back the abnormal temperature to the staff.

[0010] Preferably, there are two positioning ears, the two positioning ears are perpendicular to the side walls of the support seat and are symmetrically arranged with respect to the shell, the positioning ears include a lacing hole, a contact rod and a contact block, the lacing hole is a rectangular through groove opened on the front side of the positioning ear, and is used to connect the strap; the contact rod is horizontally fixed to the front end of the positioning ear, the length direction of the contact rod is parallel to the length direction of the driving spindle, a contact block is fixed to the front end of the contact rod, the contact block is a rectangular parallelepiped, the front end face of the contact block is parallel to the front end face of the shell, the two contact blocks are both vertically arranged, and the plane where the front end face of the contact block is located is located between the scanning component and the front end face of the shell.

[0011] Preferably, the scanning assembly includes a positioning plate, scanning software, a positioning spring and a temperature measuring probe; the positioning plate is a rectangular plate, the positioning plate is an elongated strip as a whole, and the positioning plate is parallel to the front end face of the shell; the middle part of the rear end of the positioning plate is fixedly connected to the rotating ring through a connecting block; the front end face of the positioning plate is fixedly covered with the scanning software.

[0012] Preferably, the scanning software includes a vertical surface and a curved surface, the vertical surface is perpendicular to the positioning plate, and the curved surface faces the front of the rotation direction of the scanning component; a hollow active cavity is formed between the scanning software and the positioning plate, and the positioning plate is located on one side of the active cavity and fixed with a plurality of positioning springs, the positioning springs are arranged perpendicular to the positioning plate, and a temperature measuring probe is fixed to one end of each positioning spring away from the positioning plate; the plurality of temperature measuring probes are evenly distributed along the length direction of the positioning plate.

[0013] Preferably, a detection groove is provided on the arc surface of the scanning software, and the detection groove is a rectangular through groove, and the length direction of the detection groove is parallel to the length direction of the positioning plate; the front ends of the multiple temperature measuring probes are inserted into the detection groove and face the direction where temperature measurement is required.

[0014] One or more technical solutions provided in the embodiments of the present application have at least the following technical effects or advantages:

[0015] By integrating temperature monitoring and automatic cooling functions, large-scale temperature monitoring and timely thermal management are achieved. Its cylindrical shell, support base and positioning ear design are easy to install and fix, and the elastic adaptability of the scanning component and the multi-point temperature measurement probe improve the temperature measurement accuracy. The automatic cooling mechanism and intelligent controller improve the safety and operating efficiency of the equipment. Compared with the existing technology, it has higher integration, portability and maintenance convenience. It solves the technical problem that the temperature measuring device of the existing technology needs to perform fixed-point monitoring at each location, resulting in complex lines and prone to failure risks. It achieves the technical effect of being able to scan the temperature of the equipment over a large area and cool the equipment in a timely manner. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0017] Figure 2 It is a front view structural schematic diagram of the present invention;

[0018] Figure 3 It is a schematic diagram of a top cross-sectional structure of the present invention;

[0019] Figure 4 is a schematic cross-sectional view of a scanning assembly of the present invention;

[0020] Figure 5 This is a schematic diagram of the arrangement positions of the temperature measuring probes of the present invention.

[0021] In the figure:

[0022] Shell 100; drive chamber 110; rotating motor 111; controller 112; driving spindle 113; connecting rod 114; annular air duct 120; grid plate 121; air inlet slot 122; rotating ring 130; support seat 200; positioning ear 210; tie hole 211; abutment rod 212; abutment block 213; blower 300; air inlet hole 310; scanning assembly 400; positioning plate 410; scanning software 420; detection slot 421; movable chamber 422; positioning spring 430; temperature probe 440; connecting block 450. DETAILED DESCRIPTION

[0023] To facilitate the understanding of the present invention, the present application will be described more comprehensively below with reference to the relevant drawings; the drawings show preferred embodiments of the present invention, but the present invention can be implemented in many different forms and is not limited to the embodiments described herein; on the contrary, the purpose of providing these embodiments is to enable a more thorough and comprehensive understanding of the disclosed content of the present invention.

[0024] It should be noted that the terms “vertical”, “horizontal”, “up”, “down”, “left”, “right” and similar expressions used in this document are only for illustrative purposes and do not represent the only implementation method.

[0025] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by technicians in the technical field to which the present invention belongs; the terms used in the specification of the present invention are only for the purpose of describing specific embodiments and are not intended to limit the present invention; the term "and / or" used herein includes any and all combinations of one or more related listed items.

[0026] Embodiment 1: Figures 1 to 5As shown, the present application is an electrical automation monitoring device for distribution automation equipment, including a shell 100, a support base 200, a drive component, a controller 112 and a scanning component 400; the shell 100 is a hollow cylinder as a whole; the support base 200 is fixed under the shell 100, and is used to support the shell 100; positioning ears 210 are fixed on both sides of the support base 200, and the positioning ears 210 are used to connect straps and are fixed to the equipment to be monitored through the straps; the axis of the shell 100 is horizontally arranged, and the front end face of the shell 100 is rotatably connected to the scanning component 400, and the scanning component 400 includes a temperature probe 440 inside, and a large range of temperature monitoring of the equipment is performed by rotating the scanning component 400; the drive component and the controller 112 are located inside the shell 100, and are used to drive the scanning component 400 and control the operation of the monitoring device.

[0027] A driving chamber 110 is coaxially opened at the center of the shell 100, and an annular air duct 120 is coaxially opened at the periphery of the driving chamber 110; the driving chamber 110 is a closed cylindrical chamber, and a rotating motor 111 is fixed to the side of the driving chamber 110 away from the front end face, and the output end of the rotating motor 111 faces the front end face of the shell 100, and the output end of the rotating motor 111 is connected to a driving spindle 113, and the driving spindle 113 is coaxially arranged with the shell 100, and the driving spindle 113 is rotatably connected to the front end face of the shell 100; an annular through groove is coaxially opened at the side of the driving chamber 110 away from the rotating motor 111, and a rotating ring 130 is rotatably connected in the annular through groove, and the middle part of the scanning component 400 is fixed to the rotating ring 130; the driving spindle 113 and the rotating ring 130 are fixedly connected by a connecting rod 114; there are two connecting rods 114, and the two connecting rods 114 are symmetrically arranged about the driving spindle 113.

[0028] The annular air duct 120 is provided with an annular opening near the front end surface of the housing 100, and a plurality of grid plates 121 are fixed in the annular opening. The plurality of grid plates 121 are evenly distributed along the circumference of the annular opening with the driving main shaft 113 as the axis, and are used to support and protect the annular opening;

[0029] A blower 300 is fixed to one side below the shell 100. The blower 300 includes a shell and a motor. An air inlet slot 122 is provided inside the annular air duct 120, and the air inlet slot 122 is a through slot. The upper end of the shell of the blower 300 is fixedly connected to the air inlet slot 122 of the annular air duct 120, and a plurality of air inlet holes 310 are provided on the side wall of the shell. The air inlet holes 310 are used for air intake of the motor. The lower end of the shell is fixed to the top of the support base 200, which can enhance the structural strength of the shell at the same time. When the blower 300 is started, external air flows from the air inlet holes 310 into the annular air duct 120, and is blown out from the annular opening onto the equipment, thereby cooling the heating parts of the equipment.

[0030] The driving motor, scanning assembly 400 and blower 300 are all connected to the controller 112 by signal; the controller 112 is preferably a single chip microcomputer, which is a prior art and will not be described in detail.

[0031] Initially, the user fixes the housing 100 at the position where the temperature needs to be monitored by the positioning ear 210. During operation, the driving motor drives the driving spindle 113 to rotate, the driving spindle 113 drives the rotating ring 130 to rotate, and the rotating ring 130 drives the scanning component 400 to rotate, thereby continuously scanning the temperature of the equipment, and feeding back the scanned temperature to the controller 112 in real time. The controller 112 compares the real-time scanned temperature feedback value with the set temperature range. When the temperature fed back by the equipment exceeds the set temperature range, the controller 112 controls the blower 300 to start, and the blower 300 blows air from the annular air duct 120 to the overheated part of the equipment, thereby timely cooling the equipment. At the same time, the controller 112 feeds back the abnormal temperature to the staff, reminding the staff to check the abnormal situation in time.

[0032] There are two positioning ears 210, and the two positioning ears 210 are perpendicular to the side walls of the support base 200 and are symmetrically arranged about the shell 100. The positioning ears 210 include a lacing hole 211, a resistance rod 212 and a resistance block 213. The lacing hole 211 is a rectangular through groove opened on the front side of the positioning ear 210, which is used to connect the strap; the resistance rod 212 is horizontally fixed to the front end of the positioning ear 210, and the length direction of the resistance rod 212 is parallel to the length direction of the driving spindle 113. A resistance block 213 is fixed to the front end of the resistance rod 212. The resistance block 213 is a rectangular parallelepiped, and the front end surface of the resistance block 213 is parallel to the front end surface of the shell 100. The two resistance blocks 213 are both vertically arranged, and the plane where the front end surface of the resistance block 213 is located is located between the scanning component 400 and the front end surface of the shell 100, and is used to resist the equipment to be monitored, thereby avoiding the shell 100 from being close to the equipment and avoiding the outlet of the annular air duct 120 from being blocked.

[0033] The scanning component 400 includes a positioning plate 410, a scanning software 420, a positioning spring 430 and a temperature measuring probe 440; the positioning plate 410 is a rectangular plate, and the positioning plate 410 is an elongated strip as a whole, and the positioning plate 410 is parallel to the front end surface of the shell 100; the middle of the rear end of the positioning plate 410 is fixedly connected to the rotating ring 130 through a connecting block 450; the front end surface of the positioning plate 410 is fixedly covered with the scanning software 420; the scanning software 420 includes a vertical surface and an arc surface, wherein the vertical surface is perpendicular to the positioning plate 410, and the arc surface faces the front of the rotation direction of the scanning component 400; a hollow is formed between the scanning software 420 and the positioning plate 410. The active cavity 422, the positioning plate 410 is located on one side of the active cavity 422 and is fixed with a plurality of positioning springs 430, the positioning springs 430 are arranged perpendicular to the positioning plate 410, and each positioning spring 430 is fixed with a temperature measuring probe 440 at one end away from the positioning plate 410, and the plurality of temperature measuring probes 440 are evenly distributed along the length direction of the positioning plate 410; a detection groove 421 is opened on the arc surface of the scanning software 420, and the detection groove 421 is a rectangular through groove, and the length direction of the detection groove 421 is parallel to the length direction of the positioning plate 410; the front ends of the plurality of temperature measuring probes 440 are all inserted into the detection groove 421 and face the direction where temperature measurement is required.

[0034] Since there may be uneven areas on the surface of the device under test, when the scanning assembly 400 rotates under the drive of the rotating ring 130, if the scanning software 420 contacts the device under test, the scanning software 420 undergoes elastic deformation, and at the same time, the temperature measuring probe 440 is subjected to pressure and drives the positioning spring 430 to deform, thereby avoiding damage to the temperature measuring probe 440, and at the same time keeping the temperature measuring probe 440 in close contact with the measured point, thereby ensuring the accuracy of temperature measurement. Since multiple temperature measuring probes 440 are arranged in the length direction of the positioning plate 410, a circular temperature scanning plane is formed when the scanning assembly 400 rotates, which not only shortens the time when the user needs to install multiple temperature measuring devices at multiple points when measuring the temperature of the device, but also improves portability, can be installed at any position, and can be quickly disassembled, avoiding the risk of cumbersome and complicated lines caused by installing multiple temperature measuring devices, and the monitoring device can timely cool down the measured point with abnormal temperature, thereby further improving the safety of the device under test and reducing safety hazards.

[0035] The technical solutions in the above embodiments of the present application have at least the following technical effects or advantages:

[0036] By integrating temperature monitoring and cooling functions, it has higher integration and higher efficiency compared with the separate temperature measurement or cooling equipment in the prior art, and timely cooling improves the safety of the equipment. By rotating the scanning component 400, the temperature of the equipment can be monitored over a wide range, which improves the monitoring efficiency. When the temperature of the equipment is abnormal, the controller 112 can automatically start the blower 300 to cool down, which improves the safety and reliability of the equipment. The support seat 200 and the positioning ear 210 are convenient for fixing and positioning the device, and improve the flexibility of installation. The scanning component 400 adopts elastic scanning software 420 and multiple temperature measuring probes 440 to improve the accuracy of temperature measurement and the safety of the equipment. The drive component and the controller 112 realize the automatic operation of the device and reduce the need for manual intervention. The design of the annular air duct 120 and the grid plate 121 not only protects the internal components, but also ensures the effective ventilation of the air duct. The design of the positioning ear 210 facilitates quick installation and disassembly, reduces the complexity of the line and safety hazards. The design of the scanning software 420 can adapt to the uneven surface of the equipment, ensuring the accuracy of temperature measurement. The controller 112 (single chip microcomputer) can process temperature data in real time and compare it with the preset value, thus realizing intelligent temperature management. Due to the modular design of the device, each component is easy to replace and maintain, thus reducing the cost of long-term operation. Compared with the existing technology, it has made significant improvements in structural design, functional integration, intelligent control, etc., thus improving the operating safety and efficiency of distribution automation equipment.

[0037] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. For those skilled in the art, the present invention may have various modifications and variations. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. An electrical automation monitoring device for distribution automation equipment, characterized in that: The invention comprises a shell (100), a support base (200), a drive component, a controller (112) and a scanning component (400); the shell (100) is a hollow cylinder as a whole; the support base (200) is fixed below the shell (100) and is used to support the shell (100); positioning ears (210) are fixed on both sides of the support base (200), and the positioning ears (210) are used to connect with straps and are fixed to the equipment to be monitored through the straps; the axis of the shell (100) is arranged horizontally, and the front end surface of the shell (100) is rotatably connected with the scanning component (400), and the scanning component (400) includes a temperature measuring probe (440) inside, and the temperature of the equipment is monitored over a wide range by rotating the scanning component (400); the drive component and the controller (112) are located inside the shell (100) and are used to drive the scanning component (400) and control the operation of the monitoring device.

2. The electrical automation monitoring device for distribution automation equipment according to claim 1, characterized in that: A driving chamber (110) is coaxially provided at the center of the shell (100), and an annular air duct (120) is coaxially provided at the periphery of the driving chamber (110); the driving chamber (110) is a closed cylindrical chamber, a rotating motor (111) is fixed to the side of the driving chamber (110) away from the front end surface, the output end of the rotating motor (111) faces the front end surface of the shell (100), the output end of the rotating motor (111) is connected to a driving main shaft (113), and the driving main shaft (113) is coaxially arranged with the shell (100). The driving main shaft (113) is rotatably connected to the front end surface of the housing (100); an annular through groove is coaxially opened on the side of the driving cavity (110) away from the rotating motor (111), a rotating ring (130) is rotatably connected in the annular through groove, and the middle part of the scanning component (400) is fixed on the rotating ring (130); the driving main shaft (113) and the rotating ring (130) are fixedly connected via a connecting rod (114); there are two connecting rods (114), and the two connecting rods (114) are symmetrically arranged with respect to the driving main shaft (113).

3. The electrical automation monitoring device for distribution automation equipment according to claim 2, characterized in that: The annular air duct (120) is provided with an annular opening near the front end surface of the shell (100), and a plurality of grid plates (121) are fixed in the annular opening. The plurality of grid plates (121) are evenly distributed along the circumference of the annular opening with the driving main shaft (113) as the axis, and are used to support and protect the annular opening.

4. The electrical automation monitoring device for distribution automation equipment according to claim 3, characterized in that: A blower (300) is fixed to one side below the shell (100), and the blower (300) includes a shell and a motor. An air inlet slot (122) is provided inside the annular air duct (120), and the air inlet slot (122) is a through slot; the upper end of the shell of the blower (300) is fixedly connected to the air inlet slot (122) of the annular air duct (120), and a plurality of air inlet holes (310) are provided on the side wall of the shell, and the air inlet holes (310) are used for air intake of the motor; the lower end of the shell is fixed to the top of the support base (200), which can simultaneously enhance the structural strength of the shell; when the blower (300) is started, external air flows from the air inlet holes (310) into the annular air duct (120), and is blown out from the annular opening onto the equipment, thereby cooling the heating parts of the equipment; the drive motor, the scanning component (400) and the blower (300) are all connected to the controller (112) by signal; Initially, the user fixes the housing (100) at a location where the temperature needs to be monitored by means of the positioning ears (210). During operation, the driving motor drives the driving spindle (113) to rotate, the driving spindle (113) drives the rotating ring (130) to rotate, and the rotating ring (130) drives the scanning assembly (400) to rotate, thereby continuously scanning the temperature of the device, and feeding back the scanned temperature to the controller (112) in real time. The controller (112) compares the temperature feedback value obtained by the real-time scan with the set temperature range. When the temperature fed back by the device exceeds the set temperature range, the controller (112) controls the blower (300) to start, and the blower (300) blows air from the annular air duct (120) to the overheated location of the device, thereby timely cooling the device. At the same time, the controller (112) feeds back the abnormal temperature to the staff.

5. The electrical automation monitoring device for distribution automation equipment according to claim 1, characterized in that: There are two positioning ears (210), the two positioning ears (210) are perpendicular to the side wall of the support seat (200), and are symmetrically arranged with respect to the shell (100), the positioning ears (210) include a lacing hole (211), a resistance rod (212) and a resistance block (213), the lacing hole (211) is a rectangular through groove opened on the front side of the positioning ear (210) for connecting a strap; the resistance rod (212) is horizontally fixed to the front end of the positioning ear (210) The length direction of the interference rod (212) is parallel to the length direction of the driving main shaft (113); a interference block (213) is fixed to the front end of the interference rod (212); the interference block (213) is a rectangular parallelepiped; the front end surface of the interference block (213) is parallel to the front end surface of the shell (100); the two interference blocks (213) are both vertically arranged; and the plane where the front end surface of the interference block (213) is located is located between the scanning component (400) and the front end surface of the shell (100).

6. The electrical automation monitoring device for distribution automation equipment according to claim 2, characterized in that: The scanning assembly (400) comprises a positioning plate (410), scanning software (420), a positioning spring (430) and a temperature measuring probe (440); the positioning plate (410) is a rectangular plate, the positioning plate (410) is an elongated strip as a whole, and the positioning plate (410) is parallel to the front end surface of the shell (100); the middle part of the rear end of the positioning plate (410) is fixedly connected to the rotating ring (130) through a connecting block (450); and the front end surface of the positioning plate (410) is fixedly covered with the scanning software (420).

7. The electrical automation monitoring device for distribution automation equipment according to claim 6, characterized in that: The scanning software (420) comprises a vertical surface and a curved surface, wherein the vertical surface is perpendicular to the positioning plate (410), and the curved surface faces the front of the rotation direction of the scanning component (400); a hollow active cavity (422) is formed between the scanning software (420) and the positioning plate (410); a plurality of positioning springs (430) are fixed on one side of the active cavity (422) of the positioning plate (410); the positioning springs (430) are arranged perpendicular to the positioning plate (410), and a temperature measuring probe (440) is fixed on one end of each positioning spring (430) away from the positioning plate (410); and the plurality of temperature measuring probes (440) are evenly distributed along the length direction of the positioning plate (410).

8. The electrical automation monitoring device for distribution automation equipment according to claim 6, characterized in that: A detection groove (421) is provided on the arc surface of the scanning software (420), and the detection groove (421) is a rectangular through groove. The length direction of the detection groove (421) is parallel to the length direction of the positioning plate (410); the front ends of the plurality of temperature measuring probes (440) are all inserted into the detection groove (421) and face the direction in which the temperature measurement is required.

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