Electric power working condition internet-of-things monitoring device based on artificial intelligence

Abstract

The invention provides an electric power working condition internet-of-things monitoring device based on artificial intelligence, which structurally comprises a display end, an electric control board, a monitoring main body, joining plates and a vertical block, and is characterized in that the display end is embedded in the center of the surface layer of the electric control board, the back of the electric control board is connected with the front end of the monitoring main body, and the joining plates are arranged at the upper and lower ends of the monitoring main body; after the monitoring main body is further improved, the original radiator position basis of the intelligent monitoring box body is changed, and the radiators are arranged on the two sides of the constant-temperature connecting structure, so that the constant-temperature connecting structure can receive wind energy discharged by the radiators through the air supply pipe; then the temperature of the wind energy is controlled by combining a small cooling block in the loading frame, and finally the temperature of the connecting ring is reduced by low-temperature wind energy, so that the temperature of the power line shaft in the through groove area can be controlled, faults caused by continuous rising are avoided, and the effect of making the best use of materials can be achieved by combining the wind energy of the heat dissipation body; and the overall weight of the device is prevented from being increased by additionally installing a fan.

Description

TECHNICAL FIELD

[0001] The application relates to an electric power working condition intelligent monitoring device based on artificial intelligence. BACKGROUND

[0002] Electric power is a name of energy, which is an energy source taking electric energy as power, so that various types of labor can be effectively and stably carried out under the support of electric power energy, and the efficiency of social production is improved. Further, when electric power energy is used, professional electricians need to arrange the region, so that after the line is connected, the working condition of the circuit needs to be detected in real time by the intelligent monitoring device to avoid power failure caused by quality problems, high temperature and other adverse reactions. As described above, the present inventor has found that: Firstly, the application number of "CN202010490255.6" "Electric power working condition intelligent monitoring device and method based on artificial intelligence" realizes monitoring of electric power working condition through Internet of Things, analyzes and predicts electric power working condition through artificial intelligence, plays a warning function, realizes intelligent and remote operation. Secondly, the application number of "CN202010873516.2" "Electric power working condition intelligent monitoring device based on artificial intelligence and use method" sets RS485 communicator and optoelectronic isolator, uses RS485 communicator to transmit electric power working condition data monitored by monitoring device to terminal equipment, so as to realize remote Internet sharing and send instructions to monitoring device, so as to adjust monitoring device working data, and optoelectronic isolator has good isolation effect on input and output electric signal, so as to improve common mode rejection capability and reduce interference error. However, the following defects still exist: Because the current in the wire will generate resistance when passing through the conductor, the electrons in the conductor collide with the atoms of the conductor, and the collision will cause the average speed of the electrons to decrease, thereby converting the kinetic energy of the electrons into heat energy, so that the power line shaft will emit high temperature when working, and the high temperature cannot be quickly dissipated after gathering in the insulating rubber skin, which may cause a safety hazard of self-ignition, so that the current monitoring device cannot balance the temperature of the power line when detecting the electric power working condition in real time, which reduces the safety factor of the electric power working condition. If the safety hazard caused by temperature is solved by thickening the conductor, the diameter of the power line shaft will be greatly increased, thereby increasing the actual weight of the power line shaft body and the complexity of installation. SUMMARY

[0003] The technical scheme adopted by the present application to achieve the technical purpose is: an electric power working condition Internet of Things monitoring device based on artificial intelligence, which comprises a display end, an electric control board, a monitoring main body, a connecting plate and a vertical block, wherein the display end is embedded in the center of the surface layer of the electric control board, the back of the electric control board is connected with the front end of the monitoring main body, the connecting plate is arranged at the upper and lower ends of the monitoring main body, and the vertical block is welded to the top center of the connecting plate.

[0004] As a further improvement of the present application, the monitoring main body is provided with protrusions, solid layers, intelligent monitoring box bodies, heat sinks, struts and constant temperature connection structures, the protrusions are perpendicular to the solid layers and arranged at the upper and lower ends of the intelligent monitoring box bodies, the heat sinks are embedded in the center of the intelligent monitoring box bodies, the struts are vertically installed at the center of the intelligent monitoring box bodies, the constant temperature connection structures are fixed to the center of the intelligent monitoring box bodies through the struts and connected with the heat sinks on both sides, and the intelligent monitoring box bodies are electrically connected with the electric control board through the constant temperature connection structures; the protrusions are rectangular in shape and each group of protrusions is arranged at the upper and lower ends of the intelligent monitoring box bodies, the intelligent monitoring box bodies contain intelligent analysis, intelligent early warning, intelligent electric power working condition calculation data and other accessories, each group of heat sinks is arranged at the center of the intelligent monitoring box bodies, the struts are installed in a vertical direction, and the constant temperature connection structures are installed in the space between the two groups of heat sinks and form stable electrical connection with the intelligent monitoring box bodies.

[0005] As a further improvement of the present application, the constant temperature connection structure is provided with clamping blocks, air supply pipes, loading frames, small cooling blocks, connecting rings and through grooves, the clamping blocks are perpendicular to the air supply pipes, the loading frames are connected with the air supply pipes on both sides and communicate with each other, the small cooling blocks are fixed to the inner layer region of the loading frames and communicate with the air supply pipes, the connecting rings are embedded in the inner region of the loading frames and contact the small cooling blocks through the loading frames, the through grooves pass through the center of the connecting rings and the loading frames, and the connecting rings are arranged in the middle of the intelligent monitoring box bodies through the loading frames; each group of clamping blocks and air supply pipes is arranged on the left and right sides of the loading frame and is arranged in a completely symmetrical direction, the loading frame is square in shape and has a small cooling block in the inner bag, the connecting ring is circular in shape and is matched with the inner wall of the loading frame, and the through groove penetrates in a straight direction.

[0006] As a further improvement of the present invention, the connecting ring is provided with a cavity, a ring body, a restraining ring, a splicing layer, and an insulating clamp. The cavity extends through the edge of the ring body, the restraining ring falls into the top area of ​​the ring body, the splicing layer is an integral structure with the interior of the ring body, and the insulating clamp is positioned in the interior area of ​​the ring body through the splicing layer and is set on the side of the cavity. The splicing layer communicates with the through groove through the ring body. There are two cavities on the edge of the ring body, which are on the same parallel line. The restraining ring covers the top of the ring body. The splicing layer is arc-shaped. There are two insulating clamps inside the ring body, which are made of rubber.

[0007] As a further improvement of the present invention, the splicing layer is provided with locking blocks, adapter blocks, threaded grooves, vertical rods, and contact bodies. The locking blocks are embedded in both sides of the surface of the adapter blocks. The central part of the adapter blocks is penetrated by the threaded grooves. The vertical rod is welded to the top center of the adapter blocks and has threaded grooves inside. The contact body is installed in the top area of ​​the vertical rod and is on the same vertical center line as the adapter blocks. The contact body coincides with the insulating clamping block through the vertical rod. A set of locking blocks is provided on each side of the surface of the adapter blocks. The adapter blocks and contact bodies are both arc-shaped. The threaded grooves penetrate the center of the vertical rod in a vertical direction and protrude from the middle part of the contact body.

[0008] As a further improvement of the present invention, the connecting plate is provided with a parallel plate, a plug, a groove, a load-bearing block, and a fixing groove. The plug is welded to the lower left and right areas of the parallel plate. The plug overlaps with the groove. The groove is opened on both sides of the surface of the load-bearing block. The center of the load-bearing block and the fixing groove are integrated and parallel to each other with the parallel plate. The fixing groove of the load-bearing block fits into the lower end of the monitoring body. The parallel plate is made of stainless steel. One plug is provided on each side of the lower end of the parallel plate and the surface is finely polished. The area of ​​the load-bearing block is the same as the area of ​​the parallel plate. The fixing groove is a rectangular recess.

[0009] As a further improvement of the present invention, the fixing groove is provided with a reinforcing frame, a carrying plate, a support block, a limiting frame, and a clamping block. The reinforcing frame covers the edge of the carrying plate, and the support block is embedded in the center edge of the inner layer of the carrying plate. The limiting frame is embedded in the middle part of the carrying plate through the support block, and the clamping block is set in the inner edge of the limiting frame. The carrying plate is positioned in the center area of ​​the load-bearing block through the reinforcing frame. The reinforcing frame is made of carbon steel and its area is larger than that of the carrying plate. The support block is solid, and the limiting frame contains two trapezoidal clamping blocks.

[0010] Compared with the prior art, the present invention has the following beneficial effects: 1. This invention further improves upon the monitoring body by changing the original position of the heat sink in the intelligent monitoring box. The heat sink is placed on both sides of the constant temperature connection structure, allowing the constant temperature connection structure to receive the air energy discharged by the heat sink through the air supply pipe. Then, combined with the small cooling block inside the loading frame, the air energy temperature is controlled. Finally, the low-temperature air energy lowers the temperature of the connecting ring, thus controlling the temperature of the power cord spool in the through slot area and avoiding malfunctions caused by continuous temperature rise. Therefore, the air energy of the heat sink can be used to its fullest potential, avoiding the need to install a separate fan and increase the overall weight of the device.

[0011] 2. This invention further improves upon the connecting ring of the constant temperature connection structure. The two cavities on the ring body can stably receive the wind energy generated by the heat sink. Then, the splicing layer inside the ring body can be fixed to the insulating clamp block inside the ring body by the vertical rod and the contact body. At the same time, the threaded groove on the adapter block allows the small screw to be locked in a straight line, improving the convenience of assembling and disassembling the insulating clamp block. Furthermore, the arc-shaped adapter block and arc-shaped contact body can improve the overlap accuracy with the inside of the ring body and the insulating clamp block. Finally, the insulating clamp block makes contact with the power cord spool by combining its insulation characteristics, which can completely avoid the occurrence of leakage.

[0012] 3. With further improvements to the connecting plate, the two inserts at the lower end of the parallel plate can overlap with the fixing grooves on the load-bearing block. For this purpose, the inserts can penetrate through both sides of the monitoring body, thereby improving the vertical stability of the monitoring body. Then, the solid shape of the parallel plate is used to cover the top of the monitoring body, enhancing the overall airtightness and preventing dust intrusion. Conversely, after the parallel plate is detached from the load-bearing block through the inserts, the upper part of the monitoring body can be exposed in the space. This facilitates the maintenance of the internal parts of the monitoring body and replaces the cumbersome process of the original overall disassembly. Attached Figure Description

[0013] Figure 1 This is a structural diagram of a power condition IoT monitoring device based on artificial intelligence.

[0014] Figure 2 This is a schematic diagram of the side cross-section of an improved monitoring device.

[0015] Figure 3 This is a schematic diagram of the overall front view of an improved constant temperature connection structure.

[0016] Figure 4 This is a three-dimensional structural diagram of an improved connecting ring.

[0017] Figure 5 This is a cross-sectional structural diagram of a newly added component inside a splicing layer.

[0018] Figure 6This is a three-dimensional structural diagram of an improved connecting plate.

[0019] Figure 7 This is a top view schematic diagram of a modified fixed groove structure.

[0020] In the diagram: Display terminal-1, Electrical control board-2, Monitoring main body-3, Connecting plate-4, Vertical block-5, Protrusion-31, Solid layer-32, Intelligent monitoring box-33, Heat sink-34, Support column-35, Constant temperature connection structure-36, Clip-361, Air duct-362, Loading frame-363, Small cooling block-364, Connecting ring-365, Through groove-366, Cavity-a1, Ring body- a2, restraint ring - a3, splicing layer - a4, insulating clamp - a5, locking block - a41, adapter block - a42, threaded groove - a43, vertical rod - a44, contact body - a45, parallel plate - 41, plug - 42, groove - 43, load-bearing block - 44, fixing groove - 45, reinforcing frame - 451, carrying plate - 452, support block - 453, limiting frame - 454, clamp - 455. Implementation

[0021] The present invention will be further described below with reference to the accompanying drawings: Example

[0022] Figures 1 to 5 As shown: This invention provides an AI-based IoT monitoring device for power operating conditions. Its structure includes a display terminal 1, an electronic control board 2, a monitoring body 3, a connecting plate 4, and a vertical block 5. The display terminal 1 is embedded in the center of the surface layer of the electronic control board 2. The back of the electronic control board 2 is connected to the front end of the monitoring body 3. The connecting plate 4 is set at the upper and lower ends of the monitoring body 3. The vertical block 5 is welded to the top center of the connecting plate 4.

[0023] The monitoring body 3 includes a protrusion 31, a solid layer 32, an intelligent monitoring enclosure 33, a heat sink 34, a support column 35, and a constant temperature connection structure 36. The protrusion 31 and solid layer 32 are perpendicular to each other and positioned at the top and bottom of the intelligent monitoring enclosure 33. The heat sink 34 is embedded in the center of the intelligent monitoring enclosure 33 on both sides. The support column 35 is vertically installed at the center of the intelligent monitoring enclosure 33. The constant temperature structure 36 is fixed to the center of the intelligent monitoring enclosure 33 via the support column 35 and is connected to the heat sink 34 on both sides. The constant temperature connection structure... The structure 36 is electrically connected to the control board 2 through the intelligent monitoring box 33; the protrusion 31 is rectangular and is provided with one set at the top and one set at the bottom of the intelligent monitoring box 33, and the intelligent monitoring box 33 contains accessories such as intelligent analysis, intelligent early warning, and intelligent power condition calculation data; the heat sink 34 is provided with one set on each side of the center of the intelligent monitoring box 33; the support column 35 is installed in a vertical position; the constant temperature connection structure 36 is installed in the distance between the two sets of heat sinks 34 and forms a stable electrical connection with the intelligent monitoring box 33. The protrusion 31, through its rectangular shape and cooperation with the solid layer 32, defines the upper and lower positions of the intelligent monitoring box 33. The intelligent monitoring box 33, based on the combination of its internal components, achieves the characteristics of intelligent Internet of Things monitoring. The heat sink 34, based on two sets inside the intelligent monitoring box 33, enhances the heat dissipation intensity of the intelligent monitoring box 33. The support column 35, based on its vertical shape, determines the position of the constant temperature connection structure 36, arranging it in a straight line. The constant temperature connection structure 36, by being positioned within the spacing of the heat sink 34, forms a stable connection with the heat sink 34, thereby guiding the airflow of the heat sink 34 and achieving the effect of making the best use of resources.

[0024] The constant temperature connection structure 36 includes a locking block 361, an air supply duct 362, a loading frame 363, a small cooling block 364, a connecting ring 365, and a through groove 366. The locking block 361 is perpendicular to the air supply duct 362. The two sides of the loading frame 363 are connected to and communicate with the air supply duct 362. The small cooling block 364 is fixed in the inner area of ​​the loading frame 363 and communicates with the air supply duct 362. The connecting ring 365 is embedded in the inner area of ​​the loading frame 363 and contacts the small cooling block 364 through the loading frame 363. The through groove 366 passes through the center of the connecting ring 365 and the loading frame 363. The connecting ring 365 is set in the middle of the intelligent monitoring box 33 through the loading frame 363. The locking block 361 and the air supply pipe 362 are provided on the left and right sides of the loading frame 363 and are set in a completely symmetrical orientation. The loading frame 363 is square in shape and contains a small cooling block 364 inside. The connecting ring 365 is circular in shape and fits against the inner wall of the loading frame 363. The through groove 366 passes through in a straight line. The card block 361 and the air supply pipe 362 are adapted to the number of components through two sets of quantities, thereby guiding the air energy from the left and right sides to the loading frame 363. The loading frame 363, with its square shape, can improve the edge restraint effect on the connecting ring 365. Then, combined with the small cooling block 364, it can cool the guided air energy and quickly reduce the temperature of the connecting ring 365. The connecting ring 365, with its circular shape, can be adapted to the shape of the power spool, and then the temperature of the power spool is balanced by the low temperature. The through slot 366, with its straight through-line, can ensure the straight traction of the power spool and avoid the impact of tilting on the overall working condition detection stability.

[0025] The connecting ring 365 includes a cavity a1, a ring body a2, a restraining ring a3, a splicing layer a4, and an insulating clamp a5. The cavity a1 extends through the edge of the ring body a2, the restraining ring a3 falls into the top region of the ring body a2, the splicing layer a4 is an integral structure with the interior of the ring body a2, and the insulating clamp a5 is positioned within the interior region of the ring body a2 via the splicing layer a4 and is located on the side of the cavity a1. The splicing layer a4 communicates with the through groove 366 through the ring body a2. There are two cavities a1 on the edge of the ring body a2, which are on the same parallel line. The restraining ring a3 covers the top of the ring body a2. The splicing layer a4 is arc-shaped. There are two insulating clamps a5 inside the ring body a2, which are made of rubber. The cavity a1 improves the stability of wind energy reception by having two locations at the edge of the ring a2. The restraining ring a3 assists in the insertion of the power spool at the top of the ring a2, ensuring the overlap of the central area. The splicing layer a4 adapts to the shape of the ring a2 based on its arc shape. The insulating clamp a5 contacts the edge of the power spool through its rubber properties, improving the fixation of the origin while preventing power leakage. Combined with the original insulation of the power spool, double protection can be achieved.

[0026] The splicing layer a4 includes a locking block a41, an adapter block a42, a threaded groove a43, a vertical rod a44, and a contact body a45. The locking block a41 is embedded in both sides of the surface of the adapter block a42. The center of the adapter block a42 is penetrated by the threaded groove a43. The vertical rod a44 is welded to the top center of the adapter block a42 and has a threaded groove a43 inside. The contact body a45 is installed in the top area of ​​the vertical rod a44 and is on the same vertical center line as the adapter block a42. The contact body a45 coincides with the insulating clamp block a5 through the vertical rod a44. There is one set of locking blocks a41 on each side of the surface of the adapter block a42. Both the adapter block a42 and the contact body a45 are arc-shaped. The threaded groove a43 penetrates the center of the vertical rod a44 vertically and exits from the middle of the contact body a45. The locking block a41, by having a certain number of pairs on both sides of the surface of the adapter block a42, ensures that the adapter block a42 is firmly installed at a specific origin. The adapter block a42 and the contact body a45, by having an arc shape, can coincide with the shape of the component. The threaded groove a43, by having a vertical orientation, can avoid jamming when locking or removing, thus improving the center locking stability of the component.

[0027] The specific functions and operation procedures of this embodiment are as follows: In this invention, First: The display end 1 of the power condition IoT monitoring device for artificial intelligence can be embedded in the center of the control board 2. Then, the control board 2 is installed in a specific circuit area using the connecting plate 4. For this purpose, the monitoring body 3 in the center of the connecting plate 4 can allow the power cable shaft to pass through horizontally and then connect to it. As a result, the monitoring body 3 can debug its own program through the control board 2 and monitor its working condition in real time when the power cable shaft is working. The data generated will be reflected in the display end 1 area to achieve an easy viewing effect. If a fault occurs, the connecting plate 4 at the top of the monitoring body 3 can be separated by the vertical block 5, so that the upper part of the monitoring body 3 is exposed in the space, avoiding the inconvenience caused by overall disassembly. Second: The solid layer 32 and protrusion 31 at the top and bottom of the intelligent monitoring box 33 of the main monitoring body 3 can be connected with the connecting plate 4 to improve its vertical fixation. Then, the two sets of heat sinks 34 inside the intelligent monitoring box 33 can be combined with the support column 35 to limit the position of the constant temperature connection structure 36. After the constant temperature connection structure 36 is connected by the power line shaft, the intelligent monitoring box 33 can be connected to the power line shaft. With the characteristics of accessories such as intelligent analysis, intelligent early warning, and intelligent power condition calculation data, it can accurately judge and monitor its power condition, improve the safety factor of the power condition operation. At the same time, the constant temperature connection structure 36 can control the temperature of the power line shaft by combining the wind energy generated by the heat sink 34 to avoid failure caused by high temperature. Thus, with the wind energy generated by the heat sink 34 in the process of constant temperature of the intelligent monitoring box 33, the situation of adding weight to the device caused by installing a separate fan can be avoided, improving the overall stability of the device. Third: The loading frame 363 of the constant temperature connection structure 36 can be connected to the heat sink 34 through the air supply pipes 362 and the clips 361 on the left and right sides. Thus, the air energy generated by the heat sink 34 can be guided into the loading frame 363 through the clips 361 and the air supply pipes 362. Then, when the small cooling block 364 inside the loading frame 363 is activated by electrical power, the small cooling block 364 can reduce the temperature of the air energy. After the temperature of the entire loading frame 363 (the small cooling block 364 is not installed at the top and bottom of the loading frame 363, and the inner layer of the top and bottom ends has ventilation holes to facilitate the air energy to enter the area of ​​the connecting ring 365) is reduced, it can be sent into the through groove 366 area of ​​the connecting ring 365, thereby achieving the effect of balancing the temperature of the power cord spool in the through groove 366 area. Fourth: The ring body a2 of the connecting ring 365 can easily receive the wind energy sent by the connecting ring 365 through two cavities a1. For this reason, the restraining ring a3 of the ring body a2 can increase the thickness of the ring body a2, thereby avoiding the impact on its own stability after opening the cavity a1. Furthermore, the splicing layer a4 inside the ring body a2 can fix the insulating clamp a5, so that after the power supply shaft enters the ring body a2, it can be reinforced by the insulating clamp a5, improving the overall fixation. Then, the insulation characteristics of the insulating clamp a5, together with the original insulation of the power supply shaft, can completely prevent the occurrence of power leakage. With the cavity a1 of the ring body a2, the cold air can be sent back into the intelligent monitoring box 33 through the power supply shaft, further improving the cooling effect of the intelligent monitoring box 33. Fifth: The arc-shaped adapter block a42 of the splicing layer a4 can be installed inside the ring body a2 through the locking block a41. Then, the arc-shaped contact body a45 at the top of the vertical rod a44 fixed by the adapter block a42 can be aligned with the insulating clamp block a5. Finally, the small screw is locked in by the vertical threaded groove a43 developed by the adapter block a42, thereby locking the center of the insulating clamp block a5 and preventing the positional displacement or even falling off after the wire shaft is inserted. The threaded connection facilitates subsequent disassembly. Example

[0028] Figures 6 to 7 As shown: This invention provides an AI-based IoT monitoring device for power operating conditions. Its structure includes: the connecting plate 4 is provided with a parallel plate 41, a plug 42, a groove 43, a load-bearing block 44, and a fixing groove 45; the plug 42 is welded to the lower left and right areas of the parallel plate 41; the plug 42 overlaps with the groove 43; the groove 43 is opened on both sides of the surface of the load-bearing block 44; the center of the load-bearing block 44 and the fixing groove 45 are integrated and parallel to the parallel plate 41; the fixing groove 45 of the load-bearing block 44 is attached to the lower end of the monitoring body 3; the parallel plate 41 is made of stainless steel; the plug 42 is provided on each side of the lower end of the parallel plate 41 and the surface is finely polished; the area of ​​the load-bearing block 44 is the same as the area of ​​the parallel plate 41; and the fixing groove 45 is a rectangular recess. The parallel plate 41, through its rust-proof design, avoids the impact of rust on the surface aesthetics and the pollution caused by rust extending into the interior, thus maintaining the cleanliness of the power condition detection area. The plug-in 42, through its fine polishing and its location on both sides of the lower end of the parallel plate 41, helps the parallel plate 41 to be connected parallel to the groove 43 of the load-bearing block 44. The load-bearing block 44, by having the same area as the parallel plate 41, can achieve a parallel effect. The fixing groove 45, through its rectangular recessed shape, can be adapted to the shape of the component and then restrains the bottom of the component.

[0029] The fixing groove 45 includes a reinforcing frame 451, a carrying plate 452, a support block 453, a limiting frame 454, and a clamping block 455. The reinforcing frame 451 covers the edge of the carrying plate 452. The support block 453 is embedded in the center edge of the inner layer of the carrying plate 452. The limiting frame 454 is embedded in the middle of the carrying plate 452 through the support block 453. The clamping block 455 is located on the inner edge of the limiting frame 454. The carrying plate 452 is positioned in the center area of ​​the load-bearing block 44 through the reinforcing frame 451. The reinforcing frame 451 is made of carbon steel and its area is larger than that of the carrying plate 452. The support block 453 is solid. The limiting frame 454 contains two trapezoidal clamping blocks 455. The reinforcing frame 451 enhances the edge hardness of the carrier plate 452 through its high hardness properties, thereby improving the differentiation between the carrier plate 452 and other components. The support block 453, based on its solid shape, can determine the position of the limiting frame 454. The two trapezoidal clamping blocks 455 contained in the limiting frame 454 can clamp the bottom of the component to prevent instability caused by shaking.

[0030] The specific functions and operation procedures of this embodiment are as follows: In this invention, First: The load-bearing block 44 of the connecting plate 4 can restrain the lower end of the monitoring body 3 through the rectangular fixing groove 45. Then, the grooves 43 on both sides of the load-bearing block 44 allow the plug 42 of the parallel plate 41 to be inserted vertically, thus sealing and fixing the upper and lower ends of the monitoring body 3. After a fault occurs inside the monitoring body 3, the operator can control the parallel plate 41 through the vertical block 5. The parallel plate 41 will slide out from the internal area of ​​the monitoring body 3 through the plug 42. During the process, the solid layer 32 and the protrusion 31 at the top can be moved, so that the upper end of the intelligent monitoring box 33 will be completely exposed in the space, and the internal area can be directly maintained, replacing the inconvenience caused by the original overall disassembly. Then, the vertical stability of the intelligent monitoring box 33 can be improved by the insertion and fixing of the vertical plug 42, and the plug 42 can form a limiting effect inside the intelligent monitoring box 33 after insertion, improving the position accuracy of accessories such as intelligent analysis, intelligent early warning, and intelligent power condition calculation data. Second: The loading plate 452 of the fixed groove 45 can be positioned by the reinforcing frame 451, which can improve the hardness of its own edge and prevent deformation caused by disassembly and assembly during major maintenance. Then, the support block 453 embedded inside the loading plate 452 can determine the position of the limiting frame 454, so that the clamping block 455 inside the limiting frame 454 can clamp the edge of the protrusion 31 of the solid layer 32 at the lower end of the intelligent monitoring box 33, ensuring the firmness of the connection between components and preventing instability caused by gaps. At the same time, the surface of the loading plate 452 can be completely overlapped with the lower layer of the intelligent monitoring box 33 through a polished shape.

[0031] Any technical solution that achieves the above-mentioned technical effects by utilizing the technical solutions described in this invention, or by designing similar technical solutions by those skilled in the art under the inspiration of the technical solutions described in this invention, falls within the protection scope of this invention.

Claims

1. An AI-based power condition IoT monitoring device, comprising the following structure: The components are a display end (1), an electronic control board (2), a monitoring body (3), a connecting plate (4), and a vertical block (5), characterized in that: the display end (1) is embedded in the center of the surface layer of the electronic control board (2), the back of the electronic control board (2) is connected to the front end of the monitoring body (3), the connecting plate (4) is set at the upper and lower ends of the monitoring body (3), and the vertical block (5) is welded to the top center of the connecting plate (4).

2. The power operating condition IoT monitoring device based on artificial intelligence according to claim 1, characterized in that: The monitoring body (3) is provided with a protrusion (31), a solid layer (32), an intelligent monitoring box (33), a heat sink (34), a support column (35), and a constant temperature connection structure (36). The protrusion (31) and the solid layer (32) are perpendicular to each other and are set at the upper and lower ends of the intelligent monitoring box (33). The heat sink (34) is embedded in the center of the intelligent monitoring box (33) on both sides. The support column (35) is vertically installed in the center of the intelligent monitoring box (33). The constant temperature structure (36) is fixed to the center of the intelligent monitoring box (33) through the support column (35) and is connected to the heat sink (34) on both sides. The constant temperature connection structure (36) is electrically connected to the electronic control board (2) through the intelligent monitoring box (33).

3. The power operating condition IoT monitoring device based on artificial intelligence according to claim 2, characterized in that: The constant temperature connection structure (36) is provided with a locking block (361), an air supply pipe (362), a loading frame (363), a small cooling block (364), a connecting ring (365), and a through groove (366). The locking block (361) is perpendicular to the air supply pipe (362). The two sides of the loading frame (363) are connected to and communicate with the air supply pipe (362). The small cooling block (364) is fixed in the inner area of ​​the loading frame (363) and communicates with the air supply pipe (362). The connecting ring (365) is embedded in the inner area of ​​the loading frame (363) and contacts the small cooling block (364) through the loading frame (363). The through groove (366) passes through the center of the connecting ring (365) and the loading frame (363). The connecting ring (365) is set in the middle of the intelligent monitoring box (33) through the loading frame (363).

4. The power operating condition IoT monitoring device based on artificial intelligence according to claim 3, characterized in that: The connecting ring (365) is provided with a cavity (a1), a ring body (a2), a restraining ring (a3), a splicing layer (a4), and an insulating clamp (a5). The cavity (a1) extends through the edge of the ring body (a2). The restraining ring (a3) ​​falls into the top area of ​​the ring body (a2). The splicing layer (a4) is an integral structure with the interior of the ring body (a2). The insulating clamp (a5) is positioned in the interior area of ​​the ring body (a2) through the splicing layer (a4) and is set on the side of the cavity (a1). The splicing layer (a4) communicates with the through groove (366) through the ring body (a2).

5. The power operating condition IoT monitoring device based on artificial intelligence according to claim 4, characterized in that: The splicing layer (a4) is provided with a locking block (a41), an adapter block (a42), a threaded groove (a43), a vertical rod (a44), and a contact body (a45). The locking block (a41) is embedded in both sides of the surface of the adapter block (a42). The center of the adapter block (a42) is penetrated by the threaded groove (a43). The vertical rod (a44) is welded to the top center of the adapter block (a42) and has a threaded groove (a43) inside. The contact body (a45) is installed in the top area of ​​the vertical rod (a44) and is on the same vertical center line as the adapter block (a42). The contact body (a45) coincides with the insulating clamp (a5) through the vertical rod (a44).

6. The power operating condition IoT monitoring device based on artificial intelligence according to claim 1, characterized in that: The connecting plate (4) is provided with a parallel plate (41), a plug (42), a groove (43), a load-bearing block (44), and a fixing groove (45). The plug (42) is welded to the lower left and right areas of the parallel plate (41). The plug (42) overlaps with the groove (43). The groove (43) is opened on both sides of the surface of the load-bearing block (44). The center of the load-bearing block (44) and the fixing groove (45) are an integrated structure and are parallel to the parallel plate (41). The fixing groove (45) of the load-bearing block (44) is attached to the lower end of the monitoring body (3).

7. The power operating condition IoT monitoring device based on artificial intelligence according to claim 6, characterized in that: The fixing groove (45) is provided with a reinforcing frame (451), a carrying plate (452), a support block (453), a limiting frame (454), and a clamping block (455). The reinforcing frame (451) covers the edge of the carrying plate (452). The support block (453) is embedded in the center edge of the inner layer of the carrying plate (452). The limiting frame (454) is embedded in the middle part of the carrying plate (452) through the support block (453). The clamping block (455) is set on the inner edge of the limiting frame (454). The carrying plate (452) is positioned in the center area of ​​the load-bearing block (44) through the reinforcing frame (451).

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