Anti-impact protective intelligent transformer

Abstract

The invention discloses an anti-impact protective intelligent transformer, and particularly relates to the technical field of transformers, the anti-impact protective intelligent transformer comprises a reinforcing frame, a protective assembly is arranged on the reinforcing frame, the protective assembly comprises a transformer shell arranged on the reinforcing frame, and a reinforcing screen frame seat for protection is embedded in the transformer shell; clamping bases are fixedly arranged on the two sides of the top of the reinforcing screen frame base. Force is released in the mode that the energy absorption arc plates deform first, damage to the structure in the reinforced net frame base caused by impact force can be effectively reduced, the elastic bags and the non-Newtonian fluid in the energy absorption cavities absorb energy, damage to the structure in the reinforced net frame base caused by the impact force can be effectively relieved, the distance between windings on the iron core barrels is adjusted, and the winding efficiency is improved. The electric field is homogenized, the gradient of the electric field can be reduced by increasing the winding spacing, the partial discharge and insulation breakdown risks are reduced, and the magnetic field distribution can be optimized, the eddy-current loss can be reduced and the long-term reliability can be improved by adjusting the spacing of the connecting frames on the single iron core cylinder.

Description

Technical Field

[0001] The present invention relates to the technical field of transformers, and more particularly to an intelligent transformer with anti-impact protection. Background Art

[0002] A transformer uses the principle of electromagnetic induction to change AC voltage. Its main components are a primary coil, a secondary coil, and an iron core (magnetic core). Its primary functions include voltage conversion, current conversion, impedance conversion, isolation, and voltage regulation (magnetic saturation transformers). Dry-type transformers are widely used in places like local lighting, high-rise buildings, airports, and CNC machinery at ports. Simply put, a dry-type transformer is one whose iron core and windings are not immersed in insulating oil.

[0003] Among them, the patent with announcement number CN220873352U discloses an impact-resistant dry-type transformer, which relates to the technical field of dry-type transformers and includes a dry-type transformer body, a support mechanism is provided at the lower end of the dry-type transformer body, and anti-collision protection mechanisms are provided on both sides of the outer surface of the dry-type transformer body;

[0004] When this structure is in use, the outer side of the dry-type transformer body is initially protected by the cooperation of the triangular plate and the guard groove plate. When the arc-shaped stopper is subjected to the external impact force, the movable block 1 is displaced to squeeze the buffer spring 1, the buffer spring 1 is compressed, and the hydraulic rod 1 is deformed. The elastic force of the buffer spring 1 buffers the impact force of the external force, reducing the impact force of the transformer by foreign objects. However, after the buffer spring is compressed and rebounded, it drives the arc-shaped stopper, the triangular plate and the guard groove plate to reset and rebound, which results in poor protection effect and damage to the internal core tube and winding. Summary of the Invention

[0005] In order to overcome the above-mentioned defects of the prior art, the present invention provides an intelligent transformer with anti-impact protection, aiming to solve the problems raised in the above-mentioned background technology.

[0006] The present invention provides the following technical solution: an impact-protected intelligent transformer comprises a reinforcement frame on which a protection component is provided;

[0007] The protection component includes a transformer shell arranged on a reinforcement frame, a reinforcement mesh frame seat for protection is embedded in the interior of the transformer shell, a clamping seat is fixedly provided on both sides of the top of the reinforcement mesh frame seat, and an energy-absorbing arc plate is clamped in each of the clamping seats, the bottom of the energy-absorbing arc plate extends to one side of the bottom of the reinforcement mesh frame seat, and a reinforcement rod is fixedly provided at the bottom of the two energy-absorbing arc plates, and the bottom end of each reinforcement rod extends to the bottom of the inner wall of the transformer shell and is clamped with the transformer shell;

[0008] The reinforcing net frame seat is provided with an installation cavity, in which a plurality of iron core tubes are stacked, and a plurality of the iron core tubes are rotatably connected to a plurality of angle-adjustable connection frames, and a plurality of the connection frames are provided with installation openings, and a winding is embedded in each of the installation openings. A terminal block is installed on the top of the transformer housing by bolts, and a circuit breaker is installed on the top of the reinforcing frame by bolts. A plurality of joints are provided on the circuit breaker, and each of the circuit breakers is connected to the terminal block by a wire. Energy absorption cavities extending to the bottom of the reinforcing net frame seat are provided on both sides of the top of the reinforcing net frame seat, and an elastic bag is provided in the energy absorption cavity, and a non-Newtonian fluid is provided in the elastic bag, and the non-Newtonian fluid is filled with high thermal conductivity particles;

[0009] It can be seen that in the above technical solution, the transformer shell is deformed under force and squeezes the energy-absorbing arc plate. When the energy-absorbing arc plate absorbs energy and deforms, it drives the reinforcing rod to move downward and press against the transformer shell. The force is released by the energy-absorbing arc plate deforming first, which can effectively reduce the damage caused by the impact force to the structure inside the reinforced mesh frame seat. When the impact force is transmitted to the reinforced mesh frame seat, the elastic bag and non-Newtonian fluid in the energy-absorbing cavity absorb energy, and its viscosity increases sharply. Under the impact force, a temporary rigid network structure is formed due to friction and collision between particles, which can effectively reduce the damage caused by the impact force to the structure inside the reinforced mesh frame seat. At the same time, the high thermal conductivity particles filled in the non-Newtonian fluid are also easy to conduct heat and dissipate the heat generated during the operation of the transformer.

[0010] Optionally, in a possible embodiment, a nylon plate is provided on one side of the inner wall of the installation cavity, a traction plate is slidably connected to the nylon plate, and a plurality of slides are provided between the traction plate and the nylon plate, one end of the traction plate and the slide are both mounted with a connecting rod by a bolt, and each of the connecting rods extends to the top of the iron core tube, and a servo motor mounted on the iron core tube by a bolt is fixedly provided at the end of the connecting rod, and the side of the slide and the traction plate away from the connecting rod is rotatably connected to a folding rod, and one end of the folding rod extends to the nylon plate and is rotatably connected to the nylon plate, An electric push rod for driving the displacement of the traction plate is installed on the outer side of the dragon plate through bolts, and a turntable is provided at the output end of the servo motor, and the turntable is located in the iron core barrel, and the outer side of the turntable is rotatably connected to the limiting barrel, and the limiting barrel is connected to the iron core barrel through bolts, and the outer side of the turntable is hinged with a plurality of first hinges, and one end of each of the second hinges is connected to a second hinge, and a rotating shaft is fixedly provided on the second hinge, one end of the rotating shaft extends to the limiting barrel and is rotatably connected to the limiting barrel, and the other end of the rotating shaft passes through the iron core barrel and extends to the connecting frame;

[0011] It can be seen that in the above technical solution, the function of adjusting the position between each slide and the connecting rod drives the servo motor and the core tube to move when the connecting rod is displaced, thereby realizing the function of adjusting the winding spacing on each core tube, realizing electric field uniformity, and increasing the winding spacing can reduce the electric field gradient, reduce the risk of local discharge and insulation breakdown, and at the same time, the turntable is driven to rotate by the servo motor, and the rotation of the turntable drives the first hinge to deflect, and then enables the second hinge to drive the rotating shaft to rotate on the surface of the limit tube, thereby realizing the function of adjusting the spacing and angle of each adjacent connecting frame and winding on the outside of each core tube, promoting the flow of cooling medium (air), and improving convection heat dissipation efficiency. In addition, by adjusting the connecting frame spacing on a single core tube, the magnetic field distribution can be optimized, eddy current loss can be reduced, and long-term reliability can be improved.

[0012] Technical effects and advantages of the present invention:

[0013] 1. The reinforcement frame of the present invention first protects the transformer housing and the structure inside the transformer housing. When the device is impacted, the transformer housing is deformed by force and squeezes the energy-absorbing arc plate. When the energy-absorbing arc plate absorbs energy and deforms, it drives the reinforcement rod to move downward and press against the transformer housing. The energy-absorbing arc plate is deformed first to release the force, which can effectively reduce the damage caused by the impact force to the structure inside the reinforcement frame seat.

[0014] 2. When the impact force is transmitted to the reinforced mesh frame seat, the elastic bag and non-Newtonian fluid in the energy absorption cavity absorb energy, and their viscosity increases sharply. Under the impact force, friction and collision between particles form a temporary rigid network structure, which can effectively reduce the damage caused by the impact force to the structure inside the reinforced mesh frame seat. At the same time, the high thermal conductivity particles filled in the non-Newtonian fluid also facilitate heat conduction and dissipation of the heat generated by the transformer during operation;

[0015] 3. The present invention uses the traction force of the folding rod to expand through the displacement of the traction plate, and then adjusts the position between each slide plate and the connecting rod. When the connecting rod is displaced, it drives the servo motor and the core barrel to move, and realizes the function of adjusting the winding spacing on each core barrel, realizing the uniformity of the electric field. Increasing the winding spacing can reduce the electric field gradient, thereby reducing the risk of partial discharge and insulation breakdown.

[0016] 4. The present invention drives the first hinge to deflect when the turntable rotates, which in turn enables the second hinge to drive the rotating shaft to rotate on the surface of the limiting cylinder. This allows the spacing and angle between two adjacent connecting frames and windings outside each core cylinder to be adjusted, thereby promoting the flow of cooling medium (air) and improving convection heat dissipation efficiency. In addition, by adjusting the spacing between the connecting frames on a single core cylinder, the magnetic field distribution can be optimized, eddy current losses can be reduced, and long-term reliability can be improved.

[0017] To sum up, through the corresponding coordination of various structures, when the energy-absorbing arc plate absorbs energy and deforms, it will drive the reinforcing rod to move downward and press against the transformer housing. The energy-absorbing arc plate is deformed first to release force, which can effectively reduce the damage caused by the impact force to the structure inside the reinforced mesh frame seat. The elastic bag and non-Newtonian fluid in the energy-absorbing cavity absorb energy, which can effectively reduce the damage caused by the impact force to the structure inside the reinforced mesh frame seat. At the same time, the high thermal conductivity particles filled in the non-Newtonian fluid are also easy to conduct heat generated during the operation of the transformer. The heat dissipation is also easy. When the connecting rod is displaced, it drives the servo motor and the core tube to displace, realizing the function of adjusting the winding spacing on each core tube, realizing electric field uniformity, increasing the winding spacing can reduce the electric field gradient, reduce the risk of partial discharge and insulation breakdown, and adjust the spacing and angle of each adjacent connecting frame and winding on the outside of the core tube to promote the flow of cooling medium (air), improve convection heat dissipation efficiency, and by adjusting the connecting frame spacing on a single core tube, the magnetic field distribution can be optimized, eddy current loss can be reduced, and long-term reliability can be improved. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] To more clearly illustrate the technical solutions of the present disclosure, the following briefly introduces the drawings required for use in some embodiments. Obviously, the drawings described below are only drawings of some embodiments of the present disclosure, and those skilled in the art can also derive other drawings based on these drawings. Furthermore, the drawings described below are schematic diagrams and are not intended to limit the actual dimensions of the products, actual processes of the methods, actual timing of signals, and the like involved in the embodiments of the present disclosure.

[0019] Figure 1 It is the main view of the overall structure of the present invention.

[0020] Figure 2 It is a cross-sectional view of the overall structure of the present invention.

[0021] Figure 3 This is a schematic diagram of the reinforced net frame seat, energy absorbing arc plate, reinforced support rod and energy absorbing cavity of the present invention when they are installed together.

[0022] Figure 4 It is a side view of the nylon plate electric push rod, traction plate, slide plate, folding rod and connecting rod of the present invention.

[0023] Figure 5 It is a three-dimensional diagram of the core barrel, servo motor, connection frame and winding of the present invention.

[0024] Figure 6 This is a schematic diagram of the connection frame, mounting port and servo motor installed on the core barrel of the present invention.

[0025] Figure 7 It is a schematic diagram of the limiting cylinder, the rotating disk, the first hinge, the second hinge and the connecting frame of the present invention when they are installed together.

[0026] The accompanying drawings are marked as follows: 1. reinforcement frame; 2. transformer housing; 3. reinforcement mesh frame seat; 4. core tube; 5. connection frame; 6. installation port; 7. winding; 8. terminal block; 9. circuit breaker; 10. connector; 11. nylon plate; 12. traction plate; 13. slide plate; 14. folding rod; 15. electric push rod; 16. connecting rod; 17. turntable; 18. first hinge; 19. second hinge; 20. rotating shaft; 21. servo motor; 22. energy absorption chamber; 23. non-Newtonian fluid; 24. snap-on seat; 25. energy absorption arc plate; 26. reinforcement push rod; 27. installation chamber; 28. limiting cylinder. DETAILED DESCRIPTION

[0027] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. 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 making creative efforts are within the scope of protection of the present invention.

[0028] As attached Figure 1 - Figure 7 The impact-resistant intelligent transformer shown in the figure has a protective component set on the reinforcement frame 1. When the energy-absorbing arc plate 25 absorbs energy and deforms, it will drive the reinforcement rod 26 to move downward and press against the transformer housing 2. The energy-absorbing arc plate 25 is deformed first to release the force, which can effectively reduce the damage caused by the impact force to the structure inside the reinforcement frame seat 3. The elastic bag in the energy-absorbing cavity 22 and the non-Newtonian fluid 23 absorb energy, which can effectively reduce the damage caused by the impact force to the structure inside the reinforcement frame seat 3. At the same time, the high thermal conductivity particles filled in the non-Newtonian fluid 23 are also easy to heat the heat generated when the transformer is running. Conduction heat dissipation: When the connecting rod 16 is displaced, the servo motor 21 and the core tube 4 are driven to displace, thereby adjusting the spacing between the windings 7 on each core tube 4 to achieve electric field uniformity. Increasing the spacing between the windings 7 can reduce the electric field gradient, reduce the risk of partial discharge and insulation breakdown, and adjust the spacing and angle between each adjacent connecting frame 5 and the winding 7 on the outside of the core tube 4 to promote the flow of cooling medium (air) and improve convection heat dissipation efficiency. By adjusting the spacing between the connecting frames 5 on a single core tube 4, the magnetic field distribution can be optimized, eddy current loss can be reduced, and long-term reliability can be improved. The specific structural configuration of the component is as follows;

[0029] The protection component includes a transformer housing 2 arranged on a reinforcement frame 1, and a reinforcement mesh frame seat 3 for protection is embedded in the interior of the transformer housing 2. A clamping seat 24 is fixedly provided on both sides of the top of the reinforcement mesh frame seat 3, and an energy-absorbing arc plate 25 is clamped in each clamping seat 24. The bottom of the energy-absorbing arc plate 25 extends to one side of the bottom of the reinforcement mesh frame seat 3. A reinforcement rod 26 is fixedly provided at the bottom of the two energy-absorbing arc plates 25, and the bottom end of each reinforcement rod 26 extends to the bottom of the inner wall of the transformer housing 2 and is clamped with the transformer housing 2;

[0030] A mounting cavity 27 is provided on the reinforcing net frame seat 3, in which a plurality of iron core tubes 4 are stacked, and a plurality of iron core tubes 4 are rotatably connected to a plurality of angle-adjustable connection frames 5, and a plurality of connection frames 5 are provided with mounting openings 6, and a winding 7 is embedded in each mounting opening 6. A terminal block 8 is mounted on the top of the transformer housing 2 by bolts, and a circuit breaker 9 is mounted on the top of the reinforcing frame 1 by bolts. A plurality of joints 10 are provided on the circuit breaker 9, and each circuit breaker 9 is connected to the terminal block 8 by a wire. Energy absorption cavities 22 extending to the bottom of the reinforcing net frame seat 3 are provided on both sides of the top of the reinforcing net frame seat 3, and an elastic bag is provided in the energy absorption cavity 22, and a non-Newtonian fluid 23 is provided in the elastic bag, and the non-Newtonian fluid 23 is filled with high thermal conductivity particles;

[0031] A nylon plate 11 is provided on one side of the inner wall of the mounting cavity 27, and a traction plate 12 is slidably connected to the nylon plate 11. A plurality of slides 13 are provided between the traction plate 12 and the nylon plate 11. One end of the traction plate 12 and the slide 13 is fixed with a connecting rod 16 by a bolt, and each connecting rod 16 extends to the top of the core tube 4, and the end of the connecting rod 16 is fixed with a servo motor 21 installed on the core tube 4 by a bolt. The side of the slide 13 and the traction plate 12 away from the connecting rod 16 is rotatably connected to a folding rod 14, and one end of the folding rod 14 extends to the nylon plate 11 and is rotatably connected to the nylon plate 11. The outer surface of the nylon plate 11 is fixed with a servo motor 21 installed on the core tube 4 by a bolt. An electric push rod 15 for driving the displacement of the traction plate 12 is installed on the side by bolts. A turntable 17 is provided at the output end of the servo motor 21. The turntable 17 is located in the iron core tube 4, and the outer side of the turntable 17 is rotatably connected to the limiting cylinder 28. The limiting cylinder 28 is connected to the iron core tube 4 by bolts. A plurality of first hinges 18 are hinged on the outer side of the turntable 17, and one end of each second hinge 19 is connected to the second hinge 19. A rotating shaft 20 is fixed on the second hinge 19. One end of the rotating shaft 20 extends to the limiting cylinder 28 and is rotatably connected to the limiting cylinder 28. The other end of the rotating shaft 20 passes through the iron core tube 4 and extends to the connecting frame 5.

[0032] According to the above structure, when in use, the reinforcement frame 1 serves as a support point, and the transformer housing 2 is easily embedded in the middle of the reinforcement frame 1. The reinforcement frame 1 first protects the transformer housing 2 and the structure inside the transformer housing 2. When the device is impacted, the transformer housing 2 is deformed by force and squeezes the energy-absorbing arc plate 25. When the energy-absorbing arc plate 25 absorbs energy and deforms, it drives the reinforcement rod 26 to move downward and press against the transformer housing 2. By releasing the force by the energy-absorbing arc plate 25 being deformed first, the damage caused by the impact force to the structure inside the reinforcement frame seat 3 can be effectively reduced.

[0033] When the impact force is transmitted to the reinforced mesh frame seat 3, the elastic bag and the non-Newtonian fluid 23 in the energy absorption cavity 22 absorb the energy, and their viscosity increases sharply. Under the impact force, a temporary rigid network structure is formed due to friction and collision between particles, which can effectively reduce the damage caused by the impact force to the structure inside the reinforced mesh frame seat 3. At the same time, the high thermal conductivity particles filled in the non-Newtonian fluid 23 also facilitate heat conduction and heat dissipation of the heat generated by the operation of the transformer.

[0034] At the same time, when the device is in use, the electric push rod 15 drives the traction plate 12 to move on the nylon plate 11, so that the folding rod 14 can be unfolded by the traction force of the traction plate 12, and then the position between each slide plate 13 and the connecting rod 16 is adjusted. When the connecting rod 16 moves, it drives the servo motor 21 and the iron core tube 4 to move, and realizes the function of adjusting the spacing of the windings 7 on each iron core tube 4, realizing the uniformity of the electric field. Increasing the spacing of the windings 7 can reduce the electric field gradient and reduce the risk of partial discharge and insulation breakdown.

[0035] At the same time, the turntable 17 is driven to rotate by the servo motor 21. When the turntable 17 rotates, the first hinge 18 is driven to deflect, and then the second hinge 19 is able to drive the rotating shaft 20 to rotate on the surface of the limiting cylinder 28, thereby realizing the function of adjusting the distance and angle between each adjacent connecting frame 5 and winding 7 on the outside of the core tube 4, promoting the flow of cooling medium (air), improving convection heat dissipation efficiency, and by adjusting the distance between the connecting frames 5 on a single core tube 4, the magnetic field distribution can be optimized, eddy current loss can be reduced, and long-term reliability can be improved.

[0036] Different from the prior art, the present application discloses an intelligent transformer with impact protection. When the energy-absorbing arc plate 25 absorbs energy and deforms, it drives the reinforcing rod 26 to move downward and press against the transformer housing 2. The energy-absorbing arc plate 25 is deformed first to release the force, which can effectively reduce the damage caused by the impact force to the structure inside the reinforced net frame seat 3. The elastic bag in the energy-absorbing cavity 22 and the non-Newtonian fluid 23 absorb energy, which can effectively reduce the damage caused by the impact force to the structure inside the reinforced net frame seat 3. At the same time, the high thermal conductivity particles filled in the non-Newtonian fluid 23 are also easy to generate when the transformer is running. The heat is dissipated by heat conduction. When the connecting rod 16 is displaced, the servo motor 21 and the core tube 4 are driven to displace, thereby adjusting the spacing between the windings 7 on each core tube 4 to achieve electric field uniformity. Increasing the spacing between the windings 7 can reduce the electric field gradient, reduce the risk of local discharge and insulation breakdown, and adjust the spacing and angle between the two adjacent connecting frames 5 and the windings 7 on the outside of the core tube 4 to promote the flow of cooling medium (air) and improve convection heat dissipation efficiency. By adjusting the spacing between the connecting frames 5 on a single core tube 4, the magnetic field distribution can be optimized, the eddy current loss can be reduced, and the long-term reliability can be improved.

[0037] The above are only preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. An intelligent transformer with impact protection, comprising a reinforcement frame (1), characterized in that: The reinforcement frame (1) is provided with a protection component; The protection component comprises a transformer housing (2) arranged on a reinforcement frame (1); a reinforcement net frame seat (3) for protection is embedded in the interior of the transformer housing (2); a clamping seat (24) is fixedly provided on both sides of the top of the reinforcement net frame seat (3); and an energy-absorbing arc plate (25) is clamped in each of the clamping seats (24); the bottom of the energy-absorbing arc plate (25) extends to one side of the bottom of the reinforcement net frame seat (3); The reinforcing net frame seat (3) is provided with an installation cavity (27), a plurality of iron core barrels (4) are stacked in the installation cavity (27), a plurality of the iron core barrels (4) are rotatably connected to a plurality of angle-adjustable connection frames (5), a plurality of the connection frames (5) are provided with installation openings (6) extending through them, and a winding (7) is embedded in each of the installation openings (6).

2. The impact-resistant intelligent transformer according to claim 1, characterized in that: A terminal block (8) is mounted on the top of the transformer housing (2) via bolts, a circuit breaker (9) is mounted on the top of the reinforcement frame (1) via bolts, a plurality of connectors (10) are provided on the circuit breaker (9), and each circuit breaker (9) is connected to the terminal block (8) via a wire.

3. The impact-resistant intelligent transformer according to claim 1, characterized in that: A nylon plate (11) is provided on one side of the inner wall of the installation cavity (27), a traction plate (12) is slidably connected to the nylon plate (11), and a plurality of slide plates (13) are provided between the traction plate (12) and the nylon plate (11).

4. The impact-resistant intelligent transformer according to claim 3, characterized in that: One end of the traction plate (12) and the slide plate (13) are both mounted with a connecting rod (16) via bolts, and each connecting rod (16) extends to the top of the iron core barrel (4), and a servo motor (21) mounted on the iron core barrel (4) via bolts is fixedly provided at the end of the connecting rod (16).

5. The impact-resistant intelligent transformer according to claim 3, characterized in that: The slide plate (13) and the traction plate (12) are both rotatably connected to a folding rod (14) on one side away from the connecting rod (16), and one end of the folding rod (14) extends to the nylon plate (11) and is rotatably connected to the nylon plate (11). An electric push rod (15) for driving the traction plate (12) to move is installed on the outer side of the nylon plate (11) through bolts.

6. The anti-impact intelligent transformer according to claim 4, characterized in that: The output end of the servo motor (21) is provided with a turntable (17), the turntable (17) is located in the iron core barrel (4), and the outer side of the turntable (17) is rotatably connected to a limiting barrel (28), and the limiting barrel (28) is connected to the iron core barrel (4) via bolts.

7. The impact-resistant intelligent transformer according to claim 6, characterized in that: The outer side of the turntable (17) is hinged with a plurality of first hinges (18), and one end of each second hinge (19) is connected to a second hinge (19), and a rotating shaft (20) is fixedly provided on the second hinge (19).

8. The impact-resistant intelligent transformer according to claim 7, characterized in that: One end of the rotating shaft (20) extends to the limiting cylinder (28) and is rotatably connected to the limiting cylinder (28), and the other end of the rotating shaft (20) passes through the iron core cylinder (4) and extends to the connecting frame (5).

9. The impact-resistant intelligent transformer according to claim 1, characterized in that: Both sides of the top of the reinforcing net frame seat (3) are provided with an energy absorption cavity (22) extending to the bottom of the reinforcing net frame seat (3), and an elastic bag is provided in the energy absorption cavity (22), and a non-Newtonian fluid (23) is provided in the elastic bag, and the non-Newtonian fluid (23) is filled with high thermal conductivity particles.

10. The anti-impact intelligent transformer according to claim 1, characterized in that: A reinforcing rod (26) is fixedly provided at the bottom of each of the two energy-absorbing arc plates (25), and the bottom end of each reinforcing rod (26) extends to the bottom of the inner wall of the transformer housing (2) and is snap-connected to the transformer housing (2).

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