Anti-seismic supporting device for transformer of new energy booster station

Abstract

The invention relates to the technical field of transformers, and particularly discloses a new energy booster station transformer anti-seismic supporting device which comprises an anti-seismic base used for supporting the bottom of a transformer. The mounting seat is used for mounting the transformer, and a plurality of supporting blocks are connected to the mounting seat; the buffering mechanism is used for buffering and damping the bottom of the transformer when an earthquake occurs, and the buffering mechanism is mounted above the anti-seismic base; when the buffer mechanism is used for buffering and resisting shock of a transformer mounted above the buffer mechanism, gas is extruded into a gas inlet and a rotating impeller is driven to rotate by utilizing reciprocating sliding extrusion of a buffer sliding rod, so that a rotating rod and a mixing plate are driven to stir a cooling agent in an agent storage cavity, the use effect of the cooling agent is improved, and meanwhile, the cooling effect is improved. And the gas pressure enables the attaching baffle to move, the coolant outlet hole is opened, the coolant is atomized and sprayed out through the atomization net plate, the upper portion of the anti-seismic base is effectively cooled, and the transformer is protected against high-temperature damage.

Description

Technical Field

[0001] The present invention belongs to the technical field of transformers, and in particular relates to a seismic support device for a transformer in a new energy boosting station. Background Art

[0002] The main function of the new energy booster station transformer is to increase the low voltage generated by new energy power generation equipment (such as solar panels, wind turbines, etc.) to a high voltage level suitable for grid connection, so as to transmit the electric energy to the grid. For example, in a photovoltaic power station, the output voltage of the generator is often low, such as the common 0.8kV voltage, which cannot meet the requirements of long-distance power transmission. At this time, the booster transformer can stably increase the low voltage of 0.8kV to 10.5kV, so that the electricity can be transmitted over long distances with lower loss in the transmission line and smoothly connected to the grid.

[0003] The use of advanced core materials and manufacturing processes effectively reduces the hysteresis loss and eddy current loss of the core; at the same time, the optimized winding design reduces the winding resistance and copper loss, which can significantly reduce energy loss during operation and improve energy utilization efficiency; in the design and manufacturing process, full consideration is given to various complex operating environments and working conditions, and high-quality insulation materials and strict insulation structure are used to ensure that the transformer can still operate reliably under harsh conditions such as high voltage and high humidity; at the same time, it is equipped with complete protection devices such as overcurrent protection, overvoltage protection, short-circuit protection, etc., which can detect and handle faults in a timely manner, effectively avoiding equipment damage and power outages. Occurrence; equipped with advanced intelligent monitoring and control systems, which monitor the operating parameters of the transformer in real time through sensors, such as temperature, voltage, current, oil level, etc., and transmit the data to the monitoring center, greatly improving the operation and maintenance efficiency, reducing operation and maintenance costs, and also improving the intelligence level of the power system; some new energy transformers have a unified design of transformer body, high-voltage load switch, protective fuse and other equipment, placed in the same closed oil tank, and use the transformer's insulating oil as the insulation and heat dissipation medium for the entire product. The oil tank adopts a fully sealed structure with small size, light weight and easy installation. The product can also be equipped with low-voltage distribution, metering and compensation devices as needed.

[0004] With the rapid development of the new energy industry, the proportion of clean energy such as wind energy and solar energy in the power system is increasing. As an important part of the new energy power generation system, the new energy booster station undertakes the key task of converting low-voltage electricity into high-voltage electricity and transmitting it to the power grid. In the new energy booster station, the transformer is one of the core equipment, and its operating stability and safety are directly related to the reliability and efficiency of the entire power system.

[0005] However, earthquakes, as a sudden natural disaster, pose a serious threat to power equipment, especially key equipment such as transformers. The strong vibrations generated during earthquakes may cause the internal structure of the transformer to loosen, insulation damage, and even cause serious consequences such as fire or explosion. Therefore, improving the seismic performance of transformers and ensuring their stable operation under extreme conditions such as earthquakes have become important issues in the design and construction of new energy booster stations.

[0006] At present, although there are some transformer anti-seismic support devices on the market, most of these devices only focus on improving the mechanical stability of the transformer, but ignore the problem of heat accumulation caused by vibration of the transformer during an earthquake. During an earthquake, the violent vibration of the transformer will cause its internal friction to intensify, thereby generating a large amount of heat. If this heat cannot be dissipated in time, it will seriously affect the insulation performance and service life of the transformer, and may even cause safety accidents. For this reason, a new energy booster station transformer anti-seismic support device is proposed. Summary of the Invention

[0007] The object of the present invention is to provide a new energy booster station transformer seismic support device to solve the problems raised in the above background technology.

[0008] To achieve the above object, the present invention provides the following technical solutions:

[0009] A new energy booster station transformer seismic support device, comprising:

[0010] Seismic base, used to support the bottom of the transformer;

[0011] A mounting base, used for installing the transformer, with a plurality of support blocks connected to the mounting base;

[0012] A buffer mechanism for buffering and reducing shock to the bottom of the transformer in the event of an earthquake, the buffer mechanism being mounted above the anti-seismic base, the buffer mechanism comprising a plurality of buffer sleeves mounted on the anti-seismic base, a buffer spring being fixedly connected to the bottom of the inner wall of the buffer sleeve, an end of the buffer spring away from the buffer sleeve being connected to a buffer slide, a top of the buffer slide being fixedly connected to a buffer slide bar, and an end of the buffer slide bar away from the buffer slide bar slidingly extending to the outside of the buffer sleeve, and a plurality of buffer slide bars being fixedly connected to support plates on their tops;

[0013] Through the setting of the above-mentioned technical solution, utilizing the synergistic effect of the seismic base and the buffer mechanism, the device can effectively absorb and disperse seismic energy when an earthquake occurs, reducing the direct impact on the transformer. The combined design of the buffer sleeve, buffer spring, buffer slide and buffer slide rod ensures the stability of the transformer during earthquakes and greatly reduces the risk of equipment damage caused by earthquakes.

[0014] The outlet cooling mechanism is used to cool the heat generated by transformer vibration when an earthquake occurs. The outlet cooling mechanism is installed on the buffer mechanism.

[0015] Preferably, the agent outlet cooling mechanism includes a spray ring, which is installed on the outer walls of the multiple buffer sleeves. The interior of the spray ring is provided with multiple agent storage cavities, and one side of the multiple agent storage cavities is provided with multiple air inlets, and the air inlets extend to the interior of the buffer sleeve. The interior of the agent storage cavity is fixedly connected with a partition, and the partition is connected with an agent outlet pipe connected to the interior of the agent storage cavity, and the outer wall of the agent storage cavity is provided with multiple agent outlet holes.

[0016] Preferably, a sliding groove is provided at the top of the buffer sleeve, and the end of the buffer slide rod away from the buffer slide slides and extends to the outside of the buffer sleeve through the sliding groove, the outer wall of the buffer slide and the inner wall of the buffer sleeve are slidingly fitted, and the multiple air inlets are located below the buffer slide, and the end of the discharge tube away from the partition is correspondingly connected to the discharge hole, and the inner wall diameter of the discharge tube is smaller than the inner wall diameter of the discharge hole.

[0017] Preferably, the discharge cooling mechanism also includes an atomizing mesh plate installed inside the discharge hole and a fitting baffle located inside the discharge pipe, one side of the atomizing mesh plate is connected to a telescopic rod, one side of the fitting baffle is rotatably connected to a rotating rod, and the rotating rod extends to the inside of the air inlet at one end away from the fitting baffle, the outer side wall of the rotating rod is located inside the storage cavity and is fixedly connected to a plurality of mixing plates, and the outer side wall of the rotating rod is located inside the air inlet and is fixedly connected to a rotating impeller.

[0018] Through the setting of the above technical solution, the design of the outlet cooling mechanism enables the device to automatically cool down the heat generated by the vibration of the transformer during an earthquake. By utilizing the reciprocating sliding and squeezing of the buffer slide bar, the gas is squeezed into the air inlet, driving the rotating impeller to rotate, and then driving the rotating rod and the mixing plate to stir the coolant in the storage chamber, thereby improving the use effect of the coolant. At the same time, the gas pressure causes the fitting baffle to move, opening the outlet hole, and the coolant is sprayed out in atomization through the atomizing mesh plate, effectively cooling the top of the anti-seismic base and protecting the transformer from high temperature damage.

[0019] Preferably, a plurality of mixing holes are provided on the outer wall of the mixing plate, and the outer wall of the fitting baffle and the inner wall of the discharge pipe are slidingly fitted.

[0020] Preferably, the air inlet is located on one side of the reservoir chamber and is provided with a one-way valve that only allows air to enter but not exit.

[0021] Preferably, the outer wall diameter of the rotating rod is smaller than the outer wall diameter of the dosage tube.

[0022] Preferably, heat dissipation holes are provided on both the mounting seat and the supporting plate.

[0023] Through the setting of the above technical solution, the heat dissipation holes opened on the mounting base and the support plate, combined with the supporting function of the support block, not only ensure the stability of the transformer under normal working conditions, but also promote the heat dissipation at the bottom of the transformer. This design helps to maintain the normal operating temperature of the transformer and extend the service life of the equipment; the design of the mixing plate and the rotating impeller on the rotating rod realizes the automatic stirring and spraying of the coolant. In the event of an earthquake, this mechanism can be automatically started without external intervention, ensuring the efficient use of the coolant and timely cooling effect.

[0024] Compared with the prior art, the present invention has the following beneficial effects:

[0025] Through the buffer mechanism, the device can effectively absorb and disperse seismic energy during an earthquake, reducing direct impact on the transformer. The combined design of the buffer sleeve, buffer spring, buffer slide plate, and buffer slide rod ensures the stability of the transformer during an earthquake, greatly reducing the risk of equipment damage caused by earthquakes.

[0026] At the same time, when the buffer mechanism is buffering the transformer installed above it for earthquake resistance, the gas is squeezed into the air inlet by the reciprocating sliding of the buffer slide bar, driving the rotating impeller to rotate, and then driving the rotating rod and the mixing plate to stir the coolant in the storage chamber, thereby improving the use effect of the coolant. At the same time, the gas pressure causes the fitting baffle to move, opening the outlet hole, and the coolant is sprayed out through the atomizing mesh plate, effectively cooling the top of the earthquake-resistant base and protecting the transformer from high temperature damage.

[0027] The heat dissipation holes on the mounting base and the support plate, combined with the supporting function of the support block, not only ensure the stability of the transformer under normal working conditions, but also promote the dissipation of heat from the bottom of the transformer. This design helps to maintain the normal operating temperature of the transformer and extend the service life of the equipment; the design of the mixing plate and rotating impeller on the rotating rod realizes the automatic stirring and spraying of the coolant. In the event of an earthquake, this mechanism can be automatically started without external intervention, ensuring the efficient use of the coolant and timely cooling effect. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 It is a cross-sectional structural diagram of the buffer sleeve of the present invention;

[0029] Figure 2 It is a structural diagram of the present invention;

[0030] Figure 3 It is a top view of the structure of the present invention;

[0031] Figure 4 It is a bottom structure diagram of the present invention;

[0032] Figure 5 It is a top cross-sectional structural diagram of the present invention;

[0033] Figure 6 For the present invention Figure 5 The enlarged structural diagram at point A;

[0034] Figure 7 For the present invention Figure 1 Enlarged structural diagram of point B.

[0035] In the figure: 1. Anti-seismic base; 2. Mounting seat; 3. Support block; 4. Buffer sleeve; 401. Buffer spring; 402. Buffer slide; 403. Buffer slide bar; 404. Support plate; 5. Spray ring; 501. Storage chamber; 502. Air inlet; 503. Partition; 504. Discharge pipe; 505. Discharge hole; 506. Atomizing screen; 507. Telescopic rod; 508. Fitting baffle; 509. Rotating rod; 5010. Mixing plate; 5011. Rotating impeller. DETAILED DESCRIPTION

[0036] 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.

[0037] Example 1

[0038] like Figure 1-7 As shown, a new energy booster station transformer seismic support device includes: a seismic base 1 for supporting the bottom of the transformer; a mounting base 2 for installing the transformer, and a plurality of support blocks 3 connected to the mounting base 2;

[0039] like Figure 1-7 As shown, the buffer mechanism is used to buffer and reduce shock at the bottom of the transformer when an earthquake occurs. The buffer mechanism is installed above the seismic base 1. The buffer mechanism includes a plurality of buffer sleeves 4 installed on the seismic base 1. The bottom of the inner wall of the buffer sleeve 4 is fixedly connected to a buffer spring 401. The end of the buffer spring 401 away from the buffer sleeve 4 is connected to a buffer slide 402. The top of the buffer slide 402 is fixedly connected to a buffer slide 403. The end of the buffer slide 403 away from the buffer slide 402 slides and extends to the outside of the buffer sleeve 4. The tops of the plurality of buffer slides 403 are fixedly connected to a support plate 404.

[0040] As can be seen from the above, the transformer is placed on the mounting base 2, which is supported by multiple support blocks 3 to ensure the stability of the transformer in normal working conditions. The seismic base 1 serves as the foundation of the entire device and is used to support the bottom of the transformer. When an earthquake occurs, the buffer mechanism begins to play a role.

[0041] The buffer mechanism includes a plurality of buffer sleeves 4 mounted on the anti-seismic base 1. A buffer spring 401 is fixedly connected to the bottom of the inner wall of each buffer sleeve 4. The other end of the buffer spring 401 is connected to a buffer slide 402. The top of the buffer slide 402 is fixedly connected to a buffer slide 403. The buffer slide 403 slides away from the end of the buffer slide 402 and extends to the outside of the buffer sleeve 4 and is fixedly connected to the support plate 404.

[0042] When an earthquake occurs, the vibration of the transformer is transmitted to the buffer slide rod 403 through the support plate 404, which in turn drives the buffer slide plate 402 to slide in the buffer sleeve 4, compressing or stretching the buffer spring 401. The elastic deformation of the buffer spring 401 absorbs and disperses the earthquake energy, thereby reducing the direct impact on the transformer and achieving the purpose of earthquake-resistant support.

[0043] Through the setting of the above-mentioned technical solution, utilizing the synergistic effect of the seismic base 1 and the buffer mechanism, the device can effectively absorb and disperse seismic energy when an earthquake occurs, reducing the direct impact on the transformer. The combined design of the buffer sleeve 4, buffer spring 401, buffer slide 402 and buffer slide rod 403 ensures the stability of the transformer during an earthquake and greatly reduces the risk of equipment damage caused by earthquakes.

[0044] Example 2

[0045] like Figure 1-7 As shown, the discharge cooling mechanism is used to cool down the heat generated by the vibration of the transformer when an earthquake occurs. The discharge cooling mechanism is installed on the buffer mechanism and includes a spray ring 5. The spray ring 5 is installed on the outer wall of the plurality of buffer sleeves 4. The spray ring 5 is provided with a plurality of storage chambers 501. One side of the plurality of storage chambers 501 is provided with a plurality of air inlets 502, and the air inlets 502 extend into the interior of the buffer sleeve 4. The interior of the storage chamber 501 is fixedly connected with a partition 503. The partition 503 is connected to a discharge pipe 504 communicating with the interior of the storage chamber 501. The outer wall of the storage chamber 501 is provided with a plurality of discharge holes 505.

[0046] The present invention is further specifically described in detail. A sliding groove is provided on the top of the buffer sleeve 4, and the end of the buffer slide 403 away from the buffer slide plate 402 slides and extends to the outside of the buffer sleeve 4 through the sliding groove. The outer wall of the buffer slide plate 402 and the inner wall of the buffer sleeve 4 are slidingly fitted. A plurality of air inlets 502 are located below the buffer slide plate 402. The end of the discharge pipe 504 away from the partition 503 is correspondingly connected to the discharge hole 505. The inner wall diameter of the discharge pipe 504 is smaller than the inner wall diameter of the discharge hole 505.

[0047] like Figure 1-7 As shown, the discharge cooling mechanism also includes an atomizing mesh plate 506 installed inside the discharge hole 505 and a fitting baffle 508 located inside the discharge pipe 504. A telescopic rod 507 is connected to one side of the atomizing mesh plate 506, and a rotating rod 509 is rotatably connected to one side of the fitting baffle 508. The rotating rod 509 extends to the inside of the air inlet 502 at one end away from the fitting baffle 508. The outer wall of the rotating rod 509 is located inside the storage chamber 501 and is fixedly connected to a plurality of mixing plates 5010. The outer wall of the rotating rod 509 is located inside the air inlet 502 and is fixedly connected to a rotating impeller 5011.

[0048] The present invention further specifically describes that the outer wall of the mixing plate 5010 is provided with a plurality of mixing holes, the outer wall of the fitting baffle 508 is slidingly fitted with the inner wall of the discharge pipe 504, the air inlet 502 is located on one side of the reservoir chamber 501 and is provided with a one-way valve that only allows air to enter but not exit, the outer wall diameter of the rotating rod 509 is smaller than the outer wall diameter of the discharge pipe 504, and heat dissipation holes are provided on both the mounting base 2 and the support plate 404;

[0049] As can be seen from the above, the discharge cooling mechanism is installed on the buffer mechanism, which mainly includes a spray ring 5. The spray ring 5 is installed on the outer wall of multiple buffer sleeves 4, and multiple storage chambers 501 are opened inside the spray ring 5 for storing coolant; a plurality of air inlets 502 are opened on one side of each storage chamber 501, and the air inlet 502 extends to the interior of the buffer sleeve 4. When the buffer slide 402 slides in the buffer sleeve 4, it squeezes the air at the bottom of the buffer sleeve 4, so that the air enters the storage chamber 50 through the air inlet 502. 1. A partition 503 is fixedly connected to the interior of the reservoir chamber 501. A discharge pipe 504 communicating with the interior of the reservoir chamber 501 is connected to the partition 503. A plurality of discharge holes 505 are formed on the outer wall of the reservoir chamber 501. A one-way valve is provided at the air inlet 502 to ensure that air can only enter the reservoir chamber 501 but not flow out. When air enters the reservoir chamber 501, it exerts pressure on the contact baffle 508, causing it to move toward the inside of the discharge hole 505, thereby opening the discharge hole 505.

[0050] At the same time, a rotating impeller 5011 is also provided inside the air inlet 502, and the rotating impeller 5011 is fixedly connected to one end of the rotating rod 509, and the other end of the rotating rod 509 extends to the inside of the agent outlet pipe 504 and is rotatably connected to the fitting baffle 508. When air enters the air inlet 502, it will drive the rotating impeller 5011 to rotate, thereby driving the rotating rod 509 and the mixing plate 5010 to rotate; the outer wall of the mixing plate 5010 is provided with a plurality of mixing holes for stirring the coolant inside the reservoir chamber 501 to improve the use effect of the coolant; when the agent outlet hole 505 is opened, the coolant inside the reservoir chamber 501 will pass through the agent outlet pipe 504 and the agent outlet hole 505, and will be sprayed out after being atomized by the atomizing mesh plate 506, thereby cooling the top of the anti-seismic base 1, thereby reducing the heat generated by the vibration of the transformer and improving the use effect of the transformer;

[0051] The mounting base 2 and the support plate 404 are both provided with heat dissipation holes, which help to dissipate the heat at the bottom of the transformer. Under normal working conditions, the heat generated by the transformer can be dissipated to the surrounding environment through these heat dissipation holes, thereby maintaining the normal operating temperature of the transformer;

[0052] Through the arrangement of the above technical solution, the design of the outlet cooling mechanism enables the device to automatically cool down the heat generated by the vibration of the transformer during an earthquake. By utilizing the reciprocating sliding extrusion of the buffer slide 403, the gas is squeezed into the air inlet 502, driving the rotating impeller 5011 to rotate, thereby driving the rotating rod 509 and the mixing plate 5010 to stir the coolant in the reservoir chamber 501, thereby improving the use effect of the coolant. At the same time, the gas pressure causes the fitting baffle 508 to move, opening the outlet hole 505, and the coolant is sprayed out through the atomizing mesh plate 506, effectively cooling the top of the anti-seismic base 1 and protecting the transformer from high temperature damage.

[0053] The heat dissipation holes opened on the mounting base 2 and the support plate 404, combined with the supporting function of the support block 3, not only ensure the stability of the transformer under normal working conditions, but also promote the heat dissipation at the bottom of the transformer. This design helps to maintain the normal operating temperature of the transformer and extend the service life of the equipment; the design of the mixing plate 5010 and the rotating impeller 5011 on the rotating rod 509 realizes the automatic stirring and spraying of the coolant. In the event of an earthquake, this mechanism can be automatically started without external intervention, ensuring the efficient use of the coolant and timely cooling effect.

[0054] While embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions, and variations may be made to these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. A new energy booster station transformer seismic support device, characterized in that: include: An anti-seismic base (1) for supporting the bottom of the transformer; A mounting seat (2) is used for mounting and using the transformer, and a plurality of support blocks (3) are connected to the mounting seat (2); A buffer mechanism is used for buffering and reducing shock at the bottom of a transformer when an earthquake occurs, the buffer mechanism being installed above the anti-seismic base (1), the buffer mechanism comprising a plurality of buffer sleeves (4) installed on the anti-seismic base (1), a buffer spring (401) being fixedly connected to the bottom of the inner wall of the buffer sleeve (4), an end of the buffer spring (401) away from the buffer sleeve (4) being connected to a buffer slide plate (402), a top of the buffer slide plate (402) being fixedly connected to a buffer slide bar (403), and an end of the buffer slide bar (403) away from the buffer slide plate (402) slidingly extending to the outside of the buffer sleeve (4), and a plurality of buffer slide bars (403) being fixedly connected to a support plate (404) at their tops; The outlet cooling mechanism is used to cool the heat generated by transformer vibration when an earthquake occurs. The outlet cooling mechanism is installed on the buffer mechanism.

2. The anti-seismic support device for a new energy booster station transformer according to claim 1 is characterized in that: The discharge cooling mechanism includes a spray ring (5), which is installed on the outer wall of the plurality of buffer sleeves (4); a plurality of storage chambers (501) are provided inside the spray ring (5); a plurality of air inlets (502) are provided on one side of the plurality of storage chambers (501), and the air inlets (502) extend to the interior of the buffer sleeve (4); a partition (503) is fixedly connected to the interior of the storage chamber (501); a discharge pipe (504) communicating with the interior of the storage chamber (501) is connected to the partition (503); and a plurality of discharge holes (505) are provided on the outer wall of the storage chamber (501).

3. The anti-seismic support device for a new energy booster station transformer according to claim 2, characterized in that: A sliding groove is provided on the top of the buffer sleeve (4), and the end of the buffer slide bar (403) away from the buffer slide plate (402) slides and extends to the outside of the buffer sleeve (4) through the sliding groove, the outer wall of the buffer slide plate (402) and the inner wall of the buffer sleeve (4) are slidingly fitted, and the multiple air inlets (502) are located below the buffer slide plate (402), and the end of the discharge pipe (504) away from the partition (503) is correspondingly connected to the discharge hole (505), and the inner wall diameter of the discharge pipe (504) is smaller than the inner wall diameter of the discharge hole (505).

4. The anti-seismic support device for a new energy booster station transformer according to claim 2, characterized in that: The discharge cooling mechanism further comprises an atomizing mesh plate (506) installed inside the discharge hole (505) and a fitting baffle (508) located inside the discharge pipe (504); a telescopic rod (507) is connected to one side of the atomizing mesh plate (506); a rotating rod (509) is rotatably connected to one side of the fitting baffle (508); and an end of the rotating rod (509) away from the fitting baffle (508) extends to the inside of the air inlet (502); an outer wall of the rotating rod (509) is located inside the storage chamber (501) and is fixedly connected to a plurality of mixing plates (5010); and an outer wall of the rotating rod (509) is located inside the air inlet (502) and is fixedly connected to a rotating impeller (5011).

5. The anti-seismic support device for a new energy booster station transformer according to claim 4 is characterized in that: The outer wall of the mixing plate (5010) is provided with a plurality of mixing holes, and the outer wall of the fitting baffle (508) and the inner wall of the discharge pipe (504) are arranged to be slidingly fitted.

6. The anti-seismic support device for a new energy booster station transformer according to claim 4 is characterized in that: The air inlet (502) is located on one side of the reservoir chamber (501) and is provided with a one-way valve that only allows air to enter but not exit.

7. The anti-seismic support device for a new energy booster station transformer according to claim 4, characterized in that: The outer wall diameter of the rotating rod (509) is smaller than the outer wall diameter of the dosage tube (504).

8. The new energy booster station transformer seismic support device according to claim 4 is characterized in that: The mounting seat (2) and the supporting plate (404) are both provided with heat dissipation holes.

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