A kind of energy storage power station side energy storage quantity dispatching and distributing device

Abstract

The present invention relates to the technical field of power distribution devices, and specifically to a storage power station side energy storage electricity dispatching and distribution device, comprising a U-shaped base and a power supply input touch plate, a security distribution touch plate and a secondary distribution touch plate embedded and fixed on the U-shaped base, wherein the external fixed conduction of the security distribution touch plate is provided with a right-angle dividing plate, a movable T-shaped platform is provided below the right-angle dividing plate, and an insulating actuating member is installed with an internal limit of the U-shaped base, and the insulating actuating member is lifted and lowered inside the U-shaped base; when the current of the dispatching and distribution device of the present invention reaches a certain value, the device can actively disconnect the power output of the secondary distribution touch plate end, so that the power is concentratedly distributed to the security distribution touch plate, thereby realizing dispatching and distribution, and the device has low cost and high integration.

Description

Technical Field

[0001] The present invention relates to the technical field of power distribution devices, and in particular to a device for dispatching and distributing energy storage electricity at an energy storage power station side. Background Art

[0002] An energy storage power station is an energy storage system built on the transmission and distribution network or load side. It can release stored energy to supply power after the power grid is cut off. It can distribute electric energy to the power grid for power supply when the power grid needs it. In actual work, the power supply priority levels of the places being powered are high and low. In the process of power distribution, it is necessary to ensure stable power supply for places with high priority levels. Since the power supply power of the energy storage power station is certain, when the power supply power peak of the energy storage power station is about to be reached, it is necessary to actively disconnect the power consumption places with low priority levels. In the existing technology, to realize the above-mentioned dispatching and distribution of electric energy, it is usually necessary to cooperate with contactors, single-chip microcomputer programming control logic and various detection instruments. The system is complex, costly and has a low degree of integration. Summary of the invention

[0003] The purpose of the present invention is to provide a device for dispatching and distributing energy storage electricity at an energy storage power station side to solve the problems raised in the above-mentioned background technology.

[0004] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a storage power station side energy storage quantity dispatching and distribution device, comprising a U-shaped base and a power supply input touch plate, a protection distribution touch plate and a secondary distribution touch plate embedded and fixed on the U-shaped base, the protection distribution touch plate is externally fixedly conducted with a right-angle dividing plate, a movable T-shaped platform is arranged below the right-angle dividing plate, an insulating actuating member is installed at an internal limit position of the U-shaped base, the insulating actuating member is lifted and lowered inside the U-shaped base, the movable T-shaped platform is embedded and installed inside the insulating actuating member, the movable T-shaped platform corresponds to the right-angle dividing plate up and down, and can contact and conduct with the right-angle dividing plate when the movable T-shaped platform moves up, A conductive braided belt is connected between the movable T-type stage and the secondary distribution touch plate, and the movable T-type stage is conductively connected to the secondary distribution touch plate through the conductive braided belt. A magnetic fixing plate is fixedly provided on the insulating action piece, and a permanent magnet is fixedly installed on the inner wall surface of the U-shaped base. The permanent magnet exerts an upward magnetic attraction on the magnetic fixing plate, so that the movable T-type stage moves up and contacts with the right-angle dividing plate for conduction; a current detection component with a toggle function is series-connected between the power supply input touch plate and the protection distribution touch plate. When the current detection component detects that the current reaches the set value, it can toggle the insulating action piece downward to separate the movable T-type stage from the right-angle dividing plate.

[0005] The current detection component includes an adjustment splint, a U-shaped bracket, an integrated iron core and a conductive coil. The adjustment splint is fixedly installed on the inner wall surface of the U-shaped base, and the U-shaped bracket is arranged on the inner side of the adjustment splint. The U-shaped bracket and the adjustment splint are limited and cooperated so that the U-shaped bracket can only be lifted, lowered and slid. An integrated iron core is fixedly arranged in the U-shaped bracket, and a conductive coil is wound around the outside of the integrated iron core.

[0006] The power supply input touch pads and the protection distribution touch pads are respectively provided with two groups, one group of power supply input touch pads and the protection distribution touch pads are directly conductively connected; the other group of power supply input touch pads and the protection distribution touch pads are separated, and a conductive coil is arranged in series between the two, and conductive connection is achieved through the conductive coil.

[0007] A fulcrum support plate is fixedly provided on the inner lower surface of the U-shaped base, a driving pry plate is swingably installed on the fulcrum support plate, a magnetic patch is embedded and fixed on the surface of the driving pry plate, the magnetic patch corresponds to the integrated iron core up and down, when the conductive coil is energized, the integrated iron core generates magnetic force that can magnetically cooperate with the magnetic patch.

[0008] A threaded column is spirally arranged in the U-shaped bracket, and an adjusting screw cap is arranged at the end of the threaded column. When the threaded column rotates, it can drive the U-shaped bracket and the integrated iron core to move up and down relative to the magnetic patch. A limit clamp frame is fixedly arranged on the surface of the insulating actuating part, and a matching dial shaft is inserted in the limit clamp frame. The matching dial shaft has a horizontal movable gap in the limit clamp frame, and the matching dial shaft is fixedly installed with the driving pry plate. The force arm distance between the matching dial shaft and the fulcrum support plate is smaller than the force arm distance between the fulcrum support plate and the magnetic patch.

[0009] An inner wall cylindrical cavity is opened in the side wall surface of the U-shaped base, and a locking shaft is inserted through the side wall surface of the U-shaped base. The locking shaft is inserted through the inner wall cylindrical cavity, one end of the locking shaft is pressed against the side wall surface of the magnetic fixing plate, and a reset pull head is fixedly provided on the other end of the locking shaft.

[0010] The surface of the locking shaft is located inside the inner wall cylindrical cavity and a spring pressure plate is fixedly provided. A shaft spring is provided on one side of the spring pressure plate. The shaft spring applies axial thrust to the locking shaft through the spring pressure plate, so that the locking shaft has an elastic tendency to move toward the direction of the magnetic fixing plate.

[0011] A bridge plate body is arranged between the power supply input touch plate and the protection distribution touch plate that are set to be disconnected, and a conductive rotating shaft is fixedly arranged at the end of the bridge plate body. The conductive rotating shaft is rotatably arranged inside the power supply input touch plate and is in contact and conduction with the power supply input touch plate. One end of the bridge plate body away from the power supply input touch plate is located above the protection distribution touch plate, and an extension boss is fixedly arranged on the inner wall surface of the U-shaped base, and a downward pressure spring is arranged below the extension boss, and the downward pressure spring provides downward elastic pressure to the bridge plate body.

[0012] An insulating lifting plate is fixedly provided on the upper surface of the insulating actuating member. When the right-angle dividing plate is in contact with the movable T-shaped stage, the upper end of the insulating lifting plate presses against the lower surface of the bridge plate body, so that the bridge plate body is not in contact with the guarantee distribution touch plate; when the insulating actuating member moves downward to separate the right-angle dividing plate from the movable T-shaped stage, the insulating lifting plate moves downward, and the bridge plate body is in contact with the guarantee distribution touch plate under the elastic pressure of the downward pressure spring.

[0013] The outside of the U-shaped base is provided with a matching closed shell, and both ends of the insulating actuating member are respectively provided with end vertical grooves. A limiting track edge is fixedly provided on the inner wall surface of the U-shaped base, and the end vertical groove is limitedly matched with the limiting track edge. A fixed sleeve is fixedly mounted on the outside of the permanent magnet, and the fixed sleeve is fixedly installed on the U-shaped base.

[0014] Compared with the prior art, the present invention has the following beneficial effects:

[0015] The dispatching and distribution device of the present invention can drive the insulating action part while realizing current detection through the current detection component. When the power grid power supply voltage fluctuates slightly, the current value can reflect the power supply power of the current energy storage power station. When the current reaches a certain value, the device can actively disconnect the power output of the secondary distribution touch plate end, so that the power is concentratedly distributed to the security distribution touch plate, realizing dispatching and distribution, and the device has lower cost and high degree of integration.

[0016] Through the coordination of structures such as the threaded column, U-shaped bracket and adjustment splint, the current value triggered by the action of the current detection component can be adjusted. The closer the integrated iron core is to the magnetic patch, the smaller the preset trigger current value is, thereby adapting to energy storage power stations of different powers.

[0017] Through the coordination of the bridge plate body, downward pressure spring, insulating lifting plate and other structures, when the device is triggered to disconnect the secondary distribution touch plate and concentrate power on the protection distribution touch plate, the current detection component can be automatically discarded. At this time, the bridge plate body and the conductor coil are in parallel. After the two are connected in parallel, they are connected in series between the power input touch plate and the protection distribution touch plate. This can greatly reduce the impact of the current detection component on the circuit, greatly reduce the power consumption of the conductor coil, greatly reduce the internal power consumption of the device, and further improve the power supply efficiency to the protection distribution touch plate. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0019] Figure 2 It is a schematic diagram of the internal structure of the present invention.

[0020] Figure 3 It is a schematic diagram of the internal structure of the present invention from another angle.

[0021] Figure 4 It is an exploded view of the present invention.

[0022] Figure 5 It is the front view of the internal structure of the present invention.

[0023] Figure 6 It is a top view of the internal structure of the present invention.

[0024] Figure 7 It is a three-dimensional half-section schematic diagram of the right-angle dividing plate of the present invention.

[0025] Figure 8 It is a three-dimensional half-section schematic diagram of the driving pry plate of the present invention.

[0026] Fig. 9 For the present invention Figure 8 A magnified image of area A.

[0027] In the figure: 1, U-shaped base; 2, power input touch panel; 3, security distribution touch panel; 4, secondary distribution touch panel; 5, right angle dividing plate; 6, movable T-shaped stage; 7, insulating action piece; 8, conductive braided belt; 9, magnetic fixing plate; 10, permanent magnet; 101, adjustment splint; 102, U-shaped bracket; 103, integrated iron core; 104, conductor coil; 105, fulcrum bracket; 106, driving pry plate; 107, magnetic patch; 108, threaded column; 10 9. Adjusting screw cap; 110. Limiting clamp frame; 111. Matching dial shaft; 112. Inner wall cylindrical cavity; 113. Locking plug shaft; 114. Spring pressure plate; 115. Plug shaft spring; 116. Reset pull head; 201. Conductive rotating shaft; 202. Bridge plate; 203. Extended boss; 204. Down-pressing spring; 205. Insulating lifting plate; 117. Matching closed shell; 701. End vertical groove; 702. Limiting track edge; 1001. Fixed sleeve. DETAILED DESCRIPTION

[0028] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0029] See also Figures 1 to 9 The present invention provides a technical solution: a storage power station side energy storage electricity dispatching and distribution device, such as Figure 2 As shown in the figure, it includes a U-shaped base 1 and a power supply input touch panel 2, a distribution touch panel 3 and a secondary distribution touch panel 4 embedded and fixed on the U-shaped base 1, a right-angle dividing plate 5 is arranged on the outside of the distribution touch panel 3, and a movable T-shaped platform 6 is arranged below the right-angle dividing plate 5. An insulating actuating member 7 is installed on the internal limit of the U-shaped base 1, and the insulating actuating member 7 and the U-shaped base 1 are both made of insulating materials.

[0030] The insulating action piece 7 is lifted and lowered inside the U-shaped base 1, and the movable T-shaped platform 6 is embedded and installed inside the insulating action piece 7. The movable T-shaped platform 6 corresponds to the right-angle dividing plate 5 up and down. When the movable T-shaped platform 6 moves up, it can contact and conduct with the right-angle dividing plate 5. A conductive braided belt 8 is connected between the movable T-shaped platform 6 and the secondary distribution touch plate 4. The movable T-shaped platform 6 is conductively connected to the secondary distribution touch plate 4 through the conductive braided belt 8. A magnetic fixing plate 9 is fixedly arranged on the insulating action piece 7. A permanent magnet 10 is fixedly installed on the inner wall surface of the U-shaped base 1. The permanent magnet 10 applies an upward magnetic attraction to the magnetic fixing plate 9, so that the movable T-shaped platform 6 moves up and contacts with the right-angle dividing plate 5; a current detection component with a toggle function is arranged in series between the power supply input touch plate 2 and the guarantee distribution touch plate 3. When the current detection component detects that the current reaches the set value, it can toggle the insulating action piece 7 downward, so that the movable T-shaped platform 6 is separated from the right-angle dividing plate 5.

[0031] like Figure 3 As shown in the figure, the current detection component includes an adjusting clamp plate 101, a U-shaped bracket 102, an integral iron core 103 and a conductive coil 104. The adjusting clamp plate 101 is fixedly installed on the inner wall surface of the U-shaped base 1, and the U-shaped bracket 102 is arranged on the inner side of the adjusting clamp plate 101. The U-shaped bracket 102 and the adjusting clamp plate 101 are limited and cooperated so that the U-shaped bracket 102 can only be lifted and slid. An integral iron core 103 is fixedly arranged in the U-shaped bracket 102, and a conductive coil 104 is wound around the outside of the integral iron core 103. The integral iron core 103 and the conductive coil 104 cooperate to form an electromagnet structure.

[0032] There are two corresponding groups of power supply input touch pads 2 and security distribution touch pads 3, one group of power supply input touch pads 2 and security distribution touch pads 3 are directly conductively connected; the other group of power supply input touch pads 2 and security distribution touch pads 3 are separated, and a conductive coil 104 is arranged in series between the two, and conductive connection is achieved through the conductive coil 104.

[0033] A fulcrum support plate 105 is fixedly provided on the inner lower surface of the U-shaped base 1, and a driving pry plate 106 is swingably installed on the fulcrum support plate 105. A magnetic patch 107 is embedded and fixed on the surface of the driving pry plate 106. The magnetic patch 107 corresponds to the integrated iron core 103 up and down. When the conductive coil 104 is energized, the integrated iron core 103 generates magnetic force that can magnetically cooperate with the magnetic patch 107. A threaded column 108 is spirally provided in the U-shaped bracket 102, and an adjusting screw cap 109 is provided at the end of the threaded column 108. When the threaded column 108 rotates, it can drive the U-shaped bracket 102 and the integrated iron core 103 to move up and down relative to the magnetic patch 107. A limit clamp frame 110 is fixedly provided on the surface of the insulating action member 7, and a matching dial shaft 111 is inserted in the limit clamp frame 110. The matching dial shaft 111 has a horizontal activity gap in the limit clamp frame 110. The matching dial shaft 111 is fixedly installed with the driving pry plate 106. The lever arm distance between the matching dial shaft 111 and the fulcrum support plate 105 is smaller than the lever arm distance between the fulcrum support plate 105 and the magnetic patch 107. Therefore, the lever principle can be used to increase the driving torque of the pry plate 106, so that the conductor coil 104 can be wound with fewer turns, thereby reducing the resistance of the conductor coil 104.

[0034] An inner wall cylindrical cavity 112 is opened in the side wall surface of the U-shaped base 1, and a locking shaft 113 is inserted through the side wall surface of the U-shaped base 1. The locking shaft 113 is inserted through the inner wall cylindrical cavity 112, and one end of the locking shaft 113 is pressed against the side wall surface of the magnetic fixing plate 9, and a reset pull head 116 is fixedly provided on the other end of the locking shaft 113.

[0035] A spring pressure plate 114 is fixedly provided on the surface of the locking shaft 113 inside the inner wall cylindrical cavity 112, and a shaft spring 115 is provided on one side of the spring pressure plate 114. The shaft spring 115 applies axial thrust to the locking shaft 113 through the spring pressure plate 114, so that the locking shaft 113 has an elastic tendency to move toward the direction of the magnetic fixing plate 9.

[0036] A bridge plate 202 is arranged between the disconnected power supply input touch plate 2 and the protection distribution touch plate 3, and a conductive shaft 201 is fixedly arranged at the end of the bridge plate 202. The conductive shaft 201 is rotatably arranged inside the power supply input touch plate 2 and is in contact and conduction with the power supply input touch plate 2. One end of the bridge plate 202 away from the power supply input touch plate 2 is located above the protection distribution touch plate 3, and an extension boss 203 is fixedly arranged on the inner wall surface of the U-shaped base 1. A downward pressure spring 204 is arranged below the extension boss 203. The downward pressure spring 204 provides downward elastic pressure to the bridge plate 202.

[0037] An insulating lifting plate 205 is fixedly provided on the upper surface of the insulating actuating member 7. When the right-angle dividing plate 5 is in contact with the movable T-shaped stage 6 and is conductive, the upper end of the insulating lifting plate 205 is pressed against the lower surface of the bridge plate body 202, so that the bridge plate body 202 is not in contact with the distribution contact plate 3 and is conductive; when the insulating actuating member 7 moves downward to separate the right-angle dividing plate 5 from the movable T-shaped stage 6, the insulating lifting plate 205 moves downward at this time, and the bridge plate body 202 is in contact with the distribution contact plate 3 under the elastic pressure of the downward pressure spring 204.

[0038] The outside of the U-shaped base 1 is provided with a matching closed shell 117, and the two ends of the insulating actuating member 7 are respectively provided with end vertical grooves 701. The inner wall surface of the U-shaped base 1 is fixedly provided with a limiting track edge 702, and the end vertical groove 701 cooperates with the limiting track edge 702 in a limiting manner. The outer sleeve of the permanent magnet 10 is fixedly provided with a fixed sleeve body 1001, and the fixed sleeve body 1001 is fixedly installed with the U-shaped base 1.

[0039] When the dispatching and distribution device of the present invention is in use, the power supply output of the energy storage power station is connected to the power supply input touch panel 2, the distribution touch panel 3 is connected to the power grid of the high priority power supply location, and the secondary distribution touch panel 4 is connected to the power grid of the low priority power supply location.

[0040] like Figure 2 and Figure 3 As shown in , two groups of power input touch pads 2 and security distribution touch pads 3 are respectively provided, one group of power input touch pads 2 and security distribution touch pads 3 are directly connected; the other group of power input touch pads 2 and security distribution touch pads 3 are separated, and a conductive coil 104 is arranged in series between the two. Since the conductive coil 104 is connected in series between the power input touch pads 2 and the security distribution touch pads 3, the separated power input touch pads 2 and the security distribution touch pads 3 are connected through the conductive coil 104, ensuring that the wire diameter of the conductive coil 104 is thick enough, the carrying current is sufficient, and the resistance of the conductive coil 104 is reduced as much as possible. The conductive coil 104 cooperates with the integrated iron core 103 to generate magnetic force to attract the magnetic patch 107.

[0041] Through the above settings, when the power supply voltage fluctuates slightly, the ideal situation can be regarded as that the voltage remains unchanged. In fact, the voltage will fluctuate slightly with the load change, but it is all within the allowable error range. At this time, the current flowing in the conductor coil 104 can reflect the power supply situation of the energy storage power station at this time according to the formula that power is equal to the product of voltage and current, that is, the current size is proportional to the power supply power of the energy storage power station.

[0042] By rotating the adjusting screw cap 109, the threaded column 108 rotates. Since the U-shaped bracket 102 and the threaded column 108 are spirally matched, the U-shaped bracket 102 will drive the integrated iron core 103 to move up and down, while the position height of the magnetic patch 107 remains unchanged. When the integrated iron core 103 is closer to the magnetic patch 107, the integrated iron core 103 is easier to drive the driving pry plate 106 to rotate under the same magnetic strength, thereby adjusting the current value triggered by the action of the current detection component. At the same time, it is also necessary to limit the integrated iron core 103 to avoid being too close to the magnetic patch 107, which affects the rotation stroke of the driving pry plate 106.

[0043] When the current in the conducting coil 104 is relatively small, the magnetic force generated by the integral iron core 103 is insufficient to drive the driving pry plate 106 to rotate. Figure 8 As shown in , under the magnetic attraction of the permanent magnet 10, the insulating action member 7 is in an upward state, and under the magnetic force of the permanent magnet 10, the movable T-shaped platform 6 is squeezed and contacted with the right-angle dividing plate 5 to achieve conduction, so the secondary distribution touch plate 4 is in a parallel state with the protection distribution touch plate 3, and the secondary distribution touch plate 4 can supply power to the outside. At the same time, the insulating lifting plate 205 is in an upward state, and the insulating lifting plate 205 is against the lower surface of the bridge plate body 202, so that the bridge plate body 202 is separated from the protection distribution touch plate 3.

[0044] When the current in the conductor coil 104 reaches a certain value, the magnetic force generated by the integrated iron core 103 can drive the driving pry plate 106 to rotate, and the driving pry plate 106 moves the insulating action member 7 downward by cooperating with the lever shaft 111, so that the right-angle dividing plate 5 is separated from the movable T-shaped platform 6, and the secondary distribution touch plate 4 is actively disconnected. When the insulating action member 7 moves downward, the insulating lifting plate 205 moves downward synchronously. When the insulating lifting plate 205 moves downward, the end of the bridge plate body 202 is elastically squeezed by the downward pressure spring 204, and the end of the bridge plate body 202 is in contact with the distribution touch plate 3. At this time, the bridge plate body 202 is connected in parallel with the conductor coil 104. By parallel shunting, the current in the conductor coil 104 is greatly reduced, and the current detection component is automatically discarded, which can greatly reduce the impact of the current detection component on the circuit.

[0045] like Fig. 9 As shown in the figure, when the insulating actuating member 7 and the magnetic fixing plate 9 move downward, after the magnetic fixing plate 9 moves to the bottom of the locking plug shaft 113, the locking plug shaft 113 will extend under the elastic force of the plug shaft spring 115, so that the locking plug shaft 113 blocks the magnetic fixing plate 9; the internal current of the conductive coil 104 is weakened, so that the magnetic force of the integral iron core 103 is greatly reduced, and the insulating actuating member 7 will not automatically rise; when the power supply of the energy storage power station is sufficient, the device is reset by manually pulling the reset pull head 116.

[0046] Although 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 the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A storage power station side energy storage quantity dispatching and distributing device, comprising a U-shaped base (1) and a power supply input touch panel (2), a guarantee distribution touch panel (3) and a secondary distribution touch panel (4) embedded and fixed on the U-shaped base (1), characterized in that: The outer fixed conduction of the protection distribution touch plate (3) is provided with a right-angled dividing plate (5), a movable T-shaped platform (6) is provided below the right-angled dividing plate (5), an insulating action piece (7) is installed at the inner limit of the U-shaped base (1), the insulating action piece (7) is movable in a lifting manner inside the U-shaped base (1), the movable T-shaped platform (6) is embedded in the insulating action piece (7), the movable T-shaped platform (6) corresponds to the right-angled dividing plate (5) up and down, and when the movable T-shaped platform (6) moves up The movable T-shaped platform (6) is electrically connected to the secondary distribution touch plate (4); a conductive braided belt (8) is provided between the movable T-shaped platform (6) and the secondary distribution touch plate (4); the movable T-shaped platform (6) is electrically connected to the secondary distribution touch plate (4) via the conductive braided belt (8); a magnetic fixing plate (9) is fixedly provided on the insulating action member (7); a permanent magnet (10) is fixedly installed on the inner wall surface of the U-shaped base (1); the permanent magnet (10) applies an upward magnetic attraction to the magnetic fixing plate (9). , so that the movable T-shaped platform (6) moves upward and contacts and conducts with the right-angle dividing plate (5); a current detection component with a toggle function is arranged in series between the power supply input touch plate (2) and the protection distribution touch plate (3); when the current detection component detects that the current reaches a set value, it can toggle the insulating action member (7) downward, so that the movable T-shaped platform (6) is separated from the right-angle dividing plate (5); the current detection component includes an adjustment clamping plate (101), a U-shaped bracket (102), an integrated iron core (103) and a conductor The adjusting clamp plate (101) is fixedly mounted on the inner wall surface of the U-shaped base (1); the U-shaped bracket (102) is arranged on the inner side of the adjusting clamp plate (101); the U-shaped bracket (102) and the adjusting clamp plate (101) are limitedly matched so that the U-shaped bracket (102) can only be lifted and slid; an integral iron core (103) is fixedly arranged in the U-shaped bracket (102); and a conducting coil (104) is wound around the outside of the integral iron core (103).

2. The energy storage power dispatching and distribution device at the energy storage power station side according to claim 1 is characterized in that: The power supply input touch pad (2) and the protection distribution touch pad (3) are respectively provided with two groups, wherein one group of the power supply input touch pad (2) and the protection distribution touch pad (3) are directly conductively connected; the other group of the power supply input touch pad (2) and the protection distribution touch pad (3) are provided separately, and a conductive coil (104) is provided in series between the two groups, and conductive connection is achieved through the conductive coil (104).

3. The energy storage power dispatching and distribution device at the energy storage power station side according to claim 2 is characterized in that: A fulcrum support plate (105) is fixedly arranged on the inner lower surface of the U-shaped base (1), a driving pry plate (106) is swingably mounted on the fulcrum support plate (105), a magnetic patch (107) is embedded and fixed on the surface of the driving pry plate (106), the magnetic patch (107) corresponds to the integral iron core (103) in upper and lower positions, and when the conductive coil (104) is energized, the integral iron core (103) generates magnetic force that can magnetically cooperate with the magnetic patch (107).

4. The energy storage power dispatching and distribution device at the energy storage power station side according to claim 3 is characterized by: A threaded column (108) is spirally arranged in the U-shaped bracket (102), and an adjustment screw cap (109) is arranged at the end of the threaded column (108). When the threaded column (108) rotates, it can drive the U-shaped bracket (102) and the integrated iron core (103) to move up and down relative to the magnetic patch (107). A limit clamp frame (110) is fixedly arranged on the surface of the insulating action member (7), and a matching shifting shaft (111) is inserted in the limit clamp frame (110). The matching shifting shaft (111) has a horizontal movable gap in the limit clamp frame (110). The matching shifting shaft (111) is fixedly installed with the driving pry plate (106), and the arm distance between the matching shifting shaft (111) and the fulcrum support plate (105) is smaller than the arm distance between the fulcrum support plate (105) and the magnetic patch (107).

5. The energy storage power dispatching and distribution device at the energy storage power station side according to claim 4 is characterized in that: An inner wall cylindrical cavity (112) is provided in the side wall surface of the U-shaped base (1), and a locking shaft (113) is inserted through the side wall surface of the U-shaped base (1). The locking shaft (113) is inserted through the inner wall cylindrical cavity (112), and one end of the locking shaft (113) is pressed against the side wall surface of the magnetic fixing plate (9), and a reset pull head (116) is fixedly provided on the other end of the locking shaft (113).

6. The energy storage power dispatching and distribution device at the energy storage power station side according to claim 5 is characterized by: A spring pressure plate (114) is fixedly arranged on the surface of the locking plug shaft (113) located inside the inner wall cylindrical cavity (112), and a plug shaft spring (115) is arranged on one side of the spring pressure plate (114). The plug shaft spring (115) applies an axial thrust to the locking plug shaft (113) through the spring pressure plate (114), so that the locking plug shaft (113) has an elastic tendency to move in the direction of the magnetic attraction fixing plate (9).

7. The energy storage power dispatching and distribution device at the energy storage power station side according to claim 2 is characterized by: A bridge plate body (202) is arranged between the power supply input touch plate (2) and the protection distribution touch plate (3) which are arranged in a disconnected manner; a conductive rotating shaft (201) is fixedly arranged at the end of the bridge plate body (202); the conductive rotating shaft (201) is rotatably arranged inside the power supply input touch plate (2) and is in contact and conduction with the power supply input touch plate (2); one end of the bridge plate body (202) away from the power supply input touch plate (2) is located above the protection distribution touch plate (3); an extension boss (203) is fixedly arranged on the inner wall surface of the U-shaped base (1); a downward pressure spring (204) is arranged below the extension boss (203); the downward pressure spring (204) provides downward elastic pressure to the bridge plate body (202).

8. The energy storage power dispatching and distribution device at the energy storage power station side according to claim 7 is characterized by: An insulating lifting plate (205) is fixedly provided on the upper surface of the insulating action member (7); when the right-angled split plate (5) is in contact with the movable T-shaped platform (6), the upper end of the insulating lifting plate (205) is pressed against the lower surface of the bridge plate body (202), so that the bridge plate body (202) is not in contact with the distribution contact plate (3); when the insulating action member (7) moves downward to separate the right-angled split plate (5) from the movable T-shaped platform (6), the insulating lifting plate (205) moves downward, and the bridge plate body (202) is in contact with the distribution contact plate (3) under the elastic pressure of the downward pressure spring (204).

9. The energy storage power dispatching and distribution device at the energy storage power station side according to claim 1, characterized in that: The U-shaped base (1) is provided with a matching closed shell (117) on the outside, and the insulating action member (7) is provided with end vertical grooves (701) at both ends. A limit track edge (702) is fixedly provided on the inner wall surface of the U-shaped base (1), and the end vertical groove (701) and the limit track edge (702) are matched in a limiting manner. A fixed sleeve (1001) is fixedly provided on the outside of the permanent magnet (10), and the fixed sleeve (1001) is fixedly installed on the U-shaped base (1).

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