Virtual power plant operation management and control platform

Abstract

The invention relates to the field of power plant management and control, in particular to a virtual power plant operation management and control platform which comprises a management and control platform body, a wire management and control table detachably installed on the back face of the management and control platform body and a high-voltage wire movably connected to the inner side wall face of an insertion sleeve head and the wire management and control table in a sleeving mode. A limiting rod is fixedly connected to the inner side wall face of the inserting sleeve head, and the outer side surface of the limiting rod is movably sleeved with two sets of protective butt joint cylinders arranged on the inner side wall face of the inserting sleeve head. Meanwhile, high-elasticity pushing wires on the outer side surface of a limiting rod are matched to quickly push the two protective butt joint cylinders towards the two ends of the limiting rod at a horizontal angle, and instant pushing force generated when the multiple high-elasticity pushing wires pop up at the same time can peel off a butt joint, a second butt joint sleeve head and the two protective butt joint cylinders; and the effect of directly performing power-off protection after the high-voltage wire is broken by breaking the joint of the high-voltage wire when the butt joint and the second butt joint sleeve head are broken is achieved.

Description

Technical Field

[0001] The present invention relates to the technical field of power plant control and management, and in particular to a virtual power plant operation and management platform. Background Art

[0002] A virtual power plant is a carrier that organically combines distributed generators, controllable loads and distributed energy storage facilities, and integrates and regulates various distributed energy sources through supporting control and communication technologies. It can operate as a special power plant with the power market and power grid. In a sense, a virtual power plant can be regarded as an advanced regional centralized electricity management model.

[0003] A patent with publication number CN 113378169 A discloses a security protection system for virtual power plant operation, which belongs to the technical field of virtual power plants. In the security protection system for virtual power plant operation, a network security module, a host protection security module, an application software security module and a data security module are arranged. By performing security protection on network security, host protection security, application software security and data security, the safety performance of the virtual power plant is improved from multiple angles, the smooth operation of the virtual power plant intelligent management and control platform is ensured, and a safe and reliable hardware, software and data resource environment is provided for the virtual power plant intelligent management and control platform.

[0004] A virtual power plant is an organic combination of distributed generator sets, controllable loads and distributed energy storage facilities, which results in the generator set being composed of multiple groups of motors. When current passes through a conductor, the free electrons inside the conductor are acted upon by the electric field force and move in a directed manner. In this process, the electrons will collide with atoms or molecules inside the conductor. These collisions cause the loss of electron kinetic energy and then convert it into heat energy, thereby causing the conductor to heat up. The greater the resistance of the conductor, the greater the obstacle encountered by electrons when passing through the conductor, the more frequent the collisions, the more heat generated, and the higher the heat source, the faster the aging of the insulating materials on the cable sheath and the surface of the cable connector, reducing their insulation performance. The insulating materials may age thermally at high temperatures, causing the polymer molecular chains to break and the polarity to change, destroying the original structure and signal transmission properties, thereby reducing the insulation and conductivity of the cable. When the insulating layer is broken, the high voltage inside will leak out, causing the card-connecting equipment on the outside of the cable connector to have power-on problems, and the equipment that has been electrocuted cannot be powered off by external force. Summary of the invention

[0005] To this end, the technical problem to be solved by the present invention is to overcome the problem in the prior art that high temperature will cause oxidation and cracking of the cable insulation layer, which in turn causes leakage of internal high voltage electricity, and the entire equipment has leakage and cannot be cut off by personnel.

[0006] In order to solve the above technical problems, the present invention provides a virtual power plant operation and control platform, including a control platform and a wire control table detachably installed on the back of the control platform, a plug-in sleeve detachably installed on the inner wall of the wire control table, and a high-voltage wire movably sleeved on the plug-in sleeve and the inner wall of the wire control table. A limit rod is fixedly connected to the inner wall of the plug-in sleeve, and two groups of protective docking sleeves arranged on the inner wall of the plug-in sleeve are movably sleeved on the outer surface of the limit rod. The inner walls of the two groups of protective docking sleeves are respectively fixedly connected with docking heads and docking sleeves, and multiple high-elastic push-pull connectors are installed. The instantaneous thrust generated by the simultaneous popping out of the moving wire will peel off the docking joint, the docking sleeve 2 and the two protective docking tubes, thereby achieving the effect of using the docking joint and the docking sleeve 2 to pry apart the joint of the high-voltage wire when they are disconnected, so that the high-voltage wire will be directly powered off for protection after disconnection. A high-elastic pushing wire is movably sleeved on the outer surface of the limit rod and located in the middle position. Overlapping fixing plates are fixedly connected to the two side surfaces of the two groups of protective docking tubes, and a motor is fixedly installed on one side surface of the overlapping fixing plates of one group. Limiting sliding grooves are provided on the outer surfaces of the two groups of overlapping fixing plates.

[0007] In one embodiment of the present invention, a swinging clamping rod movably sleeved on the inner wall of the limiting slide groove is fixedly connected to the output end of the motor. When a rupture occurs at a position on the surface of the high-voltage wire, the motor is started in cooperation with the control platform, and the motor is used to rotate the swinging clamping rod inside the limiting slide groove. A semicircular groove movably sleeved on the outer surface of the motor is provided on one side surface of the other group of overlapping fixing plates. When one end of the swinging clamping rod is detached from the surface of the other overlapping fixing plate, the surfaces of the two overlapping fixing plates have no clamping support force. Under the limitation of the limiting rod, the two protective docking sleeves are quickly pushed toward the two ends of the limiting rod at a horizontal angle in cooperation with the high-elastic pushing wire on the outer surface of the limiting rod.

[0008] In one embodiment of the present invention, buffer wires are movably sleeved on the outer surfaces of both ends of the limit rod, and the two ends of the buffer wires are movably sleeved on the inner wall surface of the plug-in sleeve and the outer surface of the protective docking sleeve respectively. When the protective docking sleeve carries the docking joint and the docking sleeve 2 to slide to both sides, the buffer wires on the outer surfaces of both ends of the limit rod cooperate to elastically buffer the impact of the protective docking sleeve, the docking joint and the docking sleeve 2.

[0009] In one embodiment of the present invention, an insulating layer movably fitted on the inner wall surface of the butt joint is provided on one end of the butt joint sleeve 2, and ventilation grooves are provided on the inner wall surfaces of the butt joint and the butt joint sleeve 2.

[0010] In one embodiment of the present invention, a clamping sleeve is detachably mounted on the inner wall surface of the docking head and the docking sleeve 2, and a carbon dioxide liquid collecting chamber is arranged inside the clamping sleeve.

[0011] In one embodiment of the present invention, the interior of the carbon dioxide collecting chamber is filled with carbon dioxide, and a docking sleeve is detachably installed on one side surface of the clamping sleeve. The other end of the docking sleeve is movably adjusted on the inner wall of the air permeable groove. After power failure, the carbon dioxide accumulated in the carbon dioxide collecting chamber has a vent, so that the carbon dioxide can be quickly penetrated and diverted out from the docking sleeve, and the flowing carbon dioxide will pass through the air permeable groove and be diverted to the surface of the high-voltage wire. While using low-temperature carbon dioxide to cool down, the accumulation of carbon dioxide passively diffuses the oxygen around the equipment to the surrounding areas, greatly reducing oxygen accumulation and preventing electric sparks from igniting surrounding equipment.

[0012] In one embodiment of the present invention, a non-slip swinging plate that movably fits on the outer surface of the high-voltage wire is fixedly connected to the inner wall surface of the clamping sleeve, and anti-slip grooves are arranged on the outer surface of the non-slip swinging plate. A swing closing plate is swingably connected to the inner wall surface of the docking sleeve.

[0013] In one embodiment of the present invention, a docking iron sleeve is movably sleeved on the outer surface of one end of the swing closing plate, and an electromagnet movably attached to the other surface of the swing closing plate is magnetically attracted on the inner wall of the docking iron sleeve. When the high-voltage power line is powered off, the surface of the electromagnet is deprived of power, and the solenoid on the surface of the iron core cannot effectively generate a magnetic field after the power is cut off, thereby preventing effective magnetic adsorption between the electromagnet and the docking iron sleeve.

[0014] In one embodiment of the present invention, a circulating cooler is provided on one side surface of the wire control console and at the bottom edge position, and the circulating cooler is used to circulate heat absorption and cooling to the interior of the wire control console and the control platform. Rapid cooling will quickly dissipate the heat source accumulated on the surface of the high-voltage wire, thereby preventing the surface of the high-voltage wire from being oxidized due to continuous high temperature, causing the insulation layer to rupture, and the output end of the circulating cooler extends to the inner wall of the control platform.

[0015] In one embodiment of the present invention, limiting grooves are provided on both side surfaces of the wire control console and at the top edge of the circulating cooler, and a closed shell is slidably sleeved on the outer surface of the wire control console, which cooperates with the closed shell to protect the outer surface of the plug-in sleeve to prevent outsiders from directly contacting the plug-in sleeve and causing electric shock.

[0016] The above technical solution of the present invention has the following advantages compared with the prior art:

[0017] The virtual power plant operation and control platform described in the present invention cooperates with the control platform to start the motor when a position on the surface of the high-voltage wire is broken, and uses the motor to rotate the swing clamping rod inside the limiting slide groove. When one end of the swing clamping rod is detached from the surface of the other overlapping fixing plate, the surfaces of the two overlapping fixing plates have no clamping support force. Under the limitation of the limiting rod, the two protective docking tubes are quickly pushed toward the two ends of the limiting rod at a horizontal angle in cooperation with the high-elasticity pushing wires on the outer surface of the limiting rod. The instantaneous thrust generated by the simultaneous ejection of multiple high-elasticity pushing wires will peel off the docking joint, the docking sleeve 2 and the two protective docking tubes, so as to achieve the effect of using the docking joint and the docking sleeve 2 to break the joint of the high-voltage wire when they are disconnected, so that the high-voltage wire will be directly powered off after disconnection.

[0018] A virtual power plant operation and control platform described in the present invention, when the high-voltage wire is powered off, the surface of the electromagnet is deprived of electricity, and the solenoid on the surface of the iron core cannot effectively generate a magnetic field after the power is cut off, thereby making it impossible for the electromagnet to be effectively magnetically adsorbed to the docking iron sleeve plate. After the power is cut off, the carbon dioxide accumulated in the carbon dioxide collecting chamber has a vent, so that the carbon dioxide can be quickly guided out from the docking sleeve, and the flowing carbon dioxide will pass through the air permeable groove and be guided to the surface of the high-voltage wire. While using low-temperature carbon dioxide to cool down, the accumulation of carbon dioxide will passively diffuse the oxygen around the equipment to the surrounding areas, greatly reducing oxygen accumulation and avoiding the effect of electric sparks igniting surrounding equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] In order to make the contents of the present invention more clearly understood, the present invention is further described in detail below according to specific embodiments of the present invention in conjunction with the accompanying drawings.

[0020] Figure 1 is a stereogram of the present invention;

[0021] Figure 2 It is a three-dimensional diagram of the wire control console in the present invention;

[0022] Figure 3 It is a stereoscopic diagram of the plug-in sleeve in the present invention;

[0023] Figure 4 It is a cutaway stereoscopic view of the plug-in sleeve in the present invention;

[0024] Figure 5 It is a swing stereogram of the swing clamping rod in the present invention;

[0025] Figure 6 It is a partial cutaway stereoscopic view of the butt joint sleeve of the present invention;

[0026] Figure 7 It is a partial cutaway stereoscopic view of the clamping sleeve in the present invention;

[0027] Figure 8 It is an unfolded sectional stereoscopic view of the butt joint sleeve in the present invention.

[0028] Explanation of the reference numerals in the specification: 11. control platform; 12. wire control platform; 121. limit groove; 122. circulating cooler; 123. closed housing; 13. plug-in sleeve; 131. limit rod; 132. buffer wire; 133. protective docking sleeve; 134. docking joint; a1. breathable groove; a2. insulating layer; a3. snap-in sleeve; a4. carbon dioxide collecting chamber; a5. anti-skid swing plate; a6. docking sleeve one; a7. swing closing plate; a8. docking iron sleeve plate; a9. electromagnet; 135. docking sleeve two; 136. high elastic push wire; 137. overlapping fixing plate; 138. limit slide groove; 139. motor; 1310. swing clamping rod; 14. high-voltage wire. DETAILED DESCRIPTION

[0029] The present invention is further described below in conjunction with the accompanying drawings and specific embodiments so that those skilled in the art can better understand the present invention and implement it, but the embodiments are not intended to limit the present invention.

[0030] See also Figure 1 - Figure 6The present invention provides a virtual power plant operation control platform, including a control platform 11 and a wire control table 12 detachably installed on the back of the control platform 11, a plug-in sleeve 13 detachably installed on the inner wall of the wire control table 12, a high-voltage wire 14 movably sleeved on the plug-in sleeve 13 and the inner wall of the wire control table 12, a limit rod 131 fixedly connected to the inner wall of the plug-in sleeve 13, two groups of protective docking tubes 133 arranged on the inner wall of the plug-in sleeve 13 are movably sleeved on the outer surface of the limit rod 131, and a docking head 134 and a docking sleeve 135 are fixedly connected on the inner wall of the two groups of protective docking tubes 133, respectively, and a high-elastic push rod 131 is movably sleeved on the outer surface of the limit rod 131 and located in the middle position. The movable wire 136, the two side surfaces of the two groups of protective docking tubes 133 are fixedly connected with overlapping fixing plates 137 respectively, and the one side surface of one group of overlapping fixing plates 137 is fixedly installed with a motor 139, and the outer surfaces of the two groups of overlapping fixing plates 137 are provided with a limiting slide groove 138, and the output end of the motor 139 is fixedly connected with a swing clamping rod 1310 that is movably sleeved on the inner wall surface of the limiting slide groove 138, and the one side surface of the other group of overlapping fixing plates 137 is provided with a semicircular groove that is movably sleeved on the outer surface of the motor 139, and the outer surfaces of both ends of the limiting rod 131 are movably sleeved with buffer wires 132, and the two ends of the buffer wire 132 are movably sleeved on the inner wall surface of the plug-in sleeve 13 and the outer surface of the protective docking tube 133 respectively;

[0031] When a rupture occurs at a position on the surface of the high-voltage wire 14, the motor 139 is started in cooperation with the control platform 11, and the motor 139 is used to rotate the swing clamping rod 1310 inside the limiting slide groove 138. When one end of the swing clamping rod 1310 is detached from the surface of the other overlapping fixing plate 137, the surfaces of the two overlapping fixing plates 137 have no clamping support force. Under the limitation of the limiting rod 131, the two protective docking tubes 133 are quickly pushed toward the two ends of the limiting rod 131 at a horizontal angle in cooperation with the high-elastic pushing wire 136 on the outer surface of the limiting rod 131. The instantaneous thrust generated by the simultaneous pop-up of the force-pushing wire 136 will peel off the docking joint 134, the second docking sleeve 135 and the two protective docking tubes 133, thereby achieving the effect of using the docking joint 134 and the second docking sleeve 135 to break the joint of the high-voltage wire 14 when they are disconnected, so that the high-voltage wire 14 can be directly powered off after being disconnected. When the protective docking tube 133 carries the docking joint 134 and the second docking sleeve 135 to slide to both sides, the buffer wires 132 on the outer surfaces of both ends of the limit rod 131 cooperate with the elastic force buffering of the impact of the protective docking tube 133, the docking joint 134 and the second docking sleeve 135.

[0032] Furthermore, if Figure 3 and Figure 8 As shown, an insulating layer a2 that is movably attached to the inner wall surface of the butt joint 134 is provided on one end of the butt joint 134 and the inner wall surfaces of the butt joint 134 and the butt joint 135 are provided with a venting groove a1, and a clamping sleeve a3 is detachably installed on the inner wall surfaces of the butt joint 134 and the butt joint 135, and a carbon dioxide collecting chamber a4 is provided inside the clamping sleeve a3, and the carbon dioxide collecting chamber a4 is filled with carbon dioxide, and a butt joint a6 is detachably installed on one side surface of the clamping sleeve a3, and the butt joint 134 and the inner wall surfaces of the butt joint 135 are provided with a venting groove a1, and a butt joint a6 is detachably installed on the inner wall surfaces of the butt joint 134 and the butt joint 135. The other end of a6 is movably adjusted on the inner wall of the air vent groove a1, and a non-slip swinging plate a5 that is movably fitted on the outer surface of the high-voltage wire 14 is fixedly connected to the inner wall of the clamping sleeve a3, and anti-slip swinging plate a5 is provided with anti-slip grooves on the outer surface, and a swing closing plate a7 is swingably connected to the inner wall of the docking sleeve a6, and a docking iron sleeve plate a8 is movably sleeved on the outer surface of one end of the swing closing plate a7, and an electromagnet a9 that is movably fitted on the other side surface of the swing closing plate a7 is magnetically attracted on the inner wall of the docking iron sleeve plate a8.

[0033] When the high-voltage wire 14 is powered off, the surface of the electromagnet a9 is no longer powered by electricity, and the solenoid on the surface of the iron core cannot effectively generate a magnetic field after the power is cut off, which makes it impossible for the electromagnet a9 to be effectively magnetically adsorbed to the docking iron sleeve a8. After the power is cut off, the carbon dioxide accumulated in the carbon dioxide collecting chamber a4 has a vent, so that the carbon dioxide can be quickly guided out from the docking sleeve a6, and the flowing carbon dioxide will pass through the air permeable groove a1 and be guided to the surface of the high-voltage wire 14. While using low-temperature carbon dioxide to cool down, the accumulation of carbon dioxide will passively diffuse the oxygen around the equipment to the surrounding areas, greatly reducing oxygen accumulation and preventing electric sparks from igniting surrounding equipment.

[0034] Furthermore, if Figure 1 - Figure 2 As shown, a circulating cooler 122 is provided on one side surface of the wire control platform 12 and at the bottom edge position, and the output end of the circulating cooler 122 extends to the inner wall of the control platform 11, and limiting grooves 121 are provided on both side surfaces of the wire control platform 12 and at the top edge position of the circulating cooler 122, and a closed shell 123 is slidably sleeved on the outer surface of the wire control platform 12.

[0035] In cooperation with the closed shell 123, the outer surface of the plug sleeve 13 is protected to prevent outsiders from directly contacting the plug sleeve 13 and causing electric shock. At the same time, in cooperation with the circulating cooler 122, the interior of the wire control console 12 and the control platform 11 is circulated to absorb heat and cool down. The rapid cooling will quickly dissipate the heat source accumulated on the surface of the high-voltage wire 14, thereby preventing the skin of the high-voltage wire 14 from being oxidized due to continuous high temperature, resulting in rupture of the insulation layer.

[0036] Working principle: cooperate with the closed shell 123 to protect the outer surface of the plug sleeve 13 to prevent outsiders from directly contacting the plug sleeve 13 and causing electric shock. At the same time, cooperate with the circulating cooler 122 to circulate heat absorption and cooling inside the wire control table 12 and the control platform 11. Rapid cooling will quickly dissipate the heat source accumulated on the surface of the high-voltage wire 14, thereby preventing the skin of the high-voltage wire 14 from being oxidized due to continuous high temperature, resulting in rupture of the insulation layer;

[0037] When a rupture occurs at a position on the surface of the high-voltage wire 14, the motor 139 is started in cooperation with the control platform 11, and the motor 139 is used to rotate the swing clamping rod 1310 inside the limiting slide groove 138. When one end of the swing clamping rod 1310 is detached from the surface of the other overlapping fixing plate 137, the surfaces of the two overlapping fixing plates 137 have no clamping support force. Under the limitation of the limiting rod 131, the two protective docking tubes 133 are quickly pushed toward the two ends of the limiting rod 131 at a horizontal angle in cooperation with the high-elastic pushing wire 136 on the outer surface of the limiting rod 131. The instantaneous thrust generated by the simultaneous ejection of the force push wire 136 will peel off the butt joint 134, the second butt joint sleeve 135 and the two protective butt joint cylinders 133, so that the butt joint 134 and the second butt joint sleeve 135 can be used to break the joint of the high-voltage wire 14 when they are disconnected, so that the high-voltage wire 14 can be directly powered off after being disconnected. When the protective butt joint cylinder 133 carries the butt joint 134 and the second butt joint sleeve 135 to slide to both sides, the buffer wires 132 on the outer surfaces of both ends of the limit rod 131 cooperate with the elastic force buffering of the impact of the protective butt joint cylinder 133, the butt joint 134 and the second butt joint sleeve 135;

[0038] When the high-voltage wire 14 is powered off, the surface of the electromagnet a9 is no longer powered by electricity, and the solenoid on the surface of the iron core cannot effectively generate a magnetic field after the power is cut off, which makes it impossible for the electromagnet a9 to be effectively magnetically adsorbed to the docking iron sleeve a8. After the power is cut off, the carbon dioxide accumulated in the carbon dioxide collecting chamber a4 has a vent, so that the carbon dioxide can be quickly guided out from the docking sleeve a6, and the flowing carbon dioxide will pass through the air permeable groove a1 and be guided to the surface of the high-voltage wire 14. While using low-temperature carbon dioxide to cool down, the accumulation of carbon dioxide will passively diffuse the oxygen around the equipment to the surrounding areas, greatly reducing oxygen accumulation and preventing electric sparks from igniting surrounding equipment.

[0039] Obviously, the above embodiments are merely examples for clear explanation and are not intended to limit the implementation methods. For those skilled in the art, other different forms of changes or modifications can be made based on the above description. It is not necessary and impossible to list all the implementation methods here. The obvious changes or modifications derived from these are still within the protection scope of the invention.

Claims

1. A virtual power plant operation control platform, comprising a control platform (11) and a wire control console (12) detachably mounted on the back of the control platform (11), a plug sleeve (13) detachably mounted on the inner wall of the wire control console (12), and a high-voltage wire (14) movably sleeved on the plug sleeve (13) and the inner wall of the wire control console (12), characterized in that: A limiting rod (131) is fixedly connected to the inner wall surface of the plug-in sleeve (13); two groups of protective docking tubes (133) arranged on the inner wall surface of the plug-in sleeve (13) are movably sleeved on the outer surface of the limiting rod (131); a docking head (134) and a docking sleeve second (135) are respectively fixedly connected to the inner wall surfaces of the two groups of protective docking tubes (133); a high-elastic force pushing wire (136) is movably sleeved on the outer surface of the limiting rod (131) and located in the middle position; overlapping fixing plates (137) are fixedly connected to the two side surfaces of the two groups of protective docking tubes (133); a motor (139) is fixedly installed on one side surface of one group of overlapping fixing plates (137); and limiting sliding grooves (138) are provided on the outer surfaces of the two groups of overlapping fixing plates (137).

2. A virtual power plant operation management and control platform according to claim 1, characterized in that: A swing clamping rod (1310) is fixedly connected to the output end of the motor (139) and is movably sleeved on the inner wall surface of the limiting sliding groove (138). A semicircular groove is movably sleeved on the outer surface of the motor (139) on one side surface of the other group of overlapping fixing plates (137).

3. A virtual power plant operation management and control platform according to claim 2, characterized in that: Buffer wires (132) are movably sleeved on the outer surfaces of both ends of the limiting rod (131), and both ends of the buffer wire (132) are movably sleeved on the inner wall surface of the plug-in sleeve (13) and the outer surface of the protective docking sleeve (133) respectively.

4. A virtual power plant operation management and control platform according to claim 3, characterized in that: An insulating layer (a2) is provided on one end of the second butt joint sleeve (135) and is movably fitted on the inner wall surface of the butt joint (134). Ventilation grooves (a1) are provided on the inner wall surfaces of the butt joint (134) and the second butt joint sleeve (135).

5. A virtual power plant operation management and control platform according to claim 4, characterized in that: A clamping sleeve (a3) ​​is detachably mounted on the inner side wall surface of the docking head (134) and the second docking sleeve (135), and a carbon dioxide liquid collecting chamber (a4) is arranged inside the clamping sleeve (a3).

6. A virtual power plant operation management and control platform according to claim 5, characterized in that: The interior of the carbon dioxide collecting chamber (a4) is filled with carbon dioxide, and a docking sleeve (a6) is detachably mounted on one side surface of the clamping sleeve (a3), and the other end of the docking sleeve (a6) is movably adjusted on the inner wall of the air-permeable groove (a1).

7. A virtual power plant operation management and control platform according to claim 6, characterized in that: The inner wall surface of the clamping sleeve (a3) ​​is fixedly connected with an anti-skid swinging plate (a5) that movably fits on the outer surface of the high-voltage wire (14), and the outer surface of the anti-skid swinging plate (a5) is provided with anti-skid grooves, and the inner wall surface of the docking sleeve (a6) is swingably connected with a swing closing plate (a7).

8. A virtual power plant operation management and control platform according to claim 7, characterized in that: A docking iron sleeve (a8) is movably sleeved on the outer surface of one end of the swing closing plate (a7), and an electromagnet (a9) movably attached to the other side surface of the swing closing plate (a7) is magnetically attracted on the inner wall surface of the docking iron sleeve (a8).

9. A virtual power plant operation management and control platform according to claim 8, characterized in that: A circulating cooler (122) is provided on one side surface of the wire control platform (12) and at the bottom edge thereof, and an output end of the circulating cooler (122) extends to the inner wall surface of the control platform (11).

10. A virtual power plant operation management and control platform according to claim 9, characterized in that: Limiting grooves (121) are provided on both side surfaces of the wire control platform (12) and at the top edge of the circulating cooler (122), and a closed casing (123) is slidably sleeved on the outer surface of the wire control platform (12).

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