An energy management system based on a cloud platform

Abstract

The present invention provides an energy management system based on a cloud platform, which includes a container. Inside the container, there are multiple rows of communication batteries. On the panel of the communication battery, there are a positive electrode socket and a negative electrode socket. Two adjacent communication batteries in a row are connected by a power line to the positive electrode socket and the negative electrode socket. The two communication batteries at the uppermost and lowermost positions in a row are respectively led out through external wires. Both ends of the power line are provided with cylindrical insulating heads and connectors. Inside the communication battery, there are spiral drive rods passing through the panel. The spiral drive rods include two parallel upper and lower ones. The two spiral drive rods are respectively located above and below the positive electrode socket and the negative electrode socket. A push-up frame and a push-down frame are respectively connected to the two spiral drive rods. The two spiral drive rods are driven by a driving device to rotate synchronously. When the spiral drive rods rotate, the push-up frame and the push-down frame move horizontally along the axial direction of the spiral drive rods.

Description

Technical Field

[0001] The present invention relates to the technical field of new energy, and particularly relates to an energy management system based on a cloud platform. Background Art

[0002] Energy storage power stations can store electricity and release it when needed, effectively solving the imbalance of electricity in terms of time and space. The application of energy storage power station technology runs through all aspects of power system generation, transmission, distribution, and consumption. It realizes peak shaving and valley filling of the power system, smooths the fluctuations of renewable energy power generation and processes tracking plans, enables efficient system frequency modulation, and increases power supply reliability.

[0003] Currently, many energy storage power stations install many series-connected communication batteries in containers and adjust the wiring according to the external power consumption needs, so that several or a dozen communication batteries are connected in series for power supply. If the voltage of a single communication battery is 12V and the external load requires 24V, then the wiring is adjusted so that two communication batteries are connected in series for power supply. If the external load requires 48V, the wiring needs to be adjusted again so that four communication batteries are connected in series for power supply. Therefore, due to the different supply voltages corresponding to different loads, such management has problems such as low management efficiency and lack of intelligence in management. Summary of the Invention

[0004] The technical problem to be solved by the present invention is how to perform remote energy management according to different supply voltages required by loads, and provides an energy management system based on a cloud platform.

[0005] The technical solution of the present invention is an energy management system based on a cloud platform, including a container. Inside the container, there are multiple rows of communication batteries. On the panel of the communication battery, there are a positive electrode socket and a negative electrode socket. Two adjacent ones in a row of the communication batteries are connected to the positive electrode socket and the negative electrode socket through a power line. The two at the top and bottom of a row of the communication batteries are respectively led out through external wires. Both ends of the power line are provided with cylindrical insulating heads and connectors. Inside the communication battery, there are spiral drive rods passing through the panel. The spiral drive rods include two parallel ones up and down. The two spiral drive rods are respectively located above and below the positive electrode socket and the negative electrode socket. A push-up frame and a push-down frame are respectively connected to the two spiral drive rods. The two spiral drive rods are driven by a drive device to rotate synchronously. When the spiral drive rods rotate, the push-up frame and the push-down frame move horizontally along the axial direction of the spiral drive rods. There are baffles at the ends of the two spiral drive rods. A detection piece is provided on the push-up frame. A position sensor for detecting the position of the detection piece is provided on the baffle. Both the push-up frame and the push-down frame are provided with long-shaped through holes. On both sides of the through hole of the push-up frame, there is respectively a linear drive member passing through. The end of the linear drive member is provided with an upper clamping arm for cooperating with the insulating head. A pressure sensor is provided on the upper clamping arm. The drive device is driven in response to the signal of the pressure sensor. A circumferential drive member is sleeved outside the linear drive member. The circumferential drive member is driven in response to the signal of the position sensor. The circumferential drive member is slidably connected to a linear groove opened on the push-up frame. There are transverse drive members at both ends of the push-up frame for driving the circumferential drive member to move horizontally along the linear groove. The transverse drive members are driven when the circumferential drive member rotates in place. On both sides of the through hole of the push-down frame, there is respectively a lower linear drive member passing through. The end of the lower linear drive member is provided with a lower clamping arm for cooperating with the insulating head. Both the upper linear drive member and the lower linear drive member are wirelessly connected to a control terminal and are driven by it. The lower linear drive member is slidably connected in the through hole of the push-down frame and can rotate relative to the push-down frame.

[0006] As an implementation manner, the drive device includes a motor. The motor is arranged inside the communication battery. The motor is connected to one of the spiral drive rods through a first conveyor belt. The two spiral drive rods are connected through a second conveyor belt.

[0007] As an implementation manner, the upper linear drive member is a linear electric cylinder. The cylinder body of the upper linear drive member is fixed by the circumferential drive member. The movable rod of the upper linear drive member is connected to the upper clamping arm.

[0008] As an implementation manner, a upper baffle is provided on one side of the upper clamping arm. The upper clamping arm and the upper baffle enclose a semi-closed cover body and cover the upper side of the insulating head. The upper baffle provides end face limit for the insulating head.

[0009] As an implementation manner, the circumferential driving member is a rotary electric cylinder. A slider cooperating with the linear groove is provided on the cylinder body of the circumferential driving member, and the turntable of the circumferential driving member is fixedly connected to the upper linear driving member.

[0010] As an implementation manner, the lower linear driving member is a linear electric cylinder, and the movable rod of the lower linear driving member is connected to the lower clamping arm.

[0011] As an implementation manner, a lower retaining piece is provided on one side of the lower clamping arm. The lower clamping arm and the lower retaining piece enclose a semi-closed cover body and cover the lower side of the insulating head, and the lower retaining piece provides end face limitation for the insulating head.

[0012] As an implementation manner, each of the upper linear driving members and the lower linear driving members is wirelessly connected to a control terminal, and the control terminal selects to control one or several non-adjacent upper linear driving members and lower linear driving members in the communication batteries according to the voltage of the cloud platform, so that the upper clamping arm and the lower clamping arm clamp the two insulating heads connected to the positive plug interface and the negative plug interface. In the clamped state, the driving device makes the upper pushing frame and the lower pushing frame move outward horizontally to pull out the two connectors, the circumferential driving member turns the two pulled-out connectors to opposite positions, and the transverse movement driving member makes the two opposite connectors contact each other.

[0013] As an implementation manner, each of the transverse movement driving members is wirelessly connected to a control terminal.

[0014] As an implementation manner, adjacent communication batteries are slidably connected, and a retractable handle is provided on the panel.

[0015] The beneficial effects of the present invention compared with the prior art are that the energy management system is remotely controlled based on a cloud platform, and specifically controls how many communication batteries are connected in series and powered according to mechanical actions. Voltage selection can be made on the cloud platform to determine how many actions need to be performed. One action means directly connecting the two power supply lines connected to a communication battery, that is, removing the communication battery where it was originally located from the series circuit. In this way, the supply voltage is remotely adjusted. The specific implementation of the action is that the upper linear driving member and the lower linear driving member first respond to the control terminal. The upper linear driving member moves downward and the lower linear driving member moves upward to clamp the insulating head, obtain feedback through the pressure sensor, and then the driving device responds to synchronously rotate the two screw driving rods, horizontally move the upper pushing frame and the lower pushing frame outward to approach the baffle, and pull out the connector. After the upper pushing frame and the lower pushing frame reach the position close to the baffle, it is detected by the position sensor, and the circumferential driving member responds to rotate the two upper linear driving members, and the two lower linear driving members follow the rotation to make the two connectors face each other. Thereafter, the transverse driving member pushes the circumferential driving member to horizontally move along the linear groove so that the two connectors approach each other until they contact, then this communication battery is no longer connected to the series circuit. After use, the two connectors are inserted back in the reverse process. In this way, the energy management system realizes remote control based on the cloud platform. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 is an overall view of the energy management system based on the cloud platform provided by the embodiment of the present invention;

[0017] Figure 2 is a view of a row of communication batteries provided by the embodiment of the present invention;

[0018] Figure 3 is Figure 2 an enlarged view of part A of

[0019] Figure 4 is a view of the components for controlling the movement of the insulating head provided by the embodiment of the present invention;

[0020] Figure 5 is Figure 4 a partial enlarged view of

[0021] In the figure: 1, container; 2, communication battery; 3, panel; 4, positive plug interface; 5, negative plug interface; 6, power cord; 7, external connection wire; 8, insulating head; 9, connector; 10, screw drive rod; 11, upper push frame; 12, lower push frame; 13, drive device; 131, motor; 132, first conveyor belt; 133, second conveyor belt; 14, baffle; 15, detection part; 16, position sensor; 17, through hole; 18, upper linear drive part; 19, upper clamping arm; 20, pressure sensor; 21, circumferential drive part; 22, linear groove; 23, transverse drive part; 24, lower linear drive part; 25, lower clamping arm; 26, upper stop piece; 27, slider; 28, lower stop piece; 29, handle. Detailed implementation manners

[0022] The following will clearly and completely describe the above and other implementation manners and advantages of the present invention in conjunction with the accompanying drawings. Obviously, the described implementation manners are only partial implementation manners of the present invention, rather than all implementation manners.

[0023] In one implementation manner, as Figures 1-4 shown.

[0024] The energy management system based on a cloud platform provided by this embodiment includes a container 1. Inside the container 1, there are multiple rows of communication batteries 2. On the panel 3 of the communication battery 2, there are a positive electrode socket 4 and a negative electrode socket 5. Two adjacent ones in a row of communication batteries 2 are connected by a power line 6 to the positive electrode socket 4 and the negative electrode socket 5. The two at the uppermost and lowermost positions in a row of communication batteries 2 are respectively led out by an external connection wire 7. Both ends of the power line 6 are provided with cylindrical insulating heads 8 and connectors 9. Inside the communication battery 2, there are spiral drive rods 10 passing through the panel 3. The spiral drive rods 10 include two parallel ones up and down. The two spiral drive rods 10 are respectively located above and below the positive electrode socket 4 and the negative electrode socket 5. An upper push frame 11 and a lower push frame 12 are respectively connected to the two spiral drive rods 10. The two spiral drive rods 10 are driven by a driving device 13 to rotate synchronously. When the spiral drive rods 10 rotate, the upper push frame 11 and the lower push frame 12 move horizontally along the axial direction of the spiral drive rods 10. Baffles 14 are provided at the ends of the two spiral drive rods 10. A detection piece 15 is provided on the upper push frame 11. A position sensor 16 for detecting the position of the detection piece 15 is provided on the baffle 14. Both the upper push frame 11 and the lower push frame 12 are provided with elongated through holes 17. On both sides of the through hole 17 of the upper push frame 11, an upper linear drive member 18 penetrates respectively. An upper clamping arm 19 for cooperating with the insulating head 8 is provided at the end of the upper linear drive member 18. A pressure sensor 20 is provided on the upper clamping arm 19. The driving device 13 is driven in response to the signal of the pressure sensor 20. A circumferential drive member 21 is sleeved outside the upper linear drive member 18. The circumferential drive member 21 is driven in response to the signal of the position sensor 16. The circumferential drive member 21 is slidably connected to a linear groove 22 opened on the upper push frame 11. Transverse drive members 23 for driving the circumferential drive member 21 to move horizontally along the linear groove 22 are provided at both ends of the upper push frame 11. The transverse drive members 23 are driven when the circumferential drive member 21 rotates in place. On both sides of the through hole 17 of the lower push frame 12, a lower linear drive member 24 penetrates respectively. A lower clamping arm 25 for cooperating with the insulating head 8 is provided at the end of the lower linear drive member 24. Both the upper linear drive member 18 and the lower linear drive member 24 are wirelessly connected to a control terminal and are driven by it. The lower linear drive member 24 is slidably connected in the through hole 17 of the lower push frame 12 and can rotate relative to the lower push frame 12.

[0025] In this embodiment, in order to make the adjustment of the energy storage device of the energy storage power station intelligent and eliminate the need for management personnel to enter the container for operation. For the corresponding specific usage scenario, since different loads correspond to different supply voltages, it is necessary to connect different numbers of communication batteries in series. Of course, there are currently other ways to remotely adjust the supply voltage. The technical concept of the technical solution provided by this embodiment is that no matter how many volts of voltage the load side needs to use, the energy storage device generates this voltage value and directly supplies power, rather than the currently commonly used method of reducing the high voltage provided by the energy storage device through a step-down method. Because there are relatively large energy losses during the step-down process. If the voltage provided by the source of the communication battery is directly adjusted as needed, it is a more optimized approach.

[0026] In this embodiment, the energy management system is remotely controlled based on a cloud platform. According to the mechanical actions, it specifically controls how many communication batteries 2 are connected in series and powered. Voltage selection can be made on the cloud platform to determine how many actions need to be performed. One action means directly connecting the two power supply lines 6 connected to one communication battery 2, that is, removing the original communication battery 2 from the series circuit. In this way, the supply voltage is remotely adjusted. The specific implementation of the action is as follows: The upper linear drive member 18 and the lower linear drive member 24 first respond to the control terminal. The upper linear drive member 18 moves downward and the lower linear drive member 24 moves upward to clamp the insulating head 8. Feedback is obtained through the pressure sensor 20, and then the driving device 13 responds to synchronously rotate the two screw drive rods 10, and the upper push frame 11 and the lower push frame 12 are laterally moved outward to approach the baffle 14, and the connector 9 is pulled out. After the upper push frame 11 and the lower push frame 12 approach the baffle 14 in place, it is detected by the position sensor 16, and the circumferential drive member 21 responds to rotate the two upper linear drive members 18, and the two lower linear drive members 24 follow the rotation to make the two connectors 9 face each other. Thereafter, the lateral movement drive member 23 pushes the circumferential drive member 21 to laterally move along the linear groove 22 so that the two connectors 9 approach each other until they contact, and the two lower linear drive members 24 follow the lateral movement, then the communication battery 2 is no longer connected to the series circuit. After use, the two connectors 9 are inserted back in the reverse process. In this way, the energy management system realizes remote control based on the cloud platform.

[0027] In one embodiment, as Figure 4 shown.

[0028] For the energy management system based on the cloud platform provided by this embodiment, its driving device 13 includes a motor 131. The motor 131 is arranged inside the communication battery 2. The motor 131 is connected to a screw drive rod 10 through a first conveyor belt 132, and the two screw drive rods 10 are connected through a second conveyor belt 133.

[0029] In this embodiment, the motor 131 is arranged inside the communication battery 2. The rotation of the motor 131 can drive the rotation of one screw drive rod 10, and the rotation of one screw drive rod 10 causes the synchronous rotation of the other screw drive rod 10, thereby realizing the lateral movement of the baffle 14 outward. The cooperation between the screw drive rod 10 and the baffle 14 is to convert the circular motion into a linear motion.

[0030] In one embodiment, the upper linear drive member 18 of the energy management system is a linear electric cylinder. The cylinder body of the upper linear drive member 18 is fixed by the circumferential drive member 21, and the movable rod of the upper linear drive member 18 is connected to the upper clamping arm 19.

[0031] In this embodiment, a specific implementation manner of the upper linear drive member 18 is provided. Of course, it can also be realized by other components such as pneumatic components.

[0032] In one embodiment, as Figure 5 shown.

[0033] For the energy management system based on the cloud platform provided in this embodiment, a upper retaining piece 26 is provided on one side of the upper clamping arm 19. The upper clamping arm 19 and the upper retaining piece 26 enclose a semi-closed cover body which covers the upper side of the insulating head 8, and the upper retaining piece 26 provides end face limit for the insulating head 8.

[0034] In this embodiment, the upper clamping arm 19 and the lower clamping arm 25 cooperate to clamp the insulating head 8. In addition, for the rotating movement after clamping, the upper retaining piece 26 provides the limit, making the rotation easier.

[0035] In one embodiment, as Figure 5 shown.

[0036] For the energy management system based on the cloud platform provided in this embodiment, the circumferential driving member 21 is a rotary electric cylinder. A slider 27 cooperating with the linear groove 22 is provided on the cylinder body of the circumferential driving member 21, and the turntable of the circumferential driving member 21 is fixedly connected to the upper linear driving member 18.

[0037] In this embodiment, a specific implementation manner of the upper circumferential driving member 21 is provided. Of course, it can also be implemented by other components such as pneumatic components. In addition, the circumferential driving member 21 realizes the sliding connection with the linear groove 22 through the slider 27.

[0038] In one embodiment, the lower linear driving member 24 of the energy management system is a linear electric cylinder, and the movable rod of the lower linear driving member 24 is connected to the lower clamping arm 25.

[0039] In this embodiment, a specific implementation manner of the lower linear driving member 24 is provided. Of course, it can also be implemented by other components such as pneumatic components.

[0040] In one embodiment, as Figure 5 shown.

[0041] For the energy management system based on the cloud platform provided in this embodiment, a lower retaining piece 28 is provided on one side of the lower clamping arm 25. The lower clamping arm 25 and the lower retaining piece 28 enclose a semi-closed cover body which covers the lower side of the insulating head 8, and the lower retaining piece 28 provides end face limit for the insulating head 8.

[0042] In this embodiment, the upper clamping arm 19 and the lower clamping arm 25 cooperate to clamp the insulating head 8. In addition, for the rotating movement after clamping, the lower retaining piece 28 provides the limit, making the rotation easier.

[0043] In one embodiment, as Figure 4 shown.

[0044] In the energy management system based on a cloud platform provided by this embodiment, each upper linear drive member 18 and lower linear drive member 24 are wirelessly connected to a control terminal, and the control terminal controls one or several non-adjacent upper linear drive members 18 and lower linear drive members 24 in the communication battery 2 according to the voltage of the cloud platform, so that the upper clamping arm 19 and the lower clamping arm 25 clamp the two insulating heads 8 connected to the positive plug interface 4 and the negative plug interface 5. The driving device 13 makes the upper push frame 11 and the lower push frame 12 move outward horizontally in the clamped state to pull out the two connectors 9, the circumferential driving member 21 turns the two pulled-out connectors 9 to opposite positions, and the transverse driving member 23 makes the two opposite connectors 9 contact each other.

[0045] In this embodiment, the upper linear drive member 18 and the lower linear drive member 24 on the communication battery 2 are controlled by the control terminal, so that the upper clamping arm 19 and the lower clamping arm 25 clamp the two insulating heads 8 connected to the positive plug interface 4 and the negative plug interface 5. The driving device 13 makes the upper push frame 11 and the lower push frame 12 move outward horizontally in the clamped state to pull out the two connectors 9, the circumferential driving member 21 turns the two pulled-out connectors 9 to opposite positions, and the transverse driving member 23 makes the two opposite connectors 9 contact each other. It can be realized to control a certain communication battery 2 not to be connected to the series circuit anymore. Of course, reverse control can make it connected to the series circuit again. Given the specific number of a row of communication batteries 2, the maximum number that can be controlled is the number of communication batteries 2 minus one. In actual control, the upper linear drive members 18 and the lower linear drive members 24 in several non-adjacent communication batteries 2 are selected to act, so that there is a communication battery 2 as a connection point for fixing after each communication battery 2 is disconnected, and a stable connection structure is still maintained after a row of communication batteries 2 act.

[0046] In one embodiment, as Figure 4 shown.

[0047] In the energy management system based on a cloud platform provided by this embodiment, the adjacent two communication batteries 2 are slidably connected, and the panel 3 is provided with a collapsible handle 29.

[0048] In this embodiment, it is convenient to take out a certain communication battery 2. Each communication battery 2 is placed on a layer of shelves, and the adjacent two communication batteries 2 are slidably connected.

[0049] The above specific embodiments have further elaborated on the invention purpose, technical solution, and beneficial effects of the present invention. It should be understood that the above is only the specific embodiments of the present invention and is not used to limit the protection scope of the present invention. In particular, it is pointed out that for those skilled in the art, any modifications, equivalent replacements, improvements, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. An energy management system based on a cloud platform, characterized in that, Comprising a container (1), within which there are multiple rows of communication batteries (2). On the panel (3) of the communication battery (2), there are a positive electrode socket (4) and a negative electrode socket (5). Two adjacent ones in a row of the communication batteries (2) are connected by a power cord (6) to the positive electrode socket (4) and the negative electrode socket (5). The uppermost and lowermost ones in a row of the communication batteries (2) are respectively led out by external wires (7). Both ends of the power cord (6) are provided with cylindrical insulating heads (8) and connectors (9). Inside the communication battery (2), there are spiral drive rods (10) passing through the panel (3). The spiral drive rods (10) include two parallel ones up and down. The two spiral drive rods (10) are respectively located above and below the positive electrode socket (4) and the negative electrode socket (5). An upper push frame (11) and a lower push frame (12) are respectively connected to the two spiral drive rods (10). The two spiral drive rods (10) are driven by a drive device (13) to rotate synchronously. When the spiral drive rods (10) rotate, the upper push frame (11) and the lower push frame (12) translate along the axial direction of the spiral drive rods (10). At the ends of the two spiral drive rods (10), there are baffles (14). A detection piece (15) is provided on the upper push frame (11). A position sensor (16) for detecting the position of the detection piece (15) is provided on the baffle (14). Both the upper push frame (11) and the lower push frame (12) are provided with elongated through holes (17). On both sides inside the through hole (17) of the upper push frame (11), there is respectively a through upper linear drive member (18). At the end of the upper linear drive member (18), there is an upper clamping arm (19) for cooperating with the insulating head (8). A pressure sensor (20) is provided on the upper clamping arm (19). The drive device (13) is driven in response to the signal of the pressure sensor (20). An outer circumferential drive member (21) is sleeved on the upper linear drive member (18). The outer circumferential drive member (21) is driven in response to the signal of the position sensor (16). The outer circumferential drive member (21) is slidably connected to a linear groove (22) provided on the upper push frame (11). At both ends of the upper push frame (11), there is a transverse drive member (23) for driving the outer circumferential drive member (21) to translate along the linear groove (22). The transverse drive member (23) is driven when the outer circumferential drive member (21) rotates in place. On both sides inside the through hole (17) of the lower push frame (12), there is respectively a through lower linear drive member (24). At the end of the lower linear drive member (24), there is a lower clamping arm (25) for cooperating with the insulating head (8). Both the upper linear drive member (18) and the lower linear drive member (24) are wirelessly connected to a control terminal and are driven by it. The lower linear drive member (24) is slidably connected inside the through hole (17) of the lower push frame (12) and can rotate relative to the lower push frame (12).

2. The energy management system based on a cloud platform according to claim 1, characterized in that The driving device (13) includes a motor (131). The motor (131) is disposed inside the communication battery (2). The motor (131) is connected to one of the screw driving rods (10) through a first conveyor belt (132). The two screw driving rods (10) are connected through a second conveyor belt (133).

3. The energy management system based on a cloud platform according to claim 1, characterized in that, The upper linear driving member (18) is a linear electric cylinder. The cylinder body of the upper linear driving member (18) is fixed by the circumferential driving member (21). The movable rod of the upper linear driving member (18) is connected to the upper clamping arm (19).

4. The energy management system based on a cloud platform according to claim 3, wherein One side of the upper clamping arm (19) is provided with an upper stop piece (26). The upper clamping arm (19) and the upper stop piece (26) enclose a semi-closed cover body and cover the upper side of the insulating head (8). The upper stop piece (26) provides end face limit for the insulating head (8).

5. The energy management system based on a cloud platform according to claim 1, characterized in that The circumferential driving member (21) is a rotary electric cylinder. A slider (27) matching the linear groove (22) is provided on the cylinder body of the circumferential driving member (21). The turntable of the circumferential driving member (21) is fixedly connected to the upper linear driving member (18).

6. The energy management system based on a cloud platform according to claim 1, wherein The lower linear driving member (24) is a linear electric cylinder. The movable rod of the lower linear driving member (24) is connected to the lower clamping arm (25).

7. The energy management system based on a cloud platform according to claim 6, characterized in that, One side of the lower clamping arm (25) is provided with a lower stop piece (28). The lower clamping arm (25) and the lower stop piece (28) enclose a semi-closed cover body and cover the lower side of the insulating head (8). The lower stop piece (28) provides end face limit for the insulating head (8).

8. The energy management system based on a cloud platform according to claim 1, characterized in that, Each of the upper linear driving members (18) and the lower linear driving members (24) is wirelessly connected to a control terminal. And the control terminal selects to control the upper linear driving members (18) and the lower linear driving members (24) on one or several non-adjacent communication batteries (2) according to the voltage of the cloud platform, so that the upper clamping arm (19) and the lower clamping arm (25) clamp the two insulating heads (8) connected to the positive electrode socket (4) and the negative electrode socket (5). The driving device (13) makes the upper push frame (11) and the lower push frame (12) move outward horizontally in the clamping state to pull out the two connectors (9). The circumferential driving member (21) makes the two pulled-out connectors (9) turn to opposite positions. The transverse movement driving member (23) makes the two opposite connectors (9) contact each other.

9. The energy management system based on a cloud platform according to claim 8, wherein, Each of the transverse movement driving members (23) is wirelessly connected to a control terminal.

10. The energy management system based on a cloud platform according to claim 1, wherein Adjacent communication batteries (2) are slidably connected to each other. A foldable handle (29) is provided on the panel (3).

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