Packaging structure of energy storage system

Abstract

The utility model discloses an energy storage system packaging structure, and belongs to the technical field of energy storage system packaging. The energy storage system packaging structure comprises a supporting piece, a buffering piece, an edge protection piece and a winding piece. The supporting piece is used for placing the energy storage system, and the supporting piece is connected with the energy storage system; buffering pieces are arranged on the top end face and the four peripheral faces of the energy storage system correspondingly. Edge protecting pieces are arranged on the edges of the energy storage system, and the two sides of each edge protecting piece abut against the two adjacent buffering pieces correspondingly; and the winding piece is wound on the buffer piece and the edge protection piece. According to the energy storage system packaging structure, the supporting piece, the buffering piece, the edge protecting piece and the winding piece are matched for packaging, it can be guaranteed that the packaging effect on an energy storage system is good, and the packaging cost is low; the whole packaged energy storage system is small in size and light in weight, so that the transportation cost is reduced; and when the package is disassembled, only the winding piece needs to be sheared off, and then the edge protecting piece and the buffering piece are directly taken off, so that disassembly and assembly are simple and convenient, and the disassembly and assembly experience feeling is good.

Description

Technical Field

[0001] This utility model relates to the field of energy storage system packaging technology, and in particular to an energy storage system packaging structure. Background Technology

[0002] During the maritime transport of industrial and commercial energy storage systems, high packaging requirements are imposed to ensure their stability and reliability throughout the entire journey. These industrial and commercial energy storage systems, also known as industrial and commercial energy storage cabinets, specifically refer to energy storage systems used in industrial and commercial settings. They are primarily used to meet the internal power demands of industrial and commercial enterprises, improving power supply reliability and energy quality.

[0003] Currently, commercial and industrial energy storage systems are typically packaged in a large wooden crate. However, using wooden crates for packaging can lead to the following problems: 1. Due to the weight and size of commercial and industrial energy storage systems, professional personnel are required to package them in wooden crates, resulting in high packaging costs; 2. The large size and weight of the wooden crates increase transportation costs; 3. When transporting the entire commercial and industrial energy storage system to the user, the user needs to unpack and repack the large wooden crate, leading to cumbersome, time-consuming, and labor-intensive unpacking and repacking experiences. Utility Model Content

[0004] The purpose of this invention is to propose a packaging structure for an energy storage system that can ensure the stability and reliability of the energy storage system throughout the transportation process, with low packaging and transportation costs and a good user experience in disassembly and assembly.

[0005] To achieve this objective, the present invention adopts the following technical solution:

[0006] An energy storage system packaging structure, comprising:

[0007] A support member for placing an energy storage system and connected to the energy storage system;

[0008] The energy storage system is provided with buffer components on its top surface and four outer peripheral surfaces.

[0009] The edge protection component is provided on the edge of the energy storage system, and the two sides of the edge protection component abut against two adjacent buffer components respectively;

[0010] The winding component is wrapped around the buffer component and the guard component.

[0011] As an optional solution, the support member includes:

[0012] A support plate, which is used to place the energy storage system and is connected to the energy storage system;

[0013] The limiting plate is connected to the opposite ends of the support plate along the X-axis. The limiting plate can abut against the outer peripheral surface of the energy storage system. Along the Y-axis, the length of the support plate and the length of the limiting plate are both greater than the length of the energy storage system.

[0014] As an optional solution, the support member further includes:

[0015] The first reinforcing plate extends along the X-axis, and multiple first reinforcing plates are spaced apart along the Y-axis at the bottom end of the support plate;

[0016] The second reinforcing plate extends along the Y-axis. A portion of the second reinforcing plate is connected to the bottom end of the support plate, and another portion is connected to the bottom end of the first reinforcing plate. Multiple second reinforcing plates are arranged at intervals along the X-axis.

[0017] Alternatively, the support member can be made of wood.

[0018] As an optional solution, the energy storage system packaging structure further includes:

[0019] The connector includes a first connecting plate and a second connecting plate that are vertically connected. The first connecting plate is connected to an outer peripheral surface of the energy storage system that does not abut against the limiting plate, and the second connecting plate is disposed at the top of the support plate.

[0020] Fasteners for threaded connection of the second connecting plate and the support plate.

[0021] As an optional solution, the energy storage system packaging structure further includes:

[0022] The energy storage system and the support plate are wrapped with a plurality of the strapping straps, and at least a portion of the strapping straps abut against one side of the second reinforcing plate. Along the Y-axis, there is a gap between the second connecting plate and the strapping straps.

[0023] As an optional solution, at least a portion of the buffer is provided with a clearance groove, and the first connecting plate and at least a portion of the second connecting plate are located within the clearance groove.

[0024] As an optional solution, the cushioning element includes pearl cotton, which is laid on the top surface and four outer peripheral surfaces of the energy storage system.

[0025] As an optional solution, the guard member includes:

[0026] A first cardboard and a second cardboard are perpendicularly connected. The first cardboard and the second cardboard abut against two adjacent buffer members, and the connection angle between the first cardboard and the second cardboard corresponds to the edge of the energy storage system.

[0027] As an option, the wrapping element includes a wrapping film, which is wrapped around the guard and the buffer in a transverse and / or longitudinal and / or oblique direction.

[0028] The beneficial effects of this utility model are as follows:

[0029] This invention places the energy storage system on a support member and connects the support member to the energy storage system. The support member provides support and connection to the energy storage system, preventing it from swaying or tipping. Simultaneously, buffer members are provided on the top surface and four outer peripheral surfaces of the energy storage system to provide cushioning and protection, preventing impacts or scratches. Furthermore, edge protectors are provided on the edges of the energy storage system to provide cushioning and protection, preventing impacts or scratches. Finally, a winding member is wrapped around the buffer members and edge protectors to secure them to the energy storage system as a single unit. This ensures a closer fit between the buffer members and the energy storage system, and between the edge protectors and the buffer members, thus guaranteeing the stability of the buffer members and edge protectors. The packaging provides better cushioning and protection for the energy storage system. Simultaneously, the wrapping material offers dust and water protection, preventing dust contamination and leaks, thus ensuring the system's normal performance and stability throughout transportation. In other words, the combined use of support components, cushioning components, edge protectors, and wrapping materials ensures effective packaging of the energy storage system, meeting transportation requirements. Since no professional packaging is required, packaging costs are lower. Furthermore, the small size and weight of the support components, cushioning components, edge protectors, and wrapping materials result in a smaller and lighter overall energy storage system, further reducing transportation costs. Disassembly is simple: just cut the wrapping material and remove the edge protectors and cushioning materials, saving time and effort and providing a better user experience. Attached Figure Description

[0030] Figure 1 This is a schematic diagram of the energy storage system packaging structure provided by this utility model after the energy storage system is packaged.

[0031] Figure 2 yes Figure 1 A magnified schematic diagram of the local structure at point A;

[0032] Figure 3 This is a schematic diagram of the structure of the energy storage system provided by this utility model, which is installed on a support member (including a connector, a fastener, and a guard).

[0033] Figure 4 yes Figure 3 A magnified schematic diagram of the local structure at point B;

[0034] Figure 5 This is a structural schematic diagram of the back of the support member provided by this utility model;

[0035] Figure 6 This is a schematic diagram of the structure of the buffer component (with a clearance groove) provided by this utility model.

[0036] Explanation of reference numerals in the attached figures:

[0037] 10 - Energy storage system; 101 - Top surface; 102 - Outer peripheral surface; 103 - Edge;

[0038] 1-Support component; 11-Support plate; 12-Limiting plate; 13-First reinforcing plate; 14-Second reinforcing plate;

[0039] 2-Buffer component; 21-Allowing groove;

[0040] 3-Edge protector; 31-First cardboard; 32-Second cardboard;

[0041] 4-Wrapping component; 5-Packing strap;

[0042] 6-Connector; 61-First connecting plate; 62-Second connecting plate;

[0043] 7-Fasteners; 71-Bolts; 72-Nuts. Detailed Implementation

[0044] All features disclosed in this specification, or all steps in all disclosed methods or processes, may be combined in any way, except for mutually exclusive features and / or steps.

[0045] Any feature disclosed in this specification, unless specifically stated otherwise, may be replaced by other equivalent or similar features. That is, unless specifically stated otherwise, each feature is merely one example of a series of equivalent or similar features. Throughout this specification, the same reference numerals indicate the same elements.

[0046] To make the technical problem solved by this utility model, the technical solution adopted, and the technical effect achieved clearer, the technical solution of this utility model will be further described below with reference to the accompanying drawings and specific embodiments.

[0047] This embodiment proposes an energy storage system packaging structure. This packaging structure is used to package the energy storage system, ensuring that the packaged system meets transportation requirements. This guarantees the stability and reliability of the energy storage system throughout the transportation process, while also minimizing packaging and transportation costs. Furthermore, it facilitates easy disassembly of the packaging structure, providing a better user experience for customers. The energy storage system used is a common structure in existing technologies. Specifically, the energy storage system involved in this embodiment can be an industrial or commercial energy storage system, and the transportation process described primarily refers to maritime transportation.

[0048] It is worth noting that the energy storage system packaging structure in this embodiment is not only applicable to the packaging of energy storage systems, but also to the packaging of other square cabinet-like structures, so that the overall energy storage system packaging structure has good applicability and versatility.

[0049] Specifically, such as Figures 1 to 3 As shown, the energy storage system packaging structure includes a support 1, a buffer 2, a rib protection 3, and a winding 4; wherein, the support 1 is used to place the energy storage system 10, and the support 1 is connected to the energy storage system 10; buffers 2 are respectively provided on the top surface 101 and the four outer peripheral surfaces 102 of the energy storage system 10; rib protection 3 is provided on the edges 103 of the energy storage system 10, and the two sides of the rib protection 3 respectively abut against two adjacent buffers 2; the winding 4 is wound around the buffers 2 and the rib protection 3.

[0050] Compared with the prior art, the packaging structure of the energy storage system in this embodiment changes the specific packaging method of the energy storage system 10. By placing the energy storage system 10 on the support member 1 and connecting the support member 1 to the energy storage system 10, the support member 1 can provide support and connection for the energy storage system 10, preventing the energy storage system 10 from shaking or tipping over on the support member 1. At the same time, buffer members 2 are respectively provided on the top surface 101 and the four outer peripheral surfaces 102 of the energy storage system 10, so that the buffer members 2 can provide support for the top surface 101 and the four outer peripheral surfaces 102 of the energy storage system 10. The peripheral surface 102 provides a buffering and protective function to prevent the top surface 101 and the outer peripheral surface 102 of the energy storage system 10 from being bumped or scratched. Furthermore, a protective edge member 3 is provided on the edge 103 of the energy storage system 10 to provide a buffering and protective function to prevent bumps or scratches on the edge 103. Finally, the winding member 4 is wound around the buffer member 2 and the protective edge member 3 to fix the buffer member 2 and the protective edge member 3 to the energy storage system 10 into a single integrated structure, thus ensuring a secure connection between the buffer member 2 and the energy storage system 10. The closer fit between the support member 1, the buffer member 2, and the edge protector 3 ensures a better cushioning and protection effect for the energy storage system 10. Simultaneously, the wrapping member 4 provides dust and water protection for the energy storage system 10, preventing dust contamination and water leakage, thus ensuring the normal operation of the energy storage system 10 and guaranteeing its stability and reliability throughout the transportation process. In other words, the coordinated packaging of the support member 1, the buffer member 2, the edge protector 3, and the wrapping member 4 effectively protects the energy storage system 10. The packaging ensures good performance of the energy storage system 10, thus meeting its transportation requirements. Since no professional packaging is required, the packaging cost is low. Furthermore, the small size and weight of the support component 1, buffer component 2, edge protector 3, and wrapping component 4 result in a smaller overall size and lighter weight for the packaged energy storage system 10, further reducing transportation costs. Disassembly is simple and convenient, saving time and effort and ensuring a good user experience. The wrapping component 4 can be cut open, and the edge protector 3 and buffer component 2 can be removed directly.

[0051] Furthermore, such as Figures 3 to 5 As shown, the support member 1 includes a support plate 11 and a limiting plate 12; wherein, the support plate 11 is used to place the energy storage system 10, and the support plate 11 is connected to the energy storage system 10; the two opposite ends of the support plate 11 along the X-axis are respectively connected to the limiting plate 12, and the limiting plate 12 can abut against the outer peripheral surface 102 of the energy storage system 10.

[0052] By setting up a support plate 11 and a limiting plate 12 that work together, when the energy storage system 10 is placed horizontally on the support plate 11, the outer peripheral surface 102 of the energy storage system 10 abuts against the limiting plate 12. That is, the energy storage system 10 can be limited and fixed between the two limiting plates 12. On the one hand, the two limiting plates 12 can provide a limiting and fixing function, further ensuring the stability of the energy storage system 10 on the support plate 11, thereby better avoiding the problem of the energy storage system 10 shaking or tilting on the support plate 11. On the other hand, the two limiting plates 12 can provide a certain shielding and protection for the energy storage system 10, so as to avoid the problem of the energy storage system 10 being bumped or scratched.

[0053] Furthermore, such as Figure 3 As shown, along the Y-axis, the lengths of both the support plate 11 and the limiting plate 12 are greater than the length of the energy storage system 10. On the one hand, this allows the energy storage system 10 to be completely placed on the support plate 11, preventing parts of the energy storage system 10 from being suspended outside the support plate 11, thus ensuring the stability of the support plate 11 in supporting the energy storage system 10. On the other hand, this ensures that the limiting plate 12 can completely cover and abut against the outer peripheral surface 102 of the energy storage system 10 along the Y-axis, preventing parts of the energy storage system 10 from being exposed outside the limiting plate 12, further ensuring the limiting and protective effect of the limiting plate 12 on the energy storage system 10.

[0054] Specifically, such as Figure 3 and Figure 5 As shown, the support member 1 also includes a first reinforcing plate 13 and a second reinforcing plate 14; wherein, the first reinforcing plate 13 extends along the X-axis, and a plurality of first reinforcing plates 13 are spaced apart along the Y-axis at the bottom end of the support plate 11; the second reinforcing plate 14 extends along the Y-axis, a part of the second reinforcing plate 14 is connected to the bottom end of the support plate 11, and another part of the second reinforcing plate 14 is connected to the bottom end of the first reinforcing plate 13, and a plurality of second reinforcing plates 14 are spaced apart along the X-axis.

[0055] like Figure 5 As shown, by forming interlocking first reinforcing plates 13 and second reinforcing plates 14 at the bottom of the support plate 11, multiple first reinforcing plates 13 and multiple second reinforcing plates 14 can be connected to form a mesh reinforcement structure, thereby improving the structural strength and support strength of the entire support member 1. Furthermore, the limiting plate 12 provided on the support plate 11 also increases the structural strength and support strength of the entire support member 1. This allows the support of the heavy energy storage system 10, thus ensuring better stability of the support member 1 for the entire energy storage system 10. In this embodiment, three first reinforcing plates 13 and three second reinforcing plates 14 are provided. Here, the specific number of first reinforcing plates 13 and two reinforcing plates 14, and the connection method between them, are not limited.

[0056] It is worth noting that the second reinforcing plate 14 supports the support member 1 and the entire energy storage system 10. That is, each of the second reinforcing plates 14 is placed horizontally inside the container, and the packaged energy storage system 10 is fixed inside the container using common limiting and fixing methods in the prior art, which facilitates the simultaneous transportation of multiple energy storage systems 10 within the container by directly transporting the container, thereby improving the transportation efficiency of the energy storage system 10. The fixing straps are common packaging straps used in the prior art.

[0057] Furthermore, the material of the support component 1 is wood, that is, the support plate 11, the limiting plate 12, the first reinforcing plate 13 and the second reinforcing plate 14 are all made of wood. On the one hand, this can reduce the weight of the entire support component 1, which is conducive to the lightweighting of the entire energy storage system packaging structure, thereby further reducing transportation costs. On the other hand, it can ensure that the support strength and structural strength of the support component 1 made of wood are good, thereby ensuring the stability of the support component 1 in supporting the entire energy storage system 10.

[0058] It is worth noting that the support plate 11, the limiting plate 12, the first reinforcing plate 13 and the second reinforcing plate 14 can be integrally formed or separate connected structures. Here, no specific limitation is made, and it needs to be determined according to the specific working conditions.

[0059] Furthermore, such as Figures 2 to 4 As shown, the energy storage system packaging structure also includes a connector 6 and a fastener 7; wherein, the connector 6 includes a first connecting plate 61 and a second connecting plate 62 that are perpendicularly connected. The first connecting plate 61 is detachably connected to an outer peripheral surface 102 of the energy storage system 10 that does not abut against the limiting plate 12. The second connecting plate 62 is disposed at the top of the support plate 11. That is, the first connecting plate 61 and the second connecting plate 62 are connected to each other to form a connector 6 with an L-shaped structure; the fastener 7 is used to thread the second connecting plate 62 and the support plate 11.

[0060] Through the cooperation between the connector 6 and the fastener 7, on the one hand, the threaded connection between the support plate 11 and the energy storage system 10 can be realized, so that the support 1 and the energy storage system 10 form an integral connection structure, ensuring the stability of the energy storage system 10 on the support 1; on the other hand, the threaded connection between the energy storage system 10 and the support plate 11 can be released by directly removing the fastener 7, so that the energy storage system 10 can be directly removed from the support 1, saving time and effort, making the disassembly and assembly of the energy storage system 10 simpler and more convenient, and further ensuring a better disassembly and assembly experience.

[0061] Specifically, such as Figures 2 to 4As shown, the fastener 7 includes a bolt 71 and a nut 72 that cooperate with each other. The end of the bolt 71 is threaded upward along the Z-axis through the support plate 11 and the second connecting plate 62, and the nut 72 is threadedly tightened onto the bolt 71 and pressed against the second connecting plate 62, thereby connecting the support plate 11 and the second connecting plate 62 through the fastener 7. Here, the fastener 7 can also be other fastening structures, and the specific structure of the fastener 7 is not limited.

[0062] Furthermore, such as Figure 1 and Figure 3 As shown, multiple connectors 6 and fasteners 7 are provided. Each connector 6 is evenly connected to two outer peripheral surfaces 102 of the energy storage system 10 that do not abut against the limiting plate 12, and one connector 6 is correspondingly provided with one fastener 7 to better ensure the connection stability between the support member 1 and the energy storage system 10. In this embodiment, four connectors 6 and four fasteners 7 are provided, with two connectors 6 spaced apart on one outer peripheral surface 102 of the energy storage system 10 that does not abut against the limiting plate 12, and the other two connectors 6 spaced apart on the other outer peripheral surface 102 of the energy storage system 10 that does not abut against the limiting plate 12. Here, the number of connectors 6 and fasteners 7 is not specifically limited.

[0063] Specifically, such as Figure 1 As shown, the energy storage system packaging structure also includes strapping 5. Multiple strapping 5 are wound around the energy storage system 10 and the support plate 11 to connect the support plate 11 and the energy storage system 10 into a single structure, thereby ensuring better stability of the energy storage system 10 on the support 1. Furthermore, the strapping 5 can be cut directly during subsequent disassembly and assembly to facilitate the removal of the energy storage system 10 from the support 1, further improving the disassembly and assembly experience. In this embodiment, three strapping 5 are wound around the energy storage system 10 and the support plate 11, and the three strapping 5 are spaced apart along the X-axis.

[0064] Furthermore, the wrapping and pressing action of the packing strap 5 can further improve the fit between the buffer 2 and the energy storage system 10, between the guard 3 and the buffer 2, and between the wrapping 4 and the guard 3 and the buffer 2, thereby ensuring a better buffering and protection effect of the buffer 2, the guard 3, and the wrapping 4 on the energy storage system 10.

[0065] Furthermore, such as Figure 1As shown, at least a portion of the packing strap 5 abuts against one side of the second reinforcing plate 14. This ensures the stability of the packing strap 5 through the limiting and abutting action of the second reinforcing plate 14, preventing slippage and thus guaranteeing high packing stability and reliability. In this embodiment, three packing straps 5 abut against one side of each of the three second reinforcing plates 14. That is, in this embodiment, the packing straps 5 are longitudinally packed around the two outer peripheral surfaces 102 of the energy storage system 10 that do not abut against the limiting plate 12. Here, the specific number of packing straps 5 and their specific packing direction are not limited.

[0066] Specifically, such as Figure 1 and Figure 2 As shown, there is a gap between the second connecting plate 62 and the packing strap 5 along the Y-axis, ensuring that the second connecting plate 62 does not interfere with the packing of the packing strap 5, thus guaranteeing the smoothness of the packing and the stability of the packing effect. Since the fastener 7 is connected to the second connecting plate 62, there is also a gap between the fastener 7 and the packing strap 5 along the Y-axis, ensuring that the fastener 7 does not interfere with the packing of the packing strap 5.

[0067] Specifically, such as Figure 2 and Figure 6 As shown, at least a portion of the buffer 2 is provided with a relief groove 21, and the first connecting plate 61 and at least a portion of the second connecting plate 62 are located within the relief groove 21. On the one hand, the relief groove 21 can provide a certain degree of protection for the connecting member 6 and the fastener 7. On the other hand, it can prevent interference between the connecting member 6 and the fastener 7 and the buffer 2, thereby facilitating the placement of the buffer 2 on the outer peripheral surface 102 of the energy storage system 10.

[0068] It is worth noting that, such as Figure 2 As shown, the winding member 4 will not wrap around the relief groove 21, so as to avoid the second connecting plate 62 and the bolt 71 interfering with the winding member 4, thereby ensuring that the winding member 4 has a good tightness on the buffer member 2.

[0069] Furthermore, such as Figure 6 As shown, the cushioning component 2 includes EPE foam, which has a square structure. Square EPE foam is laid on the top surface 101 and the four outer peripheral surfaces 102 of the energy storage system 10 to provide good cushioning protection for the energy storage system 10. Furthermore, EPE foam is relatively inexpensive, thus reducing the overall cost of the energy storage system packaging structure. Here, the specific structure of the cushioning component 2 is not limited, as long as it provides cushioning protection.

[0070] It is worth noting that since the intersection of two adjacent pearl cotton pieces is located on the edge 103 of the energy storage system 10, the edge portions of the two adjacent buffer pieces 2 can provide a certain buffering protection for the edge 103 of the energy storage system 10, thereby ensuring a better buffering protection effect on the edge 103 of the energy storage system 10.

[0071] Furthermore, such as Figure 3 As shown, the edge protector 3 includes a first cardboard 31 and a second cardboard 32. The first cardboard 31 and the second cardboard 32 are vertically connected. The first cardboard 31 and the second cardboard 32 respectively abut against two adjacent buffer members 2. The connection angle between the first cardboard 31 and the second cardboard 32 corresponds to the edge 103 of the energy storage system 10. In this embodiment, multiple edge protectors 3 are provided, and the multiple edge protectors 3 are respectively provided on each edge 103 of the energy storage system 10.

[0072] By setting the first cardboard 31 and the second cardboard 32, on the one hand, the cost of the entire edge protector 3 is reduced, and the entire edge protector 3 can be guaranteed to have a certain structural strength, so that the first cardboard 31 and the second cardboard 32 can provide good cushioning protection for the buffer 2; on the other hand, it can ensure that the connection angle between the first cardboard 31 and the second cardboard 32 can provide good cushioning protection for the edges 103 of the energy storage system 10. The first cardboard 31 and the second cardboard 32 are both made of multi-layer kraft paper and multi-layer yarn tube paper through a special process, possessing high strength and toughness.

[0073] Furthermore, such as Figure 1 As shown, the winding member 4 includes a winding film, which is wound around the guard member 3 and the buffer member 2 in a transverse and / or longitudinal and / or inclined direction. The winding film presses the guard member 3 and the buffer member 2 tightly, thereby ensuring a more secure contact between the buffer member 2 and the energy storage system 10, and between the guard member 3 and the buffer member 2. Specifically, the transverse direction refers to… Figure 1 The plane containing the horizontal direction, specifically the vertical direction is Figure 1 The plane containing the vertical direction, and the direction of inclination specifically refers to any inclination direction of the two planes themselves.

[0074] By wrapping the stretch film around the edge protectors 3 and the buffer members 2, on the one hand, the buffer members 2 and the edge protectors 3 can be intertwined to form an integral connection structure; on the other hand, the stretch film can ensure that the entire energy storage system 10 has a good dustproof and waterproof effect. Here, the direction of the stretch film wrapping on the buffer members 2 and the edge protectors 3 is not limited, and needs to be determined according to the specific wrapping conditions.

[0075] The specific working process of the energy storage system packaging structure in this embodiment is as follows:

[0076] Packaging process:

[0077] First, the entire energy storage system 10 is placed horizontally on the support plate 11, and the two opposing limiting plates 12 abut against the support plate 11. Then, the end of the bolt 71 is threaded upward along the Z-axis through the support plate 11 and the second connecting plate 62, and the nut 72 is threaded onto the bolt 71 and abutted against the second connecting plate 62, thereby limiting the placement of the energy storage system 10 and connecting it to the support member 1.

[0078] Then, buffer members 2 are respectively set on the top surface 101 and the four outer peripheral surfaces 102 of the energy storage system 10; then, each edge guard 3 is respectively set on each edge 103 of the energy storage system 10; then, the winding member 4 is wound around each buffer member 2 and each edge guard 3, so that the winding member 4, the edge guard 3, the buffer member 2 and the energy storage system 10 form an integral connection structure.

[0079] Finally, the packing straps 5 are wrapped around the support plate 11 and the wrapping element 4 to complete the packaging process of the energy storage system 10, so that the packaged energy storage system 10 can be placed in a container for sea transport.

[0080] Disassembly process:

[0081] When the packaged energy storage system 10 is transported to the customer: First, the packaged energy storage system 10 is removed from the container as a whole; then the packing straps 5 are cut, and then the wrapping parts 4 are torn or cut; then, the edge protectors 3 and the cushioning parts 2 are removed.

[0082] Then, loosen nut 72 to remove bolt 71 from second connecting plate 62 and support plate 11, thereby enabling the entire energy storage system 10 to be removed from support plate 11; thus completing the disassembly process of energy storage system 10.

[0083] The energy storage system packaging structure in this embodiment, by setting up a buffer component 2, a ridge protector 3, a wrapping component 4, and a packing strap 5 that work together, can ensure a good cushioning and protection effect for the energy storage system 10, thereby meeting the high requirements of marine packaging. At the same time, by setting up a support component 1, a connector 6, a fastener 7, and a packing strap 5 that work together, the connection between the energy storage system 10 and the support component 1 can be ensured to be stable. Furthermore, by using the smaller and lighter support component 1, buffer component 2, ridge protector 3, and wrapping component 4 to package the energy storage system 10, packaging and transportation costs can be reduced. At the same time, it makes disassembly and assembly simple and convenient, resulting in a better disassembly and assembly experience.

[0084] The above description is only a preferred embodiment of this utility model. For those skilled in the art, there will be changes in the specific implementation method and application scope based on the idea of ​​this utility model. The content of this specification should not be construed as a limitation of this utility model.

Claims

1. A packaging structure for an energy storage system, characterized in that, include: Support member (1), the support member (1) is used to place the energy storage system (10), and the support member (1) is connected to the energy storage system (10); The buffer (2) is provided on the top surface (101) and four outer peripheral surfaces (102) of the energy storage system (10); The edge protection member (3) is provided on the edge (103) of the energy storage system (10), and the two sides of the edge protection member (3) respectively abut against the two adjacent buffer members (2); The winding member (4) is wound around the buffer member (2) and the guard member (3).

2. The energy storage system packaging structure as described in claim 1, characterized in that, The support member (1) includes: A support plate (11) is provided for placing the energy storage system (10), and the support plate (11) is connected to the energy storage system (10). The limiting plate (12) is connected to the opposite ends of the support plate (11) along the X-axis. The limiting plate (12) can abut against the outer peripheral surface (102) of the energy storage system (10). Along the Y-axis, the length of the support plate (11) and the length of the limiting plate (12) are both greater than the length of the energy storage system (10).

3. The energy storage system packaging structure as described in claim 2, characterized in that, The support member (1) also includes: The first reinforcing plate (13) extends along the X-axis, and the bottom end of the support plate (11) is provided with a plurality of the first reinforcing plates (13) at intervals along the Y-axis; The second reinforcing plate (14) extends along the Y-axis. A portion of the second reinforcing plate (14) is connected to the bottom end of the support plate (11), and another portion is connected to the bottom end of the first reinforcing plate (13). A plurality of second reinforcing plates (14) are provided at intervals along the X-axis.

4. The energy storage system packaging structure as described in any one of claims 1-3, characterized in that, The support member (1) is made of wood.

5. The energy storage system packaging structure as described in claim 3, characterized in that, The energy storage system packaging structure also includes: The connector (6) includes a first connecting plate (61) and a second connecting plate (62) that are vertically connected. The first connecting plate (61) is connected to an outer peripheral surface (102) of the energy storage system (10) that does not abut against the limiting plate (12). The second connecting plate (62) is disposed at the top of the support plate (11). Fastener (7) is used for threaded connection of the second connecting plate (62) and the support plate (11).

6. The energy storage system packaging structure as described in claim 5, characterized in that, The energy storage system packaging structure also includes: The energy storage system (10) and the support plate (11) are wrapped with a plurality of the packing straps (5), and at least a portion of the packing straps (5) abut against one side of the second reinforcing plate (14). Along the Y-axis, there is a gap between the second connecting plate (62) and the packing straps (5).

7. The energy storage system packaging structure as described in claim 5, characterized in that, At least a portion of the buffer (2) is provided with a clearance groove (21), and the first connecting plate (61) and at least a portion of the second connecting plate (62) are located within the clearance groove (21).

8. The energy storage system packaging structure as described in any one of claims 1-3, characterized in that, The buffer (2) includes pearl cotton, and the top surface (101) and four outer peripheral surfaces (102) of the energy storage system (10) are respectively covered with the pearl cotton.

9. The energy storage system packaging structure as described in any one of claims 1-3, characterized in that, The guard piece (3) includes: The first cardboard (31) and the second cardboard (32) are perpendicularly connected. The first cardboard (31) and the second cardboard (32) respectively abut against two adjacent buffer members (2). The connection angle between the first cardboard (31) and the second cardboard (32) corresponds to the edge (103) of the energy storage system (10).

10. The energy storage system packaging structure as described in any one of claims 1-3, characterized in that, The winding member (4) includes a winding film that is wound around the guard member (3) and the buffer member (2) in a transverse and / or longitudinal and / or oblique direction.

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