Modular energy storage bay battery rack

Abstract

The utility model discloses a modularization energy storage cabin battery rack relates to energy storage cabin battery rack technical field, including bearing frame, the bearing frame from top to bottom interval installation has the cross bar, the cross bar top joint has a plurality of convex strips, the both ends of convex strip are all symmetry and are opened the sliding slot, the sliding slot sliding connection has the sliding block, the sliding block top fixed connection has the support block, the convex strip bottom is opened and has the clamping slot, the clamping slot is opened and has the bolt, the bolt screw thread connection has the screw hole, the utility model discloses the position of adjusting sliding block in corresponding sliding slot, make same battery rack can adapt multiple specifications battery module, reduce the reserve demand of special support, and the sliding slot design of convex strip symmetry before and after allows installing different size battery in the same layer, maximum limit utilization installation space, only need to adjust sliding block position to adapt new battery specifications, need not to change support main body, has reduced system upgrading improvement cost and construction time.

Description

TECHNICAL FIELD

[0001] The utility model relates to energy storage cabin battery rack technical field, concretely is a kind of modular energy storage cabin battery rack. BACKGROUND

[0002] Energy storage cabin is an integrated energy storage solution, usually adopt standard container size design, inside include battery system, battery management system, energy conversion system, thermal management system and fire-fighting facilities etc. Its core function is to store electric energy, and release when needed, to balance power supply and demand, improve energy utilization efficiency. And battery rack is the structure that provides support for energy storage cabin.

[0003] The energy storage cabin battery rack in prior art usually adopts fixed structure design, is composed of integrally formed metal frame and fixed spacing support beam. Each set of battery rack can only adapt single specification battery module, when project needs to use different sizes of battery, multiple sets of special battery rack must be equipped, lead to complex warehouse management, spare part cost increases, and fixed spacing support structure can cause serious space waste problem when mixedly loading different sizes of battery, when battery system is expanded or new model battery is replaced, battery rack is often replaced in whole, increase modification cost and prolong construction cycle.

[0004] Therefore, we design a kind of modular energy storage cabin battery rack to solve the above problems. UTILITY MODEL CONTENTS

[0005] The utility model aims at providing a kind of modular energy storage cabin battery rack to solve the problems raised in the above background.

[0006] To solve the above technical problems, the utility model provides a kind of modular energy storage cabin battery rack, including bearing frame, the horizontal bar is installed from top to bottom with interval on the bearing frame, the horizontal bar top is connected with multiple convex strips, the convex strip front and back two ends are symmetrically provided with sliding slot, the sliding slot is slidably connected with sliding block, the sliding block top is fixedly connected with support block, the convex strip bottom is provided with clamping groove, the clamping groove is provided with bolt, the bolt is screw-threaded with threaded hole, the threaded hole is screw-threaded with sliding block bottom end.

[0007] Further, the support block is triangular, and two groups of support blocks and sliding blocks are correspondingly arranged at the front and rear ends of the top of the convex strip.

[0008] Further, the bearing frame top four corners are fixedly connected with lifting lug, and the bearing frame bottom periphery is fixedly installed with self-locking universal wheel.

[0009] Further, the width of the sliding block is less than the interval of the adjacent sliding slot.

[0010] Furthermore, the sliding stroke of the slider within the groove is not less than one-third of the length of the convex strip.

[0011] Furthermore, the support block has anti-slip textures on opposite sides.

[0012] Furthermore, the lifting lug is welded and fixed to the top of the load-bearing frame, and the axis of the lifting hole of the lifting lug is perpendicular to the upper surface of the load-bearing frame.

[0013] Furthermore, the lifting lug is made of carbon structural steel.

[0014] Compared with the prior art, the beneficial effects of this utility model are: by adjusting the position of the slider in the corresponding groove, the same battery rack can be adapted to multiple specifications of battery modules, reducing the reserve requirements of special brackets. The symmetrical groove design of the front and rear of the convex strip allows for the installation of batteries of different sizes on the same layer, maximizing the use of installation space. Only the position of the slider needs to be adjusted to adapt to new battery specifications, without the need to replace the main body of the bracket, thus reducing the system upgrade and transformation costs and construction time.

[0015] Compared with the prior art, the beneficial effects of this utility model are: by setting the width of the slider to be less than the distance between adjacent grooves, air can flow up and down between two adjacent convex strips, accelerating air convection and timely removing the heat generated by the battery during operation, avoiding heat accumulation around the battery and affecting its performance and lifespan. The sliding stroke of the slider in the groove is not less than one-third of the length of the convex strip, ensuring that the support block has enough displacement space to adapt to battery modules of different sizes. Attached Figure Description

[0016] Figure 1 This is a three-dimensional structural diagram of the entire utility model;

[0017] Figure 2 This is a three-dimensional structural diagram of the convex strip of this utility model;

[0018] Figure 3 This is a bottom view of the convex strip of this utility model;

[0019] Figure 4 This is a partial schematic diagram of the connection between the convex strip and the crossbar of this utility model.

[0020] In the diagram: 1. Load-bearing frame; 2. Lifting lug; 3. Self-locking caster wheel; 4. Crossbar; 5. Raised bar; 6. Slide groove; 7. Support block; 8. Slider; 9. Slot; 10. Bolt; 11. Threaded hole; 12. Anti-slip texture. Detailed Implementation

[0021] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0022] Please see Figures 1-4 This utility model provides a technical solution: a modular energy storage battery rack, including a load-bearing frame 1. Horizontal bars 4 are installed at intervals from top to bottom on the load-bearing frame 1. Multiple protrusions 5 are snapped onto the top of the horizontal bars 4. Sliding grooves 6 are symmetrically opened at both ends of the protrusions 5. Different sized battery modules can be installed simultaneously on the same layer of horizontal bars 4. A single battery rack can simultaneously accommodate the installation needs of multiple specifications of battery modules, eliminating the need to store multiple specifications of brackets, simplifying warehouse management, avoiding space waste caused by differences in battery size, and improving space utilization. When expanding the battery system or replacing different battery models, there is no need to modify the main body of the bracket, reducing upgrade and modification costs and construction time. A slider 8 is slidably connected to the sliding groove 6. A support block 7 is fixedly connected to the top of the slider 8. A slot 9 is opened at the bottom of the protrusions 5. A bolt 10 is opened on the slot 9. The bolt 10 is threadedly connected to a threaded hole 11, which is threadedly connected to the bottom end of the slider 8.

[0023] In practice, the load-bearing frame 1 is first fixedly installed in the designated position inside the energy storage compartment. The protrusions 5 are snapped onto the top of the crossbar 4 according to the arrangement requirements of the battery modules. The position of the slider 8 in the corresponding groove 6 of the protrusion 5 is adjusted according to the specific size of the battery module so that the support block 7 abuts against the battery module and provides support for the support block 7. The bolt 10 is passed through the groove 9 at the bottom of the protrusion 5 and screwed into the threaded hole 11 at the bottom of the slider 8 to fix and lock the slider 8. There is no need to replace the main structure of the battery rack. Only the arrangement of the protrusions 5 and the position of the slider 8 need to be adjusted to adapt to battery modules of different specifications, thereby improving the applicability of the battery rack and reducing costs.

[0024] See Figure 2 As shown, the support block 7 is triangular in shape. Two sets of support blocks 7 and sliders 8 are set at the front and rear ends of the top of the convex strip 5 to fix the battery module. The opposite sides of the support block 7 are provided with anti-slip textures 12, which increase the friction to achieve an anti-slip effect on the battery module.

[0025] See Figure 1The top four corners of the load-bearing frame 1 are fixedly connected with lifting lugs 2, which are welded to the top of the load-bearing frame 1. The lifting holes of the lifting lugs 2 are perpendicular to the upper surface of the load-bearing frame 1. During transportation and installation of the battery rack, they can be used to connect lifting equipment for lifting operations, which is beneficial to the stability and balance of the load-bearing frame 1 during the lifting process and avoids damage to the load-bearing frame 1 and the internal battery modules. At the same time, the lifting lugs 2, made of carbon structural steel, can withstand a large tensile force, meeting the load-bearing requirements of the load-bearing frame 1 during lifting. The bottom of the load-bearing frame 1 is fixedly installed with self-locking casters 3, which can be directly pushed by the staff to the designated position without the need for additional handling equipment. After the load-bearing frame 1 is moved into place, the self-locking casters 3 can be fixed by operating the self-locking function to prevent the battery rack from shifting due to external forces during use.

[0026] See Figure 4 The width of slider 8 is less than the distance between adjacent grooves 6, allowing air to flow up and down between two adjacent protrusions 5, accelerating air convection and promptly removing the heat generated during battery operation, thus preventing heat accumulation around the battery and affecting its performance and lifespan. The sliding stroke of slider 8 in groove 6 is not less than one-third of the length of protrusion 5, ensuring that support block 7 has sufficient displacement space to accommodate battery modules of different sizes.

[0027] Working principle:

[0028] First, move the support frame 1 to the designated position in the energy storage compartment using the bottom self-locking casters 3 and lock it in place. Then, snap the ribs 5 onto the top of the crossbar 4 according to the battery module arrangement requirements. Adjust the position of the slider 8 within the groove 6 of the rib 5 according to the specific dimensions of the battery modules, ensuring that the anti-slip texture 12 of the support block 7 is in close contact with the surface of the battery modules. Use bolts 10 to screw into the threaded holes 11 at the bottom of the slider 8 through the slots 9 to fix the slider 8, completing the positioning and fixing of the battery modules. Finally, place battery modules of different sizes on the adjusted support blocks 7. Utilize the symmetrical arrangement of the triangular support blocks 7 to simultaneously install battery modules of different specifications on the same layer of crossbar 4. The sliding stroke of the slider 8 within the groove 6 adapts to changes in battery module size, completing the assembly of the entire battery rack and the installation of the battery modules.

Claims

1. A modular energy storage compartment battery rack, comprising a load-bearing frame (1), characterized in that, The load-bearing frame (1) is equipped with crossbars (4) spaced from top to bottom. The top of the crossbars (4) is fitted with multiple protrusions (5). The front and rear ends of the protrusions (5) are symmetrically provided with sliding grooves (6). The sliding grooves (6) are slidably connected to sliders (8). The top of the sliders (8) is fixedly connected to a support block (7). The bottom of the protrusions (5) is provided with a slot (9). The slot (9) is provided with a bolt (10). The bolt (10) is threadedly connected to a threaded hole (11). The threaded hole (11) is threadedly connected to the bottom end of the slider (8).

2. The modular energy storage compartment battery rack as described in claim 1, characterized in that: The support block (7) is triangular in shape, and two sets of the support block (7) and slider (8) are respectively arranged at the front and rear ends of the top of the convex strip (5).

3. The modular energy storage compartment battery rack as described in claim 1, characterized in that: The top four corners of the load-bearing frame (1) are fixedly connected with lifting lugs (2), and the bottom four sides of the load-bearing frame (1) are fixedly installed with self-locking casters (3).

4. A modular energy storage compartment battery rack as described in claim 1, characterized in that: The width of the slider (8) is less than the spacing between the adjacent grooves (6).

5. A modular energy storage compartment battery rack as described in claim 1, characterized in that: The sliding stroke of the slider (8) in the groove (6) is not less than one-third of the length of the convex strip (5).

6. A modular energy storage compartment battery rack as described in claim 2, characterized in that: The support block (7) has anti-slip texture (12) on the opposite side.

7. A modular energy storage compartment battery rack as described in claim 3, characterized in that: The lifting lug (2) is welded and fixed to the top of the load-bearing frame (1), and the axis of the lifting hole of the lifting lug (2) is perpendicular to the upper surface of the load-bearing frame (1).

8. A modular energy storage compartment battery rack as described in claim 7, characterized in that: The lifting lug (2) is made of carbon structural steel.

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