Multi-mode efficient heat dissipation storage battery
By adopting a rectangular array distributed unit design, buffer protection of support frames and elastic pressing blocks, and rotary drive fan system in the battery, the problems of structural damage and insufficient heat dissipation caused by vibration are solved, efficient heat dissipation effect and unit temperature monitoring are achieved, and the service life and performance of the battery are improved.
Patent Information
- Application Number
- CN202510395985.0
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-03-31
- Publication Date
- 2025-08-15
AI Technical Summary
The existing batteries are susceptible to vibration and impact during use, resulting in structural damage, and the heat dissipation effect of multiple units is insufficient when they are connected in series and parallel, so it is impossible to dissipate heat from abnormal heating units in a targeted manner, affecting performance and life.
A multi-mode efficient heat dissipation battery is designed, using a rectangular array distributed battery unit, combined with a support frame and elastic pressing block to provide buffer protection. Each unit is equipped with a temperature sensor, and the position of the fan unit is controlled by a rotating drive unit and a multi-stage electric telescopic rod to achieve conventional and targeted heat dissipation.
It realizes effective buffering protection in a vibrating environment, can dissipate heat evenly and perform targeted heat dissipation during abnormal heat generation, and improves the service life and performance of the battery.
Smart Images

Figure CN120497512A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of batteries, and more particularly to a multi-mode high-efficiency heat dissipation battery. Background Art
[0002] A battery is a chemical power source that converts chemical energy directly into electrical energy. Batteries are recharged through a reversible chemical reaction. During charging, electrical energy is stored as chemical energy; during discharge, a chemical reaction occurs within the battery, releasing electrical energy.
[0003] Batteries are common in vehicles, but they are subject to some impact during use. During driving, batteries may be subjected to vibration and impact from the vehicle body, which can damage the battery's internal structure, such as plate deformation and electrolyte leakage. Some batteries also have heat dissipation issues, especially when multiple battery cells are connected in series or parallel. Conventional heat dissipation methods may not provide sufficient heat dissipation. Furthermore, when a battery cell overheats abnormally, targeted heat dissipation cannot be effectively managed, resulting in elevated temperatures and impacting its performance and lifespan. Summary of the Invention
[0004] The present invention aims to overcome the defects of the prior art and provide a multi-mode high-efficiency heat dissipation battery.
[0005] To achieve the above objectives, the present invention provides the following technical solution: a battery comprising a bottom box body, a support frame unit, a plurality of battery cells mounted on the support frame unit, and a top cover, wherein a temperature sensor is mounted at the bottom of each battery cell.
[0006] Furthermore, the support frame unit is installed at the bottom box body.
[0007] Furthermore, the top cover is fixedly connected to the bottom box body.
[0008] Furthermore, the bottom box body includes a bottom plate, a partition, a surrounding plate and multiple support columns, and a convex edge is fixed to the support column; the support frame unit includes a bottom frame and multiple vertical frames, and the vertical frame includes a rectangular frame and four support plates with an L-shaped cross-section; each battery unit has a vertical frame at each of the four corners; each support column passes through the bottom frame and the rectangular frame; all the convex edges abut the bottom frame; and the top cover has multiple groups of elastic pressing blocks.
[0009] The bottom frame is thus supported and fixed by the raised edge.
[0010] Furthermore, the rectangular frame is fixedly connected to the bottom frame.
[0011] Furthermore, the plurality of battery cells are distributed in a rectangular array.
[0012] Furthermore, the surrounding plate is in the shape of a rectangular frame, and the surrounding plate surrounds the bottom plate and the partition plate and is fixedly connected to both the bottom plate and the partition plate.
[0013] Furthermore, the support column is fixedly connected to the partition.
[0014] Furthermore, the convex edge is in the shape of a rectangular frame.
[0015] Thereby the supporting effect on the bottom frame is better.
[0016] Furthermore, a plurality of vertical frames are distributed in a rectangular array; the vertical frames are fixed to the bottom frame.
[0017] Furthermore, a horizontal cross bar is connected between two adjacent support plates.
[0018] Furthermore, the multiple groups of elastic pressing blocks are distributed in a rectangular array.
[0019] Furthermore, the number of the battery cells is equal to the number of groups of elastic pressing blocks and the two correspond one to one, and each group of elastic pressing blocks presses one battery cell.
[0020] This allows for better buffering of the battery cells.
[0021] Furthermore, the vertical frame includes four horizontal cross bars.
[0022] Furthermore, the elastic pressing block is made of rubber material.
[0023] Furthermore, the distribution of multiple support columns is rectangular, the support columns located at the four corners have threaded holes, and the remaining support columns have positioning holes; the top cover includes a rectangular frame-shaped top plate, a rectangular frame-shaped top frame fixedly connected to the top plate, multiple connecting plates fixedly connected to the top plate, four abutment tubes fixedly connected to the top frame, and multiple positioning rod units fixedly connected to the top frame, the number of positioning rod units is equal to the number of support columns with positioning holes and the two correspond one to one, the positioning rod unit includes a first positioning rod inserted into the positioning hole and a second positioning rod abutting the top of the support column, the elastic pressing block is fixed at the connecting plate; the threaded hole has a fixing bolt passing through the abutment tube.
[0024] Therefore, the top cover is accurately positioned and securely installed.
[0025] Furthermore, the partition has multiple ventilation holes, each of which is located below a vertical frame. Two air intake units are installed in the surrounding plate, and the air intake unit includes a shell with an open bottom and two air inlet pipes; two heat dissipation units are installed on the partition, and the heat dissipation unit includes a rotating drive unit installed on the partition, a multi-stage electric telescopic rod and a fan unit; the partition also has two circular through holes, each of which is located below a shell.
[0026] Furthermore, the height of the housing is higher than that of the fan unit.
[0027] Furthermore, the fan unit is located on the upper surface of the partition and abuts against the upper surface of the partition.
[0028] Furthermore, the ventilation hole is cross-shaped.
[0029] Furthermore, the plurality of ventilation holes are distributed in a rectangular array.
[0030] Furthermore, one end of the air inlet pipe is fixedly connected to the shell, and the other end is fixedly connected to the surrounding plate.
[0031] Furthermore, each end of the air inlet pipe corresponds to a connecting hole located at the surrounding plate.
[0032] Furthermore, a filter unit is provided at the communicating hole.
[0033] In other embodiments, the communicating hole may be connected to a tube portion.
[0034] Therefore, the position of the heat dissipation air inlet can be designed and selected according to the shape of the tube, and can be selected according to the battery usage scenario, so that the heat dissipation design is more flexible and meets the needs of use.
[0035] Furthermore, one end of the multi-stage electric telescopic rod is fixedly connected to the rotation drive unit, and the other end is fixedly connected to the fan unit.
[0036] Furthermore, the rotation drive unit includes a drive motor and a rotating block driven by the drive motor, and one end of the multi-stage electric telescopic rod is fixedly connected to the rotating block.
[0037] Thereby, the rotation driving unit can drive the fan unit to move to different positions.
[0038] Furthermore, the plurality of vertical frames are divided into a plurality of vertical frames inserted by support columns and a plurality of vertical frames not inserted by support columns. The number of ventilation holes is equal to the number of vertical frames not inserted by support columns and the two correspond one to one. Each ventilation hole faces a vertical frame not inserted by support columns.
[0039] Furthermore, a plurality of vertical frames inserted by the support columns are distributed in a rectangular circle.
[0040] Furthermore, the multiple groups of ventilation holes are divided into two groups of equal number, and each group of ventilation holes has a circular through hole; the two heat dissipation units can be in a first heat dissipation state and a second heat dissipation state. In the first heat dissipation state, the two fan units are respectively located under the two shells, and the two fan units are used to blow air into the space between the bottom plate and the partition; in the second heat dissipation state, one of the fan units is located under the shell and is used to blow air into the space between the bottom plate and the partition, and the other fan unit is located above one of the ventilation holes in the group of ventilation holes corresponding to the shell, and is used to blow air into the vertical frame corresponding to the ventilation hole.
[0041] Furthermore, in the first heat dissipation state, both fan units operate at a first power, and in the second heat dissipation state, the fan unit located below the housing operates at a second power, which is greater than the first power.
[0042] Furthermore, the bottom frame includes a plurality of mutually parallel first straight rods and a plurality of mutually parallel second straight rods, the plurality of first straight rods and the plurality of second straight rods are staggered, and the first straight rods are perpendicular to the second straight rods.
[0043] Furthermore, the plurality of battery cells are distributed in a 5×5 pattern; each group of ventilation holes has 8 cells, distributed in a 2×4 pattern.
[0044] Further, a plurality of battery cells are connected in series, or a plurality of battery cells are connected in a series-parallel combination.
[0045] Furthermore, the battery unit is a valve-regulated lead-acid battery.
[0046] Beneficial effects:
[0047] 1. The battery of the present application, when multiple battery units are used in combination, is easy to replace and maintain when one of the battery units is damaged.
[0048] 2. In the battery of the present application, the battery unit is located between the elastic pressing block and the support frame unit, thereby achieving better buffering and effectively protecting the battery unit.
[0049] 3. The battery of the present application can achieve conventional heat dissipation, as well as targeted heat dissipation when a battery cell is abnormally heated, thereby achieving better heat dissipation effect. BRIEF DESCRIPTION OF THE DRAWINGS
[0050] Figure 1 This is a schematic diagram of separating battery components;
[0051] Figure 2 This is an enlarged view of area A;
[0052] Figure 3 This is an enlarged view of area B;
[0053] Figure 4 This is a schematic diagram of the support frame unit installed in the bottom box;
[0054] Figure 5 This is an enlarged view of area C;
[0055] Figure 6 A schematic diagram of installing multiple battery units on a support frame unit;
[0056] Figure 7 This is an enlarged view of area D;
[0057] Figure 8 A schematic diagram of fixing and connecting the top cover and the bottom box body;
[0058] Figure 9 This is a schematic diagram of the battery components being separated in the first heat dissipation state;
[0059] Figure 10 This is an enlarged view of area E;
[0060] Figure 11 This is a schematic diagram of the battery components being separated in the second heat dissipation state;
[0061] Figure 12 This is an enlarged view of area F.
[0062] Explanation of the accompanying reference numerals: bottom plate 1.1; partition 1.2; ventilation hole 1.2.1; surrounding plate 1.3; connecting hole 1.3.1; support column 1.4; threaded hole 1.4.1; positioning hole 1.4.2; flange 1.5; bottom frame 2.1; rectangular frame 2.2; support plate 2.3; horizontal cross bar 2.4; battery unit 3; temperature sensor 3.1; top plate 4.1; top frame 4.2; connecting plate 4.3; abutment tube 4.4; first positioning rod 5.1; second positioning rod 5.2; elastic pressing block 6; housing 7.1; air inlet duct 7.2; rotation drive unit 8.1; multi-stage electric telescopic rod 8.2; fan unit 8.3. DETAILED DESCRIPTION
[0063] The following describes embodiments of the present invention in detail, examples of which are shown in the accompanying drawings, wherein the same or similar reference numerals throughout represent the same or similar elements or elements having the same or similar functions. The embodiments described below with reference to the accompanying drawings are exemplary and are intended to be used to explain the present invention, and are not to be construed as limiting the present invention.
[0064] The present invention provides a multi-mode high-efficiency heat dissipation battery as shown in the figure, comprising a bottom box body, a support frame unit installed at the bottom box body, a plurality of battery cells 3 installed at the support frame unit, and a top cover fixedly connected to the bottom box body, with a temperature sensor 3.1 installed at the bottom of each battery cell 3. The plurality of battery cells 3 are distributed in a rectangular array; the bottom box body comprises a bottom plate 1.1, a partition 1.2, a rectangular frame-shaped surrounding plate 1.3 surrounding the bottom plate 1.1 and the partition 1.2, and a plurality of support columns 1.4 fixedly connected to the partition 1.2, wherein a rectangular frame-shaped flange 1.5 is fixed to the support column 1.4; the support frame unit comprises a bottom frame 2.1 and a plurality of vertical frames distributed in a rectangular array and fixed to the bottom frame 2.1, wherein the vertical frame comprises a rectangular frame 2.2 and four support plates 2 with an L-shaped cross section. .3, horizontal crossbars 2.4 connect between adjacent support plates 2.3; each battery cell 3 has a vertical frame at each of its four corners; each support column 1.4 passes through the bottom frame 2.1 and the rectangular frame 2.2; all flanges 1.5 abut the bottom frame 2.1; the top cover has multiple groups of elastic pressing blocks 6 distributed in a rectangular array. The number of battery cells 3 and the number of groups of elastic pressing blocks 6 are equal and correspond one to one, with each group of elastic pressing blocks 6 pressing one battery cell 3. The vertical frame includes four horizontal crossbars 2.4.
[0065] The distribution of multiple support columns 1.4 is rectangular, and the support columns 1.4 located at the four corners have threaded holes 1.4.1, and the remaining support columns 1.4 have positioning holes 1.4.2; the top cover includes a rectangular frame-shaped top plate 4.1, a rectangular frame-shaped top frame 4.2 fixedly connected to the top plate 4.1, multiple connecting plates 4.3 fixedly connected to the top plate 4.1, four abutment tubes 4.4 fixedly connected to the top frame 4.2 and multiple positioning rod units fixedly connected to the top frame 4.2, the number of the positioning rod units is equal to the number of support columns 1.4 with positioning holes 1.4.2 and the two correspond one to one, the positioning rod unit includes a first positioning rod 5.1 inserted into the positioning hole 1.4.2 and a second positioning rod 5.2 abutting the top of the support column 1.4, the elastic pressing block 6 is fixed at the connecting plate 4.3; the threaded hole 1.4.1 has a fixing bolt passing through the abutment tube 4.4. The partition 1.2 has a plurality of cross-shaped ventilation holes 1.2.1 distributed in a rectangular array, each ventilation hole 1.2.1 is located below a vertical frame, and two air intake units are installed in the surrounding plate 1.3, and the air intake unit includes a shell 7.1 with an open bottom end and two air intake pipes 7.2 fixedly connected to the shell 7.1 and the surrounding plate 1.3, and the end of each air intake pipe 7.2 corresponds to a connecting hole 1.3.1 located on the surrounding plate 1.3; two heat dissipation units are installed on the partition 1.2, and the heat dissipation unit includes a rotation drive unit 8.1 installed on the partition 1.2, a multi-stage electric telescopic rod 8.2 connected to the rotation drive unit 8.1, and a fan unit 8.3 fixed to the movable end of the multi-stage electric telescopic rod 8.2; the partition 1.2 also has two circular through holes, each of which is located below a shell 7.1.
[0066] The plurality of vertical frames are divided into a plurality of vertical frames inserted by support columns and a plurality of vertical frames not inserted by support columns. The number of ventilation holes 1.2.1 is equal to the number of vertical frames not inserted by support columns, and the two correspond one-to-one. Each ventilation hole 1.2.1 faces a vertical frame not inserted by support columns. The plurality of groups of ventilation holes 1.2.1 are divided into two equal groups, and each group of ventilation holes 1.2.1 has one of the circular through holes. The two heat dissipation units can be in a first heat dissipation state and a second heat dissipation state. In the first heat dissipation state, the two fan units 8.3 are respectively located below the two housings 7.1, and both fan units 8.3 are used to blow air into the space between the bottom plate 1.1 and the partition 1.2. In the second heat dissipation state, one fan unit is located below the housing 7.1 and is used to blow air into the space between the bottom plate 1.1 and the partition 1.2. The other fan unit is located above one of the ventilation holes 1.2.1 in the group of ventilation holes corresponding to the housing 7.1 and is used to blow air into the vertical frame corresponding to the ventilation hole 1.2.1. The base frame 2.1 comprises a plurality of mutually parallel first straight rods and a plurality of mutually parallel second straight rods, the plurality of first straight rods and the plurality of second straight rods being arranged in an alternating pattern, with the first straight rods and the second straight rods being perpendicular to each other. The plurality of battery cells 3 are arranged in a 5x5 pattern; each group of ventilation holes 1.2.1 has eight ventilation holes, arranged in a 2x4 pattern. The plurality of battery cells are connected in series, or in a combination of series and parallel. The battery cells 3 are valve-regulated lead-acid batteries.
[0067] Working principle: The battery of the present application has a certain buffering effect because the multiple battery cells are distributed in a rectangular array, and each battery cell is located between the support frame unit and the elastic pressing block, which can achieve better buffering in the use environment.
[0068] Each battery cell is equipped with a temperature sensor at its base, enabling precise monitoring of its temperature. During normal cooling, in the first cooling state, two fan units are located below the two housings. The fan units rotate, causing air to enter the air inlet duct from the connecting hole, pass through the fan units, and then through the space between the base plate and the partitions before being blown upward through the multiple ventilation holes, achieving more uniform cooling for the multiple battery cells. When a battery cell experiences an abnormally high temperature, the two fan units, driven by the rotary drive unit and the multi-stage electric telescopic rod, can be moved. This allows for a second cooling mode. One fan unit (referred to as fan unit A for convenience) is positioned below a vent (located at a corner of the abnormally heated battery cell), while the other fan unit (referred to as fan unit B for convenience) is positioned above the corresponding circular through-hole. Fan unit B draws air from the through-hole and blows it toward the space between the base plate and the partition. Fan unit A dissipates heat from the abnormally heated battery cell. Furthermore, because fan unit B is closer to fan unit A (which primarily provides cooling airflow), it receives more of the cooling airflow from fan unit A, achieving more targeted heat dissipation. The remaining vents also receive the cooling airflow from fan unit A, providing regular heat dissipation. This second cooling mode allows for more targeted heat dissipation of the abnormally heated battery cell.
[0069] Although the present invention has been illustrated and described with respect to the preferred embodiments, it will be understood by those skilled in the art that various changes and modifications may be made to the present invention without departing from the scope of the present invention as defined by the claims.
Claims
1. A multi-mode high-efficiency heat dissipation battery, characterized in that: The invention comprises a bottom box body, a support frame unit, a plurality of storage battery units installed at the support frame unit and a top cover. A temperature sensor is installed at the bottom of each storage battery unit.
2. The multi-mode high-efficiency heat dissipation battery according to claim 1, characterized in that: The bottom box body includes a bottom plate, a partition, a surrounding plate and multiple support columns, and a convex edge is fixed to the support column; the support frame unit includes a bottom frame and multiple vertical frames, and the vertical frame includes a rectangular frame and four support plates with an L-shaped cross-section; each battery unit has a vertical frame at each of the four corners; each support column passes through the bottom frame and the rectangular frame; all the convex edges abut the bottom frame; the top cover has multiple groups of elastic pressing blocks.
3. The multi-mode high-efficiency heat dissipation battery according to claim 2, characterized in that: The multiple support columns are distributed in a rectangular shape, the support columns located at the four corners have threaded holes, and the remaining support columns have positioning holes; the top cover includes a rectangular frame-shaped top plate, a rectangular frame-shaped top frame fixedly connected to the top plate, multiple connecting plates fixedly connected to the top plate, four abutment tubes fixedly connected to the top frame, and multiple positioning rod units fixedly connected to the top frame, the number of positioning rod units is equal to the number of support columns with positioning holes and the two correspond one to one, the positioning rod unit includes a first positioning rod inserted into the positioning hole and a second positioning rod abutting the top of the support column, the elastic pressing block is fixed at the connecting plate; the threaded hole is provided with a fixing bolt passing through the abutment tube.
4. The multi-mode high-efficiency heat dissipation battery according to claim 2, characterized in that: The partition has multiple ventilation holes, each of which is located below a vertical frame. Two air intake units are installed in the surrounding plate, and the air intake unit includes a shell with an open bottom and two air inlet pipes; two heat dissipation units are installed on the partition, and the heat dissipation unit includes a rotating drive unit installed on the partition, a multi-stage electric telescopic rod and a fan unit; the partition also has two circular through holes, each of which is located below a shell.
5. The multi-mode high-efficiency heat dissipation battery according to claim 4, characterized in that: The plurality of vertical frames are divided into a plurality of vertical frames inserted by support columns and a plurality of vertical frames not inserted by support columns. The number of ventilation holes is equal to the number of vertical frames not inserted by support columns and the two correspond one to one. Each ventilation hole faces a vertical frame not inserted by support columns.
6. The multi-mode high-efficiency heat dissipation battery according to claim 4, characterized in that: The multiple groups of ventilation holes are divided into two groups of equal number, and each group of ventilation holes has a circular through hole; the two heat dissipation units can be in a first heat dissipation state and a second heat dissipation state. In the first heat dissipation state, the two fan units are respectively located under the two shells, and the two fan units are used to blow air into the space between the bottom plate and the partition; in the second heat dissipation state, one of the fan units is located under the shell and is used to blow air into the space between the bottom plate and the partition, and the other fan unit is located above one of the ventilation holes in the group of ventilation holes corresponding to the shell, and is used to blow air into the vertical frame corresponding to the ventilation hole.
7. The multi-mode high-efficiency heat dissipation battery according to claim 4, characterized in that: The bottom frame includes a plurality of mutually parallel first straight rods and a plurality of mutually parallel second straight rods, the plurality of first straight rods and the plurality of second straight rods are staggered, and the first straight rods and the second straight rods are perpendicular.
8. The multi-mode high-efficiency heat dissipation battery according to claim 4, characterized in that: The battery cells are distributed in a 5×5 pattern; each group of ventilation holes has 8 cells distributed in a 2×4 pattern.
9. The multi-mode high-efficiency heat dissipation battery according to claim 1, characterized in that: A plurality of battery cells are connected in series, or a plurality of battery cells are connected in a series-parallel combination.
10. The multi-mode high-efficiency heat dissipation battery according to claim 1, characterized in that: The battery unit is a valve-regulated lead-acid battery.
Citation Information
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