Ultra-capacity module with fully-sealed structure

Abstract

The utility model relates to the technical field of super-capacitors, in particular to a super-capacity module with a fully-sealed structure, which comprises a shell and is characterized in that a plurality of independent cavities are arranged in the shell in parallel, a partition plate is arranged between every two adjacent independent cavities, the super-capacitors are inserted into the independent cavities, and the super-capacity module with the fully-sealed structure is arranged in the shell. Annular bosses tightly attached to the bottom of the super capacitor are arranged on the bottom faces of the independent cavities, boss outer annular closed spaces and boss inner closed spaces are formed, anti-explosion grooves in one-to-one correspondence with the boss inner closed spaces are formed in the side, opposite to the opening side, of the outer surface of the shell, and filling sealing cavities communicated with the independent cavities are formed in the opening side of the shell. A leading pin of the super capacitor penetrates through the filling sealing cavity to reach the opening side of the shell, and the filling sealing cavity is filled with resin glue. According to the utility model, the problem that the existing super capacitor is easy to leak under the conditions of high temperature and overvoltage is solved, circuits and components of a peripheral circuit board are protected from being damaged, the service life is effectively prolonged, and the performance is reliable.

Description

TECHNICAL FIELD

[0001] The utility model relates to super capacitor technical field, concretely relates to a full sealing structure super capacity module. BACKGROUND

[0002] Super capacitor is an innovative electrochemical energy storage device, has high power density, long cycle life, wide working temperature range and environmental protection and so on. Under the help of these characteristics, super capacitor plays an important role in many fields, including but not limited to transportation, electric power, new energy vehicles, solar energy storage and micro network energy storage and so on. This energy storage device is gradually changing our life and making contribution to sustainable development.

[0003] However, super capacitor has the following problems when used under high temperature and overpressure conditions: easy to appear liquid leakage, and the liquid leakage is caused by the defects of capacitor structure, and the liquid leakage is uncontrollable, once the capacitor starts to leak, the electrolyte in the capacitor will leak out, which directly leads to product damage, and the leaked electrolyte can damage the circuit board lines and components, further aggravating the equipment failure. UTILITY MODEL CONTENTS

[0004] The utility model discloses a full sealing structure super capacity module with reasonable structure and reliable use, solves the problem that the existing super capacitor is easy to leak under high temperature and overpressure conditions, protects the peripheral circuit board lines and components from damage, effectively prolongs the service life, and is reliable in performance.

[0005] The technical scheme of the utility model is:

[0006] A full sealing structure super capacity module, including the casing, the casing is the cuboid casing of one side opening, and its technical key points are that: a plurality of independent cavities are arranged in the casing along the length direction, a partition plate is arranged between the adjacent two independent cavities, a super capacitor is inserted in the independent cavity, the bottom surface of the independent cavity is provided with an annular boss closely attached to the bottom of the super capacitor, forming an outer annular closed space of the boss and an inner closed space of the boss, the outer surface of the casing is provided with an explosion-proof groove corresponding to the inner closed space of the boss, the opening side of the casing is provided with a filling sealing cavity in communication with each independent cavity, the bottom plate of the filling sealing cavity is provided with a reinforcing rib connected with the partition plate, the lead pin of the super capacitor passes through the filling sealing cavity and reaches the opening side of the casing, and the filling sealing cavity is filled with resin glue.

[0007] The aforementioned fully sealed supercapacitor module has Ω-shaped positioning holes on the edge of the bottom plate on the open side of the housing, which correspond one-to-one with the leads of the supercapacitor, to ensure the consistency of the lead direction and spacing. The top surface of the open side of the housing has positive and negative identification numbers corresponding to the Ω-shaped positioning holes to facilitate installation.

[0008] In the aforementioned fully sealed supercapacity module, the explosion-proof groove is X-shaped, with an expanded-diameter circle at its center.

[0009] The aforementioned fully sealed supercapacity module has two symmetrical elastic buckles at the bottom of the housing for easy installation.

[0010] The beneficial effects of this utility model are:

[0011] 1. An annular protrusion is set on the bottom surface of the independent cavity, which is in close contact with the bottom of the supercapacitor, forming an outer annular sealed space and an inner sealed space. The inner sealed space is directly opposite the pressure relief valve at the bottom of the supercapacitor. At the same time, an explosion-proof recess corresponding to the inner sealed space is added to the outside of the shell, which can facilitate the deformation of the pressure relief valve at the bottom of the supercapacitor, thereby solving the problem that existing supercapacitors are prone to leakage under high temperature and overpressure conditions.

[0012] 2. A filling and sealing cavity is set on the open side of the shell and filled with resin glue. This can prevent the electrolyte from overflowing due to abnormal leakage of the supercapacitor and effectively prevent the leaked electrolyte from damaging the peripheral circuit board circuit and components, thereby effectively extending the service life of the supercapacitor. Attached Figure Description

[0013] Fig. 1 This is an isometric drawing of this utility model;

[0014] Fig. 2 This is a cross-sectional view of the present invention;

[0015] Fig. 3 This is an isometric view of the present invention from another angle;

[0016] Fig. 4 This is a cross-sectional view of the shell of this utility model;

[0017] Fig. 5 yes Fig. 4 Enlarged view of section A.

[0018] In the diagram: 1. Shell, 2. Supercapacitor, 3. Lead pin, 4. Reinforcing rib, 5. Elastic buckle, 6. Explosion-proof groove, 7. Positive and negative identification number, 8. Sealed space inside the boss, 9. Annular boss, 10. Filling and sealing cavity, 11. Annular sealed space outside the boss, 12. Partition, 13. Ω-shaped positioning hole. Detailed Implementation

[0019] The present invention will be described in detail with reference to the accompanying drawings.

[0020] like Figs. 1-5 As shown, the fully sealed supercapacity module includes a housing 1, which is a cuboid housing with an opening on one side.

[0021] The housing 1 contains four independent cavities arranged side-by-side along its length, with partitions 12 separating adjacent cavities. Supercapacitors 2 are inserted into each of the independent cavities. The bottom surface of each independent cavity has an annular protrusion 9 that closely adheres to the bottom of the supercapacitor 2, forming an outer annular sealed space 11 and an inner sealed space 8. The outer surface of the housing 1, facing away from the opening, has explosion-proof grooves 6 that correspond one-to-one with the inner sealed spaces 8. In this embodiment, the explosion-proof grooves 6 are X-shaped with an expanded-diameter circle at their center.

[0022] The shell 1 has a filling and sealing cavity 10 on its open side, which communicates with each independent cavity. The bottom plate of the filling and sealing cavity 10 has reinforcing ribs 4 connected to the partitions 12. Each partition 12 is connected to two reinforcing ribs 4, which are distributed in a Y-shape. The lead 3 of the supercapacitor 2 passes through the filling and sealing cavity 10 to reach the open side of the shell 1. The filling and sealing cavity 10 is filled with resin glue, which is not shown in the figure.

[0023] In this embodiment, the bottom plate edge of the opening side of the housing 1 is provided with Ω-shaped positioning holes 13 that correspond one-to-one with the leads 3 of the supercapacitor, so as to ensure the consistency of the direction and spacing of the leads 3. The top surface of the opening side of the housing 1 is provided with positive and negative identification numbers 7 corresponding to the Ω-shaped positioning holes 13, so as to facilitate circuit connection.

[0024] The bottom of the housing 1 is symmetrically provided with two elastic buckles 5 for easy installation.

[0025] During assembly, first insert the four supercapacitors 2 into their respective independent cavities in parallel, and then position and wrap the supercapacitors 2 so that their bottoms are tightly attached to the corresponding annular protrusions 9. At the same time, install the positive and negative leads of each supercapacitor 2 according to the corresponding positive and negative identification numbers 7, and insert the leads 3 into the Ω-shaped positioning holes 13. Then, fill the filling and sealing cavity 10 with resin glue. After the resin glue is flush with the edge of the opening side of the shell 1, let it stand and cure.

[0026] In use, the two elastic buckles 5 cooperate with the slots set on the circuit board of the user's product to achieve limit fixation.

[0027] The embodiments of this utility model have been described in detail above, but the content described is only a preferred embodiment of this utility model and should not be considered as limiting the scope of implementation of this utility model. All equivalent changes and improvements made within the scope of this utility model should still fall within the scope of this utility model.

Claims

1. A fully sealed, super-capacity module, comprising a housing, wherein the housing is a cuboid housing with an opening on one side, characterized in that: The housing contains multiple independent cavities arranged in parallel along its length, with partitions between adjacent cavities. Each independent cavity contains a supercapacitor. The bottom surface of each independent cavity has an annular protrusion that closely adheres to the bottom of the supercapacitor, forming an outer annular sealed space and an inner sealed space. The outer surface of the housing, facing away from the opening, has explosion-proof grooves corresponding to the inner sealed spaces of the protrusions. The opening side of the housing has a filling and sealing cavity communicating with each independent cavity. The bottom plate of the filling and sealing cavity has reinforcing ribs connected to the partitions. The supercapacitor's lead passes through the filling and sealing cavity to reach the opening side of the housing. The filling and sealing cavity is filled with resin adhesive.

2. The fully sealed supercapacity module according to claim 1, characterized in that: The bottom plate edge of the opening side of the housing is provided with Ω-shaped positioning holes that correspond one-to-one with the leads of the supercapacitor, ensuring the consistency of the direction and spacing of the leads. The top surface of the opening side of the housing is provided with positive and negative identification numbers corresponding to the Ω-shaped positioning holes.

3. The fully sealed supercapacity module according to claim 1, characterized in that: The explosion-proof groove is X-shaped, with an expanded circular center.

4. The fully sealed supercapacity module according to claim 1, characterized in that: The bottom of the housing is symmetrically provided with two elastic buckles.

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