Conductive device, battery mechanism and electronic equipment
By optimizing the design of the conductive base, elastic components, and conductive parts, the problem of large voltage drop at contact points in traditional battery compartment structures is solved, achieving continuous contact of the circuit under external force and improving the battery life and stability of electronic devices.
Patent Information
- Application Number
- CN202520008029.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-01-03
- Publication Date
- 2026-02-10
- Estimated Expiration
- 2035-01-03
AI Technical Summary
In traditional battery compartment structures, the spiral structure of the positive and negative electrode springs results in a large voltage drop at the contact points, affecting the battery life and stability of electronic devices.
The design employs a conductive base, an elastic component, and a conductive element. The elastic component expands and contracts in the direction away from and towards the conductive base, while the conductive element is located on the expansion and contraction path of the elastic component. When in contact, it conducts electricity, preventing current from passing through the entire length of the elastic component and directly connecting to the conductive base.
It reduces the voltage drop at the contact points, ensuring circuit continuity under conditions such as vibration, impact, and drop, thereby improving the battery life and stability of electronic devices.
Smart Images
Figure CN223898649U_ABST
Abstract
Description
Technical Field
[0001] This application relates to the field of battery compartment structure technology, and in particular to a conductive device, battery mechanism and electronic device. Background Technology
[0002] The battery compartment structure serves to provide stable physical support and electrical connection for the battery. It typically includes positive and negative springs that are connected to the battery's contact points to ensure that the battery can continuously supply power.
[0003] In practice, the inventors discovered the following drawbacks in traditional battery compartment structures: Due to their helical structure, the positive and negative electrode springs generate a large pressure drop at the contact points, which directly affects the battery life of electronic devices. Utility Model Content
[0004] The purpose of this application is to provide a conductive device that optimizes the battery contact structure, utilizes conductive components for direct connection to reduce voltage drop, and employs elastic components to maintain continuous contact under conditions of vibration, impact, and drop, effectively improving the battery life and stability of electronic devices. Another purpose of this application is to provide a battery mechanism and electronic device.
[0005] To achieve the above objectives, this application provides a conductive device, comprising:
[0006] Conductive base;
[0007] An elastic component is disposed on the conductive base, the elastic component is electrically connected to the conductive base, and the elastic component expands and contracts in directions away from and towards the conductive base.
[0008] A conductive element is disposed on the conductive base, the conductive element is electrically connected to the conductive base, the conductive element is located on the extension path of the elastic component, and the conductive element is electrically connected when in contact with the elastic component.
[0009] In some embodiments, the resilient component includes:
[0010] Conductive cap;
[0011] A first elastic element has a first end connected to the conductive base and a second end connected to the conductive cap, so as to realize electrical conduction between the conductive cap, the first elastic element and the conductive base.
[0012] In some embodiments, the first side of the conductive cap is provided with a first conductive surface, which is used to conduct electricity with the battery; the second side of the conductive cap is provided with a second conductive surface, which is used to conduct electricity with the first elastic element; the second conductive surface is also used to conduct electricity when in contact with the conductive element.
[0013] In some embodiments, the conductive cap is sleeved on the first elastic member, and the first elastic member is sleeved on the conductive member.
[0014] In some embodiments, the resilient component further includes:
[0015] The mounting structure is connected to the conductive base and is used to limit the extension and retraction distance of the elastic component.
[0016] In some embodiments, the mounting structure includes:
[0017] A first mounting structure is connected to the conductive base, and the first mounting structure is provided with a first through hole;
[0018] The elastic component includes a conductive cap having an extension and a body, the body passing through the first through hole, and the extension abutting against the first mounting structure on the outer periphery of the first through hole to limit the retraction distance of the body.
[0019] In some embodiments, the mounting structure further includes:
[0020] A second mounting structure is provided on top of the first mounting structure, and the second mounting structure is used to limit the compression distance of the battery on the elastic component.
[0021] In some embodiments, when the battery abuts against the second mounting structure, the elastic component is flush with the surface of the second mounting structure, the battery is electrically connected to the elastic component, and the elastic component is electrically connected to the conductive element.
[0022] This application also provides a battery mechanism, including a battery, a second elastic element, and the aforementioned conductive device, wherein a first electrode of the battery is electrically connected to the second elastic element, and a second electrode of the battery is electrically connected to the elastic component of the conductive device.
[0023] This application also provides an electronic device including the aforementioned battery mechanism.
[0024] Compared with the above-mentioned background technology, the conductive device provided in this application mainly includes a conductive base, an elastic component, and a conductive element. The elastic component is disposed on the conductive base and is electrically connected to the conductive base. The elastic component expands and contracts in the direction away from and towards the conductive base. The conductive element is disposed on the conductive base and is electrically connected to the conductive base. The conductive element is located on the expansion and contraction path of the elastic component and is electrically connected when it comes into contact with the elastic component.
[0025] In the background technology, the main problem with traditional battery compartment designs is the large voltage drop at the contact points. In traditional designs, the battery's conductivity depends on the contact between the spring and the battery. Due to the spring's helical structure, the current needs to pass through the entire length of the spring, resulting in large resistance and voltage drop.
[0026] To address these issues, this technical solution proposes an optimized conductive device, which includes a conductive base, an elastic component, and a conductive element. The elastic component is disposed on the conductive base and is electrically connected to it, capable of extending and contracting in directions away from and towards the conductive base. The conductive element is also disposed on the conductive base and is electrically connected to it, located along the extension and contraction path of the elastic component, and is electrically connected when in contact with the elastic component.
[0027] The key advantage of this design is that when the elastic component is compressed, it can move to contact the conductive element, thereby altering the current flow path. The current no longer needs to traverse the entire length of the elastic component; instead, it connects directly to the conductive base through the conductive element. This avoids the voltage drop problem caused by the conductive length of the elastic component, reducing impedance and thus lowering the voltage drop at the contact point. Simultaneously, the design of the elastic component allows it to maintain contact with the energy storage device through its expansion and contraction under external forces such as vibration, impact, or drops, ensuring circuit continuity and preventing power outages.
[0028] Based on the above structural and process descriptions, it can be seen that the conductive device has at least the following beneficial effects: by optimizing the battery contact structure and using conductive components for direct connection to reduce voltage drop, the conductive device effectively improves the battery life and stability of electronic devices by using elastic components to maintain continuous contact under conditions such as vibration, impact, and drop. Attached Figure Description
[0029] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only embodiments of this application. For those skilled in the art, other drawings can be obtained based on the provided drawings without creative effort.
[0030] Figure 1 A schematic diagram of a conductive device provided in an embodiment of this application;
[0031] Figure 2 An exploded view of the conductive device provided in the embodiments of this application;
[0032] Figure 3 This is a schematic diagram of the conductive device and battery provided in the embodiments of this application;
[0033] Figure 4 A schematic diagram of the battery mechanism provided in an embodiment of this application;
[0034] Figure 5 A schematic diagram of an electronic device provided in an embodiment of this application.
[0035] in:
[0036] Conductive device 100
[0037] Conductive base 1
[0038] Elastic component 2
[0039] Conductive cap 21, first conductive surface 2101, second conductive surface 2102, extension 211, main body 212, first elastic element 22, mounting structure 23, first mounting structure 231, first through hole 2311, second mounting structure 232.
[0040] Conductive component 3
[0041] Battery 200, second elastic element 300, spring pin 400
[0042] Battery mechanism 1000. Detailed Implementation
[0043] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, and not all embodiments. Based on the embodiments of this application, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this application.
[0044] To enable those skilled in the art to better understand the present application, the present application will be further described in detail below with reference to the accompanying drawings and specific embodiments.
[0045] Please refer to Figure 1 and Figure 2 ,in, Figure 1 This is a schematic diagram of the conductive device provided in the embodiments of this application. Figure 2 An exploded view of the conductive device provided in an embodiment of this application.
[0046] In a first specific embodiment, the conductive device 100 provided in this application mainly includes a conductive base 1, an elastic component 2, and a conductive element 3. In use, the conductive device 100 is used in conjunction with an energy storage device such as a battery. The conductive device 100 serves to contact and conduct electricity with the electrodes of the energy storage device. Specifically, the elastic component 2 is the part that contacts and conducts electricity with the electrodes of the energy storage device.
[0047] The elastic component 2 is disposed on the conductive base 1, and the elastic component 2 is electrically connected to the conductive base 1. The elastic component 2 expands and contracts in the direction away from and towards the conductive base 1.
[0048] The conductive element 3 is disposed on the conductive base 1, and the conductive element 3 is electrically connected to the conductive base 1. The conductive element 3 is located on the extension path of the elastic component 2, and the conductive element 3 is electrically connected when it comes into contact with the elastic component 2.
[0049] In this embodiment, when the elastic component 2 is in contact with the conductive component 3, a direct conductive path is formed from the conductive component 3 to the conductive base 1. Compared to the conductive path from the elastic component 2 to the conductive base 1, the conductive path of the conductive component 3 is shorter and more direct. When the elastic component 2 and the conductive component 3 are not in contact, no conductive path is formed from the conductive component 3 to the conductive base 1. However, the elastic component 2 can maintain close contact with the energy storage device, such as a battery, to prevent power loss due to its own elasticity.
[0050] It should be noted that both the elastic component 2 and the conductive component 3 have the function of conducting electricity. The difference is that the rigidity of the conductive component 3 is greater than that of the elastic component 2, and the elasticity of the elastic component 2 is greater than that of the conductive component 3. Optionally, the elastic component 2 uses a spring to provide conductivity and elasticity, while the conductive component 3 uses a metal column to provide conductivity and rigidity.
[0051] In the background technology, the main problem with traditional battery compartment designs is the large voltage drop at the contact points. In traditional designs, the battery's conductivity depends on the contact between the spring and the battery. Due to the spring's helical structure, the current needs to pass through the entire length of the spring, resulting in large resistance and voltage drop.
[0052] To address these issues, this technical solution proposes an optimized conductive device 100, which includes a conductive base 1, an elastic component 2, and a conductive element 3. The elastic component 2 is disposed on the conductive base 1 and is electrically connected to the conductive base 1, capable of extending and contracting in directions away from and towards the conductive base 1. The conductive element 3 is also disposed on the conductive base 1 and is electrically connected to the conductive base 1, located on the extension and contraction path of the elastic component 2, and is electrically connected when in contact with the elastic component 2.
[0053] The key advantage of this design is that when the elastic component 2 is compressed, it can move to contact the conductive element 3, thereby changing the current flow path. The current no longer needs to travel the entire length of the elastic component 2, but instead connects directly to the conductive base 1 through the conductive element 3. This avoids the voltage drop problem caused by the conductive length of the elastic component 2, and reduces the voltage drop at the contact point by lowering the impedance. Simultaneously, the design of the elastic component 2 allows it to maintain contact with the energy storage device through its expansion and contraction under external forces such as vibration, impact, or drops, ensuring circuit continuity and preventing power outages.
[0054] Based on the above structural and process descriptions, it can be seen that the conductive device 100 has at least the following beneficial effects: by optimizing the battery contact structure and using the conductive component 3 for direct connection to reduce voltage drop, the conductive device 100 also uses the elastic component 2 to maintain continuous contact under conditions such as vibration, impact, and drop, effectively improving the battery life and stability of electronic devices.
[0055] Please refer to Figure 3, Figure 3 This is a schematic diagram of the conductive device and battery provided in the embodiments of this application.
[0056] like Figure 3 As shown, the conductive device 100 can be used in conjunction with the second elastic member 300 in conjunction with the battery 200. For example, the conductive device 100 can be used as the negative electrode portion and the second elastic member 300 as the positive electrode portion, with the negative and positive electrode portions respectively in contact with the negative and positive electrodes of the battery 200, and then the negative and positive electrode portions can be connected to a circuit to form a power supply circuit. Alternatively, the conductive device 100 can also be used as the positive electrode portion, which is also within the scope of this embodiment.
[0057] During use, the conductive device 100 maintains constant contact with the electrodes of the battery 200 through the elastic force of the elastic component 2, forming a conductive path from the electrodes to the conductive base 1 entirely through the elastic component 2. This covers situations where the battery 200 is subjected to vibration, impact, or drop. In some cases, corresponding to the stable state of the battery 200, the elastic component 2 will be compressed by the electrodes until it comes into contact with the conductive element 3. Since the conductive path of the conductive element 3 is shorter than that of the elastic component 2, the conductive path from the electrodes to the conductive base 1 will no longer be formed entirely through the elastic component 2, but rather through the conductive element 3.
[0058] Please continue to refer to this. Figure 3 In some embodiments, the resilient component 2 includes:
[0059] Conductive cap 21;
[0060] The first elastic element 22 has its first end connected to the conductive base 1 and its second end connected to the conductive cap 21, so as to realize the electrical conduction between the conductive cap 21, the first elastic element 22 and the conductive base 1.
[0061] In this embodiment, the elastic component 2 is specifically designed for contact and conductivity with the electrodes of the battery 200. This component consists of a conductive cap 21 and a first elastic member 22, wherein the conductive cap 21 is responsible for direct contact with the electrodes of the battery 200 to achieve electrical conductivity. One end of the first elastic member 22 is connected to the conductive base 1, and the other end is connected to the conductive cap 21. This structure ensures electrical conductivity from the electrodes of the battery 200 to the conductive base 1.
[0062] The design of the elastic component 2 allows it to stretch and contract in directions away from and towards the conductive base 1, enabling the component to adapt to the insertion and removal of the battery 200, as well as minor positional changes that may occur during the use of the battery 200. The elastic properties of the first elastic element 22 enable it to maintain continuous contact with the electrodes of the battery 200, ensuring circuit continuity even when subjected to external forces such as vibration or impact, and preventing power outages.
[0063] Alternatively, the first elastic element 22 may be a spring; the conductive cap 21 may be made of copper; and the conductive element 3 may be made of copper.
[0064] In some embodiments, the first side of the conductive cap 21 is provided with a first conductive surface 2101, which is used to conduct electricity with the battery 200. The second side of the conductive cap 21 is provided with a second conductive surface 2102, which is electrically connected to the first elastic member 22. The second conductive surface 2102 is also used to conduct electricity when in contact with the conductive member 3.
[0065] In this embodiment, the conductive cap 21 is structurally designed to enable electrical conduction with the battery 200 and the conductive component 3. The conductive cap 21 has two main conductive surfaces: a first conductive surface 2101 and a second conductive surface 2102. The first conductive surface 2101 is located on one side of the conductive cap 21 and its function is to directly contact the electrodes of the battery 200 to achieve electrical conduction with the battery 200. This design ensures that current can flow smoothly from the battery 200 to the conductive cap 21.
[0066] The other side of the conductive cap 21 has a second conductive surface 2102, which is electrically connected to the first elastic element 22, ensuring that current can flow from the conductive cap 21 to the first elastic element 22, and then to the conductive base 1. Furthermore, the second conductive surface 2102 is designed to achieve electrical conductivity when the elastic component 2 contacts the conductive element 3. This design provides an additional current path; when the elastic component 2 moves under pressure to contact the conductive element 3, the current can flow directly to the conductive base 1 through this shorter path, avoiding flow to the first elastic element 22, thereby reducing the overall system resistance and voltage drop.
[0067] In some embodiments, the conductive cap 21 is sleeved on the first elastic member 22, and the first elastic member 22 is sleeved on the conductive member 3.
[0068] In this embodiment, the conductive cap 21 is fitted onto the first elastic member 22, which in turn is fitted onto the conductive member 3, forming a compact structure. This structural design allows the conductive cap 21 to extend and retract under the elastic action of the first elastic member 22 to adapt to the contact requirements of the battery 200 and maintain the electrical connection.
[0069] Since the conductive element 3 is located on the telescopic path of the conductive cap 21, when the conductive cap 21 moves due to the insertion of the battery 200 or the action of external force, it will come into contact with the conductive element 3. At the moment of contact, the conductive cap 21 stops moving due to the obstruction of the conductive element 3, and at this time, the contact between the conductive cap 21 and the conductive element 3 forms a new conductive path. This new path provides a direct conductive path from the battery 200 through the conductive cap 21 and the conductive element 3 to the conductive base 1, reducing the resistance of current flow and thus reducing the voltage drop at the contact point.
[0070] In some cases, the conductive cap 21 has a cap body with the second conductive surface 2102 as its inner bottom surface, and the first conductive surface 2101 is located on the outer top surface of the cap body. The first elastic member 22 and the conductive member 3 are fitted inside the cap body.
[0071] In some embodiments, the resilient component 2 further includes:
[0072] Mounting structure 23 is connected to conductive base 1 and is used to limit the extension and retraction distance of elastic component 2.
[0073] In this embodiment, the elastic component 2 further includes a mounting structure 23 connected to the conductive base 1. Its main function is to limit the extension and retraction distance of the elastic component 2, ensuring that the elastic component 2 will not detach from the conductive base 1 due to excessive movement. This design is particularly important because it prevents the conductive cap 21 from moving excessively or even detaching from the conductive base 1 under the action of the first elastic element 22, thereby ensuring that the movement position of the conductive cap 21 is always within a controllable range, corresponding to the designed extension and retraction distance of the elastic component 2.
[0074] The presence of mounting structure 23 provides the necessary stability and positioning accuracy for the elastic component 2, allowing the conductive cap 21 to extend and retract within a safe, predetermined stroke to accommodate the contact requirements of the battery 200. This design not only improves the structural stability and reliability of the conductive device 100 but also helps extend the service life of the elastic component 2 by reducing the risk of damage due to excessive extension or accidental impact. By precisely controlling the movement of the elastic component 2, mounting structure 23 ensures that the contact between the conductive cap 21 and the battery 200 electrodes remains stable and reliable, whether under normal use or under external force.
[0075] In some embodiments, the mounting structure 23 includes:
[0076] The first mounting structure 231 is connected to the conductive base 1, and the first mounting structure 231 is provided with a first through hole 2311;
[0077] The elastic component 2 includes a conductive cap 21 with an extension 211 and a main body 212. The main body 212 passes through a first through hole 2311. The extension 211 abuts against a first mounting structure 231 on the outer periphery of the first through hole 2311 to limit the extension distance of the main body 212.
[0078] In this embodiment, the mounting structure 23 consists of a first mounting structure 231, which is directly connected to the conductive base 1 and includes a specific design element—a first through hole 2311. This through hole allows the body 212 of the conductive cap 21 in the elastic component 2 to pass through, thereby realizing the connection between the conductive cap 21 and the conductive base 1.
[0079] The conductive cap 21 is designed with two parts: an extension 211 and a main body 212. The extension 211 abuts against the first mounting structure 231 on the outer periphery of the first through hole 2311. This design cleverly limits the extension and retraction distance of the main body 212 of the conductive cap 21. Through the interaction between the extension 211 and the first mounting structure 231 on the outer periphery of the first through hole 2311, the movement of the conductive cap 21 is controlled within a precise range, which ensures the consistency and reliability of the contact between the conductive cap 21 and the battery 200.
[0080] In some cases, the first mounting structure 231 serves as a conductive limiting frame for the conductive cap 21. The conductive limiting frame is assembled and fixed together with the conductive base 1, housing the conductive cap 21 and the first elastic element 22 between the conductive limiting frame and the conductive base 1. The conductive limiting frame restricts the maximum extension distance of the conductive cap 21, preventing the conductive cap 21 from coming off.
[0081] In some embodiments, the mounting structure 23 further includes:
[0082] The second mounting structure 232 is disposed on the first mounting structure 231, and the second mounting structure 232 is used to limit the compression distance of the battery 200 on the elastic component 2.
[0083] In this embodiment, in addition to the first mounting structure 231, the mounting structure 23 also includes a second mounting structure 232. This structure is disposed on the first mounting structure 231 and is specifically used to limit the compression distance of the battery 200 on the elastic component 2. This design ensures that when the battery 200 is installed in place, its electrodes can maintain contact with the conductive cap 21, thereby achieving electrical conduction between the battery 200 and the conductive device 100.
[0084] The function of the second mounting structure 232 is to provide a stop or limit point during battery 200 installation to ensure that the contact between the electrodes of battery 200 and conductive cap 21 is in the correct position and pressure. When battery 200 is correctly installed, its electrodes contact the second mounting structure 232, which indicates that battery 200 has been installed in place and that the electrodes are in contact with conductive cap 21.
[0085] In the event of an abnormal situation, such as the battery 200 shifting due to external force, causing its electrodes to separate from the second mounting structure 232, the design of the elastic component 2 will come into play. In this case, the conductive cap 21 will extend under the elastic action of the first elastic element 22 to maintain contact with the electrodes of the battery 200, preventing power loss due to poor contact. This mechanism provides an automatic adjustment function, ensuring that even with minor changes in the position of the battery 200, the conductive device 100 maintains a continuous electrical connection with the battery 200, thereby improving the reliability and stability of the entire system.
[0086] In some embodiments, when the battery 200 abuts against the second mounting structure 232, the elastic component 2 is flush with the surface of the second mounting structure 232, the battery 200 is electrically connected to the elastic component 2, and the elastic component 2 is electrically connected to the conductive component 3.
[0087] In this embodiment, there are two different operating states: a stable state and an abnormal state, which determine the specific path of the current through the elastic component 2 and the conductive component 3.
[0088] In a stable state, when the battery 200 is correctly installed and abuts against the second mounting structure 232, the top of the elastic component 2 is flush with the surface of the second mounting structure 232. In this configuration, the electrodes of the battery 200 are in contact with the second mounting structure 232 and simultaneously conductive with the conductive cap 21, which in turn is conductive with the conductive element 3. This creates a conductive path with a voltage reduction effect, allowing current to flow directly from the conductive element 3 to the conductive base 1. This path is shorter than the path entirely through the elastic component 2, resulting in lower resistance and voltage drop.
[0089] In an abnormal state, if the battery 200 moves due to external force, causing its electrodes to separate from the second mounting structure 232, the elastic component 2 will extend through the action of the first elastic member 22 to maintain conductivity with the battery 200 electrodes. In this case, the conductivity path becomes the normal conductivity path that must pass completely through the first elastic member 22. Even if the battery 200 moves, the elastic component 2 can still maintain contact with the battery 200 electrodes through its elasticity, ensuring circuit continuity and continuous power supply from the battery 200.
[0090] This design ensures that the conductive device 100 maintains electrical continuity with the battery 200 under both steady and abnormal conditions, thereby improving the reliability and stability of the entire system. Simultaneously, by optimizing the conductive path to reduce voltage drop, the electrical performance of the electronic device and the efficiency of the battery 200 are enhanced.
[0091] Alternatively, the second mounting structure 232 may be made of silicone.
[0092] Please refer to Figure 4 , Figure 4 This is a schematic diagram of the battery mechanism provided in an embodiment of this application.
[0093] This application also provides a battery mechanism 1000, including a battery 200, a second elastic member 300 and the aforementioned conductive device 100, wherein the first electrode of the battery 200 is electrically connected to the second elastic member 300, and the second electrode of the battery 200 is electrically connected to the elastic component 2 of the conductive device 100.
[0094] The battery mechanism 1000 should possess all the beneficial technical effects of the aforementioned conductive device 100. Through the optimized design of the conductive device 1000, the battery mechanism 1000 achieves the goals of reducing contact point voltage drop and improving circuit stability. In a stable state, the electrodes of the battery 200 form a direct conductive path through the conductive cap 21 and the conductive element 3, reducing the resistance of current flow and thus lowering the contact point voltage drop. In an abnormal state, such as when the battery 200 moves, the elastic component 2 extends through the action of the first elastic element 22, maintaining conductivity with the electrodes of the battery 200, ensuring circuit continuity, and preventing power outages.
[0095] The battery mechanism 1000 not only inherits all the beneficial technical effects of the conductive device 100, but also enhances the stability and reliability of the electrical connection between the battery and the electronic device by integrating the second elastic element 300. This integrated design improves the performance of the battery mechanism 1000 under various operating conditions, including maintaining a stable power supply when subjected to vibration, shock, or other external forces, effectively enhancing the battery life and overall stability of the electronic device.
[0096] Alternatively, the second elastic element 300 may be a spring.
[0097] In some cases, the elasticity of the spring used in the second elastic member 300 is greater than that of the spring used in the first elastic member 22. When the battery 200 is installed between the conductive device 100 and the second elastic member 300, both the second elastic member 300 and the first elastic member 22 are compressed, and the conductive cap 21 is compressed to be flush with the surface of the second mounting structure 232.
[0098] In some cases, the conductive device 100 serves as the negative electrode and the second elastic member 300 serves as the positive electrode, so that the negative electrode and the positive electrode are in contact with the negative electrode and the positive electrode of the battery 200, respectively, and then the negative electrode and the positive electrode are connected to the circuit to form a power supply circuit.
[0099] like Figure 4 As shown, the conductive device 100 is connected to the circuit via a spring pin 400 (pogo pin), which is connected to the conductive base 1 and is electrically conductive.
[0100] Please refer to Figure 5 , Figure 5 A schematic diagram of an electronic device provided in an embodiment of this application.
[0101] This application also provides an electronic device including the aforementioned battery mechanism 1000.
[0102] The electronic device should have all the beneficial technical effects of the battery mechanism 1000 and the conductive device 100 described above, which will not be elaborated here.
[0103] Optionally, the electronic device is an imager.
[0104] In some cases, the conductive device 100 adopts the structure of a battery compartment cover. The electronic device is provided with a battery compartment to accommodate the battery 200 and the second elastic member 300 in the battery mechanism 1000. When the conductive device 100 is combined with the battery compartment, the conductive device 100 and the second elastic member 300 form a circuit connection with the battery 200.
[0105] It should be noted that many of the components mentioned in this application are general standard parts or components known to those skilled in the art, and their structure and principle can be learned by those skilled in the art through technical manuals or through conventional experimental methods.
[0106] It should be noted that in this specification, relational terms such as first and second are used only to distinguish one entity from several other entities, and do not necessarily require or imply any such actual relationship or order between these entities.
[0107] The conductive device, battery mechanism, and electronic device provided in this application have been described in detail above. Specific examples have been used to illustrate the principles and implementation methods of this application. The descriptions of the embodiments above are merely for the purpose of helping to understand the method and core ideas of this application. It should be noted that those skilled in the art can make various improvements and modifications to this application without departing from its principles, and these improvements and modifications also fall within the protection scope of the claims of this application.
Claims
1. A conductive device, characterized in that, include: Conductive base (1); An elastic component (2) is disposed on the conductive base (1). The elastic component (2) is electrically connected to the conductive base (1). The elastic component (2) expands and contracts in directions away from and towards the conductive base (1). A conductive element (3) is disposed on the conductive base (1). The conductive element (3) is electrically connected to the conductive base (1). The conductive element (3) is located on the extension path of the elastic component (2). The conductive element (3) is electrically connected when it comes into contact with the elastic component (2).
2. The conductive device according to claim 1, characterized in that, The elastic component (2) includes: Conductive cap (21); The first elastic element (22) has its first end connected to the conductive base (1), and its second end connected to the conductive cap (21) to achieve electrical conduction between the conductive cap (21), the first elastic element (22), and the conductive base (1).
3. The conductive device according to claim 2, characterized in that, The first side of the conductive cap (21) is provided with a first conductive surface (2101), which is used to conduct electricity with the battery (200). The second side of the conductive cap (21) is provided with a second conductive surface (2102), which is used to conduct electricity with the first elastic member (22). The second conductive surface (2102) is also used to conduct electricity when in contact with the conductive member (3).
4. The conductive device according to claim 2, characterized in that, The conductive cap (21) is sleeved on the first elastic element (22), and the first elastic element (22) is sleeved on the conductive element (3).
5. The conductive device according to claim 1, characterized in that, The elastic component (2) also includes: The mounting structure (23) is connected to the conductive base (1) and the mounting structure (23) is used to limit the extension distance of the elastic component (2).
6. The conductive device according to claim 5, characterized in that, The mounting structure (23) includes: The first mounting structure (231) is connected to the conductive base (1), and the first mounting structure (231) is provided with a first through hole (2311). The elastic component (2) includes a conductive cap (21) having an extension (211) and a body (212) that passes through the first through hole (2311). The extension (211) abuts against the first mounting structure (231) on the outer periphery of the first through hole (2311) to limit the extension distance of the body (212).
7. The conductive device according to claim 6, characterized in that, The mounting structure (23) also includes: A second mounting structure (232) is disposed on the first mounting structure (231), and the second mounting structure (232) is used to limit the compression distance of the battery (200) on the elastic component (2).
8. The conductive device according to claim 7, characterized in that, When the battery (200) abuts against the second mounting structure (232), the elastic component (2) is flush with the surface of the second mounting structure (232), the battery (200) is electrically connected to the elastic component (2), and the elastic component (2) is electrically connected to the conductive element (3).
9. A battery mechanism, characterized in that, It includes a battery (200), a second elastic element (300), and a conductive device (100) as described in any one of claims 1 to 8, wherein a first electrode of the battery (200) is electrically connected to the second elastic element (300), and a second electrode of the battery (200) is electrically connected to the elastic component (2) of the conductive device (100).
10. An electronic device, characterized in that, Includes the battery mechanism as described in claim 9.