New energy power supply socket connector

Abstract

The utility model relates to the technical field of electric connection, especially a new energy power socket connector, including socket casing, socket power pack and socket signal component, socket casing includes socket faceplate, docking plug and fixed connection part, docking plug and fixed connection part are arranged respectively at both sides of socket faceplate, docking plug is provided with socket connecting cavity, and power plug and signal plug are arranged in socket connecting cavity, power plug is provided with power socket, signal plug is provided with signal socket, socket power pack is arranged on power socket, and socket signal component is arranged on signal socket, one end of power socket and signal socket is communicated to fixed connection part. The utility model prevents arc diffusion through modular cavity design, and multi-stage shielding system significantly reduces electromagnetic interference, and guarantees contact reliability during high -power transmission.

Description

Technical Field

[0001] This utility model relates to the field of electrical connection technology, and in particular to a new energy power socket connector. Background Technology

[0002] In the fields of new energy vehicles, energy storage systems, and high-power industrial equipment, the reliable transmission of high voltage and high current, and the stable interaction of high-speed data, place extremely high demands on power connectors. Traditional solutions typically separate power connectors from signal connectors. This discrete design not only occupies a significant amount of valuable installation space and increases the complexity and weight of the wiring harness in the vehicle or equipment, but also introduces higher contact resistance, failure points, and electromagnetic interference risks due to multiple mating connections and lengthy wiring. Under harsh conditions such as vibration and thermal shock, the connectors of discrete components are prone to loosening, leading to poor contact, arcing, and even overheating failure, seriously threatening system safety. Furthermore, the lack of effective integrated shielding design for power and signal paths easily causes crosstalk, affecting the transmission accuracy and reliability of critical signals such as those in the battery management system. Some existing integrated connectors attempt to combine the two, but they often have loose structures, low modularity, and suffer from problems such as insufficient shielding effectiveness, poor sealing performance, short mating life, and inconvenient maintenance and replacement.

[0003] Therefore, the market urgently needs a highly integrated, compact, and high-electromagnetic-compatibility hybrid power and signal connector that is easy to assemble and maintain, in order to meet the stringent requirements of electrical systems for power density, reliability and safety. Utility Model Content

[0004] To address the aforementioned issues, this utility model utilizes a modular cavity design to effectively prevent arc propagation, a multi-level shielding system to significantly reduce electromagnetic interference, and an elastic contact system to achieve dynamic pressure compensation, thus ensuring contact reliability during high-power transmission.

[0005] The technical solution adopted by this utility model is as follows: a new energy power socket connector, including a socket housing, a socket power component, and a socket signal component. The socket housing includes a socket panel, a mating plug, and a fixed connection part. The mating plug and the fixed connection part are respectively disposed on both sides of the socket panel. The mating plug is provided with a socket connection cavity. A power plug and a signal plug are disposed in the socket connection cavity. The power plug is provided with a power slot, and the signal plug is provided with a signal slot. The socket power component is disposed on the power slot, and the socket signal component is disposed on the signal slot. One end of both the power slot and the signal slot is connected to the fixed connection part.

[0006] A further improvement to the above solution is that the socket power assembly includes a fixing base, a connecting element, a connecting clamping element, and a shielding cover. The shielding cover is disposed outside the power plug, the connecting clamping element is disposed at the end of the connecting element, the fixing base is used to fix the connecting element to the power socket, the end of the power plug is provided with a mating slot, the mating slot is provided with abutment baffles on both sides, one end of the connecting clamping element abuts against the abutment baffles, and the connecting clamping element is provided with a contact clamping groove facing the mating slot.

[0007] A further improvement to the above solution is that the socket panel is provided with multiple panel fixing holes, and the panel fixing holes are provided with locking rings; the outer side of the socket panel near the fixing connection part is provided with a sealing groove, and the sealing groove is provided with a sealing element for sealing the fixing connection part during the installation of the socket panel.

[0008] A further improvement to the above solution is that the power plug is provided with a cover groove on its outside, a fastening groove is provided on one side of the cover groove and an elastic positioning groove is provided on the other side, a fixing buckle is provided at one end of the shield and a first contact spring is provided at the other end, the fixing buckle is used to fasten on the fastening groove, one end of the first contact spring extends to the elastic positioning groove, the first contact spring is provided with a contact protrusion, and one end of the contact protrusion is exposed outside the elastic positioning groove.

[0009] A further improvement to the above solution is that the end of the fastening groove is provided with a fastening slot, the fixing buckle is provided with a fastening hook, and the fastening hook is used to fasten onto the fastening slot; the shielding cover is provided with second contact springs on both sides, and the second contact springs are used for conductive connection when the contact object connector is plugged in; multiple fastening grooves and elastic positioning grooves are provided.

[0010] A further improvement to the above solution is that the socket connection cavity is provided with a recessed groove on the outer periphery of the power plug, and a positioning step is provided on the recessed groove. One end of the elastic positioning groove is connected to the recessed groove, and the positioning step is used for positioning the end face of the shielding cover.

[0011] A further improvement to the above solution is that a fixed mating groove is provided inside the fixed connection part, and a positioning keyway and a positioning slot are provided on the groove wall surface of the fixed mating groove. Positioning strips and positioning buckles are provided on both sides of the fixed seat. The positioning buckles are used to cooperate with the positioning slots, and the positioning strips are used to cooperate with the positioning keyway, so as to fix one end of the electrical component to the fixed connection part.

[0012] A further improvement to the above solution is that the fixing base consists of two opposing fixing structural members, and the two fixing structural members are provided with clamping and fixing grooves, which are used to clamp and fix one end of the electrical component.

[0013] A further improvement to the above solution is that the fixing structure is provided with a locking pin, the power connection element is provided with a locking slot, and the locking pin is used to be inserted into the locking slot to fix the power connection element.

[0014] A further improvement to the above scheme is that one end of the power receiving element is connected to the power receiving clamping element, and the other end is provided with a wiring part, wherein the wiring part is provided with a wiring ring.

[0015] A further improvement to the above scheme is that the power-connecting clamping element is composed of multiple mutually mirror-shaped S-shaped terminals, which are arranged vertically in a continuous manner.

[0016] A further improvement to the above solution is that the socket signal assembly includes a signal mounting base and a signal terminal. The signal mounting base is provided with mounting buckles on both sides, and the signal slot is provided with mounting slots on both sides. The mounting slots are used to cooperate with the mounting buckles to fix it in the signal slot. The signal terminal is disposed in the signal mounting base.

[0017] The beneficial effects of this utility model are: Compared to existing new energy connectors, this invention significantly improves the flexibility and maintainability of components through a modular structural design, including a socket housing, a socket power component, and a socket signal component. The socket housing maximizes space utilization through the ingenious layout of the socket panel, connector, and fixed connection, while ensuring the safety and stability of the electrical connection. The connector's built-in socket connection cavity cleverly integrates the power plug and signal plug; this integrated design not only simplifies the installation process but also effectively reduces external interference and improves the efficiency and reliability of data and power transmission. The power slot and signal slot are respectively adapted to the socket power component and socket signal component, ensuring precise energy and signal connection and further enhancing system compatibility and scalability. Crucially, one end of both the power slot and signal slot is cleverly connected to the fixed connection. This design not only optimizes the current and signal flow path and reduces losses but also facilitates seamless connection with external devices or systems, providing an efficient and stable electrical and signal interaction platform for new energy applications. This invention effectively prevents arc propagation through a modular cavity design, significantly reduces electromagnetic interference through a multi-level shielding system, and ensures contact reliability during high-power transmission through a flexible contact system that provides dynamic pressure compensation.

[0018] The mounting base of the power socket assembly, through its robust structural design, ensures that the connecting elements are precisely and securely fixed to the power socket, effectively preventing loosening due to vibration or external forces and guaranteeing the stability and safety of power transmission. The innovative application of the connecting clamping element, particularly the contact clamping groove at its end, which closely cooperates with the abutment baffles on both sides of the mating slot, not only achieves precise mating but also significantly increases the contact area for current transmission, reduces contact resistance, and thus improves energy transmission efficiency. Furthermore, this clamping design effectively resists the thermal effects caused by excessive current, extending the connector's lifespan. The shielding cover, acting as an external protective layer for the power plug, effectively isolates electromagnetic interference, protecting the internal circuitry from external signal interference and ensuring the stable operation of the new energy power socket connector in complex electromagnetic environments. This not only improves the overall electromagnetic compatibility of the system but also provides a solid guarantee for the reliable operation of new energy equipment. The application of the power socket assembly in new energy power socket connectors significantly improves connection stability, energy transmission efficiency, and electromagnetic compatibility performance, laying a solid foundation for reliable power supply and efficient utilization in the new energy field. Attached Figure Description

[0019] Figure 1 This is a three-dimensional schematic diagram of the new energy power socket connector of this utility model; Figure 2 for Figure 1 A three-dimensional schematic diagram of the Zhongxin Energy power socket connector from another perspective; Figure 3 for Figure 1 An exploded view of the power socket connector from China New Energy Technology Co., Ltd. Figure 4 for Figure 1 An exploded view of the Zhongxin Energy power socket connector from another perspective; Figure 5 for Figure 1 Internal structure diagram of the power socket connector from Zhongxin Energy; Figure 6 for Figure 1 A schematic diagram of the internal structure of the Zhongxin Energy power socket connector from another perspective; Figure 7 for Figure 1 An exploded view of the socket power assembly of the Zhongxin Energy power socket connector.

[0020] Explanation of reference numerals in the attached drawings: Socket housing 1, Socket panel 11, Panel fixing hole 111, Locking ring 112, Sealing groove 113, Seal 114, Connecting plug 12, Fixed connection part 13, Fixed mating groove 131, Positioning keyway 132, Positioning slot 133, Socket connecting cavity 14, Recessed groove 141, Positioning step 142, Power plug 15, Power slot 151, Abutting baffle 152, Covering slot 153, Snap-fit ​​groove 154, Snap-fit ​​slot 1541, Elastic positioning groove 155, Signal plug 16, Signal slot 161, Socket power supply Component 2, fixing base 21, positioning strip 211, positioning buckle 212, fixing structure 213, clamping fixing groove 214, locking pin 215, power connection element 22, locking slot 221, wiring part 222, wiring ring 223, power connection clamping element 23, contact clamping groove 231, S-shaped terminal 232, shielding cover 24, fixing buckle 241, fastening hook 2411, first contact spring 242, contact protrusion 2421, second contact spring 243, socket signal assembly 3, signal assembly base 31, assembly buckle 311, signal terminal 32. Detailed Implementation

[0021] To facilitate understanding of this utility model, a more complete description will be given below with reference to the accompanying drawings. Preferred embodiments of this utility model are shown in the drawings. However, this utility model can be implemented in many different forms and is not limited to the embodiments described herein. Rather, these embodiments are provided to provide a more thorough and complete understanding of the disclosure of this utility model.

[0022] It should be noted that when a component is said to be "fixed to" another component, it can be directly attached to the other component or there may be an intervening component. When a component is said to be "connected to" another component, it can be directly connected to the other component or there may be an intervening component.

[0023] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this invention pertains. The terminology used herein is for the purpose of describing particular embodiments only and is not intended to be limiting of the invention. Figures 1-7As shown, in one embodiment of this utility model, a new energy power socket connector is disclosed, including a socket housing 1, a socket power component 2, and a socket signal component 3. The socket housing 1 includes a socket panel 11, a mating plug 12, and a fixed connection part 13. The mating plug 12 and the fixed connection part 13 are respectively disposed on both sides of the socket panel 11. The mating plug 12 is provided with a socket connection cavity 14, and a power plug 15 and a signal plug 16 are disposed within the socket connection cavity 14. The power plug 15 is provided with a power slot 151, and the signal plug 16 is provided with a signal slot 161. The socket power component 2 is disposed on the power slot 151, and the socket signal component 3 is disposed on the signal slot 161. One end of both the power slot 151 and the signal slot 161 is connected to the fixed connection part 13. This embodiment, through a modular structural design including the socket housing 1, the socket power component 2, and the socket signal component 3, significantly improves the flexibility and maintainability of the components. The socket housing 1 maximizes space utilization through the ingenious layout of the socket panel 11, the docking plug 12, and the fixed connection part 13, while ensuring the safety and stability of the electrical connection. The socket connection cavity 14 built into the docking plug 12 cleverly integrates the power plug 15 and the signal plug 16. This integrated design not only simplifies the installation process but also effectively reduces external interference and improves the efficiency and reliability of data and power transmission. The power slot 151 and signal slot 161 are respectively adapted to the socket power component 2 and the socket signal component 3, ensuring precise energy and signal connection and further enhancing the system's compatibility and expandability. Importantly, one end of both the power slot 151 and the signal slot 161 is cleverly connected to the fixed connection part 13. This design not only optimizes the current and signal flow path and reduces losses but also facilitates seamless connection with external devices or systems, providing an efficient and stable electrical and signal interaction platform for new energy applications. The socket housing 1 is integrally molded from high-strength insulating material, and its structure includes a socket panel 11 with anti-slip texture and a docking plug 12 vertically connected to it. The plug section employs a compartmentalized design to physically isolate the power and signal channels, utilizing a multi-layered composite shielding structure. Internal contacts feature a flexible contact system and a progressive guiding structure. The power connection elements utilize a combination of irregularly shaped spring contacts, with a compact clamping mechanism ensuring contact stability. The shielding components provide full-coverage electromagnetic protection. The modular cavity design effectively prevents arc propagation, the multi-level shielding system significantly reduces electromagnetic interference, and the flexible contact system provides dynamic pressure compensation, ensuring contact reliability during high-power transmission.

[0024] The socket power assembly 2 includes a fixing base 21, a connecting element 22, a connecting clamping element 23, and a shielding cover 24. The shielding cover 24 is disposed outside the power plug 15. The connecting clamping element 23 is disposed at the end of the connecting element 22. The fixing base 21 is used to fix the connecting element 22 onto the power slot 151. The end of the power plug 15 is provided with a mating slot 151. Abutment baffles 152 are provided on both sides of the mating slot 151. One end of the connecting clamping element 23 abuts against the abutment baffles 152. The connecting clamping element 23 is provided with a contact clamping groove 231 facing the mating slot 151. In this embodiment, the fixing base 21 of the socket power assembly 2, through its robust structural design, ensures that the connecting element 22 can be accurately and reliably fixed onto the power slot 151, effectively preventing loosening of the connection due to vibration or external force, and ensuring the stability and safety of power transmission. The innovative application of the power clamping element 23, especially the contact clamping groove 231 at its end, which closely cooperates with the abutment baffles 152 on both sides of the mating slot 151, not only achieves precise mating but also greatly enhances the contact area for current transmission, reduces contact resistance, and thus improves energy transmission efficiency. Furthermore, this clamping design effectively resists the thermal effects caused by excessive current, extending the connector's lifespan. The shielding cover 24, as an external protective layer for the power plug 15, effectively isolates electromagnetic interference, protects the internal circuitry from external signal interference, and ensures the stable operation of the new energy power socket connector in complex electromagnetic environments. This not only improves the overall electromagnetic compatibility of the system but also provides a solid guarantee for the reliable operation of new energy equipment. The application of the socket power assembly 2 in the new energy power socket connector significantly improves connection stability, energy transmission efficiency, and electromagnetic compatibility performance, laying a solid foundation for reliable power supply and efficient utilization in the new energy field.

[0025] The socket panel 11 has multiple panel fixing holes 111, and each panel fixing hole 111 is equipped with a locking ring 112. A sealing groove 113 is provided on the outer side of the socket panel 11 near the fixed connection part 13, and a sealing element 114 is provided on the sealing groove 113 for sealing the fixed connection part 13 during socket panel 11 installation. In this embodiment, by carefully arranging multiple panel fixing holes 111 on the socket panel 11 and equipping it with locking rings 112, a stable and reliable connection between the socket panel 11 and the fixed connection part 13 is ensured, effectively improving the structural strength and stability of the entire connector and providing a solid foundation for the transmission of new energy power. Simultaneously, the cleverly designed sealing groove 113 on the outer side of the socket panel 11 near the fixed connection part 13 and the sealing element 114 installed thereon constitute a tight protective barrier. This design ensures a tight fit between the socket panel 11 and the fixed connection part 13 during installation, effectively isolating moisture, dust, and other impurities from the external environment. This prevents these impurities from corroding or interfering with the connector's internal structure, thus guaranteeing the good sealing performance and long-term reliability of the new energy power socket connector in complex and changing operating environments. The panel adopts a radial reinforcing rib structure, combined with a quick-locking mechanism with pre-tightening function. The sealing system integrates a pressure-activated sealing ring, achieving progressive compression through a multi-stage trapezoidal groove structure. The mounting surface is designed with a self-aligning guide slope, and the locking mechanism has a built-in anti-loosening device. The multi-layered composite sealing system ensures protection performance in harsh environments, the mechanical locking mechanism eliminates the risk of connection loosening, and the guiding structure improves assembly efficiency.

[0026] The power plug 15 has an externally provided cover slot 153. One side of the cover slot 153 has a fastening groove 154, and the other side has an elastic positioning groove 155. One end of the shielding cover 24 has a fixing buckle 241, and the other end has a first contact spring 242. The fixing buckle 241 is used to fasten onto the fastening groove 154. One end of the first contact spring 242 extends onto the elastic positioning groove 155 and has a contact protrusion 2421, one end of which is exposed outside the elastic positioning groove 155. In this embodiment, the shielding cover 24 adopts a segmented interlocking structure and is equipped with a self-adjusting contact mechanism. The buckle system integrates a fail-safe device, including redundant buckles and an audible and visual indicator assembly. The elastic positioning mechanism adopts a multi-directional buffer design, and the contact points use a composite plating process. The tolerance compensation structure improves the shielding integrity under different operating conditions, the intelligent locking mechanism prevents accidental detachment, and the wear self-compensation design extends service life.

[0027] The end of the locking groove 154 is provided with a locking slot 1541, and the fixing buckle 241 is provided with a locking hook 2411, which is used to lock onto the locking slot 1541. The shielding cover 24 has second contact springs 243 on both sides, which are used for conductive connection when the connector is inserted. Multiple locking grooves 154 and elastic positioning grooves 155 are provided. In this embodiment, the locking slot 1541 at the end of the locking groove 154 and the locking hook 2411 of the fixing buckle 241 closely cooperate, achieving a stable and reliable locking connection between the connector components, effectively preventing loosening of the connection due to vibration or external force, and enhancing the stability and durability of the connector. Simultaneously, the second contact springs 243 on both sides of the shielding cover 24 can quickly establish a conductive connection when the connector is inserted, ensuring stable signal transmission and efficient power supply. This flexible contact design not only enhances connection flexibility but also compensates for dimensional changes caused by manufacturing tolerances or thermal expansion to a certain extent, ensuring the continuous reliability of electrical contact. Furthermore, the multiple points of the engagement groove 154 and the flexible positioning groove 155 further improve the connector's structural strength and positioning accuracy, enabling the connector to maintain excellent connection performance and stability even in complex and changing installation environments.

[0028] A recessed groove 141 is provided on the outer periphery of the power plug 15 in the socket connection cavity 14. A positioning step 142 is provided on the recessed groove 141. One end of the elastic positioning groove 155 is connected to the recessed groove 141. The positioning step 142 is used for positioning the end face of the shield 24. In this embodiment, the recessed groove 141 design not only optimizes the spatial layout of the connector, but also provides a reliable positioning reference for the precise assembly of the shield 24. The positioning step 142 ensures that the end face of the shield 24 can accurately mate with the connector body, effectively improving the assembly accuracy and stability between components. In addition, the connection of one end of the elastic positioning groove 155 to the recessed groove 141 further enhances the reliability of the connector under complex working conditions such as vibration and impact. Through the flexible adaptation of the elastic positioning groove 155, the connector can maintain a stable electrical connection, effectively preventing poor contact problems caused by loosening.

[0029] A fixing groove 131 is provided within the fixing connection part 13. The groove wall of the fixing groove 131 is provided with a positioning keyway 132 and a positioning slot 133. Positioning strips 211 and positioning buckles 212 are provided on both sides of the fixing seat 21. The positioning buckles 212 engage with the positioning slot 133, and the positioning strips 211 engage with the positioning keyway 132, thereby fixing one end of the power-connecting element 22 to the fixing connection part 13. In this embodiment, the fixing groove 131 of the fixing connection part 13 achieves precise fixing of one end of the power-connecting element 22 through the positioning keyway 132 and positioning slot 133 on its groove wall. This design not only enhances the connection strength between the power-connecting element 22 and the fixing seat 21 but also effectively prevents loosening caused by vibration or external force. Simultaneously, the cleverly designed positioning strips 211 and positioning buckles 212 on both sides of the fixing seat 21 form a perfect engagement mechanism with the positioning keyway 132 and positioning slot 133. The positioning buckle 212 is precisely engaged in the positioning slot 133, ensuring the stability of the power-connecting component 22 in the vertical direction; while the positioning strip 211 is tightly embedded in the positioning keyway 132, further enhancing the fixing effect in the horizontal direction.

[0030] The mounting base 21 consists of two mating mounting structures 213. Each of the two mounting structures 213 has a clamping groove 214 positioned opposite each other to clamp and fix one end of the power connector 22. In this embodiment, the clamping grooves 214 on the two mounting structures 213 provide a stable and reliable clamping and fixing effect on one end of the power connector 22. This design not only ensures the precise positioning of the power connector 22 within the connector but also greatly enhances the stability of the connection, effectively preventing the power connector 22 from loosening or falling off due to external factors such as vibration and impact. Furthermore, the precise fit of the clamping grooves 214 improves the conductivity of the connection and reduces contact resistance, thereby ensuring the efficient and safe use of the new energy power socket connector.

[0031] The fixing structure 213 is provided with a locking pin 215, and the power receiving element 22 is provided with a locking slot 221. The locking pin 215 is inserted into the locking slot 221 to fix the power receiving element 22. In this embodiment, a stable connection between the power receiving element 22 and the socket connector is ensured. The precise insertion of the locking pin 215 into the locking slot 221 effectively prevents the connection from loosening or falling off due to vibration or external force, greatly improving the reliability and safety of the connector. In addition, this design also optimizes the ease of operation of the connector. The matching of the locking pin 215 and the locking slot 221 makes the fixing and unlocking process of the power receiving element 22 smoother and faster, allowing users to quickly complete the connection or disconnection operation when needed.

[0032] One end of the connecting element 22 is connected to the connecting clamping element 23, and the other end is provided with a wiring portion 222, which is provided with a wiring ring 223. In this embodiment, the stable connection between the connecting element 22 and the clamping element ensures high efficiency and safety of current transmission, effectively reduces contact resistance, reduces energy loss, and improves the overall system's power transmission efficiency. The specially designed wiring ring 223 in the wiring portion 222 not only facilitates quick and reliable connection of wires, but also enhances the flexibility and adaptability of the connection, enabling the new energy power socket connector to easily meet the needs of wires of different specifications and materials. In addition, the use of the wiring ring 223 simplifies the installation steps, shortens the construction period, and reduces installation costs.

[0033] The power clamping element 23 consists of multiple mutually mirrored S-shaped terminals 232, arranged vertically in a continuous sequence. In this embodiment, the vertically continuous arrangement of the S-shaped terminals 232 achieves efficient current transmission and stable clamping. The design of the S-shaped terminals 232 not only enhances the elasticity of the terminals but also improves their wear resistance and fatigue resistance during insertion and extraction, thereby ensuring the long-term reliable use of the connector. Furthermore, the mutually mirrored S-shaped terminal layout helps to evenly distribute the insertion and extraction forces, avoiding terminal deformation or damage caused by uneven force. This design also optimizes the connector's heat dissipation performance; by increasing the contact area and heat dissipation channels, it effectively reduces the temperature rise during operation, improving overall safety performance.

[0034] The socket signal assembly 3 includes a signal mounting base 31 and a signal terminal 32. The signal mounting base 31 has mounting buckles 311 on both sides, and the signal slot 161 has mounting grooves on both sides. The mounting grooves engage with the mounting buckles 311 to secure the connector within the signal slot 161. The signal terminal 32 is disposed within the signal mounting base 31. In this embodiment, the carefully designed mounting buckles 311 on both sides of the signal mounting base 31 precisely engage with the mounting grooves within the signal slot 161, achieving a stable mechanical connection. This effectively prevents loosening due to vibration or external forces, ensuring the long-term reliable operation of the new energy power socket connector under complex working conditions. Furthermore, the signal terminal 32 is cleverly integrated into the signal mounting base 31, optimizing the spatial layout and significantly reducing interference and loss during signal transmission, thereby improving signal clarity and transmission efficiency. This design helps the new energy power socket connector more accurately transmit control signals and power information, providing solid technical support for the stable operation of new energy equipment.

[0035] The above embodiments only illustrate several implementation methods of this utility model, and their descriptions are relatively specific and detailed, but they should not be construed as limiting the scope of this utility model patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this utility model, and these all fall within the protection scope of this utility model. Therefore, the protection scope of this utility model patent should be determined by the appended claims.

Claims

1. A new energy power socket connector, characterized in that: The device includes a socket housing, a socket power assembly, and a socket signal assembly. The socket housing includes a socket panel, a mating plug, and a fixed connection part. The mating plug and the fixed connection part are respectively disposed on both sides of the socket panel. The mating plug has a socket connection cavity, and a power plug and a signal plug are disposed within the socket connection cavity. The power plug has a power slot, and the signal plug has a signal slot. The socket power assembly is disposed on the power slot, and the socket signal assembly is disposed on the signal slot. One end of both the power slot and the signal slot is connected to the fixed connection part. The socket power assembly includes a mounting base, a connecting element, a connecting clamping element, and a shielding cover. The shielding cover is disposed outside the power plug. The connecting clamping element is disposed at the end of the connecting element. The mounting base is used to fix the connecting element to the power socket. The end of the power plug is provided with a mating slot. Abutment baffles are provided on both sides of the mating slot. One end of the connecting clamping element abuts against the abutment baffles. The connecting clamping element is provided with a contact clamping groove facing the mating slot.

2. The new energy power socket connector according to claim 1, characterized in that: The socket panel is provided with multiple panel fixing holes, and locking rings are provided in the panel fixing holes; a sealing groove is provided on the outer side of the socket panel near the fixing connection part, and a sealing element is provided in the sealing groove for sealing the fixing connection part during the installation of the socket panel.

3. The new energy power socket connector according to claim 1, characterized in that: The power plug has an external cover groove. One side of the cover groove has a fastening groove and the other side has an elastic positioning groove. One end of the shielding cover has a fixing buckle and the other end has a first contact spring. The fixing buckle is used to fasten into the fastening groove. One end of the first contact spring extends into the elastic positioning groove. The first contact spring has a contact protrusion. One end of the contact protrusion is exposed outside the elastic positioning groove.

4. The new energy power socket connector according to claim 3, characterized in that: The end of the fastening groove is provided with a fastening slot, and the fixing buckle is provided with a fastening hook. The fastening hook is used to fasten onto the fastening slot. The shielding cover is provided with second contact springs on both sides. The second contact springs are used for conductive connection when the contact object connector is plugged in. Multiple fastening grooves and elastic positioning grooves are provided.

5. The new energy power socket connector according to claim 4, characterized in that: The socket connection cavity is provided with a recessed groove on the outer periphery of the power plug. A positioning step is provided on the recessed groove. One end of the elastic positioning groove is connected to the recessed groove. The positioning step is used for positioning the end face of the shielding cover.

6. The new energy power socket connector according to claim 5, characterized in that: The fixed connection part is provided with a fixed mating groove, and the groove wall is provided with a positioning keyway and a positioning slot. The fixed base is provided with positioning strips and positioning buckles on both sides. The positioning buckles are used to mate with the positioning slots, and the positioning strips are used to mate with the positioning keyways, so as to fix one end of the electrical component to the fixed connection part.

7. The new energy power socket connector according to claim 1, characterized in that: The fixing base consists of two opposing fixing structural members, and the two fixing structural members are provided with clamping and fixing grooves, which are used to clamp and fix one end of the electrical component. The fixing structure is provided with a locking pin, and the power receiving element is provided with a locking slot. The locking pin is used to be inserted into the locking slot to fix the power receiving element.

8. The new energy power socket connector according to claim 1, characterized in that: One end of the power receiving element is connected to the power receiving clamping element, and the other end is provided with a wiring part, which is provided with a wiring ring.

9. The new energy power socket connector according to claim 1, characterized in that: The power-connecting clamping element consists of multiple mutually mirror-like S-shaped terminals, which are arranged vertically in a continuous manner.

10. The new energy power socket connector according to claim 1, characterized in that: The socket signal assembly includes a signal mounting base and a signal terminal. The signal mounting base has mounting buckles on both sides, and the signal slot has mounting slots on both sides. The mounting slots are used to engage with the mounting buckles to fix the signal in the signal slot. The signal terminal is disposed in the signal mounting base.

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