A liquid-electricity gas energy fast plug module

Abstract

The utility model discloses a kind of liquid electric energy fast plug module, belong to energy connection technical field.The liquid electric energy fast plug includes frame body, at least two function modules and latch, function module is detachably installed in frame body, function module is selected from at least two kinds in network transmission module, gas module, wireless transmission module, power pin module, signal pin module, the upper and lower ends of each function module are equipped with matched plug-in structure to realize liquid, electricity, gas or signal communication, latch is used for fixing function module position.The utility model realizes liquid electric fast supply and signal transmission by modularization design and quick plug-in structure, improves connection efficiency, and function module can be freely combined, compatibility and expansibility are enhanced, simultaneously, latch fixed guarantee connection stability, applicable to industrial equipment connection, detection equipment docking etc. Scene, solve the low connection efficiency of prior art, compatibility problem such as poor.

Description

Technical Field

[0001] This utility model belongs to the field of energy connection technology, and in particular relates to a hydraulic-electric energy quick-connect module. Background Technology

[0002] In industrial production, equipment testing, and other fields, there is often a need for rapid supply and transmission of liquids, electricity, and gases between devices, which may also involve the synchronous transmission of network or wireless signals. Currently available hydraulic, electrical, and gas power connection technologies mostly employ independent connection methods, meaning liquid, electrical, and gas connections are achieved through different interfaces and components. This has the following drawbacks: 1. Low connection efficiency: Each liquid, electrical, and gas interface must be connected individually, resulting in cumbersome procedures and significant time consumption, especially in scenarios requiring frequent equipment replacement or docking, severely impacting work efficiency. 2. Poor compatibility: Different devices use different specifications and models of liquid, electrical, and gas interfaces, making universal connections difficult. Multiple adapter interfaces are required, increasing equipment cost and operational complexity. 3. Insufficient functional expandability: Existing connection structures are mostly fixed designs, unable to flexibly combine different functional modules according to actual needs. For example, it is difficult to easily add network or wireless transmission functions, making it difficult to meet diverse usage requirements. 4. Poor Connection Stability: In the independent connection method, the connection status of each interface is independent of each other, which can easily lead to loosening or poor contact of individual interfaces, affecting the overall stability of energy and signal transmission, and potentially causing equipment failure or inaccurate test results. Therefore, there is an urgent need for an energy connection solution that can achieve rapid supply of hydraulic and electrical power, has good compatibility and functional expandability, and provides stable connection to solve the above-mentioned problems in the existing technology. Utility Model Content

[0003] The purpose of this utility model is to provide a quick-connect module for hydraulic and electrical power, enabling rapid supply of hydraulic and electrical energy, providing a rapid connection solution in the field of testing, and realizing modular assembly to improve connection efficiency, enhance compatibility and functional expandability, ensure connection stability, and solve the problems in the background technology.

[0004] To solve the above problems, this utility model provides the following technical solution: A quick-connect hydraulic-electric power module includes a frame, at least two functional modules, and pins. The functional modules are detachably installed in the frame and include at least two of the following: a network transmission module, a gas module, a wireless transmission module, a power pin module, and a signal pin module. Each functional module has a matching plug-in structure at its upper and lower ends, which is used to enable hydraulic, electrical, gas, or signal communication between adjacent functional modules. The pins are disposed on the frame or the functional modules to fix the position of the functional modules within the frame.

[0005] Preferably, the frame is made of metal or engineering plastic, and the frame is provided with a mounting groove that matches the shape of the functional module. The mounting groove is used to accommodate and position the functional module.

[0006] Preferably, the plug-in structure of the air module includes a protruding airway plug and a recessed airway socket, and a sealing ring is provided inside the airway plug and the airway socket. The sealing ring is made of nitrile rubber or fluororubber.

[0007] Preferably, the plug-in structure of the power pin module includes a conductive pin and a conductive hole, the conductive pin is made of alloy material, and the inner wall of the conductive hole is electroplated.

[0008] Preferably, the plug-in structure of the signal pin module includes a signal transmission pin and a signal receiving hole. The signal transmission pin is made of phosphor bronze, and the diameter of the signal receiving hole is adapted to the diameter of the signal transmission pin.

[0009] Preferably, the plug-in structure of the network transmission module includes a plug and a socket conforming to the RJ45 interface standard, and the socket is provided with a dust cover.

[0010] Preferably, the wireless transmission module is a Bluetooth module or a Wi-Fi module, and the plug-in structure of the wireless transmission module includes data transmission contacts for enabling data connection with other modules or devices.

[0011] Preferably, the pin is cylindrical or square in shape and made of metal or plastic, and the frame is provided with a pin hole that matches the pin.

[0012] The beneficial effects of this utility model are: through the quick plug-in design of each module, the connection of liquid, electricity, gas and signal can be completed at one time, without having to connect each interface one by one, which greatly reduces the steps and time of connection operation, realizes the rapid supply of liquid and electricity, and significantly improves the connection efficiency, especially suitable for scenarios that require frequent docking of equipment.

[0013] Adopting a modular design, each functional module can be freely combined according to actual needs, enabling flexible implementation of different functional combinations to meet diverse usage requirements. At the same time, the plug-in structure of each module adopts a unified specification design, which is compatible with the adapter interfaces of different devices, reducing the cost and complexity of device use.

[0014] The locking mechanism of the pins and the sealing and conductive / gas-conducting components in the plug-in structure of each module effectively prevent problems such as module loosening, gas leakage, and poor electrical / signal contact, ensuring the stability of liquid, electrical, gas, and signal transmission and reducing the probability of equipment failure and detection errors.

[0015] It is not only suitable for conventional industrial equipment connection scenarios, but also provides a fast connection solution for the testing field, which can meet the needs of testing equipment for fast and stable energy and signal connection, thus expanding its application areas. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the overall structure of this utility model; Figure 2 This is the front view of the present invention; Figure 3 This is a schematic diagram of the frame structure of this utility model. Detailed Implementation

[0017] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present utility model without creative effort are within the scope of protection of the present utility model.

[0018] like Figure 1-3 As shown, a quick-connect hydraulic-electric power module includes a frame 1, at least two functional modules, and pins 7. The functional modules are detachably installed within the frame 1 and include at least two of the following: a network transmission module 2, a pneumatic module 3, a wireless transmission module 4, a power pin module 5, and a signal pin module 6. Each functional module has matching plug-in structures at its upper and lower ends, which are used to achieve hydraulic, electrical, pneumatic, or signal communication between adjacent functional modules. Pins 7 are located on the frame 1 or the functional modules to fix their positions within the frame 1. The frame 1 is made of metal or engineering plastic and has mounting grooves adapted to the shape of the functional modules for accommodating and positioning them. The pneumatic module 3's plug-in structure includes a protruding pneumatic plug and a recessed pneumatic socket, both containing sealing rings made of nitrile rubber or fluororubber. The power pin module 5's plug-in structure includes conductive pins and conductive holes; the conductive pins are made of alloy material, and the inner wall of the conductive holes is electroplated. The signal pin module 6's connector structure includes a signal transmission pin and a signal receiving hole. The signal transmission pin is made of phosphor bronze, and the diameter of the signal receiving hole matches the diameter of the signal transmission pin. The network transmission module 2's connector structure includes a plug and socket conforming to the RJ45 interface standard, with a dust cover inside the socket. The wireless transmission module 4 is a Bluetooth or Wi-Fi module. The wireless transmission module 4's connector structure includes data transmission contacts for data connection with other modules or devices. The pin 7 has a cylindrical or square structure, made of metal or plastic, and the frame 1 has pin holes that mate with the pin 7.

[0019] As one possible implementation, the frame is a monolithic support structure made of high-strength metal or engineering plastic, possessing excellent load-bearing capacity and stability, used to accommodate and fix various functional modules. The network transmission module, pneumatic module, wireless transmission module, power pin module, and signal pin module are all independent modular structures. The external dimensions of each module are adapted to the mounting slots of the frame, allowing them to be embedded within the frame for fixation.

[0020] Each module has corresponding plug-in structures at its top and bottom, including a protruding plug and a recessed socket. The shape and size of the plug and socket are matched, and components for sealing and conducting / venting electricity are provided at corresponding positions on the plug and socket. Specifically, the plug and socket of the gas module have internal air channels and are equipped with sealing rings to ensure airtightness during gas transmission and prevent leakage. The plug and socket of the power pin module have conductive pins and conductive holes. The conductive pins are made of materials with excellent conductivity, such as copper alloy, and the inner walls of the conductive holes are gold-plated to reduce contact resistance and ensure stable power transmission. The plug and socket of the signal pin module have signal transmission pins and signal receiving holes, using high-precision manufacturing processes to ensure accurate signal transmission and low interference. The plugs and sockets of the network transmission module and the wireless transmission module have data transmission interfaces and corresponding contacts to achieve stable transmission of network and wireless signals. The pins are located on the side of the frame or at the edge of each module. After each module is embedded into the frame and the upper and lower parts are connected, the position of each module can be further fixed by inserting the pins to prevent the modules from loosening or shifting during use and to enhance the stability of the overall structure.

[0021] During use, select the required functional modules according to actual needs. For example, select the gas module for gas supply and gas signal transmission, the power supply module for power supply, the signal pin module or network transmission module for data signal transmission, and the wireless transmission module for wireless communication. Insert the selected modules one by one into the mounting slots of the frame, aligning them vertically. Then press down on the modules to insert the plugs of the upper modules into the sockets of the lower modules, completing the connection of the liquid, electrical, gas, and signal channels between the modules. Finally, insert the pins to secure each module. At this point, the entire hydraulic-electric quick-connect system can quickly establish gas, electrical, and liquid supply and corresponding signal transmission, achieving rapid connection between devices. Furthermore, by freely combining different functional modules within the frame, different functional combinations can be flexibly implemented according to different usage scenarios and needs. For example, combining only the power pin module and the gas module can achieve power and gas supply, or combining the power pin module, signal pin module, and network transmission module can achieve synchronous transmission of power, signals, and networks.

[0022] As one possible implementation, the hydraulic-electric quick-connect includes a frame 1, a network transmission module 2, a pneumatic module 3, a power pin module 5, a signal pin module 6, and a plug 7. The frame 1 is made of aluminum alloy and has four rectangular mounting slots, each measuring 10cm × 8cm × 5cm. The network transmission module 2 uses an RJ45 network interface module, with both the plug and socket at its top and bottom conforming to the RJ45 interface standard, and a dust cover is provided inside the socket. The pneumatic module 3 has an 8mm diameter air passage, and the sealing ring is made of nitrile rubber, providing good oil resistance and sealing performance. The power pin module 5 has a 2mm diameter conductive pin, a 15mm length, and a 0.5μm gold plating thickness on the inner wall of the conductive hole. The signal transmission pin of the signal pin module 6 is made of phosphor bronze, and the signal receiving hole has a 2.1mm diameter to ensure impedance matching for signal transmission. The plug 7 is a cylindrical structure with a 5mm diameter and a 30mm length, made of stainless steel. In industrial equipment assembly scenarios, it is necessary to achieve the transmission of network signals, gas, power, and control signals between devices. The network transmission module 2, gas module 3, power pin module 5, and signal pin module 6 are respectively embedded into the four mounting slots of the frame 1, aligning the plugs of each module with the corresponding sockets of the modules (or equipment interfaces) below. Press each module down until the plug is fully inserted into the socket. At this point, network signals are connected through the network transmission module 2, compressed air is transmitted through the air passage of the gas module 3 (with a sealing ring effectively preventing leakage), 220V AC power is transmitted through the power pin module 5, and control signals are transmitted through the signal pin module 6. Finally, the pins 7 are inserted into the pin holes on the side of the frame 1 to fix the position of each module, completing the connection. The entire connection process takes less than one minute, improving connection efficiency by more than 80% compared to traditional independent connection methods. Furthermore, during 8 hours of continuous operation, no gas leaks, power outages, or signal interference occurred, demonstrating excellent connection stability.

[0023] As one feasible implementation, the hydraulic-electric quick-connect assembly includes a frame 1, a gas module 3, a wireless transmission module 4, a power pin module 5, and a pin 7. The frame 1 is made of ABS engineering plastic and has three internal mounting slots, measuring 8cm × 6cm × 4cm. The gas module 3 has a 6mm diameter gas passage and a fluororubber sealing ring, suitable for high-temperature environments. The wireless transmission module 4 uses a Bluetooth 5.0 module with a transmission distance of up to 100m, supporting bidirectional data transmission. The power pin module 5 has conductive pins made of silver alloy, offering excellent conductivity, and the conductive hole has a 0.3μm gold plating thickness. The pin 7 is a square structure, measuring 4mm × 4mm × 25mm, made of plastic, and possesses a certain degree of elasticity for easy insertion and removal. In testing equipment docking scenarios, the testing instrument needs to achieve gas supply, wireless data transmission, and power supply with the tested equipment. The gas module 3, wireless transmission module 4, and power pin module 5 are embedded into the three mounting slots of the frame 1, and after vertical insertion, the pin 7 is inserted for fixation. During testing, high-pressure gas is input to the device under test through gas module 3, and the test data is transmitted to the testing instrument in real time through wireless transmission module 4. The operating power of the testing instrument is obtained from an external power source through power pin module 5. This connection method eliminates the need for laying data cables and gas pipes, making it suitable for environments with limited space at the testing site. Furthermore, the transmission rate of wireless transmission module 4 can reach 2Mbps, meeting the real-time transmission requirements of test data. Power transmission is stable, with no data loss and no power fluctuations during the testing process.

[0024] The above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention. For those skilled in the art, the present invention can have various modifications and variations; any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A liquid-electric power quick-connect module, characterized in that, The device includes a frame (1), at least two functional modules, and a pin (7). The functional modules are detachably installed inside the frame (1). The functional modules include at least two of the following: a network transmission module (2), a pneumatic module (3), a wireless transmission module (4), a power pin module (5), and a signal pin module (6). Each functional module has a matching plug-in structure at its upper and lower ends. The plug-in structure is used to realize the connection between adjacent functional modules by liquid, electricity, gas, or signal. The pin (7) is set on the frame (1) or the functional module to fix the position of the functional module inside the frame (1).

2. The hydraulic-electric power quick-connect module according to claim 1, characterized in that, The frame (1) is made of metal or engineering plastic. The frame (1) is provided with an installation slot that matches the shape of the functional module. The installation slot is used to accommodate and position the functional module.

3. The hydraulic-electric power quick-connect module according to claim 1, characterized in that, The plug-in structure of the gas module (3) includes a protruding airway plug and a recessed airway socket. A sealing ring is provided inside the airway plug and the airway socket. The sealing ring is made of nitrile rubber or fluororubber.

4. The hydraulic-electric power quick-connect module according to claim 1, characterized in that, The plug-in structure of the power pin module (5) includes a conductive pin and a conductive hole. The conductive pin is made of alloy material, and the inner wall of the conductive hole is electroplated.

5. A hydraulic-electric power quick-connect module according to claim 1, characterized in that, The plug-in structure of the signal pin module (6) includes a signal transmission pin and a signal receiving hole. The signal transmission pin is made of phosphor bronze, and the diameter of the signal receiving hole is adapted to the diameter of the signal transmission pin.

6. The hydraulic-electric power quick-connect module according to claim 1, characterized in that, The network transmission module (2) has a plug structure that conforms to the RJ45 interface standard, and the socket is provided with a dust cover.

7. The hydraulic-electric power quick-connect module according to claim 1, characterized in that, The wireless transmission module (4) is a Bluetooth module or a Wi-Fi module. The plug-in structure of the wireless transmission module (4) includes data transmission contacts for data connection with other modules or devices.

8. A hydraulic-electric power quick-connect module according to claim 1, characterized in that, The pin (7) is cylindrical or square in shape and made of metal or plastic. The frame (1) is provided with a pin hole that matches the pin (7).

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