Press fit assembly and assembly system

Abstract

The embodiment of the utility model provides a pressing assembly and an assembling system, and the pressing assembly comprises a stop block structure which is provided with a limiting groove matched with an electrode piece; the pressing block structure is connected with the stop block structure, and at least one end of the pressing block structure is provided with a sheet pressing piece corresponding to the limiting groove; wherein the pressing block structure is located at the first position, the stop block structure is located in the ammeter battery box, the sheet pressing piece abuts against the electrode piece, the pressing block structure moves towards the ammeter battery box to the second position, and part of the electrode piece is located in the installation groove. According to the technical scheme of the utility model, the stop block structure and the pressing block structure are utilized to realize the limiting and stable installation of the electrode piece, so that the whole assembly process is more reliable.

Description

Technical Field

[0001] The utility model relates to the technical field of assembling an electric meter battery box, and particularly relates to a pressing component and an assembling system. Background Art

[0002] At present, when assembling a negative electrode spring on an electric meter battery box, it is usually realized by a manual pressing method. The efficiency of manual pressing is low, and assembly errors are likely to occur, which limits the processing efficiency of the entire assembly line during the assembly line operation. Summary of the Utility Model

[0003] The utility model aims to at least solve the technical problem of too low manual assembly efficiency in the prior art or related technologies.

[0004] In view of this, an embodiment of the first aspect of the utility model provides a pressing component.

[0005] An embodiment of the second aspect of the utility model provides an assembling system.

[0006] In order to achieve the above object, an embodiment of the utility model provides a pressing component for an electric meter battery box. An installation groove for installing an electrode component is provided in the electric meter battery box. The pressing component is used to install the electrode component into the installation groove. The pressing component includes: a stop block structure, and a limiting groove adapted to the electrode component is provided on the stop block structure; a pressing block structure, which is connected to the stop block structure, and at least one end of the pressing block structure is provided with a pressing piece corresponding to the limiting groove; wherein, when the pressing block structure is in the first position, the stop block structure is located inside the electric meter battery box, the pressing piece abuts against the electrode component, and when the pressing block structure moves towards the electric meter battery box to the second position, a part of the electrode component is located in the installation groove.

[0007] According to the pressing component provided by the utility model, the electrode component can be accurately and stably installed into the installation groove of the electric meter battery box, manual intervention is reduced, the production efficiency is improved, and it is ensured that the electrode component will not shift or be damaged during the installation process. The pressing component of this solution realizes the limitation and stable installation of the electrode component by using the stop block structure and the pressing block structure, so that the entire assembly process is more reliable.

[0008] Specifically, the pressing component includes a stop block structure and a pressing block structure. The stop block structure is installed inside the electric meter battery box. At the beginning of the assembly process, the stop block structure ensures that the electrode component maintains an accurate position during the pressing process through the limiting groove on it, and prevents the electrode component from sliding or shifting laterally during the pressing process.

[0009] It can be understood that the electrode component is installed in the installation groove, and the limiting groove and the installation groove enclose a space for accommodating the electrode component. Among them, by precisely adapting the limiting groove to the electrode component, the electrode component can be firmly clamped into the groove to provide preliminary positioning.

[0010] In addition, one end of the briquetting structure is connected to the stopper structure, and a pressing piece is provided at the other end. Initially, the briquetting structure is in the first position, at a certain distance from the meter battery box, facilitating the placement of the electrode piece. The briquetting structure can gradually push the electrode piece from the limiting groove into the installation groove of the meter battery box. During the movement of the briquetting structure, the pressing piece abuts against the electrode piece, causing the electrode piece to gradually move into the installation groove. When the briquetting structure moves to the second position, the electrode piece can be accurately and stably pressed into the installation groove, thus completing the assembly.

[0011] It can be understood that the pressing piece is part of the briquetting structure, located at one end of the briquetting structure, corresponding to the position of the limiting groove. The pressing piece is fixed on the briquetting structure, facing the limiting groove on the stopper structure. In the initial state, the pressing piece abuts against the electrode piece, but no pressure is applied yet. The main function of the pressing piece is to gradually press the electrode piece into the installation groove when the briquetting structure moves. Its position and size are precisely designed to ensure uniform surface contact with the electrode piece and prevent deviation. The pressing piece can prevent the electrode piece from tilting or rotating during the pressing process, ensuring that the electrode piece can be installed into the meter battery box at the correct angle and position.

[0012] The limiting groove is located on the stopper structure, which can provide preliminary stable support before the electrode piece enters the pressing process, ensuring accurate positioning of the electrode piece during the assembly process and avoiding loosening or displacement during the initial assembly.

[0013] The briquetting structure moves from the initial first position to the second position near the meter battery box to complete the pressing action. The first position is the starting state of the pressing assembly, ensuring that the electrode piece can enter the limiting groove unobstructed. As the briquetting structure moves, the electrode piece is gradually guided into the installation groove. The second position is the final position of the pressing assembly, ensuring that the electrode piece is completely pressed into the installation groove and ensuring stable installation.

[0014] The entire solution realizes the precise and stable installation of the electrode piece through the combined design of the stopper and the briquetting structure. During the operation, the limiting groove of the stopper structure provides preliminary positioning and fixation, while the briquetting structure gradually presses the electrode piece into the installation groove in the meter battery box through its movement. The pressing piece plays a role of applying pressure and guiding in this process, preventing the electrode piece from shifting or deforming. Through this automated design, the installation efficiency is greatly improved, the dependence on manual labor is reduced, and at the same time, the installation accuracy and quality of the electrode piece are ensured.

[0015] In some technical solutions, optionally, it further includes: an elastic member, with both ends of the elastic member connected to the stopper structure and the briquetting structure respectively.

[0016] In this technical solution, one end of the elastic member is connected to the stopper structure, and the other end of the elastic member is connected to the pressing block structure, which can be fixed specifically by welding, bolts or other mechanical connection methods, ensuring that the elastic member can effectively transmit force during pressing. At the same time, through this connection, the movement of the pressing block structure can be adjusted by the characteristics of the elastic member.

[0017] In the initial state of the pressing assembly, the elastic member is in a relaxed state without external force applied. At this time, the distance between the pressing block structure and the stopper structure is relatively large, and the electrode member can be conveniently placed in the limiting groove. When the pressing block structure starts to move towards the second position, the elastic member is gradually stretched or compressed. The deformation of the elastic member will generate a certain reaction force, which will provide the necessary pressure during the pressing process to ensure that the electrode member can be smoothly pressed into the installation groove.

[0018] After the pressing action is completed, the force of the elastic member will maintain a certain degree of tension or compressive force to ensure the stability of the electrode member in the installation groove.

[0019] It should be emphasized that the elastic member can provide a soft and adjustable pressing force during the pressing process, avoiding direct hard pressing from damaging the electrode member. This buffering effect helps to protect the structure and function of the electrode member, especially in the case of fragile materials.

[0020] When the pressing block structure moves downward, the elastic member can absorb part of the impact force, prevent damage caused by rapid downward pressing, reduce the failure rate, and improve the qualification rate of the product.

[0021] The elastic member can quickly return to its initial state after the pressing is completed, ensuring an appropriate distance between the pressing block structure and the stopper structure for the next operation. This reset function enables the device to work quickly and repeatedly, improving the production efficiency.

[0022] During the pressing process, the presence of the elastic member can ensure the stability of the electrode member when it is pressed into the installation groove, reducing the risk of displacement and tilt, thereby improving the installation accuracy.

[0023] By introducing the elastic member, the overall performance of the pressing assembly has been significantly improved. The elastic member not only provides the necessary soft pressing force and impact absorption ability, but also ensures the stability and reliability of the device during high-frequency operation. This design enables the electrode member to complete the assembly with higher efficiency while ensuring accuracy, improving the automation level of the production line, and reducing the labor cost and operation risk.

[0024] In some technical solutions, optionally, it further includes: a driving cylinder, which is in transmission connection with the stopper structure, and the driving cylinder is used to drive the stopper structure to move to the first position or move to the second position.

[0025] In this technical solution, the driving cylinder is primarily used to power the movement of the stopper structure, enabling it to accurately move from the first position to the second position throughout the entire operation and achieve stable pressing operations. The driving cylinder is a power source component that uses compressed gas to push its piston rod to move, thereby transmitting mechanical force to drive the movement of the stopper structure. The driving cylinder is connected to the stopper structure in a transmission manner, and the power of the driving cylinder is usually transmitted to the stopper structure through a lever or direct connection. In the initial state of the driving cylinder, the piston rod is in the retracted position and the stopper structure is in the first position.

[0026] The driving cylinder can push or pull the stopper structure to accurately move it between the first position and the second position, thereby completing the displacement control during the pressing operation. As the driving cylinder is activated, the stopper structure can move between the first position and the second position.

[0027] The power of the driving cylinder can directly act on the block structure, pushing or pulling the block structure to move on the guide rail, and the entire pressing assembly can accurately complete the positioning and installation of the electrode part.

[0028] The transmission connection system is precisely designed to ensure that the block structure will not get stuck or deviate during movement, thereby enhancing the reliability of the assembly process.

[0029] In some technical solutions, optionally, a plurality of parallel battery compartments are provided in the battery box of the electric meter, and each battery compartment is used to place a battery; wherein, a mounting groove is provided at the same end of the plurality of battery compartments, and a pressing piece is provided at one end of the pressing block structure, or, the mounting grooves are provided at different ends of the plurality of battery compartments, and pressing pieces are provided at both ends of the pressing block structure.

[0030] In this technical solution, the meter battery box is designed to include multiple parallel battery compartments, each for a single battery. Mounting slots are provided at the same or different ends of these compartments. A press-fit assembly securely secures the batteries in these compartments into the mounting slots within the meter battery box. This design flexibility allows the press block structure to adapt to different battery compartment configurations, enabling efficient mass production and assembly.

[0031] The meter battery box is equipped with multiple parallel battery compartments, each for placing one battery. This design allows multiple batteries to be processed simultaneously, improving production efficiency. The parallel arrangement makes the assembly process more orderly and facilitates the operation of robots or automated equipment.

[0032] Mounting grooves are provided at the same end or different ends of multiple battery compartments for fixing the batteries. If the mounting grooves are provided at the same end, all battery compartments can receive the action of the pressing block during the assembly process. If the mounting grooves are provided at different ends, pressing pieces are provided at both ends of the pressing block structure, and different battery compartments can be pressed respectively. Under the action of the mounting grooves, the stability of the batteries in the battery compartments can be ensured, preventing the batteries from loosening or falling off during use.

[0033] The design of the mounting grooves at different ends enables the pressing assembly to flexibly adapt to different battery compartment configurations, increasing the versatility of the device.

[0034] Pressing pieces are provided at one end or both ends of the pressing block structure, specifically depending on the position of the mounting groove. When the pressing block structure moves towards the meter battery box, the pressing pieces will apply uniform pressure to firmly press the battery into the mounting groove.

[0035] Through the flexible design of the pressing block structure, it can adapt to a variety of battery compartment configurations to ensure that each battery can be effectively installed.

[0036] If pressing pieces are provided at both ends of the pressing block structure, multiple battery compartments can be pressed simultaneously in this way, improving the assembly efficiency.

[0037] When the mounting grooves are provided at the same end, the movement of the pressing block can act on all battery compartments simultaneously, simplifying the assembly process. The operator or mechanical equipment only needs to complete the pressing of all batteries at one time, further improving the efficiency.

[0038] When the mounting grooves are provided at different ends, it allows for flexible handling of the battery compartments. Pressing pieces are provided at both ends of the pressing block structure, which can independently press different battery compartments, adapt to different battery types or specifications, and increase the applicable range of the device.

[0039] In some technical solutions, optionally, a bayonet structure is provided at one end of the mounting groove. When the pressing block structure moves to the second position, the electrode component is located within the bayonet structure.

[0040] In this technical solution, the bayonet structure is located at one end of the mounting groove of the meter battery box and is used to fix the electrode component in the mounting groove after it is fully pressed. The bayonet structure provides a locking point. After the electrode component is pressed into the mounting groove, the bayonet structure will hold the electrode component to prevent it from loosening or moving out of the mounting groove. Among them, the bayonet structure can be in the shape of a groove or a buckle.

[0041] It can be understood that the bayonet structure can provide additional anti-vibration and anti-loosening functions. Especially when the battery device needs to withstand external impacts or vibrations, the electrode component can still maintain a stable installation position.

[0042] When the briquetting structure moves from the first position to the second position, its movement pushes the electrode part to gradually enter the installation groove from the limit groove. Eventually, the electrode part will move to the bayonet structure of the installation groove and be embedded therein.

[0043] The movement of the briquetting structure gradually transforms the electrode part from a preliminary positioning (in the limit groove) to a final fixation (inside the bayonet structure). Through this gradual pressing-in process, the electrode part can be accurately embedded into the bayonet structure.

[0044] The downward pressing action of the briquetting structure ensures that the electrode part can remain stable during the pressing-in process, avoiding skewing of the electrode part or damage to the bayonet due to uneven pressing force.

[0045] When the briquetting structure reaches the second position, the electrode part is firmly located inside the bayonet structure and the installation is completed. At this time, the briquetting structure stops moving to ensure that the electrode part is completely locked.

[0046] The movement of the briquetting structure precisely controls the depth of the electrode part entering the bayonet, ensuring that the electrode part can be stably snapped in without damaging the electrode part or the meter battery box due to excessive force.

[0047] The electrode part gradually enters the installation groove under the push of the pressing piece and is finally embedded inside the bayonet structure. This positional relationship ensures that the electrode part can be accurately aligned with the bayonet and smoothly embedded under the push of the briquetting structure.

[0048] The electrode part and the bayonet structure cooperate with each other to enable automatic alignment and locking during the installation process. The mechanical locking function provided by the bayonet structure keeps the electrode part in a firm assembled state in the meter battery box. After the electrode part is snapped into the bayonet structure, the entire pressing and installation process is completed. The electrode part no longer requires additional fixing measures because the bayonet structure can provide sufficient fixing force to prevent the electrode part from loosening.

[0049] An embodiment of the second aspect of the present application provides an assembly system, including: a frame body, a transmission device is provided on the frame body, and the transmission device is used to transport the meter battery box along the second direction; any one of the above pressing assemblies is provided on the frame body.

[0050] According to the assembly system provided by the present application, including a frame body, a transmission device and a pressing assembly, the assembly system realizes the automated process of meter battery box assembly through the close combination of the frame body, the transmission device and the pressing assembly. The meter battery box moves along a predetermined direction through the transmission device and, under the action of the pressing assembly, the electrode part is accurately assembled into the meter battery box. The automated design of the system reduces the errors of manual operation and improves the production efficiency and assembly accuracy.

[0051] The frame is the basic framework of the system, and both the transmission device and the pressing component are installed on the frame. The size and structural design of the frame should be based on the production line requirements to provide sufficient strength and stability.

[0052] The transmission device is used to move the meter battery box from one station to the next and perform continuous transportation in the second direction. The second direction is usually along the horizontal direction of the production line.

[0053] The transmission device can be a conveyor belt, a roller, or other types of conveying devices, depending on the production requirements and system design. The transmission device ensures that the meter battery box moves at a predetermined speed and direction throughout the production process, enabling the meter battery box to automatically move from the previous process to below the pressing component and be ready for the pressing and assembly of the electrode parts.

[0054] The speed and running time of the transmission device can be adjusted through the control system to ensure coordination with the working rhythm of the pressing component.

[0055] The pressing component is a key part in the system and is used to precisely press and install the electrode parts into the installation slots of the meter battery box. Among them, the position of the pressing component is set above the frame, directly facing the position of the meter battery box on the transmission device.

[0056] The pressing component is fixed at the upper position of the frame and is perpendicular to the transmission device. After the meter battery box moves to the specified position through the transmission device, the pressing component performs the pressing operation. The pressing component is responsible for the precise installation of the electrode parts in the meter battery box. It includes a stop block structure and a pressing block structure to ensure that the electrode parts do not deviate and are accurately positioned in the installation slots of the meter battery box. Through the action of the pressing component, the electrode parts can be pressed within a short time, which helps to improve the working efficiency of the assembly line.

[0057] Due to the sensor and positioning functions of the pressing component, it can ensure that each pressing of the electrode parts is accurate in place, and there will be no situation of incomplete pressing or assembly failure.

[0058] The pressing component and the transmission device work together in the assembly system to ensure that the meter battery box is accurately positioned below the pressing component before the assembly operation. The transmission device is responsible for moving the meter battery box from the initial position to below the pressing component. After the sensor detects that the meter battery box reaches the correct position, the pressing component starts to press down for the installation of the electrode parts. This coordinated cooperation ensures the precise positioning of the meter battery box, enabling the pressing component to accurately apply pressure and install the electrode parts accurately into the meter battery box. The synchronous control between the pressing component and the transmission device ensures high efficiency and accuracy throughout the assembly process, avoiding assembly errors or stagnation caused by timing problems.

[0059] The conveyor moves the meter battery packs in a second direction (typically the direction of the production line). The conveyor is arranged horizontally within the frame, moving the meter battery packs from one workstation to the next along this second direction. The press assembly is located above a specific position on the conveyor. This direction of movement can be linear or tailored to the specific needs of the production line. The design of the transport direction ensures that the meter battery packs can pass smoothly through each processing and assembly station.

[0060] Since the assembly system includes any of the above-mentioned press-fit components, it has the beneficial effects of any of the above-mentioned press-fit components, which will not be described in detail here.

[0061] In some technical solutions, optionally, it also includes: a positioning block, which is arranged on one side of the transmission device in the third direction, and the positioning block is arranged on the frame; a positioning cylinder, which is transmission-connected to the positioning block, and the positioning cylinder is used to drive the positioning block to reciprocate along the third direction; wherein the third direction, the second direction and the first direction are perpendicular to each other.

[0062] In this technical solution, by introducing a positioning block and a positioning cylinder, the system can better ensure that the meter battery pack remains correctly positioned during transportation, preventing deviation during the pressing operation. Specifically, the positioning block is a component fixed to the side of the conveyor, specifically to the side of the conveyor in the third direction. The positioning block is designed to contact the edge of the meter battery pack to limit lateral movement during transportation.

[0063] The positioning stop ensures that the meter battery box does not shift on the conveyor and remains on the set track by providing a physical boundary.

[0064] This limiting effect effectively prevents the meter battery pack from shifting due to vibration or other factors before entering the press-fit assembly, ensuring the accuracy of the press-fit process. The positioning cylinder is a pneumatic device connected to the positioning block. The positioning cylinder is pneumatically driven, allowing the positioning block to reciprocate rapidly as needed to position the meter battery pack in place when it arrives.

[0065] The third direction, perpendicular to both the second direction (the direction of transport of the meter battery pack) and the first direction (the vertical direction of the press-fit assembly), typically defines the direction of motion of the positioning stop. The third direction allows the positioning stop to achieve precise positioning without interfering with the normal transport of the meter battery pack.

[0066] Due to the perpendicular relationship between the second direction and the third direction, the movement of the positioning block will not affect the transportation route of the meter battery box, which helps to maintain the smoothness of the production line.

[0067] By introducing a positioning stop block and a positioning cylinder, the positioning accuracy of the meter battery box in the assembly system has been significantly improved. The positioning stop block effectively restricts the lateral movement of the meter battery box, ensuring its accurate placement under the pressing assembly, while the positioning cylinder provides dynamic positioning capabilities, enabling the system to adapt to the requirements of different meter battery boxes. This design combines precise mechanical motion and pneumatic control, providing a more reliable solution for the automated assembly of meter battery boxes, thereby enhancing production efficiency and product quality.

[0068] In some technical solutions, optionally, it further includes: a positioning sensor disposed on the frame, and the positioning sensor is used to determine whether there is a meter battery box at the assembly position of the transmission device.

[0069] In this technical solution, by setting a positioning sensor on the frame, the assembly system can achieve real-time detection of the meter battery box, ensuring that each meter battery box can reach under the pressing assembly at the right time. Specifically, the positioning sensor is a detection device that can detect in real time whether there is a meter battery box on the transmission device, and usually uses an optoelectronic sensor, a proximity sensor or other types of sensors.

[0070] The main function of the positioning sensor is to detect the presence of the meter battery box and feedback the detection result to the control system to determine whether the next operation (such as pressing) can be performed. Through real-time detection, the positioning sensor can prevent the pressing assembly from performing a pressing operation when there is no meter battery box, thereby avoiding damage to the equipment and electrode parts.

[0071] The positioning sensor works in coordination with other components such as the transmission device, the positioning stop block, and the positioning cylinder to form an automated assembly chain. The sensor is connected to the control system and can send data in real time, affecting subsequent actions (such as the movement of the cylinder).

[0072] When the positioning sensor detects the presence of the meter battery box, the system can activate the positioning cylinder to drive the positioning stop block for positioning so that the meter battery box can accurately reach under the pressing assembly.

[0073] If the sensor detects the absence of the meter battery box, the system will automatically pause or issue an alarm to avoid unnecessary mechanical movement and reduce the risk of failure.

[0074] In some technical solutions, optionally, the positioning stop block specifically includes: a first stop block disposed on one side of the transmission device in the third direction; wherein, when the first stop block moves to the first limit position, a part of the first stop block is located on one side of the meter battery box in the second direction.

[0075] In this technical solution, the positioning stop block includes a first stop block, which is a component fixed beside the transmission device and is specifically used to limit the movement of the meter battery box to ensure its accurate positioning when entering the pressing assembly. Specifically, the first stop block is installed on one side of the transmission device in the third direction. When the first stop block moves to the first limit position, part of the stop block will be located on one side of the meter battery box in the second direction, forming a stable boundary to ensure that the meter battery box will not shift during transportation. The design of the first stop block enables the meter battery box to be accurately aligned with the position of the pressing assembly, avoiding tilting or deviation caused by transportation and ensuring the smooth progress of subsequent pressing operations.

[0076] It can be understood that the first limit position is the movable boundary of the first stop block to ensure its stability during operation. The first limit position is set at the end of the movement trajectory of the first stop block to ensure that the meter battery box can accurately touch it when arriving.

[0077] When the meter battery box touches the first stop block, the first stop block can effectively limit its position to ensure its correct positioning under the pressing assembly. This design ensures that each meter battery box docks with the pressing assembly at the appropriate time, improving the efficiency and accuracy of assembly.

[0078] The introduction of the first stop block provides an effective positioning means for the assembly system to ensure the stability of the meter battery box during transportation. Through the set first limit position, the first stop block can accurately limit the position of the meter battery box, improving the accuracy and reliability of the subsequent pressing process. This design optimizes the assembly process and helps to improve the overall production efficiency.

[0079] In some technical solutions, optionally, the positioning stop block specifically includes: a second stop block, which is arranged on the other side of the transmission device in the third direction; wherein, when the second stop block moves to the second limit position, in the second direction, part of the second stop block is located on one side of the meter battery box, and part of the second stop block is located on the other side of the meter battery box.

[0080] In this technical solution, the second stop block is installed on the other side of the transmission device in the third direction and acts together with the first stop block to limit the lateral movement of the meter battery box. When the second stop block moves to the second limit position, part of it will be located on one side of the meter battery box, and the other part will be located on the other side of the meter battery box, forming an effective boundary to ensure that the meter battery box will not shift during transportation.

[0081] The second limit position is the movable boundary of the second stop block to ensure its stability during operation.

[0082] The second limit position is set at the end of the movement trajectory of the second stop block to ensure that the meter battery box can accurately contact the stop block when arriving.

[0083] When the meter battery box arrives, the second stop block can effectively limit its position, enabling the meter battery box to be precisely aligned below the pressing assembly. This limiting function, in cooperation with the first stop block, ensures that the meter battery box is effectively supported in two directions, enhancing the stability and accuracy of the assembly.

[0084] The design of the second stop block, combined with the first stop block, provides two-way positioning support for the assembly system, ensuring the stability of the meter battery box during transportation. Through the set second limit position, the second stop block can effectively limit the position of the meter battery box, improving the precision and reliability of the pressing process. This dual-stop-block design optimizes the assembly process of the meter battery box and enhances the overall production efficiency.

[0085] In some technical solutions, optionally, it further includes: a blocking cylinder disposed on the frame body, with a blocking block provided at one end of the blocking cylinder, and the blocking cylinder is disposed on one side of the conveying device in the third direction; a blocking sensor correspondingly arranged with the blocking cylinder, and the blocking sensor is used to determine whether there is a meter battery box at the material separation position of the conveying device; wherein, on the conveying device, the meter battery box first passes through the material separation position and then passes through the assembly position.

[0086] In this technical solution, a blocking cylinder and a blocking sensor are provided. The blocking cylinder is an actuator that controls the position of the blocking block through the telescopic movement of the cylinder. The blocking cylinder is installed on the frame body and is located on one side of the conveying device. The main function of the blocking cylinder is to block and position the meter battery box during the conveying process. When the meter battery box reaches the material separation position, the blocking cylinder extends the blocking block to prevent the meter battery box from moving forward, ensuring that the meter battery box stays at the material separation position. The action of the blocking cylinder can be coordinated with the operation of the conveying device to achieve precise material separation and positioning of the meter battery box, preparing for subsequent assembly operations.

[0087] Through the control of the blocking cylinder, the chaos and collision of the meter battery box during the conveying process can be avoided, improving the stability and reliability of the system.

[0088] The blocking sensor is a detection element used to detect whether there is a meter battery box at the material separation position of the conveying device. The blocking sensor is installed at a position corresponding to the blocking cylinder and can accurately detect the object in front of the blocking block. The role of the blocking sensor is to detect in real time whether there is a meter battery box at the material separation position. When the sensor detects the meter battery box, it will send a signal to the control system, and the control system controls the action of the blocking cylinder according to the signal.

[0089] The presence of the blocking sensor ensures that the system can accurately judge the position of the meter battery box, avoiding unnecessary blocking actions in the absence of a meter battery box, and improving the efficiency and accuracy of the system.

[0090] The blocking cylinder and the blocking sensor are located on one side of the transmission device in the third direction, perpendicular to the transmission direction of the transmission device.

[0091] The setting of the third direction enables the blocking cylinder and the blocking sensor to effectively block and detect the meter battery box without interfering with the normal operation of the transmission device.

[0092] By controlling in the third direction, precise material separation and positioning of the meter battery box can be achieved, ensuring the accuracy and stability of the meter battery box during transmission.

[0093] It should be emphasized that the material separation position refers to the position where the meter battery box needs to be separated and positioned during transmission, and the assembly position refers to the position where the meter battery box is assembled.

[0094] On the transmission device, the meter battery box first passes through the material separation position and then through the assembly position. The setting of the material separation position enables the meter battery box to be separated and positioned orderly during transmission, providing accurate position information for subsequent assembly operations. The determination of the assembly position ensures that the meter battery box is assembled at the correct position, guaranteeing the accuracy and quality of the assembly.

[0095] The reasonable layout of the material separation position and the assembly position enables the entire assembly process to be carried out efficiently and accurately, improving production efficiency and product quality.

[0096] The combined use of the blocking cylinder and the blocking sensor realizes the precise control and positioning of the transmission of the meter battery box. Through the blocking function of the blocking cylinder and the detection function of the blocking sensor, the system can accurately separate the meter battery box to the designated position and perform precise assembly operations at the assembly position. This automated control method improves the efficiency and accuracy of the assembly system, reduces manual intervention, and ensures the quality and consistency of the assembly of the meter battery box. At the same time, the setting of the third direction and the reasonable layout of the material separation position and the assembly position make the structure of the system more compact and reasonable, improving the overall performance of the system.

[0097] In some technical solutions, optionally, it further includes: a protective cover sleeved on the frame body, and the pressing component is arranged inside the protective cover.

[0098] In this technical solution, the protective cover is a protective structure sleeved outside the frame body, which is used to surround the entire pressing assembly to form a closed or semi-closed working area. The main function of the protective cover is to protect the operator from mechanical injuries generated by the pressing assembly during operation, and to avoid potential dangers caused by the movement of the pressing block or other components to personnel. During the assembly process, the processing of the meter battery box or the electrode component may generate tiny dust or debris. The protective cover can effectively isolate these debris and prevent them from spreading into the workshop environment, keeping the working environment clean. The protective cover can also protect key equipment such as the pressing assembly from external environmental pollution (such as dust, liquid, etc.), thereby extending the service life of the equipment and reducing the maintenance cost.

[0099] The protective cover can be made of transparent or semi-transparent materials so that the operator can observe the internal operation conditions.

[0100] In some technical solutions, optionally, it further includes: an electric control device, which is arranged on the frame body, and the electric control device is electrically connected to the transmission device, the driving cylinder, the positioning cylinder, the positioning sensor, the blocking cylinder and the blocking sensor.

[0101] In this technical solution, the electric control device is the control core of the entire assembly system. The electric control device is installed on the frame body and is connected to components such as the transmission device, the driving cylinder, the positioning cylinder, the positioning sensor, the blocking cylinder and the blocking sensor through cables.

[0102] The electric control device receives signals from each sensor, and according to the preset program and logic, controls the actions of actuators such as the transmission device, the driving cylinder, the positioning cylinder, and the blocking cylinder, so as to realize operations such as the transmission, positioning and pressing of the meter battery box.

[0103] The transmission device is installed on the frame body and is connected to the electric control device through a cable. The motor and the reducer drive the conveyor belt to rotate, and transfer the meter battery box from one station to another station. The electric control device can control the speed and start / stop of the transmission device to realize the automatic transmission of the meter battery box, improving the production efficiency and consistency.

[0104] The electric control device can control the pressure and speed of the driving cylinder to realize the precise pressing of the electrode component, ensuring the pressing quality and consistency.

[0105] The electric control device can control the pressure and speed of the positioning cylinder to realize the rapid positioning and fixing of the meter battery box, improving the production efficiency and accuracy.

[0106] The function of the positioning sensor is to detect the position of the meter battery box and provide an accurate feedback signal to the electric control device to ensure the accuracy and consistency of the meter battery box during the pressing process.

[0107] The electronic control device controls the operation of the positioning cylinder according to the signal of the positioning sensor, realizes the accurate positioning and fixation of the meter battery box, and improves the production efficiency and accuracy.

[0108] The electronic control device can control the pressure and speed of the blocking cylinder, realize the rapid blocking and release of the meter battery box, and improve the production efficiency and accuracy.

[0109] The function of the blocking sensor is to detect the position of the blocking cylinder, provide an accurate feedback signal for the electronic control device, and ensure the stability and consistency of the meter battery box during the pressing process.

[0110] The electronic control device controls the operation of the blocking cylinder according to the signal of the blocking sensor, realizes the accurate blocking and release of the meter battery box, and improves the production efficiency and accuracy.

[0111] Among them, the electronic control device usually includes components such as a programmable logic controller (PLC), a human-machine interface (HMI), sensors and actuators.

[0112] Through the electrical connection of the electronic control device with components such as the transmission device, the driving cylinder, the positioning cylinder, the positioning sensor, the blocking cylinder and the blocking sensor, the assembly system realizes the automatic control and coordinated operation of the system. The electronic control device can detect the operating state of the system in real time, diagnose and alarm faults, and improve the reliability and safety of the system. Through the human-machine interface, the operator can conveniently set and adjust the parameters of the system, monitor the operation of the system, and realize the intelligent and user-friendly operation of the system.

[0113] The additional aspects and advantages of the present utility model will become apparent in the following description section or be understood through the practice of the present utility model. BRIEF DESCRIPTION OF THE DRAWINGS

[0114] Figure 1 Shows a schematic structural diagram of a pressing assembly according to an embodiment of the present utility model;

[0115] Figure 2 Shows an expanded structural diagram of a pressing block structure according to an embodiment of the present utility model;

[0116] Figure 3 Shows a schematic structural diagram of a pressing assembly according to an embodiment of the present utility model;

[0117] Figure 4 Shows a schematic structural diagram of a pressing assembly according to an embodiment of the present utility model;

[0118] Figure 5 Shows a schematic structural diagram of a meter battery box according to an embodiment of the present utility model;

[0119] Figure 6 The structural schematic diagram of an electrode component according to an embodiment of the present utility model is shown;

[0120] Figure 7 The structural schematic diagram of an assembly system according to an embodiment of the present utility model is shown;

[0121] Figure 8 The structural schematic diagram of an assembly system according to an embodiment of the present utility model is shown;

[0122] Figure 9 The structural schematic diagram of the assembly structure of a stop block structure and an elastic member according to an embodiment of the present utility model is shown;

[0123] Figure 10 The structural schematic diagram of a protective cover according to an embodiment of the present utility model is shown;

[0124] Figure 11 The structural schematic diagram of an electricity meter battery box according to an embodiment of the present utility model is shown;

[0125] Figure 12 The structural schematic diagram of an electricity meter battery box according to an embodiment of the present utility model is shown;

[0126] Figure 13 The structural schematic diagram of an electricity meter battery box according to an embodiment of the present utility model is shown.

[0127] Among them, Figures 1 to 13 The corresponding relationship between the reference numerals and the component names in the figure is as follows:

[0128] 100: Pressing assembly; 102: Stop block structure; 1022: Limiting groove; 104: Pressing block structure; 1042: Pressing piece; 106: Elastic member; 108: Driving cylinder; 110: Bayonet structure;

[0129] 200: Assembly system; 202: Frame; 204: Transmission device; 206: Positioning stop block; 2062: First stop block; 2064: Second stop block; 208: Positioning cylinder; 210: Positioning sensor; 212: Blocking cylinder; 2122: Blocking block; 214: Blocking sensor; 216: Protective cover; 218: Electric control device; a: Material separation position; b: Assembly position; c: First limiting position; d: Second limiting position;

[0130] 500: Electricity meter battery box; 502: Installation groove; 504: Electrode component; 506: Battery compartment. Detailed implementation manners

[0131] In order to more clearly understand the above-mentioned objects, features, and advantages of the embodiments of the present utility model, the embodiments of the present utility model will be further described in detail below in conjunction with the accompanying drawings and specific implementation manners. It should be noted that, without conflict, the embodiments of the present application and the features in the embodiments can be combined with each other.

[0132] In the following description, many specific details are set forth in order to fully understand the present application. However, the embodiments of the present utility model can also be implemented in other ways different from those described herein. Therefore, the protection scope of the present application is not limited to the limitations of the specific embodiments disclosed below.

[0133] The following refers to Figures 1 to 13 Describe some embodiments according to the present utility model.

[0134] As Figure 4 and Figure 7 shown, this embodiment provides a pressing assembly 100, so that the electrode member 504 as Figure 6 shown can be accurately and stably installed into the installation groove 502 of the meter battery box 500, reducing manual intervention, improving production efficiency, and ensuring that the electrode member 504 will not shift or be damaged during the installation process. The pressing assembly 100 of this solution realizes the limiting and stable installation of the electrode member 504 by using the stopper structure 102 and the pressing block structure 104, thus making the entire assembly process more reliable.

[0135] Specifically, the pressing assembly 100 includes a stopper structure 102 and a pressing block structure 104. The stopper structure 102 is installed inside the meter battery box 500. At the beginning of the assembly process, the stopper structure 102 ensures that the electrode member 504 maintains an accurate position during the pressing process through the limiting groove 1022 thereon, preventing the electrode member 504 from sliding or shifting laterally during the pressing process.

[0136] It can be understood that, as Figure 5 shown, the electrode member 504 is installed into the installation groove 502. The limiting groove 1022 and the installation groove 502 enclose a space for accommodating the electrode member 504. Among them, by precisely adapting the limiting groove 1022 to the electrode member 504, the electrode member 504 can be firmly snapped into the groove to provide preliminary positioning.

[0137] Among them, the structure of the meter battery box 500 is as Figure 11 , Figure 12 and Figure 13 shown.

[0138] In addition, as Figure 2 and Figure 3As shown, one end of the pressing block structure 104 is connected to the stop block structure 102, and a pressing piece 1042 is provided at the other end. Initially, the pressing block structure 104 is in the first position, at a certain distance from the meter battery box 500, facilitating the placement of the electrode member 504. The pressing block structure 104 can gradually push the electrode member 504 from the limiting groove 1022 into the installation groove 502 of the meter battery box 500. During the movement of the pressing block, the pressing piece 1042 abuts against the electrode member 504, causing the electrode member 504 to gradually move into the installation groove 502. When the pressing block structure 104 moves to the second position, the electrode member 504 can be accurately and stably pressed into the installation groove 502, thus completing the assembly.

[0139] It can be understood that the pressing piece 1042 is a part of the pressing block structure 104, located at one end of the pressing block structure 104, corresponding to the position of the limiting groove 1022. The pressing piece 1042 is fixed on the pressing block structure 104, facing the limiting groove 1022 on the stop block structure 102. In the initial state, the pressing piece 1042 abuts against the electrode member 504, but no pressure is applied yet. The main function of the pressing piece 1042 is to gradually press the electrode member 504 into the installation groove 502 when the pressing block structure 104 moves. Its position and size are precisely designed to ensure uniform contact with the surface of the electrode member 504 without deviation. The pressing piece 1042 can prevent the electrode member 504 from tilting or rotating during the pressing process, ensuring that the electrode member 504 can be installed into the meter battery box 500 at the correct angle and position. <(

[0140] The limiting groove 1022 is located on the stop block structure 102, which can provide preliminary stable support before the electrode member 504 enters the pressing process, ensuring accurate positioning of the electrode member 504 during the assembly process and avoiding loosening or displacement during the initial assembly.

[0141] The pressing block structure 104 moves from the initial first position to the second position near the meter battery box 500 to complete the pressing action. The first position is the starting state of the pressing assembly 100, ensuring that the electrode member 504 can enter the limiting groove 1022 without obstruction. As the pressing block structure 104 moves, the electrode member 504 is gradually guided into the installation groove 502. The second position is the final position of the pressing assembly 100, ensuring that the electrode member 504 is completely pressed into the installation groove 502 to ensure stable installation.

[0142] Through the combined design of the stopper structure and the pressing block structure, the entire solution realizes the precise and stable installation of the electrode component 504. During the operation, the limiting groove 1022 of the stopper structure 102 provides preliminary positioning and fixation, while the pressing block structure 104 gradually presses the electrode component 504 into the installation groove 502 in the meter battery box 500 through its movement. The pressing piece 1042 plays a role in pressing and guiding during this process, preventing the electrode component 504 from shifting or deforming. Through this automated design, the installation efficiency is greatly improved, the dependence on manual labor is reduced, and at the same time, the installation accuracy and quality of the electrode component 504 are ensured.

[0143] In some embodiments, optionally, as Figure 1 and Figure 9 shown, one end of the elastic member 106 is connected to the stopper structure 102, and the other end of the elastic member 106 is connected to the pressing block structure 104, which can be specifically fixed by welding, bolts or other mechanical connection methods, ensuring that the elastic member 106 can effectively transmit force during pressing. At the same time, through this connection, the movement of the pressing block structure 104 can be adjusted by the characteristics of the elastic member 106.

[0144] In the initial state of the pressing assembly 100, the elastic member 106 is in a relaxed state without external force applied. At this time, the distance between the pressing block structure 104 and the stopper structure 102 is relatively large, and the electrode component 504 can be conveniently placed in the limiting groove 1022. When the pressing block structure 104 starts to move towards the second position, the elastic member 106 is gradually stretched or compressed. The deformation of the elastic member 106 will generate a certain reaction force, which will provide the necessary pressure during the pressing process to ensure that the electrode component 504 can be smoothly pressed into the installation groove 502.

[0145] After the pressing action is completed, the force of the elastic member 106 will maintain a certain degree of tension or compression force to ensure the stability of the electrode component 504 in the installation groove 502.

[0146] It should be emphasized that the elastic member 106 can provide a soft and adjustable pressing force during the pressing process, avoiding direct hard pressing from damaging the electrode component 504. This buffering effect helps to protect the structure and function of the electrode component 504, especially in the case of fragile materials.

[0147] When the pressing block structure 104 moves downward, the elastic member 106 can absorb part of the impact force, prevent damage caused by rapid downward pressing, reduce the failure rate, and improve the qualified rate of the product.

[0148] The elastic member 106 can quickly return to its initial state after the pressing is completed, ensuring an appropriate distance between the pressing block structure 104 and the stopper structure 102 for the next operation. This reset function enables the device to quickly repeat the work and improves the production efficiency.

[0149] During the pressing process, the presence of the elastic member 106 can ensure that the electrode member 504 remains stable when pressed into the installation groove 502, reducing the risk of displacement and tilting, thereby improving the installation accuracy.

[0150] The introduction of elastic member 106 significantly improves the overall performance of press-fit assembly 100. It not only provides the necessary gentle pressing force and shock absorption, but also ensures stability and reliability during high-frequency operation. This design enables electrode assembly 504 to be assembled with greater efficiency while maintaining precision, improving the automation level of the production line and reducing labor costs and operational risks.

[0151] In some embodiments, optionally, a driving cylinder 108 is provided, which is mainly used to provide power for the movement of the block structure 102, so that it can accurately move from the first position to the second position during the entire operation and achieve a stable pressing operation. The driving cylinder 108 is a power source component that pushes its piston rod to move by compressed gas, thereby transmitting mechanical force to drive the movement of the block structure 102. The driving cylinder 108 is connected to the block structure 102 in a transmission manner, and the power of the driving cylinder 108 is usually transmitted to the block structure 102 by a lever or a direct connection. In the initial state of the driving cylinder 108, the piston rod is in a retracted position, and the block structure 102 is in the first position.

[0152] The driving cylinder 108 can accurately move the stopper structure 102 between the first position and the second position by pushing or pulling the stopper structure 102, thereby completing the displacement control in the pressing operation. With the action of the driving cylinder 108, the stopper structure 102 can move between the first position and the second position.

[0153] The power of the driving cylinder 108 can directly act on the block structure 102 to push or pull the block structure 102 to move on the guide rail, and the entire pressing assembly 100 can accurately complete the positioning and installation of the electrode member 504.

[0154] The transmission connection system is precisely designed to ensure that the block structure 102 will not get stuck or deviate during movement, thereby enhancing the reliability of the assembly process.

[0155] The overall working process is as follows: The operator or automatic device places the electrode part 504 near the installation slot 502 in the meter battery box 500, and the electrode part 504 enters the limiting slot 1022 of the stop structure 102. The initial positioning of the stop structure 102 is carried out. At this time, the stop structure 102 is in the first position, and the limiting slot 1022 has clamped the electrode part 504. The driving cylinder 108 is in the initial retracted state, and the pressing piece 1042 has not applied pressure yet. Through the control system, the driving cylinder 108 pushes the stop structure 102 to move from the first position to the second position.

[0156] As the stop structure 102 moves, the pressing piece 1042 on the pressing block structure 104 gradually contacts the electrode part 504 and applies pressure. The pressing piece 1042 pushes the electrode part 504 from the limiting slot 1022 into the installation slot 502 of the meter battery box 500 to complete the pressing action.

[0157] After the electrode part 504 is successfully installed in the meter battery box 500, the driving cylinder 108 resets the stop structure 102 to the first position to prepare for the next pressing operation.

[0158] The introduction of the driving cylinder 108 greatly improves the automation degree of the entire pressing device, enables the pressing process to proceed continuously and stably, reduces manual intervention, and significantly improves the production efficiency.

[0159] In some embodiments, optionally, the meter battery box 500 is designed to include a plurality of battery compartments 506 arranged in parallel. Each battery compartment 506 is used to place a battery. At the same end or different ends of these battery compartments 506, there are installation slots 502. Through the pressing assembly 100, the batteries in the plurality of battery compartments 506 are firmly installed in the installation slots 502 in the meter battery box 500. The design flexibility enables the pressing block structure 104 to adapt to different battery compartment 506 configurations, thus realizing efficient mass production and assembly.

[0160] There are a plurality of battery compartments 506 arranged in parallel in the meter battery box 500. Each battery compartment 506 is used to place a battery. This design allows multiple batteries to be processed simultaneously, improving the production efficiency. The parallel arrangement makes the assembly process more orderly and facilitates the operation of the manipulator or automatic equipment.

[0161] Installation slots 502 are provided at the same end or different ends of the plurality of battery compartments 506 for fixing the batteries. If the installation slots 502 are provided at the same end, all the battery compartments 506 can receive the action of the pressing block simultaneously during the assembly process. If the installation slots 502 are provided at different ends, pressing pieces 1042 are provided at both ends of the pressing block structure 104, which can press different battery compartments 506 respectively. Under the action of the installation slots 502, the stability of the batteries in the battery compartments 506 can be ensured, preventing the batteries from loosening or falling off during use.

[0162] The installation grooves 502 on different ends are designed so that the pressing assembly 100 can flexibly adapt to different battery compartment 506 configurations, increasing the versatility of the device.

[0163] One or both ends of the pressing block structure 104 are provided with pressing pieces 1042, specifically depending on the position of the installation groove 502. When the pressing block structure 104 moves towards the meter battery box 500, the pressing pieces 1042 will apply uniform pressure to firmly press the battery into the installation groove 502.

[0164] Through the flexible design of the pressing block structure 104, it can adapt to a variety of battery compartment 506 configurations to ensure that each battery can be effectively installed.

[0165] If both ends of the pressing block structure 104 are provided with pressing pieces 1042, multiple battery compartments 506 can be pressed simultaneously in this way, improving the assembly efficiency.

[0166] In the case where the installation grooves 502 are provided at the same end, the movement of the pressing block can act on all battery compartments 506 simultaneously, simplifying the assembly process. The operator or mechanical equipment only needs to complete the pressing of all batteries at one time, further improving the efficiency.

[0167] In the case where the installation grooves 502 are provided at different ends, it allows for flexible handling of the battery compartments 506. Both ends of the pressing block structure 104 have pressing pieces 1042, which can independently press different battery compartments 506, adapt to different battery types or specifications, and increase the applicable range of the device.

[0168] In some embodiments, optionally, the bayonet structure 110 is located at one end of the installation groove 502 of the meter battery box 500, and is used to fix the electrode member 504 in the installation groove 502 after it is completely pressed in. The bayonet structure 110 provides a locking point. After the electrode member 504 is pressed into the installation groove 502, the bayonet structure 110 will catch the electrode member 504 to prevent it from loosening or moving out of the installation groove 502. Among them, the bayonet structure 110 can be in the shape of a groove or a buckle.

[0169] It can be understood that the bayonet structure 110 can provide additional anti-vibration and anti-loosening functions. Especially when the battery device needs to withstand external impacts or vibrations, the electrode member 504 can still maintain a stable installation position.

[0170] When the pressing block structure 104 moves from the first position to the second position, its movement pushes the electrode member 504 to gradually enter the installation groove 502 from the limiting groove 1022. Eventually, the electrode member 504 will move to the bayonet structure 110 of the installation groove 502 and be embedded therein.

[0171] The movement of the briquetting structure 104 gradually transforms the electrode member 504 from a preliminary positioning (in the limit groove 1022) to a final fixation (within the bayonet structure 110). Through this progressive pressing-in process, the electrode member 504 can be accurately inserted into the bayonet structure 110.

[0172] The downward movement of the briquetting structure 104 ensures that the electrode member 504 can remain stable during the pressing-in process, avoiding skew of the electrode member 504 or damage to the bayonet due to uneven pressing force.

[0173] When the briquetting structure 104 reaches the second position, the electrode member 504 is firmly located within the bayonet structure 110 and the installation is completed. At this time, the briquetting structure 104 stops moving to ensure that the electrode member 504 is fully locked.

[0174] The movement of the briquetting structure 104 precisely controls the depth of the electrode member 504 entering the bayonet, ensuring that the electrode member 504 can be stably snapped in without damaging the electrode member 504 or the meter battery box 500 due to excessive force.

[0175] The electrode member 504 gradually enters the installation groove 502 under the push of the pressing piece 1042 and finally is inserted into the bayonet structure 110. This positional relationship ensures that the electrode member 504 can be precisely aligned with the bayonet and smoothly inserted under the push of the briquetting structure 104.

[0176] The electrode member 504 and the bayonet structure 110 cooperate with each other to enable automatic alignment and locking during the installation process. The mechanical locking effect provided by the bayonet structure 110 keeps the electrode member 504 in a firm assembled state in the meter battery box 500. After the electrode member 504 is snapped into the bayonet structure 110, the entire pressing and installation process is completed. The electrode member 504 no longer requires additional fixing measures because the bayonet structure 110 can provide sufficient fixing force to prevent the electrode member 504 from loosening.

[0177] This cooperative design can ensure the assembly efficiency and stability, reducing problems such as poor electrical contact that may be caused by loosening of the electrode member 504.

[0178] By providing the bayonet structure 110 at one end of the installation groove 502, the electrode member 504 can be firmly inserted into the bayonet after being pressed into the installation groove 502, providing a more stable fixing effect. Especially in the case of vibrations or physical impacts that the battery may experience during long-term use, it can effectively prevent the electrode member 504 from loosening.

[0179] The cooperation between the bayonet structure 110 and the briquetting structure 104 further simplifies the assembly process. The operator only needs to place the electrode member 504 into the limit groove 1022, and the briquetting structure 104 automatically completes the entire process from positioning to pressing into the bayonet. This design reduces the need for manual adjustment and greatly improves the automation efficiency.

[0180] On the other hand, the present application provides an assembly system 200, including a frame body 202, a transmission device 204 and a pressing assembly 100. Through the close combination of the frame body 202, the transmission device 204 and the pressing assembly 100, an automated process for assembling the meter battery box 500 is achieved. The meter battery box 500 moves along a predetermined direction through the transmission device 204, and under the action of the pressing assembly 100, the electrode member 504 is accurately assembled into the meter battery box 500. The automated design of the system reduces the error of manual operation and improves the production efficiency and assembly accuracy.

[0181] The frame body 202 is the basic framework of the system, and the transmission device 204 and the pressing assembly 100 are both installed on the frame body 202. The size and structural design of the frame body 202 should be based on the requirements of the production line to provide sufficient strength and stability.

[0182] The transmission device 204 is used to move the meter battery box 500 from one station to the next station and perform continuous transportation along the second direction. The second direction is usually along the horizontal direction of the production line.

[0183] The transmission device 204 can be a conveyor belt, a roller or other types of conveying devices, depending on the production requirements and system design. The transmission device 204 ensures that the meter battery box 500 moves at a predetermined speed and direction throughout the production process, enabling the meter battery box 500 to automatically move from the previous process to below the pressing assembly 100 for the pressing and assembly of the electrode member 504.

[0184] The speed and running time of the transmission device 204 can be adjusted through a control system to ensure coordination with the working rhythm of the pressing assembly 100.

[0185] The pressing assembly 100 is a key component in the system and is used to accurately press and install the electrode member 504 into the installation groove 502 of the meter battery box 500. Among them, the position of the pressing assembly 100 is set above the frame body 202, directly facing the position of the meter battery box 500 on the transmission device 204.

[0186] The pressing assembly 100 is fixed at the upper position of the frame body 202 and is perpendicular to the transmission device 204. After the meter battery box 500 moves to the designated position through the transmission device 204, the pressing assembly 100 performs a pressing operation. The pressing assembly 100 is responsible for the accurate installation of the electrode member 504 in the meter battery box 500. It includes a stop block structure 102 and a pressing block structure 104 to ensure that the electrode member 504 does not deviate and is accurately positioned in the installation groove 502 of the meter battery box 500. Through the action of the pressing assembly 100, the electrode member 504 can be pressed in a short time, which helps to improve the working efficiency of the assembly line.

[0187] Due to the sensor and positioning functions of the pressing assembly 100, it can ensure that each pressing of the electrode member 504 is accurate and in place, and there will be no situation of incomplete pressing or assembly failure.

[0188] The pressing assembly and the transfer device 204 work together in the assembly system 200 to ensure that the meter battery box 500 is accurately positioned below the pressing assembly 100 before the assembly operation. The transfer device 204 is responsible for moving the meter battery box 500 from the initial position to below the pressing assembly 100. After the sensor detects that the meter battery box 500 reaches the correct position, the pressing assembly 100 starts to press down to install the electrode member 504. This coordinated cooperation ensures the accurate positioning of the meter battery box 500, so that the pressing assembly 100 can accurately apply pressure and install the electrode member 504 accurately into the meter battery box 500. The synchronous control between the pressing assembly 100 and the transfer device 204 ensures high efficiency and accuracy in the entire assembly process, and avoids assembly errors or stagnation caused by timing problems.

[0189] The transfer device 204 moves the meter battery box 500 in the second direction (usually the production line direction). The transfer device 204 is horizontally arranged in the frame 202, and the meter battery box 500 moves from one station to the next along the second direction. The pressing assembly 100 is located above a specific position of the transfer device 204. The movement in this direction can be linear or appropriately adjusted according to the special requirements of the production line. The design of the transportation direction ensures that the meter battery box 500 can smoothly pass through each processing and assembly station.

[0190] Since the assembly system 200 includes any of the above embodiments of the pressing assembly 100, it has the beneficial effects of any of the above pressing assemblies 100, which will not be elaborated here.

[0191] In some embodiments, optionally, as Figure 1 shown, the positioning stopper 206 and the positioning cylinder 208 are introduced, and the system can better ensure that the meter battery box 500 maintains the correct positioning during the transfer process and prevent deviation during the pressing operation. Specifically, the positioning stopper 206 is a component fixed beside the transfer device 204, specifically located on one side of the transfer device 204 in the third direction. The position of the positioning stopper 206 is designed to contact the edge of the meter battery box 500 to limit the lateral movement of the meter battery box 500 during transportation.

[0192] The positioning stopper 206 provides a physical boundary to ensure that the meter battery box 500 does not shift on the transfer device 204 and remains on the set track.

[0193] This restrictive function can effectively prevent the position deviation of the meter battery box 500 caused by vibration or other factors before it enters the pressing assembly 100, ensuring the accuracy of the pressing process. The positioning cylinder 208 is a pneumatic device connected to the positioning block 206. The positioning cylinder 208 is pneumatically driven to enable the positioning block 206 to perform rapid reciprocating motion as needed, so as to perform positioning in a timely manner when the meter battery box 500 arrives.

[0194] The third direction is perpendicular to the second direction (the transportation direction of the meter battery box 500) and the first direction (the vertical direction of the pressing assembly 100), and is usually used to define the movement direction of the positioning block 206. The design of the third direction enables the positioning block 206 to achieve precise positioning without interfering with the normal transportation of the meter battery box 500.

[0195] Due to the perpendicular relationship between the second direction and the third direction, the movement of the positioning block 206 will not affect the transportation route of the meter battery box 500, which helps to maintain the smoothness of the production line.

[0196] By introducing the positioning block 206 and the positioning cylinder 208, the positioning accuracy of the meter battery box 500 in the assembly system 200 has been significantly improved. The positioning block 206 effectively restricts the lateral movement of the meter battery box 500 to ensure its accurate placement under the pressing assembly 100, while the positioning cylinder 208 provides dynamic positioning capabilities, enabling the system to adapt to the needs of different meter battery boxes 500. This design combines precise mechanical motion and pneumatic control, providing a more reliable solution for the automated assembly of the meter battery box 500, thereby improving production efficiency and product quality.

[0197] In some embodiments, optionally, a positioning sensor 210 is provided on the frame 202, and the assembly system 200 can realize real-time detection of the meter battery box 500 to ensure that each meter battery box 500 can reach under the pressing assembly 100 at an appropriate time. Specifically, the positioning sensor 210 is a detection device that can detect in real time whether there is a meter battery box 500 on the transmission device 204, and usually uses an optoelectronic sensor, a proximity sensor or other types of sensors.

[0198] The main function of the positioning sensor 210 is to detect the presence of the meter battery box 500 and feedback the detection result to the control system to determine whether the next operation (such as pressing) can be performed. Through real-time detection, the positioning sensor 210 can prevent the pressing assembly 100 from performing a pressing operation in the absence of the meter battery box 500, thereby avoiding damage to the equipment and the electrode member 504.

[0199] The positioning sensor 210 works in cooperation with other components such as the transmission device 204, the positioning stop 206, and the positioning cylinder 208 to form an automated assembly chain. The sensor is connected to the control system and can send data in real time, affecting subsequent actions (such as the movement of the cylinder).

[0200] When the positioning sensor 210 detects the presence of the meter battery box 500, the system can activate the positioning cylinder 208 to drive the positioning stop 206 for positioning so that the meter battery box 500 can accurately reach below the pressing assembly 100.

[0201] If the sensor detects the absence of the meter battery box 500, the system will automatically pause or issue an alarm to avoid unnecessary mechanical movement and reduce the risk of failure.

[0202] In some embodiments, optionally, as Figure 1 shown, the positioning stop 206 includes a first stop 2062 which is a component fixed beside the transmission device 204 and is specifically used to restrict the movement of the meter battery box 500 to ensure its accurate positioning when entering the pressing assembly 100. Specifically, the first stop 2062 is installed on one side of the transmission device 204 in the third direction. As Figure 1 shown, when the first stop 2062 moves to the first limit position c, part of the stop will be located on one side of the meter battery box 500 in the second direction, forming a stable boundary to ensure that the meter battery box 500 will not shift during transportation. The design of the first stop 2062 enables the meter battery box 500 to be accurately aligned with the position of the pressing assembly 100, avoiding tilting or deviation caused by transportation and ensuring the smooth progress of subsequent pressing operations.

[0203] It can be understood that the first limit position c is the movable boundary of the first stop 2062 to ensure its stability during operation. The first limit position c is set at the end of the movement trajectory of the first stop 2062 to ensure that the meter battery box 500 can accurately touch it when arriving.

[0204] When the meter battery box 500 contacts the first stop 2062, the first stop 2062 can effectively restrict its position to ensure correct positioning below the pressing assembly 100. This design ensures that each meter battery box 500 is docked with the pressing assembly 100 at the appropriate time, improving the efficiency and accuracy of assembly.

[0205] The introduction of the first stop 2062 provides an effective positioning means for the assembly system 200 to ensure the stability of the meter battery box 500 during transportation. Through the set first limit position c, the first stop 2062 can accurately restrict the position of the meter battery box 500, improving the accuracy and reliability of the subsequent pressing process. This design optimizes the assembly process and helps to improve the overall production efficiency.

[0206] In some embodiments, optionally, the second stopper 2064 is installed on the other side of the transmission device 204 in the third direction and acts together with the first stopper 2062 to limit the lateral movement of the meter battery box 500. When the second stopper 2064 moves to the second limit position d, a part of it will be located on one side of the meter battery box 500, and the other part will be located on the other side of the meter battery box 500, forming an effective boundary to ensure that the meter battery box 500 does not shift during transportation.

[0207] The second limit position d is the movable boundary of the second stopper 2064 to ensure its stability during operation.

[0208] The second limit position d is set at the end of the movement trajectory of the second stopper 2064 to ensure that the meter battery box 500 can accurately contact the stopper when it arrives.

[0209] When the meter battery box 500 arrives, the second stopper 2064 can effectively limit its position, so that the meter battery box 500 is accurately aligned below the pressing assembly 100. This limiting effect cooperates with the first stopper 2062 to ensure that the meter battery box 500 is effectively supported in two directions, improving the stability and accuracy of the assembly.

[0210] The design of the second stopper 2064 combined with the first stopper 2062 provides two-way positioning support for the assembly system 200 to ensure the stability of the meter battery box 500 during transportation. Through the set second limit position, the second stopper 2064 can effectively limit the position of the meter battery box 500, improving the accuracy and reliability of the pressing process. This double-stopper design optimizes the assembly process of the meter battery box 500 and improves the overall production efficiency.

[0211] In some embodiments, optionally, a blocking cylinder 212 and a blocking sensor 214 are provided. The blocking cylinder 212 is an actuator that controls the position of the blocking block 2122 through the telescopic action of the cylinder. The blocking cylinder 212 is installed on the frame 202 on one side of the transmission device 204. The main function of the blocking cylinder 212 is to block and position the meter battery box 500 during the transmission process. As Figure 7 shown, when the meter battery box 500 reaches the material separation position a, the blocking cylinder 212 extends the blocking block 2122 to prevent the meter battery box 500 from moving forward, ensuring that the meter battery box 500 stays at the material separation position a. The action of the blocking cylinder 212 can be coordinated with the operation of the transmission device 204 to achieve accurate material separation and positioning of the meter battery box 500, preparing for subsequent assembly operations.

[0212] By controlling the blocking cylinder 212, the chaos and collision of the meter battery box 500 during transmission can be avoided, improving the stability and reliability of the system.

[0213] The blocking sensor 214 is a detection component used to detect whether the meter battery box 500 exists at the material separation position a on the transmission device 204. The blocking sensor 214 is installed at a position corresponding to the blocking cylinder 212 and can accurately detect the object in front of the blocking block 2122. The function of the blocking sensor 214 is to detect in real time whether there is a meter battery box 500 at the material separation position a. When the sensor detects the meter battery box 500, it will send a signal to the control system, and the control system will control the action of the blocking cylinder 212 according to the signal.

[0214] The presence of the blocking sensor 214 ensures that the system can accurately judge the position of the meter battery box 500, avoiding unnecessary blocking actions in the absence of the meter battery box 500 and improving the efficiency and accuracy of the system.

[0215] The blocking cylinder 212 and the blocking sensor 214 are located on one side of the transmission device 204 in the third direction and are perpendicular to the transmission direction of the transmission device 204.

[0216] The setting of the third direction enables the blocking cylinder 212 and the blocking sensor 214 to effectively block and detect the meter battery box 500 without interfering with the normal operation of the transmission device 204.

[0217] By controlling in the third direction, precise material separation and positioning of the meter battery box 500 can be achieved, ensuring the accuracy and stability of the meter battery box 500 during transmission.

[0218] It should be emphasized that, as Figure 7 shown, the material separation position a refers to the position where the meter battery box 500 needs to be separated and positioned during transmission, and the assembly position b refers to the position where the meter battery box 500 is assembled.

[0219] On the transmission device 204, the meter battery box 500 first passes through the material separation position a and then through the assembly position b. The setting of the material separation position a enables the meter battery box 500 to be separated and positioned orderly during transmission, providing accurate position information for subsequent assembly operations. The determination of the assembly position b ensures that the meter battery box 500 is assembled at the correct position, guaranteeing the accuracy and quality of the assembly.

[0220] The reasonable layout of the material separation position a and the assembly position b enables the entire assembly process to be carried out efficiently and accurately, improving production efficiency and product quality.

[0221] The coordinated use of the blocking cylinder 212 and the blocking sensor 214 enables precise control and positioning of the transmission of the meter battery box 500. Through the blocking action of the blocking cylinder 212 and the detection function of the blocking sensor 214, the system can accurately distribute the meter battery box 500 to the designated position and perform precise assembly operations at the assembly position b. This automated control method improves the efficiency and accuracy of the assembly system 200, reduces manual intervention, and ensures the quality and consistency of the assembly of the meter battery box 500. At the same time, the setting of the third direction and the reasonable layout of the feeding position a and the assembly position b make the structure of the system more compact and reasonable, improving the overall performance of the system.

[0222] In some embodiments, optionally, as Figure 8 and Figure 10 shown, the protective cover 216 is a protective structure sleeved outside the frame 202, used to enclose the entire pressing assembly 100 to form a closed or semi-closed working area. The main function of the protective cover 216 is to protect the operator from mechanical injuries generated during the operation of the pressing assembly 100 and avoid potential dangers caused by the movement of the pressing block or other components to personnel. During the assembly process, the processing of the meter battery box 500 or the electrode part 504 may generate tiny dust or debris, and the protective cover 216 can effectively isolate these debris and prevent them from spreading into the workshop environment, keeping the working environment clean. The protective cover 216 can also protect key equipment such as the pressing assembly 100 from external environmental pollution (such as dust, liquid, etc.), thereby extending the service life of the equipment and reducing maintenance costs.

[0223] The protective cover 216 can be made of transparent or semi-transparent materials so that the operator can observe the internal operation conditions.

[0224] In some embodiments, optionally, the electronic control device 218 is the control core of the entire assembly system 200. The electronic control device 218 is installed on the frame 202 and is connected to components such as the transmission device 204, the driving cylinder 108, the positioning cylinder 208, the positioning sensor 210, the blocking cylinder 212, and the blocking sensor 214 through cables.

[0225] The electronic control device 218 receives signals from various sensors and controls the actions of actuators such as the transmission device 204, the driving cylinder 108, the positioning cylinder 208, and the blocking cylinder 212 according to preset programs and logics, realizing operations such as the transmission, positioning, and pressing of the meter battery box 500.

[0226] The transmission device 204 is installed on the frame 202 and connected to the electric control device 218 through a cable. The motor and the reducer drive the conveyor belt to rotate, transporting the meter battery box 500 from one station to another. The electric control device 218 can control the speed, start, and stop of the transmission device 204, realizing the automatic transmission of the meter battery box 500 and improving production efficiency and consistency.

[0227] The electric control device 218 can control the pressure and speed of the driving cylinder 108 to achieve the precise pressing of the electrode part 504, ensuring the pressing quality and consistency.

[0228] The electric control device 218 can control the pressure and speed of the positioning cylinder 208 to achieve the rapid positioning and fixing of the meter battery box 500, improving production efficiency and accuracy.

[0229] The function of the positioning sensor 210 is to detect the position of the meter battery box 500 and provide an accurate feedback signal to the electric control device 218 to ensure the accuracy and consistency of the meter battery box 500 during the pressing process.

[0230] The electric control device 218 controls the action of the positioning cylinder 208 according to the signal of the positioning sensor 210 to achieve the accurate positioning and fixing of the meter battery box 500, improving production efficiency and accuracy.

[0231] The electric control device 218 can control the pressure and speed of the blocking cylinder 212 to achieve the rapid blocking and release of the meter battery box 500, improving production efficiency and accuracy.

[0232] The function of the blocking sensor 214 is to detect the position of the blocking cylinder 212 and provide an accurate feedback signal to the electric control device 218 to ensure the stability and consistency of the meter battery box 500 during the pressing process.

[0233] The electric control device 218 controls the action of the blocking cylinder 212 according to the signal of the blocking sensor 214 to achieve the accurate blocking and release of the meter battery box 500, improving production efficiency and accuracy.

[0234] Among them, the electric control device 218 usually includes components such as a Programmable Logic Controller (PLC), a Human Machine Interface (HMI), sensors, and actuators.

[0235] The assembly system 200 realizes the automatic control and coordinated operation of the system through the electrical connection of the electrical control device 218 with components such as the transmission device 204, the driving cylinder 108, the positioning cylinder 208, the positioning sensor 210, the blocking cylinder 212, and the blocking sensor 214. The electrical control device 218 can detect the operating state of the system in real time, diagnose and alarm faults, improving the reliability and safety of the system. Through the human-machine interface, the operator can conveniently set and adjust the parameters of the system, monitor the operating conditions of the system, realizing the intelligent and user-friendly operation of the system.

[0236] In a specific embodiment, an automatic device for pressing springs on the double-section battery base of an electric energy meter is defined, including a double-section battery base (i.e., the meter battery box), a device body (i.e., the frame), a conveyor belt (i.e., the transmission device), an emergency stop button, a control electric box (i.e., the electrical control device), a positioning cylinder for the battery base pressing position and a fine positioning cylinder for the battery bottom box (i.e., the positioning cylinder), a fixed bracket for the pressing device, a pressing cylinder (i.e., the driving cylinder), a side pressing block of the pressing device (i.e., the blocking structure), a spring blocking block of the pressing device (i.e., the pressing block structure), and a sensor of the pressing device (i.e., the positioning sensor), a safety protective cover for the body (i.e., the protective cover), a belt driven wheel bracket, a material separation blocking cylinder (i.e., the blocking cylinder), a feeding buffer device for the double-section battery plastic base (i.e., the blocking block), and a feeding buffer inductor (i.e., the blocking sensor).

[0237] The operator manually inserts the spring into the battery base box (at the circular groove), and according to the direction of the battery base box with the spring towards the positioning cylinder of the battery base pressing position, places the bottom box flat on the belt conveyor. The transportation direction of the battery bottom box is as Figure 7 shown in the second direction. At this time, the material separation blocking cylinder is default in the release state, and the feeding buffer device for the double-section battery plastic base is in the blocking state. The product moves along the belt streamline to the feeding buffer device for the double-section battery plastic base. After the feeding buffer inductor senses the material, the material separation blocking cylinder acts to ensure that only one material enters at a time;

[0238] The blocking cylinder at the battery bottom box pressing position is initially in the blocking state. When the sensor of the pressing device senses no material, the feeding buffer device for the double-section battery plastic base acts. The product moves along the streamline to the blocking cylinder at the battery bottom box pressing position. After the sensor of the pressing device senses the material, the fine positioning cylinder for the battery bottom box acts to accurately position the product;

[0239] After the positioning action is completed, the pressing cylinder presses down. The spring stopper first presses into the battery bottom box seat, which has a limiting groove inside to prevent the spring from loosening and deviating. There is a spring above the stopper to prevent damage to the battery base during pressing. The side pressing block has a pressing piece perpendicular to the spring stopper. After the pressing piece presses down in place, the spring is squeezed into the groove bayonet of the battery bottom box. The pressing action is repeated once. After the pressing action is completed, the blocking cylinder at the pressing position of the battery bottom box acts to release the product, and the process is completed. Continue to repeat the previous step to achieve the automatic pressing of the spring on the battery base.

[0240] In the present utility model, the terms "first", "second", "third" are only used for descriptive purposes and cannot be construed as indicating or implying relative importance; the term "plural" means two or more unless otherwise clearly defined. The terms "installed", "connected", "connected", "fixed" and other terms should be understood in a broad sense. For example, "connected" can be a fixed connection, a detachable connection, or an integral connection; "connected" can be a direct connection or an indirect connection through an intermediate medium. For those of ordinary skill in the art, the specific meanings of the above terms in the present utility model can be understood according to specific circumstances.

[0241] In the description of the present utility model, it should be understood that the orientation or positional relationship indicated by the terms "upper", "lower", "left", "right", "front", "rear", etc. is based on the orientation or positional relationship shown in the drawings, and is only for the convenience of describing the present utility model and simplifying the description, rather than indicating or implying that the device or unit referred to must have a specific direction, be constructed and operated in a specific orientation, and therefore cannot be construed as a limitation of the present utility model.

[0242] In the description of this specification, the description of the terms "one embodiment", "some embodiments", "specific embodiments", etc. means that the specific features, structures, materials or characteristics described in connection with the embodiment or example are included in at least one embodiment or example of the present utility model. In this specification, the schematic representations of the above terms do not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials or characteristics described can be combined in a suitable manner in any one or more embodiments or examples.

[0243] The above is only the preferred embodiment of the present utility model and is not used to limit the present utility model. For those skilled in the art, the present utility model can have various changes and modifications. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present utility model shall be included in the protection scope of the present utility model.

Claims

1. A pressing assembly, characterized in that, Used for an electric meter battery box, wherein the electric meter battery box is provided with an installation slot for installing an electrode member, and the pressing assembly is used to install the electrode member into the installation slot, and the pressing assembly includes: A stopper structure, wherein the stopper structure is provided with a limiting groove adapted to the electrode member; A pressing block structure connected to the stop block structure, wherein at least one end of the pressing block structure is provided with a pressing piece corresponding to the limiting groove; Among them, the pressure block structure is in the first position, the block structure is located in the battery box of the electric meter, the pressing piece is against the electrode member, the pressure block structure moves toward the battery box of the electric meter to the second position, and part of the electrode member is located in the installation groove.

2. The lamination assembly according to claim 1, wherein Also includes: An elastic member, two ends of which are respectively connected to the stop block structure and the pressing block structure.

3. The lamination assembly according to claim 2, wherein The stop block structure is provided on one side of the pressing block structure in the first direction. The extending direction of the mounting slot is the same as the moving direction of the pressing block structure, and the extending direction of the mounting slot is the same as the moving direction of the elastic member.

4. The lamination assembly according to any one of claims 1 to 3, characterized in that, Also includes: A driving cylinder is transmission-connected to the stop block structure, and the driving cylinder is used to drive the stop block structure to move to the first position or to the second position.

5. The lamination assembly according to any one of claims 1 to 3, characterized in that, The battery box of the electric meter is provided with a plurality of battery compartments arranged in parallel, each of the battery compartments being used to place a battery; Among them, the installation groove is provided at the same end of multiple battery compartments, and the pressing piece is provided at one end of the pressing block structure, or the installation groove is provided at different ends of multiple battery compartments, and the pressing piece is provided at both ends of the pressing block structure.

6. The lamination assembly according to claim 1, wherein, A bayonet structure is provided at one end of the mounting slot, and when the pressing block structure moves to the second position, the electrode member is located in the bayonet structure.

7. An assembly system, characterized in that, include: A frame, wherein a transmission device is provided on the frame, and the transmission device is used to transport the battery box of the electric meter along the second direction; The press-fit assembly according to any one of claims 1 to 6, arranged on the frame.

8. The assembly system according to claim 7, characterized in that, include: a positioning stopper, provided on one side of the transmission device in the third direction, and the positioning stopper is provided on the frame; a positioning cylinder, drivingly connected to the positioning block, and configured to drive the positioning block to reciprocate along the third direction; The third direction, the second direction and the first direction are perpendicular to each other.

9. The assembly system according to claim 8, characterized in that, Also includes: A positioning sensor is provided on the frame, and is used to determine whether the battery box of the electric meter exists at the assembly position of the transmission device.

10. The assembly system according to claim 8, characterized in that, The positioning block specifically includes: a first stopper, provided on one side of the transmission device in the third direction; The first stopper moves to the first limit position, and part of the first stopper is located on one side of the second direction of the battery box of the electric meter.

11. The assembly system according to claim 10, wherein, The positioning block specifically includes: a second stopper, provided on the other side of the transmission device in the third direction; The second stopper moves to the second limit position, and in the second direction, part of the second stopper is located on one side of the battery box of the electric meter, and part of the second stopper is located on the other side of the battery box of the electric meter.

12. The assembly system according to claim 8, characterized in that, Also includes: A blocking cylinder is provided on the frame body. One end of the blocking cylinder is provided with a blocking block, and the blocking cylinder is arranged on one side of the conveying device in the third direction; A blocking sensor is arranged corresponding to the blocking cylinder. The blocking sensor is used to determine whether the meter battery box exists at the material separation position of the conveying device; Wherein, on the conveying device, the meter battery box first passes through the material separation position and then passes through the assembly position.

13. The assembly system according to claim 7, characterized in that, It further includes: A protective cover is sleeved on the frame body, and the pressing assembly is arranged inside the protective cover.

14. The assembly system according to claim 7, characterized in that, It further includes: An electric control device is arranged on the frame body. The electric control device is electrically connected to the conveying device, the driving cylinder, the positioning cylinder, the positioning sensor, the blocking cylinder and the blocking sensor.

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