83results about How to "Improve power exchange efficiency" patented technology

The invention discloses a general battery swap control system and method based on a commercial vehicle battery swap station, and relates to the technical field of battery swap stations. The method comprises the following steps: S1, radar detects entering of a vehicle, a measuring light curtain feeds back data to a system in real time, and the system judges whether the vehicle is a vehicle battery box; s2, the system converts the data into a vehicle animation, displays the vehicle animation on a power conversion channel display, and prompts a driver to adjust the vehicle through a sound box; s3, after the vehicle stops, the system starts a battery replacing program, the position of a battery box is calculated, and the battery replacing robot is controlled to move; s4, the system controls the lifting appliance to move downwards, the vehicle battery box is grabbed, and the position P1 of a lifting motor is recorded; s5, the lifting appliance moves upwards, and the battery box is carried into the station; and S6, the lifting appliance is replaced with a fully-charged battery, the lifting appliance ascends after installation is completed, and battery replacement is completed. The system is suitable for different vehicle battery boxes, provides real-time feedback, realizes accurate positioning, reduces manual intervention, enables the battery replacement process to be smoother, and prevents operation errors.

The present invention provides an automatic battery replacement device for new energy vehicles, which relates to the technical field of electric vehicles, including: a battery replacement station, wherein an installation warehouse for installing batteries is installed on the lower surface of the battery replacement station, a transport warehouse for transferring batteries is provided on the lower surface of the installation warehouse, a collection warehouse for storing batteries is installed on the upper surface of the transport warehouse, a battery conveying plate is arranged inside the installation warehouse, storage platforms are installed on both sides of the battery replacement station, rain shields are installed on both sides of the battery replacement station, an electric control box is installed on the outer wall of the battery replacement station, a control panel is installed inside the battery replacement station, and an installation groove is provided at the bottom of the inner wall of the battery replacement station; an adjustment device, which is located on the battery conveying plate. The present invention can automatically fine-tune the battery replacement plate, so that the batteries on the surface of the battery replacement plate can be accurately aligned with the chassis of the vehicle whose batteries are to be replaced, thereby improving the battery replacement efficiency, having high automation, and being worthy of in-depth promotion.

The present invention discloses a battery charging rack, a charging compartment, and a battery swap station or energy storage station having the charging compartment. The battery charging rack includes a plurality of vertically arranged battery compartments, each battery compartment having a battery inlet and outlet, the battery inlet and outlet are used for a battery transfer device to store a battery pack on the battery charging rack or to take the battery pack out of the battery charging rack, the battery compartment includes a first times speed chain displacement mechanism, the first times speed chain displacement mechanism is extended in the battery compartment along a first direction of the battery pack inlet and outlet direction, and is used to drive the battery pack to move along the first direction. On the one hand, the position of the battery pack in the first direction can be accurately adjusted, and since the electrical connector is usually arranged on the side of the battery compartment, it is beneficial for the battery pack to be aligned with the electrical connector in the first direction; on the other hand, it can drive the battery pack from the battery transfer device to the battery compartment, or drive the battery pack from the battery compartment to the battery transfer device, thereby improving the efficiency of the battery swap electrical connector.

The invention discloses a battery replacing device and an electric commercial vehicle, and relates to the technical field of electric vehicles, the battery replacing device comprises a battery box and a plug-in assembly, the battery box comprises a box body and a plug-in piece arranged on the outer wall of the box body, and a containing groove used for containing a battery is formed in the box body. The plug-in assembly comprises a shell, a clamping piece and an elastic piece, a clamping groove is formed in the shell, the clamping piece is slidably connected with the shell and can be inserted into or withdrawn from the clamping groove during sliding so as to lock or unlock the plug-in inserted into the clamping groove, and the elastic piece is connected with the clamping piece and can accumulate elastic force when the clamping piece withdraws from the clamping groove. When the battery box needs to be disassembled, the clamping piece is pulled out of the insertion piece in a sliding mode, and the insertion piece can be pulled out of the clamping groove by unlocking the insertion piece. Therefore, in the battery replacement process, only the clamping piece needs to be controlled to slide in a reciprocating mode, screws do not need to be disassembled and assembled frequently, the battery replacement efficiency is high, and the transportation efficiency of a truck is basically not affected.

The utility model belongs to the technical field of household battery replacement, and particularly provides a battery replacement cabinet suitable for civil battery replacement, which comprises a box body and a cabinet body, a plurality of battery cabins are arranged at the front end of the cabinet body, chargers for charging battery replacement battery packs are arranged in the battery cabins, cabin doors are movably mounted at openings of the battery cabins, and the battery cabins are connected with the cabinet body. The front end of the cabinet body is provided with a bin door, the bin door opens and closes the battery bin through control mechanisms, the front end of the cabinet body is further provided with an induction chip, the induction chip is connected with the multiple control mechanisms, and the induction chip controls one of the control mechanisms to open the battery bin after receiving induction signals of an external battery replacement battery pack. Through the arrangement of the battery bin, the bin door, the control mechanism and the sensing chip, the battery of the electric vehicle can be replaced directly through sensing, convenience and rapidness are achieved, and the device is suitable for household battery replacement of residents.

This utility model provides a battery swapping lifting unit, including a body plate, which is horizontally rectangular, with several support frames on its top. A drive shaft is horizontally rotatably connected to the support frames. A lifting column is coaxially connected to the drive shaft, and a lifting cable is sleeved on the outer wall of the lifting column. One end of the lifting cable is fixedly connected to the lifting column, and the free end is connected to the bottom of the body plate. The lifting cable located between the body plate and the lifting column is U-shaped with its opening facing upwards. Several limiting cylinders are provided at the bottom of the body plate, and a limiting groove is vertically formed at the bottom of each limiting cylinder. This utility model provides a battery swapping lifting unit that can improve battery swapping efficiency.

The utility model discloses a side-hung battery-changing type power battery damping frame and a mining wide-body dumper. The side-hung battery-changing type power battery damping frame comprises a primary battery frame, a secondary battery frame and a plurality of damping parts, the primary battery frame is fixed to the side of the frame girder through a fastener; a battery box is assembled in the secondary battery frame, and the secondary battery frame is arranged in the primary battery frame; the plurality of damping parts are arranged between the primary battery frame and the secondary battery frame and are used for fixing the secondary battery frame on the primary battery frame in a suspended manner, so that the secondary battery frame is elastically buffered in the vertical direction, the longitudinal direction and the transverse direction, and the transmission of medium-high frequency vibration is effectively isolated.

The invention provides a battery-changing new energy locomotive and a network communication method thereof, the battery-changing new energy locomotive comprises a locomotive body and a power battery system, and the power battery system is arranged on the locomotive body and used for providing electric energy for the locomotive; the power battery system comprises a battery replacing battery box and a vehicle-mounted battery replacing base, the vehicle-mounted battery replacing base is fixedly connected with the locomotive body, and the battery replacing battery box is detachably connected with the vehicle-mounted battery replacing base; an address device is arranged on the vehicle-mounted battery replacement base, and a fixed communication address is preset in the address device; after the battery replacement battery box is connected with the vehicle-mounted battery replacement base, a battery management system of a power battery in the battery replacement battery box can obtain a communication address in the address device and correct the communication address of the battery management system into a fixed communication address. According to the battery replacement new energy locomotive provided by the invention, automatic adaptation of communication between the power battery of the battery replacement new energy locomotive and the whole locomotive can be realized, and the battery replacement efficiency can be effectively improved.

The invention relates to the technical field of electric vehicles, and discloses a quick-change support for lateral sliding-in of a battery pack and the electric vehicle, the battery pack is in sliding connection with the quick-change support, the quick-change support comprises a locking groove, an avoiding groove and a locking mechanism, the locking groove is used for allowing a locking piece on the battery pack to move to a locking position, and the avoiding groove is used for avoiding the locking piece on the battery pack to move to a locking position. The locking mechanism is at least partially connected into the avoiding groove, the avoiding groove is provided with a first position and a second position for stopping of the locking mechanism, when the locking mechanism is located at the first position, the locking mechanism locks and limits the locking piece located at the locking position, and when the locking mechanism is located at the second position, the locking piece is locked and limited by the locking mechanism. The locking mechanism avoids the locking piece so that the locking piece can slide out of the locking groove, and the locking mechanism slides between the first position and the second position along the avoiding groove. The method has the effect of relieving the problems that in the prior art, station end locking and unlocking are complex in operation and low in efficiency.

The utility model discloses a telescopic battery swap station hoisting equipment, including cart walking mechanism, telescopic beam and trolley mechanism, cart walking mechanism includes two cart frame, and the fixed connection of cart frame has the connecting frame, and the driving device is installed on the connecting frame, and the telescopic beam sets up at the top of cart frame, and the trolley mechanism sets up at the end of telescopic beam, the telescopic beam includes primary telescopic arm, secondary telescopic arm and tertiary telescopic arm, and primary telescopic arm fixed connection is in the top of cart frame, and secondary telescopic arm sliding connection is in primary telescopic arm, and tertiary telescopic arm sliding connection is in secondary telescopic arm, and the trolley mechanism sets up in tertiary telescopic arm, be provided with first drive mechanism between primary telescopic arm and secondary telescopic arm, and be provided with second drive mechanism between secondary telescopic arm and tertiary telescopic arm, hoisting equipment passes through setting telescopic beam, reduces the volume and clearance height of hoisting equipment, also can not influence the working range of hoisting equipment.

The application relates to the field of battery replacement cabinets, and discloses an intelligent automobile battery replacement cabinet of a heat dissipation type shared battery. The cabinet body is provided with a shielding frame at the upper end, a plurality of charging compartments are formed in the front side of the cabinet body, a sealing door is arranged at the front side of each charging compartment, and a battery rack is fixedly connected in each charging compartment. A battery moving mechanism is arranged in each battery rack, the battery moving mechanism comprises a sliding supporting seat which is slidably arranged at the bottom of the battery rack, a mounting strip is fixedly connected in the battery rack, and an electric telescopic rod is arranged on one side of the mounting strip. In the use process of the battery replacement cabinet, compared with the existing inclined charging compartment cabinet body, the scheme can facilitate the taking and taking operation on the basis of ensuring the tightness of the electrical connection, effectively avoid the contact of rainwater with the charging electric contacts, can also perform water absorption and drying treatment on the electrode part of the battery to be charged, and the practical effect in rainy days is ensured.

The application discloses an electric ship battery replacement scheduling management system, which comprises a ship end data acquisition unit, a shore end battery replacement management and control unit and a cloud end intelligent scheduling platform. The ship end data acquisition unit is installed on an electric ship matched with the system. The shore end battery replacement management and control unit is installed on a ship battery replacement station matched with the system. The ship end data acquisition unit and the shore end battery replacement management and control unit interact data with the cloud end intelligent scheduling platform through a network, and data interaction between the ship end data acquisition unit and the shore end battery replacement management and control unit is realized through the cloud end intelligent scheduling platform. The application constructs a ship-shore-cloud integrated intelligent management and control system, realizes unified access, integration and analysis of multi-source data, software-defined control architecture, facilitates system iteration and upgrading, realizes multi-unit collaborative intelligent scheduling, improves battery replacement efficiency, perfects battery full life cycle intelligent management and control, improves safety and resource utilization, improves intelligent adaptability of the battery replacement network, and adapts to multi-scene requirements.

The present invention discloses a battery swap station that can adapt to multiple specifications of vehicle models and a corresponding battery swap method, and relates to the technical field of mobile battery swap equipment. The battery swap station includes a battery rack, and each battery rack includes a plurality of battery slots, and each battery slot can accommodate at most one battery; there is a guide rail tunnel on the front of the battery rack, in which a guide rail, an RGV forklift, a movable bridge plate and a support column are provided; the RGV forklift is provided with a lifting platform, a rotating platform and a telescopic fork leg that can be horizontally extended in both directions. Compared with the traditional battery swap station, the battery swap station and the battery swap method of the present invention can not only adapt to the battery swap of multiple vehicle models, but also reduce the strict restrictions on parking positions and improve the efficiency of battery swap.

According to the compatible vehicle battery replacing assembly and the battery replacing station, the battery replacing assembly comprises a front wheel adjusting mechanism, a rear wheel adjusting mechanism, a battery replacing mechanism and a detection mechanism, the battery replacing mechanism is located between the front wheel adjusting mechanism and the rear wheel adjusting mechanism, and the front wheel adjusting mechanism is used for being matched with a front wheel of a vehicle and adjusting the position of the front wheel; the rear wheel adjusting mechanism is used for being matched with a rear wheel of the vehicle and adjusting the position of the rear wheel, the battery replacing mechanism comprises a lifting platform, the lifting platform is configured to move in the Y direction and the Z direction so as to be used for conducting battery replacing on the vehicle, and the detection mechanism is used for conducting X-direction and Z-direction detection on the battery replacing position of the vehicle. The battery swap station comprises the battery swap assembly, can be suitable for battery swap of different vehicle types, and is high in battery swap efficiency and strong in compatibility.

This utility model discloses a walking anti-slip device, a shuttle car, a battery swapping channel, and a battery swapping station. The walking anti-slip device is applied within the battery swapping station and includes: a limiting wheel connected to the shuttle car within the station, allowing the shuttle car to rotate the limiting wheel; and a limiting pad located within the battery swapping channel between the battery swapping station and the charging rack. The limiting wheel cooperates with the limiting pad and can move on the limiting pad. The battery swapping station includes the shuttle car and the walking anti-slip device described above. In this utility model, the limiting pad provides an anti-slip function. The limiting wheel, connected to the shuttle car, moves on the limiting pad, effectively preventing slippage during shuttle car movement, ensuring accurate positioning, improving battery swapping efficiency, and enhancing safety.

The utility model discloses a battery replacing system of a vehicle and the vehicle. The battery replacing system of the vehicle comprises a vehicle frame, and the multiple battery brackets are all provided with battery packs, and the multiple battery brackets are arranged on the frame at intervals and detachably connected with the frame in a sliding mode. According to the battery replacing system of the vehicle, the battery packs are arranged on the battery brackets, and the battery brackets are arranged on the vehicle frame at intervals and detachably connected with the vehicle frame in a sliding mode, so that the charging requirement of the vehicle can be rapidly met, and the waiting time of a user is shortened; and the battery pack on each battery bracket is an independent unit, and the battery pack of each battery bracket can be independently replaced, so that the battery replacement efficiency can be improved, meanwhile, a pull-type battery replacement mode can be realized, the battery replacement is convenient and rapid, the operation is flexible, and the battery replacement cost can be reduced.

The utility model relates to a battery frame for micro-surface battery replacement. The battery frame is used for storing a micro-surface battery pack of an electric automobile. The battery frame comprises a battery replacement frame, a plurality of locking mechanisms and a plurality of positioning pin sleeves; the multiple locking mechanisms and the multiple positioning pin sleeves are symmetrically arranged on the two sides of the battery replacing frame. The battery replacing frame is used for being arranged at the bottom of a frame of the electric automobile so that a space for containing a micro-face battery pack of the electric automobile can be formed at the bottom of the frame of the electric automobile. The plurality of locking mechanisms are used for being connected with locking mechanisms arranged on the micro-surface battery packs so as to lock the micro-surface battery packs; and the plurality of positioning pin sleeves are used for being connected with positioning pins arranged on the micro-surface battery pack so as to position the micro-surface battery pack. According to the battery frame, structural deformation caused by external force in the battery replacement process can be avoided, the battery replacement disassembly speed is greatly increased, the disassembly time is shortened, and the battery replacement efficiency is effectively improved.

The invention discloses a battery reselection method for a new energy automobile battery swap station, and relates to the technical field of battery swap stations. When the battery replacement station begins to replace the battery, if the battery locked through intelligent bin selection is abnormal in the process of taking out the battery, secondary or multiple times of selection is automatically performed through the battery reselection strategy to continue to replace the battery, so that the probability of abnormal battery replacement when the battery replacement begins is reduced, the waiting time of a vehicle owner on the station is shortened, and the battery replacement experience is improved.

The utility model relates to a working device for battery replacement, in order to solve the problem of low battery replacement efficiency of electric engineering machinery during field operation battery replacement, the utility model provides a working device for battery replacement and a vehicle for battery replacement, a rotary device of the working device comprises a base and a rotary table, and the rotary table is rotatably mounted on the base; a basic arm of the telescopic arm assembly is hinged to the rotary table through a horizontal pin shaft, and a lifting oil cylinder for pushing the telescopic arm assembly to ascend and descend is arranged between the rotary table and the basic arm. The accessory comprises a connecting base installed on the front portion of the tail telescopic arm, a transverse swing frame connected to the front side of the connecting base through a transverse swing driving mechanism, and a transverse sliding frame arranged on the front side of the transverse swing frame in a sliding mode through a transverse sliding driving mechanism. The vertical swing frame is connected to the front side of the transverse sliding frame through a vertical swing driving mechanism; and the quick-changing device is mounted on the front side of the vertical swing frame and is connected with a battery. According to the working device for battery replacement, the requirement of battery replacement on a site can be reduced, and the site adaptability and the battery replacement efficiency are improved.

The present invention discloses an automatic positioning system and method based on a battery swap station, which relates to the field of battery swap technology. The system comprises: a positioning device, used to obtain position parameters of a vehicle to be battery swapped, determine a target battery swap position according to the position parameters, and send the target battery swap position to a battery swap centralized control unit; a battery swap centralized control unit, used to obtain the target battery swap position and send the target battery swap position to an autonomous robot; an autonomous robot, used to receive the target battery swap position, and obtain environmental data and the position of the robot, construct an optimal trajectory according to the target battery swap position, the position of the robot and the environmental data, and move to the target battery swap position according to the optimal trajectory. The present invention eliminates the risk of vehicle damage caused by positioning, adopts contactless soft positioning, realizes automatic positioning compensation, improves positioning accuracy, reduces costs, and improves battery swap efficiency and user experience.

This invention relates to the field of new energy vehicle battery technology, and particularly to a rear-mounted battery swapping compartment for a pickup truck. The compartment includes a main body installed between the front cab and the cargo box, with openings at both ends and at both ends. Two sets of multiple battery compartments for installing battery packs are symmetrically arranged vertically on both sides of the main body. Door assemblies are also included, with two sets of symmetrically arranged, openable and closable door assemblies at both ends of the main body. A door opening / closing mechanism, connected to the main body and the door assemblies, drives the door assemblies. A cooling mechanism includes an upper cooling plate, a lower cooling plate, a main pipeline, and connecting hoses. The upper and lower cooling plates are located on the upper and lower sides of the battery pack, respectively, and the connecting hoses connect the main pipeline to the upper and lower cooling plates. A cold plate lifting mechanism, located within the main body and on both sides of the battery compartment, drives the upper and lower cooling plates to rise and fall.

This technology discloses a follow-type autonomous dosing and battery swapping UAV take-off and landing platform, including a self-propelled walking mechanism and a degree-of-freedom UAV take-off and landing platform. This technology solves the problems of existing fixed take-off and landing platforms, which require the UAV to fly back to a designated location for maintenance, thus increasing travel distance and time, and the cumbersome and inefficient manual operation of dosing and battery swapping processes. The platform moves via a self-propelled walking mechanism and avoids obstacles through a front-end detection camera. The innovative design of the dosing and battery swapping devices, both employing a translational lifting mechanism structure, enables precise docking with the UAV and automatically completes dosing and battery replacement. The innovative degree-of-freedom platform design ensures stable take-off and landing of the UAV. Combined with a control system and a Hooke's hinge structure, the platform tilt angle can be adjusted in real time, and the operation is fully automated, reducing manual intervention and improving operational efficiency and safety. It can significantly improve the continuity, economic benefits, and environmental adaptability of UAV dosing operations, demonstrating significant application benefits.

The present invention discloses a battery exchange device and a battery exchange station. The battery exchange device includes a rotating workbench, two swing bar assemblies, two top frames and two telescopic mechanisms. The two swing bar assemblies are respectively movably connected to the rotating workbench, and the two swing bar assemblies are arranged in sequence along a first direction. The two top frames are respectively connected to the two swing bar assemblies, and the top frames are connected with battery box grippers. The two telescopic mechanisms are both arranged on the rotating workbench, and the two telescopic mechanisms are respectively connected to the two swing bar assemblies in a transmission connection to respectively drive the two swing bar assemblies to drive the corresponding top frames to telescopically move along a second direction. The battery exchange device of the present application is provided with two swing assemblies to facilitate respectively grabbing the fully charged battery box in the battery compartment and the low-charged battery box on the battery vehicle to be replaced. The rotating workbench can be rotated 180°, and the two swing bar assemblies are swapped to facilitate further loading of the low-charged battery box into the battery compartment and loading of the fully charged battery box into the battery equipment to be replaced, which significantly improves the battery exchange efficiency.

The present invention discloses a battery swap station and a control method for lateral discharge of battery packs in the battery swap station, which belongs to the technical field of battery swap stations. The battery swap station includes a battery swap channel, a battery pack storage rack, a battery swap device and a floating mechanism. The battery swap channel extends along the second horizontal direction; the battery swap channel is provided with the battery pack storage rack on both sides; the battery swap device is provided on both sides of the battery swap channel, and the battery swap device on each side is located between the battery swap channel and the battery pack storage rack on that side, and the battery swap device can reciprocate along the second horizontal direction, and the battery swap device includes an operating end, and the operating end can reciprocate along the first horizontal direction and can be lifted and lowered in the vertical direction; each of the operating ends is provided with a floating mechanism, and the floating mechanism includes a floating plate that can float in all directions, and the upper surface of the floating plate is provided with a battery pack clamping position. The present invention improves the efficiency of battery swapping.

This application discloses a battery swapping control method, device, electronic device, and medium to solve the problems of low battery swapping efficiency and high labor costs. The battery swapping control method includes: acquiring vehicle information and verifying the vehicle service capability of the battery swapping station based on the vehicle information; setting the battery swapping vehicle to an access state if the vehicle service capability is acceptable; guiding the battery swapping vehicle to a preset location and determining the battery swapping readiness status of the vehicle; performing battery swapping on the vehicle when it is in a ready state; determining whether the battery swapping was successful; and setting the battery swapping vehicle to an exit state when the battery swapping was successful. This application intelligently identifies battery swapping vehicles, determines whether the battery swapping vehicle is compatible with the service capability of the battery swapping station, and acquires the vehicle status in real time during the battery swapping process, thereby enabling unmanned automatic battery swapping. This achieves unattended operation of the battery swapping station, improves battery swapping efficiency and safety, reduces labor and operating costs, and improves the user's battery swapping experience.

This application relates to the technical field of battery swapping stations, and more particularly to an intelligent management method, system, and electronic equipment for battery compartments in battery swapping stations. This application first obtains the type, size, and weight parameters of the battery pack through an intelligent identification system. Then, the system obtains the overall performance coefficient and zone performance coefficient based on the type information, automatically selects the optimal compartment location, and controls the transfer mechanism to transport the battery pack to the entrance position. Next, the V-shaped guide groove dynamically adjusts its opening angle and width according to the size parameters, while the lifting auxiliary tray presets its support height according to the weight parameters. During the loading process, force sensors distributed at key locations monitor the force status in real time. Once an abnormality is detected, a protection mechanism is immediately triggered, solving the problems of poor adaptability and low safety of traditional battery swapping equipment. Moreover, through a flexible positioning mechanism, it can adapt to changes such as battery pack deformation and different battery pack models, significantly improving battery swapping efficiency.

The present invention relates to the field of vehicle battery replacement technology, and specifically, to a vehicle battery replacement method and system. The method includes when the first vehicle arrives at the battery replacement area, the battery replacement robot moves the first low-battery battery on the first vehicle to the turnover charging station. When the first low-battery battery is moved to the turnover charging station, the electrical connection between the priority charging station and the charger corresponding to the priority charging station is disconnected, and the turnover charging station is electrically connected to the charger corresponding to the priority charging station. When the electrical connection between the priority charging station and the charger corresponding to the priority charging station is cut off, the battery replacement robot moves the charged battery of the priority charging station to the first vehicle. Among them, the priority charging station is closer to the first vehicle in the battery replacement area than the ordinary charging station. The turnover charging station is closer to the first vehicle in the battery replacement area than the ordinary charging station. This solves the problem of low efficiency of battery replacement stations.

The invention relates to the technical field of automatic charging and battery replacing, and discloses a mobile charging and battery replacing device which comprises a mobile vehicle seat, multiple sets of mobile wheels are arranged on the two sides of the mobile vehicle seat, a traction seat is arranged at the front end of the mobile vehicle seat, and a mobile charging station is arranged on the traction seat. By arranging the movable vehicle seat and the multiple sets of movable wheels, the equipment has good maneuverability and can quickly reach different operation sites, and the problem that the operation efficiency is reduced due to queuing charging is effectively solved. The traction seat and the movable charging station are arranged at the front end of the movable vehicle seat, so that charging service can be flexibly provided for stacking machines of different specifications, and the compatibility problem is solved. And due to the design of the bidirectional tray mechanism and the translation rotating mechanism, the equipment can adapt to batteries of various specifications, and the battery replacement efficiency is improved. And by arranging the lifting temporary storage table and the lifting mechanism, loading and unloading of the batteries are more automatic, the labor cost is reduced, and the safety is improved.

The present invention relates to the field of supporting equipment for new energy battery packs, and in particular to a graphene magnesium-based solid-state hydrogen storage energy pack replacement equipment, including a solid-state energy hydrogen storage replacement base station and a solid-state hydrogen storage battery pack used in conjunction with the solid-state energy hydrogen storage replacement base station, wherein the solid-state hydrogen storage battery pack is movably connected to the solid-state energy hydrogen storage replacement base station, and the solid-state hydrogen storage battery pack is replaced by the solid-state energy hydrogen storage replacement base station through the connection. By improving the structure of the battery pack and the supporting equipment of the battery replacement station, the efficiency of the solid-state hydrogen storage battery pack replacement process is improved, and the sealing during the replacement process is improved, and the car owner can perform the replacement operation by himself.

The invention belongs to the technical field of battery swap station lifting appliances, and particularly relates to a self-adaptive electric heavy truck battery swap station battery pack lifting appliance which comprises an upper frame and a lower frame, the upper frame is fixedly mounted at the bottom of a moving crane, six guide wheels are mounted at the bottom of the lower frame, and the six guide wheels are used for positioning the lower frame and a battery pack. The angle deviation of the battery pack on the heavy truck can be automatically compensated, and the adaptability and the success rate of the battery replacement process are improved; automatic switching between rigidity and flexibility can be achieved, stable movement of the battery pack in the hoisting process is guaranteed, and the safety of battery replacement operation is improved; the overall structure is simple, complex rotating mechanisms are reduced, the stability of the system is improved, and the service life of the system is prolonged; by adopting the design of six guide wheels, the self-adaptive positioning and grabbing capability of the battery pack is improved, and the reliability of the battery replacement process is further enhanced; a complex visual identification system is not needed, the system cost and the fault rate are reduced, and meanwhile the battery replacement efficiency is improved.