Highly-modularized reconfigurable experiment table system

Abstract

The invention relates to a highly-modularized reconfigurable experiment table system, and relates to the field of experiment tables. The device comprises a vertical function module, frame tables, a transverse function module, a storage reagent shelf and a storage hanging frame, the vertical function module is used for being arranged as a later-stage splicing base frame, the frame tables are detachably assembled on the end faces of the front side and the rear side of the vertical function module, the transverse function module is detachably assembled on the upper side of the interior of the vertical function module, and the storage reagent shelf is detachably assembled on the transverse function module. And the transverse function module is used for bearing the function module. The core problems of layout solidification, function coupling and poor customization of a traditional experiment table are solved, spanning from fixed equipment to an evolvable system is achieved, laboratory layout and functions can be synchronously evolved along with scientific research projects, the cost of the whole life cycle is reduced, the scientific research efficiency is improved, and the development cost is reduced. And the requirements of modern scientific research on space flexibility, function iteration speed and individuation requirements are met.

Description

Technical Field

[0001] This application relates to the technical field of experimental platforms, and in particular to a highly modular and reconfigurable experimental platform system. Background Technology

[0002] In modern scientific research fields such as biomedicine, materials science, and environmental monitoring, laboratory benches serve as core infrastructure, undertaking key experimental procedures such as sample preparation, reaction operations, and data analysis. Their spatial layout and functional configuration directly affect research efficiency and laboratory utilization. However, traditional laboratory benches and existing modular products on the market generally suffer from low modularity and poor adaptability.

[0003] Traditional laboratory benches, such as side benches and central benches, mostly adopt ground-fixed and integral welded structures. Once the layout is determined, it is difficult to change. Traditional side benches are directly fixed to the wall and the ground with expansion bolts, and central benches are connected to the ground with heavy-duty brackets. When dismantling or moving them, the ground waterproof layer must be damaged and water and electricity pipelines must be re-laid. Adjusting a single laboratory bench takes a long time. The length and width dimensions of traditional laboratory benches are fixed.

[0004] Regarding the aforementioned technologies, the inventors discovered that the length and width of traditional experimental benches are fixed and cannot be adjusted according to the needs of the experiment. The power supply, air supply, ventilation, drainage and other functional components of the experimental bench are mostly integrated with the cabinet structure. When upgrading or maintaining functions, the cabinet needs to be disassembled, which is costly and has poor compatibility. The strong coupling between functional components and the cabinet can lead to local failures requiring overall shutdown for maintenance. The functional combination is inflexible and cannot adapt to the iterative needs of experimental processes. Summary of the Invention

[0005] To overcome the limitations of existing traditional laboratory benches with fixed length and width dimensions, which prevent adjustments based on experimental needs, and the fact that power supply, air supply, ventilation, and drainage components are often integrated with the cabinet structure, requiring cabinet disassembly for upgrades or maintenance, resulting in high costs and poor compatibility, and that strong coupling between components and the cabinet leads to system shutdowns for localized malfunctions, as well as poor flexibility in functional combinations to adapt to iterative experimental workflows, this application provides a highly modular, reconfigurable laboratory bench system.

[0006] The highly modular and reconfigurable experimental platform system provided in this application adopts the following technical solution: A highly modular and reconfigurable laboratory bench system includes a vertical functional module, a frame platform, a horizontal functional module, a reagent storage rack, and a storage hanging frame. The vertical functional module serves as a base frame for later assembly, and the frame platform can be detachably assembled on both the front and rear end faces of the vertical functional module. The horizontal functional module can be detachably assembled on the upper inside of the vertical functional module, and the horizontal functional module is used to support the functional module. The reagent storage rack or storage hanging frame can be detachably assembled vertically above the horizontal functional module inside the vertical functional module, and the reagent storage rack or storage hanging frame is used to expand the storage space.

[0007] By adopting the above technical solution, the vertical functional module serves as the basic support structure for later assembly, providing a stable support structure. The frame platform is fixed to the front and rear end faces of the vertical functional module through detachable assembly, enhancing the overall frame stability of the system. The horizontal functional module is detachably assembled and installed on the upper side inside the vertical functional module to support various experimental equipment and devices. The storage reagent rack or storage hanging frame is installed inside the vertical functional module, located above the horizontal functional module, and can be replaced vertically to expand the storage space of the experimental platform, facilitating the storage of various reagents and experimental supplies. This design allows the entire experimental platform to be flexibly adjusted according to different experimental needs, not only improving space utilization but also enhancing the convenience and safety of experimental operations. Through the cooperation of the vertical functional module, frame platform, horizontal functional module, storage reagent rack, and storage hanging frame, the experimental platform can adapt to various experimental environments, providing a highly customizable and scalable work platform.

[0008] Optionally, the vertical functional module includes a stand base, on which multiple feet are vertically fixed. Side supports are vertically fixed on both vertical ends of the stand base, and the top of the side supports is horizontally provided with assembly screw holes. The bottom front and rear sides of the stand base are vertically fitted with clamping plates, and an assembly frame is horizontally fixed on the top surface of the stand base. A platform is horizontally fixed on the top surface of the assembly frame.

[0009] By adopting the above technical solution, the vertical functional module's frame base serves as the basic support structure, securely mounted on the ground via fixed feet at the bottom, ensuring the stability and safety of the entire module. The side supports not only enhance the overall structural stability but also, through horizontally penetrating mounting bolt holes at the top, allow for precise assembly with other modules of the same structure, increasing structural diversity and flexibility. The front and rear side plates provide additional fixing points, ensuring more reliable fixation between the frame base and the ground or other equipment. The assembly frame and platform provide horizontal mounting positions, suitable for installing various horizontally loaded equipment or components, making the entire structure both stable and easy to install and disassemble. Fixed to the ground by the feet ensures stability, the side supports enhance lateral support, enabling it to withstand a certain degree of lateral force, and finally, the assembly frame and platform provide horizontal mounting positions, forming a robust, reliable, and flexibly assembled vertical functional module.

[0010] Optionally, multiple power connection frame plates are horizontally and vertically assembled on the front and rear vertical end faces of the assembly frame, and a power connection socket is fixedly assembled through the middle of each of the multiple power connection frame plates, and the power connection socket is electrically connected to the external power supply cable.

[0011] By adopting the above technical solution, the modular frame is used to fix and support the entire device, and provides space for installation and assembly. Multiple horizontally and vertically assembled power connection frame plates on its front and rear vertical end faces mainly serve as a fixed platform for installing power sockets, facilitating neat arrangement and installation. The power sockets directly connect to external power cables, ensuring smooth power transmission to the equipment requiring power. Through the structural design of the modular frame, multiple power connection frame plates can be easily installed, each equipped with a power socket. These sockets can simultaneously connect to one or more external power cables, thus providing a stable power supply to multiple devices requiring power. This not only improves the convenience and aesthetics of installation but also effectively ensures stable electrical contact performance at each connection point.

[0012] Optionally, an anchor post is vertically fixed on the top surface of the power connection frame plate, and the anchor post is inserted into the top slot of the assembly frame. A locking lug is vertically fixed on the bottom surface of the power connection frame plate, and the locking lug on the power connection frame plate is fixed to the bottom of the assembly frame by positioning bolts.

[0013] By adopting the above technical solution, the main function of the anchor column is to provide a stable vertical connection between the power receiving frame and the assembly frame, ensuring the vertical stability of the power receiving frame in the installation position. The locking lugs on the power receiving frame are fixed to the bottom of the assembly frame by positioning bolts, preventing the power receiving frame from sliding down and further enhancing its fixing effect. The anchor column, inserted into the top slot of the assembly frame, ensures the horizontal stability of the power receiving frame, preventing it from swaying left and right. First, the power receiving frame is fixed to the bottom of the assembly frame by its bottom locking lugs and positioning bolts, providing vertical fixing force; second, the anchor column inserted into the top slot of the assembly frame acts as a horizontal limiter, further ensuring the stability of the power receiving frame in the installation position; finally, these two parts work together to achieve a stable connection of the power receiving frame in the installation position from all directions, providing reliable power access and transmission functions.

[0014] Optionally, the frame platform includes a support frame and a base plate. The vertical ends of the support frame are horizontally threaded through on both sides, and assembly screws are installed through the threaded holes of the support frame. The assembly screws are threaded onto the base plate, and the base plate is horizontally fixed on the top surface of the support frame.

[0015] By adopting the above technical solution, the lifting frame provides an adjustable support surface. Its overall assembly and height adjustment are achieved through horizontally penetrating screw holes and assembly screws on both sides of its vertical ends. The base plate, serving as the contact surface with the workpiece, is fixed to the top surface of the lifting frame, acting as a platform to support the working components. When the assembly screws are threaded onto the base plate through the screw holes, the stability and adjustability of the entire frame are ensured. By adjusting the position of the assembly screws in the screw holes, the height of the lifting frame can be changed, thereby adjusting the height of the base plate to accommodate the needs of different working components, ensuring stable and efficient operation.

[0016] Optionally, the side supports on both sides of the vertical end face of the platform base are horizontally provided with corner brackets, and the vertical cross section of the corner brackets is L-shaped. The vertical end face of the corner brackets is fixed to the side supports by screws, and multiple screws are vertically installed through the horizontal end face of the corner brackets.

[0017] By adopting the above technical solution, the support frame serves as the foundation of the entire structure, providing stable support. The side supports on both vertical end faces further enhance the structure's stability and load-bearing capacity. The corner brackets on the adjacent vertical end faces of the side supports, through their L-shaped design, can better adapt to and be fixedly installed on the structure, providing additional support points. Specifically, the vertical end faces of the corner brackets are fixed to the side supports with screws, ensuring the structure's tightness and stability. Multiple screws are vertically installed through the horizontal end faces of the corner brackets for further fixing and connecting other components, enhancing the overall structural stability and load-bearing capacity. The support frame provides basic support, the side supports increase stability, and the corner brackets, through their L-shaped structure and screw connections, provide additional support and fixing points, thereby ensuring the stability and durability of the entire structure in various application scenarios.

[0018] Optionally, the horizontal functional module includes a snap-fit ​​bracket, which is horizontally positioned between the side supports at both ends of the stand base. The two ends of the snap-fit ​​bracket are fixedly assembled to the corner bracket frame with screws. Slots are provided on both the front and rear end faces of the snap-fit ​​bracket. Multiple functional panels are vertically arranged on both the front and rear sides of the snap-fit ​​bracket. A power module is fixedly assembled through the center of one of the functional panels, and the power module is electrically connected to an external power supply line. A control panel is fixedly assembled through the center of another functional panel. The board is electrically connected to the external control circuit. A gas circuit module is fixedly assembled through the middle of one of the multiple function strip panels, and the gas circuit module is connected and fixed to the gas supply line. The upper and lower ends of the function strip panel are vertically inserted with plug rod brackets, and the adjacent ends of the plug rod brackets on the upper and lower sides of the function strip panel are vertically provided with compression springs. The two ends of the compression springs are respectively fixed to the adjacent ends of the plug rod brackets on the upper and lower sides of the function strip panel. The plug rod brackets are inserted into the slots of the snap-fit ​​brackets. LED supplementary lights are horizontally fixed on the upper front and rear end faces of the snap-fit ​​brackets.

[0019] By adopting the above technical solution, the horizontally positioned snap-fit ​​bracket is used to stably fix the functional strip panel between the side supports, ensuring the overall structural stability of the equipment. The insert bracket serves as a crucial connector between the functional strip panel and the snap-fit ​​bracket; its height can be easily adjusted by sliding up and down within the slot. A pressure spring is used to adjust the elastic pressure of the insert bracket, ensuring the functional strip panel is securely installed while maintaining a certain degree of elasticity, preventing deformation due to pressure over prolonged use. An LED supplementary light is installed on the upper end of the snap-fit ​​bracket to provide auxiliary lighting, ensuring sufficient illumination during operation. The power module, pneumatic module, and control panel are responsible for supplying power and pneumatic supply, and providing operational control functions, respectively, to meet the equipment's operational needs. Through the combination of the snap-fit ​​bracket and the insert bracket, the functional strip panel can be flexibly installed and adjusted, providing a multi-functional interface. The LED supplementary light ensures adequate lighting conditions in the operating environment, while the power module, pneumatic module, and control panel work together to provide power supply, pneumatic support, and operational control, respectively, achieving stable and efficient operation of the entire system.

[0020] Optionally, multiple reagent storage racks and storage hanging frames are detachably assembled vertically above the horizontal functional modules on the side supports of the stand base. The multiple reagent storage racks and corner brackets are fixed together with screws. Storage hanging frames are provided on the top of the side supports on both sides of the stand base. The storage hanging frames and corner brackets are fixed together with screws. A cleaning tank is inserted through one end of the stand base. A faucet is vertically assembled on the top plate of the stand base. The faucet is connected and fixed to an external water supply pipe. A sewage pump is fixed inside the stand base. The inlet of the sewage pump is connected to the drain pipe of the cleaning tank. The outlet of the sewage pump is connected to the sewage pipe.

[0021] By adopting the above technical solution, the bench base, as the basic support structure of the entire equipment, provides a stable working platform. Side supports installed on both sides not only enhance the stability of the overall structure but also support the reagent racks and hanging storage frames, facilitating the categorized storage of experimental supplies. The reagent racks and hanging storage frames are used to store reagents and materials required for experiments, improving the convenience of experimental operations. Corner support strips are fixed to the reagent racks and hanging storage frames with screws, ensuring their sturdiness and reliability. A cleaning tank embedded at one end of the bench base collects wastewater generated during experiments, ensuring a clean and tidy work surface. A faucet at the top of the bench base connects to a water supply pipe, facilitating equipment cleaning during experiments. An internal sewage pump in the bench base automates wastewater treatment by drawing wastewater from the cleaning tank and discharging it through a sewage pipe, maintaining a clean work surface and a convenient working environment. This design not only improves the efficiency of storing and managing experimental supplies in the laboratory but also simplifies the laboratory cleaning process through an automated wastewater treatment system, thereby improving the laboratory's overall efficiency.

[0022] Optionally, the front and rear end faces of the stand are assembled with frame platforms using assembly screws. The side supports on both sides of the stand are vertically detachable and assembled with multiple reagent storage racks located above the horizontal functional modules. The multiple reagent storage racks and the corner frame strips are fixed together with screws. A concealed suction hood is fixed through the top plate of the stand, and a suction port is opened through the top of the concealed suction hood. An exhaust pipe is fixedly connected to the bottom of the concealed suction hood, and the exhaust pipe is fixedly connected to the suction pump.

[0023] By adopting the above technical solution, the frame base serves as the basic support structure of the entire device. It is connected to the frame platform via assembly screws on both the front and rear end faces, ensuring structural stability. The frame platform and the frame base together constitute the main body of the device. Side supports are located on both sides of the frame base, and multiple reagent storage racks can be vertically assembled inside for storing reagents and other items. Cleaning strips, as part of the side supports, are used to fix the reagent storage racks with screws, improving assembly convenience and stability. A concealed suction hood is installed on the top plate of the frame base, with a suction port at its top, which can effectively absorb dust and harmful gases generated during operation. The suction port is connected to the exhaust pipe, which is connected to the suction pump, ensuring rapid gas discharge and maintaining a clean working environment. The overall structure of the device is stable and rationally laid out, facilitating the storage of reagents required for experiments or analysis. The concealed suction hood's function is to promptly capture contaminants generated during operation. The cooperation between the exhaust pipe and the suction pump creates negative pressure, drawing contaminants through the concealed suction hood and expelling them, effectively preventing pollution diffusion and ensuring a clean and safe working environment.

[0024] Optionally, there are two vertical functional modules. The two vertical functional modules are assembled horizontally. The top of the side brackets on both sides of the platform base of the two vertical functional modules are provided with screw holes, and the screw holes of the side brackets of the two vertical functional modules are fixedly assembled by connecting screws.

[0025] By adopting the above technical solution, two vertical functional modules are responsible for different functional tasks, and together they complete the overall function through horizontal assembly. Each vertical functional module is equipped with a support frame and a side bracket. Screw holes are provided on both sides of the top of the side bracket for precise positioning. Connecting screws pass through these screw holes, firmly fixing the two vertical functional modules together and ensuring their stability during operation. The support frame provides a stable foundation, ensuring the vertical stability and reliability of the vertical functional modules, while the side brackets enhance the lateral stability and strength of the overall structure. By connecting these two vertical functional modules with connecting screws, the system can be flexibly configured according to actual needs, while also ensuring the stability and reliability of the structure. Each vertical functional module independently undertakes a part of the function, and the connection of connecting screws to form a whole ensures the stability and flexibility of the system, enabling the entire device to perform tasks efficiently and reliably.

[0026] In summary, this application includes at least one of the following beneficial technical effects: Through modular assembly and multi-dimensional adjustment, the experimental platform transcends fixed equipment into an evolving system, completely breaking down spatial and functional limitations. The horizontal and vertical adjustable base legs allow for independent length adjustment, enabling rapid calibration of the platform's level without damaging the ground. The support frame of the platform is detachably connected to the base via assembly screws, allowing for the addition or removal of support frames according to equipment size. The platform width is expandable, and its length can be extended by splicing multiple vertical functional modules, fully adapting to the needs of different sized equipment and avoiding the high costs of traditional custom-made platform designs. Horizontal functional modules, reagent racks, and storage cabinets are detachably assembled via corner brackets and side supports, eliminating the need to dismantle the fixed ground structure. This improves layout adjustment efficiency, reduces laboratory downtime losses, and allows for real-time addition or removal of functional modules based on research project progress, further reducing costs.

[0027] By using independent modules and standardized interfaces, low-cost and high-efficiency function upgrades and maintenance are achieved. The standardized interfaces are compatible with different modules. The power connection frame is quickly fixed to the assembly frame by anchors and positioning bolts. Both the power module and the pneumatic module use standardized interfaces, which are compatible with functional modules of different brands and specifications. The horizontal functional module's snap-fit ​​bracket uses plug-in brackets and compression springs to achieve quick assembly of the functional panel. Power, pneumatic, and control modules can be combined according to experimental needs, avoiding the waste of replacing the entire traditional integrated functional board and reducing costs.

[0028] By modularly assembling and allowing for manual operation, researchers can design their own workbenches according to their experimental habits and processes, achieving true personalization. Most modules can be disassembled and assembled without professional tools, the positioning bolts of the electrical connection frame can be tightened by hand, and the plug rack with a functional panel can be inserted into the snap-fit ​​bracket simply by pressing. This improves user convenience, shortens experimental preparation time, and allows personalized configurations to adapt to diverse experimental processes, thereby improving research efficiency.

[0029] In summary, this technology, through collaborative innovation of flexible adjustment across all dimensions, independent functional modules, and user-driven customization, completely solves the core problems of traditional laboratory benches, such as rigid layout, coupled functions, and poor customization. It achieves a leap from fixed equipment to an evolving system, allowing the laboratory layout and functions to evolve synchronously with research projects, reducing the total life cycle cost, improving research efficiency, and meeting the requirements of modern scientific research for spatial flexibility, rapid functional iteration, and personalized needs. Attached Figure Description

[0030] Figure 1 This is a schematic diagram of the overall structure of the first embodiment of this application; Figure 2 This is a schematic diagram of the overall structure of the first embodiment of this application in an exploded state; Figure 3 This is a structural schematic diagram of the vertical functional module in the exploded state according to an embodiment of this application; Figure 4 This is a schematic diagram of the horizontal functional module in the exploded state according to an embodiment of this application; Figure 5 This is a schematic diagram of the frame platform in an exploded state according to an embodiment of this application; Figure 6 This is a schematic diagram of the overall structure of the second embodiment of this application; Figure 7 This is a schematic diagram of the overall structure of the second embodiment of this application in an exploded state; Figure 8 This is a schematic diagram of the overall structure of the third embodiment of this application; Figure 9 This is a structural schematic diagram of the entire third embodiment of this application in an exploded state.

[0031] Explanation of reference numerals in the attached diagram: 1. Vertical functional module; 11. Stand base; 111. Foot; 112. Assembling frame; 113. Platform; 12. Side support; 121. Corner support strip; 13. Power connection frame plate; 14. Power socket; 15. Positioning bolt; 16. Anchor column; 17. Clamping plate; 2. Frame platform; 21. Support frame; 22. Base plate; 23. Assembling screw; 3. Horizontal functional module; 31. Clamping bracket; 32. Functional strip panel; 33. Insert rod bracket; 34. Compression spring; 35. Power module; 36. Air circuit module; 37. Control panel; 38. LED supplementary light; 4. Storage reagent rack; 5. Storage hanging frame; 6. Faucet; 61. Sewage pump; 62. Cleaning pool; 7. Concealed exhaust hood; 71. Exhaust pipe; 8. Connecting screw. Detailed Implementation

[0032] The present application will be further described in detail below with reference to the accompanying drawings.

[0033] This application discloses a highly modular and reconfigurable experimental platform system.

[0034] First embodiment: Reference Figure 1 , Figure 2 , Figure 3 , Figure 4 and Figure 5A highly modular and reconfigurable experimental platform system includes a vertical functional module 1, a frame platform 2, a horizontal functional module 3, a reagent storage rack 4, and a storage hanging frame 5. The vertical functional module 1 is used as a base frame for later assembly, and the frame platform 2 can be detachably assembled on both the front and rear end faces of the vertical functional module 1. The horizontal functional module 3 can be detachably assembled on the upper inside of the vertical functional module 1, and the horizontal functional module 3 is used to support the functional modules. The reagent storage rack 4 or the storage hanging frame 5 can be detachably assembled vertically above the horizontal functional module 3 inside the vertical functional module 1, and the reagent storage rack 4 or the storage hanging frame 5 is used to expand the storage space.

[0035] By adopting the above technical solution, the vertical functional module 1 serves as the basic support structure for later assembly, providing a stable support structure. The frame platform 2 is fixed to the front and rear end faces of the vertical functional module 1 through detachable assembly, enhancing the overall frame stability of the system. The horizontal functional module 3 is detachably assembled and installed on the upper side inside the vertical functional module 1 to support various experimental equipment and devices. The reagent storage rack 4 or storage hanging frame 5 is installed inside the vertical functional module 1, located above the horizontal functional module 3, and can be replaced vertically to expand the storage space of the experimental platform, facilitating the storage of various reagents and experimental supplies by experimental personnel. This design allows the entire experimental platform to be flexibly adjusted according to different experimental needs, not only improving space utilization but also enhancing the convenience and safety of experimental operations. Through the cooperation of the vertical functional module 1, frame platform 2, horizontal functional module 3, reagent storage rack 4, and storage hanging frame 5, the experimental platform can adapt to various experimental environments, providing a highly customizable and expandable work platform.

[0036] Reference Figure 3The vertical functional module 1 includes a platform base 11. Multiple feet 111 are vertically fixed to the bottom surface of the platform base 11. Side supports 12 are vertically fixed to both vertical ends of the platform base 11, and the top of each side support 12 has a horizontally penetrating assembly screw hole. Clamping plates 17 are vertically clamped to the front and rear sides of the bottom of the platform base 11, and an assembly frame 112 is horizontally fixed to the top surface of the platform base 11. A platform plate 113 is horizontally fixed to the top surface of the assembly frame 112. The platform base 11 of the vertical functional module serves as the basic support structure, securely mounted on the ground by the feet 111 at the bottom, ensuring the stability and safety of the entire module. The side supports 12 not only enhance the overall structural stability but also, through the horizontally penetrating assembly screw holes at the top, allow for precise assembly with other modules of the same structure, increasing structural diversity and flexibility. The clamping plates 17 on the front and rear sides provide additional fixing points, ensuring more reliable fixation between the platform base 11 and the ground or other equipment. The assembly frame 112 and platform 113 provide a fixed horizontal position, suitable for installing various horizontally loaded equipment or components, making the entire structure both stable and easy to install and disassemble. Fixed to the ground by feet 111 ensures stability, while side supports 12 enhance lateral support, enabling it to withstand a certain degree of lateral force. Finally, the assembly frame 112 and platform 113 provide a horizontal installation position, forming a robust, reliable, and flexibly assembled vertical functional module. Multiple power connection frames 13 are horizontally and vertically assembled on the front and rear vertical ends of the assembly frame 112, and power sockets 14 are fixedly assembled through the center of each of these frames, electrically connected to an external power supply cable. The assembly frame 112 is used to fix and support the entire device and provides space for installation and assembly. The multiple horizontally and vertically assembled power connection frames 13 on its front and rear vertical ends mainly provide a fixed platform for installing the power sockets 14, facilitating neat arrangement and installation. The power socket 14 directly connects to the external power supply cable, ensuring smooth power transmission to the equipment requiring power. Through the structural design of the assembly frame 112, multiple power connection plates 13 can be easily installed. Each power connection plate 13 is equipped with a power socket 14, which can simultaneously connect to one or more external power supply cables, thus providing a stable power supply to multiple devices requiring power. This not only improves the convenience and aesthetics of installation but also effectively ensures stable electrical contact performance at each connection point. Anchor posts 16 are vertically fixed to the top surface of the power connection plate 13, and the anchor posts 16 are inserted into the top slots of the assembly frame 112. Locking lugs are vertically fixed to the bottom surface of the power connection plate 13, and the locking lugs on the power connection plate 13 are fixed to the bottom of the assembly frame 112 by positioning bolts 15. The main function of the anchor 16 is to provide a stable vertical connection between the electrical connection frame 13 and the assembly frame 112, ensuring the vertical stability of the electrical connection frame 13 in the installation position.The locking lugs on the power receiving frame 13 are fixed to the bottom of the assembly frame 112 by positioning bolts 15, preventing the power receiving frame 13 from sliding down and further enhancing its fixing effect. The anchor 16 is inserted into the top slot of the assembly frame 112 to ensure the horizontal stability of the power receiving frame 13 and prevent it from swaying left and right. First, the power receiving frame 13 is fixed to the bottom of the assembly frame 112 by its bottom locking lugs and positioning bolts 15, providing vertical fixing force; second, the anchor 16 is inserted into the top slot of the assembly frame 112, which serves as a horizontal limit, further ensuring the stability of the power receiving frame 13 in the installation position; finally, these two parts work together to achieve a stable connection of the power receiving frame 13 in the installation position, providing reliable power access and transmission functions.

[0037] Reference Figure 3 and Figure 5The frame platform 2 includes a support frame 21 and a base plate 22. The vertical ends of the support frame 21 are horizontally perforated with screw holes on both sides, and assembly screws 23 are threaded into these screw holes and attached to the base 11. The base plate 22 is horizontally fixed to the top surface of the support frame 21. The support frame 21 provides an adjustable support surface, allowing for overall assembly and height adjustment via the horizontally perforated screw holes and assembly screws 23 on both sides of its vertical ends. The base plate 22 serves as the contact surface with the workpiece, fixed to the top surface of the support frame 21, acting as a platform to support the working components. When the assembly screws 23 are threaded onto the base 11 through the screw holes, the stability and adjustability of the entire frame platform 2 are ensured. By adjusting the position of the assembly screws 23 in the screw holes, the height of the support frame 21 can be changed, thereby adjusting the height of the base plate 22 to accommodate the needs of different working components, ensuring stable and efficient operation. On both sides of the vertical end face of the support frame 11, adjacent vertical end faces of the side brackets 12 are horizontally provided with corner brackets 121. The vertical cross-section of the corner brackets 121 is L-shaped. The vertical end faces of the corner brackets 121 are fixed to the side brackets 12 with screws, and multiple screws are vertically installed through the horizontal end faces of the corner brackets 121. The support frame 11 is the foundation of the entire structure, providing stable support. The side brackets 12 on both sides of the vertical end face further enhance the stability and load-bearing capacity of the structure. The L-shaped design of the corner brackets 121 on adjacent vertical end faces of the side brackets 12 allows for better fit and fixed installation on the structure, providing additional support points. Specifically, the vertical end faces of the corner brackets 121 are fixed to the side brackets 12 with screws, ensuring the tightness and stability of the structure. Multiple screws are vertically installed through the horizontal end faces of the corner brackets 121 for further fixing and connecting other components, enhancing the overall stability and load-bearing capacity of the structure. The stand base 11 provides basic support, the side brackets 12 increase stability, and the corner frame strips 121 provide additional support and fixing points through an L-shaped structure and screw connection, thereby ensuring the stability and durability of the entire structure in various application scenarios.

[0038] Reference Figure 2 , Figure 3 and Figure 4The horizontal functional module 3 includes a snap-fit ​​bracket 31, which is horizontally positioned between the side supports 12 at both ends of the platform base 11. Both ends of the snap-fit ​​bracket 31 are fixedly assembled with the corner frame strip 121 by screws. Slots are provided on both the front and rear end faces of the snap-fit ​​bracket 31. Multiple functional panels 32 are vertically arranged on both the front and rear sides of the snap-fit ​​bracket 31. A power module 35 is fixedly assembled through the center of one of the functional panels 32, and the power module 35 is electrically connected to an external power line. A control panel 37 is fixedly assembled through the center of one of the functional panels 32. Electrically connected to an external control circuit, a pneumatic module 36 is fixedly assembled through the center of one of the multiple functional panels 32, and the pneumatic module 36 is connected and fixed to the pneumatic supply pipeline. Insertion rod brackets 33 are vertically inserted through both the upper and lower ends of the functional panel 32, and vertically mounted pressure springs 34 are installed at adjacent ends of the insertion rod brackets 33 on both the upper and lower sides of the functional panel 32. The two ends of the pressure springs 34 are respectively fixed to the adjacent ends of the insertion rod brackets 33 on the upper and lower sides of the functional panel 32. The insertion rod brackets 33 are inserted into the slots of the snap-fit ​​brackets 31. LED supplementary lights 38 are horizontally fixed on the upper front and rear end faces of the snap-fit ​​brackets 31. The snap-fit ​​brackets 31 are horizontally positioned to stably fix the functional panel 32 between the side supports 12, ensuring the overall structural stability of the equipment. The insertion rod brackets 33 serve as an important connecting component between the functional panel 32 and the snap-fit ​​brackets 31; by sliding up and down in the slots, the height of the panel can be easily adjusted. The pressure spring 34 is used to adjust the elastic pressure of the insertion rod bracket 33, ensuring that the functional panel 32 can be securely installed while maintaining a certain degree of elasticity, preventing deformation of the mounting components due to pressure over prolonged use. The LED supplementary light 38 is mounted on the upper end of the snap-fit ​​bracket 31 to provide auxiliary lighting, ensuring sufficient light during operation. The power module 35, pneumatic module 36, and control panel 37 are responsible for supplying power, pneumatic supply, and providing operational control functions, respectively, to meet the needs of equipment operation. Through the combination of the snap-fit ​​bracket 31 and the insertion rod bracket 33, the functional panel 32 can be flexibly installed and adjusted, providing a multi-functional interface. The LED supplementary light 38 ensures adequate lighting conditions in the operating environment, while the power module 35, pneumatic module 36, and control panel 37 cooperate to provide power supply, pneumatic support, and operational control, respectively, achieving stable and efficient operation of the entire system.The side supports 12 on both sides of the stand base 11 are vertically detachable and assembled with multiple reagent storage racks 4 and storage hanging frames 5, located above the horizontal functional module 3. The reagent storage racks 4 are fixed to the corner support strips 121 with screws. Storage hanging frames 5 are installed on the top of the side supports 12 on both sides of the stand base 11, and are also fixed to the corner support strips 121 with screws. A cleaning tank 62 is inserted through one end of the stand base 11, and a faucet 6 is vertically assembled on the top plate 113 of the stand base 11, connected and fixed to an external water supply pipe. A sewage pump 61 is fixed inside the stand base 11, with its inlet connected to the drainage pipe of the cleaning tank 62 and its outlet connected to a sewage pipe. The stand base 11 serves as the basic support structure for the entire equipment, providing a stable working platform. Side supports 12 are installed on both sides, enhancing the overall structural stability and supporting the reagent storage rack 4 and the hanging storage frame 5, facilitating the categorized storage of experimental supplies. The reagent storage rack 4 and the hanging storage frame 5 store reagents and materials required for experiments, improving the convenience of experimental operations. Corner support strips 121 secure the reagent storage rack 4 and the hanging storage frame 5 with screws, ensuring their sturdiness and reliability. A cleaning tank 62 embedded at one end of the stand base 11 collects wastewater generated during experiments, ensuring a clean and tidy work surface. A faucet 6 at the top of the stand base 11 connects to a water supply pipe, facilitating equipment cleaning during experiments. The wastewater pump 61 inside the stand base 11 automates wastewater treatment by drawing wastewater from the cleaning tank and discharging it through a wastewater pipe, maintaining a clean work surface and a convenient working environment. This design not only improves the efficiency of storing and managing experimental supplies in the laboratory but also simplifies the laboratory cleaning process through an automated wastewater treatment system, thereby increasing the laboratory's overall efficiency.

[0039] The implementation principle of a highly modular and reconfigurable experimental platform system according to an embodiment of this application is as follows: First, rotate the multiple feet 111 on the bottom surface of the stand base 11 of the vertical functional module 1. By adjusting the extension length of the multiple feet 111, adjust the support level of the stand base 11. Then, according to the actual power supply requirements of the experiment, select an appropriate number of power connection frame plates 13 and power connection sockets 14. Fix the power connection frame plates 13 and power connection sockets 14 together with screws. Assemble the assembled power connection frame plates 13 and power connection sockets 14 on the front and rear end faces of the assembly frame 112. Finally, connect the power connection sockets 14 to the external cable. Next, during assembly, the top anchor post 16 of the power connection frame plate 13 is inserted into the top slot of the assembly frame 112, and the positioning bolt 15 is used to fix the bottom locking ear plate of the power connection frame plate 13 onto the assembly frame 112. The power connection frame plate 13 and the power connection socket 14 are assembled into one unit on the assembly frame 112. According to the lifting space requirements of the experiment, the frame platform 2 is set in front of the platform base 11 of the vertical functional module 1. The lifting frame 21 in the frame platform 2 is fixedly assembled on the front end face of the platform base 11 by the assembly screw 23. Meanwhile, horizontal functional modules 3, reagent storage racks 4, and storage cabinets 5 are arranged horizontally from bottom to top inside the side supports 12 on both sides of the stand base 11. The horizontal functional modules 3, reagent storage racks 4, and storage cabinets 5 are detachably assembled on the side supports 12 on both sides of the stand base 11 via corner brackets 121 and bolts. The reagent storage racks 4 and storage cabinets 5 are used for storing reagents and other items, respectively. Multiple functional panels 32 are detachably assembled on the front and rear sides of the snap-fit ​​brackets 31 of the horizontal functional modules 3. Power modules 35, control panels 37, and gas circuit modules 36 are fixedly assembled through the multiple functional panels 32. The power modules 35, control panels 37, and gas circuit modules 36 are used for electrical connection with external power lines. The external control circuit is electrically connected and the gas supply line is connected, which facilitates the use of power supply, control display and gas supply in later experiments. When installing multiple functional strip panels 32, the upper and lower end plug rods 33 of the internal vertical pressing functional strip panel 32 slide relative to each other. The function strip panel 32 is inserted into the snap-fit ​​bracket 31 by the deformation of the pressing spring 34 between the upper and lower end plug rods 33 of the functional strip panel 32. Under the deformation force of the pressing spring 34, the plug rods 33 are pushed into the upper and lower end surfaces of the snap-fit ​​bracket 31, which completes the assembly stability of multiple functional strip panels 32 on the front and rear end surfaces of the snap-fit ​​bracket 31. LED supplementary lights 38 are horizontally fixed on the upper side of the front and rear end surfaces of the snap-fit ​​bracket 31 for experimental supplementary lighting. Finally, a cleaning tank 62 is inserted through one end of the platform 113 of the stand base 11, and a faucet 6 is threaded through one end of the platform 113 of the stand base 11. The faucet 6 is connected and fixed to an external water supply pipe. A sewage pump 61 is fixed inside the stand base 11, and the inlet end of the sewage pump 61 is connected to the drainage pipe of the cleaning tank 62, and the outlet end of the sewage pump 61 is connected to the sewage pipe. When the faucet 6 is turned on, the wastewater generated during cleaning enters the cleaning tank 62 and is then pumped out by the sewage pump 61 and discharged into the sewage pipe.

[0040] Second embodiment: Example 2: The device provided in this embodiment of the invention has the same implementation principle and technical effects as that in Example 1. For the sake of brevity, any parts not mentioned in this embodiment can be referred to the corresponding content in Example 1.

[0041] Reference Figure 6 and Figure 7 The front and rear end faces of the stand base 11 are assembled with frame platforms 2 by assembly screws 23. The side supports 12 on both sides of the stand base 11 are located above the horizontal functional module 3 and are detachably assembled with multiple storage reagent racks 4 in the vertical direction. The multiple storage reagent racks 4 are fixedly assembled with the corner frame strips 121 by screws. A concealed suction hood 7 is fixedly fixed through the top plate 113 of the stand base 11. The top of the concealed suction hood 7 is provided with a suction port. The bottom end of the concealed suction hood 7 is connected to and fixed with an exhaust pipe 71. The exhaust pipe 71 is connected to and fixed with a suction pump.

[0042] By adopting the above technical solution, the frame base 11 serves as the basic support structure of the entire device. It is connected to the frame platform 2 via assembly screws 23 on both the front and rear end faces, ensuring structural stability. The frame platform 2 and the frame base 11 together constitute the main body of the device. Side supports 12 are located on both sides of the frame base 11, and multiple reagent storage racks 4 can be vertically assembled inside for storing reagents and other items. The cleaning strip 121, as part of the side supports 12, fixes the reagent storage racks 4 with screws, improving the convenience and stability of assembly. A concealed suction hood 7 is provided on the top plate 113 of the frame base 11, with a suction port on its top, which can effectively absorb dust and harmful gases generated during operation. The suction port is connected to the exhaust pipe 71, which is connected to the suction pump, ensuring rapid gas discharge and maintaining a clean working environment. The overall structure of the device is stable and the layout is reasonable, allowing for convenient storage of reagents required for experiments or analysis. The function of the concealed suction hood 7 is to capture pollutants generated during work in a timely manner. The cooperation between the exhaust pipe 71 and the suction pump can create negative pressure, which draws in pollutants through the concealed suction hood 7 and discharges them, effectively preventing the spread of pollution and ensuring a clean and safe working environment.

[0043] The implementation principle of a highly modular and reconfigurable experimental platform system according to an embodiment of this application is as follows: First, rotate the multiple feet 111 on the bottom surface of the stand base 11 of the vertical functional module 1. By adjusting the extension length of the multiple feet 111, adjust the support level of the stand base 11. Then, according to the actual power supply requirements of the experiment, select an appropriate number of power connection frame plates 13 and power connection sockets 14. Fix the power connection frame plates 13 and power connection sockets 14 together with screws. Assemble the assembled power connection frame plates 13 and power connection sockets 14 on the front and rear end faces of the assembly frame 112. Finally, connect the power connection sockets 14 to the external cable. Next, during assembly, the top anchor post 16 of the power connection frame plate 13 is inserted into the top slot of the assembly frame 112, and the positioning bolt 15 is used to fix the bottom locking ear plate of the power connection frame plate 13 onto the assembly frame 112. The power connection frame plate 13 and the power connection socket 14 are assembled into one unit on the assembly frame 112. According to the lifting space requirements of the experiment, the two frame platforms 2 are respectively set on the front and rear sides of the platform base 11 of the vertical functional module 1. The lifting frame 21 in the frame platform 2 is fixedly assembled onto the platform base 11 by the assembly screw 23. Meanwhile, horizontal functional modules 3 and reagent storage racks 4 are arranged horizontally from bottom to top inside the side supports 12 on both sides of the stand base 11. The horizontal functional modules 3 and reagent storage racks 4 are detachably assembled on the side supports 12 on both sides of the stand base 11 via corner brackets 121 and bolts. The reagent storage racks 4 are used to store reagents. Multiple functional panels 32 are detachably assembled on the front and rear sides of the snap-fit ​​brackets 31 of the horizontal functional modules 3. Power modules 35, control panels 37 and gas circuit modules 36 are fixedly assembled through the multiple functional panels 32. Power modules 35, control panels 37 and gas circuit modules 36 are used for electrical connection with external power lines and external control lines, respectively. The connection to the gas supply line facilitates power supply, control display, and gas supply during later experiments. When installing multiple functional strip panels 32, the upper and lower end insert rod brackets 33 of the internal vertical pressing functional strip panel 32 slide relative to each other. By utilizing the deformation of the pressing spring 34 between the upper and lower end insert rod brackets 33 of the functional strip panel 32, the functional strip panel 32 is inserted into the snap-fit ​​bracket 31. Under the deformation force of the pressing spring 34, the insert rod bracket 33 is pushed into the upper and lower end faces of the snap-fit ​​bracket 31, thus completing the assembly stability of multiple functional strip panels 32 on the front and rear end faces of the snap-fit ​​bracket 31. Furthermore, LED supplementary lights 38 are horizontally fixed on the upper side of the front and rear end faces of the snap-fit ​​bracket 31 for experimental supplementary lighting. Finally, a concealed suction hood 7 is fixedly installed on the top plate 113 of the stand 11, and a suction port is provided on the top of the concealed suction hood 7. The concealed suction hood 7 is made of corrugated pipe, which can be retracted and hidden to adjust the position of the smoke extraction. At the same time, it does not affect the normal experiment of the top plate 113 of the stand 11. The bottom end of the concealed suction hood 7 is connected and fixedly connected to an exhaust pipe 71, and the exhaust pipe 71 is connected and fixedly connected to a suction pump. When the suction pump is turned on, a negative pressure is generated in the exhaust pipe 71 and the concealed suction hood 7 to extract the smoke generated by the experiment on the plate 113.

[0044] Third embodiment: Example 3: The device provided in this embodiment of the invention has the same implementation principle and technical effects as those in Examples 1 and 2. For the sake of brevity, any parts not mentioned in this embodiment can be referred to the corresponding contents in Examples 1 and 2.

[0045] Reference Figure 8 and Figure 9 There are two vertical functional modules 1. The two vertical functional modules 1 are assembled horizontally. The top of the side brackets 12 on both sides of the platform base 11 of the two vertical functional modules 1 are provided with screw holes, and the screw holes of the side brackets 12 of the two vertical functional modules 1 are fixedly assembled by connecting screws 8.

[0046] By adopting the above technical solution, two vertical functional modules are responsible for different functional tasks, and together they complete the overall function through horizontal assembly. Each vertical functional module is equipped with a support frame 11 and a side bracket 12. Screw holes are provided on both sides of the top of the side bracket for precise positioning. Connecting screws 8 pass through these screw holes, firmly fixing the two vertical functional modules together and ensuring their stability during operation. The support frame 11 provides a stable foundation, ensuring the vertical stability and reliability of the vertical functional modules, while the side bracket 12 enhances the lateral stability and strength of the overall structure. By connecting these two vertical functional modules 1 with connecting screws 8, the system can be flexibly configured according to actual needs, while also ensuring the stability and reliability of the structure. Each vertical functional module 1 independently undertakes a part of the function, and the connection of the connecting screws 8 forms a whole, ensuring the stability and flexibility of the system, enabling the entire device to perform tasks efficiently and reliably.

[0047] The implementation principle of a highly modular and reconfigurable experimental platform system according to an embodiment of this application is as follows: First, multiple feet 111 are installed on the bottom surfaces of the two platform bases 11 in the two vertical functional modules 1. The horizontal support of the two platform bases 11 is adjusted by adjusting the extension length of the multiple feet 111. Then, according to the actual power supply requirements of the experiment, an appropriate number of power connection frame plates 13 and power connection sockets 14 are selected. The power connection frame plates 13 and power connection sockets 14 are assembled together by fixing them with screws. The assembled power connection frame plates 13 and power connection sockets 14 are then assembled on the front and rear end faces of the assembly frame 112. Finally, the power connection sockets 14 are connected to the external power supply. For cable connection, during assembly, the top anchor post 16 of the power receiving frame plate 13 is inserted into the top slot of the assembly frame 112, and the positioning bolt 15 is used to fix the bottom locking ear plate of the power receiving frame plate 13 onto the assembly frame 112. The power receiving frame plate 13 and the power receiving socket 14 are assembled into one unit on the assembly frame 112. According to the lifting space requirements of the experiment, frame platforms 2 are set on the front and rear sides of the platform base 11 of the two vertical functional modules 1. The lifting frame 21 in the frame platform 2 is fixedly assembled onto the platform base 11 by the assembly screw 23. Meanwhile, in one of the two platform bases 11, the side supports 12 on both sides of the platform base 11 are horizontally arranged from bottom to top with a horizontal functional module 3, a reagent storage rack 4, and a storage hanging frame 5. The horizontal functional module 3, the reagent storage rack 4, and the storage hanging frame 5 are all detachably assembled onto the side supports 12 on both sides of the platform base 11 using corner brackets 121 and bolts. Similarly, in the other platform base 11, the side supports 12 on both sides of the platform base 11 are horizontally arranged from bottom to top with a horizontal functional module 3 and a reagent storage rack 4. The horizontal functional module 3 and the reagent storage rack 4 are detachably assembled onto the side supports 12 on both sides of the platform base 11 using corner brackets 121 and bolts. The reagent storage rack 4 and the storage hanging frame 5 are used to store reagents. Multiple functional strip panels 32 are detachably assembled on the front and rear sides of the snap-fit ​​bracket 31 of the horizontal functional module 3. A fixed assembly is passed through the multiple functional strip panels 32. Equipped with a power module 35, a control panel 37, and a pneumatic circuit module 36, the power module 35, control panel 37, and pneumatic circuit module 36 are respectively used for electrical connection with external power lines, electrical connection with external control lines, and connection with pneumatic supply lines, facilitating power supply, control display, and pneumatic supply during later experiments. When installing multiple functional strip panels 32, the upper and lower end insert rod brackets 33 of the internal vertical pressing functional strip panel 32 slide relative to each other. Utilizing the deformation of the pressing spring 34 between the upper and lower end insert rod brackets 33 of the functional strip panel 32, the functional strip panel 32 is inserted into the snap-fit ​​bracket 31. Under the deformation force of the pressing spring 34, the insert rod brackets 33 are pushed into the upper and lower end faces of the snap-fit ​​bracket 31, thus completing the assembly stability of multiple functional strip panels 32 on the front and rear end faces of the snap-fit ​​bracket 31. Furthermore, an LED supplementary light 38 is horizontally fixed on the upper side of the front and rear end faces of the snap-fit ​​bracket 31 for experimental supplementary lighting. Then, a concealed suction hood 7 is fixedly installed through one of the platform plates 113 of the two test benches 11. The top of the concealed suction hood 7 has a through-hole. The concealed suction hood 7 is made of corrugated tubing, which can be retracted and concealed to adjust the position for smoke extraction. Simultaneously, it does not affect the normal operation of the top platform plate 113 of the test bench 11. An exhaust pipe 71 is fixedly connected to the bottom of the concealed suction hood 7, and the exhaust pipe 71 is connected to a suction pump. When the suction pump is turned on, a negative pressure is generated in the exhaust pipe 71 and the concealed suction hood 7, extracting the smoke generated during the experiment on the platform plate 113. On another plate 113 of the stand 11, a plug-in cleaning tank 62 is inserted through one end of the plate 113 of the stand 11. At the same time, a faucet 6 is threaded through one end of the plate 113 of the stand 11. The faucet 6 is connected and fixed to an external water supply pipe. A sewage pump 61 is fixed inside the stand 11. The inlet end of the sewage pump 61 is connected to the drainage pipe of the cleaning tank 62, and the outlet end of the sewage pump 61 is connected to the sewage pipe. When the faucet 6 is turned on, the wastewater generated during cleaning enters the cleaning tank 62 and is then pumped out by the sewage pump 61 and discharged into the sewage pipe. Finally, threaded holes are made through the adjacent side supports 12 of the two platform bases 11, and the threaded holes of the adjacent side supports 12 of the two platform bases 11 are fixedly assembled into one piece by connecting screws 8, and the expanded assembly meets the experimental requirements.

[0048] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A highly modular reconfigurable lab bench system, characterized in that, The utility model provides a kind of modularized multifunctional laboratory bench, including vertical function module (1), frame table (2), transverse function module (3), storage reagent frame (4) and storage hanging frame (5), the vertical function module (1) is used as late assembly base frame setting, and the front and rear two side end faces of the vertical function module (1) are detachably assembled with the frame table (2), the inside upper side of the vertical function module (1) is detachably assembled with the transverse function module (3), and the transverse function module (3) is used to carry function module, the inside of the vertical function module (1) is detachably assembled with the storage reagent frame (4) or storage hanging frame (5) in the vertical direction above the transverse function module (3), and the storage reagent frame (4) or storage hanging frame (5) is used to expand storage space.

2. The highly modular reconfigurable lab table system of claim 1, wherein: The vertical function module (1) includes a rack seat (11), a plurality of foot screws (111) are vertically fixed on the bottom surface of the rack seat (11), side supports (12) are vertically fixed on both sides of the vertical end surface of the rack seat (11), and a plurality of assembly screw holes are horizontally provided through the top of the side supports (12), a clamping plate (17) is vertically clamped on both sides of the bottom of the rack seat (11), and an assembly clamping frame (112) is horizontally fixed on the top surface of the rack seat (11), and a table plate (113) is horizontally fixed on the top surface of the assembly clamping frame (112).

3. The highly modular reconfigurable lab table system of claim 2, wherein: A plurality of power connection frame plates (13) are transversely and vertically assembled on the front and rear vertical end surfaces of the assembly clamping frame (112), and a power socket (14) is fixedly assembled in the middle of each power connection frame plate (13), and the power socket (14) is electrically connected with an external power supply cable.

4. The highly modular reconfigurable lab table system of claim 3, wherein: An anchor column (16) is vertically fixed on the top surface of the power connection frame plate (13) and inserted into the top clamping groove of the assembly clamping frame (112), and a locking lug plate is vertically fixed on the bottom surface of the power connection frame plate (13), and the locking lug plate on the power connection frame plate (13) is fixed to the bottom of the assembly clamping frame (112) by a positioning bolt (15).

5. The highly modular reconfigurable lab table system of claim 4, wherein: The frame table (2) includes a lifting frame (21) and a pedestal plate (22), screw holes are horizontally provided through the vertical end portions of the lifting frame (21), assembly screws (23) are installed through the screw holes of the lifting frame (21), the assembly screws (23) are threadedly assembled on the rack seat (11), and the pedestal plate (22) is horizontally fixed on the top surface of the lifting frame (21).

6. The highly modular reconfigurable lab table system of claim 2, wherein: A supporting corner frame strip (121) is horizontally provided on the adjacent vertical end surface of the side supports (12) on both sides of the vertical end surface of the rack seat (11), the vertical end surface of the supporting corner frame strip (121) is fixed on the side support (12) by a screw, and a plurality of screws are vertically installed through the horizontal end surface of the supporting corner frame strip (121).

7. The highly modular reconfigurable lab bench system of claim 6, wherein: The transverse function module (3) comprises a clamping bracket (31) horizontally arranged between the side supports (12) at both ends of the gantry base (11), and both ends of the clamping bracket (31) are fixedly assembled with the corner frame strip (121) through screws, both end faces of the clamping bracket (31) are provided with clamping grooves, and both sides of the clamping bracket (31) are vertically provided with a plurality of function band panels (32), a power module (35) is fixedly and penetratively assembled in the middle of one of the plurality of function band panels (32), the power module (35) is electrically connected with an external power connection line, a control panel (37) is fixedly and penetratively assembled in the middle of one of the plurality of function band panels (32), the control panel (37) is electrically connected with an external control line, an air path module (36) is fixedly and penetratively assembled in the middle of one of the plurality of function band panels (32), and the air path module (36) is in communication with a gas supply pipeline, plug rod holders (33) are vertically and penetratively inserted into both ends of the function band panel (32), abutting springs (34) are vertically arranged at adjacent ends of the plug rod holders (33) on both sides of the function band panel (32), both ends of the abutting spring (34) are fixed at the adjacent ends of the plug rod holders (33) on both sides of the function band panel (32), the plug rod holder (33) is inserted into the clamping groove of the clamping bracket (31), and LED light supplementing lamps (38) are fixedly arranged on the upper front and rear end faces of the clamping bracket (31).

8. The highly modular reconfigurable lab table system of claim 7, wherein: The side supports (12) on both sides of the gantry base (11) are detachably assembled with a plurality of the storage reagent racks (4) and storage hanging frames (5) above the transverse function module (3) in the vertical direction, the storage reagent racks (4) are fixedly and assembled with the corner frame strip (121) through screws, the top of the side supports (12) on both sides of the gantry base (11) is provided with the storage hanging frame (5), the storage hanging frame (5) is fixedly and assembled with the corner frame strip (121) through screws, the end of the gantry base (11) is inserted with the cleaning pool (62), a water faucet (6) is vertically assembled on the top end plate (113) of the gantry base (11), the water faucet (6) is fixedly and communicated with an external water supply pipeline, and a sewage pump (61) is fixed in the gantry base (11), the water inlet end of the sewage pump (61) is communicated with the drainage pipeline of the cleaning pool (62), and the water outlet end of the sewage pump (61) is communicated with a sewage pipeline.

9. The highly modular reconfigurable lab table system of claim 7, wherein: The front and rear end faces of the rack seat (11) are assembled with the frame table (2) through assembling screws (23), the inside of the side support (12) of the two sides of the rack seat (11) is detachably assembled with a plurality of storage reagent racks (4) above the transverse function module (3) in the vertical direction, and the plurality of storage reagent racks (4) and the supporting corner frame strip (121) are fixedly assembled through screws, the top end table plate (113) of the rack seat (11) is fixedly penetrated with a hidden air suction cover (7), the top of the hidden air suction cover (7) is penetrated and provided with a suction port, and the bottom end of the hidden air suction cover (7) is fixedly communicated with an exhaust pipe (71), and the exhaust pipe (71) is fixedly communicated with a suction pump.

10. The highly modular reconfigurable laboratory table system according to any one of claims 1-9, wherein: The vertical function module (1) is provided with two, the two vertical function modules (1) are transversely assembled, the top of the side support (12) of the two vertical function modules (1) is penetrated and provided with a screw hole, and the side supports (12) of the two vertical function modules (1) are fixedly assembled through connecting screws (8).

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