Mobile upper chamber and its bilateral split sample storage system

The mobile upper chamber with a thrust-up moving unit and docking system addresses the inefficiencies of separate operation rooms by enabling efficient and versatile storage and retrieval of biological samples across multiple storage devices.

JP3255389UActive Publication Date: 2026-04-07SHANGHAI ORIGINCELL BIOLOGICAL CRYO EQUIP CO LTD
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Patent Information

Authority / Receiving Office
JP · JP
Patent Type
Utility models
Current Assignee / Owner
Filing Date
2024-06-25
Publication Date
2026-04-07

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Abstract

This invention discloses a mobile upper chamber and a double-sided split sample storage system thereof. The mobile upper chamber of this invention includes an upper chamber, a push-up moving unit, and a docking unit, the docking unit being located below the upper chamber, the docking unit being able to receive an intermediate tank and dock it to the upper chamber, and the push-up moving unit being able to push up and move the upper chamber. The beneficial effects of this invention are as follows: Since the first or second upper chamber can dock in conjunction with a honeycomb-type storage tank unit, and the third upper chamber can dock in conjunction with a disc-type storage tank unit, storage efficiency is greatly improved. Furthermore, in this device, these three storage methods can exist simultaneously, in combination, or independently. Since docking is performed by multiple operating chambers docking to multiple different types of storage devices, it is possible to combine tube pickup with the storage and retrieval of different types of biological samples, improving the versatility of sample storage and retrieval.
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Description

Technical Field

[0001] The present invention relates to the technical field of biological sample storage, and particularly to a mobile upper chamber and its two-side split sample storage system.

Background Art

[0002] In the prior art, for storing samples, an intermediate box containing biological samples is manually or using a transport robot transferred from one place to a storage device, and the intermediate box is transferred from a transfer window into an operation room. However, in a sample storage warehouse, an operation room is provided for each storage device, facilitating the operations of picking up and storing the transferred sample tubes. However, this increases the manufacturing cost and reduces the efficiency of storing and retrieving biological samples. Therefore, there is an urgent need for a mobile upper chamber and its two-side split sample storage system.

Summary of the Invention

Problems to be Solved by the Invention

[0003] The purpose of this part is to show the outlines of some aspects of the embodiments of the present invention and briefly introduce some preferred embodiments. In this part, the abstract of the present application, and the name of the invention, some simplifications or omissions may be made to avoid obscuring the purposes of this part, the abstract, and the name of the invention. Such simplifications or omissions should not be used to limit the scope of the present invention.

[0004] In view of the problems existing in the above or prior art, the present invention is proposed.

[0005] Therefore, the object of the present invention is to provide a mobile upper chamber that offers a movable upper chamber, each upper chamber equipped with a liquid nitrogen storage tank, thereby improving storage efficiency, and by docking multiple operating chambers to multiple different types of storage devices, it enables both tube pickup and storage and retrieval of different types of biological samples, thereby improving the versatility of sample storage and retrieval. [Means for solving the problem]

[0006] To solve the above technical problems, this invention provides the following technical solution: A movable upper chamber comprising an upper chamber, a thrust-up moving unit, and a docking unit. A docking unit is provided below the upper chamber. The docking unit can receive the relay tank and dock it with the upper chamber, and the thrusting movement unit can thrust the upper chamber upwards to move it.

[0007] In a preferred embodiment of the movable upper chamber of the present invention, the thrust-up moving unit includes a thrust-up member and a moving member, wherein the thrust-up member can raise and lower the upper chamber, and the moving member can drive the thrust-up member to move.

[0008] In a preferred embodiment of the movable upper chamber of the present invention, the thrusting member includes a lifting plate, a first kinetic energy panel, a second kinetic energy panel, and an inclined sliding track. The first kinetic energy panel and the second kinetic energy panel are movable relative to each other, the first kinetic energy panel is provided with an A-type inclined slide track, and the second kinetic energy panel is provided with a B-type inclined slide track, and the A-type and B-type inclined slide tracks are symmetrical. The A-type inclined slide track is provided with a slidable A-type slide push-up frame, and the B-type inclined slide track is provided with a slidable B-type slide push-up frame. The upper ends of the A-type slide push-up frame and the B-type slide push-up frame are connected to a lifting plate, respectively.

[0009] In a preferred embodiment of the movable upper chamber of the present invention, the thrusting member further includes a lifting drive motor and a screw, the first kinetic energy panel and the second kinetic energy panel are provided at both ends of the screw and both are screw-connected to the screw, and the lifting drive motor drives the screw.

[0010] In a preferred embodiment of the movable upper chamber of the present invention, the thrusting member further includes a thrusting bottom plate and parallel sliding claws, the lifting plate, the first kinetic energy panel, the second kinetic energy panel, and the inclined sliding track are all provided on the thrusting bottom plate, a plurality of parallel sliding claws extend downward from the lower end of the thrusting bottom plate, and the parallel sliding claws are slidably provided on the movable member.

[0011] In a preferred embodiment of the movable upper chamber of the present invention, the movable member includes a slide rail, a position sensor, and a drive member, wherein the position sensors are provided at both the front and rear ends of the slide rail, and the position sensors can determine whether or not the push-up bottom plate has moved to a desired position by detecting its movement position, the parallel slide claws are slidably connected to the slide rail, and the drive member can drive the push-up bottom plate to slide.

[0012] In a preferred embodiment of the movable upper chamber of the present invention, the drive member includes a drive motor, a gear, and a gear plate. The gear plate is mounted on the slide rail, the drive motor is connected to the push-up bottom plate via the motor plate, the gears can mesh with the gear plate, and the drive motor can drive the gears.

[0013] A preferred embodiment of the movable upper chamber of the present invention further includes an auxiliary lifting unit, the auxiliary lifting unit being provided on the side end face of the upper chamber, the auxiliary lifting unit including a lifting member and an auxiliary member, the auxiliary member being able to support the lifting member, and the upper chamber and the target tank body being able to slowly dock and move up and down through the cooperation of the lifting member and the auxiliary member.

[0014] In a preferred embodiment of the movable upper chamber of the present invention, the lifting member includes a chamber lifting motor and a lifting slide plate, the chamber lifting motor is capable of driving the lifting slide plate up and down along an auxiliary member, and position regulating sensors are provided at both the upper and lower ends of the lifting slide plate.

[0015] In a preferred embodiment of the movable upper chamber of the present invention, the auxiliary member includes an auxiliary slider and an auxiliary plate, wherein the lifting slide plate is slidably connected to the auxiliary slider, and the auxiliary slider is connected to the auxiliary plate.

[0016] In a preferred embodiment of the movable upper chamber of the present invention, the lifting member is provided perpendicularly to the side surface of the upper chamber, and the side surface of the auxiliary member is L-shaped.

[0017] In a preferred embodiment of the movable upper chamber of the present invention, the docking unit includes a transfer cavity, inside which are a transfer plate, a conveyor belt, and a transfer door, the conveyor belt can drive the transfer plate to move horizontally, the transfer plate can receive an intermediate tank and move into the transfer cavity, and the transfer door can seal the transfer cavity.

[0018] In a preferred embodiment of the movable upper chamber of the present invention, a first slot is provided on the upper end surface of the transfer cavity, and a second slot is provided on the bottom of the upper chamber, the first and second slots are in the same position, and a second slot cover is provided above the second slot, and the second slot cover can close or open the second slot.

[0019] A preferred embodiment of the movable upper chamber of the present invention includes a first chamber and a dual-drive gripping claw unit, the dual-drive gripping claw unit being located within the first chamber and capable of movement in the XYZ directions, the first chamber being dockable with the target tank body, and the dual-drive gripping claw unit being capable of gripping biological samples within the target tank body.

[0020] A preferred embodiment of the movable upper chamber of the present invention includes a second chamber and a shelf rack grabber, the shelf rack grabber being located within the second chamber and capable of movement in the XYZ directions, the second chamber being dockable with the target tank body, and the shelf rack grabber being capable of grasping biological samples within the target tank body.

[0021] A preferred embodiment of the movable upper chamber of the present invention includes a third chamber, a lifting well member, a lid removal member, a tray scraping member, and a shelf rack grabber, wherein the shelf rack grabber is provided inside the third chamber, lifting well members are provided at both ends of the third chamber, a lid removal member is provided on the side of the lifting well member, a tray scraping member is provided on the side of the shelf rack grabber, the lifting well member can lift a basket inside the target tank body, the lid removal member can remove the tank lid, the third chamber can dock with the target tank body, and the shelf rack grabber can grip a biological shelf rack or single-tube biological sample.

[0022] As a preferred form of the movable upper chamber of the present invention, the dual-drive gripping claw unit includes a first gripping claw motor, a second gripping claw motor, a meshing chain, a guide cover, a chain storage compartment, a gripping claw, a dual-drive gripping claw X-axis, and a dual-drive gripping claw Y-axis. The meshing chain consists of two chains. The meshing chain is provided inside the guide cover. A single chain can be stored in the chain storage compartment. A gripping claw is provided on the bottom side of the guide cover. The meshing chain can drive the gripping claw to move in the Z-axis direction. The first gripping claw motor and the second gripping claw motor can drive the meshing chain to move. The drive gripping claw X-axis is connected to the guide cover and is slidably connected to the dual-drive gripping claw Y-axis.

[0023] As a preferred form of the movable upper chamber of the present invention, an overall code scanning mechanism and a single-tube code scanning mechanism are further provided in the first chamber. The overall code scanning mechanism can scan the entire biological shelf rack, and the single-tube code scanning mechanism can scan a single-tube sample.

[0024] As a preferred form of the movable upper chamber of the present invention, the shelf rack gripper includes a shelf rack gripping part and a sample tube gripping part. The shelf rack gripping part can grip the biological shelf rack, and the sample tube gripping part can grip a single-tube sample.

[0025] As a preferred form of the movable upper chamber of the present invention, the shelf rack gripping part includes a gripping motor, a Z-axis guide plate, a shelf rack Z-axis, a shelf rack gripping claw, and a shelf rack. One side of the Z-axis guide plate is slidably connected to the shelf rack Z-axis. A shelf rack gripping claw is provided below the shelf rack Z-axis, and the shelf rack gripping claw can grip the shelf rack.

[0026] As a preferable form of the movable upper chamber of the present invention, the sample tube gripping part includes an electromagnetic induction coil, a mag bar, a guide cooling tube, a liquid nitrogen cup, a suction head, a suction tube slider, a suction tube track, and a guide cooling tube fixing plate. On the other side of the Z-axis guide plate, a suction tube track is provided. The suction tube slider moves up and down along the suction tube track. The guide cooling tube fixing plate is connected to the electromagnetic induction coil and the mag bar. The side end of the guide cooling tube fixing plate is connected to the suction tube slider. The guide cooling tube is connected to the guide cooling tube fixing plate. The liquid nitrogen cup is provided on the guide cooling tube, and a suction head is provided below the liquid nitrogen cup.

[0027] As a preferable form of the movable upper chamber of the present invention, it further includes an X-axis guide rail and a Y-axis guide rail. The X-axis guide rail is slidable on the Y-axis guide rail. The Z-axis guide plate is connected to the X-axis guide rail, and the Y-axis guide rail is connected to the second chamber.

[0028] As a preferable form of the movable upper chamber of the present invention, the lifting well member includes a housing, a lifting motor, a rotating chain, a rotating chain storage chamber, a basket guide frame, a visual monitor, a basket Z-direction stroke plate, a second slide rail, a second slider, a slide-type lifting plate, a hook part, a position regulating sensor, and a stroke plate motor. Inside the housing, a basket Z-direction stroke plate is provided. The second slider is slidably connected to the basket Z-direction stroke plate. The second slide rail is connected to the second slider. The lifting motor is connected to the slide-type lifting plate via a rotating chain. The slide-type lifting plate is provided with a hook part and a basket guide frame connected to the second slide rail. The stroke plate motor can drive the second slide rail, the second slider, and the slide-type lifting plate to move up and down. The visual monitor can detect the internal lifting progress.

[0029] In a preferred embodiment of the movable upper chamber of the present invention, the lid removal member includes a lid removal support plate, a lid removal motor, a second screw, and a movable post. The front end of the second screw is connected to a movable post, which is slidable along a lid removal support plate.

[0030] In a preferred embodiment of the mobile upper chamber of the present invention, the tray scraping member includes a tray scraping body, a tray scraping motor, a scraping plate, a nitrogen introduction valve, a liquid nitrogen pipe, and a circumferential guide cooling pipe. The tray scraping unit is located inside a third chamber, the tray scraping motor can move the scraping plate, the nitrogen introduction valve supplies nitrogen to the tray scraping unit via a liquid nitrogen pipe, and the circumferential guide cooling pipe is located inside the tray scraping unit.

[0031] The beneficial effects of the mobile upper chamber of this invention are as follows: In this invention, the docking unit can receive an intermediate tank and dock it with the upper chamber, the thrusting movement unit can move the upper chamber and dock it with the target storage tank, the upper chamber can be divided into three parts, each upper chamber corresponding to a different target storage tank, thereby improving storage efficiency.

[0032] The inventors further provide a double-sided split sample storage system in which the first or second upper chamber can dock with a honeycomb-type storage tank unit, and the third upper chamber can dock with a disc-type storage tank unit, thereby significantly improving storage efficiency. Furthermore, in this device, these three storage methods can exist simultaneously, in combination, or independently. Since docking is performed by docking multiple operating chambers with multiple different types of storage devices, it is possible to accommodate both tube pickup and storage and retrieval of different types of biological samples, thereby improving the versatility of sample storage and retrieval.

[0033] To solve the above technical problems, the present invention provides the following technical solutions: a double-sided split sample storage system comprising a movable upper chamber, further comprising a honeycomb-type storage tank unit, a first chamber or a second chamber, wherein the honeycomb-type storage tank unit can be docked to the first chamber or the second chamber, a dual-drive gripping claw unit is provided in the first chamber, the dual-drive gripping claw unit can grip biological samples in the honeycomb-type storage tank unit, and a shelf rack grabber is provided in the second chamber, the shelf rack grabber can grip biological samples in the honeycomb-type storage tank unit.

[0034] As a preferred embodiment of the double-sided split sample storage system of the present invention, the honeycomb-type storage tank unit includes a first tank body, a tank lid, a storage rack, a rotary motor, a sample storage tank, and a tank stopper. A tank lid is provided above the first tank body, a storage rack is provided inside the first tank body, the upper end of the first tank body is docked to a first chamber or a second chamber, a rotary motor can rotate the storage rack, a sample storage tank is provided inside the storage rack, a tank plug is provided on the tank lid, a dual-drive gripping claw unit or shelf rack grabber can grip the tank plug, and the dual-drive gripping claw unit or shelf rack grabber can grip biological samples inside the first tank body.

[0035] To solve the above technical problems, the present invention further provides the following technical solutions: a double-sided split sample storage system comprising a movable upper chamber, further comprising a disc-type storage tank unit and a third chamber, wherein the disc-type storage tank unit can be docked with the third chamber, and the third chamber is provided with a lifting well member, a lid removal member, a tray scraping member, and a shelf rack grabber.

[0036] In a preferred embodiment of the double-sided split sample storage system of the present invention, a second tank body, a second rotating tray, an aluminum tray, and a second tank lid are provided within a disc-type storage tank unit. The second tank body is docked to the third chamber, the second tank body is provided with a second tank lid, the second tank lid is provided with a second tank plug, and the second rotating tray and aluminum tray are provided inside the second tank body.

[0037] In a preferred embodiment of the double-sided split sample storage system of the present invention, a lifting well member can lift the aluminum tray and the second tank plug inside the second tank body, a lid removal member can displace the second tank plug, a tray scraping member can scrape off the aluminum tray, and a shelf rack grabber can grip biological shelf racks or single-tube biological samples.

[0038] The beneficial effects of the double-sided split sample storage system of this invention are as follows: In this invention, the first upper chamber or the second upper chamber can dock in conjunction with a honeycomb-type storage tank unit, and the third upper chamber can dock in conjunction with a disc-type storage tank unit, thereby significantly improving storage efficiency. The first upper chamber, the second upper chamber, or the third upper chamber can be moved and docked to the target storage tank by a push-up movement unit. Furthermore, in this device, these three storage methods can exist simultaneously, in combination, or independently. Since docking is performed by docking multiple operating chambers to multiple different types of storage devices, it is possible to achieve both tube pickup and storage and retrieval of different types of biological samples, thereby improving the versatility of sample storage and retrieval. [Brief explanation of the drawing]

[0039] To more clearly explain the technical solutions of the embodiments of the present invention, the drawings necessary for describing the embodiments will be briefly described below. However, the drawings in the following description represent only a few embodiments of the present invention, and it will be obvious to those skilled in the art that other drawings can be obtained based on these drawings without any creative effort. [Figure 1] This figure shows application scenarios for the upper chamber of a mobile upper chamber. [Figure 2] This figure shows application scenarios for the upper chamber of a mobile upper chamber. [Figure 3] This is a schematic diagram of the docking unit for the mobile upper chamber. [Figure 4] This is a schematic diagram of the mobile unit of the mobile upper chamber. [Figure 5] This is a schematic diagram of the push-up member of the movable upper chamber. [Figure 6] This is a schematic diagram of the auxiliary lifting unit for the mobile upper chamber. [Figure 7]This is an enlarged view of the auxiliary lifting unit for the mobile upper chamber. [Figure 8] This is a schematic diagram of the first chamber of the mobile upper chamber. [Figure 9] This is a schematic diagram of a dual-drive gripping claw unit for a mobile upper chamber. [Figure 10] This is a magnified view of the dual-drive gripping claw unit of the mobile upper chamber. [Figure 11] This is a magnified view of a portion of the dual-drive gripping claw unit of the mobile upper chamber. [Figure 12] This is a schematic diagram of the second chamber of the mobile upper chamber. [Figure 13] This is a schematic diagram of a shelf rack grabber for a mobile upper chamber. [Figure 14] This is a schematic diagram of a shelf rack grabber for a mobile upper chamber. [Figure 15] This is a schematic diagram of the third chamber of the mobile upper chamber. [Figure 16] This is a schematic diagram of the lifting well member of the movable upper chamber. [Figure 17] This is a schematic diagram of the lifting well member of the movable upper chamber. [Figure 18] This is a schematic diagram of the lid removal member for the movable upper chamber. [Figure 19] This is a schematic diagram of the tray scraping member of the mobile upper chamber. [Figure 20] This is an enlarged view of the tray scraping member of the mobile upper chamber. [Figure 21] This is a schematic diagram of a disk-type storage tank unit for a double-sided split sample storage system. [Figure 22] This is a schematic diagram of a honeycomb-type storage tank unit for a double-sided split sample storage system. [Modes for carrying out the invention]

[0040] To make the above-mentioned objectives, features, and advantages of this invention easier to understand, specific embodiments of this invention will be described in detail below with reference to the drawings.

[0041] The following description includes many specific details to fully understand the present invention, but the present invention can also be implemented in ways different from those described herein, and those skilled in the art can disseminate it in a similar manner without contradicting the present invention. Therefore, the present invention is not limited to the specific embodiments disclosed below.

[0042] Furthermore, in this specification, “an embodiment” or “an embodiment” means a specific feature, structure, or characteristic that may be included in at least one embodiment of the present invention. “In an embodiment” found elsewhere in this specification does not mean that all embodiments are identical, nor does it mean that one embodiment alone is an exclusive or alternative embodiment to any other embodiment.

[0043] <Example 1> Referring to Figures 1-3, a first embodiment of the present invention is shown, which includes an upper chamber 1, a push-up moving unit 2, and a docking unit 3, and provides a mobile upper chamber that can receive an intermediate tank by the docking unit 3 and dock it to the upper chamber 1, and can move the upper chamber 1 by the push-up moving unit 2 and dock it to a target storage tank.

[0044] Specifically, it includes an upper chamber 1, a thrusting movement unit 2, and a docking unit 3. The docking unit 3 is located below the upper chamber 1, and the docking unit 3 can receive a relay tank and dock it with the upper chamber 1. The thrusting movement unit 2 can thrust the upper chamber 1 upwards and move it.

[0045] As described above, in this invention, the intermediate tank is placed on the docking unit 3, the docking unit 3 moves the intermediate tank to dock it with the upper chamber 1, the upper chamber 1 is pushed up by the thrusting movement unit 2, then moved above the target storage tank, and then lowered to dock with the storage tank, thereby greatly improving docking efficiency.

[0046] <Example 2> Referring to Figures 1 to 7, a second embodiment of the present invention is shown, in which the movable upper chamber includes an upper chamber 1, a push-up moving unit 2, and a docking unit 3, the docking unit 3 can receive an intermediate tank and dock it with the upper chamber 1, and the push-up moving unit 2 can move the upper chamber 1 and dock it with the target storage tank.

[0047] Specifically, it includes an upper chamber 1, a thrusting movement unit 2, and a docking unit 3. The docking unit 3 is located below the upper chamber 1, and the docking unit 3 can receive a relay tank and dock it with the upper chamber 1. The thrusting movement unit 2 can thrust up and move the upper chamber 1.

[0048] Furthermore, the thrusting and moving unit 2 includes a thrusting member 21 and a moving member 22, the thrusting member 21 being able to raise and lower the upper chamber 1, and the moving member 22 being able to drive the thrusting member 21 to move.

[0049] Furthermore, the thrust member 21 includes a lifting plate 2101, a first kinetic energy panel 2102, a second kinetic energy panel 2103, and an inclined slide track 2104. The first kinetic energy panel 2102 and the second kinetic energy panel 2103 are movable relative to each other, the first kinetic energy panel 2102 is provided with an A-inclined slide track 21041, and the second kinetic energy panel 2103 is provided with a B-inclined slide track 21042, and the A-inclined slide track 21041 and the B-inclined slide track 21042 are symmetrical. The A-slide push-up frame 2107 is slidably mounted on the A-slide slide track 21041, and the B-slide push-up frame 2108 is slidably mounted on the B-slide slide track 21042. The upper ends of the A-slide push-up frame 2107 and the B-slide push-up frame 2108 are connected to the lifting plate 2101, respectively.

[0050] Preferably, the first kinetic energy panel 2102 and the second kinetic energy panel 2103 are movable relative to each other. In this embodiment, by moving opposite or in the opposite direction, the distance between the first kinetic energy panel 2102 and the second kinetic energy panel 2103 increases or decreases. This structure ensures that the pushing member 21 does not obstruct the movement of the upper chamber 1 in the pushing action and non-pushing state. Furthermore, the space occupied by the structure is small in the vertical and horizontal directions, resulting in high stability and flexibility, and making it more suitable for docking the upper chamber 1 to a storage tank when storing samples.

[0051] Preferably, the movement of the first kinetic energy panel 2102 and the second kinetic energy panel 2103 shortens or lengthens the distance between the two panels, thereby shortening or lengthening the distance between the A-inclined slide track 21041 and the B-inclined slide track 21042 provided on them, thereby causing the A-slide push-up frame 2107 and the B-slide push-up frame 2108 to slide simultaneously from the highest point to the lowest point or from the lowest point to the highest point of the A-inclined slide track 21041 and the B-inclined slide track 21042, respectively, thereby achieving the raising or lowering of the lifting plate 2101.

[0052] Furthermore, the thrusting member further includes a lifting drive motor 2109 and a screw 2110, with a first kinetic energy panel 2102 and a second kinetic energy panel 2103 provided at both ends of the screw 2110 and both screw-connected to the screw, and the lifting drive motor 2109 drives the screw 2110.

[0053] Preferably, the screw 2110 is provided with left-hand and right-hand threads, and is screw-connected to the first kinetic energy panel 2102 and the second kinetic energy panel 2103, respectively. By rotating the screw 2110 in this way, the first kinetic energy panel 2102 and the second kinetic energy panel 2103 are driven to move in opposition or opposite directions. The first kinetic energy panel 2102 and the second kinetic energy panel 2103 may be elongated in shape, but of course, they may also be of other shapes.

[0054] Furthermore, the thrusting member 21 further includes a thrusting base plate 2111 and parallel sliding claws 2112, and the lifting plate 2101, the first kinetic energy panel 2102, the second kinetic energy panel 2103, and the inclined sliding track 2104 are all provided on the thrusting base plate 2111, and a plurality of parallel sliding claws 2112 extend downward from the lower end of the thrusting base plate 2111, and the parallel sliding claws 2112 are slidably provided on the moving member 22.

[0055] Preferably, the parallel slide claws 2112 are slidably connected to the slide rail 221.

[0056] Preferably, the push-up bottom plate 2111 is provided with a kinetic energy panel slide rail S1 and a triangular slider S2 slidably connected to the kinetic energy panel slide rail S1, and the triangular slider S2 is fixedly connected to both ends of the first kinetic energy panel 2102 and the second kinetic energy panel 2103, and the triangular slider S2 is slidably connected to the kinetic energy panel slide rail S1, and the triangular slider S2 is provided with an inclined slide track 2104, that is, the inclined slide track 2104 is connected to the first kinetic energy panel 2102 and the second kinetic energy panel 2103, and the upper ends of the A slide push-up frame 2107 and the B slide push-up frame 2108 are connected to the lifting plate 2101 and the lower ends are slidably connected to the A inclined slide track 21041 and the B inclined slide track 21042.

[0057] When thrusting upward, the lifting drive motor 2109 rotates the screw 2110, and the screw 2110 moves the first kinetic energy panel 2102 and the second kinetic energy panel 2103 in opposite directions. Because the inclined slide track 2104 is inclined, the A slide thrust frame 2107 and the B slide thrust frame 2108 are driven to move upward along the A inclined slide track 21041 and the B inclined slide track 21042, respectively. As a result, the lifting plate 2101 is driven to move upward, and the lifting plate 2101 thrusts upward against the bracket located below the upper chamber 1, thereby thrusting up the upper chamber 1.

[0058] The means by which the lifting plate 2101 is pushed up may be changed to other structures. For example, the lifting plate 2101 can be driven to move up and down directly by a lifting motor, or it can be moved up and down by other methods, as long as the lifting plate 2101 can be moved up and down to push up the upper chamber 1.

[0059] Furthermore, the moving member 22 includes a slide rail 221, a position sensor 222, and a drive member 223. Position sensors 222 are provided at both the front and rear ends of the slide rail 221, and the position sensors 222 can determine whether the push-up bottom plate 2111 has moved to a desired position by detecting its movement position. Parallel slide claws 2112 are slidably connected to the slide rail 221, and the drive member 223 can drive the push-up bottom plate 2111 to slide it.

[0060] Furthermore, the drive member 223 includes a drive motor 22301, a gear 22302, and a gear plate. The gear plate is fixed to the slide rail 221, the drive motor 22301 is fixedly connected to the push-up bottom plate 2111 via the motor plate, the gear 22302 can mesh with the gear plate, and the drive motor 22301 can drive the gear 22302.

[0061] Preferably, the lifting plate 2101 pushes up the upper chamber 1 and then moves the upper chamber 1, and the specific steps are as follows: The drive motor 22301 rotates the gear 22302 located below it, and when the gear 22302 engages with the gear plate, the motor plate and the parallel sliding claws 2112 at the bottom of the push-up bottom plate 2111 are driven to move along the slide rail 221, and the push-up bottom plate 2111 drives the lifting plate 2101 and the upper chamber 1 to move, thereby moving the upper chamber 1 above the target storage tank.

[0062] Furthermore, the system further includes an auxiliary lifting unit 4, which is provided on the side end face of the upper chamber 1. The auxiliary lifting unit 4 includes a lifting member 41 and an auxiliary member 42, the auxiliary member 42 being able to support the lifting member 41, and the upper chamber 1 and the target tank body being able to slowly dock and move up and down through the cooperation of the lifting member 41 and the auxiliary member 42.

[0063] Preferably, the auxiliary lifting unit 4 allows the upper chamber 1 and the storage tank to dock slowly, thereby preventing damage to the biological samples inside the storage tank due to excessively rapid descent.

[0064] Furthermore, the lifting member 41 includes a chamber lifting motor 401 and a lifting slide plate 402. The chamber lifting motor 401 can drive the lifting slide plate 402 up and down along the auxiliary member 42, and position regulating sensors are provided at both the upper and lower ends of the lifting slide plate 402.

[0065] Furthermore, the auxiliary member 42 includes an auxiliary slider and an auxiliary plate 4202, the lifting slide plate 402 is slidably connected to the auxiliary slider, and the auxiliary slider is fixedly connected to the auxiliary plate 4202.

[0066] Preferably, the lifting slide plate 402 can drive the upper chamber 1 to move up and down, the chamber lifting motor 401 can drive the lifting slide plate 402 to move up and down along the auxiliary slider, and the auxiliary plate 4202 can serve as a support.

[0067] Preferably, two sets of auxiliary lifting units 4 may be provided to better maintain the balance of the upper chamber 1 during lifting.

[0068] Furthermore, the lifting member 41 is provided perpendicularly to the side of the upper chamber 1, and the side of the auxiliary member 42 is L-shaped.

[0069] Furthermore, the docking unit 3 includes a transfer cavity 301, which is equipped with a transfer plate, a conveyor belt, and a transfer door. The conveyor belt can drive the transfer plate to move horizontally, the transfer plate can receive the intermediate tank and move into the transfer cavity 301, and the transfer door can seal the transfer cavity 301.

[0070] Preferably, the transport robot S3 places the intermediate tank into the transport plate, the conveyor belt returns the transport plate into the transport cavity 301, then the transport door seals the outside of the transport cavity 301, and then the second slot cover in the upper chamber 1 opens the second slot.

[0071] Furthermore, a first slot is provided on the upper end surface of the transfer cavity 301, and a second slot is provided on the bottom of the upper chamber 1. The first and second slots are in the same position, and a second slot cover is provided above the second slot, which can close or open the second slot.

[0072] As described above, in this invention, the transport robot S3 receives the intermediate tank transported by the transport mechanism and places the intermediate tank into the transport cavity 301, the transport door seals the transport cavity 301, the push-up member 21 can push up the upper chamber 1, and after pushing it up, the moving member 22 drives the push-up member 21 and the upper chamber 1 to move, and when they move above the target upper chamber, the auxiliary lifting unit 4 assists in lowering the upper chamber 1, thereby preventing damage to the biological samples in the storage tank due to an excessively fast descent speed.

[0073] <Example 3> Referring to Figures 8-11, a third embodiment of the present invention is shown, which is based on embodiments 1 and 2 and includes a first chamber 111 and a dual-drive gripping claw unit 112, the dual-drive gripping claw unit 112 being located inside the first chamber 111 and being movable in the XYZ directions, the first chamber 111 being dockable to a target tank body, and the dual-drive gripping claw unit 112 being able to grip biological samples inside the target tank body.

[0074] Furthermore, the lower part of the first chamber 111 can be sealed and docked with the honeycomb-type storage tank unit 5, the dual-drive gripping claw unit 112 can open the tank plug 506 of the first tank body 501, move the tank plug 506 to one side, open the top lid of the intermediate tank, and grasp the biological sample in the intermediate tank and place it in the sample storage tank 505 in the first tank body 501.

[0075] Furthermore, the dual-drive gripping claw unit 112 includes a first gripping claw motor 11201, a second gripping claw motor 11202, an engagement chain 11203, a guide cover 11204, a chain storage compartment 11205, a gripping claw 11206, a dual-drive gripping claw X-axis, and a dual-drive gripping claw Y-axis. The interlocking chain 11203 consists of two chains and is located inside the guide cover 11204. A single chain can be stored in the chain storage compartment 11205. A gripping claw 11206 is provided on the bottom side of the guide cover 11204. The interlocking chain 11203 can drive the gripping claw 11206 to move in the Z-axis direction. The first motor 11201 and the second motor 11202 of the gripping claw can drive the interlocking chain 11203 to move. The drive gripping claw X-axis is connected to the guide cover 11204, and the drive gripping claw X-axis is slidably connected to the dual drive gripping claw Y-axis.

[0076] Preferably, the motor 11201 of the first gripping claw and the motor 11202 of the second gripping claw can drive the interlocking chain 11203 to move up and down within the guide cover 11204, the interlocking chain 11203 drives the gripping claw 11206 to move, and the guide cover 11204 is fixedly connected to the driven gripping claw X axis, so that the guide cover 11204 can move in the XY axis direction, the gripping claw 11206 can grip the tank plug 506 of the first tank body 501 and the top lid of the intermediate tank and set them aside, then the gripping claw 11206 can move above the intermediate tank and then descend to grip and move a biological sample in the intermediate tank and place the sample in the sample storage tank 505 in the first tank body 501, or grip and move a biological sample from inside the sample storage tank 505 and place the sample in the intermediate tank.

[0077] Furthermore, the first chamber 111 is further equipped with a whole-code scanning mechanism and a single-pipe code scanning mechanism. The whole-code scanning mechanism can scan the entire biological shelf rack, while the single-pipe code scanning mechanism can scan individual pipe samples.

[0078] Furthermore, the first chamber 111, the second chamber 121, and the third chamber 131 are all equipped with a code scanning mechanism, enabling scanning of biological samples.

[0079] As described above, the dual-drive gripping claw unit 112 is provided in the first chamber 111, allowing the tank plug of the first tank body 501 and the top lid of the intermediate tank to be opened quickly for storage operations. The gripping claws 11206 can move above the intermediate tank and extend into the intermediate tank to grip and move sample tubes, placing the tubes into the first tank body 501, or gripping biological samples from inside the first tank body 501 and placing them into the intermediate tank, thereby enabling storage and retrieval and significantly improving storage efficiency.

[0080] <Example 4> Referring to Figures 12-14, a fourth embodiment of the present invention is shown, which is based on embodiments 1 and 2 and further includes a second chamber 121 and a shelf rack grabber 122, the shelf rack grabber 122 being located within the second chamber 121, the shelf rack grabber 122 being movable in the XYZ directions, the second chamber 121 being dockable with the target tank body, and the shelf rack grabber 122 being able to grasp biological samples within the target tank body.

[0081] Furthermore, the lower part of the second chamber 121 can also be sealed and docked to the honeycomb-type storage tank unit 5, the shelf rack grabber 122 can open the tank plug 506 of the first tank body 501, and can also move the tank plug 506 to one side, the shelf rack grabber 122 can open the top lid of the intermediate tank, and then perform a pipe pick-up operation, grasping the biological shelf rack or single-tube biological sample in the intermediate tank and sending it into the first tank body 501 for storage.

[0082] Furthermore, the shelf rack grabber 122 includes a shelf rack gripping section 1221 and a sample tube gripping section 1222, the shelf rack gripping section 1221 being able to grip a biological shelf rack, and the sample tube gripping section 1222 being able to grip a single-tube sample.

[0083] Furthermore, the shelf rack gripping section 1221 includes a grip motor 122101, a Z-axis guide plate 122102, a shelf rack Z-axis 122103, a shelf rack gripping claw 122104, and a shelf rack 122105. One side of the Z-axis guide plate 122102 is slidably connected to the shelf rack Z-axis 122103, and the shelf rack gripping claw 122104 is provided below the shelf rack Z-axis 122103, and the shelf rack gripping claw 122104 can grip the shelf rack 122105.

[0084] Furthermore, it further includes an X-axis guide rail 1223 and a Y-axis guide rail 1224, the X-axis guide rail 1223 being slidable on the Y-axis guide rail 1224, the Z-axis guide plate 122102 being connected to the X-axis guide rail 1223 and the Y-axis guide rail 1224 being connected to the second chamber 121.

[0085] Preferably, the grip motor 122101 can drive the shelf rack Z-axis 122103 to move up and down in the Z-axis direction along the Z-axis guide plate 122102, the shelf rack gripping claws 122104 and the shelf rack motor are provided below the Z-axis guide plate 122102, the shelf rack gripping claws 122104 can grip the biological shelf rack, a sample tube gripping section 1222 is provided on the other side of the Z-axis guide plate 122102, the Z-axis guide plate 122102 is fixedly connected to the X-axis guide rail 1223, and the Z-axis guide plate 122102 can drive the shelf rack grabber 122 and the sample tube gripping section 1222 to move in the XY direction.

[0086] Preferably, a shelf rack grabber 122 is provided in the second chamber 121, and the shelf rack grabber 122 can move, grasp, and pick up tubes from biological shelf racks or single-tube biological samples in the first tank body 501 and the intermediate tank.

[0087] Furthermore, the sample tube gripping section 1222 includes an electromagnetic induction coil 122201, a magnetic bar 122202, a guide cooling tube 122203, a liquid nitrogen cup 122204, a suction head 122205, a suction tube slider 122206, a suction tube track 122207, and a guide cooling tube fixing plate 122208. On the other side of the Z-axis guide plate 122102, a suction tube track 122207 is provided, and a suction tube slider 122206 moves up and down along the suction tube track 122207. A guide cooling tube fixing plate 122208 is connected to an electromagnetic induction coil 122201 and a magnetic bar 122202, the side end of the guide cooling tube fixing plate 122208 is connected to the suction tube slider 122206, a guide cooling tube 122203 is connected to the guide cooling tube fixing plate 122208, a liquid nitrogen cup 122204 is provided on the guide cooling tube 122203, and a suction head 122205 is provided below the liquid nitrogen cup 122204.

[0088] Preferably, the liquid nitrogen cup 122204 can hold liquid nitrogen, the suction head 122205 can aspirate a single-tube biological sample, and the liquid nitrogen cup 122204 can prevent the biological sample from being damaged by keeping the aspirated biological sample tube at a low temperature. The guide cooling tube fixing plate 122208 slides up and down in the Z-axis direction along the suction tube slider 122206, allowing the suction head 122205 to slide up and down to aspirate the biological sample tube.

[0089] As described above, the provision of a sample tube gripping section 1222 and a shelf rack gripping section 1221 within the second chamber 121 allows for gripping of biological shelf racks or single-tube biological samples within the intermediate tank, and also maintains the biological sample at a low temperature throughout the entire grip. As a result of the scan, it is possible to place the biological shelf rack or single-tube biological sample within the intermediate tank into the first tank body 501, or to grasp the biological shelf rack or sample tube within the first tank body 501 and place it into the intermediate tank. After the storage and retrieval process is completed, the transport robot S3 can pick up the intermediate tank for storage or use it for other operations.

[0090] <Example 5> Referring to Figures 15-20, a fifth embodiment of the present invention is shown, which is based on embodiments 1 and 2 and further includes a third chamber 131, a lifting well member 132, a lid removal member 133, a tray scraping member 134, and a shelf rack grabber 122, wherein the shelf rack grabber 122 is provided inside the third chamber 131, the lifting well members 132 are provided at both ends of the third chamber 131, the lid removal member 133 is provided on the side of the lifting well member 132, the tray scraping member 134 is provided on the side of the shelf rack grabber 122, the lifting well members 132 can lift baskets inside the target tank body, the lid removal member 133 can remove tank lids, the third chamber 131 can dock with the target tank body, and the shelf rack grabber 122 can grip biological shelf racks or single-tube biological samples.

[0091] Furthermore, the shelf rack grabber 122 includes a shelf rack gripping section 1221 and a sample tube gripping section 1222, the shelf rack gripping section 1221 being able to grip a biological shelf rack, and the sample tube gripping section 1222 being able to grip a single-tube sample.

[0092] Furthermore, the shelf rack gripping section 1221 includes a grip motor 122101, a Z-axis guide plate 122102, a shelf rack Z-axis 122103, a shelf rack gripping claw 122104, and a shelf rack 122105. One side of the Z-axis guide plate 122102 is slidably connected to the shelf rack Z-axis 122103, and the shelf rack gripping claw 122104 is provided below the shelf rack Z-axis 122103, and the shelf rack gripping claw 122104 can grip the shelf rack 122105.

[0093] Furthermore, it further includes an X-axis guide rail 1223 and a Y-axis guide rail 1224, the X-axis guide rail 1223 being slidable on the Y-axis guide rail 1224, the Z-axis guide plate 122102 being connected to the X-axis guide rail 1223 and the Y-axis guide rail 1224 being connected to the second chamber 121.

[0094] Preferably, the grip motor 122101 can drive the shelf rack Z-axis 122103 to move up and down in the Z-axis direction along the Z-axis guide plate 122102, the shelf rack gripping claws 122104 and the shelf rack motor are provided below the Z-axis guide plate 122102, the shelf rack gripping claws 122104 can grip the biological shelf rack, a sample tube gripping section 1222 is provided on the other side of the Z-axis guide plate 122102, the Z-axis guide plate 122102 is fixedly connected to the X-axis guide rail 1223, and the Z-axis guide plate 122102 can drive the shelf rack grabber 122 and the sample tube gripping section 1222 to move in the XY direction.

[0095] Preferably, a shelf rack grabber 122 is provided in the second chamber 121, and the shelf rack grabber 122 can move, grasp, and pick up tubes from biological shelf racks or single-tube biological samples in the first tank body 501 and the intermediate tank.

[0096] Furthermore, the sample tube gripping section 1222 includes an electromagnetic induction coil 122201, a magnetic bar 122202, a guide cooling tube 122203, a liquid nitrogen cup 122204, a suction head 122205, a suction tube slider 122206, a suction tube track 122207, and a guide cooling tube fixing plate 122208. On the other side of the Z-axis guide plate 122102, a suction tube track 122207 is provided, and a suction tube slider 122206 moves up and down along the suction tube track 122207. A guide cooling tube fixing plate 122208 is connected to an electromagnetic induction coil 122201 and a magnetic bar 122202, the side end of the guide cooling tube fixing plate 122208 is connected to the suction tube slider 122206, a guide cooling tube 122203 is connected to the guide cooling tube fixing plate 122208, a liquid nitrogen cup 122204 is provided on the guide cooling tube 122203, and a suction head 122205 is provided below the liquid nitrogen cup 122204.

[0097] Preferably, the liquid nitrogen cup 122204 can hold liquid nitrogen, the suction head 122205 can aspirate a single-tube biological sample, the liquid nitrogen cup 122204 avoids the possibility of damage to the biological sample by keeping the aspirated biological sample tube at a low temperature, and the guide cooling tube fixing plate 122208 slides up and down in the Z-axis direction along the suction tube slider 122206, allowing the suction head 122205 to slide up and down to aspirate the biological sample tube.

[0098] Preferably, the lower part of the third chamber 131 can be sealed and docked to the disc-type storage tank unit 6, the lifting well member 132 can grip the second tank plug of the second tank body 601 and, after removing the second tank plug, the lid removal member 133 can be used to move the second tank plug aside, the lifting well member 132 can then enter the interior of the second tank body 601, hook the basket and remove the aluminum tray 603, and the tray scraping member 134 can scrape the aluminum tray 603 to one side of the shelf rack grabber 122 and pick up tubes, the shelf rack grabber 122 can pick up tubes from biological samples in the aluminum tray 603, grasp biological samples and send them into the relay tank, or grasp biological samples from the relay tank and send them into the aluminum tray 603.

[0099] Furthermore, the lifting well member 132 includes a housing 13201, a lifting motor 13202, a rotating chain 13203, a rotating chain storage chamber 13204, a basket guide frame 13205, a visual monitor, a basket Z-direction stroke plate 13207, a second slide rail 13208, a second slider 13209, a sliding lifting plate 13210, a hook portion 13211, a position regulating sensor, and a stroke plate motor 13213. Inside the housing 13201, a basket Z-direction stroke plate 13207 is provided, a second slider 13209 is slidably connected to the basket Z-direction stroke plate 13207, a second slide rail 13208 is connected to the second slider 13209, a lifting motor 13202 is connected to a sliding lifting plate 13210 via a rotating chain 13203, the sliding lifting plate 13210 is provided with a hook portion 13211 and a basket guide frame 13205 connected to the second slide rail 13208, a stroke plate motor 13213 can drive the second slide rail 13208, the second slider 13209, and the sliding lifting plate 13210 to move up and down, and a visual monitor can detect the progress of the lifting inside.

[0100] Preferably, the basket guide frame 13205 ensures that the basket does not shake during lifting, the visual monitor can detect the internal lifting progress at any time, and lifting errors are avoided by providing two position regulating sensors.

[0101] Preferably, the movement process of the lifting well member 132 is as follows: The stroke plate motor 13213 drives the second slider 13209 to move up and down along the basket Z-direction stroke plate 13207, the second slider 13209 is fixedly connected to the second slide rail 13208, thereby driving the second slide rail 13208 to move up and down, and the lifting motor 13202 drives the sliding lifting plate 13210 and the hook portion 13211 via the rotating chain 13203 to slide up and down along the second slide rail 13208.

[0102] The hook portion 13211 grips the second tank plug of the second tank lid 604 and then lifts the second tank plug. Next, the lid removal motor 13302 rotates the second screw 13303, causing the movable post 13304 to hook onto the second tank plug and move it aside so that it does not interfere with the work. The hook portion 13211 then continues to descend into the second tank body 601, lifting the basket inside the second tank body 601, which contains an aluminum tray 603. After the basket is lifted to a specific position, the tray scraping motor 13402, while holding the scraping plate 13403, scrapes the aluminum tray 603 next to the shelf rack grabber 122 and performs the pipe pickup operation.

[0103] Preferably, the lifting well members 132 are provided in the third chamber 131 and are used to lift the baskets and second tank plugs in the disc-type storage tank unit 6. Since two sets of lifting well members 132 are provided in the third chamber 131, they can accommodate disc-type storage tank units 6 on both sides, making storage simple and efficient.

[0104] Furthermore, the lid removal member 133 includes a lid removal support plate 13301, a lid removal motor 13302, a second screw 13303, and a movable post 13304. The front end of the second screw 13303 is connected to a movable post 13304, which is slidable along the lid removal support plate 13301.

[0105] Preferably, the lid removal motor 13302 moves horizontally relative to the movable post 13304 by the second screw 13303, thereby hooking and setting aside the second tank plug.

[0106] Furthermore, the tray scraping member 134 includes a tray scraping body 13401, a tray scraping motor 13402, a scraping plate 13403, a nitrogen introduction valve 13404, a liquid nitrogen pipe, and a circumferential guide cooling pipe 13406. Preferably, the tray scraping motor 13402 moves horizontally relative to the scraping plate 13403, scraping the aluminum tray 603 on the side into the tube pickup area, and the shelf rack grabber 122 picks up the tubes from the biological samples in the aluminum tray 603.

[0107] The tray scraping body 13401 is located inside the third chamber 131, the tray scraping motor 13402 can drive the scraping plate 13403 to move, the nitrogen introduction valve 13404 supplies nitrogen to the tray scraping body 13401 via a liquid nitrogen pipe, and the circumferential guide cooling pipe 13406 is located on the tray scraping body 13401.

[0108] Preferably, the circumferential guide cooling tube 13406 is provided on the tray scraping body 13401 to maintain the biological sample at a low temperature and prevent the sample from being damaged.

[0109] As described above, in this invention, when the third chamber 131 is docked with the disc-type storage tank unit 6, the lifting well member 132 in the third chamber 131 can open the top lid and second tank plug of the intermediate tank, the lid removal member 133 can move the gripped second tank plug aside, the lifting well member 132 can lift the basket in the disc-type storage tank unit 6, the tray scraping member 134 can scrape the aluminum tray 603 in the basket to the pipe pickup area, and the shelf rack grabber 122 picks up the pipes and places them into the intermediate tank or the aluminum tray 603. This device significantly improves storage efficiency and pipe pickup efficiency.

[0110] <Example 6> Referring to Figure 22, a sixth embodiment of the present invention is shown, which, based on Embodiments 1, 2, and 3, provides a double-sided split sample storage system including a honeycomb-type storage tank unit 5, the honeycomb-type storage tank unit 5 including a first tank body 501, a tank lid 502, a storage rack 503, a rotary motor 504, a sample storage tank 505, and a tank plug 506.

[0111] Preferably, a storage rack 503 is provided inside the first tank body 501, and a rotary motor 504 can rotate the storage rack 503, facilitating the storage and retrieval of samples by the dual-drive gripping claw unit 112, the storage rack 503 can be used to store biological samples, a tank lid 502 is provided above the first tank body 501, a tank plug 506 is provided inside the tank lid 502, the upper part of the tank lid 502 docks with the bottom side of the first chamber 111, and a tank plug of the same position and size as the tank plug 506 is provided inside the first chamber 111, the dual-drive gripping claw unit 112 can grip the tank plug 506 and set it aside, and after gripping a biological sample in the sample storage tank 505 and placing it in the intermediate tank, or gripping a sample from the intermediate tank and placing it in the sample storage tank 505, the tank lid 502 can be set on the first tank body 501 and sealed.

[0112] As described above, the dual-drive gripping claw unit 112 is provided in the first chamber 111, allowing the tank plug of the first tank body 501 and the top lid of the intermediate tank to be opened quickly for storage operations. The gripping claws 11206 can move above the intermediate tank and extend into the intermediate tank to grip and move sample tubes, placing the tubes into the first tank body 501, or gripping biological samples from inside the first tank body 501 and placing them into the intermediate tank, thereby completing the storage and retrieval process and significantly improving storage efficiency.

[0113] <Example 7> Referring to Figure 22, a seventh embodiment of the present invention is shown, which, based on Embodiments 1, 2, and 4, provides a double-sided split sample storage system including a honeycomb-type storage tank unit 5, the honeycomb-type storage tank unit 5 including a first tank body 501, a tank lid 502, a storage rack 503, a rotary motor 504, a sample storage tank 505, and a tank plug 506.

[0114] Preferably, a storage rack 503 is provided inside the first tank body 501, and a rotary motor 504 can rotate the storage rack 503, facilitating the storage and retrieval of samples by the shelf rack grabber 122, the storage rack 503 can be used to store biological samples, a tank lid 502 is provided above the first tank body 501, a tank plug 506 is provided inside the tank lid 502, the upper part of the tank lid 502 is docked to the bottom side of the second chamber 121, and a tank plug of the same position and size as the tank plug 506 is provided inside the second chamber 121, the shelf rack grabber 122 can grip the tank plug 506 and set it aside, and after gripping biological samples in the sample storage tank 505 and placing them in the intermediate tank, or gripping samples from the intermediate tank and placing them in the sample storage tank 505, the tank lid 502 can be set on the first tank body 501 to seal it.

[0115] <Example 8> Referring to Figure 21, an eighth embodiment of the present invention is shown, which is based on Embodiments 1, 2, and 5 and includes a disc-type storage tank unit 6, in which a second tank body 601, a second rotating tray 602, an aluminum tray 603, and a second tank lid 604 are provided within the disc-type storage tank unit 6. A double-sided split sample storage system is provided, in which a second tank body 601 is docked with a third chamber 131, a second tank lid 604 is provided on the second tank body 601, a second tank plug is provided on the second tank lid 604, and a second rotating tray 602 and an aluminum tray 603 are provided inside the second tank body 601.

[0116] Preferably, a second tank lid 604 is provided above the second tank body 601, a second tank plug is provided on the second tank lid 604, the upper part of the second tank lid 604 is docked to a third chamber 131 to seal it, and a second tank plug matching the size and position of the second tank plug is also provided inside the third chamber 131.

[0117] The lifting well member 132 can lift the aluminum tray 603 and the second tank plug inside the second tank body 601, the lid removal member 133 can displace the second tank plug, the tray scraping member 134 can scrape off the aluminum tray 603, and the shelf rack grabber 122 can grip a biological shelf rack or single-tube biological sample and pick up the tube.

[0118] As described above, in this invention, when the second tank body 601 is docked with the third chamber 131, the lifting well member 132 can hook and remove the second tank plug, then the lid removal member 133 moves the second tank plug aside, the lifting well member 132 lifts the basket and aluminum tray 603 inside the second tank body 601, and the scraping plate 13403 scrapes the aluminum tray 603 aside to the shelf rack grabber 122 to perform the pipe pickup operation, the shelf rack grabber 122 picks up the pipe and places it into the intermediate tank or the aluminum tray 603. This device greatly improves storage efficiency and pipe pickup efficiency, and the operation is automated throughout the entire process, resulting in a significant improvement in operational efficiency.

[0119] The structures and arrangements of the present invention shown in several different embodiments are illustrative only. Although only a few embodiments are described in detail in this disclosure, a reader of this disclosure will readily understand that many modifications are possible without substantially departing from the novel teachings and merits of the subject matter described herein (e.g., changes in dimensions, scales, structures, shapes, proportions, and parameter values ​​(e.g., temperature, pressure, etc.) of various elements, installation arrangements, use of materials, color, orientation, etc.). For example, elements shown as integrally molded may consist of multiple parts or elements, the positions of elements may be reversed or otherwise altered, and the characteristics, number, or position of separated elements may be changed or altered. Thus, all such variations are intended to be within the scope of the present invention. The priority or order of any process or method steps may be changed or rearranged according to alternative embodiments. In the claims, any “apparatus + function” clause is intended to cover structures that perform the function described herein and are not only structurally equivalent but also equivalent structures. Without departing from the scope of this invention, other substitutions, modifications, changes, and omissions may be made in the design, operation, and arrangement of the exemplary embodiments. Accordingly, this invention is not limited to any particular embodiment and extends to a variety of modifications remaining within the scope of the appended claims.

[0120] Furthermore, in order to provide a concise description of exemplary embodiments, it is not necessary to describe all features of actual embodiments (i.e., features that are not relevant to the currently considered best mode for carrying out the present invention, or features that are not relevant to carrying out the present invention).

[0121] It should be understood that, as with any construction or design project, many specific embodiments may be determined during the development of any actual embodiment. While such development efforts may be complex and time-consuming, for those skilled in the art who benefit from this disclosure, such development efforts do not require excessive experimentation and are routine work in design, manufacturing, and production.

[0122] The above embodiments are for illustrative purposes only and are not limiting. While the invention has been described in detail with reference to preferred embodiments, those skilled in the art should understand that the technical solutions of the invention can be modified or replaced with equivalents without departing from the spirit and scope of the invention, and all such modifications should be included within the scope of the claims of the invention. [Explanation of Symbols]

[0123] 1 Upper Chamber 2. Upward-moving unit 3 Docking Units 21 Push-up member 22 Moving member 2101 Lifting Plate 2102 First Kinetic Energy Panel 2103 Second Kinetic Energy Panel 2104 Inclined Slide Track 21041 A Inclined Slide Track 21042 B Inclined Slide Track 2107 A-slide push-up frame 2108 B-slide push-up frame 2109 Lifting motor 2110 Screw 2111 Push-up base plate 2112 Parallel sliding jaws 221 Slide Rail 222 Position Sensor 223 Drive Member 22301 Drive motor 22302 Gear 4. Auxiliary lifting unit 41 Lifting member 42 Auxiliary members 401 Chamber Lifting Motor 402 Lifting slide plate 4202 Auxiliary plate 301 Transfer Cavity 111 First Chamber 112 Dual-drive gripping claw unit 121 Second Chamber 122 Shelf Rack Grabber 131 Third Chamber 132 Lifting well component 133 Lid removal component 134 Tray scraping member 122 Shelf Rack Grabber 11201 Motor of the first gripping claw 11202 Second motor of gripping claw 11203 Interlocking chain 11204 Guide Cover 11205 Chain storage compartment 11206 Gripping claw 1221 Shelf rack gripping part 1222 Sample tube gripping section 122101 Grip Motor 122102 Z-axis guide plate 122103 Shelf rack Z axis 122104 Shelf rack gripping claws 122105 Shelf Rack 122201 Electromagnetic induction coil 122202 Magbar 122203 Guide cooling tube 122204 Liquid Nitrogen Cup 122205 Suction head 122206 Suction tube slider 122207 Suction Tube Truck 122208 Guide Cooling Tube Fixing Plate 1223 X-axis guide rail 1224 Y-axis guide rail 13201 Housing 13202 Lifting Motor 13203 Rotating Chain 13204 Rotating chain storage chamber 13205 Basket Guide Frame 13207 Basket Z-direction stroke plate 13208 Second slide rail 13209 Second slider 13210 Sliding Lifting Plate 13211 Hook part 13213 Stroke Plate Motor 13301 Lid Removal Support Plate 13302 Lid Removal Motor 13303 Second screw 13304 Movable Post 13401 Tray scraping unit 13402 Tray scraping motor 13403 Scraping Plate 13404 Nitrogen Inlet Valve 13406 Circumferential guide cooling tube 5. Honeycomb-type storage tank unit 501 First Tank Body 502 Tank Lid 503 Storage Rack 504 Rotary Motor 505 Sample storage tank 506 Tank valve 6. Disc-type storage tank unit 601 Second tank body 602 Second Rotating Tray 603 Aluminum Tray 604 Second tank lid

Claims

1. A mobile upper chamber, It includes an upper chamber, a thrusting movement unit, and a docking unit. A mobile upper chamber characterized in that a docking unit is provided below the upper chamber, the docking unit can receive an intermediate tank and dock it with the upper chamber, and the thrusting movement unit can thrust the upper chamber upward and move it.

2. The movable upper chamber according to claim 1, wherein the upward moving unit includes an upward moving member and a moving member, the upward moving member is capable of raising and lowering the upper chamber, and the moving member is capable of driving the upward moving member to move.

3. The aforementioned thrusting member includes a lifting plate, a first kinetic energy panel, a second kinetic energy panel, and an inclined slide track. The first kinetic energy panel and the second kinetic energy panel are movable relative to each other, the first kinetic energy panel is provided with an A-type inclined slide track, and the second kinetic energy panel is provided with a B-type inclined slide track, and the A-type and B-type inclined slide tracks are symmetrical. The movable upper chamber according to claim 2, characterized in that an A-slide push-up frame is slidably provided on the A-slide inclined slide track, a B-slide push-up frame is slidably provided on the B-slide inclined slide track, and the upper ends of the A-slide push-up frame and the B-slide push-up frame are each connected to a lifting plate.

4. The movable upper chamber according to claim 3, wherein the thrusting member further includes a lifting drive motor and a screw, the first kinetic energy panel and the second kinetic energy panel are each provided at both ends of the screw and both are screw-connected to the screw, and the lifting drive motor drives the screw.

5. The movable upper chamber according to claim 3, wherein the push-up member further includes a push-up bottom plate and parallel sliding claws, the lifting plate, the first kinetic energy panel, the second kinetic energy panel, and the inclined sliding track are all provided on the push-up bottom plate, a plurality of parallel sliding claws extend downward from the lower end of the push-up bottom plate, and the parallel sliding claws are slidably provided on the movable member.

6. The movable upper chamber according to claim 5, wherein the movable member includes a slide rail, a position sensor, and a drive member, the position sensors are provided at both the front and rear ends of the slide rail, the position sensors can determine whether or not the push-up bottom plate has moved to a desired position by detecting the position of the push-up bottom plate, the parallel slide claws are slidably connected to the slide rail, and the drive member can drive the push-up bottom plate to slide it.

7. The drive member includes a drive motor, a gear, and a gear plate. The movable upper chamber according to claim 6, characterized in that the gear plate is provided on the slide rail, the drive motor is connected to the push-up bottom plate via a motor plate, the gear can mesh with the gear plate, and the drive motor can drive the gear.

8. The movable upper chamber according to claim 1, further comprising an auxiliary lifting unit, the auxiliary lifting unit being provided on the side end face of the upper chamber, the auxiliary lifting unit including a lifting member and an auxiliary member, the auxiliary member being able to support the lifting member, and the upper chamber and the target tank body being able to slowly dock and move up and down through the cooperation of the lifting member and the auxiliary member.

9. The movable upper chamber according to claim 8, wherein the lifting member includes a chamber lifting motor and a lifting slide plate, the chamber lifting motor is capable of driving the lifting slide plate up and down along an auxiliary member, and position regulating sensors are provided at both the upper and lower ends of the lifting slide plate.

10. The movable upper chamber according to claim 9, wherein the auxiliary member includes an auxiliary slider and an auxiliary plate, the lifting slide plate is slidably connected to the auxiliary slider, and the auxiliary slider is connected to the auxiliary plate.

11. The movable upper chamber according to claim 8, characterized in that the lifting member is provided perpendicularly to the side surface of the upper chamber, and the side surface of the auxiliary member is L-shaped.

12. The mobile upper chamber according to claim 1, wherein the docking unit includes a transfer cavity, the transfer cavity is provided with a transfer plate, a conveyor belt, and a transfer door, the conveyor belt can drive the transfer plate to move horizontally, the transfer plate can receive an intermediate tank and move into the transfer cavity, and the transfer door can seal the transfer cavity.

13. The movable upper chamber according to claim 12, characterized in that a first slot is provided on the upper end surface of the transfer cavity, a second slot is provided on the bottom of the upper chamber, the first slot and the second slot are in the same position, a second slot cover is provided above the second slot, and the second slot cover can close or open the second slot.

14. The movable upper chamber according to claim 2, comprising a first chamber and a dual-drive gripping claw unit, wherein the dual-drive gripping claw unit is provided within the first chamber, the dual-drive gripping claw unit is movable in the XYZ directions, the first chamber can be docked to a target tank body, and the dual-drive gripping claw unit can grip a biological sample in the target tank body.

15. The movable upper chamber according to claim 2, comprising a second chamber and a shelf rack grabber, wherein the shelf rack grabber is provided within the second chamber, the shelf rack grabber is movable in the XYZ directions, the second chamber can be docked to a target tank body, and the shelf rack grabber can grasp a biological sample in the target tank body.

16. A mobile upper chamber according to claim 2, comprising a third chamber, a lifting well member, a lid removal member, a tray scraping member, and a shelf rack grabber, wherein the shelf rack grabber is provided in the third chamber, lifting well members are provided at both ends of the third chamber, a lid removal member is provided on the side of the lifting well member, a tray scraping member is provided on the side of the shelf rack grabber, the lifting well member can lift a basket in the target tank body, the lid removal member can remove a tank lid, the third chamber can dock with the target tank body, and the shelf rack grabber can grip a biological shelf rack or a single-tube biological sample.

17. The dual-drive gripping claw unit includes a motor for the first gripping claw, a motor for the second gripping claw, a meshing chain, a guide cover, a chain storage compartment, a gripping claw, a dual-drive gripping claw X-axis, and a dual-drive gripping claw Y-axis. The movable upper chamber according to claim 14, characterized in that the interlocking chain consists of two chains, the interlocking chain is provided inside the guide cover, a single chain can be stored in the chain storage compartment, a gripping claw is provided on the bottom side of the guide cover, the interlocking chain can drive the gripping claw to move in the Z-axis direction, the motor of the first gripping claw and the motor of the second gripping claw can drive the interlocking chain to move, the drive gripping claw X-axis is connected to the guide cover, and the drive gripping claw X-axis is slidably connected to the dual drive gripping claw Y-axis.

18. The mobile upper chamber according to claim 14, wherein the first chamber is further provided with a whole code scanning mechanism and a single-tube code scanning mechanism, the whole code scanning mechanism is capable of scanning an entire biological shelf rack, and the single-tube code scanning mechanism is capable of scanning single-tube samples.

19. The movable upper chamber according to claim 15, wherein the shelf rack grabber includes a shelf rack gripping portion and a sample tube gripping portion, the shelf rack gripping portion being capable of gripping a biological shelf rack, and the sample tube gripping portion being capable of gripping a single tube sample.

20. The movable upper chamber according to claim 19, wherein the shelf rack gripping portion includes a grip motor, a Z-axis guide plate, a shelf rack Z-axis, a shelf rack gripping claw, and a shelf rack, one side of the Z-axis guide plate is slidably connected to the shelf rack Z-axis, a shelf rack gripping claw is provided below the shelf rack Z-axis, and the shelf rack gripping claw is capable of gripping the shelf rack.

21. The sample tube gripping section includes an electromagnetic induction coil, a magnetic bar, a guide cooling tube, a liquid nitrogen cup, a suction head, a suction tube slider, a suction tube track, and a guide cooling tube fixing plate. The mobile upper chamber according to claim 20, characterized in that a suction tube track is provided on the other side of the Z-axis guide plate, the suction tube slider moves up and down along the suction tube track, the guide cooling tube fixing plate is connected to the electromagnetic induction coil and magnetic bar, the side end of the guide cooling tube fixing plate is connected to the suction tube slider, the guide cooling tube is connected to the guide cooling tube fixing plate, the liquid nitrogen cup is provided on the guide cooling tube, and a suction head is provided below the liquid nitrogen cup.

22. The movable upper chamber according to claim 21, further comprising an X-axis guide rail and a Y-axis guide rail, wherein the X-axis guide rail is slidable on the Y-axis guide rail, the Z-axis guide plate is connected to the X-axis guide rail, and the Y-axis guide rail is connected to the second chamber.

23. The lifting well member includes a housing, a lifting motor, a rotating chain, a rotating chain storage chamber, a basket guide frame, a visual monitor, a basket Z-direction stroke plate, a second slide rail, a second slider, a sliding lifting plate, a hook section, a position regulating sensor, and a stroke plate motor. The movable upper chamber according to claim 16, wherein a basket Z-direction stroke plate is provided inside the housing, a second slider is slidably connected to the basket Z-direction stroke plate, a second slide rail is connected to the second slider, the lifting motor is connected to a sliding lifting plate via a rotating chain, the sliding lifting plate is provided with a hook portion and a basket guide frame connected to the second slide rail, the stroke plate motor can drive the second slide rail, the second slider, and the sliding lifting plate to move up and down, and the visual monitor can detect the progress of the lifting inside.

24. The lid removal member includes a lid removal support plate, a lid removal motor, a second screw, and a movable post. The movable upper chamber according to claim 16, characterized in that the front end of the second screw is connected to a movable post, and the movable post is slidable along a lid removal support plate.

25. The tray scraping member includes a tray scraping body, a tray scraping motor, a scraping plate, a nitrogen introduction valve, a liquid nitrogen pipe, and a circumferential guide cooling pipe. The movable upper chamber according to claim 16, wherein the tray scraping body is provided in the third chamber, the tray scraping motor can move and drive the scraping plate, the nitrogen introduction valve supplies nitrogen to the tray scraping body via a liquid nitrogen pipe, and the circumferential guide cooling pipe is provided in the tray scraping body.

26. A bilateral split sample storage system, A double-sided split sample storage system comprising a movable upper chamber according to any one of claims 1 to 25, further comprising a honeycomb-type storage tank unit, a first chamber or a second chamber, wherein the honeycomb-type storage tank unit can be docked to the first chamber or the second chamber, a dual-drive gripping claw unit is provided in the first chamber, the dual-drive gripping claw unit can grip biological samples in the honeycomb-type storage tank unit, and a shelf rack grabber is provided in the second chamber, the shelf rack grabber can grip biological samples in the honeycomb-type storage tank unit.

27. The double-sided split sample storage system according to claim 26, further comprising a disc-type storage tank unit and a third chamber, wherein the disc-type storage tank unit can be docked to the third chamber, and the third chamber is provided with a lifting well member, a lid removal member, a tray scraping member, and a shelf rack grabber.

28. The honeycomb-type storage tank unit includes a first tank body, a tank lid, a storage rack, a rotary motor, a sample storage tank, and a tank stopper. The double-sided split sample storage system according to claim 27, characterized in that the tank lid is provided above the first tank body, the storage rack is provided inside the first tank body, the upper end of the first tank body is docked to the first chamber or the second chamber, the rotary motor can rotate the storage rack, a sample storage tank is provided inside the storage rack, a tank plug is provided on the tank lid, the dual-drive gripping claw unit or shelf rack grabber can grip the tank plug, and the dual-drive gripping claw unit or shelf rack grabber can grip biological samples inside the first tank body.

29. The disc-type storage tank unit is provided with a second tank body, a second rotating tray, an aluminum tray, and a second tank lid. The double-sided split sample storage system according to claim 27, characterized in that the second tank body is docked to the third chamber, the second tank body is provided with a second tank lid, the second tank lid is provided with a second tank plug, and the second rotating tray and the aluminum tray are provided inside the second tank body.

30. The double-sided split sample storage system according to claim 29, characterized in that the lifting well member can lift the aluminum tray and the second tank plug inside the second tank body, the lid removal member can displace the second tank plug, the tray scraping member can scrape off the aluminum tray, and the shelf rack grabber can grip a biological shelf rack or a single-tube biological sample.