Detection device for reagent stability

Abstract

The utility model discloses a device for detecting the stability of a reagent, which comprises a detection box, wherein a sealed carrying structure and a detection structure are arranged on the inner side of the detection box; the utility model relates to the technical field of reagent detection, and adopts various automatic mechanical and electrical parts, such as a lifting sealing hydraulic push rod, a convex lifting limiting block, an extrusion sealing rubber strip, an inflatable sealing shunt tube, a concave inflatable airbag, a rotary driving shaft, a carrying driving shaft, a carrying electromagnet, a carrying magnet, a carrying clamping jaw and the like. Automatic operation can be realized, and the detection efficiency is improved; according to the device, by adjusting environmental factors such as temperature, illumination and oxygen concentration and adjusting the distance between the convex lifting driving blocks, carrying and rotating of various reagent bottles of different specifications can be achieved, and the high adjusting capacity is achieved.

Description

Technical Field

[0001] The utility model relates to the technical field of reagent detection, in particular to a detection device for reagent stability. Background Art

[0002] At present, laboratory staff usually prepare different components and reagents of different concentrations required for the experiment before the experiment, and then seal the reagents in glass bottles for storage. Due to the large variety and quantity of reagents that need to be prepared at one time, some reagents cannot be used up at one time during the experiment, and they are directly thrown away, causing waste. However, if they are continued to be used after storage, the storage time and temperature directly affect the stability of the reagents. In addition, when adding reagents during the experiment, oxygen or carbon dioxide in the air will enter the reagent storage bottle, and the components in the reagents may be oxidized or acidified. Therefore, determining the factors that affect the stability of the reagents is of great significance for preserving the prepared reagents;

[0003] The detection device in the prior art can detect factors that affect the stability of the reagent, but there are the following problems in practical application: (1) The reagent is liquid. During the detection, the reagent needs to be placed in the test tube of the detection device through a pipette, a measuring cylinder or other tools. After a period of treatment, the test tube is taken out and an appropriate amount of reagent sample is taken for testing. The operation is inconvenient and the sample may be contaminated during the sampling process, affecting the test results; (2) The existing detection device is generally only used to detect the two influencing factors of temperature and humidity. It cannot detect the influencing factors such as air oxidation and light. Therefore, in view of the above problems, it is necessary to develop a detection device for reagent stability. In view of this, in-depth research on the above problems has been carried out, resulting in this case. Utility Model Content

[0004] To achieve the above objectives, the utility model is implemented through the following technical solutions: A detection device for reagent stability, comprising: a detection box, the inner side of which is installed with a sealing transport structure and a detection structure;

[0005] The sealing and transporting structure comprises: a plurality of concave lifting limit blocks, a plurality of convex lifting limit blocks, a plurality of lifting sealing limit shafts, a plurality of lifting sealing hydraulic push rods, a plurality of concave inflatable airbags, an inflatable sealing shunt pipe, an inflatable sealing pump, a plurality of extruded sealing strips, a plurality of rotating drive shafts, a plurality of rotating detection discs, a plurality of concave set glass blocks, a plurality of arc glass blocks, a plurality of transporting drive shafts, a plurality of transporting concave blocks, a plurality of transporting convex blocks, a plurality of transporting claws, a plurality of transporting electromagnets, a plurality of transporting magnets, a plurality of transporting lifting ring electromagnets, a plurality of transporting lifting ring magnets and a transporting drive assembly;

[0006] Several concave lifting limit blocks are evenly installed on the inner side of the detection box, several convex lifting limit blocks are respectively movably inserted on the inner sides of several concave lifting limit blocks, several lifting seal limit shafts are respectively inserted on the inner sides of several concave lifting limit blocks, and several lifting seal limit shafts are respectively movably inserted on several convex lifting limit blocks, several lifting seal hydraulic push rods are respectively installed on the inner sides of several concave lifting limit blocks, and several lifting seals are respectively inserted on the inner sides of several concave lifting limit blocks. The pushing ends of the sealing hydraulic push rods are respectively connected to several of the convex lifting limit blocks, several of the concave inflatable airbags are evenly inserted into the detection box, the inflatable sealing shunt pipes are connected to several of the concave inflatable airbags, the inflatable sealing pumps are connected to the inflatable sealing shunt pipes, several of the extruded sealing strips are respectively installed on several of the convex lifting limit blocks, several of the rotating drive shafts are evenly inserted into the inner side of the detection box, and several of the rotating detection discs are respectively mounted on several The rotating drive shaft, several of the concave set glass blocks and several of the arc glass blocks are respectively installed on several of the rotating detection discs, several of the transport drive shafts are respectively inserted into the detection box through bearings, several of the transport concave blocks are respectively installed in pairs on several of the transport drive shafts, and several of the transport concave blocks at the bottom ends of the transport drive shafts are connected through pins, several of the transport convex blocks are respectively movably inserted into the inner sides of several of the transport concave blocks, several of the transport clamps are respectively installed on several of the transport convex blocks, several of the transport electromagnets are respectively installed on several of the transport concave blocks, several of the transport magnets are respectively installed on several of the transport convex blocks, several of the transport lifting ring electromagnets are respectively installed on the bottom ends of several of the transport concave blocks, several of the transport lifting ring magnets are respectively installed on the top ends of several of the transport concave blocks, and the transport drive assembly is installed on several of the transport drive shafts and several of the rotating drive shafts;

[0007] It should be noted that, in the above, the lifting and sealing hydraulic push rods in the several concave lifting and limiting blocks on the inner side of the detection box are extended and retracted, respectively driving the convex lifting and limiting blocks on the pushing end, so that the several convex lifting and limiting blocks are lifted and retracted along the inner sides of the several concave lifting and limiting blocks, respectively, and the extruded sealing strips thereon are driven by the several convex lifting and limiting blocks, and the several extruded sealing strips are relatively extended and retracted, and at the same time, the inflatable sealing pump is operated to inflate the inflatable sealing shunt pipe, and the several concave inflatable airbags are inflated and expanded through the inflatable sealing shunt pipe, so as to achieve the expansion and sealing and relative extension and sealing of the two sides of the several convex lifting and limiting blocks, and at the same time, the transport drive assembly is operated to drive the several rotating drive shafts and the several transport drive shafts, and the several rotating drive shafts are operated to drive the rotating detection disc of the rotating drive shaft and the concave set glass blocks thereon and The arc glass block can rotate the concave set glass block and the reagent bottle between the arc glass blocks, and at the same time, the carrying electromagnet on the inner side of the carrying concave block on it is energized through the carrying drive shaft, and the carrying electromagnet is used to magnetically repel the carrying magnet, and the carrying convex block on it is driven by the carrying magnet, so that the carrying convex block is horizontally extended and retracted along the inner side of the carrying concave block, and at the same time, the carrying convex block drives the carrying clamp on it, so as to carry the reagent bottle, and at the same time, the carrying lifting ring electromagnet on the carrying concave block is energized, and the carrying lifting ring electromagnet is used to magnetically absorb the carrying lifting ring magnet, so as to achieve the distance between a pair of carrying concave blocks. The distance between a pair of carrying concave blocks is adjusted to achieve the carrying of the reagent bottle, and at the same time, the reagent bottle is rotated, transported and disassembled through the rotation of the carrying drive shaft.

[0008] Preferably, the transport drive assembly comprises: a drive bracket, a plurality of concave lifting drive blocks, a plurality of convex lifting drive blocks, a plurality of lifting drive electromagnets, a plurality of lifting drive magnets, a plurality of lifting slide blocks, a plurality of lifting slideways, a driving gear set, a rotating drive machine and a plurality of clamping hydraulic chucks;

[0009] The driving bracket is installed on the detection box, a number of the concave lifting driving blocks are respectively inserted on the driving bracket through bearings, a number of the convex lifting driving blocks are respectively movably inserted on the inner sides of a number of the concave lifting driving blocks, a number of the lifting sliders are respectively installed on a number of the convex lifting driving blocks, a number of the lifting slides are respectively installed on a number of the concave lifting driving blocks, a number of the lifting sliders are respectively movably inserted on the inner sides of a number of the lifting slides, a number of the lifting driving magnets are respectively installed on a number of the concave lifting driving blocks, a number of the lifting driving magnets are respectively installed on a number of the convex lifting driving blocks, the driving gear set is sleeved on a number of the concave lifting driving blocks, the driving end of the rotary driving machine is connected to the driving gear set, and a number of the clamping hydraulic chucks are respectively installed on a number of the convex lifting driving blocks;

[0010] It should be noted that, in the above, the lifting drive electromagnet on the inner side of the concave lifting drive block is energized, and the lifting drive electromagnet magnetically repels the lifting drive magnet respectively, and the lifting drive magnet drives the convex lifting drive block thereon, so that the convex lifting drive block is lifted and lowered along the inner side of the concave lifting drive block, and the convex lifting drive block drives the clamping hydraulic chuck thereon, and the clamping hydraulic chuck clamps the transport drive shaft and the rotating drive shaft one by one, and the rotating drive motor is operated to drive the driving rotating group on the driving end of the rotating drive motor to rotate, and the driving rotating group drives several concave lifting drive blocks to be rotationally driven.

[0011] Preferably, the detection structure comprises: an oxygen concentration sensor, a carbon dioxide concentration sensor, an oxygen tank, a carbon dioxide tank, a heating component, a temperature sensor, a lighting component and a light sensor;

[0012] The oxygen concentration sensor, the telescopic carbon dioxide concentration sensor, the oxygen tank, the telescopic carbon dioxide tank, the heating component, the telescopic temperature sensor, the illumination component and the telescopic light sensor are respectively and evenly installed between a plurality of the concave lifting limit blocks;

[0013] It should be noted that, in the above, by adjusting the proportion of oxygen or carbon dioxide in the gas between several concave lifting limit blocks, and by adjusting the temperature and light, the stability of the reagent will be affected by the temperature. Some reagents are prone to chemical reactions at high temperatures, resulting in degradation or deterioration of their active ingredients. Therefore, during the storage and use of the reagents, the temperature needs to be strictly controlled to avoid excessively high or low temperatures affecting the stability of the reagents; secondly, light will also affect the stability of the reagents. Some reagents will undergo photochemical reactions under light conditions, resulting in decomposition or oxidation of their active ingredients. Therefore, for such reagents, direct sunlight should be avoided, and storage in a cool place should be selected as much as possible, and the light exposure time during use should be minimized; finally, the oxygen concentration will also affect the stability of the reagents. Some reagents will undergo oxidation reactions when exposed to oxygen, resulting in the loss or deterioration of their active ingredients. Therefore, for such reagents, their contact with oxygen should be minimized, and vacuum packaging or nitrogen-filled packaging can be selected to protect the active ingredients of the reagents.

[0014] Preferably, a refraction plate is provided on the detection box.

[0015] Preferably, a stirring fan is provided on the detection box.

[0016] Preferably, a plurality of pressure relief valves are provided on the detection box.

[0017] Beneficial Effects

[0018] The utility model provides a detection device for reagent stability. It has the following beneficial effects: the detection device for reagent stability adopts a variety of automated mechanical and electrical components, such as a lifting and sealing hydraulic push rod, a convex lifting and limiting block, an extruded sealing strip, an inflatable sealing shunt pipe, a concave inflatable airbag, a rotating drive shaft, a transport drive shaft, a transport electromagnet, a transport magnet, a transport clamp, etc., which can realize automated operation and improve detection efficiency; the device can realize the transport and rotation of a variety of reagent bottles of different specifications by adjusting environmental factors such as temperature, light and oxygen concentration, and by adjusting the distance between the convex lifting and driving blocks, and has a strong adjustment ability; the device adopts a variety of stability measures, such as avoiding too high or too low temperature, avoiding direct sunlight, reducing contact with oxygen, etc., which can ensure the stability of the reagent and improve the accuracy of the detection result; the device can be applied to a variety of reagent bottles of different specifications, has a wide range of application, and can meet the needs of different users. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 The present invention is a schematic structural diagram of a detection device for reagent stability described in the present invention.

[0020] Figure 2The present invention is a schematic structural diagram of a detection device for reagent stability described in the present invention.

[0021] In the figure: 1. detection box; 2. concave lifting limit block; 3. convex lifting limit block; 4. lifting seal limit shaft; 5. lifting seal hydraulic push rod; 6. concave inflatable airbag; 7. extrusion sealing strip; 8. rotating drive shaft; 9. rotating detection disc; 10. concave set glass block; 11. arc glass block; 12. transport drive shaft; 13. transport concave block; 14. transport convex block; 15. clamping hydraulic chuck; 16. transport electromagnet; 17. transport magnet; 18. transport lifting ring electromagnet; 19. transport lifting ring magnet; 20. drive bracket; 21. concave lifting drive block; 22. convex lifting drive block; 23. lifting drive electromagnet; 24. lifting drive magnet; 25. lifting slider; 26. lifting slide; 27. drive gear set; 28. rotating drive machine. DETAILED DESCRIPTION

[0022] Based on the embodiments of the present utility model, all other embodiments obtained by ordinary technicians in the field without making any creative work shall fall within the scope of protection of the present utility model.

[0023] Through the personnel in this field, all the electrical components in this case are connected to their corresponding power supplies through wires, and appropriate controllers and encoders should be selected according to actual conditions to meet the control requirements. The specific connection and control sequence should refer to the following working principle, and the electrical connection between the electrical components is completed in the order of working in sequence. The detailed connection means are well-known technologies in this field. The following mainly introduces the working principles and processes, and no longer explains the electrical control.

[0024] Example

[0025] The present invention will be described in detail below in conjunction with the accompanying drawings. Figure 1-2As shown, a sealing transport structure and a detection structure are installed on the inner side of the detection box 1; the sealing transport structure includes: a plurality of concave lifting limit blocks 2, a plurality of convex lifting limit blocks 3, a plurality of lifting sealing limit shafts 4, a plurality of lifting sealing hydraulic push rods 5, a plurality of concave inflatable airbags 6, an inflatable sealing shunt pipe, an inflatable sealing pump, a plurality of extruded sealing strips 7, a plurality of rotating drive shafts 8, a plurality of rotating detection discs 9, a plurality of concave set glass blocks 10, a plurality of arc glass blocks 11, a plurality of transport drive shafts 12, a plurality of transport concave blocks 13, a plurality of transport convex blocks 14, a plurality of transport claws, a plurality of transport electromagnets 16, a plurality of transport magnets 17, a plurality of transport lifting ring electromagnets 18, a plurality of transport lifting ring magnets 19 and a transport drive assembly;Several concave lifting limit blocks 2 are evenly installed on the inner side of the detection box 1, several convex lifting limit blocks 3 are respectively movably inserted on the inner sides of several concave lifting limit blocks 2, several lifting seal limit shafts 4 are respectively inserted on the inner sides of several concave lifting limit blocks 2, and several lifting seal limit shafts 4 are respectively movably inserted on several convex lifting limit blocks 3, several lifting seal hydraulic push rods 5 are respectively installed on the inner sides of several concave lifting limit blocks 2, and the pushing ends of several lifting seal hydraulic push rods 5 are respectively connected to several convex lifting limit blocks 3, several The concave inflatable airbag 6 is evenly inserted into the detection box 1, the inflatable sealing shunt pipe is connected to a plurality of the concave inflatable airbags 6, the inflatable sealing pump is connected to the inflatable sealing shunt pipe, a plurality of the extruded sealing strips 7 are respectively installed on a plurality of the convex lifting limit blocks 3, a plurality of the rotating drive shafts 8 are evenly inserted into the inner side of the detection box 1, a plurality of the rotating detection discs 9 are respectively mounted on a plurality of the rotating drive shafts 8, a plurality of the concave set glass blocks 10 and a plurality of the arc glass blocks 11 are respectively mounted on a plurality of the rotating detection discs 9, a plurality of the transport drive shafts 12 The plurality of transport concave blocks 13 are respectively installed on the plurality of transport drive shafts 12 in pairs, and the plurality of transport concave blocks 13 at the bottom of the transport drive shafts 12 are connected by latches, and the plurality of transport convex blocks 14 are respectively movably inserted on the inner sides of the plurality of transport concave blocks 13, and the plurality of transport claws are respectively installed on the plurality of transport convex blocks 14, and the plurality of transport electromagnets 16 are respectively installed on the plurality of transport concave blocks 13, and the plurality of transport magnets 17 are respectively installed on the plurality of transport convex blocks 14, and the plurality of transport lifting ring electromagnets The iron 18 is respectively installed at the bottom end of the plurality of said transport concave blocks 13, the plurality of said transport lifting ring magnets 19 are respectively installed on the top end of the plurality of said transport concave blocks 13, the said transport driving assembly is installed on the plurality of said transport driving shafts 12 and the plurality of said rotating driving shafts 8; the said transport driving assembly comprises: a driving bracket 20, a plurality of said concave lifting driving blocks 21, a plurality of said convex lifting driving blocks 22, a plurality of lifting driving electromagnets 23, a plurality of lifting driving magnets 24, a plurality of lifting slide blocks 25, a plurality of lifting slideways 26, a driving gear set 27, a rotating driving machine 28 and a plurality of clamping hydraulic chucks 15;The driving bracket 20 is installed on the detection box 1, and several of the concave lifting driving blocks 21 are respectively inserted on the driving bracket 20 through bearings, and several of the convex lifting driving blocks 22 are respectively movably inserted on the inner sides of several of the concave lifting driving blocks 21. Several lifting sliders 25 are respectively installed on several of the convex lifting driving blocks 22, and several of the lifting slides 26 are respectively installed on several of the concave lifting driving blocks 21. Several of the lifting sliders 25 are respectively movably inserted on the inner sides of several of the lifting slides 26. Several of the lifting driving magnets 24 are respectively installed on several of the concave lifting driving blocks 21, and several of the lifting driving magnets 24 are respectively installed on several of the convex lifting driving blocks 22. The driving gear set 27 is sleeved on several On the concave lifting drive block 21, the driving end of the rotary drive machine 28 is connected to the driving gear set 27, and several clamping hydraulic chucks 15 are respectively installed on several convex lifting drive blocks 22; the detection structure includes: oxygen concentration sensor, carbon dioxide concentration sensor, oxygen tank, carbon dioxide tank, heating component, temperature sensor, lighting component and light sensor; the oxygen concentration sensor, telescopic carbon dioxide concentration sensor, oxygen tank, telescopic carbon dioxide tank, heating component, telescopic temperature sensor, lighting component and telescopic light sensor are respectively and evenly installed between several concave lifting limit blocks 2; the detection box 1 is provided with a refraction plate; the detection box 1 is provided with a stirring fan; the detection box 1 is provided with several pressure relief valves. ;

[0026] According to the attached Figure 1-2It is concluded that it should be noted that, in the above, the lifting and sealing hydraulic push rods 5 in the several concave lifting and limiting blocks 2 on the inner side of the detection box 1 are extended and retracted, respectively driving the convex lifting and limiting blocks 3 on the pushing end, so that the several convex lifting and limiting blocks 3 are lifted and retracted along the inner sides of the several concave lifting and limiting blocks 2, respectively, and the extruded sealing strips 7 thereon are driven by the several convex lifting and limiting blocks 3, and the several extruded sealing strips 7 are relatively extended and retracted, and at the same time, the inflatable sealing pump is operated to inflate the inflatable sealing shunt pipe, and the several concave inflatable airbags 6 are inflated and expanded through the inflatable sealing shunt pipe, so as to achieve the expansion and sealing and relative extension and sealing of the two sides of the several convex lifting and limiting blocks 3, and at the same time, The transport drive assembly operates to drive a plurality of rotating drive shafts 8 and a plurality of transport drive shafts 12. The plurality of rotating drive shafts 8 operate to drive the rotating detection disk 9 of the rotating drive shaft 8 and the concave set glass block 10 and the arc glass block 11 thereon, so as to rotate the reagent bottle between the concave set glass block 10 and the arc glass block 11. At the same time, the transport drive shaft 12 drives the transport electromagnet 16 on the inner side of the transport concave block 13 thereon to be energized, and the transport electromagnet 16 magnetically repels the transport magnet 17, and the transport convex block 14 thereon is driven by the transport magnet 17, so that the transport convex block 14 is horizontally extended and retracted along the inner side of the transport concave block 13. The block 14 drives the carrying clamp on it, so as to carry the reagent bottle. At the same time, the carrying lifting ring electromagnet 18 on the carrying concave block 13 is energized, and the carrying lifting ring electromagnet 18 magnetically adsorbs the carrying lifting ring magnet 19, so as to magnetically adsorb and retract the distance between a pair of carrying concave blocks 13, thereby changing the distance between a pair of carrying concave blocks 13 for adjustment, so as to carry the reagent bottle. At the same time, the reagent bottle is rotated, transported and disassembled by rotating the carrying drive shaft 12; the lifting drive electromagnet 23 on the inner side of the concave lifting drive block 21 is energized, and the lifting drive electromagnet 23 respectively magnetically repels the lifting drive magnet 24, and the lifting drive magnet 24 is magnetically repelled by the lifting drive electromagnet 23. The driving magnet 24 drives the convex lifting driving block 22 thereon, so that the convex lifting driving block 22 is lifted and lowered along the inner side of the concave lifting driving block 21, and the clamping hydraulic chuck 15 thereon is driven by the convex lifting driving block 22, and the transport driving shaft 12 and the rotating driving shaft 8 are clamped one by one by the clamping hydraulic chuck 15, and the rotating driving machine 28 is operated to drive the driving rotating group on the driving end of the rotating driving machine 28 to rotate, and the driving rotating group drives several concave lifting driving blocks 21 to rotate; by adjusting the proportion of oxygen or carbon dioxide in the gas between several concave lifting limit blocks 2, and by adjusting the temperature and light, the stability of the reagent will be affected by the temperature. Some reagents are prone to chemical reactions at high temperatures, resulting in degradation or deterioration of their active ingredients.Therefore, during the storage and use of reagents, the temperature needs to be strictly controlled to avoid excessively high or low temperatures that affect the stability of the reagents; secondly, light will also affect the stability of the reagents. Some reagents will undergo photochemical reactions under light conditions, resulting in the decomposition or oxidation of their active ingredients. Therefore, for such reagents, direct sunlight should be avoided, and they should be stored in a cool place as much as possible, and the light exposure time during use should be minimized; finally, oxygen concentration will also affect the stability of the reagents. Some reagents will undergo oxidation reactions when exposed to oxygen, resulting in the loss or deterioration of their active ingredients. Therefore, for such reagents, their contact with oxygen should be minimized, and vacuum packaging or nitrogen-filled packaging can be selected to protect the active ingredients of the reagents.

[0027] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A detection device for reagent stability, comprising: The detection box is characterized in that a sealing transport structure and a detection structure are installed inside the detection box; The sealing and transporting structure comprises: a plurality of concave lifting limit blocks, a plurality of convex lifting limit blocks, a plurality of lifting sealing limit shafts, a plurality of lifting sealing hydraulic push rods, a plurality of concave inflatable airbags, an inflatable sealing shunt pipe, an inflatable sealing pump, a plurality of extruded sealing strips, a plurality of rotating drive shafts, a plurality of rotating detection discs, a plurality of concave set glass blocks, a plurality of arc glass blocks, a plurality of transporting drive shafts, a plurality of transporting concave blocks, a plurality of transporting convex blocks, a plurality of transporting claws, a plurality of transporting electromagnets, a plurality of transporting magnets, a plurality of transporting lifting ring electromagnets, a plurality of transporting lifting ring magnets and a transporting drive assembly; Several concave lifting limit blocks are evenly installed on the inner side of the detection box, several convex lifting limit blocks are respectively movably inserted on the inner sides of several concave lifting limit blocks, several lifting seal limit shafts are respectively inserted on the inner sides of several concave lifting limit blocks, and several lifting seal limit shafts are respectively movably inserted on several convex lifting limit blocks, several lifting seal hydraulic push rods are respectively installed on the inner sides of several concave lifting limit blocks, and several lifting seals are respectively inserted on the inner sides of several concave lifting limit blocks. The pushing ends of the sealing hydraulic push rods are respectively connected to several of the convex lifting limit blocks, several of the concave inflatable airbags are evenly inserted into the detection box, the inflatable sealing shunt pipes are connected to several of the concave inflatable airbags, the inflatable sealing pumps are connected to the inflatable sealing shunt pipes, several of the extruded sealing strips are respectively installed on several of the convex lifting limit blocks, several of the rotating drive shafts are evenly inserted into the inner side of the detection box, and several of the rotating detection discs are respectively mounted on several The rotating drive shaft, several of the concave set glass blocks and several of the arc glass blocks are respectively installed on several of the rotating detection discs, several of the transport drive shafts are respectively inserted into the detection box through bearings, several of the transport concave blocks are respectively installed in pairs on several of the transport drive shafts, and several of the transport concave blocks at the bottom ends of the transport drive shafts are connected through pins, several of the transport convex blocks are respectively movably inserted into the inner sides of several of the transport concave blocks, several of the transport claws are respectively installed on several of the transport convex blocks, several of the transport electromagnets are respectively installed on several of the transport concave blocks, several of the transport magnets are respectively installed on several of the transport convex blocks, several of the transport lifting ring electromagnets are respectively installed on the bottom ends of several of the transport concave blocks, several of the transport lifting ring magnets are respectively installed on the top ends of several of the transport concave blocks, and the transport drive assembly is installed on several of the transport drive shafts and several of the rotating drive shafts.

2. A reagent stability detection device according to claim 1, characterized in that: The transport drive assembly includes: a drive bracket, a plurality of concave lifting drive blocks, a plurality of convex lifting drive blocks, a plurality of lifting drive electromagnets, a plurality of lifting drive magnets, a plurality of lifting slide blocks, a plurality of lifting slideways, a driving gear set, a rotating drive machine and a plurality of clamping hydraulic chucks; The driving bracket is installed on the detection box, a number of the concave lifting driving blocks are respectively inserted on the driving bracket through bearings, a number of the convex lifting driving blocks are respectively movably inserted on the inner sides of a number of the concave lifting driving blocks, a number of the lifting sliders are respectively installed on a number of the convex lifting driving blocks, a number of the lifting slides are respectively installed on a number of the concave lifting driving blocks, a number of the lifting sliders are respectively movably inserted on the inner sides of a number of the lifting slides, a number of the lifting driving magnets are respectively installed on a number of the concave lifting driving blocks, a number of the lifting driving magnets are respectively installed on a number of the convex lifting driving blocks, the driving gear set is sleeved on a number of the concave lifting driving blocks, the driving end of the rotating driving machine is connected to the driving gear set, and a number of the clamping hydraulic chucks are respectively installed on a number of the convex lifting driving blocks.

3. A reagent stability detection device according to claim 2, characterized in that: The detection structure includes: an oxygen concentration sensor, a carbon dioxide concentration sensor, an oxygen tank, a carbon dioxide tank, a heating component, a temperature sensor, a lighting component and a light sensor; The oxygen concentration sensor, the telescopic carbon dioxide concentration sensor, the oxygen tank, the telescopic carbon dioxide tank, the heating component, the telescopic temperature sensor, the illumination component and the telescopic light sensor are respectively and evenly installed between a plurality of the concave lifting limit blocks.

4. A reagent stability detection device according to claim 3, characterized in that: The detection box is provided with a refraction plate.

5. A reagent stability detection device according to claim 4, characterized in that: The detection box is provided with a stirring fan.

6. A reagent stability detection device according to claim 5, characterized in that: The detection box is provided with a plurality of pressure relief valves.

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