Microbial culture equipment for medical examination

Abstract

The invention discloses medical examination microorganism culture equipment, and relates to the technical field of microorganism culture. Comprising a culture mounting part, a rotation part is mounted on the culture mounting part, and the rotation part is used for rotating microbial colonies; a culture supporting piece is mounted on the alternating piece; the culture supporting piece is used for uniformly mixing a culture medium; a culture vessel piece is mounted on the culture support piece; the culture vessel piece is positioned in the culture mounting piece; the lifting inoculation pieces can be used for pre-storing a culture medium, suction force is utilized, when the two lifting inoculation pieces are attached to each other to convert strains, the reserved culture medium can be used for washing and smearing sponge and assisting in bringing out bacterial colonies in a dipping mode, and the comprehensiveness of subsequent strains can be improved; the problems that existing medical examination microorganism culture equipment is poor in temperature control, the microorganism culture effect is affected, meanwhile, when a culture dish colony is inoculated, rigid scraping is conducted, strains are prone to being damaged, and the strains are inconvenient to disperse through a culture medium are solved.

Description

Technical Field

[0001] The present invention relates to the technical field of microorganism culture, and specifically relates to a medical test microorganism culture device. Background Art

[0002] Microorganism culture is the process of inoculating microorganisms onto an artificial culture medium suitable for their growth and reproduction. The inoculated culture dish is placed in a constant temperature incubator for a certain period of time until the colonies grow to a suitable degree for observation, and then it can be taken out for detection work such as microscopic observation. During the actual culture process, constant temperature should be maintained as much as possible to improve the culture effect. Currently, the medical test microorganism culture device is not convenient for microscopic observation without taking out the culture dish. The traditional method of manually opening and closing the incubator to take out the culture dish exposes the colonies to the air during microscopic observation, and at the same time, the temperature control is not good, which affects the microorganism culture effect. At the same time, the traditional incubator for taking out the culture dish is also prone to temperature loss, affecting the constant temperature effect. At the same time, when inoculating the colonies on the culture dish, scraping hard is likely to damage the bacterial strains, and the dispersion effect of the scraped bacterial strains is not good, which is not convenient for using the culture medium to disperse the bacterial strains.

[0003] Therefore, we propose a medical test microorganism culture device. Summary of the Invention

[0004] The purpose of the present invention is to provide a medical test microorganism culture device to solve the problems in the above background art that the current medical test microorganism culture device has poor temperature control, affecting the microorganism culture effect, and at the same time, when inoculating the colonies on the culture dish, scraping hard is likely to damage the bacterial strains, and it is not convenient for using the culture medium to disperse the bacterial strains.

[0005] To achieve the above purpose, the present invention provides the following technical solution: A medical test microorganism culture device includes a culture installation member, a rotation member is installed on the culture installation member, and the rotation member is used for rotating microorganism colonies; a culture support member is installed on the rotation member; the culture support member is used for mixing the culture medium; a culture vessel member is installed on the culture support member; the culture vessel member is located inside the culture installation member; a lifting inoculation member is installed on the culture vessel member; the lifting inoculation member is used for dipping microorganism colonies; a suction connection member is installed on the culture support member; the suction connection member is used for air suction protection; a microscope docking member is installed on the suction connection member; the microscope docking member is used for docking with a microscope; the culture installation member includes: a culture box main body and a swing fixing block, the swing fixing block is fixedly installed inside the culture box main body; the swing fixing block has an inclined surface structure; a digital display thermometer is provided on the culture box main body.

[0006] Preferably, the microscope docking member further includes: a lower baffle, a rotating shaft, and a torsion spring. The bottom of the docking tube is fixedly installed with a rotating shaft, and a lower baffle is rotatably installed on the rotating shaft; a torsion spring is sleeved on the rotating shaft; both ends of the torsion spring are connected between the lower baffle and the rotating shaft; the lower baffle is used to block the docking tube.

[0007] Preferably, the culture vessel member includes: a culture dish and a handle. The culture dish is inserted into the placement groove block; the culture dish is of a transparent structure; two handles are fixedly installed inside the culture dish; the two handles are used to facilitate the removal of the culture dish; the diameter of the culture dish is smaller than that of the sealing cover.

[0008] Preferably, the culture installation member further includes: an electric heating plate, a placement plate, a gas guide tube, and a sealing cover. Two electric heating plates are fixedly installed inside the incubator main body, and the two electric heating plates are respectively externally connected to a power source; a gas guide tube is fixedly installed on the incubator main body, and a rubber coating is provided at the end of the gas guide tube; the sealing cover is threadedly connected to the incubator main body; a placement plate for placing a microscope is provided on the door of the incubator main body.

[0009] Preferably, the microscope docking member includes: a magnet ring, a corrugated sheet, a docking tube, and a socket ring. A magnet ring is sleeved on the docking ring; the magnet ring magnetically attracts the docking ring; a corrugated sheet is fixedly installed inside the magnet ring; the corrugated sheet is sleeved with a docking tube, and a socket ring is fixedly installed inside the docking tube, and the socket ring is used to socket the microscope lens.

[0010] Preferably, the lifting and inoculating member includes: a lifting disc, a liquid guide hole, a lifting column, and a support bar. A rubber sealing ring is provided on the outer side of the lifting disc; the lifting disc is slidably sleeved on the culture dish; a liquid guide hole is opened on the lifting disc; the bottom of the lifting disc is fixedly installed with a lifting column, and the lifting column is of a hexagonal structure; the lifting column is inserted into the hexagonal hole on the placement groove block; a slot hole is provided on the lifting column; a support bar is fixedly installed on the lifting disc; the slot hole on the lifting column communicates with the liquid guide hole; the support bar is used to prevent the lifting discs from fitting together; the lifting disc is of a transparent structure.

[0011] Preferably, the rotation member includes: a rotation motor and a rotating frame. The rotation motor is fixedly installed on the back of the incubator main body; the output shaft of the rotation motor passes through the incubator main body; a rotating frame is fixedly installed on the output shaft of the rotation motor; the rotating frame is located inside the incubator main body.

[0012] Preferably, the suction connection member includes: a docking ring and a connecting pipe. The docking ring is rotatably connected to the placement groove block through a hinge; a connecting pipe is fixedly installed on the side of the docking ring; the top connecting pipe is used to fit and connect to the gas guide pipe; the top docking ring is attached to the inner side of the incubator main body.

[0013] Preferably, the culture support member includes: a rotating connection shaft, a counterweight, a placement groove block, and a supplementary light lamp. There are four rotating connection shafts, and the structures on the four rotating connection shafts are the same; the four rotating connection shafts are respectively rotatably installed on the rotating frame; counterweights are respectively fixedly installed on the four rotating connection shafts; placement groove blocks are respectively fixedly installed on the four rotating connection shafts; supplementary light lamps are respectively fixedly embedded in the four placement groove blocks, and the supplementary light lamps are used to improve the microscope observation quality; the counterweights are used to counterweight the placement groove blocks to keep them horizontal; the four counterweights respectively correspond to the swinging fixed blocks; the placement groove blocks are provided with hexagonal holes.

[0014] Preferably, the lifting inoculation member further includes: a smearing sponge, a pushing rod, and a pulling magnet. A smearing sponge is fixedly installed on the support bar; the smearing sponge communicates with the liquid guide hole; the pushing rod is slidably sleeved on the lifting column, and a rubber coating is provided on the outer part of the pushing rod; the pushing rod is used to push the culture medium into the smearing sponge; six pulling magnets are fixedly installed on the lifting disk.

[0015] Compared with the prior art, the beneficial effects of the present invention are as follows: The present invention adopts a culture support member in cooperation with a rotation member to achieve rotation work, which can better avoid the uneven temperature inside the incubator main body from affecting the growth quality of microorganisms. The use of the culture vessel member can facilitate the staff to directly carry out the disassembly and taking work of the culture vessel member. Only one culture vessel member needs to be independently taken, and there is no need to open the door of the incubator main body, which can avoid rapid heat loss and improve the heat preservation effect inside the incubator main body. This structure can utilize counterweights to keep the culture dish in a horizontal state at all times. When the culture dish is rotated, it can be automatically controlled to shake and evenly mix the bacteria and the culture medium in the culture dish, which can increase the coverage range of the bacteria.

[0016] The use of the lifting inoculation member can facilitate the staff to carry out the conversion work of bacteria. At the same time, it can avoid the traditional method of using an inoculation loop for scraping during bacteria conversion. The scraping amount is less, and because it is a scraping method, it is also easy to cause damage to the bacteria, affecting the growth rate of the bacteria after conversion. The lifting inoculation member can be used to pre-store the culture medium. Using the suction force, when the two lifting inoculation members are attached to each other to convert bacteria, it can be done by dipping. The reserved culture medium can be used to wash the smearing sponge to assist in bringing out the colonies, which can increase the comprehensiveness of the subsequent bacteria and avoid all the bacteria from gathering on the smearing sponge, affecting subsequent sampling and microscopic observation.

[0017] Using a suction connection piece, the operation is simple and convenient, and automatic docking suction can be carried out, which is flexible and convenient. As the culture support piece is driven to rotate and move, the connecting pipe will align with the air guide pipe to achieve conduction. At this time, the air guide pipe is externally connected to an air suction pump for suction to remove impurities such as dust that may exist during the inoculation docking of the lifting inoculation piece, improving cleanliness; The use of a microscope docking piece can facilitate the sleeving of the microscope lens, and perform closed fitting to reduce dust intrusion. At the same time, the use of corrugated sheets can ensure the flexibility of the microscope lens. Microscopic observation does not require removing the culture dish, and normal colony growth is not affected during microscopic observation, further ensuring the quality of colony growth. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 is a schematic diagram of the overall structure of a medical test microorganism culture device of the present invention; Figure 2 is a schematic diagram of the structure of the culture installation part of the present invention; Figure 3 is a schematic diagram of the bottom structure of the placement groove block of the present invention; Figure 4 is a cross-sectional view of the internal structure of a medical test microorganism culture device of the present invention; Figure 5 is a schematic diagram of the structure of the rotating part of the present invention; Figure 6 is a schematic diagram of the structure of the culture support part of the present invention; Figure 7 is a schematic diagram of the structure of the culture vessel part of the present invention; Figure 8 is a schematic diagram of the structure of the lifting inoculation part of the present invention; Figure 9 is a schematic diagram of the structure of the suction connection piece of the present invention; Figure 10 of the present invention Figure 4 Cross-sectional view of the B area in; Figure 11 is a schematic diagram of the structure of the microscope docking piece of the present invention; Figure 12 is a schematic diagram when the lifting plates of the present invention are mutually fitted for inoculation.

[0019] In the figure: 1. Culture installation part; 101. Incubator main body; 102. Swing fixing block; 1011. Electric heating plate; 1012. Placing plate; 103. Air duct; 104. Sealing cover; 2. Rotation part; 201. Rotation motor; 202. Rotating frame; 3. Culture support part; 301. Rotating connection shaft; 302. Counterweight; 303. Placing groove block; 304. Supplementary light; 4. Culture vessel part; 401. Petri dish; 402. Handle; 5. Lifting inoculation part; 501. Lifting plate; 5011. Liquid guiding hole; 502. Lifting column; 503. Support bar; 504. Smearing sponge; 505. Pushing rod; 506. Pulling magnet; 6. Suction connection part; 601. Docking ring; 602. Connecting pipe; 7. Microscope docking part; 701. Magnet ring; 702. Corrugated sheet; 703. Docking pipe; 704. Socket ring; 705. Lower baffle; 706. Rotating shaft; 707. Torsion spring. Detailed implementation mode

[0020] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0021] Embodiment 1: Please refer to Figures 1 to 12 as shown: The present invention provides a technical solution: A medical test microorganism culture device, including a culture installation part 1, a rotation part 2 is installed on the culture installation part 1, and the rotation part 2 is used for rotating microorganism colonies; a culture support part 3 is installed on the rotation part 2; the culture support part 3 is used for mixing the culture medium; a culture vessel part 4 is installed on the culture support part 3; the culture vessel part 4 is located inside the culture installation part 1; a lifting inoculation part 5 is installed on the culture vessel part 4; the lifting inoculation part 5 is used for dipping microorganism colonies; a suction connection part 6 is installed on the culture support part 3; the suction connection part 6 is used for air suction protection; a microscope docking part 7 is installed on the suction connection part 6; the microscope docking part 7 is used for docking the microscope; the culture installation part 1 includes: an incubator main body 101 and a swing fixing block 102, and the swing fixing block 102 is fixedly installed inside the incubator main body 101; the swing fixing block 102 is a bevel structure; a digital display thermometer is provided on the incubator main body 101.

[0022] Among them, the culture installation part 1 further includes: an electric heating plate 1011, a placement plate 1012, an air duct 103, and a closing cover 104. Two electric heating plates 1011 are fixedly installed inside the incubator main body 101, and the two electric heating plates 1011 are respectively externally connected to a power source; an air duct 103 is fixedly installed on the incubator main body 101, and a rubber coating is provided at the end of the air duct 103; the closing cover 104 is threadedly connected to the incubator main body 101; a placement plate 1012 for placing a microscope is provided on the door of the incubator main body 101; the air duct 103 is externally connected to an air suction pump; the rotation part 2 includes: a rotation motor 201 and a rotating frame 202, and the rotation motor 201 is fixedly installed on the back of the incubator main body 101; the output shaft of the rotation motor 201 passes through the incubator main body 101; a rotating frame 202 is fixedly installed on the output shaft of the rotation motor 201; the rotating frame 202 is located inside the incubator main body 101; the culture support part 3 includes: a rotating connection shaft 301, a counterweight 302, a placement groove block 303, and a supplementary light 304. There are four rotating connection shafts 301, and the structures on the four rotating connection shafts 301 are the same; the four rotating connection shafts 301 are respectively rotatably installed on the rotating frame 202; counterweights 302 are respectively fixedly installed on the four rotating connection shafts 301; placement groove blocks 303 are respectively fixedly installed on the four rotating connection shafts 301; supplementary lights 304 are respectively fixedly embedded inside the four placement groove blocks 303, and the supplementary lights 304 are used to improve the quality of microscope observation; the counterweights 302 are used for counterweight to keep the placement groove blocks 303 horizontal; the four counterweights 302 respectively correspond to the swing fixing blocks 102; hexagonal holes are provided on the placement groove blocks 303. By using the culture support part 3 in cooperation with the rotation part 2 to achieve rotation work, it is possible to better avoid the uneven temperature inside the incubator main body 101 from affecting the growth quality of microorganisms. This structure can utilize the counterweights 302 to keep the culture dish 401 in a horizontal state at all times, avoid spilling, and the structure is more reasonable. It can ensure the stable rotation of this structure. At the same time, when the culture dish 401 is rotated, it can automatically control to shake and mix the bacteria and culture medium in the culture dish 401, which can increase the coverage range of the bacteria. When the placement groove block 303 passes by the swing fixing block 102, the swing fixing block 102 will block the counterweight 302, but the placement groove block 303 continues to move. At this time, the placement groove block 303 is toggled and shaken, and at this time, the culture medium and bacteria inside the culture dish 401 will be shaken and mixed.

[0023] Among them, the culture vessel part 4 includes: a culture dish 401 and a handle 402. The culture dish 401 is inserted on the placement groove block 303; the culture dish 401 is a transparent structure; two handles 402 are fixedly installed inside the culture dish 401; the two handles 402 are used to facilitate the disassembly of the culture dish 401; the diameter of the culture dish 401 is smaller than that of the closed cover 104; using the culture vessel part 4 can facilitate the staff to directly carry out the disassembly and taking work of the culture vessel part 4. Only one culture vessel part 4 needs to be taken independently, and there is no need to open the door of the incubator main body 101, which can avoid rapid heat loss. At the same time, this structure can improve the heat preservation effect inside the incubator main body 101. The structure is simple. When the culture dish 401 needs to be taken, the culture dish 401 to be taken can be driven and rotated to the top. The docking ring 601 can fit on the inner side of the incubator main body 101 to reduce heat loss, and the remaining culture dishes 401 can remain in a heated state, which is also convenient for the staff to first understand the growth situation in the culture dish 401 and is more suitable for situations where frequent taking is required.

[0024] Among them, the lifting inoculation component 5 includes: a lifting plate 501, a liquid guide hole 5011, a lifting column 502, and a support bar 503. A rubber sealing ring is provided on the outer side of the lifting plate 501; the lifting plate 501 is slidably sleeved on the culture dish 401; a liquid guide hole 5011 is opened on the lifting plate 501; a lifting column 502 is fixedly installed at the bottom of the lifting plate 501, and the lifting column 502 is of a hexagonal structure; the lifting column 502 is inserted into the hexagonal hole on the placement groove block 303; a slot is provided on the lifting column 502; a support bar 503 is fixedly installed on the lifting plate 501; the slot on the lifting column 502 communicates with the liquid guide hole 5011; the support bar 503 is used to prevent the lifting plates 501 from fitting together; the lifting plate 501 is of a transparent structure; the lifting inoculation component 5 further includes: a smearing sponge 504, a pushing rod 505, and a pulling magnet 506. A smearing sponge 504 is fixedly installed on the support bar 503; the smearing sponge 504 communicates with the liquid guide hole 5011; the pushing rod 505 is slidably sleeved on the lifting column 502, and a rubber coating is provided on the outside of the pushing rod 505; the pushing rod 505 is used to push the culture medium into the smearing sponge 504; six pulling magnets 506 are fixedly installed on the lifting plate 501. Using the lifting inoculation component 5 can facilitate the staff to carry out the conversion work of the bacterial species. At the same time, it avoids the need to use an inoculation loop for scraping in the traditional bacterial species conversion. While the scraping amount is small, because it is a scraping method, it is also easy to cause damage to the bacterial species, affecting the growth rate after the bacterial species conversion. This structure uses the lifting inoculation component 5 to store the culture medium in advance. Using the suction force, when two lifting inoculation components 5 are attached to each other to convert the bacterial species, the microbial colonies can be dipped by dipping, with little damage to the colonies. At the same time, after the colonies are dipped, the reserved culture medium can be used to wash the smearing sponge 504 to assist in bringing out the colonies, which can increase the comprehensiveness of the subsequent bacterial species and avoid all the bacterial species gathering on the smearing sponge 504, affecting subsequent sampling and microscopic observation. The structure is more reasonable. This structure can achieve quick docking and is more convenient in the actual operation process. When the bacterial species need to be converted, after rotating and removing the closed cover 104, first pull and remove the magnet ring 701 connected by magnetic attraction to prevent obstruction. This structure of the culture vessel component 4 and the lifting inoculation component 5 are used in sets. Hold the lifting inoculation component 5 that needs to be inoculated, first pull the pushing rod 505 to suck the culture medium from the smearing sponge 504. The purpose is to prevent the culture medium from leaking when the smearing sponge 504 is inverted later. Then, the culture vessel component 4 and the lifting inoculation component 5 can be inserted into the docking ring 601. With the magnetic attraction of the pulling magnet 506, the two lifting plates 501 will approach. At this time, the lifting column 502 can be rotated to drive the smearing sponge 504 that needs to be inoculated to dip the bacterial species on the lifting plate 501 where colonies have already formed below. Then, the upper culture vessel component 4 and the lifting inoculation component 5 that have been inoculated can be pulled out to complete the inoculation work; The suction connection member 6 includes: a docking ring 601 and a connecting pipe 602. The docking ring 601 is rotatably connected to the placement groove block 303 through a hinge; a connecting pipe 602 is fixedly installed on the side of the docking ring 601; the top connecting pipe 602 is used to fit and dock with the air guide pipe 103; the top docking ring 601 is attached to the inner side of the incubator main body 101. The suction connection member 6 can facilitate the dust-free sealing during the conversion inoculation by the staff, and also avoid the spread and contamination of colonies. The structure is simple. By using the suction method, the interference of air on the bacterial species can be reduced, and the safety of bacterial species inoculation can be improved. With the suction connection member 6, the operation is simple and convenient. At the same time, this structure can automatically perform docking and suction, which is flexible and convenient. As the culture support member 3 is driven to rotate and move, the connecting pipe 602 will align with the air guide pipe 103 to achieve conduction. At this time, the air guide pipe 103 is externally connected to an air suction pump for suction to remove impurities such as dust that may exist during the inoculation docking of the lifting inoculation member 5, improving the cleanliness. At the same time, when the docking ring 601 follows the culture support member 3 to rotate and move, it can also be convenient to fit and seal on the inner side of the incubator main body 101.

[0025] Embodiment 2, on the basis of Embodiment 1, the microscope docking member 7 includes: a magnet ring 701, a corrugated sheet 702, a docking pipe 703, and a socket ring 704. A magnet ring 701 is sleeved on the docking ring 601; the magnet ring 701 magnetically attracts the docking ring 601; a corrugated sheet 702 is fixedly installed inside the magnet ring 701; a docking pipe 703 is sleeved on the corrugated sheet 702, and a socket ring 704 is fixedly installed inside the docking pipe 703, and the socket ring 704 is used to sleeve the microscope lens. The microscope docking member 7 further includes: a lower baffle 705, a rotary shaft 706, and a torsion spring 707. A rotary shaft 706 is fixedly installed at the bottom of the docking pipe 703, and a lower baffle 705 is rotatably installed on the rotary shaft 706; a torsion spring 707 is sleeved on the rotary shaft 706; both ends of the torsion spring 707 are connected between the lower baffle 705 and the rotary shaft 706; the lower baffle 705 is used to block the docking pipe 703. The microscope docking member 7 can facilitate the sleeving of the microscope lens, perform closed fitting to reduce the intrusion of dust and external air. At the same time, the flexibility of the microscope lens can be ensured by using the corrugated sheet 702, and the overall structure is more reasonable. The microscope can be directly placed on the placement plate 1012 for observation without removing the culture dish 401, and the normal growth of colonies is not affected during microscopic observation, further ensuring the growth quality of colonies. When the microscope lens is pulled out, under the torsion force of the torsion spring 707, it can immediately turn up and fit the docking pipe 703 for sealing.

[0026] The working principle of this embodiment is as follows: first, after rotating and disassembling the closing cover 104, the buckle 402 can be directly manually pulled out by using the buckle 402. The operation is simple. During this process, the docking ring 601 can be attached to the inner side of the incubator body 101 to reduce heat loss. The temperature prompt of the thermometer on the incubator body 101 is observed, and the electric heating plate 1011 is used to heat the incubator body 101 to control the internal temperature of the incubator body 101. The rotating motor 201 drives the rotating frame 202 to rotate, which can drive the rotating connecting shaft 301 to rotate. Under the downward traction of the counterweight block 302, the placement slot block 303 can be kept horizontal in real time. When the placement slot block 303 passes When the fixed block 102 is swung, the fixed block 102 will block the counterweight block 302, but the placement slot block 303 is still moving. At this time, the placement slot block 303 is moved and shaken. At this time, the culture medium and bacteria in the culture dish 401 will be shaken and evenly mixed. The lifting inoculation piece 5 to be inoculated is held by hand, and the push rod 505 is pulled out first to suck the culture medium from the smear sponge 504. The purpose is to prevent the culture medium from leaking when the smear sponge 504 is inverted later. Then, the culture vessel piece 4 and the lifting inoculation piece 5 can be inserted into the docking ring 601, and the magnetic attraction of the magnet 506 is pulled closer, so that the two lifting plates 501 will be close to each other, and the lifting column 50 can be rotated at this time. 2, drive the smear sponge 504 that needs to be inoculated to dip the bacterial strain on the lifting plate 501 below where the bacterial colony has been formed, and then the culture vessel part 4 and the lifting inoculation part 5 that have been inoculated above can be pulled out to complete the inoculation work, and then the pushing rod 505 is pushed to discharge the culture medium from the inoculated smear sponge 504. At this time, the bacterial strain will be flushed out by the culture medium, and as the culture support part 3 is driven to move in rotation, when the culture support part 3 drives the suction connecting part 6 to move to the top, the connecting tube 602 will be aligned with the air guide tube 103 to achieve conduction. At this time, the air guide tube 103 is externally connected to the suction pump for suction to remove the possible presence of the lifting inoculation part 5 during inoculation docking. Dust and other impurities can be removed by directly placing a microscope on the placement plate 1012 for observation without removing the culture dish 401. The normal growth of the colonies is not affected during microscopic observation, which further ensures the quality of colony growth. After placing the microscope on the placement plate 1012, the position is adjusted and the microscope lens is aligned with the sleeve ring 704. At this time, the lower baffle 705 is pressed and can be flipped down. The fill light 304 can be turned on for observation. When the staff uses the microscope for observation, the corrugated structure of the corrugated sheet 702 can be adapted when the microscope lens needs to be displaced and adjusted. When the microscope lens is subsequently pulled out, it can be immediately flipped up and fitted with the docking tube 703 for sealing under the torsion of the torsion spring 707.

[0027] It should be noted that in this text, relational terms such as first and second are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any actual relationship or order between these entities or operations. Moreover, the term "comprising", "including" or any other variant thereof is intended to cover non-exclusive inclusion, so that a process, method, article or device comprising a series of elements not only includes those elements, but also includes other elements not expressly listed, or further includes elements inherent to such process, method, article or device.

[0028] Although the embodiments of the present invention have been shown and described, those of ordinary skill in the art can understand that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A medical inspection microorganism cultivation device, comprising a cultivation installation part (1), on which a rotation part (2) is installed, characterized in that: The rotating member (2) is used to rotate the microbial colonies; a culture support member (3) is installed on the rotating member (2); the culture support member (3) is used to mix the culture medium; The culture support member (3) is provided with a culture vessel member (4); the culture vessel member (4) is located inside the culture mounting member (1); the culture vessel member (4) is provided with a lifting inoculation member (5); the lifting inoculation member (5) is used for dipping microbial colonies; The culture support (3) is provided with a suction connection piece (6); the suction connection piece (6) is used for suction protection; the suction connection piece (6) is provided with a microscope docking piece (7); the microscope docking piece (7) is used for docking with a microscope; The culture installation component (1) comprises: an incubator body (101) and a swing fixing block (102); the swing fixing block (102) is fixedly installed inside the incubator body (101); the swing fixing block (102) is an inclined surface structure; and a digital display thermometer is provided on the incubator body (101).

2. A medical test microorganism cultivation device according to claim 1, characterized in that: The culture installation component (1) further comprises: an electric heating plate (1011), a placement plate (1012), an air guide tube (103) and a closing cover (104); two electric heating plates (1011) are fixedly installed inside the culture box body (101), and the two electric heating plates (1011) are respectively connected to an external power source; an air guide tube (103) is fixedly installed on the culture box body (101), and a rubber coating is provided at the end of the air guide tube (103); the closing cover (104) is threadedly connected to the culture box body (101); and a placement plate (1012) for placing a microscope is provided on the door of the culture box body (101).

3. A medical test microorganism cultivation device according to claim 2, characterized in that: The rotating component (2) comprises: a rotating motor (201) and a rotating frame (202); the rotating motor (201) is fixedly mounted on the back of the incubator body (101); the output shaft of the rotating motor (201) passes through the incubator body (101); the rotating frame (202) is fixedly mounted on the output shaft of the rotating motor (201); and the rotating frame (202) is located inside the incubator body (101).

4. A medical test microorganism cultivation device according to claim 3, characterized in that: The culture support (3) comprises: a rotating connecting shaft (301), a counterweight (302), a placement slot block (303) and a fill light (304). Four rotating connecting shafts (301) are provided, and the structures on the four rotating connecting shafts (301) are the same; the four rotating connecting shafts (301) are respectively rotatably mounted on the rotating frame (202); the counterweight (302) is respectively fixedly mounted on the four rotating connecting shafts (301); the placement slot block (303) is respectively fixedly mounted on the four rotating connecting shafts (301); the fill light (304) is respectively fixedly embedded inside the four placement slot blocks (303), and the fill light (304) is used to improve the quality of microscope observation; the counterweight (302) is used to counterweight the placement slot block (303) to keep it horizontal; the four counterweights (302) respectively correspond to the swing fixed blocks (102); and the placement slot block (303) is provided with a hexagonal hole.

5. A medical test microorganism cultivation device according to claim 4, characterized in that: The culture vessel component (4) comprises: a culture dish (401) and a buckle (402); the culture dish (401) is plugged into the placement slot block (303); the culture dish (401) is a transparent structure; two buckles (402) are fixedly mounted on the inner side of the culture dish (401); the two buckles (402) are used to facilitate the disassembly of the culture dish (401); the diameter of the culture dish (401) is smaller than the sealing cover (104).

6. A medical test microorganism cultivation device according to claim 5, characterized in that: The lifting inoculation member (5) comprises: a lifting plate (501), a liquid conducting hole (5011), a lifting column (502) and a support bar (503), wherein a rubber sealing ring is provided on the outer side of the lifting plate (501); the lifting plate (501) is slidably sleeved on the culture dish (401); the lifting plate (501) is provided with a liquid conducting hole (5011); the lifting column (502) is fixedly installed at the bottom of the lifting plate (501), and the lifting column (502) is a hexagonal structure; the lifting column (502) is inserted into the hexagonal hole on the placement slot block (303); the lifting column (502) is provided with a slot hole; the lifting plate (501) is fixedly installed with a support bar (503); the slot hole on the lifting column (502) is connected to the liquid conducting hole (5011); the support bar (503) is used to prevent the lifting plates (501) from being attached to each other; the lifting plate (501) is a transparent structure.

7. A medical test microorganism cultivation device according to claim 6, characterized in that: The lifting inoculation member (5) further comprises: a smear sponge (504), a pushing rod (505) and a pulling magnet (506); the smear sponge (504) is fixedly mounted on the support bar (503); the smear sponge (504) is connected to the liquid guide hole (5011); the pushing rod (505) is slidably sleeved on the lifting column (502), and the outside of the pushing rod (505) is provided with a rubber coating; the pushing rod (505) is used to push the culture medium to penetrate into the smear sponge (504); and six pulling magnets (506) are fixedly mounted on the lifting plate (501).

8. The medical test microorganism cultivation device according to claim 4, characterized in that: The suction connection piece (6) comprises: a docking ring (601) and a connection tube (602); the docking ring (601) is rotatably connected to the placement slot block (303) via a hinge; a connection tube (602) is fixedly mounted on the side of the docking ring (601); the connection tube (602) at the top is used to fit the docking air guide tube (103); and the docking ring (601) at the top is attached to the inner side of the incubator body (101).

9. A medical test microorganism cultivation device according to claim 8, characterized in that: The microscope docking piece (7) comprises: a magnet ring (701), a corrugated sheet (702), a docking tube (703) and a sleeve ring (704); the docking ring (601) is sleeved with the magnet ring (701); the magnet ring (701) magnetically attracts the docking ring (601); the corrugated sheet (702) is fixedly mounted on the inner side of the magnet ring (701); the corrugated sheet (702) is sleeved with the docking tube (703), and the sleeve ring (704) is fixedly mounted on the inner side of the docking tube (703); and the sleeve ring (704) is used for sleeved with a microscope lens.

10. The medical test microorganism cultivation device according to claim 9, characterized in that: The microscope docking member (7) further comprises: a lower baffle (705), a rotating shaft (706) and a torsion spring (707); the bottom of the docking tube (703) is fixedly mounted with the rotating shaft (706), and the lower baffle (705) is rotatably mounted on the rotating shaft (706); the rotating shaft (706) is sleeved with a torsion spring (707); both ends of the torsion spring (707) are connected between the lower baffle (705) and the rotating shaft (706); and the lower baffle (705) is used to shield the docking tube (703).

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