CN115505504A - Sample culture tool for gene detection - Google Patents

Abstract

The invention provides a sample cultivation tool for gene detection, which includes a mounting shell, five sets of mounting columns and a set of transmission motors are fixed on the mounting shell, driven synchronous wheels are arranged on the five sets of mounting columns, and the transmission The output shaft of the motor is equipped with an active synchronous wheel, which is connected with five sets of driven synchronous wheels through a synchronous belt. There are multiple sets of mounting brackets on the outside of the synchronous belt. Inside the mounting frame is a rotating and connected flip ring. There is a detachable culture vessel inside, and an overturning assembly is provided on one side of the installation shell, and the overturning assembly is connected with one set of overturning rings. There is a cleaning frame in the installation shell, a cleaning assembly in the cleaning frame, and a The cover is provided with a support platform in the installed shell, and the bottom surface of a group of culture vessels is in contact with the upper surface of the support platform. The culture tool makes sample culture more convenient, and can quickly clean and dry the culture vessels to be used, so as to prevent the culture work from being affected by external impurities.

Description

Sample Culture Tools for Genetic Testing

technical field

The invention belongs to the technical field of gene detection, and more specifically relates to a sample culture tool for gene detection.

Background technique

Genetic testing is a very important means of detection in recent years. The determinant of all human behavior is the structure and function of the DNA in the body that determines the life of the body. If there is a problem with the genetic material, various diseases will be formed. Accurate genetic testing of genetic material is very helpful in discovering diseases and intervening in the treatment of diseases. After sampling for genetic testing, if the sample cannot be tested immediately, it needs to be stored with a sample culture device.

For example, the Chinese patent No. 201922049582.3 provides a sample culture device for genetic testing. Through the settings of thermometers, fan chambers and fan blades, the internal temperature of the device can be kept constant, effectively avoiding sample damage due to temperature changes. The occurrence of the situation, and the damage of the sample due to the invasion of the sample by bacteria can be avoided. However, the existing sample culture tools are inconvenient to quickly clean and dry the culture vessels that need to be used, which leads to certain inconvenience during the culture process of the samples.

Contents of the invention

In order to solve the above technical problems, the present invention provides a sample culture tool for genetic testing to solve the problem that in the prior art, common sample culture tools are inconvenient to quickly clean and dry the culture vessels that need to be used, resulting in the There are certain inconvenient technical problems in the process of cultivation.

The purpose and effect of a sample culture tool for gene detection of the present invention are achieved by the following specific technical means:

A sample cultivation tool for gene detection, including a mounting shell, five sets of mounting columns and a set of transmission motors are fixedly arranged on the mounting shell, and rotatable driven synchronous The output shaft of the transmission motor is provided with an active synchronous wheel, and the active synchronous wheel is connected with five sets of the driven synchronous wheels through a synchronous belt, and multiple sets of detachable mounting brackets are provided on the outer side of the synchronous belt , the installation frame is provided with a rotation-connected flip ring, and the flip ring is provided with a detachable culture vessel, and one side of the installation shell is provided with a flip assembly, and the flip assembly and one of the flip Ring connection, the installation shell is provided with a cleaning frame, the cleaning frame is provided with a cleaning assembly, the installation shell is provided with a support platform, and the bottom surface of a group of culture vessels is in contact with the upper surface of the support platform .

As a further solution of the present invention, multiple sets of connection blocks are fixedly arranged on the outside of the synchronous belt, the connection blocks are made of rubber, one side of the connection block is provided with a first connection plate, and one side of the installation frame A second connecting plate is provided, and the first connecting plate and the second connecting plate are connected by bolts.

As a further solution of the present invention, a connecting seat is provided on the inner side of the mounting frame, and a connecting column is provided on one side of the flip ring, and the connecting column is rotatably clamped in the connecting seat, and the inner side of the mounting frame Two groups of first magnetic balls are provided, and two groups of second magnetic balls are provided on the outer side of the flip ring, and the two groups of second magnetic balls are in contact with the two groups of first magnetic balls respectively.

As a further solution of the present invention, two sets of threaded holes are provided on the flip ring, and top wires are pierced in the two sets of threaded holes, and two sets of fixed concave holes are provided on the outer circular surface of the culture vessel. One end of the top wire in one group is respectively set in the fixed concave holes in the two groups; a limiting ring is arranged on the culture vessel, two sets of positioning ribs are arranged on the outer circular surface of the culture vessel, and two sets of positioning ribs are arranged on the turning ring There are two sets of positioning grooves inside, and the two sets of positioning ribs are respectively clamped in the two sets of positioning grooves.

As a further solution of the present invention, the turning assembly includes a turning motor, the turning motor is fixedly arranged in the connection shell on one side of the installation shell, the output shaft of the turning motor is provided with a connecting plate, and the connecting plate The rotatable card is arranged on one side of the connecting shell, a card slot is opened on one side of the connecting plate, and a card block connected through the installation shaft is provided on one side of the flip ring, and one set of the card The block is set in the slot, and the four corners of the block are all provided with chamfered angles.

As a further solution of the present invention, a rotatable guide wheel is sleeved on the installation shaft, a guide rail is provided on the inner side of the installation shell, multiple sets of the guide wheels are clamped in the guide rail, and the inside of the guide rail is provided with a There is an annular groove, and multiple groups of the clamping blocks are arranged in the annular groove.

As a further solution of the present invention, the cleaning assembly includes a pump fixed on one side of the installation shell, the input end of the pump is provided with a water supply pipe, and the output end of the pump is provided with a water spray head , the water spray head is set in the cleaning frame, both sides of the cleaning frame are provided with external and internal air guide grooves that are inclined upwards, and two groups of the cleaning frame are equipped with hot air blowers. The air outlet of the hot air blower communicates with the air guide groove; the bottom of the installation shell is provided with multiple groups of drain grooves, the bottom of the cleaning frame is provided with a drain outlet, and the bottom of the installation shell is provided with a detachable water collection shell, so One end of the water collecting shell is provided with a drainage pipe.

As a further solution of the present invention, an operation frame is provided on one side of the installation case, a cover is provided on the installation case, and an observation window of transparent material is provided on the cover; An L-shaped baffle connected by a connecting shaft, a placing frame is arranged inside the blocking cover, multiple sets of culture covers are arranged on one side of the partition in the placing frame, and a heater is arranged on the other side of the partition in the placing frame , the placement frame is provided with a hinged cover plate.

Compared with the prior art, the present invention has the following beneficial effects:

1. When the training tool is in use, it can drive the active synchronous wheel to rotate through the transmission motor, and then drive the synchronous belt to move through the cooperation with five sets of driven synchronous wheels, so that multiple sets of connecting blocks on the synchronous belt move along the synchronous belt and connect During the movement of the block, the mounting frame, the turning ring and the culture vessel are driven to move simultaneously. And one end of the turning ring is supported by the guide wheels and guide rails during the movement process and will not be tilted due to gravity, so that multiple groups of culture vessels can be quickly moved into the operation frame one by one, which is convenient for the staff to carry out sample cultivation work. Moreover, the culture vessel after adding the sample is put away in the installation frame, and the sample culture can be carried out in a safe environment, which makes the work of culturing the genetic testing sample more convenient.

2. The culture vessel can be cleaned before or after use. When cleaning, the drive motor is also controlled to drive the installation frame, the flip ring and the culture vessel to move along the timing belt at the same time until the culture vessel to be cleaned moves to the top of the cleaning frame. At this time, a corresponding set of clamping blocks on one side of the flipping ring is set into the slot on one side of the connecting plate, and then the turning motor is controlled to start to drive the flipping ring to flip along the connecting column, so that the opening of the culture vessel is downward. Then control the pump to extract the cleaning liquid and spray the cleaning liquid through the water spray head to rinse the inside of the culture vessel. After the washing is completed, control the hot air blower to start blowing out hot air, and the hot air is blown out obliquely through the air guide groove to dry the culture vessel. , and finally control the turning motor to start to drive the turning ring to turn over again, which is convenient for the subsequent sample cultivation work, and the cleaning is convenient and fast, so as to avoid the influence of external impurities in the cultivation work.

Description of drawings

Fig. 1 is a schematic structural diagram of an assembled sample culture tool for gene detection according to the present invention.

Fig. 2 is a disassembled structure diagram of a sample culture tool for gene detection in the present invention.

Fig. 3 is a schematic diagram of the internal structure of a sample culture tool for gene detection according to the present invention.

Fig. 4 is a schematic structural view of a housing installed in a sample culture tool for gene detection according to the present invention.

Fig. 5 is a schematic diagram of the connection structure between the mounting frame and the flip ring in a sample culture tool for gene detection according to the present invention.

FIG. 6 is a schematic diagram of the disassembled structure of FIG. 5 .

Fig. 7 is a schematic structural diagram of an inversion ring in a sample cultivation tool for gene detection according to the present invention.

FIG. 8 is an enlarged schematic view of area a in FIG. 2 .

FIG. 9 is an enlarged schematic view of area b in FIG. 3 .

In the figure, the corresponding relationship between component names and drawing numbers is:

101, installation shell; 102, drainage groove; 103, operation frame; 104, annular groove; 105, guide rail; 106, installation column; 107, connection shell; 108, cleaning frame; 201, pump; 202, water supply pipe; 203, sprinkler head; 204, water collection shell; 205, drainage pipe; 206, support platform; 301, cover; 302, placement frame; 303, cultivation cover; 304, heating 305, cover plate; 306, connecting shaft; 307, L-shaped baffle; 308, observation window; 401, driven synchronous wheel; 402, transmission motor; 403, active synchronous wheel; 405, synchronous belt; 406, heat Fan; 407, connecting block; 408, first connecting plate; 501, mounting frame; 502, second connecting plate; 503, connecting seat; 504, first magnetic ball; , the second magnetic suction ball; 604, the positioning groove; 605, the threaded hole; 606, the installation shaft; 607, the block; 608, the guide wheel; 701, the turning motor; Vessel; 802, limit ring; 803, positioning convex rib; 804, top wire; 805, fixing concave hole.

detailed description

Embodiments of the present invention will be further described in detail below in conjunction with the accompanying drawings and examples. The following examples are used to illustrate the technical solutions of the present invention, but cannot be used to limit the protection scope of the present invention.

Example:

As shown in Figures 1 to 5, the present invention provides a sample culture tool for genetic testing, including an installation shell 101, on which five sets of mounting columns 106 and a set of transmission motors 402 are fixedly arranged, five The group installation columns 106 are provided with rotatable driven synchronous wheels 401, the output shaft of the transmission motor 402 is provided with active synchronous wheels 403, and the active synchronous wheels 403 and five groups of driven synchronous wheels 401 are connected through synchronous belts 405, synchronously Multiple groups of detachable mounting brackets 501 are provided on the outside of the belt 405 .

When the sample cultivation tool is in use, the drive motor 402 can drive the active synchronous wheel 403 to rotate, thereby driving the synchronous belt 405 to move through the cooperation of the active synchronous wheel 403 and five sets of driven synchronous wheels 401, and the single rotation of the drive motor 402 The distance to control the movement of the synchronous belt 405 is the distance between the centers of two adjacent sets of mounting frames 501 , so that each rotation of the drive motor 402 can move the mounting frames 501 by the same distance and coincide with the position of the previous set of mounting frames 501 . The rotation control of the transmission motor 402 is a technical means commonly used by those skilled in the related art, and will not be described in detail in this embodiment.

The installation frame 501 is provided with a turning ring 601 connected by rotation, and a detachable culture vessel 801 is arranged in the turning ring 601. One side of the installation shell 101 is provided with a turning assembly, and the turning assembly is connected with one set of turning rings 601. 101 is provided with a cleaning frame 108, a cleaning assembly is provided in the cleaning frame 108, and a support platform 206 is provided in the installed shell 101, and the bottom surface of a group of culture vessels 801 is in contact with the upper surface of the support platform 206.

When it is necessary to clean a certain group of culture vessels 801, the corresponding installation frame 501 can be moved to one end of the installation shell 101, which is the position above the cleaning frame 108, and then the inversion ring 601 is turned over by the inverting component to make the culture vessel With the opening of 801 facing downwards, the culture vessel 801 can be quickly cleaned and dried through the cleaning component, so as to prevent impurities in the culture vessel 801 from affecting the sample cultivation work. After the cleaning is completed, the inverting ring 601 is controlled to be inverted again by the inverting component, which is convenient for the subsequent use of the culture vessel 801 . The support platform 206 is provided to support the culture vessel 801 at one end of the installation shell 101, preventing the culture vessel 801 from tilting when adding samples.

As shown in Figure 6, the outer side of the synchronous belt 405 is fixedly provided with multiple groups of connecting blocks 407, the connecting blocks 407 are made of rubber, one side of the connecting blocks 407 is provided with a first connecting plate 408, and one side of the mounting frame 501 is provided with a second connecting plate 408. Two connecting plates 502, the first connecting plate 408 and the second connecting plate 502 are connected by bolts. The connecting block 407 made of rubber is connected to the synchronous belt 405 , and the connecting block 407 can be deformed at the corner of the synchronous belt 405 to adapt to the movement of the synchronous belt 405 . Moreover, the mounting frame 501 is set to be detachably connected, so that it is convenient to replace it after it is damaged.

As shown in Figures 5 and 7, a connecting seat 503 is provided on the inside of the mounting frame 501, and a connecting column 602 is provided on one side of the flip ring 601. Two sets of first magnetic balls 504 are provided, two sets of second magnetic balls 603 are provided on the outer side of the flip ring 601 , and the two groups of second magnetic balls 603 contact with two groups of first magnetic balls 504 respectively.

The flipping ring 601 can rotate along the connecting column 602 under the action of the flipping assembly, and there is a certain gap between the flipping ring 601 and the inner side of the mounting frame 501 to avoid interference with the movement of the flipping ring 601 and the culture vessel 801 . The anode of the first magnetic suction ball 504 corresponds to the cathode of the second magnetic suction ball 603, which facilitates simple alignment of the position of the flip ring 601 during the rotation of the flip ring 601, so that the flip ring 601 is always in a horizontal state. It is not easy to move relative to the mounting frame 501 without external force, which improves the stability of the internal structure of the sample culturing tool.

As shown in Figures 5 to 7, two sets of threaded holes 605 are provided on the turning ring 601, and top wires 804 are pierced in the two sets of threaded holes 605, and two sets of fixing concave holes 805 are provided on the outer surface of the culture vessel 801. One end of the two sets of top wires 804 is respectively set in two sets of fixed concave holes 805; the culture vessel 801 is provided with a limiting ring 802, and the outer circular surface of the culture vessel 801 is provided with two sets of positioning convex ribs 803, and the inside of the turning ring 601 Two sets of positioning grooves 604 are provided, and two sets of positioning ribs 803 are respectively clamped in the two sets of positioning grooves 604 .

The culture vessel 801 is fixedly installed in the turning ring 601 through two sets of top wires 804. When the culture vessel 801 is damaged, the culture vessel 801 can be replaced by loosening the top wires 804. During the replacement process, when the culture vessel 801 is placed, the position of the culture vessel 801 can be aligned through the cooperation of two sets of positioning ribs 803 and two sets of positioning grooves 604, so that the crossbar of the fixing concave hole 805 can quickly align with the threaded hole 605. Alignment facilitates the installation of the top wire 804.

As shown in Figures 5, 6, 7, and 9, the turning assembly includes a turning motor 701. The turning motor 701 is fixedly arranged in the connection shell 107 on one side of the installation shell 101. The output shaft of the turning motor 701 is provided with a connection plate 702, which is connected to The disc 702 is rotatably clamped on one side of the connecting shell 107, and one side of the connecting disc 702 is provided with a card slot 703, and one side of the turning ring 601 is provided with a clamping block 607 connected by the installation shaft 606, and one set of clamping The block 607 is fixed in the slot 703, and the four corners of the block 607 are provided with chamfered corners.

When the culture vessel 801 that needs to be cleaned moves to the top of the cleaning frame 108, the block 607 moves into the slot 703, and the turning motor 701 can be started to drive the connecting plate 702 to rotate 180°, thereby passing the block 607 and the slot The cooperation of 703 drives the turning ring 601 to rotate 180°, so that the opening of the culture vessel 801 is downward, and the culture vessel 801 can be quickly cleaned and dried by the cleaning component. The four corners of the clamping block 607 are provided with chamfered angles to facilitate its fast clamping into the clamping slot 703 to avoid misalignment and collision with the clamping slot 703 . A single rotation of the turning motor 701 only controls the rotation of the connection plate 702 by 180°, and the rotation control method is a common method in the prior art, and will not be repeated in this embodiment.

As shown in Figures 5 and 9, a rotatable guide wheel 608 is sheathed on the installation shaft 606, and a guide rail 105 is provided on the inside of the installation shell 101, and a plurality of sets of guide wheels 608 are clamped in the guide rail 105, and an annular ring is provided on the inside of the guide rail 105. In the slot 104 , multiple sets of clamping blocks 607 are set in the annular slot 104 . One end of the turning ring 601 is supported by the cooperation of the guide wheel 608 and the guide rail 105 , thereby preventing the turning ring 601 and the installation frame 501 from tilting under the action of their own gravity and causing damage to the connecting block 407 . The annular groove 104 is provided to provide space for the movement of the block 607, and at the same time prevents the inversion ring 601 that does not need to be overturned from automatically inverting during the movement, further improving the stability of the internal structure of the cultivating tool.

As shown in Figures 2, 3, 4 and 8, the cleaning assembly includes a pump 201 fixedly arranged on one side of the installation shell 101, the input end of the pump 201 is provided with a water supply pipe 202, and the output end of the pump 201 is provided with a spray Water head 203, water spray head 203 is arranged in cleaning frame 108, and the both sides of cleaning frame 108 all offer the wind-guiding groove 110 that offers outside and interior obliquely upwards, and two groups of cleaning frame 108 are all provided with hot blower 406, heat The air outlet of the blower fan 406 is communicated with the air guide groove 110; the bottom of the installation shell 101 is provided with multiple groups of drainage grooves 102, the bottom of the cleaning frame 108 is provided with a drain outlet 109, and the bottom of the installation shell 101 is provided with a detachable water collection shell 204 for water collection. One end of the case 204 is provided with a drain pipe 205 .

The water supply pipe 202 can be connected to the cleaning liquid water source, and a group of culture vessels 801 to be cleaned can be moved to the top of the cleaning frame 108 and turned over, and the cleaning liquid can be extracted by the pump 201 and then sprayed out through the water spray head 203 The inner wall of the culture vessel 801 is cleaned. After the cleaning is completed, the hot air can be blown out from the air guide groove 110 by controlling the hot air blower 406 to start, and the air guide groove 110 is used to control the oblique upward flow of hot air, so that the hot air can better contact the culture vessel 801, thereby protecting the culture vessel. 801 for quick drying. The water in the cleaning process flows into the water collecting case 204 through the drain groove 102 and the drain port 109 and is discharged through the drain pipe 205, so as to prevent the excessive water accumulation in the installation case 101 from affecting the normal use of the sample culturing tool.

As shown in Figures 1 and 2, an operation frame 103 is provided on one side of the installation case 101, a cover 301 is provided on the installation case 101, and an observation window 308 of transparent material is provided on the cover 301; The L-shaped baffle plate 307 connected by the connecting shaft 306, the baffle 301 is provided with a placement frame 302, one side of the inner partition of the placement frame 302 is provided with multiple sets of culture covers 303, and the other side of the inner partition of the placement frame 302 is provided with a heating The container 304 is provided with a hinged cover plate 305 on the placing frame 302 .

The operation frame 103 is set up to facilitate placing the sample in the culture vessel 801 for cultivation, and the cover 301 is provided to block the opening of the installation case 101 to prevent external impurities from entering the installation case 101 and affecting the normal use of the sample cultivation tool. The cleanliness of the culture vessel 801 can be observed through the observation window 308, so that the cleaning process can be completed in time, and the waste of water resources can be reduced as much as possible under the premise of ensuring the cleaning effect. When no operation is required, the L-shaped baffle 307 can be rotated and closed along the connecting shaft 306 to shield the operation frame 103 and prevent foreign objects from entering the sample culture tool. The placement frame 302 is used to place the culture cover 303 and the heater 304. The culture cover 303 is used to shield the culture vessel 801. The heater 304 can heat the inside of the sample culture tool to a suitable temperature when the temperature is low, so as to avoid The temperature is too low to inactivate the sample.

The specific usage and function of this embodiment:

The training tool can drive the driving synchronous wheel 403 to rotate through the transmission motor 402 when in use, and then drive the synchronous belt 405 to move through the cooperation with five groups of driven synchronous wheels 401, so that the multiple groups of connecting blocks 407 on the synchronous belt 405 move along the synchronous belt. 405 moves, and the connecting block 407 drives the installation frame 501, the turning ring 601 and the culture vessel 801 to move simultaneously during the movement. And during the movement, one end of the turning ring 601 is supported by the guide wheel 608 and the guide rail 105 without tilting due to gravity, so that multiple groups of culture vessels 801 can be quickly moved into the operation frame 103 in turn, which is convenient for the staff to carry out Sample cultivation work. And the culture vessel 801 after adding the sample is put away into the installation frame, and the sample culture can be carried out in a safe environment, which makes the work of culturing the genetic testing sample more convenient.

The culture vessel 801 can be cleaned before or after use. When cleaning, the drive motor 402 is also controlled to drive the installation frame 501, the flip ring 601 and the culture vessel 801 to move along the timing belt 405 at the same time until the culture vessel 801 to be cleaned moves. To the top of the cleaning frame 108, the block 607 on one side of the corresponding set of flip ring 601 is stuck into the slot 703 on the side of the connection plate 702, and then the flip ring 601 is driven along the connecting column by controlling the flip motor 701 to start 602 is overturned so that the opening of the culture vessel 801 is downward. Then control the pump 201 to extract the cleaning solution and spray the cleaning solution through the water spray head 203 to rinse the inside of the culture vessel 801, and then control the hot air blower 406 to start blowing hot air after the washing is completed, and the hot air is blown out obliquely upward through the air guide groove 110 to cultivate The container 801 is dried, and finally the turning motor 701 is controlled to start to drive the turning ring 601 to turn over again, which is convenient for the subsequent sample cultivation work, and the cleaning is convenient and quick, avoiding the influence of external impurities during the cultivation work.

Having shown and described the basic principles and main features and advantages of the invention above, it will be obvious to a person skilled in the art that the invention is not limited to the details of the exemplary embodiments described above.

Claims (8)

1. The sample culture tool for gene detection is characterized in that: it includes an installation shell (101), and the installation shell (101) is fixedly provided with five sets of installation columns (106) and one set of drive motors (402), The five sets of mounting posts (106) are provided with rotatable driven synchronous wheels (401), the output shaft of the transmission motor (402) is provided with active synchronous wheels (403), and the active synchronous wheels (403 ) is connected with the five groups of driven synchronous wheels (401) through a synchronous belt (405), and the outside of the synchronous belt (405) is provided with multiple groups of detachable mounting brackets (501), and the mounting brackets (501 ) is provided with an inverting ring (601) connected by rotation, and a detachable culture vessel (801) is arranged in the inverting ring (601), and an inverting assembly is provided on one side of the installation shell (101), and the inverting The component is connected with one set of the turning rings (601), the installation shell (101) is provided with a cleaning frame (108), the cleaning frame (108) is provided with a cleaning component, and the installation shell (101) is A support platform (206) is provided, wherein the bottom surface of a set of culture vessels (801) is in contact with the upper surface of the support platform (206). 2. The sample cultivation tool for gene detection according to claim 1, characterized in that: the outside of the timing belt (405) is fixedly provided with multiple groups of connecting blocks (407), and the connecting blocks (407) are rubber material, one side of the connecting block (407) is provided with a first connecting plate (408), one side of the mounting frame (501) is provided with a second connecting plate (502), and the first connecting plate ( 408) and the second connecting plate (502) are connected by bolts. 3. The sample cultivation tool for genetic detection according to claim 1, characterized in that: a connection seat (503) is provided inside the mounting frame (501), and a connection seat (503) is provided on one side of the flip ring (601). A connecting column (602), the connecting column (602) is rotatably clamped in the connecting seat (503), and two sets of first magnetic suction balls (504) are arranged inside the mounting frame (501), so that Two groups of second magnetic suction balls (603) are arranged on the outer side of the turning ring (601), and the two groups of second magnetic suction balls (603) are respectively in contact with two groups of the first magnetic suction balls (504). 4. The sample cultivation tool for genetic detection according to claim 1, characterized in that: two groups of threaded holes (605) are provided on the flip ring (601), and two groups of threaded holes (605) Both sets of top wires (804) are pierced, and two sets of fixed concave holes (805) are opened on the outer surface of the culture vessel (801). inside the fixed concave hole (805); the culture vessel (801) is provided with a limiting ring (802), and the outer circular surface of the culture vessel (801) is provided with two sets of positioning ribs (803); Two sets of positioning grooves (604) are opened in the ring (601), and the two sets of positioning ribs (803) are respectively clamped in the two sets of positioning grooves (604). 5. The sample culture tool for genetic testing according to claim 1, characterized in that: the turning assembly includes a turning motor (701), and the turning motor (701) is fixedly arranged on the installation shell (101 ) side of the connecting shell (107), the output shaft of the flip motor (701) is provided with a connecting plate (702), and the connecting plate (702) is rotatably clamped on the connecting shell (107) On one side, a card slot (703) is provided on one side of the connecting plate (702), and a card block (607) connected through an installation shaft (606) is provided on one side of the flip ring (601), one of which The clamping block (607) is clamped in the clamping slot (703), and the four corners of the clamping block (607) are provided with chamfered corners. 6. The sample cultivation tool for genetic detection according to claim 5, characterized in that: said installation shaft (606) is sleeved with a rotatable guide wheel (608), and said installation shell (101) The inner side is provided with a guide rail (105), and multiple sets of the guide wheels (608) are clamped in the guide rail (105), and the inner side of the guide rail (105) is provided with an annular groove (104), and multiple sets of the clamping blocks ( 607) is disposed in said annular groove (104). 7. The sample culture tool for genetic detection according to claim 1, characterized in that: the cleaning assembly includes a pump (201) fixedly arranged on one side of the installation shell (101), and the pump The input end of the pump (201) is provided with a water supply pipe (202), and the output end of the pump (201) is provided with a water spray head (203), and the water spray head (203) is arranged on the cleaning frame (108 ), both sides of the cleaning frame (108) are provided with external and internal air guide grooves (110) that are set up obliquely upwards, and two groups of the cleaning frame (108) are provided with hot air blowers (406), so The air outlet of the hot air blower (406) communicates with the air guide groove (110); the bottom of the installation shell (101) is provided with multiple sets of drainage grooves (102), and the bottom of the cleaning frame (108) is provided with a drainage port (109), a detachable water collection case (204) is provided at the bottom of the installation case (101), and a drainage pipe (205) is provided at one end of the water collection case (204). 8. The sample cultivation tool for gene detection according to claim 1, characterized in that: an operation frame (103) is provided on one side of the installation shell (101), and an operation frame (103) is provided on the installation shell (101). Cover (301), the cover (301) is provided with an observation window (308) made of transparent material; the installation shell (101) is provided with an L-shaped baffle (307) connected by a connecting shaft (306) ), said retaining cover (301) is provided with placement frame (302), and one side of said placement frame (302) inner partition is provided with multiple groups of culture covers (303), said placement frame (302) inner partition A heater (304) is arranged on the other side, and a hinged cover plate (305) is arranged on the placing frame (302).

Images