Microbial Slide Drying Equipment and Drying Method

Abstract

The present invention discloses a microbial slide drying device and a drying method, which includes a box body. A receiving groove is formed inside the box body. A partition is provided in the receiving groove. A drying area is formed between the partition and the bottom of the receiving groove, and a cooling area is formed between the partition and the top of the receiving groove. A slide fixing rack and a drying mechanism are provided in the drying area. The drying mechanism faces the slide fixing rack, and a plurality of slide grooves are formed on the slide fixing rack. A lifting mechanism is provided in the drying area. A through groove is opened on the partition. The lifting mechanism is connected to the slide fixing rack, and the slide fixing rack can move along the axial direction of the through groove. A through groove is opened on the partition, and the through groove conducts the drying area and the cooling area. A cooling mechanism is provided in the cooling area, and the cooling mechanism faces the through groove. The present invention can achieve rapid drying of slides, improve experimental efficiency, and reduce the input of labor costs.

Description

Technical Field

[0001] The present invention belongs to the technical field of slide drying, and particularly relates to a microorganism slide drying device and a drying method. Background Art

[0002] A slide is a fragile transparent thin sheet used for observing cells under a microscope. Existing slides are generally divided into glass slides and cover glasses. When preparing a glass slide, first smear is carried out. After the smear is completed, staining is carried out. After the staining is completed, rinsing is carried out to wash away the excess staining agent. After the rinsing is completed, water will remain on the glass slide. If the glass slide is directly placed under the microscope for observation, it will affect the observation result. The glass slide needs to be dried to remove the remaining water on the glass slide before it can be placed under the microscope for observation.

[0003] Traditional slide drying methods mainly include artificial drying in the sun, natural air drying, drying with a hair dryer, drying with an alcohol lamp, etc. When using the above drying methods, a large amount of labor costs are required during the drying process. Moreover, the time-consuming of artificial drying in the sun and natural air drying is very long, which is not suitable for the situation where a sample report needs to be issued quickly. It is difficult to judge when drying with a hair dryer and an alcohol lamp, and there is a situation where the operator's hand is scalded. Summary of the Invention

[0004] The purpose of the present invention is to provide a microorganism slide drying device and a drying method, which can achieve rapid drying of slides, improve experimental efficiency, and reduce the input of labor costs.

[0005] The above purpose is achieved by the following technical solutions.

[0006] The present invention provides a microorganism slide drying device, including a box body. An accommodation groove is formed in the box body. A partition is provided in the accommodation groove. A drying area is formed between the partition and the bottom of the accommodation groove. A cooling area is formed between the partition and the top of the accommodation groove;

[0007] A slide fixing rack and a drying mechanism are provided in the drying area. The drying mechanism faces the slide fixing rack. A plurality of slide grooves are formed on the slide fixing rack;

[0008] A lifting mechanism is provided in the drying area. A through groove is opened on the partition. The lifting mechanism is connected to the slide fixing rack. The slide fixing rack can move along the axial direction of the through groove. A through groove is opened on the partition. The through groove communicates the drying area and the cooling area. A cooling mechanism is provided in the cooling area. The cooling mechanism faces the through groove.

[0009] In some of these embodiments, the lifting mechanism includes an electric push rod. The bottom end of the electric push rod is fixedly arranged within the drying area. A slider is provided at the top end of the electric push rod, and the slider is connected to the glass slide fixing member. In the drying area, there are two oppositely arranged guide rails. The slider is sleeved on the guide rail, and the slider is in sliding fit with the guide rail.

[0010] In some of these embodiments, a drying box is arranged within the drying area. The top plate of the drying box is the partition plate. On two oppositely arranged inner walls of the drying box, there are the guide rails. On both sides of the glass slide fixing frame, there are the sliders. The glass slide fixing frame forms a first state or a second state in sliding fit with the through groove, and the slider forms a first position and a second position in sliding fit with the guide rail;

[0011] In the first state, the electric push rod operates to drive the slider to displace from the first position to the second position, and the glass slide fixing frame moves axially along the through groove to enter the cooling area from the drying area, forming a cooling state;

[0012] In the second state, the electric push rod resets to drive the slider to return from the second position to the first position, and the glass slide fixing frame moves axially along the through groove to return to the drying area from the cooling area, forming a drying state.

[0013] In some of these embodiments, the glass slide fixing frame includes two oppositely arranged first vertical plates. An installation area is formed between the two first vertical plates. In the installation area, there are a plurality of first horizontal plates arranged at intervals. Both ends of the first horizontal plate are connected to the first vertical plate. A plurality of glass slide grooves are formed in the first horizontal plate. The lifting mechanism is arranged on the first vertical plate, and the drying mechanism is arranged on any side of the glass slide fixing frame.

[0014] In some of these embodiments, a gap is formed between every two of the first horizontal plates. The drying mechanism includes a first electric heating plate. The first electric heating plate is horizontally arranged within the installation area, and the first electric heating plate is located within the gap and faces the first horizontal plate.

[0015] In some of these embodiments, a cavity is formed between the bottom of the drying box and the bottom of the box body. The drying mechanism further includes a blower and a heating box. The heating wire and the blower are both arranged within the cavity. At least one second electric heating plate is arranged within the heating box. A reversing valve is connected to the air outlet of the blower, and the reversing valve is connected to the air inlet end of the heating box. The air outlet end of the first air duct is at least partially extended into the drying box.

[0016] In some of these embodiments, at least one first air outlet pipe is provided inside the drying box. The air inlet end of the first air outlet pipe is connected to the air outlet end of the first air guiding pipe. The first air outlet pipe is located at the side of the first electric heating sheet, and a plurality of first air outlet holes are formed in the outer wall of the first air outlet pipe, and the first air outlet holes face the first electric heating sheet.

[0017] In some of these embodiments, the cooling mechanism includes a cooling rack provided in the area. The cooling rack is fixedly provided on the partition board. A plurality of second air outlet pipes are arranged at intervals on the cooling rack. A plurality of second air outlet holes are provided on the second air outlet pipes, and the air inlet end of the second air outlet pipe is connected to the reversing valve.

[0018] In some of these embodiments, an ultraviolet germicidal lamp is provided on a part of any one of the tank walls of the accommodation groove located in the cooling area, and the ultraviolet germicidal lamp faces the through groove. A sponge strip is provided on the partition board at the peripheral wall position of the through groove. The sponge strip is annular. A liquid storage tank is provided on the partition board. A liquid guiding pipe is connected to the liquid outlet of the liquid storage tank. A liquid distributing pipe is connected to the liquid outlet of the liquid guiding pipe. A plurality of liquid distributing ports are formed in the liquid distributing pipe, and the liquid distributing pipe is located at a position close to the sponge strip, or the liquid distributing pipe presses against the sponge strip, and the liquid distributing ports face the sponge strip.

[0019] The present invention also provides a method for drying microbial slides.

[0020] The lifting mechanism operates to drive the slide fixing frame from the drying area into the cooling area, and the slide to be dried is placed in the slide groove on the slide fixing frame.

[0021] The lifting mechanism operates to drive the slide fixing frame back from the cooling area into the drying area, and the drying mechanism operates to heat the drying area to dry the slide in the slide groove.

[0022] After the drying treatment, the lifting mechanism operates to send the slide fixing frame from the drying area into the cooling area again, and the cooling mechanism in the cooling area operates to cool the slide after high-temperature drying.

[0023] The microbial slide drying equipment and drying method provided by the present invention form an accommodation groove in the box body, and a partition board is arranged in the accommodation groove to divide the accommodation groove into a drying area and a cooling area. The drying area and

[0024] The cooling area is connected through a through groove on the partition plate. A drying mechanism for drying the glass slides placed in the glass slide grooves of the glass slide fixing rack is arranged in the drying area, and a lifting mechanism for driving the glass slide fixing rack to lift is provided, so that the glass slide fixing rack can be located in the drying area or in the cooling area. A cooling mechanism for cooling the glass slides placed in the glass slide grooves of the glass slide fixing rack is arranged in the cooling area; 0 During use, the lifting mechanism is used to drive the glass slide fixing rack to enter the cooling area from the drying area through the through groove.

[0025] After the glass slides that need to be dried after staining and rinsing are placed in the glass slide grooves, the lifting mechanism drives the glass slide fixing rack back to the drying area, and the drying mechanism in the drying area operates to dry the glass slides in the glass slide grooves (the drying mechanism can preheat the drying area before drying to improve the drying efficiency).

[0026] After the drying process, the lifting mechanism operates again to send the glass slide fixing rack into the cooling area again. After the cooling device in the cooling area cools the glass slides in the glass slide grooves, the glass slides can be taken out for use, avoiding the situation that the operator is scalded by the glass slides after high - temperature treatment. Compared with the traditional drying method, the present invention can realize the rapid drying of glass slides, improve the experimental efficiency, and reduce the input of labor costs.

[0027] Description of the Drawings

[0028] Figure 1 is the structural schematic diagram of the present invention;

[0029] Figure 2 is the exploded schematic Figure 1 ;

[0030] Figure 3 is the exploded schematic Figure 2 ;

[0031] Figure 4 is the partial schematic diagram of the glass slide fixing rack of the present invention;

[0032] Figure 5 is the schematic diagram of the heating box of the present invention.

[0033] Description of the Reference Numerals:

[0034] 100, box body; 101, accommodating groove; 102, partition plate; 1021, through groove; 103, drying box; 1031, spacer; 104, cavity; 105, integrated circuit board; 106, air inlet hole; 108, display screen; 109, control button;

[0035] 201, electric push rod; 202, slider; 203, guide rail;

[0036] 301. First electric heating plate; 302. Blower; 303. Reversing valve; 304. Heating box; 3041. Heat insulation plate; 3042. Heat storage tank; 3043. Second electric heating plate; 305. First air guiding pipe; 306. First air outlet pipe; 3061. First air outlet hole

[0037] 401. Liquid storage tank; 402. Liquid guiding pipe; 403. Sponge strip; 404. Ultraviolet germicidal lamp; 405. Liquid distribution pipe; 406. Liquid distribution port; 407. Guide rod

[0038] 501. Cooling rack; 5011. Second vertical plate; 5012. Second air outlet pipe; 5013. Second air outlet hole; 5014. Second air guiding pipe

[0039] 600. Slide fixing rack; 601. First vertical plate; 602. First horizontal plate; 603. Slide groove

[0040] 700. Power supply; 800. Temperature sensor Specific embodiments

[0041] For ease of understanding the present invention, the specific embodiments of the present invention will be described in more detail below with reference to the accompanying drawings of the specification

[0042] Unless otherwise specified or defined, the "first, second..." used herein is only for differentiating names and does not represent a specific quantity or order

[0043] Unless otherwise specified or defined, the term "and / or" used herein includes any and all combinations of one or more of the related listed items

[0044] It should be noted that "fixed to" and "connected to" herein can be directly fixed or connected to an element, or indirectly fixed or connected to an element

[0045] Reference Figures 1 to 3 , the microbial slide drying device provided in this embodiment includes a box body 100, a receiving groove 101 is formed in the box body 100, a partition 102 is provided in the receiving groove 101, and the partition 102 divides the receiving groove 101 into a drying area for drying the slides and a cooling area for cooling the slides in a high-temperature state after drying

[0046] The drying area is the part between the bottom end of the partition 102 and the bottom of the receiving groove 101, and the cooling area is the part between the top end of the partition 102 and the top of the receiving groove 101. A through groove 1021 is formed in the partition 102, and the drying area and the cooling area are communicated with each other through the through groove 1021

[0047] A drying oven 103 is provided in the drying area. The top of the drying oven 103 is the partition 102. A spacer 1031 is provided at the bottom of the drying oven 103. A cavity 104 is formed between the bottom end of the spacer 1031 and the bottom of the accommodating groove 101. A power supply 700, a heating box 304 and a blower 302 are provided in the cavity 104.

[0048] A glass slide fixing rack 600 is provided inside the drying oven 103 for accommodating and fixing the glass slides to be dried. A lifting mechanism is provided in the drying oven 103. The lifting mechanism is connected to the glass slide fixing rack 600 to drive the glass slide fixing rack 600 to enter and exit the cooling area through the through slot 1021.

[0049] The lifting mechanism includes two oppositely arranged electric push rods 201. The electric push rods 201 are located at the side of the glass slide fixing rack 600. A slider 202 is provided at the end of the electric push rod 201. One end of the slider 202 is fixedly connected to the glass slide fixing rack 600, and the other end is provided with a guide rail 203. The guide rail 203 is fixed on two oppositely arranged inner walls of the drying oven 103. During use, the electric push rod 201 pushes the slider 202 to slide on the guide rail 203, driving the glass slide fixing rack 600 to enter and exit the cooling area through the through slot 1021.

[0050] The glass slide fixing rack 600 and the through slot 1021 are slidably matched to form a first state or a second state. The slider 202 and the guide rail 203 are slidably matched to form a first position and a second position. In the first state, the operation of the electric push rod 201 drives the slider 202 to displace from the first position to the second position, and the glass slide fixing rack 600 moves along the axial direction of the through slot 1021 from the drying area into the cooling area to form a cooling state. In the second state, the reset of the electric push rod 201 drives the slider 202 to return from the second position to the first position, and the glass slide fixing rack 600 moves along the axial direction of the through slot 1021 from the cooling area back to the drying area to form a drying state.

[0051] Combined with Figure 4 , the glass slide fixing rack 600 includes two oppositely arranged first vertical plates 601. An installation area is formed between the two first vertical plates 601. A plurality of spaced first horizontal plates 602 are provided in the installation area. Both ends of the first horizontal plate 602 are connected to one of the first vertical plates 601. A plurality of glass slide grooves 603 are formed in the first horizontal plate 602 for accommodating the glass slides to be dried.

[0052] The first cross plate 602 described in this embodiment is evenly spaced and erected in the installation area, and a gap is formed between every two first cross plates 602.

[0053] A drying mechanism for realizing the drying of glass slides is provided in the drying area. The drying mechanism includes the blower 302 and the heating box 304 provided in the cavity 104, and the first electric heating plate 301 provided in the drying box 103. The air outlet of the blower 302 is connected to a reversing valve 303. The reversing valve 303 is provided on the heating box 304, and the reversing valve 303 is connected to the air inlet end of the heating box 304. A first air duct 305 is connected to the air outlet end of the heating box 304. The air outlet end of the first air duct 305 passes through the spacer 1031 and the end of the drying box 103 and extends into the drying box 103, and a plurality of first air outlet pipes 306 are spacedly distributed and connected to the first air duct 305. A plurality of first air outlet holes 3061 are provided at intervals on the outer wall of the first air outlet pipe 306, and the first air outlet pipe 306 is located in the gap, and the first air outlet holes 3061 face the first cross plate 602.

[0054] During use, the blower 302 operates to suck the air outside the box body 100 and send it into the heating box 304 through the reversing valve 303. The second electric heating plate 3043 in the heating box 304 operates to generate heat, making the inside of the heating box 304 in a high-temperature state. The air forms high-temperature gas in the heating box 304. The high-temperature gas enters the first air outlet pipe 306 through the first air duct 305 and is discharged from the first air outlet holes 3061 on the first air outlet pipe 306 to raise the temperature of the drying area, and cooperate with the first electric heating plate 301 erected in the gap to dry the glass slides placed on the glass slide fixing rack 600 in the drying area.

[0055] The first electric heating plate 301 is erected in the drying box 103, located in the gap, and the first electric heating plate 301 is located between the first air outlet pipe 306 and the first cross plate 602. During use, while the first air outlet pipe 306 conveys hot air into the drying box 103, the hot air blows on the first electric heating plate 301, and blows the heat radiated by the heated first electric heating plate 301 onto the glass slide fixing rack 600, improving the drying efficiency of the glass slides.

[0056] Combined with Figure 5 , the heating box 304 is formed by enclosing a plurality of heat insulation plates 3041, so that a heat storage tank 3042 is formed in the heating box 304. At least one second electric heating plate 3043 is provided in the heat storage tank 3042, and the reversing valve 303 and the first air duct 305 both communicate with the heat storage tank 3042.

[0057] A cooling rack 501 is provided in the cooling area. The cooling rack 501 is fixedly arranged on the partition plate 102, located at the side of the through groove 1021. A plurality of second air outlet pipes 5012 are provided on the cooling rack 501, and a plurality of second air outlet holes 5013 are provided on the second air outlet pipes 5012 for cooling the slide fixing rack 600 entering the cooling area and the slides arranged in the slide grooves 603 of the slide fixing rack 600.

[0058] The cooling rack 501 includes two relatively arranged second vertical plates 5011. A plurality of the second air outlet pipes 5012 are arranged between the two second vertical plates 5011. The second air outlet pipes 5012 are connected to the reversing valve 303 through second air guiding pipes 5014.

[0059] At least one ultraviolet germicidal lamp 404 is provided on any one of the groove walls of the accommodating groove 101 in the part located in the cooling area for sterilizing the slide fixing rack 600 entering the cooling area and the slides arranged in the slide grooves 603 of the slide fixing rack 600.

[0060] A sponge strip 403 is provided on the partition plate 102. The sponge strip 403 is annularly arranged around the peripheral wall of the through groove 1021. A liquid storage tank 401 is provided on the partition plate 102. A liquid guiding pipe 402 is connected to the liquid outlet of the liquid storage tank 401. The liquid guiding pipe 402 is connected to a liquid distributing pipe 405. The liquid distributing pipe 405 is located on the side of the sponge strip 403 or the liquid distributing pipe 405 presses against the sponge strip 403. A plurality of liquid distributing ports 406 are provided on the liquid distributing pipe 405, and the liquid distributing ports 406 face the sponge strip 403.

[0061] During use, a disinfectant is stored in the liquid storage tank 401. The disinfectant enters the liquid distributing pipe 405 through the liquid guiding pipe 402 and then soaks into the sponge strip 403 from the liquid distributing ports 406. When the slide fixing rack 600 passes through the through groove 1021 and enters the cooling area under the drive of the lifting mechanism, the disinfectant on the sponge strip 403 is smeared on the slide fixing rack 600, so that the slides placed in the slide grooves 603 can be smeared with the disinfectant to play a disinfection role.

[0062] A guiding rod 407 is inserted into the liquid distributing port 406. The guiding rod 407 presses against the sponge strip 403 to prevent the disinfectant in the liquid distributing port 406 from leaking out too quickly and causing waste.

[0063] An integrated circuit board 105 is provided on the outer wall of the box body 100. In this embodiment, the power supply 700, the electric push rod 201, the blower 302, the first electric heating plate 301, the second electric heating plate 3043, the ultraviolet germicidal lamp 404, and the reversing valve 303 are all connected to the integrated circuit board 105.

[0064] A cover body (not shown in the figure, the same below) is provided on the top of the box body 100. The cover body is used to seal the accommodating groove 101, and an air inlet hole 106 communicating with the cavity 104 is opened on the outer wall of the box body 100.

[0065] A display screen 108 is provided on the outer wall of the box body 100 for displaying the temperatures in the drying area and the cooling area. A temperature sensor 800 is provided on the partition plate 102 for detecting the temperatures in the drying area and the cooling area. A plurality of control buttons 109 are provided on the outer wall of the box body 100 for adjusting, controlling, starting, and stopping the drying mechanism, the lifting mechanism, and the cooling mechanism.

[0066] When the microbial slide drying device provided in this embodiment is in use, the electric push rod 201 of the lifting mechanism is used to push the slider 202 to displace on the guide rail 203, driving the slide fixing frame 600 to enter the cooling area from the drying area through the through groove 1021. After placing the slides that need to be dried after staining and rinsing in the slide groove 603, the electric push rod 201 resets to drive the sliding block to reset, so that the slide fixing frame 600 returns from the cooling area to the drying area. The drying mechanism in the drying area operates, and the reversing valve 303 is used to control the air blown by the blower 302 to enter the heating box 304. The heat generated by the second electric heating plate 3043 in the heat storage tank 3042 is sent into the first air outlet pipe 306 through the first air guide pipe 305, and then blown to the slide fixing frame 600 through the first air outlet hole 3061, and the first electric heating plate 301 is used to generate heat to realize the drying treatment of the slides in the slide groove 603 (the drying mechanism can preheat the drying area before the drying treatment to improve the drying efficiency);

[0067] After the drying treatment, the drying mechanism stops operating, and the electric push rod 201 pushes the slider 202 to move again, sending the slide fixing frame 600 into the cooling area again. The reversing valve 303 controls the air blown by the blower 302 to enter the second air blowing pipe, and the second air outlet hole 5013 of the second air blowing pipe sends air to the slides in the slide groove 603 to realize the cooling treatment of the slides. After cooling, the slides can be taken out for use, avoiding the situation that the operator is scalded by the slides after high-temperature treatment. Compared with the traditional drying method, the present invention can realize the rapid drying of the slides, improve the experimental efficiency, and reduce the investment in labor costs.

[0068] This embodiment also provides a method for drying microbial slides:

[0069] Control the operation of the electric push rod 201 to send the glass slide fixing rack 600 from the drying area to the cooling area. After placing the glass slides to be dried into the glass slide grooves 603 on the glass slide fixing rack 600, control the electric push rod 201 to drive the glass slide fixing rack 600 back from the cooling area to the drying area;

[0070] Control the reversing valve 303 to connect the blower 302 and the heating box 304. Start the first electric heating plate 301, the second electric heating plate 3043 and the blower 302. The wind of the blower 302 blows into the heating box 304, and the heat generated by the second electric heating plate 3043 in the heat storage tank 3042 is sent into the first air outlet pipe 306 through the first air guiding pipe 305, and then blown onto the glass slide fixing rack 600 through the first air outlet holes 3061, cooperating with the heat generation of the first electric heating plate 301 to dry the glass slides in the glass slide grooves 603;

[0071] After the drying process, control the electric push rod 201 to operate again to send the glass slide fixing rack 600 from the drying area to the cooling area, and control the reversing valve 303 to cut off the connection between the blower 302 and the heating box 304. Control the first electric heating plate 301 and the second electric heating plate 3043 to stop operating. At the same time, control the reversing valve 303 to connect the blower 302 and the second air outlet pipe 5012. The wind generated by the operation of the blower 302 enters the second air outlet pipe 5012 and blows onto the glass slide fixing rack 600 through the second air outlet holes 5013 of the second air outlet pipe 5012 to cool the glass slides;

[0072] At the same time, control the ultraviolet germicidal lamp 404 to start to sterilize the glass slides.

[0073] And when the glass slide fixing rack 600 passes through the through groove 1021, the sponge strip 403 can apply the disinfectant solution on the glass slide fixing rack 600 and the glass slides to disinfect the glass slides.

[0074] Of course, before the operation, the control button 109 can be pressed to control the reversing valve 303 to connect the blower 302 and the heating box 304, and the first electric heating plate 301, the second electric heating plate 3043 and the blower 302 can be pre-started to preheat the drying box 103.

[0075] The microbial glass slide drying equipment and drying method provided by this embodiment can achieve the rapid drying of glass slides, improve the experimental efficiency, and reduce the investment in labor costs.

[0076] The above embodiments are not an exhaustive list based on the present invention. Besides, there can be multiple other embodiments not listed. Any replacement and improvement made on the basis of not violating the concept of the present invention fall within the protection scope of the present invention.

Claims

1. A microbial slide drying device, characterized in that, It includes a box body. An accommodation groove is formed in the box body. A partition is provided in the accommodation groove. A drying area is formed between the partition and the bottom of the accommodation groove, and a cooling area is formed between the partition and the top of the accommodation groove. A glass slide fixing rack and a drying mechanism are provided in the drying area. The drying mechanism faces the glass slide fixing rack. A plurality of glass slide grooves are formed on the glass slide fixing rack. A lifting mechanism is provided in the drying area. A through groove is formed on the partition. The lifting mechanism is connected to the glass slide fixing rack. The glass slide fixing rack can move along the axial direction of the through groove. The through groove communicates the drying area and the cooling area. A cooling mechanism is provided in the cooling area. The cooling mechanism faces the through groove. A cavity is formed between the bottom of the drying box and the bottom of the box body. The drying mechanism further includes a blower and a heating box. Both the heating box and the blower are provided in the cavity. At least one second electric heating plate is provided in the heating box. A reversing valve is connected to the air outlet of the blower. The reversing valve is connected to the air inlet end of the heating box. A first air duct is connected to the air outlet end of the heating box. At least a part of the air outlet end of the first air duct extends into the drying box. The cooling mechanism includes a cooling rack provided in the area. The cooling rack is fixedly provided on the partition. A plurality of second air outlet pipes are arranged at intervals on the cooling rack. A plurality of second air outlet holes are provided on the second air outlet pipes. And the air inlet end of the second air outlet pipe is connected to the reversing valve.

2. The microbial slide drying device according to claim 1, characterized in that, The lifting mechanism includes an electric push rod. The bottom end of the electric push rod is fixedly provided in the drying area. A slider is provided at the top end of the electric push rod. The slider is connected to the glass slide fixing rack. Two oppositely arranged guide rails are provided in the drying area. The slider is sleeved on the guide rail. And the slider is in sliding fit with the guide rail.

3. The microbial slide drying device according to claim 2, wherein, A drying box is provided in the drying area. The top plate of the drying box is the partition. The guide rails are provided on two oppositely arranged inner walls of the drying box. The sliders are provided on both sides of the glass slide fixing rack. The glass slide fixing rack and the through groove are in sliding fit to form a first state or a second state. The slider and the guide rail are in sliding fit to form a first position and a second position. In the first state, the electric push rod operates to drive the slider to displace from the first position to the second position. The glass slide fixing rack moves along the axial direction of the through groove and enters the cooling area from the drying area, forming a cooling state. In the second state, the electric push rod resets to drive the slider to return from the second position to the first position. The glass slide fixing rack moves along the axial direction of the through groove and returns to the drying area from the cooling area, forming a drying state.

4. The microbial slide drying device according to any one of claims 1 to 3, characterized in that, The slide fixing rack includes two relatively arranged first vertical plates, an installation area is formed between the two first vertical plates, a plurality of spaced first horizontal plates are arranged in the installation area, both ends of the first horizontal plate are connected to the first vertical plate, a plurality of slide grooves are formed in the first horizontal plate, a lifting mechanism is arranged on the first vertical plate, and a drying mechanism is arranged on any side of the slide fixing rack.

5. The microbial slide drying device according to claim 4, characterized in that, A gap is formed between every two of the first horizontal plates. The drying mechanism includes a first electric heating plate, the first electric heating plate is horizontally arranged in the installation area, and the first electric heating plate is located in the gap and faces the first horizontal plate.

6. The microbial slide drying device according to claim 1, characterized in that, At least one first air outlet pipe is arranged in the drying box. The air inlet end of the first air outlet pipe is connected to the air outlet end of the first air guiding pipe. The first air outlet pipe is located at the side of the first electric heating sheet, and a plurality of first air outlet holes are formed in the outer wall of the first air outlet pipe, and the first air outlet holes face the first electric heating sheet.

7. The microbial slide drying device according to any one of claims 1 to 3, characterized in that, An ultraviolet germicidal lamp is arranged on a part of any groove wall of the accommodation groove located in the temperature reduction area, and the ultraviolet germicidal lamp faces the through groove. A sponge strip is arranged on the partition plate at the peripheral wall position of the through groove. The sponge strip is annular. A liquid storage tank is arranged on the partition plate. A liquid guide pipe is connected to the liquid outlet of the liquid storage tank. A liquid distribution pipe is connected to the liquid outlet of the liquid guide pipe. A plurality of liquid distribution ports are formed in the liquid distribution pipe, and the liquid distribution pipe is located at a position close to the sponge strip or the liquid distribution pipe presses against the sponge strip, and the liquid distribution ports face the sponge strip.

8. The method for drying microbial slides of the microbial slide drying device according to any one of claims 1 to 7, characterized in that The lifting mechanism operates to drive the slide fixing rack to enter the temperature reduction area from the drying area, and the slide to be dried is placed in the slide groove on the slide fixing rack; The lifting mechanism operates to drive the slide fixing rack to return to the drying area from the temperature reduction area, and the drying mechanism operates to heat the drying area to dry the slides in the slide grooves; After the drying treatment, the lifting mechanism operates to send the slide fixing rack from the drying area to the temperature reduction area again, and the temperature reduction mechanism in the temperature reduction area operates to cool the slides after high-temperature drying.

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