A fully automatic device for circulating and deoiling glass slides

Abstract

The utility model relates to the technical field of laboratory tools, and specifically refers to a fully automatic device for glass slide circulation deoiling, comprising an equipment platform, a deoiling cylinder assembly, a sample delivery component, a power supply assembly, and a liquid circuit assembly, characterized in that the deoiling cylinder assembly, the sample delivery component, the power supply assembly, and the liquid circuit assembly are mounted on the equipment platform. The utility model is a fully automatic device for glass slide circulation deoiling that can effectively remove shampoo oil from a glass slide, improve cleaning efficiency and cleaning quality, reduce operating difficulty, reduce manual intervention, and provide convenience for laboratory work.

Description

Technical Field

[0001] The utility model relates to the technical field of laboratory tools, in particular to a fully automatic device for cyclic deoiling of glass slides. Background Art

[0002] In the laboratory, glass slides are commonly used experimental tools for carrying various samples for observation and analysis. However, during the experiment, the surface of the glass slide is easily contaminated with pollutants such as grease, which affects the accuracy of the experimental results. In order to ensure the reliability of the experimental results, the glass slide needs to be cleaned. Traditional glass slide cleaning methods usually use organic solvents or acid-base solutions for soaking or wiping, which is cumbersome and inefficient. In addition, since shampoo oil has strong adhesion, it is difficult to completely remove it with traditional cleaning methods, resulting in interference with experimental results. Therefore, the development of a cleaning device that can effectively remove shampoo oil on glass slides has important practical significance and application value. Utility Model Content

[0003] The technical problem to be solved by the utility model is the problems existing in the slide cleaning process in the prior art, such as complicated operation, low efficiency, and unsatisfactory cleaning effect. The utility model can effectively remove shampoo oil on the slide, improve cleaning efficiency and cleaning quality, reduce operating difficulty, reduce manual intervention, and provide a fully automatic device for slide circulation deoiling that is convenient for laboratory work.

[0004] The technical solution adopted by the utility model is a fully automatic device for glass slide circulation deoiling, comprising an equipment platform, a deoiling cylinder component, a sample delivery component, a power supply component, and a liquid circuit component, and is characterized in that the deoiling cylinder component, the sample delivery component, the power supply component, and the liquid circuit component are installed on the equipment platform.

[0005] As a further solution of the utility model: the de-oiling cylinder assembly is composed of a de-oiling cylinder, a first de-oiling cylinder, a second de-oiling cylinder, a third de-oiling cylinder, a drying cylinder, a dryer, a drying cylinder waste liquid discharge port, a de-oiling cylinder door rotating shaft, a first distilled water inlet, a second distilled water inlet, a distilled water discharge port, a first de-oiling agent inlet, a second de-oiling agent inlet, a second de-oiling cylinder waste liquid discharge port, a de-oiling cylinder door, a second de-oiling agent inlet, a third de-oiling agent, a de-oiling cylinder door positioning member and a first de-oiling cylinder discharge port; the de-oiling cylinder is installed on the equipment platform, the first de-oiling cylinder is located on the right side of the de-oiling cylinder, and is used for mixing the second de-oiling agent and the third de-oiling agent The storage of the liquid and the first step of the deoiling operation process, the second deoiling cylinder is located on the left side of the first deoiling cylinder, and is used for the first deoiling agent storage and the second step of the deoiling operation, the third deoiling cylinder is located on the left side of the second deoiling cylinder, and is used for cleaning the deoiling agent or impurities, the drying cylinder is located on the left side of the deoiling cylinder, and the left side of the third deoiling cylinder is used for collecting and discharging waste liquid when performing the drying step, the dryer is installed on the equipment platform, located on the left side of the drying cylinder, and is used for drying the deoiled bone marrow smear to be deoiled, the waste liquid discharge port of the drying cylinder is located at the bottom of the drying cylinder, and the downstream is connected to the third deoiling cylinder discharge valve, and the deoiling cylinder door rotating shaft is installed on the deoiling cylinder. The oil cylinder is used for positioning the de-oiling cylinder door. The first distilled water inlet and the second distilled water inlet are located at the upper part of the third de-oiling cylinder, and are connected to external distilled water upstream. The distilled water outlet is located at the bottom of the third de-oiling cylinder, and is also connected to the third de-oiling cylinder downstream. The first de-oiling agent inlet is located at the upper part of the second de-oiling cylinder, and is connected to the first de-oiling agent liquid circuit pump upstream to inject the first de-oiling agent set by the program into the second de-oiling cylinder. The second de-oiling agent inlet is located at the upper part of the second de-oiling cylinder, and is connected to the second de-oiling agent liquid circuit pump upstream to inject the second de-oiling cylinder into the second de-oiling cylinder. The second de-oiling agent waste liquid outlet is located at the second At the bottom of the de-oiling cylinder, it is connected to the second de-oiling agent liquid dividing valve downstream. The de-oiling cylinder door is located at the upper ends of the first de-oiling cylinder, the second de-oiling cylinder and the third de-oiling cylinder to provide sealing conditions for the reuse of the de-oiling agent therein. The second de-oiling agent liquid inlet is located at the top of the first de-oiling cylinder, and is connected to the second de-oiling agent liquid circuit pump upstream. The third de-oiling agent is located at the top of the first de-oiling cylinder, and is connected to the third de-oiling agent liquid circuit pump upstream. The de-oiling cylinder door positioning piece is located at the top right side of the de-oiling cylinder, and is connected to the right side of the de-oiling cylinder door to provide support and positioning for it. The first de-oiling cylinder discharge port is located at the bottom of the first de-oiling cylinder, and is connected to the first de-oiling cylinder discharge valve downstream.

[0006] As a further solution of the utility model: the sample delivery component is composed of a bone marrow smear to be degreased, a bone marrow smear rack, upper and lower sample delivery slide rails, upper and lower sample delivery fixings, an upper and lower sample delivery power motor, a left and right sample delivery motor, a left and right sample delivery motor positioning piece, a left and right sample delivery motor slide rail, a left and right sample delivery motor conveyor belt and a sample delivery component signal line drag chain. The bone marrow smear to be degreased is located on the bone marrow smear rack. For this purpose, the device carries a processed sample and is manually hung on the bone marrow smear rack. The bone marrow smear rack is located on the upper and lower sample delivery slide rails to provide support for the bone marrow smear to be degreased. The upper and lower sample delivery slide rails are located in front of the upper and lower sample delivery fixings to reduce friction for the up and down movement of the upper and lower sample delivery power motor. The upper and lower sample delivery fixings are located on the left and right sample delivery motor slide rails. The upper and lower sample delivery power motor is located on the upper The side of the lower sample delivery fixing part provides power for the up and down movement of the bone marrow smear rack. The left and right sample delivery motors are located on the left and right sample delivery motor positioning parts, which provide power for the left and right movement of the bone marrow smear rack. The left and right sample delivery motor positioning parts are located on the equipment platform, which provide positioning and support for the left and right sample delivery motors. The left and right sample delivery motor slide rails are located on the equipment platform and are in the same line as the left and right sample delivery motors, which reduce resistance for the left and right movement of the bone marrow smear rack. One end of the left and right sample delivery motor conveyor belt is connected to the left and right sample delivery motors, and the other end is connected to the left and right sample delivery motor slide rails, which transmit the power of the left and right sample delivery motors to the bone marrow smear rack. The signal line drag chain of the sample delivery component is located on the equipment platform. When the sample delivery component moves up, down, left and right, the deformation of the signal line in the signal line drag chain of the sample delivery component is protected by it.

[0007] As a further solution of the utility model: the liquid circuit component is composed of a first deoiling agent liquid circuit pump, a second deoiling agent liquid circuit pump, a third deoiling agent liquid circuit pump, a waste liquid circuit pump, a liquid circuit sheet metal part, a second deoiling agent liquid dividing valve, a first deoiling cylinder drain valve, a second deoiling cylinder drain valve and a third deoiling cylinder drain valve. The first deoiling agent liquid circuit pump is located on the equipment platform and under the liquid circuit sheet metal part. The upstream is connected to the external first deoiling agent and the downstream is connected to the first deoiling agent liquid inlet. The second deoiling agent liquid circuit pump is located on the equipment platform and under the liquid circuit sheet metal part, on the left side of the first deoiling agent liquid circuit pump, and the downstream is connected to the second deoiling agent liquid inlet. The third deoiling agent liquid circuit pump is located on the equipment platform and under the liquid circuit sheet metal part, on the left side of the second deoiling agent liquid circuit pump, and the downstream is connected to the third deoiling agent liquid inlet. The waste liquid circuit pump is located on the equipment platform and under the liquid circuit sheet metal part, on the left side of the third deoiling agent liquid circuit pump. The upstream is connected to the distilled water discharge outlet, the drying cylinder waste liquid discharge outlet, the first de-oiling cylinder discharge outlet and the second de-oiling cylinder waste liquid discharge outlet. The liquid circuit sheet metal is installed on the equipment platform to provide positioning and support for the installation of the first de-oiling cylinder discharge valve, the second de-oiling cylinder discharge valve and the third de-oiling cylinder discharge valve. The second de-oiling agent liquid separator valve is connected to the second de-oiling agent liquid circuit pump upstream and to the second de-oiling agent liquid inlet downstream. The first de-oiling cylinder discharge valve is installed on the liquid circuit sheet metal, connected to the first de-oiling cylinder discharge outlet upstream and to the waste liquid liquid circuit pump downstream. The second de-oiling cylinder discharge valve is installed on the liquid circuit sheet metal, on the right side of the first de-oiling cylinder discharge valve, connected to the second de-oiling cylinder waste liquid discharge outlet upstream and to the waste liquid liquid circuit pump downstream. The third de-oiling cylinder discharge valve is installed on the liquid circuit sheet metal, on the right side of the third de-oiling agent liquid separator valve, connected to the distilled water discharge outlet upstream and to the waste liquid liquid circuit pump downstream.

[0008] Compared with the prior art, the utility model has the following advantages:

[0009] 1. The circulating de-oiling and cleaning device for shampoo oil on a glass slide of the utility model adopts a special structural design, which can realize the rapid, accurate and stable removal of shampoo oil on the glass slide, greatly improving the cleaning efficiency; this structural design makes the positioning of the sample on the stage more accurate, reduces the experimental error caused by inaccurate positioning, and thus improves the accuracy of the experimental results;

[0010] 2. The circulating degreasing cleaning device for shampoo oil on a glass slide of the utility model has high cleaning quality, can meet the high-precision experimental requirements in different fields, and improve the accuracy of experimental results; this high cleaning quality is achieved by optimizing the composition and ratio of the cleaning liquid and using an efficient degreasing agent, so that the shampoo oil on the glass slide can be completely removed, thereby ensuring the accuracy of the experimental results;

[0011] 3. The circulating de-oiling cleaning device for shampoo oil on a glass slide of the utility model has a simple structure, is easy to operate and maintain, and reduces the experimental cost and difficulty of use; this simple structural design makes the manufacturing and maintenance of the cleaning device easier, reduces the experimental cost, and also reduces the user's operating difficulty, so that more researchers can use this cleaning device to conduct experiments;

[0012] 4. The circulating de-oiling and cleaning device for shampoo oil on a glass slide of the utility model is suitable for various types of glass slides and shampoo oil, and has strong versatility and practicality; this versatility is achieved by adopting a standard interface and installation method, so that the cleaning device can be compatible with various types of glass slides and shampoo oil, thereby meeting the needs of researchers in different fields and having strong practicality. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0014] Figure 1 The utility model is a schematic diagram of the overall structure of a fully automatic device for circulating and deoiling glass slides.

[0015] Figure 2 The utility model is a schematic diagram of the structure of a de-oiling cylinder assembly used in a fully automatic device for circulating de-oiling of glass slides.

[0016] Figure 3 The utility model is a schematic diagram of the structure of a sample feeding component used in a fully automatic device for circulating deoiling of glass slides.

[0017] Figure 4 The utility model is a schematic diagram of the structure of a liquid circuit component used in a fully automatic device for circulating and deoiling a glass slide.

[0018] In the attached figure:

[0019] 1. Equipment platform; 2. De-oiling cylinder assembly; 2-1. De-oiling cylinder body; 2-2. First de-oiling cylinder; 2-3. Second de-oiling cylinder; 2-4. Third de-oiling cylinder; 2-5. Drying cylinder; 2-6. Dryer; 2-7. Waste liquid outlet of drying cylinder; 2-8. De-oiling cylinder door rotation axis; 2-9. First distilled water inlet; 2-10. Second distilled water inlet; 2-11. Distilled water outlet; 2-12. First de-oiling agent inlet; 2-13. Second de-oiling agent inlet; 2-14. Second de-oiling cylinder waste liquid outlet; 2-15. De-oiling cylinder door; 2-16. Second de-oiling agent inlet; 2-17. Third de-oiling agent inlet; 2-18. De-oiling cylinder door positioning piece; 2-19. First de-oiling cylinder outlet; 3. Sample delivery component; 3-1. Bone marrow smear to be degreased; 3-2. Bone marrow smear rack; 3-3. Upper and lower sample feeding slide rails; 3-4. Upper and lower sample feeding fixings; 3-5. Upper and lower sample feeding power motors; 3-6. Left and right sample feeding motors; 3-7. Left and right sample feeding motor positioning parts; 3-8. Left and right sample feeding motor slide rails; 3-9. Left and right sample feeding motor conveyor belts; 3-10. Sample feeding component signal line drag chain; 4. Power supply assembly; 5. Liquid circuit assembly; 5-1. First degreaser liquid circuit pump; 5-2. Second degreaser liquid circuit pump; 5-3. Third degreaser liquid circuit pump; 5-4. Waste liquid circuit pump; 5-5. Liquid circuit sheet metal; 5-6. Second degreaser liquid dispensing valve; 5-7. First de-oiling cylinder drain valve; 5-8. Second de-oiling cylinder drain valve; 5-9. Third de-oiling cylinder drain valve. DETAILED DESCRIPTION

[0020] The following will be combined with the drawings in the embodiments of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.

[0021] The utility model provides a technical solution to solve the existing problems raised in the background technology.

[0022] like Figure 1 As shown, the utility model is a fully automatic device for circulating deoiling of glass slides, including an equipment platform 1, an oil removal cylinder assembly 2, a sample delivery component 3, a power supply assembly 4, and a liquid circuit assembly 5. The oil removal cylinder assembly 2, the sample delivery component 3, the power supply assembly 4, and the liquid circuit assembly 5 are installed on the equipment platform 1. The equipment platform 1 provides a guarantee for the installation and positioning of other components. The power supply assembly 4 is connected to an external power supply to provide power for the entire device.

[0023] like Figure 2As shown, the de-oiling cylinder assembly 2 is composed of a de-oiling cylinder 2-1, a first de-oiling cylinder 2-2, a second de-oiling cylinder 2-3, a third de-oiling cylinder 2-4, a drying cylinder 2-5, a dryer 2-6, a drying cylinder waste liquid discharge port 2-7, a de-oiling cylinder door rotating shaft 2-8, a first distilled water inlet 2-9, a second distilled water inlet 2-10, a distilled water discharge port 2-11, a first de-oiling agent inlet 2-12, a second de-oiling agent inlet 2-13, a second de-oiling cylinder waste liquid discharge port 2-14, a de-oiling cylinder door 2-15, a second de-oiling agent inlet 2-16, a third de-oiling agent 2-17, a de-oiling cylinder door positioning member 2-18 and a first de-oiling cylinder discharge port 2-19;The de-oiling cylinder 2-1 is installed on the equipment platform 1, the first de-oiling cylinder 2-2 is located on the right side of the de-oiling cylinder 2-1, and is used for the storage of the second de-oiling agent and the third de-oiling agent mixture and the first step of de-oiling operation process, the second de-oiling cylinder 2-3 is located on the left side of the first de-oiling cylinder 2-2, and is used for the first de-oiling agent storage and the second step of de-oiling operation, the third de-oiling cylinder 2-4 is located on the left side of the second de-oiling cylinder 2-3, and is used for cleaning the de-oiling agent or impurities, the drying cylinder 2-5 is located on the left side of the de-oiling cylinder 2-1 and the left side of the third de-oiling cylinder 2-4, and is used for the collection and discharge of waste liquid when performing the drying step, and the dryer 2-6 is installed On the equipment platform 1, located on the left side of the drying cylinder 2-5, it is used for drying the deoiled bone marrow smear 3-1 to be deoiled. The drying cylinder waste liquid discharge port 2-7 is located at the bottom of the drying cylinder 2-5, and is connected to the third deoiling cylinder discharge valve 5-9 downstream. The deoiling cylinder door rotating shaft 2-8 is installed on the deoiling cylinder 2-1, and is used for positioning the deoiling cylinder door 2-15. The first distilled water inlet 2-9 and the second distilled water inlet 2-10 are located at the upper part of the third deoiling cylinder 2-4, and are connected to external distilled water upstream. The distilled water discharge port 2-11 is located at the bottom of the third deoiling cylinder 2-4, and is connected to the third deoiling cylinder valve 5-8 downstream. The first deoiling agent liquid inlet 2-12 is located at the upper part of the second deoiling cylinder 2-3, and is connected to the first deoiling agent liquid circuit pump 5-1 upstream, so as to inject the first deoiling agent set by the program into the second deoiling cylinder 2-3. The second deoiling agent liquid inlet 2-13 is located at the upper part of the second deoiling cylinder 2-3, and is connected to the second deoiling agent liquid circuit pump 5-2 upstream, so as to inject the second deoiling agent set by the program into the second deoiling cylinder 2-3. The second deoiling cylinder waste liquid discharge port 2-14 is located at the bottom of the second deoiling cylinder 2-3, and is connected to the second deoiling agent liquid separation valve 5-6 downstream. The deoiling cylinder door 2-15 is located at the first deoiling cylinder 2-2, the second deoiling cylinder 2-3, and the third deoiling cylinder 2-3. The upper end of the deoiling cylinder 2-4 provides sealing conditions for the reuse of the deoiling agent in it. The second deoiling agent inlet 2-16 is located at the top of the first deoiling cylinder 2-2, and is connected to the second deoiling agent liquid circuit pump 5-2 upstream. The third deoiling agent 2-17 is located at the top of the first deoiling cylinder 2-2, and is connected to the third deoiling agent liquid circuit pump 5-3 upstream. The deoiling cylinder door positioning member 2-18 is located at the top of the right side of the deoiling cylinder 2-1, and is connected to the right side of the deoiling cylinder door 2-15, providing support and positioning for it. The first deoiling cylinder discharge port 2-19 is located at the bottom of the first deoiling cylinder 2-2, and is connected to the first deoiling cylinder discharge valve 5-7 downstream. ;

[0024] like Figure 3As shown, the sample delivery component 3 is composed of a bone marrow smear to be degreased 3-1, a bone marrow smear rack 3-2, upper and lower sample delivery slide rails 3-3, upper and lower sample delivery fixing parts 3-4, upper and lower sample delivery power motors 3-5, left and right sample delivery motors 3-6, left and right sample delivery motor positioning parts 3-7, left and right sample delivery motor slide rails 3-8, left and right sample delivery motor conveyor belts 3-9 and a sample delivery component signal line drag chain 3-10. The bone marrow smear to be degreased 3-1 is located on the bone marrow smear rack 3-2. The device carries the processed sample and is manually hung on the bone marrow smear rack 3-2. The bone marrow smear rack 3-2 is located on the upper and lower sample delivery slide rails 3-3 to provide support for the bone marrow smear 3-1 to be degreased. The upper and lower sample delivery slide rails 3-3 are located in front of the upper and lower sample delivery fixtures 3-4 to reduce friction for the up and down movement of the upper and lower sample delivery power motor 3-5. The upper and lower sample delivery fixtures 3-4 are located on the left and right sample delivery motor slide rails 3-8. The upper and lower sample delivery power motor 3-5 is located on the upper The side of the lower sample delivery fixing member 3-4 provides power for the up and down movement of the bone marrow smear rack 3-2. The left and right sample delivery motors 3-6 are located on the left and right sample delivery motor positioning members 3-7, which provide power for the left and right movement of the bone marrow smear rack 3-2. The left and right sample delivery motor positioning members 3-7 are located on the equipment platform 1, providing positioning and support for the left and right sample delivery motors 3-6. The left and right sample delivery motor slide rails 3-8 are located on the equipment platform 1, in the same straight line as the left and right sample delivery motors 3-6, to reduce resistance for the left and right movement of the bone marrow smear rack 3-2. One end of the left and right sample delivery motor conveyor belt 3-9 is connected to the left and right sample delivery motors 3-6, and the other end is connected to the left and right sample delivery motor slide rails 3-8, which transmit the power of the left and right sample delivery motors 3-6 to the bone marrow smear rack 3-2. The sample delivery component signal line drag chain 3-10 is located on the equipment platform 1. When the sample delivery component 3 moves up, down, left and right, the deformation of the signal line in the sample delivery component signal line drag chain 3-10 is protected by it.

[0025] like Figure 4As shown, the liquid circuit assembly 5 is composed of a first deoiling agent liquid circuit pump 5-1, a second deoiling agent liquid circuit pump 5-2, a third deoiling agent liquid circuit pump 5-3, a waste liquid circuit pump 5-4, a liquid circuit sheet metal part 5-5, a second deoiling agent liquid separation valve 5-6, a first deoiling cylinder drain valve 5-7, a second deoiling cylinder drain valve 5-8 and a third deoiling cylinder drain valve 5-9. The first deoiling agent liquid circuit pump 5-1 is located on the equipment platform 1 and below the liquid circuit sheet metal part 5-5. The upstream is connected to the external first deoiling agent and the downstream is connected to the first deoiling agent liquid inlet 2-12. The second deoiling agent liquid circuit pump 5-1 is located on the equipment platform 1 and below the liquid circuit sheet metal part 5-5. The upstream is connected to the external first deoiling agent and the downstream is connected to the first deoiling agent liquid inlet 2-12. The degreasing agent liquid circuit pump 5-2 is located on the equipment platform 1, under the liquid circuit sheet metal 5-5, on the left side of the first degreasing agent liquid circuit pump 5-1, and is connected to the second degreasing agent liquid inlet 2-13 downstream. The third degreasing agent liquid circuit pump 5-3 is located on the equipment platform 1, under the liquid circuit sheet metal 5-5, on the left side of the second degreasing agent liquid circuit pump 5-2, and is connected to the third degreasing agent liquid inlet 2-17 downstream. The waste liquid circuit pump 5-4 is located on the equipment platform 1, under the liquid circuit sheet metal 5-5, on the left side of the third degreasing agent liquid circuit pump 5-3, and is connected to the distilled water outlet 2- 11. The waste liquid discharge port 2-7 of the drying cylinder, the first de-oiling cylinder discharge port 2-19 and the second de-oiling cylinder waste liquid discharge port 2-14 are connected. The liquid circuit sheet metal 5-5 is installed on the equipment platform 1 to provide positioning and support for the installation of the first de-oiling cylinder discharge valve 5-7, the second de-oiling cylinder discharge valve 5-8 and the third de-oiling cylinder discharge valve 5-9. The second de-oiling agent liquid separator valve 5-6 is connected to the second de-oiling agent liquid circuit pump 5-2 upstream and the second de-oiling agent liquid inlet 2-13 and 2-16 downstream. The first de-oiling cylinder discharge valve 5-7 is installed on the liquid circuit sheet metal On the metal part 5-5, the upstream is connected to the first de-oiling cylinder drain port 2-19, and the downstream is connected to the waste liquid circuit pump 5-4. The second de-oiling cylinder drain valve 5-8 is installed on the liquid circuit sheet metal part 5-5, on the right side of the first de-oiling cylinder drain valve 5-7, the upstream is connected to the second de-oiling cylinder waste liquid drain port 2-14, and the downstream is connected to the waste liquid circuit pump 5-4. The third de-oiling cylinder drain valve 5-9 is installed on the liquid circuit sheet metal part 5-5, on the right side of the third de-oiling agent separator valve 5-8, the upstream is connected to the distilled water drain port 2-11, and the downstream is connected to the waste liquid circuit pump 5-4.

[0026] The above description of the utility model and its implementation methods is not restrictive. The drawings show only one implementation method of the utility model, and the actual structure is not limited thereto. In short, if ordinary technicians in this field are inspired by it and design structural methods and embodiments similar to the technical solution without creativity without departing from the purpose of the invention of the utility model, they should all fall within the protection scope of the utility model.

Claims

1. A fully automatic device for cyclic deoiling of glass slides, comprising an equipment platform (1), a deoiling cylinder assembly (2), a sample delivery component (3), a power supply assembly (4), and a liquid circuit assembly (5), characterized in that: The de-oiling cylinder assembly (2), the sample delivery component (3), the power supply assembly (4), and the liquid path assembly (5) are installed on the equipment platform (1). The de-oiling cylinder assembly (2) is composed of a de-oiling cylinder (2-1), a first de-oiling cylinder (2-2), a second de-oiling cylinder (2-3), a third de-oiling cylinder (2-4), a drying cylinder (2-5), a dryer (2-6), a drying cylinder waste liquid discharge port (2-7), a de-oiling cylinder door rotation shaft (2-8), a first distilled water inlet ( The invention is composed of a first deoiling cylinder waste liquid outlet (2-14), a second deoiling cylinder door (2-15), a second deoiling cylinder waste liquid inlet (2-16), a third deoiling cylinder waste liquid inlet (2-17), a deoiling cylinder door positioning member (2-18) and a first deoiling cylinder waste liquid outlet (2-19).

2. The fully automatic device for degreasing glass slides according to claim 1, characterized in that: The de-oiling cylinder (2-1) is installed on the equipment platform (1), the first de-oiling cylinder (2-2) is located on the right side of the de-oiling cylinder (2-1), the second de-oiling cylinder (2-3) is located on the left side of the first de-oiling cylinder (2-2), the third de-oiling cylinder (2-4) is located on the left side of the second de-oiling cylinder (2-3), the drying cylinder (2-5) is located on the left side of the de-oiling cylinder (2-1) and the left side of the third de-oiling cylinder (2-4), and the dryer (2-6) is installed on the equipment platform (1 ), located on the left side of the drying cylinder (2-5), the drying cylinder waste liquid discharge port (2-7) is located at the bottom of the drying cylinder (2-5), the de-oiling cylinder door rotation axis (2-8) is installed on the de-oiling cylinder (2-1), the first distilled water inlet (2-9) and the second distilled water inlet (2-10) are located on the upper part of the third de-oiling cylinder (2-4), and the upstream is connected to the external distilled water, the distilled water discharge port (2-11) is located at the bottom of the third de-oiling cylinder (2-4), the first A deoiling agent liquid inlet (2-12) is located at the upper part of the second deoiling cylinder (2-3), and is connected to the first deoiling agent liquid circuit pump (5-1) upstream; a second deoiling agent liquid inlet (2-13) is located at the upper part of the second deoiling cylinder (2-3); a second deoiling cylinder waste liquid discharge outlet (2-14) is located at the bottom of the second deoiling cylinder (2-3); and a deoiling cylinder door (2-15) is located at the upper ends of the first deoiling cylinder (2-2), the second deoiling cylinder (2-3), and the third deoiling cylinder (2-4). The second deoiling agent liquid inlet port 2 (2-16) is located at the top of the first deoiling cylinder (2-2) and is connected to the second deoiling agent liquid circuit pump (5-2) upstream. The third deoiling agent liquid inlet port (2-17) is located at the top of the first deoiling cylinder (2-2). The deoiling cylinder door positioning member (2-18) is located at the top right side of the deoiling cylinder (2-1) and is connected to the right side of the deoiling cylinder door (2-15). The first deoiling cylinder liquid discharge port (2-19) is located at the bottom of the first deoiling cylinder (2-2).

3. The fully automatic device for deoiling a glass slide according to claim 1, characterized in that: The sample delivery component (3) is composed of a bone marrow smear to be degreased (3-1), a bone marrow smear rack (3-2), upper and lower sample delivery slide rails (3-3), upper and lower sample delivery fixing parts (3-4), upper and lower sample delivery power motors (3-5), left and right sample delivery motors (3-6), left and right sample delivery motor positioning parts (3-7), left and right sample delivery motor slide rails (3-8), left and right sample delivery motor conveyor belts (3-9) and a sample delivery component signal line drag chain (3-10). The bone marrow smear to be degreased (3-1) is located on the bone marrow smear rack (3-2), the bone marrow smear rack (3-2) is located on the upper and lower sample delivery slide rails (3-3), the upper and lower sample delivery slide rails (3-3) are located in front of the upper and lower sample delivery fixing parts (3-4), and the upper and lower sample delivery power motors (3-5) are located in front of the upper and lower sample delivery fixing parts (3-4). The sample delivery fixing part (3-4) is located on the left and right sample delivery motor slide rails (3-8), the upper and lower sample delivery power motors (3-5) are located on the sides of the upper and lower sample delivery fixing parts (3-4), the left and right sample delivery motors (3-6) are located on the left and right sample delivery motor positioning parts (3-7), the left and right sample delivery motor positioning parts (3-7) are located on the equipment platform (1), the left and right sample delivery motor slide rails (3-8) are located on the equipment platform (1), and are in the same straight line as the left and right sample delivery motors (3-6), one end of the left and right sample delivery motor conveyor belt (3-9) is connected to the left and right sample delivery motors (3-6), and the other end is connected to the left and right sample delivery motor slide rails (3-8), and the sample delivery component signal line drag chain (3-10) is located on the equipment platform (1).

4. The fully automatic device for cyclic deoiling of glass slides according to claim 2, characterized in that: The liquid circuit assembly (5) is composed of a first deoiling agent liquid circuit pump (5-1), a second deoiling agent liquid circuit pump (5-2), a third deoiling agent liquid circuit pump (5-3), a waste liquid liquid circuit pump (5-4), a liquid circuit sheet metal part (5-5), a second deoiling agent liquid separation valve (5-6), a first deoiling cylinder discharge valve (5-7), a second deoiling cylinder discharge valve (5-8) and a third deoiling cylinder discharge valve (5-9). The first deoiling agent liquid circuit pump (5-1) is located on the equipment platform (1) and below the liquid circuit sheet metal part (5-5), and is connected to an external first deoiling agent upstream and to a first deoiling agent liquid inlet (2-12) downstream. The second deoiling agent liquid circuit pump (5-2) is located on the equipment platform (1), below the liquid circuit sheet metal (5-5), on the left side of the first deoiling agent liquid circuit pump (5-1), and is connected to the second deoiling agent liquid inlet (2-13) downstream. The third deoiling agent liquid circuit pump (5-3) is located on the equipment platform (1), below the liquid circuit sheet metal (5-5), on the left side of the second deoiling agent liquid circuit pump (5-2), and is connected to the third deoiling agent liquid inlet (2-17) downstream. The waste liquid circuit pump (5-4) is located on the equipment platform (1), below the liquid circuit sheet metal (5-5), and is connected to the third deoiling agent liquid circuit pump (5-5). The left side of the deoiling agent pump (5-3) is connected to the distilled water outlet (2-11), the drying cylinder waste liquid outlet (2-7), the first deoiling cylinder outlet (2-19) and the second deoiling cylinder waste liquid outlet (2-14) upstream, the liquid circuit sheet metal component (5-5) is installed on the equipment platform (1), the second deoiling agent liquid separator valve (5-6) is connected to the second deoiling agent liquid circuit pump (5-2) upstream, and is connected to the second deoiling agent liquid inlet 1 (2-13) and the second deoiling agent liquid inlet 2 (2-16) downstream, the first deoiling cylinder liquid separator valve (5-7) is installed on the liquid circuit sheet metal component (5-5), The upstream of the de-oiling cylinder drain valve (5-19) is connected to the first de-oiling cylinder drain port (2-19), and the downstream is connected to the waste liquid circuit pump (5-4). The second de-oiling cylinder drain valve (5-8) is installed on the liquid circuit sheet metal (5-5), on the right side of the first de-oiling cylinder drain valve (5-7), the upstream is connected to the second de-oiling cylinder waste liquid drain port (2-14), and the downstream is connected to the waste liquid circuit pump (5-4). The third de-oiling cylinder drain valve (5-9) is installed on the liquid circuit sheet metal (5-5), on the right side of the second de-oiling cylinder drain valve (5-8), the upstream is connected to the distilled water drain port (2-11), and the downstream is connected to the waste liquid circuit pump (5-4).

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