Cleaning device special for intelligent instrument for biotechnology research and development

Abstract

The invention provides a cleaning device special for intelligent instruments for biotechnology research and development, and relates to the technical field of cleaning equipment.The cleaning device comprises a flushing water tank, and a purification water tank is installed on the rear side of the flushing water tank; a water flow guide plate is mounted at the rear end of the inner side of the flushing water tank; a gear is mounted on the outer side of the rotating pipe, the gear is meshed with a gear at the output end of a driving motor on the front side of the flushing water tank, the outer end of the rotating pipe is rotationally mounted in the fixed cover, and a flow guide ring pipe is mounted at the inner end of the rotating pipe; nozzles are arranged on the side face of the flow guide ring pipe, and the flow guide ring pipe is located on the front side of the interior of the flushing water tank. According to the high-pressure cleaning device, the high-pressure water flow is combined with the strong impact force of the high-pressure water flow to the impurities, pollutants attached to the instruments can be rapidly and thoroughly flushed away, the flushing time of the single instrument is remarkably shortened, the overall cleaning efficiency is improved, and the problem that part of cleaned impurities can be attached to the surfaces of the instruments again along with the water flow, and the instrument cleaning efficiency is affected is solved.

Description

Technical Field

[0001] This invention relates to the field of cleaning equipment technology, and in particular to a smart medical device cleaning device developed using biotechnology. Background Technology

[0002] Biotechnology research and development is a technical field that uses biological, chemical, and engineering principles to modify and utilize organisms or their components to produce useful substances or provide services. In order to ensure the accuracy of various data during the biotechnology research and development process, cleaning devices are needed to clean the different intelligent instruments used, so as to ensure efficient and accurate biotechnology research and development.

[0003] In existing technologies, when cleaning intelligent instruments developed through biotechnology, water rinsing is usually used to remove various impurities attached to the instrument surface. However, during the rinsing process, when the water flows in the cleaning pool, some of the impurities that have been removed will re-attach to the instrument surface with the water flow, resulting in a significant reduction in the impurity removal rate within a single rinsing cycle. This necessitates extending the rinsing time to ensure that the cleanliness standard is met, thereby affecting the cleaning efficiency of intelligent instruments developed through biotechnology. Summary of the Invention

[0004] To address the shortcomings of existing technologies, this invention provides a smart medical device cleaning device developed using biotechnology, in order to solve the problems mentioned in the background section.

[0005] To solve the above-mentioned technical problems, the present invention is achieved through the following technical solution: This invention relates to a smart medical device cleaning device developed using biotechnology, specifically comprising: a rinsing water tank, the rinsing water tank having a rectangular structure, with a base installed at the bottom and a positioning cover installed at the top; a purified water tank installed at the rear of the rinsing water tank; a replaceable drawer slidably installed on the side of the purified water tank; a filter screen installed at the bottom of the replaceable drawer; a flow guide groove opened at the rear of the rinsing water tank; the inner side of the flow guide groove communicating with the interiors of the purified water tank and the rinsing water tank; a water flow guide plate installed at the rear inner side of the rinsing water tank; the water flow guide plate having an inclined structure, with its upper end positioned at the flow guide groove; and a... A circulating pump has an inlet pipe installed at its input end and an outlet pipe installed at its output end. The side end of the inlet pipe is connected to the side of the purified water tank. A fixed cover is installed at the side end of the outlet pipe. A drive motor is installed on the front side of the rinsing water tank, and a gear is installed on the output end of the drive motor. A rotating tube is rotatably installed on the front side of the rinsing water tank. A gear is installed on the outer side of the rotating tube, and the gear meshes with the gear at the output end of the drive motor on the front side of the rinsing water tank. The outer end of the rotating tube is rotatably installed inside the fixed cover, and a guide ring tube is installed on the inner end of the rotating tube. The guide ring tube has a ring structure, and a nozzle is provided on the side of the guide ring tube. The guide ring tube is located inside the front side of the rinsing water tank.

[0006] Furthermore, a servo motor is installed at the rear end of one side of the positioning cover, and a rotating rod is installed at the output end of the servo motor; the rotating rod is a cylindrical structure and is rotatably installed inside the positioning cover, with two gears installed on the outer side of the rotating rod; two drive cylinders are installed at the top of the positioning cover, and traction plates are installed on the output ends of the bottom of the two drive cylinders; a cleaning cover is installed at the bottom of the traction plate.

[0007] Furthermore, the cleaning cover is located inside the positioning cover, and the cleaning cover can be moved downwards to be inside the rinsing water tank; the cleaning cover is a cylindrical structure with an inner wall sandwich, a vision sensor is installed on the inner side of the cleaning cover, and protrusions are provided on the outer sides of both ends of the cleaning cover, and rotating rings are rotatably installed on the outer sides of the protrusions at both ends of the cleaning cover.

[0008] Furthermore, the rotating ring is an annular structure, and the outer side of the rotating ring is provided with a serrated structure, which meshes with the gear on the outer side of the rotating rod; two drive threaded rods one and two drive threaded rods two are rotatably installed on the two rotating rings respectively.

[0009] Furthermore, both the first and second drive threaded rods are provided with two threads in opposite directions, and the two drive threaded rods are staggered. Each of the two drive threaded rods is equipped with four movable rings. Two movable rings are installed on the threads of the two drive threaded rods, and two movable rings are slidably installed on the outside of the two drive threaded rods. The other two movable rings are installed on the threads of the two drive threaded rods, and the other two movable rings are slidably installed on the two drive threaded rods.

[0010] Furthermore, a support plate is rotatably installed between the two movable rings; a central plate is rotatably installed between the two support plates; and an elastic clamping plate is installed on the side of the central plate, wherein the elastic clamping plate has an arc-shaped structure.

[0011] Furthermore, a cleaning water tank is installed on the outside of the positioning cover; a heating pump, a water flow pump and an atomizing pump are installed in sequence on the top of the cleaning water tank, a hot air pipe is installed on the output end of the heating pump, a water flow pipe is installed on the output end of the water flow pump, and an atomizing pipe is installed on the output end of the atomizing pump.

[0012] Furthermore, control valves are installed on the hot air pipe, water pipe, and atomizing pipe, and a collecting pipe is connected to the hot air pipe, water pipe, and atomizing pipe.

[0013] Furthermore, the collecting pipe is connected to two guide pipes; the side end of the guide pipe passes through the top of the positioning cover and is fitted with a guide cover; the top of the cleaning cover is fitted with two conveying pipes.

[0014] Furthermore, the top of the conveying pipe can be inserted inside the guide shroud, and the inner side of the conveying pipe is connected to the inner wall interlayer of the cleaning shroud; the inner side of the cleaning shroud has multiple evenly distributed guide holes, wherein the inner side of the guide holes is connected to the inner wall interlayer of the cleaning shroud; after the cleaning shroud moves downward, it is positioned between the water flow guide plate and the guide ring pipe.

[0015] This invention provides a smart medical device cleaning device developed using biotechnology, which has the following beneficial effects: When in use, the drive motor drives the rotating tube and the guide ring tube to rotate through gears. The high-pressure water jet sprayed from the nozzle on the side of the guide ring tube can cover the surface of the instrument in all directions. Combined with the strong impact of the high-pressure water jet on impurities, it can quickly and thoroughly wash away the contaminants adhering to the instrument, significantly shorten the rinsing time of a single instrument, and improve the overall cleaning efficiency.

[0016] During the cleaning process, impurities generated by the high-pressure water jet are pushed backward by the water flow. At the same time, the water flow guide plate guides the water flow, directing the water carrying impurities through the guide channel into the purified water tank. The replaceable drawer filters and separates impurities in the water. The clean water is then recycled through the circulation pump to participate in the cleaning process, effectively preventing the impurities washed off from re-adhering to the surface of the instruments. This ensures the cleanliness of the cleaning process, realizes the recycling of water resources, reduces the consumption of fresh water, and lowers the water resource costs in the cleaning process.

[0017] In addition, the three-stage cleaning mode of high-pressure water flow, atomized airflow and hot airflow can be flexibly switched according to the degree of contamination of the instruments. The first stage is high-pressure water flow to powerfully remove stubborn impurities, the second stage is atomized airflow to finely cover complex structures to remove tiny residues, and the third stage is hot airflow to dry residual water droplets. Each stage is highly targeted and significantly improves the overall cleaning cleanliness.

[0018] The first stage, a water pump, provides a high-pressure water stream, which is evenly sprayed out through guide holes. The impact force of the high-pressure water stream quickly impacts stubborn contaminants on the instrument surface, efficiently completing the initial decontamination, reducing the time spent on each cleaning cycle, and improving cleaning efficiency. The second stage, an atomizing pump, generates fine and evenly distributed atomized airflow particles that can penetrate deep into the complex structure of the instrument, effectively removing tiny residual stains that the high-pressure water stream may have missed, avoiding the problem of incomplete local cleaning, and further improving the thoroughness of cleaning. The third stage, a heating pump, generates a hot airflow that can quickly evaporate residual water droplets on the instrument surface, avoiding traces or secondary pollution caused by water stains. It is suitable for precision instruments in biotechnology research and development that require high surface cleanliness. The three-stage cleaning mode can be flexibly alternated according to the type of biotechnology research and development instruments and the degree of contamination, avoiding the limitations of a single cleaning method. Attached Figure Description

[0019] To more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings of the embodiments will be briefly described below.

[0020] The accompanying drawings described below are only related to some embodiments of the invention and are not intended to limit the invention.

[0021] In the attached diagram: Figure 1 A schematic diagram of the overall structure of the present invention is shown; Figure 2 A cross-sectional view of the flushing water tank of the present invention is shown; Figure 3 A cross-sectional view of the positioning cover of the present invention is shown; Figure 4 A cross-sectional view of the cleaning hood of the present invention is shown; Figure 5 A schematic diagram of the three-dimensional structure of the movable ring of the present invention is shown; Figure 6 A three-dimensional structural diagram of the cleaning water tank of the present invention is shown; Figure 7 A three-dimensional structural diagram of the guide tube of the present invention is shown; Figure 8 A three-dimensional structural diagram of the water flow guide plate of the present invention is shown; Figure 9 A cross-sectional view of the purified water tank of the present invention is shown.

[0022] List of reference numerals 1. Rinse water tank; 101. Positioning cover; 102. Rotating rod; 103. Traction plate; 104. Cleaning cover; 105. Rotating ring; 106. Drive threaded rod one; 107. Drive threaded rod two; 108. Movable ring; 109. Support plate; 1010. Center plate; 1011. Elastic clamping plate; 2. Cleaning water tank; 201. Hot air flow pipe; 202. Water flow pipe; 203. Atomizing pipe; 204. Collecting pipe; 205. Guide pipe; 206. Guide shroud; 207. Delivery pipe; 208. Guide hole; 3. Purified water tank; 301. Replaceable drawer; 302. Flow guide channel; 303. Water flow guide plate; 304. Water inlet pipe; 305. Water outlet pipe; 306. Fixing cover; 307. Rotating pipe; 308. Flow guide ring pipe. Detailed Implementation

[0023] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of the present invention. Based on the described embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0024] Please refer to Figures 1 to 9 : Example 1: This invention proposes a special cleaning device for intelligent medical devices developed using biotechnology, comprising: a rinsing water tank 1, which has a rectangular structure and a base installed at its bottom, and a positioning cover 101 installed at its top; a servo motor is installed at the rear end of one side of the positioning cover 101, and a rotating rod 102 is installed at the output end of the servo motor; the rotating rod 102 has a cylindrical structure and is rotatably mounted inside the positioning cover 101, with two gears installed on its outer side; the top of the positioning cover 101... Two drive cylinders are installed, and traction plates 103 are installed on the output ends of the bottom of the two drive cylinders; a cleaning hood 104 is installed at the bottom of the traction plate 103; the cleaning hood 104 is located inside the positioning cover 101, and the cleaning hood 104 can move downwards to be inside the flushing water tank 1; the cleaning hood 104 is a cylindrical structure with an inner wall sandwich, a vision sensor is installed on the inner side of the cleaning hood 104, and protrusions are provided on the outer sides of both ends of the cleaning hood 104. A rotating ring 105 is rotatably installed on the outer side of the outer protrusions at both ends of the cleaning hood 104; the rotating ring 105 is a ring structure, and the rotating ring... The outer side of ring 105 has a serrated structure that meshes with the gear on the outer side of rotating rod 102. Two drive threaded rods 106 and 107 are rotatably mounted on the two rotating rings 105, respectively. Each drive threaded rod 106 and 107 has two threads in opposite directions, and these two drive threaded rods 106 and 107 are staggered. Each drive threaded rod 106 and 107 has four movable rings 108 installed on it. Two of the movable rings 108 are... Two movable rings 108 are slidably mounted on the outside of two driving threaded rods 107, and two other movable rings 108 are mounted on the threads of two driving threaded rods 107. Two other movable rings 108 are slidably mounted on two driving threaded rods 106. A support plate 109 is rotatably mounted between the two movable rings 108. A center plate 1010 is rotatably mounted between the two support plates 109. An elastic clamping plate 1011 is mounted on the side of the center plate 1010, wherein the elastic clamping plate 1011 has an arc-shaped structure.

[0025] In this embodiment of the invention, when cleaning instruments disassembled from intelligent devices used in biotechnology research and development, the front side of the positioning cover 101 has a slot to facilitate placing the instruments to be cleaned inside the cleaning cover 104. Simultaneously rotating the drive handles at the front ends of two opposing drive threaded rods 106 or 107 on the front side of the cleaning cover 104 causes the threads on the drive threaded rod 106 to move two movable rings 108 towards the center position. At this time, the two movable rings 108 slide on the drive threaded rod 107. Rotation of the drive threaded rod 107 causes the outer threads to move the other two movable rings 108. These other two movable rings 108 move along the drive threaded rod 106 towards the center position, causing the movable rings 108 to move the center plate 1010 via the support plate 109. The center plate 1010 then moves the elastic clamping plate 1011 towards the center position of the cleaning cover 104, ensuring that the instruments to be cleaned are positioned within the cleaning cover 104. In the middle position, the two drive cylinders at the top of the positioning cover 101 drive the traction plate 103 downwards. The traction plate 103 causes the instruments clamped inside the cleaning cover 104 to be immersed in the water inside the rinsing tank 1, performing preliminary rinsing of impurities on the instruments to prevent larger impurities from being difficult to clean. After the drive cylinders drive the cleaning cover 104 upwards, the two gears on the rotating rod 102 mesh with the sawtooth structure on the outside of the rotating ring 105. The servo motor on the rear side of the positioning cover 101 drives the rotating rod 102 to rotate. The two gears on the outside of the rotating rod 102 simultaneously mesh and drive the rotating ring 105 to rotate at both ends of the cleaning cover 104. This causes the rotating ring 105 to drive the two drive threaded rods 106 and 107 to rotate, allowing the clamped parts to rotate inside the cleaning cover 104 for all-round cleaning. The cleaning process is monitored by the visual sensor inside the cleaning cover 104 via online network control to ensure the cleanliness of the instruments.

[0026] In Example 2, based on Example 1, a cleaning water tank 2 is installed on the outside of the positioning cover 101; a heating pump, a water flow pump, and an atomizing pump are sequentially installed on the top of the cleaning water tank 2. A hot air flow pipe 201 is installed on the output end of the heating pump, a water flow pipe 202 is installed on the output end of the water flow pump, and an atomizing pipe 203 is installed on the output end of the atomizing pump; control valves are installed on the hot air flow pipe 201, the water flow pipe 202, and the atomizing pipe 203; a collecting pipe 204 is connected to the hot air flow pipe 201, the water flow pipe 202, and the atomizing pipe 203; two guide pipes 205 are connected to the collecting pipe 204; a guide cover 206 is installed on the side end of the guide pipe 205 penetrating the top of the positioning cover 101; the cleaning cover 104... Two delivery pipes 207 are installed at the top; the top of the delivery pipe 207 can be inserted into the inside of the guide shroud 206, and the inner side of the delivery pipe 207 is connected to the inner wall interlayer of the cleaning shroud 104; multiple evenly distributed guide holes 208 are opened on the inner side of the cleaning shroud 104, and the inner side of the guide hole 208 is connected to the inner wall interlayer of the cleaning shroud 104; after the cleaning shroud 104 moves downward, it is positioned between the water flow guide plate 303 and the guide ring pipe 308. When cleaning instruments disassembled from intelligent equipment for biotechnology research and development, the cleaning shroud 104 drives the rinsed instruments to move upward and into the positioning shroud 101, at which point the delivery pipe 207 on the cleaning shroud 104 is inserted into the inside of the guide shroud 206 and connected. The pipeline and the cleaning water tank 2 store clean cleaning water. In the first stage, the control valve on the water flow pipe 202 is opened, while the control valves on the hot air flow pipe 201 and the atomizing pipe 203 are closed. The water pump draws water through the water flow pipe 202 into the collecting pipe 204, and then through two guide pipes 205, through the guide shroud 206 and the delivery pipe 207 into the interlayer of the cleaning shroud 104. High-pressure water is sprayed out through the guide holes 208 to rinse the instruments. In the second stage, the control valve on the atomizing pipe 203 is opened, while the control valves on the hot air flow pipe 201 and the water flow pipe 202 are closed. The atomized airflow generated by the atomizing pump flows through the atomizing pipe 203 into the collecting pipe 204, and then through the two guide pipes 205... The airflow from the hood 206 and the delivery pipe 207 flows into the interlayer of the cleaning hood 104 and is sprayed out as atomized airflow through the guide hole 208 to rinse the instruments. The first and second stages can be used alternately according to the actual cleaning situation. In the third stage, the control valve on the hot airflow pipe 201 is opened, and the control valves on the water flow pipe 202 and the atomizing pipe 203 are closed. The hot airflow generated by the heating pump flows through the hot airflow pipe 201 into the collecting pipe 204, and then through the two guide pipes 205, through the guide hood 206 and the delivery pipe 207 into the interlayer of the cleaning hood 104. The hot airflow is sprayed out through the guide hole 208 to treat the water droplets remaining on the instruments, reduce the water stains left on the instruments, and improve the cleaning effect of the instruments.

[0027] In Example 3, based on Example 1, a purified water tank 3 is installed on the rear side of the rinsing water tank 1; a replaceable drawer 301 is slidably installed on the side of the purified water tank 3; a filter screen is provided at the bottom of the replaceable drawer 301; a guide channel 302 is opened on the rear side of the rinsing water tank 1; the inner side of the guide channel 302 is connected to the interior of the purified water tank 3 and the rinsing water tank 1; a water flow guide plate 303 is installed at the rear end of the inner side of the rinsing water tank 1; the water flow guide plate 303 has an inclined structure, and the upper end of the water flow guide plate 303 is located at the guide channel 302; a circulation pump is installed on the side of the rinsing water tank 1, an inlet pipe 304 is installed on the input end of the circulation pump, and an outlet pipe 305 is installed on the output end of the circulation pump; the side end of the inlet pipe 304 is connected to the purified water tank 1. The side of the tank 3 is connected; a fixed cover 306 is installed on the side end of the water outlet pipe 305; a drive motor is installed on the front side of the rinsing water tank 1, and a gear is installed on the output end of the drive motor; a rotating pipe 307 is rotatably installed on the front side of the rinsing water tank 1; a gear is installed on the outer side of the rotating pipe 307, and the gear meshes with the gear on the output end of the drive motor on the front side of the rinsing water tank 1; the outer end of the rotating pipe 307 is rotatably installed inside the fixed cover 306; a guide ring pipe 308 is installed on the inner end of the rotating pipe 307; the guide ring pipe 308 has a ring structure, and a nozzle is provided on the side of the guide ring pipe 308; the guide ring pipe 308 is located inside the front side of the rinsing water tank 1, for cleaning instruments disassembled from intelligent equipment in biotechnology research and development. At this time, the cleaning hood 104 moves the clamped instrument into the water inside the rinsing tank 1. The gear at the output end of the drive motor on the front side of the rinsing tank 1 drives the rotating tube 307 to rotate the guide ring tube 308 inside the rinsing tank 1. The circulation pump on the side of the rinsing tank 1 works, and the circulation pump draws water from the purified water tank 3 through the inlet pipe 304 and flows it through the outlet pipe 305 into the fixed cover 306. The outer end of the rotating tube 307 rotates inside the fixed cover 306, causing the water to flow through the rotating tube 307 into the guide ring tube 308 and be sprayed out through the nozzle on its side. After the water flows through the nozzle, its water pressure increases, causing the higher water pressure to rinse the impurities attached to the instrument, and the water flow pushes the rinsed impurities backward. The rotation of the guide ring pipe 308 allows the high-pressure water flow to fully cover the instruments, while the water flow guide plate 303 guides the direction of the water flow, allowing the water carrying impurities to enter the interior of the purification water tank 3 through the guide channel 302. The replaceable drawer 301 filters the impurities in the water, allowing the relatively clean water flow to collect at the bottom of the purification water tank 3. Under the action of the circulation pump, it is drawn out through the water inlet pipe 304 for circulation. Pulling out the replaceable drawer 301 can clean the filtered impurities. The entire water circulation process prevents the cleaned impurities from re-adhering to the instruments, making the water flow through the instruments more uniform, reducing the rinsing time of the instruments, and improving the overall cleaning efficiency of the instruments.

[0028] The working principle of this embodiment is as follows: The instrument to be cleaned is placed inside the cleaning hood 104. Simultaneously, the two opposing drive threaded rods 106 or 107 are rotated, causing the threads on each to move the two movable rings 108 to the center position. The movable rings 108 drive the center plate 1010 to move via the support plate 109. The center plate 1010 drives the elastic clamping plate 1011 to move towards the center position of the cleaning hood 104 to clamp and fix the instrument. The two drive cylinders at the top of the positioning cover 101 drive the cleaning hood 104 under the traction plate 103 to be immersed in the water inside the rinsing water tank 1. The gear at the output end of the drive motor on the front side of the rinsing water tank 1 drives the rotation... Rotating pipe 307 drives the guide ring pipe 308 to rotate within the rinsing water tank 1. The circulation pump on the side of the rinsing water tank 1 draws water from the purified water tank 3 through the inlet pipe 304, flows through the outlet pipe 305 to the fixed cover 306, and then through the rotating pipe 307 to the guide ring pipe 308, where it is sprayed out through the nozzle. The high water pressure rinses the impurities adhering to the instruments. The water flow pushes the rinsed impurities backward, guided by the water flow guide plate 303, and enters the purified water tank 3. The replaceable drawer 301 filters the impurities in the water. The relatively clean water flow collects at the bottom of the purified water tank 3 and circulates under the action of the circulation pump to rinse the impurities on the instruments. The drive cylinder drives the cleaning cover 1. After moving upwards, the servo motor drives the two gears on the outer side of the rotating rod 102 to mesh simultaneously, driving the rotating ring 105 to rotate. The rotating ring 105 drives the two drive threaded rods 106 and 107 to rotate, causing the clamped parts to rotate inside the cleaning hood 104. The cleaning water tank 2 stores clean cleaning water. In the first stage, the water pump draws water through the water pipe 202 to the collecting pipe 204, then through the two guide pipes 205, through the guide cover 206 and the delivery pipe 207 to the interlayer of the cleaning hood 104. High-pressure water is sprayed out through the guide hole 208 to rinse the instruments. In the second stage, the atomized airflow generated by the atomizing pump passes through... The atomizing tube 203 flows into the collecting tube 204, then through two guide tubes 205, through the guide cover 206 and the delivery tube 207, into the interlayer of the cleaning hood 104. The atomized airflow is sprayed out through the guide hole 208 to clean the instruments. The cleaning process is monitored by a visual sensor inside the cleaning hood 104 via a network control system. In the third stage, the hot airflow generated by the heating pump flows into the collecting tube 204 through the hot airflow tube 201, then through two guide tubes 205, through the guide cover 206 and the delivery tube 207, into the interlayer of the cleaning hood 104. The hot airflow is sprayed out through the guide hole 208 to treat the water droplets remaining on the instruments, reducing the number of water stains left on the instruments.

[0029] The following points should be noted in this article: 1. The accompanying drawings of the embodiments of the present invention only involve the structures involved in the embodiments of the present invention; other structures can refer to general designs.

[0030] 2. Where there is no conflict, the embodiments of the present invention and the features thereof can be combined with each other to obtain new embodiments.

[0031] The above are merely specific embodiments of the present invention, but the scope of protection of the present invention is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the technical scope disclosed in the present invention should be included within the scope of protection of the present invention. Therefore, the scope of protection of the present invention should be determined by the scope of the claims.

Claims

1. A smart medical device cleaning device developed using biotechnology, comprising: A rinsing water tank (1) is provided with a base at its bottom and a positioning cover (101) at its top. The rinsing water tank (1) is characterized by having a purification water tank (3) installed on its rear side; a replaceable drawer (301) is slidably installed on the side of the purification water tank (3); a filter screen is provided at the bottom of the replaceable drawer (301); a flow guide groove (302) is provided on the rear side of the rinsing water tank (1); the inner side of the flow guide groove (302) is connected to the interior of the purification water tank (3) and the rinsing water tank (1); a water flow guide plate (303) is installed at the rear end of the inner side of the rinsing water tank (1); the upper end of the water flow guide plate (303) is located at the flow guide groove (302); a circulation pump is installed on the side of the rinsing water tank (1), and an inlet pipe (30) is installed on the input end of the circulation pump. 4) A water outlet pipe (305) is installed on the output end of the circulating pump; the side end of the water inlet pipe (304) is connected to the side of the purified water tank (3); a fixed cover (306) is installed on the side end of the water outlet pipe (305); a drive motor is installed on the front side of the flushing water tank (1), a gear is installed on the output end of the drive motor, and a rotating pipe (307) is rotatably installed on the front side of the flushing water tank (1); a gear is installed on the outside of the rotating pipe (307), the gear meshes with the gear at the output end of the drive motor on the front side of the flushing water tank (1), the outer end of the rotating pipe (307) is rotatably installed inside the fixed cover (306), and a guide ring pipe (308) is installed on the inner end of the rotating pipe (307); a nozzle is provided on the side of the guide ring pipe (308), and the guide ring pipe (308) is located inside the front side of the flushing water tank (1).

2. The intelligent medical device cleaning device developed using biotechnology according to claim 1, characterized in that, A servo motor is installed at one rear end of the positioning cover (101), and a rotating rod (102) is installed at the output end of the servo motor; the rotating rod (102) is rotatably installed on the inside side of the positioning cover (101), and two gears are installed on the outside of the rotating rod (102); two drive cylinders are installed on the top of the positioning cover (101), and a traction plate (103) is installed on the output end of the bottom of the two drive cylinders; a cleaning cover (104) is installed at the bottom of the traction plate (103).

3. The intelligent medical device cleaning device developed using biotechnology according to claim 2, characterized in that, The cleaning cover (104) is located inside the positioning cover (101), and the cleaning cover (104) can move downward to be inside the rinsing water tank (1); the cleaning cover (104) is a cylindrical structure with an inner wall sandwich, a vision sensor is installed on the inner side of the cleaning cover (104), and protrusions are provided on the outer sides of both ends of the cleaning cover (104), and a rotating ring (105) is rotatably installed on the outer side of the protrusions on both ends of the cleaning cover (104).

4. The intelligent medical device cleaning device developed using biotechnology according to claim 3, characterized in that, The outer side of the rotating ring (105) is provided with a sawtooth structure, which meshes with the gear on the outer side of the rotating rod (102); two drive threaded rods (106) and two drive threaded rods (107) are respectively rotatably installed on the two rotating rings (105).

5. The intelligent medical device cleaning device developed using biotechnology according to claim 4, characterized in that, Both the first drive thread rod (106) and the second drive thread rod (107) are provided with two threads in opposite directions. The two first drive thread rods (106) and the two second drive thread rods (107) are staggered. Four movable rings (108) are installed on both the first drive thread rod (106) and the second drive thread rod (107). Two movable rings (108) are installed on the threads of the two first drive thread rods (106), and two movable rings (108) are slidably installed on the outside of the two second drive thread rods (107). The other two movable rings (108) are installed on the threads of the two second drive thread rods (107), and the other two movable rings (108) are slidably installed on the first drive thread rod (106).

6. The intelligent medical device cleaning device developed using biotechnology according to claim 5, characterized in that, A support plate (109) is rotatably installed between the two movable rings (108); a center plate (1010) is rotatably installed between the two support plates (109); and an elastic clamping plate (1011) is installed on the side of the center plate (1010).

7. The intelligent medical device cleaning device developed using biotechnology according to claim 6, characterized in that, A cleaning water tank (2) is installed on the outside of the positioning cover (101); a heating pump, a water flow pump and an atomizing pump are installed on the top of the cleaning water tank (2) in sequence. A hot air pipe (201) is installed on the output end of the heating pump, a water flow pipe (202) is installed on the output end of the water flow pump, and an atomizing pipe (203) is installed on the output end of the atomizing pump.

8. The intelligent medical device cleaning device developed using biotechnology according to claim 7, characterized in that, Control valves are installed on the hot air pipe (201), water pipe (202), and atomizing pipe (203), and a manifold (204) is connected to the hot air pipe (201), water pipe (202), and atomizing pipe (203).

9. The intelligent medical device cleaning device developed using biotechnology according to claim 8, characterized in that, The collecting pipe (204) is connected to two guide pipes (205); the side end of the guide pipe (205) passes through the top of the positioning cover (101) and is equipped with a guide cover (206); the top of the cleaning cover (104) is equipped with two conveying pipes (207).

10. A special cleaning device for intelligent medical devices developed using biotechnology, as described in claim 9, is characterized in that... The top of the delivery pipe (207) can be inserted into the inside of the flow guide shroud (206), and the inner side of the delivery pipe (207) is connected to the inner wall interlayer of the cleaning shroud (104); the inner side of the cleaning shroud (104) has a number of evenly distributed flow guide holes (208), wherein the inner side of the flow guide hole (208) is connected to the inner wall interlayer of the cleaning shroud (104); after the cleaning shroud (104) moves downward, it is located between the water flow guide plate (303) and the flow guide ring pipe (308).

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