Eye atomization cleaning device

Abstract

The invention relates to the technical field of eye cleaning devices, in particular to an eye atomization cleaning device which is used for solving the problem that an existing eye cleaning device is poor in using effect. The device comprises a main body, a medicine bottle is installed on the main body, an atomization cavity communicated with the medicine bottle is formed in the main body, the two sides of the atomization cavity are communicated with two atomization nozzles respectively, two grooves corresponding to the eyes are formed in the main body, and the two atomization nozzles face the two grooves respectively; the main body is provided with a booster pump communicated with the atomization cavity, the operation speed of the booster pump is gradually increased, the booster pump can drive liquid medicine in the medicine bottle to be discharged through the atomization nozzle during operation, the atomization nozzle can rotate, and when the atomization nozzle rotates, the injection pressure of the atomization nozzle is gradually increased and then reduced; according to the device, the eyes are gently flushed at low pressure, then the flushing strength is gradually improved, and finally the flushing strength is reduced, so that the flushing pressure change can meet the flushing requirement on the eyes.

Description

Technical Field

[0001] This invention relates to the field of eye cleaning device technology, specifically to an eye atomizing cleaning device. Background Technology

[0002] Eye atomizing cleaning devices are widely used in home eye care, medical eye post-operative care, and dry eye treatment as a means of cleaning the ocular surface, relieving eye discomfort, and assisting in eye care. Their core function is to atomize the medication and spray it onto the eyes to achieve ocular surface cleaning, moisturizing, or medication delivery, avoiding the direct irritation to the eyes caused by traditional eye washing methods and improving the safety and comfort of care.

[0003] Currently, existing eye atomizing cleansing devices mostly employ a constant pressure, fixed-direction spray structure. This means that after the pressurization mechanism is activated, it operates at a constant speed, providing a stable and unchanging spray pressure, while the atomizing nozzle maintains a fixed angle, continuously spraying the atomized medication onto a fixed area of ​​the eye. However, this traditional design has several drawbacks and fails to meet the refined and comfortable needs of eye care, specifically as follows: First, the existing device has a constant spray pressure, which cannot be adjusted according to the different stages of eye rinsing. The eye tissue is relatively delicate, especially the sensitive ocular mucosa. If a high pressure is used for the initial rinsing, it can easily irritate the ocular surface, causing discomfort such as a foreign body sensation and soreness. If a low-pressure rinsing is used throughout, it is difficult to effectively remove dirt, secretions, residual makeup, and other contaminants adhering to the ocular surface, resulting in poor cleaning and failing to balance comfort and cleanliness.

[0004] Secondly, the nozzles of existing devices are mostly fixed and cannot be rotated or adjusted in angle, causing the atomized medicine to always be sprayed onto the same spot on the eye. Long-term continuous rinsing will cause excessive irritation to the ocular mucosa in that area. At the same time, it is impossible to achieve a comprehensive and even rinsing of the eye, and some areas may not be thoroughly cleaned, which will further affect the care effect.

[0005] In addition, although some existing improved devices attempt to adjust the spray pressure, they mostly use simple gear switching methods, resulting in abrupt pressure changes that cannot achieve a smooth pressure transition. Furthermore, they are not designed in conjunction with the movement of the atomizing nozzle, which leads to uneven distribution of the medicine and eye irritation during the rinsing process. At the same time, the utilization rate of the medicine is low, and it is easy for the medicine to accumulate and overflow, resulting in waste of medicine. Summary of the Invention

[0006] This invention provides an eye atomizing cleaning device to solve the problem of poor performance of existing eye cleaning devices.

[0007] To alleviate the above-mentioned technical problems, the technical solution provided by the present invention is as follows: An eye atomizing cleaning device includes a main body, on which a medicine bottle is mounted, and an atomizing chamber communicating with the medicine bottle is opened inside the main body. Two atomizing nozzles are respectively connected to both sides of the atomizing chamber. Two grooves corresponding to the eyes are opened on the main body, and the two atomizing nozzles face the two grooves respectively. The main body is equipped with a booster pump that communicates with the atomizing chamber. The operating speed of the booster pump gradually increases. When the booster pump is running, it can drive the liquid medicine in the medicine bottle to be discharged through the atomizing nozzle. The atomizing nozzle can rotate. When the atomizing nozzle rotates, the spray pressure of the atomizing nozzle gradually increases and then decreases.

[0008] Furthermore, a pipe is connected to the atomizing chamber, and the atomizing nozzle is rotatably connected to the end of the pipe. A control plate is slidably connected to the pipe, and the control plate has a first through hole and a second through hole. In the initial state, the first through hole is coaxial with the pipe. When the atomizing nozzle rotates, the control plate slides, so that the second through hole gradually moves to be coaxial with the pipe, and the operating speed of the booster pump gradually increases, thereby the spray pressure of the atomizing nozzle gradually increases and then decreases.

[0009] Furthermore, a rack is slidably connected inside the main body, a gear that meshes with the rack is coaxially fixedly connected to the atomizing nozzle, and the control plate is fixedly connected to the rack; The rack has a protruding plate on its side wall, and a sliding cavity that cooperates with the protruding plate is opened in the main body. A pressure transmission pipe is connected between the bottom of the sliding cavity and the atomizing cavity. When the operating speed of the booster pump increases, the pressure can be transmitted to the sliding cavity, thereby driving the protruding plate to drive the rack to slide.

[0010] Furthermore, a cylindrical rod is fixedly connected to the convex plate, and a hole is provided on the main body that fits the cylindrical rod with a clearance, so that the rack can be reset when the cylindrical rod is pressed down.

[0011] Furthermore, the main body is provided with an internally threaded cylinder for installing the medicine bottle, and the main body has a drug delivery channel connecting the internally threaded cylinder and the nebulization chamber.

[0012] Furthermore, a cone block is inserted into the drug delivery channel, and a support is fixedly connected to the drug delivery channel. The cone block is slidably connected to the support, and a tension spring is connected between the cone block and the support. When the operating speed of the booster pump increases, the pressure pushes the cone block upward, thereby increasing the amount of liquid medicine flowing from the medicine bottle to the nebulization chamber.

[0013] Furthermore, an ultrasonic atomizing plate is installed on the bottom wall of the atomizing chamber. When the liquid level in the atomizing chamber is lower than the connection point between the atomizing chamber and the pipe, the atomized drug mist is discharged through the atomizing nozzle. When the liquid level in the atomizing chamber is not lower than the connection point between the atomizing chamber and the pipe, the drug liquid is directly discharged from the pipe and atomized by the atomizing nozzle before being sprayed out.

[0014] Furthermore, the booster pump is connected to an exhaust pipe and an intake pipe, the exhaust pipe being connected to the atomizing chamber and the intake pipe being connected to the external space.

[0015] Furthermore, a heating wire is provided on the air intake pipe, and a sliding switch for controlling the heating wire is provided on the main body. When the cylindrical rod slides, it can drive the sliding switch to increase the power of the heating wire.

[0016] Furthermore, a filter cotton is installed inside the air intake pipe.

[0017] The beneficial effects of this invention are analyzed as follows: An eye atomizing cleaning device includes a main body with a medicine bottle mounted on it. An atomizing chamber communicating with the medicine bottle is opened inside the main body. Two atomizing nozzles are connected to both sides of the atomizing chamber. Two grooves corresponding to the eyes are opened on the main body, with the two atomizing nozzles facing the two grooves respectively. A booster pump communicating with the atomizing chamber is installed on the main body. The operating speed of the booster pump gradually increases. When the booster pump is running, it can drive the liquid medicine in the medicine bottle to be discharged through the atomizing nozzles. The atomizing nozzles can rotate, and the spray pressure of the atomizing nozzles gradually increases and then decreases as the nozzles rotate.

[0018] When using the product, fill the eye-cleansing solution into the bottle, then attach the bottle to the main unit. The solution flows into the atomizing chamber for atomization. Activating the booster pump pressurizes the atomizing chamber, driving the atomized solution through the nozzle. The atomized solution initially provides a gentle, impactful cleanse to the eyes. As the booster pump's speed gradually increases, the pressure simultaneously drives the atomizing nozzle to rotate, preventing continuous rinsing of a single area of ​​the eye. Simultaneously, the increasing pump speed atomizes the solution more effectively. The spray pressure from the nozzle gradually increases, enhancing the rinsing pressure on the eyes. In the later stages of rinsing, the spray pressure from the atomizing nozzle decreases again to finish the rinsing process. Even after the rinsing pressure decreases in the later stages, it is still higher than the initial rinsing pressure. This can be achieved by maintaining the operating speed of the booster pump and gradually increasing it, while changing the cross-section of the atomized mist flow channel from large to small and then back to large. By first rinsing the eyes gently with low pressure, then gradually increasing the rinsing intensity, and finally decreasing the rinsing intensity, the pressure changes can be adapted to the rinsing requirements of the eyes. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is a schematic diagram of the main body structure of the present invention; Figure 3 This is a cross-sectional view of the main body of the invention; Figure 4 For the present invention Figure 3 A schematic diagram of the structure of part A; Figure 5 This is a schematic diagram of the rack structure of the present invention; Figure 6 This is a schematic diagram of the structure of the control board of the present invention; Figure 7 This is a schematic diagram of the booster pump of the present invention; Figure 8 This is a schematic diagram of the cylindrical rod of the present invention.

[0020] In the diagram: 100, main body; 110, elastic band; 120, groove; 130, internally threaded cylinder; 131, medicine bottle; 140, drug delivery channel; 141, support; 142, cone block; 143, tension spring; 200, atomizing chamber; 201, ultrasonic atomizing plate; 210, pipe; 220, control board; 221, first through hole; 222, second through hole; 230, atomizing nozzle; 240, gear; 250, rack; 251, convex plate; 260, pressure transmission tube; 300, booster pump; 310, exhaust pipe; 320, air inlet pipe; 330, cylindrical rod. Detailed Implementation

[0021] 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 embodiments of the present invention, and not all embodiments. Based on the 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.

[0022] Examples, such as Figures 1-8As shown, an eye atomizing cleaning device includes a main body 100, on which a medicine bottle 131 is mounted. An atomizing chamber 200 communicating with the medicine bottle 131 is formed inside the main body 100. Two atomizing nozzles 230 are connected to both sides of the atomizing chamber 200. Two grooves 120 corresponding to the eyes are formed on the main body 100, with the two atomizing nozzles 230 facing the two grooves 120 respectively. A booster pump 300 communicating with the atomizing chamber 200 is mounted on the main body 100. The operating speed of the booster pump 300 gradually increases. When the booster pump 300 is running, it can drive the liquid medicine in the medicine bottle 131 to be discharged through the atomizing nozzles 230. The atomizing nozzles 230 can rotate, and when they rotate, the spray pressure of the atomizing nozzles 230 gradually increases and then decreases.

[0023] An elastic band 110 is installed on the main body 100. The elastic band 110 and the main body 100 form a circle. The main body 100 is placed on the face, and the elastic band 110 is placed on the head for wearing. The groove 120 is aligned with the eyes. The groove 120 is designed so that the eyes are not pressured. An atomizing nozzle 230 is installed in the groove 120. In use, the eye-cleansing solution is poured into the medicine bottle 131, and then the medicine bottle 131 is installed onto the main body 100. The solution in the medicine bottle 131 can flow into the atomizing chamber 200 for atomization. After the booster pump 300 is started, the atomizing chamber 200 is pressurized. The pressure drives the atomized solution to be sprayed out through the atomizing nozzle 230. The atomized solution first provides a gentle impact cleanse to the eyes. As the operating speed of the booster pump 300 gradually increases, the pressure of the booster pump 300 simultaneously drives the atomizing nozzle 230 to rotate, avoiding fogging. The nozzle 230 continuously rinses a single area of ​​the eye. At the same time, as the speed of the booster pump 300 gradually increases, the spray pressure of the nozzle 230 gradually increases, increasing the rinsing pressure on the eye. In the later stage of rinsing, the spray pressure of the nozzle 230 decreases again to finish the rinsing. The rinsing pressure in the later stage is still higher than the initial rinsing pressure. This can be achieved by maintaining the operating speed of the booster pump 300 in a state of gradually increasing, and changing the cross-section of the drug mist flow channel from large to small and then back to large. The booster pump 300 has a maximum operating speed, and once the operating speed of the booster pump 300 reaches the maximum speed, it will not increase further. By first rinsing the eyes gently with low pressure, then gradually increasing the rinsing intensity, and finally decreasing the rinsing intensity, the pressure changes can be adapted to the rinsing requirements of the eyes.

[0024] A pipe 210 is connected to the atomizing chamber 200. The atomizing nozzle 230 is rotatably connected to the end of the pipe 210. A control plate 220 is slidably connected to the pipe 210. The control plate 220 has a first through hole 221 and a second through hole 222. In the initial state, the first through hole 221 is coaxial with the pipe 210. When the atomizing nozzle 230 rotates, the control plate 220 slides, so that the second through hole 222 gradually moves to be coaxial with the pipe 210, and the operating speed of the booster pump 300 gradually increases, so that the spray pressure of the atomizing nozzle 230 gradually increases and then decreases.

[0025] Pipe 210 connects the atomizing chamber 200 and the atomizing nozzle 230. The atomizing nozzle 230 can rotate relative to pipe 210. When the atomizing nozzle 230 rotates, it can drive the control plate 220 to slide. In the initial state, the first through hole 221 on the control plate 220 is coaxial with pipe 210. At this time, the flow channel of the drug mist is at its maximum. As the control plate 220 continues to slide, the overlapping part of the first through hole 221 and pipe 210 gradually decreases, thereby reducing the cross-section of the flow channel of the drug mist. As the control plate 220 continues to slide, the second through hole 222 can gradually move to a position coaxial with pipe 210, thereby causing the opening of pipe 210 to change from large to small and then back to large. Combined with the gradually increasing operating speed of booster pump 300, the injection pressure of atomizing nozzle 230 gradually increases and then decreases.

[0026] A rack 250 is slidably connected inside the main body 100. A gear 240 that meshes with the rack 250 is coaxially fixedly connected to the atomizing nozzle 230. The control plate 220 is fixedly connected to the rack 250. A protruding plate 251 is provided on the side wall of the rack 250. A sliding cavity that cooperates with the protruding plate 251 is opened inside the main body 100. A pressure transmission pipe 260 is connected between the bottom of the sliding cavity and the atomizing cavity 200. When the operating speed of the booster pump 300 increases, the pressure can be transmitted to the sliding cavity, thereby driving the protruding plate 251 to drive the rack 250 to slide.

[0027] As the operating speed of the booster pump 300 increases, the pressure applied to the atomizing chamber 200 gradually increases. At this time, the pressure can be transmitted to the sliding chamber, causing the convex plate 251 to drive the rack 250 to slide. At this time, the rack 250 drives the atomizing nozzle 230 to rotate, realizing the dynamic spraying of the atomizing nozzle 230. At the same time, the rack 250 drives the control plate 220 to slide, thereby changing the spray pressure of the atomizing nozzle 230.

[0028] A cylindrical rod 330 is fixedly connected to the convex plate 251. The main body 100 has a hole that fits the cylindrical rod 330 with a clearance. When the cylindrical rod 330 is pressed down, the rack 250 can be reset.

[0029] When the rack 250 moves upward, the cylindrical rod 330 moves upward synchronously. After rinsing, the device needs to be reset, or the rinsing pressure needs to be adjusted. The rack 250 drive control plate 220 can be moved and reset by manually pressing the cylindrical rod 330 or moving the rack 250 downward, thereby resetting the device. When the rack 250 is driven downward but not completely reset, the end cross-section of the pipe 210 can be reduced, thereby increasing the spray pressure.

[0030] The main body 100 is provided with an internally threaded cylinder 130 for installing a medicine bottle 131, and the main body 100 is provided with a drug delivery channel 140 that connects the internally threaded cylinder 130 and the nebulizer chamber 200.

[0031] The medicine bottle 131 is provided with an external thread that mates with the internal threaded cylinder 130. The two are connected by a thread, and a sealing ring is installed on the internal threaded cylinder 130 or the medicine bottle 131 to prevent the medicine from leaking. After the medicine bottle 131 is installed, the internal medicine can flow out.

[0032] A cone block 142 is inserted into the drug delivery channel 140, and a bracket 141 is fixedly connected inside the drug delivery channel 140. The cone block 142 is slidably connected to the bracket 141, and a tension spring 143 is connected between the cone block 142 and the bracket 141. When the operating speed of the booster pump 300 increases, the pressure pushes the cone block 142 upward, thereby increasing the amount of liquid medicine flowing from the medicine bottle 131 to the atomizing chamber 200.

[0033] When the booster pump 300 pressurizes the atomizing chamber 200, the depressurization rate of the atomizing nozzle 230 is less than but close to the boosting rate, thus maintaining a positive pressure in the atomizing chamber 200. This positive pressure acts on the cone 142, causing it to overcome the tension of the tension spring 143 and move upward. At this time, the drug delivery channel 140 opens, and the liquid drug enters the atomizing chamber 200. Furthermore, as the operating speed of the booster pump 300 increases, the positive pressure in the atomizing chamber 200 increases, causing the cone 142 to move upward a greater distance and at a greater frequency. This increases the flow rate of the liquid drug into the atomizing chamber 200, thereby increasing the amount of liquid drug sprayed from the atomizing nozzle 230. This ensures that even when the spray pressure increases, the amount of liquid drug can be supplied in a timely manner.

[0034] An ultrasonic atomizing plate 201 is installed on the bottom wall of the atomizing chamber 200. When the liquid level in the atomizing chamber 200 is lower than the connection position between the atomizing chamber 200 and the pipe 210, the drug mist atomized by the ultrasonic atomizing plate 201 is discharged through the atomizing nozzle 230. When the liquid level in the atomizing chamber 200 is not lower than the connection position between the atomizing chamber 200 and the pipe 210, the drug liquid is directly discharged from the pipe 210 and atomized by the atomizing nozzle 230 before being sprayed out.

[0035] The ultrasonic atomizing plate 201 inside the atomizing chamber 200 atomizes the liquid medicine entering the atomizing chamber 200. The booster pump 300 pressurizes the atomizing chamber 200, causing the liquid medicine to be sprayed onto the eyes through the atomizing nozzle 230, forming an initial gentle rinse. As the operating speed of the booster pump 300 increases, the amount of liquid medicine discharged into the atomizing chamber 200 increases. When the liquid medicine level is not lower than the connection position between the atomizing chamber 200 and the pipe 210, the pressure drives the liquid medicine to be discharged through the pipe 210. At this time, the pressure of the booster pump 300 is high enough to push the liquid medicine out of the atomizing nozzle 230 with sufficient pressure and atomize it. At this time, the pressure sprayed onto the eyes is increased. Later, the liquid medicine in the medicine bottle 131 is emptied, and the pressure generated by the booster pump 300 can only push out the liquid medicine atomized by the ultrasonic atomizing plate 201, thereby reducing the impact force of the liquid medicine sprayed from the atomizing nozzle 230 in the final stage.

[0036] The booster pump 300 is connected to an exhaust pipe 310 and an intake pipe 320. The exhaust pipe 310 is connected to the atomizing chamber 200, and the intake pipe 320 is connected to the external space.

[0037] The booster pump 300 draws in external air and injects it into the atomizing chamber 200, which increases the pressure inside the atomizing chamber 200, thereby allowing the drug mist or liquid to be discharged.

[0038] A heating wire is installed on the air intake pipe 320, and a sliding switch for controlling the heating wire is installed on the main body 100. When the cylindrical rod 330 slides, it can drive the sliding switch to increase the power of the heating wire.

[0039] The heating wire on the air inlet pipe 320 heats the air entering the atomizing chamber 200, ensuring that the temperature of the medicine sprayed onto the eyes is not too low. In addition, the heating wire is equipped with an independent switch to control whether the heating wire operates according to the ambient temperature. If the heating wire is running, the upward movement of the cylindrical rod 330 during device operation will cause the slider of the sliding switch to slide, thereby increasing the opening degree of the sliding switch and increasing the power of the heating wire. This ensures that there is enough heat to raise the temperature of a large amount of liquid when the liquid injection volume increases.

[0040] The intake pipe 320 is equipped with a filter.

[0041] The filter cotton is designed to filter the air entering the atomizing chamber 200, preventing impurities from entering the atomizing chamber 200 and contaminating the liquid medicine. The filter cotton can be made of sponge, activated carbon, or other filter membranes that can isolate microorganisms and viruses, or the device can be used in a sterile environment.

[0042] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An eye atomizing cleaning device, characterized in that: The device includes a main body (100), on which a medicine bottle (131) is mounted. An atomizing chamber (200) communicating with the medicine bottle (131) is opened inside the main body (100). Two atomizing nozzles (230) are respectively connected to the two sides of the atomizing chamber (200). Two grooves (120) corresponding to the eyes are opened on the main body (100), and the two atomizing nozzles (230) face the two grooves (120) respectively. A booster pump (300) connected to the atomizing chamber (200) is installed on the main body (100). The operating speed of the booster pump (300) gradually increases. When the booster pump (300) is running, it can drive the liquid medicine in the medicine bottle (131) to be discharged through the atomizing nozzle (230). The atomizing nozzle (230) can rotate. When the atomizing nozzle (230) rotates, the spray pressure of the atomizing nozzle (230) gradually increases and then decreases.

2. The eye atomizing cleaning device according to claim 1, characterized in that: The atomizing chamber (200) is connected to a pipe (210), and the atomizing nozzle (230) is rotatably connected to the end of the pipe (210). A control plate (220) is slidably connected to the pipe (210). The control plate (220) has a first through hole (221) and a second through hole (222). In the initial state, the first through hole (221) is coaxial with the pipe (210). When the atomizing nozzle (230) rotates, the control plate (220) slides, so that the second through hole (222) gradually moves to be coaxial with the pipe (210), and the operating speed of the booster pump (300) gradually increases, so that the injection pressure of the atomizing nozzle (230) gradually increases and then decreases.

3. The eye atomizing cleaning device according to claim 2, characterized in that: A rack (250) is slidably connected inside the main body (100), and a gear (240) that meshes with the rack (250) is coaxially fixedly connected to the atomizing nozzle (230). The control plate (220) is fixedly connected to the rack (250). The rack (250) has a protruding plate (251) on its side wall. The main body (100) has a sliding cavity that cooperates with the protruding plate (251). The bottom of the sliding cavity is connected to the atomizing cavity (200) by a pressure transmission pipe (260). When the operating speed of the booster pump (300) increases, the pressure can be transmitted to the sliding cavity, thereby driving the protruding plate (251) to drive the rack (250) to slide.

4. The eye atomizing cleaning device according to claim 3, characterized in that: A cylindrical rod (330) is fixedly connected to the convex plate (251). The main body (100) has a hole that fits the cylindrical rod (330) with a clearance. When the cylindrical rod (330) is pressed down, the rack (250) can be reset.

5. The eye atomizing cleaning device according to claim 1, characterized in that: The main body (100) is provided with an internally threaded cylinder (130) for installing the medicine bottle (131), and the main body (100) is provided with a drug delivery channel (140) connecting the internally threaded cylinder (130) and the nebulizer (200).

6. The eye atomizing cleaning device according to claim 5, characterized in that: A cone block (142) is inserted into the drug delivery channel (140), and a bracket (141) is fixedly connected inside the drug delivery channel (140). The cone block (142) is slidably connected to the bracket (141), and a tension spring (143) is connected between the cone block (142) and the bracket (141). When the operating speed of the booster pump (300) increases, the pressure pushes the cone block (142) upward, thereby increasing the amount of liquid medicine flowing from the medicine bottle (131) to the atomizing chamber (200).

7. The eye atomizing cleaning device according to claim 2, characterized in that: An ultrasonic atomizing plate (201) is installed on the bottom wall of the atomizing chamber (200). When the liquid level in the atomizing chamber (200) is lower than the connection position between the atomizing chamber (200) and the pipe (210), the drug mist atomized by the ultrasonic atomizing plate (201) is discharged through the atomizing nozzle (230). When the liquid level in the atomizing chamber (200) is not lower than the connection position between the atomizing chamber (200) and the pipe (210), the drug liquid is directly discharged from the pipe (210) and sprayed out after being atomized by the atomizing nozzle (230).

8. The eye atomizing cleaning device according to claim 4, characterized in that: The booster pump (300) is connected to an exhaust pipe (310) and an intake pipe (320). The exhaust pipe (310) is connected to the atomizing chamber (200), and the intake pipe (320) is connected to the external space.

9. The eye atomizing cleaning device according to claim 8, characterized in that: A heating wire is provided on the air intake pipe (320), and a sliding switch for controlling the heating wire is provided on the main body (100). When the cylindrical rod (330) slides, it can drive the sliding switch to increase the power of the heating wire.

10. The eye atomizing cleaning device according to claim 8, characterized in that: The air intake pipe (320) is equipped with filter cotton.

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