An eye massager

Abstract

The utility model relates to massaging equipment technical field, concretely is an eye massage instrument, through setting up mist reflection part in one side of atomization channel, can produce atomization gas when the atomization generator normal operation, atomization gas passes through the air outlet and atomization inlet gas and enters atomization channel and moves along atomization channel extension direction, under the guidance of atomization channel, atomization gas moves to mist reflection part, mist reflection part can block the advancing direction of atomization gas and change the moving track of atomization gas, under the action of mist reflection part, atomization gas moves to mist air outlet 31, thereby acts on user eye area, mist reflection part can reflect atomization gas to change the moving speed and spray pressure of atomization gas, effectively solved the existing eye massage instrument spouted water mist direct impact user eye area, not only has not realized soft comfortable moistening effect, still easily caused user eye's discomfort, the problem of influence user experience feeling.

Description

Technical Field

[0001] This utility model relates to the field of massage equipment technology, specifically an eye massager. Background Technology

[0002] With changing modern lifestyles and the widespread use of electronic devices, people spend long hours in front of computer and mobile phone screens, leading to increasingly prominent problems such as dry and tired eyes. To alleviate these eye discomforts, eye massagers have emerged. These devices use atomization technology to transform moisture or eye drops into tiny mists, which are then sprayed onto the eyes to help restore moisture, relieve eye fatigue, and improve visual comfort.

[0003] Existing eye massagers typically cannot adjust the pressure of the water mist spray, causing the sprayed water mist to directly impact the user's eye area. This not only fails to achieve a gentle and comfortable moisturizing effect but also easily causes discomfort to the user's eyes, affecting the user's experience.

[0004] This utility model was proposed in response to the shortcomings of the existing technology. Utility Model Content

[0005] Regarding the aforementioned problem that existing eye massagers spray water mist that directly impacts the user's eye area, failing to achieve a gentle and comfortable moisturizing effect and easily causing eye discomfort and affecting the user experience, the technical solution adopted by this utility model to solve this problem is:

[0006] An eye massager includes an atomizing structure connected to the air outlet of an atomizing generator. The atomizing structure includes an atomizing air inlet connected to the air outlet, a mist outlet connected to the outside, and an atomizing channel connecting the atomizing air inlet and the mist outlet. At least one mist reflecting part is provided on the atomizing channel, which is used to reflect the atomized gas in the atomizing channel at least once and then deliver it to the outside through the mist outlet.

[0007] Furthermore, the fog reflector includes a fog reflector sheet connected to the atomizing channel, and a connecting mechanism is provided between the fog reflector sheet and the atomizing channel. The fog reflector sheet is detachably connected to the atomizing channel through the connecting mechanism.

[0008] Furthermore, the atomizing channel extends horizontally and is inclined toward the side closer to the mist outlet, and the mist reflector extends vertically and is inclined toward the side closer to the mist outlet.

[0009] Furthermore, the connecting mechanism includes a mounting groove located on the side of the atomizing channel away from the mist outlet, and a mounting protrusion located on the mist reflector. The mounting protrusion extends into the mounting groove so that the atomizing channel restricts the mounting position of the mist reflector.

[0010] Furthermore, a return groove is provided between the fog reflector and the atomization channel. The fog reflector includes a fog deflection surface located on the return groove. The atomized gas ejected from the jet nozzle moves towards the fog outlet through the fog deflection surface.

[0011] Furthermore, the mist reflection surface is inclined from the inside of the atomization channel to the outside of the atomization channel, and the mist reflection surface is arc-shaped.

[0012] Furthermore, the atomizing channel includes a first transmission surface arranged in a horizontal direction, a second transmission surface arranged corresponding to the first transmission surface, and a third clearance surface arranged in a vertical direction between the first transmission surface and the second transmission surface. The third clearance surface is arc-shaped and has the same curvature angle as the mist reflection surface.

[0013] Furthermore, the two ends of the third clearance surface are inclinedly connected to the first transmission surface and the second transmission surface respectively, forming rounded corners.

[0014] Furthermore, the fog reflector is integrally formed.

[0015] Furthermore, the atomizing structure is symmetrically arranged on both sides of the atomizing generator.

[0016] The beneficial effects of this utility model are as follows:

[0017] This invention features a mist reflector on one side of the atomizing channel. When the atomizer operates normally, it generates atomized gas. The atomized gas enters the atomizing channel through the jet nozzle and the atomizing air inlet and moves along the extension direction of the atomizing channel. Guided by the atomizing channel, the atomized gas moves to the mist reflector, which blocks the forward direction of the atomized gas and changes its trajectory. Under the action of the mist reflector, the atomized gas moves to the mist outlet 31, thus acting on the user's eye area. The mist reflector reflects the atomized gas, thereby changing its movement speed and spray pressure. This effectively solves the problem that existing eye massagers spray water mist that directly impacts the user's eye area, failing to achieve a gentle and comfortable moisturizing effect and easily causing discomfort to the user's eyes, thus affecting the user experience.

[0018] The present invention will be further described below with reference to the accompanying drawings and specific embodiments. Attached Figure Description

[0019] Figure 1 This is one of the structural schematic diagrams and a partial enlarged view of the eye massager of this utility model;

[0020] Figure 2 This is the second structural schematic diagram of the eye massager of this utility model;

[0021] Figure 3 for Figure 2 Cross-sectional view along line AA;

[0022] Figure 4 for Figure 3 An enlarged view of section B marked thereon;

[0023] Figure 5 This is a third schematic diagram and a partial enlarged view of the structure of the eye massager of this utility model;

[0024] Figure 6 This is the fourth structural schematic diagram and a partial enlarged view of the eye massager of this utility model. Detailed Implementation

[0025] The embodiments of this utility model will now be described in detail with reference to the accompanying drawings.

[0026] like Figures 1 to 6 An eye massager is shown, including an atomizing structure connected to the air outlet 21 of an atomizer 2. The atomizing structure includes an atomizing air inlet connected to the air outlet 21, a mist outlet 31 connected to the outside, and an atomizing channel 3 connecting the atomizing air inlet and the mist outlet 31. At least one mist reflecting part is provided on the atomizing channel 3. The mist reflecting part is used to reflect the atomized gas in the atomizing channel 3 at least once and then deliver it to the outside through the mist outlet 31.

[0027] This invention features a mist reflector on one side of the atomizing channel. When the atomizer operates normally, it generates atomized gas. The atomized gas enters the atomizing channel through the jet nozzle and the atomizing air inlet and moves along the extension direction of the atomizing channel. Guided by the atomizing channel, the atomized gas moves to the mist reflector, which blocks the forward direction of the atomized gas and changes its trajectory. Under the action of the mist reflector, the atomized gas moves to the mist outlet 31, thus acting on the user's eye area. The mist reflector reflects the atomized gas, thereby changing its movement speed and spray pressure. This effectively solves the problem that existing eye massagers spray water mist that directly impacts the user's eye area, failing to achieve a gentle and comfortable moisturizing effect and easily causing discomfort to the user's eyes, thus affecting the user experience.

[0028] Furthermore, traditional eye massagers often spray water mist directly onto the user's eyes. The fine water mist spreads in a straight line, resulting in some areas of the user's eyes not being affected by the mist. However, this invention sets a mist reflector at one end of the atomization channel 3. Under the action of the mist reflector, part of the atomized air changes its trajectory and moves to the mist outlet 31, thus acting on the user's eye area. Another part of the atomized air bounces back towards the atomization channel 3 after encountering the mist reflector. The atomization channel 3 and the mist reflector work together to form a swirling airflow, preventing the atomized air from spreading to both sides. This allows the water mist to fill the entire atomization channel 3 and gather at the mist outlet 31 to the user's eye area, achieving a uniform spray effect.

[0029] Furthermore, the atomizer 2 is located in the middle of the eye massager, and the atomizing channels 3 are symmetrically arranged on both sides of the atomizer 2 in the horizontal direction. The spray nozzle 21 is correspondingly arranged with the atomizing channels 3 and sprays in the direction of extension of the atomizing channels 3.

[0030] Optionally, in some embodiments, the mist reflector is integrally formed with the atomizing channel 3 and located at the end of the atomizing channel 3. The mist reflector is disposed opposite to the spray nozzle 21. The integral forming makes the connection between the mist reflector and the atomizing channel 3 more secure and less prone to loosening or falling off. In addition, it helps to reduce the gap between the mist reflector and the atomizing channel 3, thereby reducing the risk of atomized gas leakage.

[0031] Furthermore, as a preferred embodiment of the present invention and not a limitation thereof, the fog reflector includes a fog reflector 4, which is detachably connected to the atomization channel 3.

[0032] like Figures 1 to 6 The fog reflector shown includes a fog reflector 4 connected to the atomization channel 3. A connecting mechanism 5 is provided between the fog reflector 4 and the atomization channel 3. The fog reflector 4 is detachably connected to the atomization channel 3 through the connecting mechanism 5.

[0033] Furthermore, since the fog reflector 4 is in direct contact with the atomized gas, it is prone to accumulating residues or breeding bacteria. The detachable connection allows users to easily remove the fog reflector 4 for thorough cleaning and disinfection, which helps ensure the hygiene and safety of the equipment. Secondly, the detachable connection also facilitates the replacement of the fog reflector 4. When the fog reflector 4 becomes worn or aged, users can replace it with a new one in a timely manner, thus maintaining the optimal performance of the equipment.

[0034] Optionally, the fog reflector 4 can be made of an elastic material, such as silicone, natural rubber or synthetic rubber.

[0035] Optionally, in some embodiments, the connecting mechanism 5 includes a first threaded hole on the atomizing channel 3 and a second threaded hole on the fog reflector 4, the first threaded hole and the second threaded hole being threadedly connected so that the fog reflector 4 and the atomizing channel 3 are detachably connected.

[0036] Optionally, in some embodiments, the connecting mechanism 5 includes a mounting buckle on the atomizing channel 3 and a mounting slot on the fog reflector 4, the mounting buckle and the mounting slot being connected to each other so that the fog reflector 4 and the atomizing channel 3 can be detachably connected.

[0037] Optionally, in some embodiments, the connecting mechanism 5 includes a mounting groove on the atomizing channel 3 and a mounting rail on the fog reflector 4, wherein the mounting groove and the mounting rail are slidably connected so that the fog reflector 4 and the atomizing channel 3 are detachably connected.

[0038] Furthermore, as a preferred embodiment of the present invention and not a limitation thereof, the connecting mechanism 5 includes a mounting groove 51 on the atomizing channel 3 and a mounting protrusion 52 on the fog reflector 4. The mounting groove 51 and the mounting protrusion 52 are inserted into each other to allow the fog reflector 4 and the atomizing channel 3 to be detachably connected.

[0039] like Figures 1 to 6 The atomizing channel 3 shown extends horizontally and is inclined toward the side closer to the mist outlet 31, and the mist reflector 4 extends vertically and is inclined toward the side closer to the mist outlet 31.

[0040] Furthermore, the atomizing channel 3 extends horizontally and is inclined toward the side closer to the mist outlet 31, which helps guide the atomized gas to flow along a smoother path and reduces the stagnation and accumulation of atomized gas in the channel.

[0041] Furthermore, the fog reflector 4 extends vertically and is inclined toward the side closer to the fog outlet 31, which helps to change the flow direction of the atomized gas, allowing the atomized gas to move more concentratedly toward the fog outlet 31, thus helping to improve the utilization efficiency of the atomized gas.

[0042] Furthermore, the atomizing channel 3 and the fog reflector 4 are tilted so that the shape of the fog outlet 31 can be more naturally aligned with the user's eye area, making the fog outlet 31 more compatible with the eye area and reducing the waste of atomized gas and unnecessary diffusion.

[0043] like Figures 1 to 6The connecting mechanism 5 shown includes a mounting groove 51 located on the side of the atomizing channel 3 away from the mist outlet 31, and a mounting protrusion 52 located on the mist reflector 4. The mounting protrusion 52 extends into the mounting groove 51 so that the atomizing channel 3 restricts the mounting position of the mist reflector 4.

[0044] Furthermore, the mounting protrusion 52 and the mounting groove 51 cooperate to make the installation of the fog reflector 4 simple and quick. The user only needs to align the mounting protrusion 52 with the mounting groove 51 and push it in, without complicated fixing steps or tools.

[0045] Furthermore, after the installation protrusion 52 extends into the installation groove 51, it can precisely limit the position of the mist reflector 4, ensuring that the relative position of the mist reflector 4 and the atomization channel 3 is accurate. This helps to ensure that the spray path and distribution of the atomized gas meet the expected design, thereby improving the performance.

[0046] Furthermore, the mounting groove 51 is located on the side of the atomizing channel 3 away from the mist outlet 31, that is, the mounting groove 51 is located on the back side of the atomizing channel 3. The mounting protrusion 52 on the mist reflector 4 extends from the back side of the atomizing channel 3 into the mounting groove 51 and moves towards the mist outlet 31, so that the connecting mechanism 5 is hidden on the back side of the atomizing channel 3. During normal use, the user cannot see the setting of the connecting mechanism 5, which helps to improve the overall aesthetics of the device.

[0047] like Figures 1 to 6 A return groove 6 is provided between the fog reflector 4 and the atomizing channel 3 shown. The fog reflector 4 includes a fog reflection surface 41 located on the return groove 6. The atomized gas ejected from the jet nozzle 21 moves toward the fog outlet 31 through the fog reflection surface 41.

[0048] Optionally, in some embodiments, the cross-section between the return groove 6 and the atomizing channel 3 is rectangular. When the atomized gas sprayed from the spray nozzle 21 encounters the mist return surface 41 on the return groove 6, most of the atomized gas bounces back to the atomizing channel 3 and moves towards the spray nozzle 21, thereby forming a swirling airflow. This is beneficial for the water mist to fill the entire atomizing channel 3 and gather in the user's eye area through the mist outlet 31, achieving a uniform spray effect.

[0049] Furthermore, as a preferred embodiment of this utility model and not a limitation thereof, the return channel 6 is arc-shaped, and the cross-section of the return channel 6 is "C"-shaped. When the atomized gas sprayed from the spray nozzle 21 encounters the mist return surface 41 on the return channel 6, part of the mist moves directly to the mist outlet 31 under the action of the mist return surface 41 and acts on the user's eye area. Another part of the mist bounces back to the atomization channel 3 and moves towards the spray nozzle 21, thereby forming a swirling airflow. The water mist can gradually fill the entire atomization channel 3 and gather in the user's eye area through the mist outlet 31, achieving a uniform spray effect.

[0050] like Figures 1 to 6 The fog return surface 41 shown is inclined from the inside of the atomization channel 3 to the outside of the atomization channel 3, and the fog return surface 41 is arc-shaped.

[0051] Furthermore, the shape of the mist return surface 41 is the same as that of the return groove 6. The mist return surface 41 is inclined from the inside of the atomization channel 3 to the outside of the atomization channel 3, which helps the shape and curve of the mist return surface 41 to better adapt to the atomization channel 3. This facilitates the smooth movement of the mist to the mist outlet 31 under the action of the mist return surface 41, effectively reducing the loss and accumulation of atomized gas and improving the utilization efficiency of atomized gas.

[0052] like Figures 1 to 6 The atomizing channel 3 shown includes a first transmission surface 61 arranged in the horizontal direction, a second transmission surface 62 arranged corresponding to the first transmission surface 61, and a third clearance surface 63 arranged in the vertical direction between the first transmission surface 61 and the second transmission surface 62. The third clearance surface 63 is arc-shaped and has the same curvature angle as the mist reflection surface 41.

[0053] Furthermore, the horizontal movement of the atomized gas between the first transmission surface 61 and the second transmission surface 62 helps ensure the stable flow of the atomized gas, while the arc-shaped third clearance surface 63 helps provide a smooth transition path for the atomized gas, avoiding sudden turning or accumulation of the atomized gas during the movement, thereby optimizing the flow efficiency of the atomized gas.

[0054] Furthermore, the third clearance surface 63 and the fog return surface 41 have the same curvature angle. The third clearance surface 63 and the fog return surface 41 can form a perfect synergy, so that the structure of the atomization channel 3 is more compact and natural, which is conducive to improving the overall aesthetics of the equipment.

[0055] like Figures 1 to 6 The two ends of the third clearance surface 63 shown are inclinedly connected to the first transmission surface 61 and the second transmission surface 62 respectively, and form rounded corners;

[0056] Furthermore, the rounded corners reduce the resistance of the atomized gas at turns, making the movement of the atomized gas smoother, which helps to reduce gas energy loss and improve the transmission efficiency of the atomized gas.

[0057] Furthermore, the rounded corners can reduce stress concentration, which helps to improve the strength of the connection. In daily use, it can effectively reduce cracks or fractures caused by stress concentration and extend the service life of the equipment.

[0058] Furthermore, the rounded corners make the device more aesthetically pleasing and the lines smoother, which helps reduce the visual and tactile discomfort caused by sharp edges. At the same time, the rounded corners can prevent users from being cut by sharp edges during use, thus improving the safety of the device.

[0059] like Figures 1 to 6 The fog reflector 4 shown is integrally formed;

[0060] Furthermore, the one-piece molded fog reflector 4 has no seams or connection points, making the overall structure of the fog reflector 4 more stable and less prone to deformation or damage due to external forces or long-term use, which helps to improve the overall stability and durability of the fog reflector 4.

[0061] Furthermore, the one-piece molded fog reflector 4 reduces assembly steps and connection point handling during the manufacturing process, which helps to reduce production costs, improve production efficiency, and reduce quality problems caused by improper assembly.

[0062] Furthermore, the one-piece molded fog reflector 4 has a simpler and smoother appearance, without any unnecessary seams or connection points, which helps to improve the overall aesthetics and market competitiveness of the equipment.

[0063] like Figures 1 to 6 The atomizing structure shown is symmetrically arranged on both sides of the atomizing generator 2;

[0064] Furthermore, the symmetrical atomization structure on both sides ensures a more uniform atomization effect, allowing the atomized gas to enter the atomization channel 3 simultaneously from both sides, reducing the possibility of too much or too little atomized gas on one side, thereby improving atomization efficiency and quality.

[0065] Furthermore, the symmetrical arrangement ensures that the center of gravity of the atomizer 2 is evenly distributed, avoiding the device from tilting or becoming unstable due to excessive weight on one side.

[0066] The implementation method of this embodiment is as follows:

[0067] An eye massager includes an atomizing structure connected to the air outlet 21 of an atomizer 2. The atomizing structure includes an atomizing air inlet communicating with the air outlet 21, a mist outlet 31 communicating with the outside, and an atomizing channel 3 connecting the atomizing air inlet and the mist outlet 31. At least one mist reflector is provided on the atomizing channel 3, which is a mist reflector sheet 4. A return groove 6 is provided between the mist reflector sheet 4 and the atomizing channel 3. The mist reflector sheet 4 includes a mist return surface 41 located on the return groove 6. The mist return surface 41 is inclined from the inside of the atomizing channel 3 to the outside of the atomizing channel 3 and is arc-shaped. When the atomizer 2 is operating normally, the atomizer... Generator 2 generates atomized gas and sprays it out from spray nozzle 21. The mist moves along atomization channel 3 to mist return surface 41. Mist return surface 41 can block the forward direction of the atomized gas and change the movement trajectory of the mist. Under the action of mist return surface 41, some mist moves to mist outlet 31, thereby acting on the user's eye area. Mist return surface 41 can slow down the movement speed of the atomized gas and reduce the spray pressure, so that the atomized gas moves to mist outlet 31. This effectively solves the problem that the water mist sprayed by existing eye massagers directly impacts the user's eye area, which not only fails to achieve a gentle and comfortable moisturizing effect, but also easily causes discomfort to the user's eyes and affects the user experience. Furthermore, traditional eye massagers often spray water mist directly onto the user's eyes. The fine water mist spreads in a straight line, resulting in some areas of the user's eyes not being affected by the water mist. However, this invention sets a mist return surface 41 at one end of the atomization channel 3. Under the action of the mist return surface 41, part of the atomized air bounces back into the atomization channel 3 and moves towards the spray nozzle 21. The atomization channel 3 and the mist return surface 41 work together to form a swirling airflow, preventing the atomized air from spreading to both sides. This allows the water mist to fill the entire atomization channel 3 and gather at the mist outlet 31 to the user's eye area, achieving a uniform spray effect.

[0068] The above examples are merely illustrative of the technical content of this utility model to facilitate reader understanding, but do not imply that the implementation of this utility model is limited to these embodiments. Any technical extensions or re-creations made based on this utility model are protected by this utility model. The scope of protection of this utility model is defined by the claims.

Claims

1. An eye massager comprising an atomization structure in communication with a jet port (21) of an atomization generator (2), characterized in that: The atomizing structure includes an atomizing air inlet communicating with the jet nozzle (21), a mist outlet (31) communicating with the outside, and an atomizing channel (3) connecting the atomizing air inlet and the mist outlet (31). At least one mist reflector is provided on the atomizing channel (3). The mist reflector is used to reflect the atomized gas in the atomizing channel (3) at least once and then deliver it to the outside through the mist outlet (31).

2. The eye massager of claim 1, wherein: The fog reflector includes a fog reflector sheet (4) connected to the atomizing channel (3). A connecting mechanism (5) is provided between the fog reflector sheet (4) and the atomizing channel (3). The fog reflector sheet (4) is detachably connected to the atomizing channel (3) through the connecting mechanism (5).

3. The eye massager of claim 2, wherein: The atomizing channel (3) extends horizontally and is inclined toward the side closer to the mist outlet (31), and the mist reflector (4) extends vertically and is inclined toward the side closer to the mist outlet (31).

4. The eye massager of claim 2, wherein: The connecting mechanism (5) includes a mounting groove (51) on the side of the atomizing channel (3) away from the mist outlet (31) and a mounting protrusion (52) on the mist reflector (4), the mounting protrusion (52) extending into the mounting groove (51) so that the atomizing channel (3) restricts the mounting position of the mist reflector (4).

5. The eye massager of claim 3, wherein the first massage element and the second massage element are arranged in a same plane. A return groove (6) is provided between the fog reflector (4) and the atomization channel (3). The fog reflector (4) includes a fog return surface (41) located on the return groove (6). The atomized gas ejected from the jet nozzle (21) moves towards the fog outlet (31) through the fog return surface (41).

6. The eye massager of claim 5, wherein: The fog return surface (41) is inclined from the inside of the atomization channel (3) to the outside of the atomization channel (3), and the fog return surface (41) is arc-shaped.

7. The eye massager of claim 6, wherein: The atomizing channel (3) includes a first transmission surface (61) arranged in the horizontal direction, a second transmission surface (62) arranged corresponding to the first transmission surface (61), and a third clearance surface (63) arranged in the vertical direction between the first transmission surface (61) and the second transmission surface (62). The third clearance surface (63) is arc-shaped and has the same curvature angle as the mist return surface (41).

8. The eye massager of claim 7, wherein: The two ends of the third clearance surface (63) are inclinedly connected to the first transmission surface (61) and the second transmission surface (62) respectively, forming rounded corners.

9. The eye massager of claim 2, wherein: The fog reflector (4) is integrally formed.

10. The eye massager of claim 1, wherein: The atomizing structure is symmetrically arranged on both sides of the atomizing generator (2).

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