Pore cleaning and massaging device

Abstract

The present invention relates to a pore cleaning and massaging device, which is characterized by comprising: a chamber part that accommodates washing water flowing in from the outside through an internal space; and a nozzle unit which is coupled to the chamber unit and which sprays the washing water contained in the chamber unit in the form of a plurality of microstreams through a plurality of micropores communicating with the internal space of the chamber unit. The nozzle part is provided with a plurality of micropores which are formed at a plurality of positions of a disc member, the disc member is injection-molded on a support surface supporting a plurality of protrusions, the plurality of protrusions are provided with passages extending from the nozzle part along the length direction, and the micropores are communicated with the passages. Therefore, the cleaning water passing through the micro holes is sprayed in a micro flow form through the channels of the protrusions.

Description

Technical Field

[0001] The present invention relates to a pore cleaning and massaging device, and more particularly, to a pore cleaning and massaging device that sprays fine-flow cleaning water through a nozzle unit, and by directly injecting the fine-flow cleaning water into pores, the cleaning of contaminants deposited in pores and their surroundings on the skin becomes smoother, so that the skin can be managed more cleanly. Background Art

[0002] During daily life, various contaminants such as dust are deposited on the body, especially on the skin.

[0003] Therefore, the contaminants deposited on the skin are washed through showering and shampooing to keep the skin clean.

[0004] However, contaminants deposited in fine parts of the skin, such as pores and their surroundings, have the problem of being difficult to wash away through simple showering and shampooing.

[0005] That is, the droplets of the water flow sprayed by a common "shower head" disclosed in, for example, Korean Patent Publication No. 10-2022-0084643 are relatively large, making it difficult to reach fine parts of the skin such as pores, and there is a problem of being unable to wash away the contaminants remaining in these parts.

[0006] In this case, the contaminants remaining in fine parts of the skin such as pores not only hinder skin cleaning, but especially have the problem of being the cause of skin diseases.

[0007] Therefore, solutions such as shower heads that spray cleaning water in a thinner water column than a common shower head by making the diameter of the discharge port finer have been proposed.

[0008] However, when the diameter of the discharge port in the shower head is made finer, the spraying of the cleaning water has problems that do not meet expectations.

[0009] That is, when the diameter of the discharge port in the shower head is made finer, there are problems that the spraying amount and spraying pressure of the cleaning water do not meet expectations. In particular, when the front end of the discharge port comes into contact with the skin or hair, the hair knots and acts as a blocking effect. Therefore, even if the cleaning water is sprayed, it cannot directly reach the pores, resulting in a weak cleaning power.

[0010] Therefore, although attempts have been made in the field to which the present invention belongs to develop a device that can smoothly wash away the contaminants deposited in pores and their surroundings by spraying fine-flow cleaning water, no results that meet the above conditions have been obtained so far. Summary of the Invention

[0011] Technical Problem

[0012] The present invention is proposed to solve the above-mentioned existing problems, and the object of the present invention is to provide the following pore cleaning and massaging device: by spraying fine-flow cleaning water through the nozzle part, the cleaning of pollutants deposited in the pores of the skin and its periphery can be made smoother by directly spraying the fine-flow cleaning water into the pores.

[0013] Technical solution

[0014] To achieve the above object, the present invention provides a pore cleaning and massaging device, which is characterized in that it includes: a chamber part that houses the cleaning water flowing in from the outside through the internal space; and a nozzle part that is combined with the chamber part and sprays the cleaning water housed in the chamber part in the form of a plurality of fine flows through a plurality of micropores communicating with the internal space of the chamber part. The micropores are formed at a plurality of positions on a disc member, the disc member is injection-molded on a support surface supporting a plurality of protrusions, and passages extending in the length direction from the nozzle part are formed in the plurality of protrusions, and the micropores are communicated with the passages, so that the cleaning water passing through the micropores passes through each of the passages of the protrusions and is sprayed in the form of a fine flow.

[0015] Moreover, to achieve the above object, the present invention provides a pore cleaning and massaging device, which is characterized in that it includes: a chamber part that houses the cleaning water flowing in from the outside through the internal space; and a nozzle part that is combined with the chamber part and sprays the cleaning water housed in the chamber part in the form of a plurality of fine flows through a plurality of micropores communicating with the internal space of the chamber part. The micropores are formed at a plurality of positions on a disc member that is closely arranged inside the support surface supporting a plurality of protrusions, and passages extending in the length direction from the nozzle part are formed in the plurality of protrusions, and the micropores are communicated with the passages, so that the cleaning water passing through the micropores passes through each of the passages of the protrusions and is sprayed in the form of a fine flow.

[0016] Furthermore, to achieve the above object, the present invention provides a pore cleaning and massaging device, which is characterized in that it includes: a chamber part that houses the cleaning water flowing in from the outside through the internal space; and a nozzle part that is combined with the chamber part and sprays the cleaning water housed in the chamber part in the form of a plurality of fine flows through a plurality of micropores communicating with the internal space of the chamber part. The micropores are formed at a plurality of positions on the support surface supporting a plurality of protrusions, and passages extending in the length direction from the nozzle part are formed in the plurality of protrusions, and the micropores are communicated with the passages, so that the cleaning water passing through the micropores passes through each of the passages of the protrusions and is sprayed in the form of a fine flow.

[0017] Moreover, to achieve the above object, the present invention provides a pore cleansing and massaging device, characterized by comprising: a chamber part that houses washing water flowing in from the outside through an internal space; and a nozzle part that is combined with the chamber part and jets the washing water housed in the chamber part in a plurality of fine flow forms through a plurality of micropores communicating with the internal space of the chamber part. The micropores are formed at a plurality of positions on a support surface of the nozzle part that supports a plurality of protrusions and face the protrusions, and are formed radially at the plurality of positions, so that the washing water passing through the micropores passes between one blade and another blade of a plurality of blades radially arranged on the protrusions to be jetted in a fine flow form.

[0018] Moreover, to achieve the above object, the present invention provides a pore cleansing and massaging device, characterized by comprising: a chamber part that houses washing water flowing in from the outside through an internal space; and a nozzle part that is combined with the chamber part and jets the washing water housed in the chamber part in a plurality of fine flow forms through a plurality of micropores communicating with the internal space of the chamber part. The micropores are formed radially at the front end of a passage, and the passage extends in the longitudinal direction inside each of a plurality of protrusions supported by a support surface in the nozzle part, so that the washing water passing through the micropores passes between one blade and another blade of a plurality of blades radially arranged on the protrusions to be jetted in a fine flow form.

[0019] Moreover, to achieve the above object, the present invention provides a pore cleansing and massaging device, characterized by comprising: a chamber part that houses washing water flowing in from the outside through an internal space; and a nozzle part that is combined with the chamber part and jets the washing water housed in the chamber part in a plurality of fine flow forms through a plurality of micropores communicating with the internal space of the chamber part. The micropores are formed radially around the front end part of a passage, and the passage extends in the longitudinal direction inside each of a plurality of conical protrusions supported by a support surface in the nozzle part, so that the washing water passing through the micropores is jetted in a fine flow form from around the front end part of the passage.

[0020] Effects of the Invention

[0021] The nozzle part of the pore cleansing and massaging device of the present invention includes micropores. As the washing water flowing from the chamber part to the nozzle part passes through the micropores, the washing water can be jetted in a fine flow form. The fine flow washing water can smoothly wash away pollutants deposited in the pores and their peripheries of the skin of the user, so that the skin can be managed more cleanly.

[0022] Moreover, the nozzle part of the pore cleaning and massaging device of the present invention is provided with a plurality of protrusions. As the front end of each protrusion contacts the skin, not only can massage be performed, but the protrusions can also prevent hair from approaching the micropores, preventing hair from clogging the micropores, and can completely maintain the fine flow form of the cleaning water, so that the fine flow form of the cleaning water passing through the micropores can be continuously and smoothly ejected.

[0023] Moreover, the pore cleaning and massaging device of the present invention can form an inclined surface at the front end of the protrusion of the nozzle part, and the inner passage of the protrusion can be opened wider through the inclined surface. Therefore, it is possible to prevent the formation of a vacuum inside the passage during the cleaning water ejection process, so that the cleaning water can be ejected in a fine flow form smoothly without conflict with each other when passing through the micropores.

[0024] Moreover, the pore cleaning and massaging device of the present invention can form a slit on one side of the protrusion of the nozzle part. In addition to the passage, the protrusion can also be opened through the slit. Therefore, it is possible to prevent the formation of a vacuum inside the passage during the cleaning water ejection process, so that the cleaning water can be ejected in a fine flow form smoothly without conflict with each other when passing through the micropores.

[0025] Moreover, the pore cleaning and massaging device of the present invention can include a movable part that moves the protrusion of the nozzle part back and forth. As the movable part moves back and forth, it can stably contact the curved part of the skin, etc. When contacting the skin, it can make the movement at the curved part of the skin, etc. easier by adjusting the frictional force. When moving on the skin, it can avoid hair by smoothly separating the hair, not only enabling the cleaning water to directly irradiate the pores, but also enabling smooth massage even when the skin is wrinkled and curved.

[0026] Moreover, the pore cleaning and massaging device of the present invention can include a conductor tip that releases a microcurrent when power is applied to the movable part of the nozzle part. During the skin massage process through the protrusion, as the microcurrent is released through the tip, an electric stimulus can be applied to the skin, thereby further improving the skin massage effect through the protrusion contact.

[0027] Moreover, for the parts with serious surface roughness existing in the entire industry, the contaminants in various places can be cleaned by direct spraying, and the effect is also very excellent. That is, the contaminants on the filter, vegetables, the surface of the instrument, the inside of the instrument, etc. can be smoothly cleaned, thereby increasing the industrial utilization degree. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 It is a perspective view showing the external shape of the pore cleaning and massaging device of the present invention.

[0029] Figure 2 It is a front view of the pore cleaning and massaging device of the present invention.

[0030] Figure 3 An exemplary diagram showing the cleaning of pores and contaminants around them by means of microfluidic cleaning water injection in the pore cleaning and massage device of the present invention.

[0031] Figure 4 An exemplary diagram for explaining the injection of cleaning water through a nozzle part in one form of the pore cleaning and massage device of the present invention.

[0032] Figure 5 An exemplary diagram for explaining the injection of cleaning water through another form of nozzle part in the pore cleaning and massage device of the present invention.

[0033] Figure 6 To show Figure 5 An exemplary diagram of a form in which the protrusion in the pore cleaning and massage device of the present invention shown also includes a slit.

[0034] Figure 7 An exemplary diagram for explaining the injection of cleaning water through yet another form of nozzle part in the pore cleaning and massage device of the present invention.

[0035] Figure 8 For Figure 7 An exemplary diagram of a micropore additionally formed on the support surface of the nozzle part in the pore cleaning and massage device of the present invention shown.

[0036] Figure 9 An exemplary diagram for explaining the injection of cleaning water through another form of nozzle part in the pore cleaning and massage device of the present invention.

[0037] Figure 10 To show Figure 9 An exemplary diagram of one form of the blade provided with a protrusion in the pore cleaning and massage device of the present invention shown.

[0038] Figure 11 To show Figure 9 An exemplary diagram of another form of the blade provided with a protrusion in the pore cleaning and massage device of the present invention shown.

[0039] Figure 12 An exemplary diagram for explaining the injection of cleaning water through yet another form of nozzle part in the pore cleaning and massage device of the present invention.

[0040] Figure 13 To show Figure 12 An exemplary diagram of the form of the protrusion embedded and combined with the nozzle part in the pore cleaning and massage device of the present invention shown.

[0041] Figure 14 To show Figure 12 An exemplary diagram of a form in which the protrusion of the nozzle part in the pore cleaning and massage device of the present invention shown includes a movable part.

[0042] Figure 15 To show Figure 12 The protrusion of the nozzle portion of the pore cleaning and massaging device of the present invention includes an exemplary view of another form of movable part.

[0043] Figure 16 This is an illustrative diagram for explaining the spraying of cleaning water through a nozzle portion of still another form in the pore cleaning and massaging device of the present invention. DETAILED DESCRIPTION

[0044] Hereinafter, the present invention will be described in detail with reference to the accompanying drawings.

[0045] like Figure 1 and Figure 2 As shown, the pore cleaning and massaging device A of the present invention includes a chamber portion 200 and a nozzle portion 300 .

[0046] The chamber portion 200 of the present invention receives the washing water flowing in from the outside through the internal space 210 .

[0047] In this case, the chamber portion 200 has a recessed surface (not shown) formed around the outer peripheral surface, and the chamber portion 200 can be easily grasped by the recessed surface.

[0048] On the other hand, one end of the chamber portion 200 is connected to a washing water supply pipe (not shown), so that washing water supplied through the washing water supply pipe can be accommodated in the internal space 210 .

[0049] The washing water supply pipe may be connected to, for example, a faucet (not shown) to stably supply washing water.

[0050] The nozzle part 300 of the present invention is combined with the chamber part 200 and sprays the washing water contained in the chamber part 200 in a plurality of fine streams through a plurality of micro holes H communicating with the inner space 210 of the chamber part 200 , more specifically, can be sprayed directly.

[0051] In this case, the connection between the nozzle part 300 and the chamber part 200 may be achieved by any common method, for example, by a screw engagement method.

[0052] like Figure 4 As shown, in the nozzle portion 300 as described above, micropores H can be formed at multiple positions of the disc member 330 in a manner connected to the passage 311, and the disc member 330 is injection molded on a support surface 320 supporting multiple protrusions 310, and the passages 311 extending from the nozzle portion 300 along the length direction are formed on the multiple protrusions 310.

[0053] Thus, the washing water passing through the micropores H can be ejected in the form of fine streams through the respective passages 311 of the protrusions 310 .

[0054] When micropores H are formed at multiple positions of the disk member 330 injection-molded on the support surface 320, the protrusion 310 of the nozzle portion 300 includes an inclined surface 312 formed at an end of the protrusion 310 at a relatively long distance from the support surface 320 at a specified angle, so that the opening of the passage 311 can be realized wider at the front end of the protrusion 310 through the inclined surface 312.

[0055] On the other hand, the diameter of the micropores H can be 0.05 to 0.2 mm, so that the cleaning water can be sprayed in a fine stream form.

[0056] Moreover, the micropores H can be arranged in groups at each position.

[0057] Thereby, multiple jets of fine stream cleaning water can be formed at each position.

[0058] And, as Figure 5 shown, the micropores H can be formed at multiple positions of the disk member 330 in a manner communicating with the passage 311. The disk member 330 is closely arranged inside the support surface 320 supporting multiple protrusions 310, and passages 311 extending in the length direction from the nozzle portion 300 are formed in the multiple protrusions 310.

[0059] Thereby, the cleaning water passing through the micropores H can pass through each passage 311 of the protrusion 310 and be sprayed in a fine stream form.

[0060] When micropores H are formed at multiple positions of the disk member 330 closely arranged inside the support surface 320, the protrusion 310 of the nozzle portion 300 includes an inclined surface 312 formed at an end of the protrusion 310 at a relatively long distance from the support surface 320 at a specified angle, so that the opening of the passage 311 can be realized wider at the front end of the protrusion 310 through the inclined surface 312.

[0061] Moreover, when micropores H are formed at multiple positions of the disk member 330 closely arranged inside the support surface 320, as Figure 6 shown, the protrusion 310 of the nozzle portion 300 further includes a slit 313 extending in the length direction from an end of the inclined surface 312 adjacent to the support surface 320, so that the opening of the protrusion 310 can also be realized through the slit 313.

[0062] And, as Figure 7 shown, the micropores H can be formed at multiple positions of the support surface 320 supporting multiple protrusions 310 in a manner communicating with the passage 311, and passages 311 extending in the length direction from the nozzle portion 300 are formed in the multiple protrusions 310.

[0063] Thereby, the cleaning water passing through the micropores H can pass through each passage 311 of the protrusion 310 and be sprayed in a fine stream form.

[0064] When micropores H are formed at multiple positions on the support surface 320, the protrusion 310 of the nozzle part 300 includes an inclined surface 312 formed at one end of the protrusion 310 at a relatively far distance from the support surface 320 at a specified angle, so that the opening of the passage 311 can be realized wider at the front end of the protrusion 310 through the inclined surface 312.

[0065] Moreover, when micropores H are formed at multiple positions on the support surface 320, as Figure 8 shown, micropores H can also be formed at multiple positions on the support surface 320 outside the passage 311, so that cleaning water in the form of a fine stream can also be sprayed through the micropores H outside the passage 311.

[0066] And, as Figures 9 to 11 shown, micropores H can be formed at multiple positions on the support surface 320 that supports multiple protrusions 310 in the nozzle part 300 and face the protrusions 310, and are formed radially at multiple positions respectively.

[0067] Thus, the cleaning water passing through the micropores H can be sprayed in the form of a fine stream by passing between one blade and another of the multiple blades 314 radially arranged on the protrusion 310.

[0068] When the micropores H are formed radially at multiple positions on the support surface 320, the width of the blade 314 of the protrusion 310 gradually becomes narrower towards the front end, so that the front end of the protrusion 310 including the blade 314 can be sharpened, and the front end of the protrusion 310 can easily enter between the hairs, not only can the hairs be easily separated (guide the hairs between the protrusions), but also the massage can be smoothly performed through the contact with the skin 10.

[0069] Moreover, when the micropores H are formed radially at multiple positions on the support surface 320 respectively, the number of the blades 314 of the protrusion 310 is not limited. For example, as Figure 10 or Figure 11 shown, it can be 3 or 4.

[0070] And, as Figure 12 shown, the micropores H can be formed radially at the front end of the passage 311, and the passage 311 extends along the length direction and is formed inside each of the multiple protrusions 310 supported by the support surface 320 in the nozzle part 300.

[0071] Thus, the cleaning water passing through the micropores H can be sprayed in the form of a fine stream by passing between one blade and another of the multiple blades 314 radially arranged on the protrusion 310.

[0072] When the micropores H are formed radially at the front end of the passage 311 of the protrusion 310, the width of the blade 314 of the protrusion 310 gradually narrows towards the front end, enabling the front end of the protrusion 310 including the blade 314 to become pointed. This not only allows for easy separation of the hair but also enables smooth massage through contact with the skin 10.

[0073] Moreover, when the micropores H are formed radially at the front end of the passage 311 of the protrusion 310, the number of blades 314 of the protrusion 310 is not limited. For example, it can be 3 or 4.

[0074] Furthermore, when the micropores H are formed radially at the front end of the passage 311 of the protrusion 310, the support surface 320 further includes a spiral groove 321 formed along the periphery of the passage 311. As the cleaning water in the chamber portion 200 passes through the spiral groove 321 and swirls, the inflow into the inner side of the passage 311 can be made smoother.

[0075] Also, when the micropores H are formed radially at the front end of the passage 311 of the protrusion 310, the central axis of the micropores H can be aligned with the central axis of the protrusion 310 or can be offset from the central axis of the protrusion 310. Therefore, the cleaning water can be more outwardly directed towards the front, and is inclined 10° - 20° in the outward direction.

[0076] The central axis of the micropores H is offset from the central axis of the protrusion 310 and is inclined towards the front and outward direction, enabling the cleaning water sprayed in a fine flow form through the micropores H to reach the surface of the skin 10 more widely.

[0077] And when the micropores H are formed radially at the front end of the passage 311 of the protrusion 310, as Figure 13 shown, a plurality of protrusions 310 are made of a soft material such as rubber or silica gel individually and inserted and combined in the support surface 320. When massaging the skin 10 through contact with the protrusions 310, excessive stimulation can be suppressed by the material characteristics of the protrusions 310.

[0078] And when the micropores H are formed radially at the front end of the passage 311 of the protrusion 310, as Figure 14 shown, the protrusion 310 includes a movable member 315 that is movably combined in a manner that penetrates the center of the blade 314. As the movable member 315 moves back and forth, it can stably contact curved parts of the skin, etc. When contacting the skin, the movement at curved parts of the skin, etc. can be made smooth by adjusting the frictional force, thus smoothly separating the hair to avoid it. This not only allows the cleaning water to directly hit the pores, but also enables smooth massage even when the skin is folded and curved.

[0079] In this case, the longitudinal end of the movable member 315 extending inside the passage 311 toward the protrusion 310 is elastically supported by an elastic body 315a such as a coil spring. In the state where it is inserted by pressing, when the pressing is released, as the tensile force of the elastic body 315a acts, it can automatically return to the state before insertion, that is, it can automatically return to the protruding state.

[0080] And, as Figure 15 shown, the movable member 315 includes a conductive tip 315b that releases a microcurrent when power is applied, and can release a microcurrent as the tip 315b contacts the skin 10 to improve the massage effect.

[0081] Among them, the tip 315b can be of any ordinary structure and manner that can release a microcurrent when power is applied, and the detailed description of the tip 315b will be omitted here.

[0082] On the other hand, the power supply to the tip 315b can be achieved by a battery (not shown in the figure) installed on the outer surface of the chamber portion 200.

[0083] In this case, the tip 315b and the battery are connected by a wiring (not marked with a reference numeral).

[0084] And, as Figure 16 shown, the micropores H can be formed radially around the front end portion of the passage 311, and the passage 311 extends in the longitudinal direction inside each of the conical protrusions 310 supported by the support surface 320 in the nozzle portion 300.

[0085] Thereby, the cleaning water passing through the micropores H can be ejected in a fine flow form from around the front end portion of the passage 311.

[0086] When the micropores H are formed radially around the front end portion of the passage 311 of the protrusion 310, the support surface 320 includes a spiral groove 321 formed around the passage 311. As the cleaning water in the chamber portion 200 passes through the spiral groove 321 and swirls, the inflow into the inside of the passage 311 can be made smoother.

[0087] The process of cleaning the pores 11 by the pore cleaning and massaging device A of the present invention will be described in detail as follows.

[0088] The chamber portion 200 of the present invention includes an internal space 210, and the cleaning water flowing in from the outside can be received through the internal space 210.

[0089] Moreover, micropores H are formed in the nozzle portion 300 of the present invention, and the fine flow injection of the cleaning water can be achieved through the micropores H, and more specifically, direct injection can be performed.

[0090] However, the process of forming the micro-holes H in the nozzle part 300 may be somewhat complicated.

[0091] However, according to an embodiment of the present invention, in the nozzle part 300, the micro-holes H can be formed at multiple positions of the disc member 330 in a manner communicating with the passage 311. The disc member 330 is injection-molded on the support surface 320 that supports the multiple protrusions 310. The multiple protrusions 310 are formed with passages 311 extending in the length direction from the nozzle part 300. As the micro-holes H are formed in the disc member 330, the formation of the micro-holes H can be achieved relatively simply, so the complexity brought by the formation of the micro-holes H can be reduced.

[0092] In this case, the cleaning water passing through the micro-holes H is ejected in a fine flow form through each passage 311 of the protrusion 310. As Figure 3 shown, blocked by the protrusion 310, the fine flow cleaning water is prevented from contacting the hair, so that the fine flow cleaning water, that is, the cleaning water in the form of tiny droplets, can smoothly reach the pores 11 of the skin 10 and their peripheries, and thus the pollutants 20 deposited in the pores 11 and their peripheries can be smoothly cleaned.

[0093] Among them, the protrusion 310 of the nozzle part 300 includes an inclined surface 312 formed at one end of the protrusion 310 at a relatively far distance from the support surface 320 at a specified angle, so that the passage 311 can be opened wider at the front end of the protrusion 310 through the inclined surface 312. During the ejection of the cleaning water, a vacuum can be prevented from being formed inside the passage 311, so that the fine flow form ejection of the cleaning water passing through the micro-holes H can be more smooth.

[0094] However, the injection molding process of the disc member 330 may be somewhat complicated.

[0095] However, according to other embodiments of the present invention, the micro-holes H can be formed at multiple positions of the disc member 330 in a manner communicating with the passage 311. The disc member 330 is closely arranged inside the support surface 320 that supports the multiple protrusions 310. The multiple protrusions 310 are formed with passages 311 extending in the length direction from the nozzle part 300. Therefore, instead of injection molding the disc member 330, the fine flow form ejection of the cleaning water can be achieved only by arranging it inside the support surface 320, so that the complexity and cost brought by the injection molding of the disc member 330 can be reduced.

[0096] In this case, the cleaning water that forms micropores H at multiple positions of the disc member 330 closely disposed inside the support surface 320 also passes through each passage 311 of the protrusion 310 and is sprayed in the form of a fine flow. Blocked by the protrusion 310, the fine-flow cleaning water is prevented from contacting the hair, and the fine-flow cleaning water can smoothly reach the pores 11 of the skin 10 and their peripheries, so that the pollutants 20 deposited in the pores 11 and their peripheries can be smoothly cleaned.

[0097] Meanwhile, when the micropores H are formed at multiple positions of the disc member 330 closely disposed inside the support surface 320, the protrusion 310 may further include a slit 313 formed by extending along the length direction from one end of the inclined surface 312 adjacent to the support surface 320. The protrusion 310 can also be opened through the slit 313. During the spraying process of the cleaning water, the formation of a vacuum inside the passage 311 can be prevented, so that the fine-flow spraying of the cleaning water passing through the micropores H can be more smooth.

[0098] Moreover, according to other embodiments of the present invention, the micropores H can be formed at multiple positions of the support surface 320 that supports multiple protrusions 310 in a manner communicating with the passages 311. The passages 311 extending along the length direction are formed in the multiple protrusions 310. Therefore, even without the disc member 330 itself, the fine-flow spraying of the cleaning water can be achieved, thereby reducing the manufacturing cost and the costs related to production and installation.

[0099] In this case, the micropores H can also be formed at multiple positions of the support surface 320 outside the passage 311. The fine-flow spraying of the cleaning water can also be achieved through the micropores H outside the passage 311. Thus, in particular, the hair squeezed between the protrusions 310 can be smoothly cleaned by separating the hair.

[0100] Moreover, according to other embodiments of the present invention, the micropores H can be formed at multiple positions of the support surface 320 that supports multiple protrusions 310 in the nozzle part 300 and face the protrusions 310, and are formed radially at multiple positions respectively.

[0101] In this case, the cleaning water passing through the micropores H can be sprayed in the form of a fine flow by passing between one blade and another blade of the multiple blades 314 radially arranged on the protrusion 310. Contact with the hair is blocked by the multiple blades 314, and the spraying form is completely maintained and reaches the pores 11 and their peripheries, so that the pollutants 20 deposited in the pores 11 and their peripheries can be smoothly cleaned.

[0102] Among them, the blade 314 of the protrusion 310 is formed in a manner that the width gradually narrows toward the front end, so that the front end of the protrusion 310 including the blade 314 can be pointed, and the front end of the protrusion 310, more specifically, the front end of the blade 314 can easily enter between the hairs, which can not only easily separate the hairs but also smoothly perform skin massage.

[0103] However, the micropores H radially formed at a plurality of locations on the support surface 320 are spaced a considerable distance from the skin 10 due to the length of the protrusions 310 , and the transfer of the washing water to the pores 11 and their surroundings may be reduced due to interference from hair.

[0104] However, according to other embodiments of the present invention, the micropores H can be formed radially at the front end of the passage 311, and the passage 311 extends along the length direction to form the inner side of each of the multiple protrusions 310 supported by the supporting surface 320 in the nozzle portion 300. Therefore, the micropores H can be closer to the skin 10, and the micro-flow cleaning water can reach the pores 11 and its surroundings more smoothly, so that the pollutants 20 in the pores 11 and its surroundings can be cleaned more smoothly by the micro-flow cleaning water.

[0105] In this case, the support surface 320 includes a spiral groove 321 formed around the passage 311. As the cleaning water in the chamber portion 200 passes through the spiral groove 321 and swirls, the flow into the inner side of the passage 311 can be smoother, thereby making the injection of the micro-stream cleaning water smoother.

[0106] Moreover, when the micropores H are radially formed at the front end of the passage 311 of the protrusion 310, the central axis of the micropore H can be aligned with the central axis of the protrusion 310, or can be offset from the central axis of the protrusion 310 and tilted 10° to 20° toward the front and outward. In particular, as the central axis of the micropore H is offset from the central axis of the protrusion 310 and tilted outward, the cleaning water ejected in the form of a microstream through the micropore H can reach the surface of the skin 10 more widely.

[0107] Furthermore, when the micropores H are radially formed at the front end of the passage 311 of the protrusion 310, a plurality of protrusions 310 are individually made of a soft material such as rubber or silicone and inserted and combined on the support surface 320. When the skin 10 is massaged by contact of the protrusions 310, excessive stimulation can be suppressed by the material properties of the protrusions 310, so that massage can be performed smoothly.

[0108] Also, when the micropores H are formed radially at the front end of the passage 311 of the projection 310, the projection 310 includes a movable member 315 that penetrates the center of the through-blade 314 and is coupled in a manner that allows forward and backward movement. As the movable member 315 moves forward and backward, it can stably contact curved parts of the skin, etc. When contacting the skin, it can adjust the frictional force to make the movement smooth at curved parts of the skin, etc., so as to smoothly separate the hair and avoid the hair. Not only can the cleaning water be directly sprayed onto the pores, but also, even if the skin is wrinkled and curved, it can be smoothly massaged.

[0109] Among them, the lengthwise end of the movable member 315 extending inwardly of the passage 311 of the projection 310 is elastically supported by an elastic body 315a such as a coil spring. In the state inserted by pressurization, when the pressurization is released, as the tensile force of the elastic body 315a acts, it can automatically return to the state before insertion, that is, automatically return to the protruding state, thereby reducing the complexity when the movable member 315 protrudes in the inserted state.

[0110] Also, the movable member 315 includes a conductive tip 315b that releases a microcurrent when power is applied, and can release a microcurrent as the tip 315b contacts the skin 10 to improve the massage effect.

[0111] In this case, releasing a microcurrent through the tip 315b is only an example. Besides the tip 315b, the movable member 315 itself can form a conductor, or a microcurrent can also be released by coating a conductive substance on the surface of the movable member 315.

[0112] Also, according to other embodiments of the present invention, the micropores H can be formed radially around the front end portion of the passage 311. The passage 311 extends in the length direction and is formed inside each of the conical projections 310 supported by the support surface 320 in the nozzle portion 300. Due to the passage 311, the micropores H are closer to the skin 10, and the fine-flow cleaning water can be more smoothly sprayed directly onto the pores 11 and their peripheries, so that the pollutants 20 in the pores 11 and their peripheries can be more smoothly cleaned by the fine-flow cleaning water.

[0113] In this case, the support surface 320 includes a spiral groove 321 formed around the passage 311. As the cleaning water in the chamber portion 200 passes through the spiral groove 321 and swirls, the inflow into the passage 311 can be made smoother.

[0114] The present invention is not limited to the above-described embodiments, and can be changed within the scope not departing from the gist of the present invention shown in the claims for protection. These changes are also included in the protection scope of the present invention defined by the description of the above claims for protection.

Claims

1. A pore cleaning and massaging device, characterized in that, comprising: a chamber part that houses the cleaning water flowing in from the outside through an internal space; and a nozzle part that is combined with the chamber part and jets the cleaning water housed in the chamber part in a plurality of fine flow forms through a plurality of micropores communicating with the internal space of the chamber part, the micropores are formed at a plurality of positions on a disc member, the disc member is injection-molded on a support surface supporting a plurality of protrusions, passages extending in a length direction from the nozzle part are formed in the plurality of protrusions, and the micropores communicate with the passages, so that the cleaning water passing through the micropores passes through the respective passages of the protrusions and is jetted in a fine flow form, the protrusions of the nozzle part include an inclined surface formed at one end of the protrusion at a relatively long distance from the support surface at a specified angle, and further include a slit extending in a length direction from one end of the inclined surface adjacent to the support surface.

2. A pore cleaning and massaging device, characterized in that, comprising: a chamber part that houses the cleaning water flowing in from the outside through an internal space; and a nozzle part that is combined with the chamber part and jets the cleaning water housed in the chamber part in a plurality of fine flow forms through a plurality of micropores communicating with the internal space of the chamber part, the micropores are formed at a plurality of positions on a disc member that is closely arranged inside the support surface supporting a plurality of protrusions, passages extending in a length direction from the nozzle part are formed in the plurality of protrusions, and the micropores communicate with the passages, so that the cleaning water passing through the micropores passes through the respective passages of the protrusions and is jetted in a fine flow form, the protrusions of the nozzle part have an inclined surface inclined in one direction at the front end, and the protrusions further include a slit extending in a length direction from one end of the inclined surface adjacent to the support surface.

3. A pore cleaning and massaging device, characterized in that, comprising: a chamber part that houses the cleaning water flowing in from the outside through an internal space; and a nozzle part that is combined with the chamber part and jets the cleaning water housed in the chamber part in a plurality of fine flow forms through a plurality of micropores communicating with the internal space of the chamber part, the micropores are formed at a plurality of positions on the support surface supporting a plurality of protrusions, passages extending in a length direction from the nozzle part are formed in the plurality of protrusions, and the micropores communicate with the passages, so that the cleaning water passing through the micropores passes through the respective passages of the protrusions and is jetted in a fine flow form, the protrusions of the nozzle part have an inclined surface inclined in one direction at the front end, and the protrusions further include a slit extending in a length direction from one end of the inclined surface adjacent to the support surface.

4. The pore cleaning and massaging device according to claim 3, characterized in that, the micropores are further formed at a plurality of positions on the support surface outside the passages.

5. A pore cleaning and massaging device, characterized in that, comprising: a chamber part that houses the cleaning water flowing in from the outside through an internal space; and A nozzle part, which is combined with the chamber part and sprays the cleaning water received in the chamber part in the form of multiple fine streams through a plurality of micropores communicating with the internal space of the chamber part. The micropores are formed at multiple positions on the support surface of the nozzle part that supports multiple protrusions and face the protrusions, and are formed radially at multiple positions, so that the cleaning water passing through the micropores passes between one blade and another blade among the multiple blades radially arranged on the protrusions to be sprayed in the form of fine streams.

6. The pore cleaning and massaging device according to claim 5, characterized in that, the width of the blade gradually narrows towards the front end.

7. A pore cleaning and massaging device, characterized in that, comprising: a chamber part that receives the cleaning water flowing in from the outside through the internal space; and a nozzle part, which is combined with the chamber part and sprays the cleaning water received in the chamber part in the form of multiple fine streams through a plurality of micropores communicating with the internal space of the chamber part. The micropores are formed radially at the front end of the passage, and the passage extends along the length direction inside each of the multiple protrusions supported by the support surface in the nozzle part, so that the cleaning water passing through the micropores passes between one blade and another blade among the multiple blades radially arranged on the protrusions to be sprayed in the form of fine streams.

8. The pore cleaning and massaging device according to claim 7, characterized in that, the width of the blade gradually narrows towards the front end.

9. The pore cleaning and massaging device according to claim 7, characterized in that, the support surface further includes a spiral groove formed around the passage.

10. The pore cleaning and massaging device according to claim 7, characterized in that, the central axis of the micropores formed radially at the front end of the passage is aligned with the central axis of the protrusion or is offset from the central axis of the protrusion and faces forward, and is inclined 10° to 20° in the outward direction.

11. The pore cleaning and massaging device according to claim 7, characterized in that, the multiple protrusions are made of a soft material separately and are inserted and combined on the support surface.

12. The pore cleaning and massaging device according to claim 7, characterized in that, the protrusion includes a movable part that penetrates the setting center of the blade and is combined in a manner that can move back and forth.

13. The pore cleaning and massaging device according to claim 12, characterized in that, the lengthwise end of the movable part extending towards the inside of the passage of the protrusion is supported by an elastic body.

14. The pore cleaning and massaging device according to claim 12, characterized in that, the movable part includes a conductive tip that releases a microcurrent when power is applied.

15. A pore cleaning and massaging device, characterized in that, comprising: a chamber part that receives the cleaning water flowing in from the outside through the internal space; and a nozzle part, which is combined with the chamber part and sprays the cleaning water received in the chamber part in the form of multiple fine streams through a plurality of micropores communicating with the internal space of the chamber part. The micropores are formed radially around the front end portion of the passage, and the passage extends in the longitudinal direction inside each of the plurality of conical protrusions supported by the support surface in the nozzle portion, so that the cleaning water passing through the micropores is ejected in a fine flow form from around the front end portion of the passage. The support surface includes spiral grooves formed along the periphery of the passage.

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