JP5081681B2 - Mist generator - Google Patents

Description

  The present invention relates to a mist generating device that can stimulate a user's skin with mist and generate fragrance.

Traditionally, aromatherapy has been used to aromatherapy (relative oil) by volatilizing using a volatile device such as candles, incandescent lamps, fans, etc., and generating aroma in the space to relieve stress and obtain a relaxing effect. ing. In order to keep the space at an appropriate humidity while incorporating such aromatherapy, it has been proposed that a fragrance device and a humidifying device are provided side by side (for example, Patent Document 1). According to Patent Document 1, the fragrance adsorbed on the adsorbent or microencapsulated is volatilized by the scent generating means equipped with a heating coil, a blower or the like to generate a fragrance (fragrance), while the heating coil is used to generate liquid. (Water) is heated to generate water vapor and humidify.
JP-A-10-15049

  By the way, in patent document 1, since the room which has a fixed volume is made into object, special consideration is required about mixing the fragrance generated by the fragrance generating means and the water vapor generated by the humidifying device. Not.

  On the other hand, in recent years, mist has been generated for the purpose of cosmetic effects such as washing the user's skin and moistening the user's skin by making the liquid mist and spraying it toward the user. The device is widely used. In such a mist generating device, the mist is ejected in a relatively narrow range, for example, the usage range of the mist generating device is limited to the user's face. For this reason, when a fragrance device is mounted on a mist generating device for the purpose of cosmetic effects, there is a possibility that if the fragrance is released without any consideration in the mist ejection direction, the fragrance cannot be delivered stably to the user. there were.

  This invention was made paying attention to the problem which exists in such a prior art, and the objective is to deliver the stable fragrance in the ejection direction of mist.

In order to solve the above-mentioned problem, the invention according to claim 1 includes a mist ejection port for ejecting a mist generated from a liquid by the mist generating means, an aroma discharge port for releasing the aroma generated by the aroma generating means, A mist generating device comprising: a device body having the mist ejection port and the fragrance discharge port disposed on a top surface , wherein the mist ejection port is configured to eject the mist in a predetermined direction. The fragrance outlet is provided on the user side of the mist outlet and in a position close to the mist outlet and faces the mist ejected from the mist outlet. The gist is that the fragrance can be released.

  According to this, a fragrance is discharged toward the mist ejected from the mist ejection port from a position different from the mist ejection port. For this reason, the ejected mist and aroma are mixed and integrated, and a stable aroma can be delivered (sent out) in the mist ejection direction. Therefore, the user who uses the mist generating device can obtain a stable fragrance when using the mist ejected from the mist ejection port against the face.

Further , it is possible to release fragrance toward the mist at a position before being diffused, that is, a position close to the mist ejection port with respect to the mist ejected so as to be diffused toward the user. In general, the mist ejected from the mist ejection port is ejected so as to be diffused away from the mist ejection port. For this reason, a fragrance discharge port is provided at a position separated from the mist jet port, and a fragrance discharge port is provided at a position close to the mist jet port and diffused as compared with the case where the fragrance is discharged toward the already diffused mist. The fragrance and the mist are more easily mixed when the fragrance is discharged toward the mist before being processed. Therefore, the user who uses the mist generating device can obtain a stable fragrance when using the mist ejected from the mist ejection port against the face.

The invention according to claim 2, in the mist generator according to claim 1, wherein the mist ejection port is disposed side by side in the apparatus main body with the plurality of formed, the fragrance emission port has a plurality formation The gist is that it is provided between the mist jet nozzles.

  According to this, while being able to mix the mist and fragrance which are each ejected from the plurality of mist ejection ports provided, it is possible to suppress the intensity of the fragrance from becoming uneven for each mist ejected from each mist ejection port. . For this reason, the user can obtain a stable fragrance regardless of which mist jetting port is used.

The invention according to claim 3, in the mist generator according to claim 2, wherein the mist generating means, wherein the warm mist and warm mist generation unit for generating warm mist by heating liquid, the liquid and mist A cold mist generating section that generates a cold mist at a lower temperature, and the mist nozzle jets the warm mist in a predetermined direction from the warm mist outlet, and the cold mist jets the cold mist. The gist of the invention is that it is configured to include a cold mist nozzle ejected from the outlet in a predetermined direction .

According to this, while ejecting warm mist and cold mist from different jet nozzles, respectively, it is possible to mix the ejected warm mist, cold mist and aroma.
According to a fourth aspect of the present invention, in the mist generating apparatus according to the third aspect, the warm mist nozzle and the cold mist nozzle are directed inward so that each mist is ejected toward the front of the user. The gist is that they are arranged in an inclined state.

  According to the present invention, a stable fragrance can be delivered in the mist ejection direction.

Hereinafter, an embodiment in which the present invention is embodied in a cosmetic device will be described with reference to FIGS.
In the following description, “front (front)”, “rear”, “upper”, “lower”, “left”, and “right” indicate that the user P (shown in FIG. 18) of the beauty device uses the beauty device. “Front (front)”, “Rear”, “Up”, “Down”, “Left”, and “Right” when the state facing the container is used as a reference.

  As shown in FIGS. 1 and 2, the main body (apparatus main body) 11 of the cosmetic device 10 has a wall erected from the entire circumference of the bottom formed in an elliptical shape, and its upper end is downwardly directed from the rear toward the front. The bottomed cylindrical housing (housing) 11a is inclined so as to be inclined, and the top surface 12 is formed so as to be inclined forward so as to cover the upper end opening of the housing 11a. . The main body 11 is provided with a main body lid 13 formed in a substantially bowl shape in which a wall is suspended from the periphery of the lid top surface 13 b formed in an oval shape and has a space inside. It is attached so that it can rotate in the front-rear direction with the portion 32 as a base point. In the approximate center of the top surface 12, a warm mist nozzle 18 having a warm mist outlet 18a that ejects (injects) warm mist H, and a cold mist C that is set to a temperature lower than the warm mist H is ejected (generated). A cold mist nozzle (cold mist generating part) 19 having a mist outlet 19a is disposed side by side on the main body 11 (each mist H, C is shown in FIG. 18). Each of the mist nozzles 18 and 19 is covered with a nozzle cover (ejection direction adjusting means) 20 formed in a substantially dome shape. The nozzle cover 20 is attached to the main body 11 so as to be rotatable in the vertical direction. By rotating the nozzle cover 20 in the vertical direction, the ejection direction of the mists H and C ejected from the mist nozzles 18 and 19 can be adjusted in the vertical direction. Here, the ejection directions of the mists H and C are directions along the center line passing through the centers of the mist ejection ports 18a and 19a, and are ejected toward the user P who uses the cosmetic device 10. The traveling directions of the mists H and C are indicated by a two-dot chain line H2 in FIG. The mist nozzles 18 and 19 are disposed so as to be inclined inward. The inclination of each mist nozzle 18, 19 is set so that each mist H, C is ejected toward the center (front) of the user P when the user P is located in front of the cosmetic device 10. Has been. The warm mist nozzle 18 is disposed on the left side of the nozzle cover 20, and the cold mist nozzle 19 is disposed on the right side of the nozzle cover 20. The nozzle cover 20 is set to an upper limit direction in which the mists H and C are ejected upward with respect to the user P, and to a lower side (the top surface 12) than the upper limit direction. The ejection direction H2 of each mist H, C can be adjusted between the lower limit direction ejected substantially horizontally with respect to the installation surface of the vessel 10. The lower limit direction of the nozzle cover 20 is set so that the mists H and C do not hit the top surface 12.

  Further, there is a wall around each mist nozzle 18, 19 of the nozzle cover 20 in a direction along the center line passing through the center of each mist ejection port 18 a, 19 a (a direction parallel to the ejection direction H 2 in a side view). The mist guide 20b extended in the shape is provided. The length of the mist guide 20b is longer on the lower side than on the upper side of the mist nozzles 18 and 19. The mist guide 20b guides the mists H and C ejected from the mist nozzles 18 and 19 to be ejected in a direction along the center line passing through the centers of the mist ejection ports 18a and 19a. It has become.

Further, a cap 21 as a protective tool is attached to the nozzle cover 20 so as to be rotatable in the vertical direction.
The cosmetic device 10 of this embodiment is equipped with a fragrance generating unit (fragrance generating means) 15 that generates a fragrance (fragrance) by volatilizing a predetermined fragrance (shown in FIGS. 3 and 13). The aroma generating unit 15 is equipped with an aroma container HY that accommodates an aroma dish (storage means, bottomed container) 121 for storing a fragrance to be volatilized. The fragrance container HY attached to the fragrance generating unit 15 is protruded upward from the top surface 12 by operation of a predetermined extraction button, and can be removed from the fragrance generating unit 15 by being pulled upward. In other words, the fragrance container HY is configured to be able to take out the direction intersecting the ejection direction H2 of each mist H, C as the direction of taking out from the fragrance generating unit 15. The fragrance generating unit 15 of the present embodiment is formed separately from the mist nozzles 18 and 19 of the main body 11 and is disposed in front of the mist nozzles 18 and 19. The fragrance generating unit 15 is formed with a fragrance discharge port (fragrance discharge means) 15a through which the generated fragrance can be discharged upward. The fragrance discharge port 15a that discharges the fragrance is disposed so as to be separated from the mist ejection ports 18a and 19a. Further, the fragrance discharge port 15a is formed on the user P side (front) from each mist jet port 18a, 19a and at a position close to each mist nozzle 18,19. Further, the fragrance discharge port 15a is arranged so that the center of the fragrance discharge port 15a is located between the center of the warm mist discharge port 18a and the center of the cold mist discharge port 19a (in the present embodiment, the center). ing. In other words, the fragrance discharge port 15a is a triangle in plan view such that the fragrance discharge port 15a protrudes toward the user P side (forward) at the center of each of the mist outlets 18a and 19a and the center of the fragrance discharge port 15a. Are arranged to constitute. And the aroma discharge port 15a is formed under each mist ejection port 18a, 19a in front view.

  Moreover, the fragrance generating part 15 (fragrance discharge port 15a) is disposed at a position overlapping the mist guide 20b of the nozzle cover 20 adjusted downward in plan view (shown in FIG. 3). For this reason, the fragrance container HY attached to the fragrance generating unit 15 cannot be removed due to interference (contact) with the mist guide 20b even if the fragrance container HY is to be taken upward with the nozzle cover 20 adjusted downward. Yes. That is, the fragrance container HY of the fragrance generating unit 15 can be taken out only when the nozzle cover 20 is adjusted upward. The fragrance generating part 15 is formed at a position where the fragrance discharge port 15a is not completely covered by the mist guide 20b even when the nozzle cover 20 is adjusted downward. That is, the fragrance generating unit 15 is configured to be able to discharge fragrance from the fragrance discharge port 15a toward the mists H and C even when the nozzle cover 20 is adjusted downward.

  On the left side of the fragrance generating unit 15, a power button 16 for turning on or off the power of the cosmetic device 10 is provided. The power button 16 is a mechanical switch. Further, on the right side of the fragrance generating unit 15, a fragrance container extraction button (extraction operation member) 111 for performing an extraction operation of the fragrance container HY provided in the fragrance generation unit 15 is disposed. The aroma container take-out button 111 is provided at a position where the hand of the user P who wants to press down the aroma container take-out button 111 does not hit the mists H and C. More specifically, even when the nozzle cover 20 is adjusted downward, the mists H and C are guided by the mist guide 20b so as to be ejected in a direction not hitting the fragrance container extraction button 111. . Further, the nozzle cover 20 cannot be rotated downward to a position where the mists H and C are brought into contact with the aroma container take-out button 111.

  In front of the fragrance generating unit 15, a cosmetic device is provided by an operation unit 14 for the user P to operate the cosmetic device 10 and lighting patterns (lighting (flashing) / lighting off) of a plurality of light emitters (for example, LEDs). A display unit L is provided for notifying (notifying) the user of 10 driving states. In the operation unit 14, an operation control button 14b, a use course selection button 14a, and an aroma control button 14c are arranged side by side in a row. The operation control button 14b is a button that is operated when the operation of the cosmetic device 10 is started and stopped. The use course selection button 14a is a button operated when an arbitrary use course is selected. In the cosmetic device 10 of the present embodiment, a plurality of use courses are set that are set so that the warm mist H and the cold mist C are switched at predetermined time intervals and ejected to the user P (for example, Clear skin course, elasticity course, sebum care course, etc.). Here, each use course is set with each spray time of hot mist H and cold mist C and the number of times of switching so that the beauty effect on the skin of user P is optimized according to the purpose of each use course. Has been. In the beauty machine 10 of this embodiment, every time the use course selection button 14a is pressed, the use course is sequentially switched. The cosmetic device 10 is not provided with a use course for ejecting only the cold mist C. The aroma control button 14 c is a button used when adjusting the intensity (volatilization amount) of the aroma (fragrance) released from the aroma generating unit 15. In the cosmetic device 10 of the present embodiment, every time the fragrance control button 14c is pressed, the fragrance strength (concentration) is changed from “weak” → “medium” → “strong” → “OFF (no fragrance)” It is designed to switch sequentially. Each button 14a-14c can output an operation signal when pressed.

  Also, behind the nozzle cover 20, a predetermined amount of liquid (in this embodiment, water) used to generate each of the mists H and C ejected from the mist nozzles 18 and 19 is used (in this embodiment). , About 120 ml) A water supply tank 22 for storage is installed in a state of being accommodated in the main body 11. More specifically, the water supply tank 22 is housed so that it can be inserted and removed in the vertical (vertical) direction with respect to a tank holder 22a formed so as to open on the top surface 12 of the main body 11 (see FIG. 3). Shown on the right side of the page). The water supply tank 22 is configured to be popped up (discharged) upward by an urging means (not shown) when pushed with the main body lid 13 open, and fixed to the hook 22d when pushed again. The water supply tank 22 can be easily attached and detached. Further, as shown in FIG. 3, an overflow hole 22c is provided on the lower side surface of the tank holder 22a to allow water supplied excessively into the tank holder 22a to overflow. One end of a drain pipe HP is connected to the overflow hole 22c. Further, the other end of the drain pipe HP is connected to a drain port 24 (shown in FIG. 10) provided at the rear lower side of the main body 11. A drainage path HK is formed by a drainage pipe HP connecting the overflow hole 22c and the drainage port 24, and the overflowed water can be discharged to the outside.

  As shown in FIGS. 1 and 2, handles 23 for carrying the cosmetic device 10 are attached to the left and right side surfaces of the main body 11. The handle 23 formed in a substantially U-shape is pivotally attached to the left and right side surfaces of the housing 11a so that both ends thereof can be rotated in the front-rear direction. And the handle 23 has the conveyance position (it shows with a dashed-two dotted line in FIG.2 (d)) which the user P carries with the handle 23, and the lower position at the time of using the cosmetic device 10 (FIG.2 (d)). (Indicated by a solid line) in the front-rear direction (indicated by an arrow Y1 in FIG. 2D). In addition, as shown in FIG.2 (b), when the main body cover 13 is opened, the handle 23 contacts the main body cover 13 (obstructs) and cannot be rotated to a conveyance position. . For this reason, in order to carry the cosmetic device 10 with the handle 23, the user P must keep the main body lid 13 closed.

  As shown in FIG. 2, a drain port cover 25 that covers the drain port 24 (shown in FIG. 10) and that can be opened and closed in the vertical direction around the lower end is provided at the rear lower side (rear surface) of the main body 11. ing. Inside the drain port cover 25 formed in a substantially rectangular shape, wall portions 25a are erected at both ends along the longitudinal direction to guide the water discharged from the drain port 24 to the outside. (Shown in FIG. 10). In addition, a power cord 26 is wired below the main body 11. The power cord 26 is sandwiched and fixed between the housing 11a and a bush holder (not shown) fixed to the housing 11a with screws. A cord band 27 is attached to the power cord 26, and when the cosmetic device 10 is not used, the power cord 26 can be held in a bundled state (shown in FIG. 2C). In addition, the cord band 27 is formed with a hole (not shown) so as to be hooked on a convex portion 28 formed at one end of the handle 23. For this reason, when the cosmetic device 10 is not used, the power cord 26 can be hooked and stored on the convex portion 28 in a bundled state.

  Further, a tilt detection switch 29 urged so as to protrude from the bottom surface of the main body 11 is provided on the bottom surface of the main body 11. When the cosmetic device 10 is installed on a plane such as a desk, the inclination detection switch 29 is housed in the main body 11 due to the weight of the cosmetic device 10 and is in an OFF state. The inclination detection switch 29 is configured to detect a state in which the beauty device 10 is lifted up when the beauty device 10 is inclined or lifted from a predetermined installation state.

Next, the main body lid 13 will be described with reference to FIGS.
As shown in FIGS. 1 to 3, the main body lid 13 has an open posture in which the top surface 12 is exposed and the cosmetic device 10 can be used (opened state), and a closed posture in which the entire top surface 12 is housed inside. (Closed state) is configured to be pivotable in the front-rear direction with a hinge portion 32 provided at the rear of the main body 11 as a base point. The main body lid 13 is configured to maintain an open posture when the cosmetic device 10 is used. When the main body lid 13 is in the closed posture, the operation unit 14, the fragrance generating unit 15, and the water supply tank 22 are formed inside the main body lid 13 in addition to the mist nozzles 18 and 19, the nozzle cover 20, and the cap 21. It is designed to be stored in the designated space. For this reason, when the cosmetic device 10 is not used, the body lid 13 is closed to prevent foreign matter from adhering to the mist nozzles 18, 19, thereby maintaining hygiene. Moreover, it can be prevented that foreign matters adhere to the mist nozzles 18 and 19 to change the ejection direction of the mists H and C and impair the feeling of use. That is, it can suppress that each mist H and C is ejected in directions other than the predetermined direction.

  The hinge 32 is provided with a magnet 32a, and the body lid 13 is in an open position (opened) by a reed switch type body lid switch 32b provided at a corresponding position of the body 11. This is detected (shown in the upper right of the drawing in FIG. 3). In addition, a stepped sliding rib 13c is provided on the inner side of the main body lid 13 so as to be recessed along the central portion so as to extend along the longitudinal direction. The sliding rib 13c slides the cap 21 so as to move downward when the body lid 13 is closed.

  An opening / closing button 33 for opening and closing the body lid 13 is provided in front of the body lid 13. As shown in FIG. 4, convex portions 33 a are formed to project from the left and right ends of the open / close button 33. The open / close button 33 is attached to the main body lid 13 so as to be rotatable in the front-rear direction with the convex portion 33a as a rotation center by engaging the convex portions 33a at both ends with the concave portions 13a of the main body lid 13. The open / close button 33 is covered with a button cover 34 fixed to the main body lid 13 with screws N1. Between the open / close button 33 and the main body lid 13, the spring B <b> 1 is arranged so as to be sandwiched between the open / close button 33 and the boss 33 b of the open / close button 33. The spring B1 urges the open / close button 33 forward.

  As shown in FIGS. 3 and 4, the hook portion 33 c provided at the tip of the open / close button 33 is engaged with the recess 12 a provided in the top surface 12 of the main body 11 to keep the main body lid 13 in a closed posture. It is like that. Further, when the opening / closing button 33 is pushed by the user P, the opening / closing button 33 rotates in the front-rear direction around the convex portion 33a and the engagement between the hook portion 33c and the concave portion 12a is released. The lid 13 can be opened.

Next, the movable cap 21 that protects the user P's hand from contacting the mist nozzles 18 and 19 will be described in detail with reference to FIGS.
As shown in FIG. 5, a cap 21 is attached to the nozzle cover 20 via a nozzle hinge portion 35 so that both left and right ends are bent downward and formed in a fan shape when viewed from the front.

  A pair of shaft portions 21 b are formed at the rotation base end of the cap 21 so as to face each other. A pair of shaft holes 36 a are formed on the left and right side surfaces of the nozzle hinge 36 at positions corresponding to the shaft portions 21 b of the cap 21. A spring shaft 37 inserted through a shaft hole 36 a formed in the left side surface of the nozzle hinge 36 is fixed to the left (one) shaft portion 21 b of the cap 21. The spring shaft 37 is fixed by fitting a recess (not shown) formed in the spring shaft 37 to the shaft portion 21b. On the other hand, a spring pin 39 through which a shaft hole 36 a formed in the right side surface of the nozzle hinge 36 is inserted is attached to the right (other) shaft portion 21 b of the cap 21.

  With this configuration, as shown in FIGS. 2B and 6, the cap 21 has an injection posture as a first position where the cap 21 is directed upward (the solid line in FIG. 2B and (Shown in FIG. 6 (a)) and the protective position (shown in the two-dot chain line in FIG. 2 (b) and FIG. 6 (b)) as the second position in which the cap 21 is directed downward. The spring shaft 37 and the spring pin 39 are pivotable in the vertical direction. Here, the ejection posture of the mist H and C is not blocked by the cap 21 and is a posture (position) suitable for ejecting the mist to the user P. Further, the protective posture is a position where the cap 21 covers the top of the mist nozzles 18 and 19 and the ejection direction of the mists H and C is changed downward.

  As shown in FIG. 5, one end of a torsion coil spring B <b> 2 is fixed to the spring shaft 37. On the other hand, the other end side of the torsion coil spring B <b> 2 is fixed to the nozzle hinge 36. In addition, a shaft cover 38 that protects components such as the attached spring shaft 37 and the torsion coil spring B2 is fixed to the nozzle hinge 36 with screws N2. The torsion coil spring B2 biases the cap 21 through the spring shaft 37 so that the cap 21 is maintained in the injection posture.

  In addition, convex portions 36b are formed on the left and right side surfaces of the nozzle hinge 36 so as to be positioned below the shaft hole 36a. Grooves 36c formed so as to communicate the inner side and the outer side of the nozzle hinge 36 with a predetermined width are formed around each convex portion 36b excluding a part of the connecting portions. For this reason, when a predetermined load is applied, each convex portion 36b moves so as to enter the inside of the nozzle hinge 36 by bending a connecting portion where the groove portion 36c is not formed. Further, when no load is applied, each convex portion 36b returns to a position protruding from the side surface of the nozzle hinge 36 by the restoring force of the material forming the nozzle hinge 36. That is, each convex part 36b is given flexibility by the groove part 36c.

  The nozzle hinge portion 35 is fixed by engaging each convex portion 36b with a concave portion 20a formed on the upper portion of the nozzle cover 20 and facing the rear of each mist nozzle 18, 19, respectively. The nozzle hinge portion 35 is detachable from the nozzle cover 20 because each convex portion 36b has flexibility. That is, the cap 21 is configured to be detachable from the nozzle cover 20 because the nozzle hinge portion 35 is configured to be detachable from the nozzle cover 20. The nozzle hinge portion 35 is disposed so as to be embedded in the nozzle cover 20. For this reason, the whole beauty machine 10 is miniaturized.

  Further, when the main body lid 13 is closed, the cap 21 moves to the protective posture (downward) side while sliding the sliding rib 13c in accordance with the closing operation of the main body lid 13, and is stored in the main body lid 13. ing. For this reason, when the main body lid 13 is closed, the cap 21 is accommodated in the main body lid 13, so that the entire cosmetic device 10 is downsized (compacted).

Next, the warm mist generating mechanism (warm mist generating means) 40 built in the main body 11 of the cosmetic device 10 will be described in detail with reference to FIG.
As shown in FIG. 7, the warm mist generating mechanism 40 includes a warm mist boiler chamber (warm mist generating section) 41 that generates warm mist by heating water supplied from the water supply tank 22, and finely generates the generated warm mist. It is mainly composed of a discharge portion 42 that is made into an ion (ionization) and a warm mist nozzle 18 that ejects a refined warm mist.

  In the connecting portion 22b provided at the lower end of the tank holder 22a for setting the water supply tank 22, water supplied from the water supply tank 22 is supplied with a warm mist generating mechanism 40, a cold mist generating mechanism 60 (shown in FIG. 9), and A branch portion G that branches to the drain outlet 24 (shown in FIG. 10) so as to be supplied is connected. One end of a water supply pipe P1 formed of an elastic material (for example, silicon rubber or fluorine rubber) having heat resistance is connected to the branch portion G. The other end of the water supply pipe P1 is connected to the warm mist boiler chamber 41, and a water supply path K1 for supplying water from the tank holder 22a to the warm mist boiler chamber 41 is formed. The warm mist boiler chamber 41 is provided with a boiling chamber 41c provided with a warm mist heater 41a for heating the supplied water to generate warm mist. Water is supplied to the boiling chamber 41c through a water supply path K2 branched sideways from the water supply path K1. In addition, the boiling chamber 41c is formed so as to increase the contact area between the water and the warm mist heater 41a and to reduce its internal volume. Note that the water level of the boiling chamber 41c is maintained at a predetermined water level W. Here, the water level W is set to a height at which the heated water is not ejected from the warm mist nozzle 18 when water is heated excessively by the warm mist heater 41a and bumps. Further, the water level W is set to a height at which the water mist heater 41a of the boiling chamber 41c does not come into contact with water, that is, a so-called empty water level. The above-described overflow hole 22c is formed at a height (position) at which water exceeding the water level W can be discharged to the outside. And the water level of the boiling chamber 41c and the water level of the tank holder 22a become equal. A heater thermistor 41b is fixed with a screw to the heat radiating surface of the warm mist heater 41a (the surface not in contact with water).

  A warm mist guiding member 42 a for guiding the warm mist generated by the warm mist heater 41 a to the warm mist nozzle 18 is connected above the warm mist boiler chamber 41. The lower end of the bellows member 45 formed in a bellows shape using an elastic material (for example, silicon rubber) is connected to the warm mist guiding member 42a. A nozzle holder 44 to which a nozzle packing 43 is attached is connected to the upper end of the bellows member 45. A warm mist nozzle 18 is fixed to the nozzle packing 43. A warm mist path M1 for guiding the warm mist generated by the warm mist heater 41a to the warm mist nozzle 18 is formed by the warm mist guiding member 42a and the bellows member 45.

  The warm mist guiding member 42a is provided with a discharge part 42 inside the warm mist path M1. As shown in FIG. 8, the discharge part 42 includes a discharge needle 48 and a pair of electrode parts 47 formed so as to protrude from the side of the inner wall surface of the warm mist guiding member 42 a, and between the electrode parts 47. It is comprised from the intermediate | middle electrode part 47a arrange | positioned. In FIG. 8, the lower side of the drawing is the warm mist boiler chamber 41 side, and the upper side of the drawing is the warm mist nozzle 18 side. Further, the warm mist generated in the warm mist boiler chamber 41 flows in the direction indicated by the arrow Y2.

  Each discharge needle 48 constituting the electrode portion 47 is embedded and fixed in an electrode holder 49 whose base end is fixed to the inner wall of the warm mist guiding member 42a. For example, the discharge needle 48 is formed of an AgPd material in a needle shape having a diameter of 0.5 mm. Each discharge needle 48 is connected to the high-voltage circuit board 46, and when a high voltage is applied, a discharge is generated between both discharge needles 48, thereby miniaturizing the temperature mist.

  In addition, a water absorbent 50 is disposed around each discharge needle 48 over the entire circumference of each discharge needle 48. The water absorbing body 50 is configured by winding a fiber material such as a nonwoven fabric around each discharge needle 48, for example. The water absorber 50 is formed so that the tip of each discharge needle 48 protrudes by a predetermined length (for example, 0.5 mm to 1.0 mm) so that the entire discharge needle 48 is not buried in the water absorber 50. Has been. Further, on the surface of the water absorbing body 50, the fiber material constituting the water absorbing body 50 is frayed and a fine fiber body 50a protrudes in a feather shape. If the warm mist H adheres to the tip of each discharge needle 48 where the ion generation electric field is concentrated and dew condensation occurs, the electric field distribution generated between the discharge needles 48 is significantly disturbed, making it difficult for discharge to occur and reducing the number of ions. Are known. The water absorber 50 of the present embodiment absorbs water adhering to each discharge needle 48, thereby stabilizing the electric field distribution at the tip of each discharge needle 48 and preventing the electric field distribution from being disturbed.

  Each electrode portion 47 is provided with an insulator 51 so as to cover the side surfaces of the water absorbing body 50 and the electrode holder 49. The insulator 51 is made of, for example, silicon rubber, fluororubber, fluororesin, or the like.

  The intermediate electrode 52 constituting the intermediate electrode portion 47a is held so as to be positioned between the discharge needles 48 by an intermediate electrode holding member 54 that is press-fitted and fixed to a convex portion 53 formed on the warm mist guiding member 42a. Has been. For example, the intermediate electrode 52 is formed of a Pt material in a rod shape having a diameter of 0.7 mm. The intermediate electrode holding member 54 is formed of, for example, a stainless material (SUS304 or the like). On the fixed side of the intermediate electrode holding member 54, a water absorbing body 54a is disposed. Further, the position of the intermediate electrode 52 is set to a position where the high-voltage discharge between the discharge needles 48 is performed only through the intermediate electrode 52 without passing through the intermediate electrode holding member 54. By providing the intermediate electrode 52 between the two discharge needles 48, the dielectric breakdown voltage required for high-voltage discharge can be reduced, and discharge can be performed at a lower voltage than when the intermediate electrode 52 is not provided.

Next, the cold mist generating mechanism (cold mist generating means) 60 built in the main body 11 of the cosmetic device 10 will be described in detail with reference to FIG.
As shown in FIG. 9, the cold mist generating mechanism 60 includes a heat treatment unit 61 that sterilizes the water supplied from the water supply tank 22, a cooling unit 62 that cools the water sterilized by the heat treatment unit 61, and the cooled water. It is mainly composed of a cold mist nozzle 19 which is misted and ejected by the venturi effect.

  One end of a water supply pipe P2 formed of an elastic material (for example, silicon rubber) is connected to the branch portion G provided continuously with the tank holder 22a. The other end of the water supply pipe P2 is connected to the heat treatment unit 61 to form a water supply path K3.

  The heat treatment unit 61 is formed with a storage chamber 61a that stores water up to the same water level (water level W) as the tank holder 22a. In addition, a cold mist heater 64 is screwed and fixed to the heat treatment unit 61 so as to come into contact with the water stored in the storage chamber 61a, and a damper unit 65 that suppresses convection of the water heated by the cold mist heater 64. Is provided. The damper part 65 is configured to meander the flow path between the inflow port 65a provided below and the outflow part 65b provided above, and the length of the flow path becomes long. More specifically, the damper portion 65 is provided with a plurality of partition plates 65c that are alternately extended horizontally from the opposing inner walls, and the interior of the damper portion 65 is partitioned into a plurality of layers to form a flow path. . In the present embodiment, three partition plates 65c are provided inside the damper portion 65, and the interior of the damper portion 65 is partitioned into four layers.

  Here, the distance (height) between the partition plates 65c can increase the length of the flow path formed inside the damper portion 65, and can increase the path resistance so that the flow rate does not decrease ( (Height) is set. In addition, the area of the inflow port 65a is set so that it may become the minimum in the range which does not prevent inflow of water. Further, the internal volume of the damper unit 65 is set so that it does not take too much time to reach the predetermined sterilization temperature (for example, 80 ° C.) by heating the water flowing into the damper unit 65 with the cold mist heater 64. Has been.

  Here, the sterilization temperature will be described. The sterilization temperature is a temperature at which the target bacteria to be sterilized can be substantially killed by maintaining the temperature for a predetermined time. For example, when the bacterium to be sterilized is Legionella, the death rate can be made approximately 100% by continuing 80 ° C. for 30 seconds or more. When the sterilization temperature is increased, the time required for sterilization can be shortened, while steam is blown from the cold mist nozzle 19 or water flows backward to the tank holder 22a by boiling in the heat treatment unit 61. there is a possibility. For this reason, the sterilization temperature is set such that the water does not boil inside the heat treatment unit 61 and is as high as possible. In this embodiment, the sterilization temperature is set to 80 ° C., and the heating time is set to 30 seconds.

  A water temperature thermistor 66 that measures the water temperature inside the damper portion 65 is disposed in the storage chamber 61a. The water temperature thermistor 66 is provided in a place where the water temperature is most likely to be the lowest inside the damper portion 65. In the present embodiment, the damper 65 is disposed at the inlet 65a. Further, a pressure release port 62b communicated with the tank holder 22a by a tubular member (not shown) is formed above the water level W of the storage chamber 61a.

  A gas-liquid exchange part 67 is connected to the outflow part 65b of the damper part 65 so as to capture bubbles contained in the water flowing out from the outflow part 65b. More specifically, the gas-liquid exchange part 67 is provided with a gas-liquid exchange chamber 67a formed in a substantially cylindrical shape extending in the horizontal direction. The outflow part 65b of the damper part 65 is connected below the one end side (upstream side) of the gas-liquid exchange chamber 67a, and the outflow part 67c from which water flows out below the other end side (downstream side). Is formed. In the gas-liquid exchange chamber 67a, bubbles included in the water supplied from the damper unit 65 are moved upward and captured, and the bubbles and water are exchanged. Air bubbles are generated or mixed when water is heated by the cold mist heater 64 or when water passes through the connecting portions of the components. Further, the internal volume of the gas-liquid exchange chamber 67a is set to be larger than the volume of bubbles generated by using the cosmetic device 10.

  In the outflow part 67c of the gas-liquid exchange part 67, a heat radiating member 68 formed so as to penetrate the water supply path K4 is continuously provided. The lower side (upstream side) of the water supply path K <b> 4 is connected to the outflow part 67 c of the gas-liquid exchange part 67. The heat radiating member 68 is made of, for example, aluminum fins, and takes heat of water supplied into the water supply path K4 to radiate and cool it. The upper side (downstream side) of the water supply path K4 is connected to the water supply pipe 69 connected to the cold mist nozzle 19 hooked to the nozzle holder 44a.

  A blower pipe 78 to which a blower pump 77 is connected is connected to the cold mist nozzle 19. The cold mist nozzle 19 ejects the air sent from the blower pump 77, and is configured to mist while sucking the heated water inside the damper portion 65 by the venturi effect and eject the cold mist C. Has been. More specifically, an air ejection portion 19c that ejects air conveyed from the blower pump 77 through the blower pipe 78 toward the front is disposed at the center of the cold mist nozzle 19 in plan view. In addition, a water supply unit 19b is disposed on the front side of the air ejection part 19c in the vicinity of the air ejection part 19c. The water supply unit 19b is opened in a sufficiently small and reduced diameter state, and water is sucked out by the negative pressure generated when air is ejected from the air ejecting unit 19c and is misted forward. It comes to be ejected. In this embodiment, the cold mist outlet 19a is comprised from the air ejection part 19c and the water supply part 19b.

  A cooling motor 71 to which a cooling fan 70 is attached is disposed below the heat radiating member 68. The cooling fan 70 is rotationally driven by a cooling motor 71 and sucks air through a dustproof filter 73 from a cooling inlet 72 formed on the bottom surface of the main body 11 (housing 11a). The dustproof filter 73 is set to have a mesh roughness or an aperture ratio that does not allow dust or dust to pass therethrough. Around the cooling fan 70, the cooling motor 71, and the heat radiating member 68 (cooling portion 62), a substantially cylinder that houses the cooling fan 70, the cooling motor 71, and the heat radiating member 68 (cooling portion 62) inside. A partition member 74 formed in a shape is disposed, and is configured to send air toward the heat radiating member 68 disposed on the downstream side by the cooling fan 70. That is, the heat radiating member 68 is cooled by the air sent out by the cooling fan 70. Further, above the partition member 74, a lower end side of a bellows member 75 in which an elastic material (for example, silicon rubber) is formed in a bellows shape is attached. The upper end side of the bellows member 75 is connected to an air outlet 76 formed around the cold mist nozzle 19 so as to be concentric with the air ejection portion 19c of the cold mist nozzle 19 in front view. The partition member 74 and the bellows member 75 form an air passage S <b> 1 through which air sent from the cooling fan 70 is sent out from the air outlet 76.

  Next, the drainage mechanism 80 provided at the rear lower side (rear surface) of the main body 11 of the cosmetic device 10 will be described in detail with reference to FIGS. The drainage mechanism 80 is a mechanism for draining water that satisfies the water supply tank 22, the tank holder 22 a, the warm mist generation mechanism 40, and the cold mist generation mechanism 60 to the outside of the main body 11.

  As shown in FIG. 10, the drainage cover 82 disposed in the housing 11a is provided with a drainage port 24 and a drainage button 81 that is slid up and down when the user P drains. . The drain button 81 is housed inside together with the drain port 24 when the drain port cover 25 is closed.

  As shown in FIGS. 10 and 11, the drainage button 81 is provided with a finger hooking portion 81a that protrudes outside the housing 11a when the user P operates the drainage button 81. A pair of hook portions 81b are formed on the back surface of the drainage button 81 so that the drainage button 81 is slidably attached to the drainage portion cover 82 by being engaged with an opening 82a formed in the drainage portion cover 82. Has been. Further, a quadrangular prism-shaped convex portion 81c is formed between the hook portions 81b.

  On the upper end of the drainage cover 82, a convex portion 82d is formed to protrude upward. And the drainage part cover 82 is being fixed to the housing 11a by fixing a lower end part with the screw which is not shown in figure, locking the convex part 82d to the housing 11a. On the back surface of the drainage cover 82, a plate-shaped guide plate 82b extending in parallel along the vertical direction is erected. A pair of engaging portions 82c are formed to project between the pair of guide plates 82b.

  Further, a guide member 83 is disposed on the back surface of the drainage cover 82 so as to be positioned between the guide plates 82b. An engaging hole 83b into which the convex portion 81c of the drainage button 81 is press-fitted is provided at the approximate center of the guide member 83. The drain cover 82 and the drain button 81 are fixed with the hook portion 81b engaged with the engagement portion 82c. Therefore, when the drain button 81 is slid by the user P, the guide member 83 is slid up and down while being guided by the guide plate 82b of the drain cover 82 together with the drain button 81. It has become. A drainage arm 84 is fixed below the guide member 83 by a screw N3. The drainage arm 84 is formed to be bent in a substantially L shape when viewed from the side, and an engagement portion 84a is cut out at the distal end portion opposite to the base end portion fixed with screws. The drainage arm 84 is integrated with the guide member 83 and is slidable in the vertical direction. That is, when the drain button 81 is slid up and down by the user P, the drain button 81, the guide member 83, and the drain arm 84 move together in the up and down direction.

  As shown in FIG. 12, a drainage chamber 85 to which a drainage pipe P <b> 3 connected to the branch portion G is connected is formed in the back of the drainage port 24. That is, the water to be drained is discharged from the drainage port 24 through the drainage pipe 85 through the drainage chamber 85, through the opening 85a formed at the bottom of the drainage chamber 85 (FIG. 12). Is indicated by an arrow Y3). The drain pipe P3 and the drain chamber 85 are provided at a lower position (downward) than the water supply tank 22, the tank holder 22a, the warm mist generating mechanism 40, the cold mist generating mechanism 60, and the like.

  The drainage chamber 85 is provided with a drainage packing 86 capable of closing the opening 85a of the drainage chamber 85. The drainage chamber 85 is in an unsealed state in which drainage is performed in conjunction with the sliding operation of the drainage button 81, and drainage is stopped. It is configured to be switchable to the closed state. More specifically, a slide bar 87 is provided at the approximate center of the drain chamber 85 in a plan view so as to be swingable (slidable) in the vertical direction. A lower E-ring 87 b to which the inside of the drainage packing 86 is attached is attached to the lower end side of the slide bar 87. In the drainage packing 86, when the slide bar 87 moves downward, the inner part fixed to the lower E ring 87b simultaneously moves downward to close (seal) the opening 85a. In addition, when the slide bar 87 moves upward, the inner portion of the drain packing 86 that is fixed to the lower E-ring 87b simultaneously moves upward to release (open) the closed state of the opening 85a. Yes. Further, the outer side of the drainage packing 86 is disposed in close contact with the inner wall surface above the drainage chamber 85 so that water does not flow out of the drainage chamber 85 into the main body 11.

  An upper E-ring 87a is mounted at the approximate center of the slide bar 87 in the vertical direction. A spring receiving portion 88 a that supports a coil spring 88 through which the slide bar 87 is inserted is formed below the tank holder 22 a disposed above the slide bar 87. The coil spring 88 is arranged between the spring receiving portion 88a and the upper E-ring 87a to urge the slide bar 87 downward. That is, the spring receiving portion 88a is an upper stopper of the coil spring 88, and the upper E-ring 87a is a lower stopper. The outer diameter of the upper E-ring 87a is set larger than the outer diameter of the coil spring 88.

  On the lower side of the upper E-ring 87a, the engaging portion 84a of the drainage arm 84 is locked. Therefore, when the drain button 81 is not operated, the slide bar 87, the drain arm 84, and the guide member 83 that operates integrally with the drain arm 84 and the drain button 81 are urged downward by the coil spring 88. Is always held in a state of moving downward (state of FIG. 12A). In this state, the slide bar 87 is moved downward, and the opening 85 a is closed (sealed) by the drainage packing 86. Note that the inner portion of the drainage packing 86 is brought into close contact with the peripheral edge of the opening 85a by the downward biasing force of the coil spring 88, so that the closed (sealed) state is maintained. On the other hand, when the drain button 81 is slid upward by the user P, the drain arm 84 is also moved upward in conjunction with the slide bar 87 that is locked by the upper E-ring 87a. (State shown in FIG. 12B). In this state, the slide bar 87 moves upward with the movement of the drain button 81, and the closed state (seal) of the opening 85a is released, so that drainage is performed.

The drain arm 84 is configured not to contact the drain packing 86 when the slide bar 87 moves to the lowermost end.
Next, the fragrance generating unit (fragrance generating means, fragrance generating device) 15 that volatilizes the stored fragrance and generates a fragrance will be described in detail with reference to FIGS.

As shown in FIG. 13, the aroma generating unit 15 includes an aroma container HY that stores a fragrance, a volatilizer 90, and an aroma container attaching / detaching mechanism 91.
First, the volatilizer 90 that volatilizes the fragrance stored in the fragrance container HY will be described. As shown in FIG. 13, a fragrance housing 93 is fixed to the housing 11a and forms an accommodation chamber 93a that opens in the approximate center of the top surface 12 and can store the fragrance container HY. A guide rib 93d is formed on the inner wall surface of the storage chamber 93a so as to extend in the vertical direction. At the upper end of the guide rib 93d, a reed switch type extraction button sensor 93f is disposed. The extraction button sensor 93f is turned on by the magnet 123g provided in the fragrance container HY, so that the fragrance container HY is accommodated in the accommodation chamber 93a, that is, the fragrance generation unit 15 is mounted with the fragrance container HY. It comes to detect that.

  In the motor chamber 93b formed below the fragrance housing 93, a fragrance motor 95 is accommodated. The fragrance motor 95 is fixed to the fragrance housing 93 by screwing a motor holder 96 formed in a substantially disk shape from below. A bush 95b is fixed to the front end of the drive shaft 95a of the fragrance motor 95 disposed so as to protrude upward from the bottom surface of the storage chamber 93a by press-fitting. An aromatic fan 94 is fixed to the bush 95b by press fitting. The fragrance fan 94 is rotationally driven by the fragrance motor 95 so that air can be conveyed (blowed) toward the upper side of the storage chamber 93a. A packing 95c is disposed between the fragrance housing 93 and the fragrance motor 95, and is sealed (sealed) so that the storage chamber 93a and the motor chamber 93b do not communicate with each other. In this embodiment, the fragrance fan 94 that is rotationally driven by the fragrance motor 95 functions as a volatilizing means.

  A pipe-like connection boss 93 c that opens below the fragrance fan 94 is formed on the lower side surface of the fragrance housing 93. One end of an intake tube 97 formed of an elastic material (for example, silicon rubber) is connected to the connection boss 93c. The other end of the intake tube 97 is connected to a pipe-like connection boss 98 that is fixed so as to communicate with an intake port (intake portion) 99 formed on the bottom surface of the housing 11a. The inner diameter of the connection boss 98 and the diameter of the intake port 99 are substantially matched. A fragrance filter 100 is provided outside the bottom of the housing 11a so as to cover the intake port 99. The fragrance filter 100 is set to a mesh roughness or an aperture ratio that does not allow dust or dust to pass through.

  And the ventilation path S2 which connects the bottom face of the housing 11a and the top | upper surface 12 is formed from the storage chamber 93a of the fragrance housing 93, the connection boss 93c, the intake tube 97, and the connection boss 98. The fragrance fan 94 is rotationally driven by the fragrance motor 95, thereby sucking air from the bottom surface of the main body 11 through the fragrance filter 100, and also containing the air sucked into the blowing path S2. It sends out toward the upper part of 93a.

  Next, the fragrance container attaching / detaching mechanism 91 for detachably attaching the fragrance container HY to the storage chamber 93a of the fragrance housing 93 will be described. As shown in FIGS. 13 and 14, the fragrance container attaching / detaching mechanism 91 includes an fragrance container lifting portion 101 that pushes the fragrance container HY upward, and an fragrance container that fixes the fragrance container HY to the storage chamber 93a and releases the fixation. It is comprised from the fixing | fixed part 102. FIG.

First, the aroma container push-up unit 101 will be described.
As shown in FIGS. 13 and 14, the fan cover 103 is fixed to the accommodation chamber 93 a with screws N <b> 4 so as to cover the fragrance fan 94. The fan cover 103 is formed with a plurality of (three in this embodiment) guide portions 103b so as to extend in the vertical direction. The fan cover 103 has a plurality of (three in this embodiment) ventilation holes 103a through which the air sent from the fragrance fan 94 passes is formed between the guide portions 103b. The upper portion of the fan cover 103 is provided with a spring receiving portion 103c recessed in a columnar shape and a boss portion 103d formed so as to protrude upward from the center of the spring receiving portion 103c. A push-up spring 104 is disposed in the spring receiving portion 103c so as to be inserted through the boss portion 103d.

  A cylindrical spring cover 105 having a top plate is disposed above the fan cover 103 so as to cover the fan cover 103 and the push-up spring 104. On the lower surface side of the spring cover 105, a cylindrical hollow boss portion 105a into which the boss portion 103d of the fan cover 103 is inserted while being movable in the vertical direction with respect to the fan cover 103 is provided (see FIG. 13). Show). Similarly to the boss portion 103d, the hollow boss portion 105a is disposed inside the push-up spring 104, thereby guiding the expansion and contraction operation of the push-up spring 104 and being urged upward by the push-up spring 104. ing. On the side surface of the spring cover 105, hook portions 105b of the same number as the guide portions 103b provided on the fan cover 103 are extended downward. Each hook portion 105 b engages with the guide portion 103 b of the fan cover 103 to guide the spring cover 105 so as not to rotate in the circumferential direction with respect to the fan cover 103, and at the same time, does not come out upward.

As described above, the fragrance container push-up portion 101 is configured by the fan cover 103, the push-up spring 104, and the spring cover 105.
Next, the fragrance container fixing portion (regulating means) 102 will be described.

  On the upper side of the fragrance housing 93, a bottomed substantially cylindrical button mounting portion 93e is formed so as to protrude sideways. A hook projecting hole 107 communicating with the storage chamber 93a is formed on the storage chamber 93a side of the button mounting portion 93e. A plate-like hook guide lane 106 extending toward the hook projecting hole 107 is provided at the bottom of the button mounting portion 93e. On the hook guide lane 106, a hook member 108 is disposed that protrudes into the accommodation chamber 93a and locks the aroma container HY so that it cannot be removed. One end of a detachable spring 109 is fixed by press-fitting to the convex portion 108a provided on the rear side of the hook member 108 in the protruding direction, that is, on the side away from the storage chamber 93a. The other end of the detachable spring 109 is fixed to the inner wall of the button mounting portion 93e, and the entire hook member 108 is biased toward the side protruding from the storage chamber 93a (the storage chamber 93a side). At both ends in the direction orthogonal to the direction in which the hook member 108 protrudes, convex portions 108b are formed that extend downward and project horizontally toward the outside. Further, the hook member 108 is formed with a pair of long holes 108 c in parallel along the protruding direction of the hook member 108. In the long hole 108c, an inclined portion 108d is formed so as to be inclined downward from the rear side of the hook member 108 toward the protruding side of the hook member 108.

  A substantially cylindrical button holder 110 for fixing the hook member 108 from above is disposed above the hook member 108. The button holder 110 is press-fitted into the button attachment portion 93e and is fixed at a position that does not protrude from the top surface 12. On the side of the button holder 110, a wall portion 110a extending downward is formed facing the button holder 110. At the lower end of each wall portion 110a, a lower end surface 110b that is disposed in parallel with the upper surface of the convex portion 108b and restricts the hook member 108 from moving in the vertical direction is formed. Further, on each lower end surface 110b, a protruding stop wall 110c is formed to protrude downward so that the convex portion 108b of the hook member 108 is brought into contact with the urging force of the detachable spring 109. That is, the hook member 108 is prevented from dropping from the hook projecting hole 107 into the accommodation chamber 93a by the urging force of the detachable spring 109 by the protrusion 108b coming into contact with the projecting stop wall 110c. An aroma container take-out button 111 that is pushed down by the user P is attached to a button accommodating portion 110 d provided inside the button holder 110. Further, a lower portion of the button holder 110 is provided with a notch portion 110e that is formed in a rectangular shape from the bottom to the top so as to face each other.

  A pair of rib portions 111 a that are engaged with the inclined portion 108 d of the hook member 108 are formed below the fragrance container extraction button 111. An inclined surface corresponding to the inclined surface of the inclined portion 108d is formed at the lower end of each rib portion 111a. That is, the inclined surface of the rib portion 111a is formed so as to be inclined downward from the side disposed on the rear side of the hook member 108 toward the side disposed on the protruding side. When the aroma container take-out button 111 is pressed, the hook member 108 is moved toward the rear side while sliding while the lower slope of each rib part 111a and the sloped part 108d of the hook member 108 are in contact with each other. It has become. And the front-end | tip part of the hook member 108 will be in the state which does not protrude from the storage chamber 93a. The hook member 108 is urged toward the direction of projecting into the storage chamber 93a, so that the entire fragrance container ejection button 111 is urged upward. In addition, the aroma container take-out button 111 is formed with a hook portion 111b so as to face each other between the rib portions 111a. Each hook part 111b is engaged with each notch part 110e of the button holder 110 so that the aroma container take-out button 111 is slidable in the vertical direction and does not come out upward.

As described above, the fragrance container fixing portion 102 is configured by the hook member 108, the attachment / detachment spring 109, the button holder 110, and the fragrance container extraction button 111.
Next, the fragrance container HY for storing the fragrance will be described in detail with reference to FIGS. 13 and 15 to 17.

  As shown in FIGS. 13 and 15, the fragrance container HY includes a holding member 120 set on the spring cover 105 disposed in the storage chamber 93a, an fragrance dish (bottomed container) 121 for storing fragrance, The lid member 123 is mounted mainly on the holding member 120.

  On the upper part of the holding member 120 formed in a substantially cylindrical shape, a support part 120a for supporting the bottom of the aroma dish 121 from below, and a spring cover 105 side and an aroma dish 121 side formed around the support part 120a are provided. A communication opening (air passage) 120b is provided. The lower surface of the support portion 120a is supported in contact with the spring cover 105 in the accommodation chamber 93a. In addition, on the upper portion of the holding member 120, a plurality (three in this embodiment) of hook portions 120c are erected in the circumferential direction of the holding member 120 at predetermined intervals (in this embodiment, about 120 degrees). The aroma dish 121 can be detachably fitted. In the present embodiment, the aroma dish 121 and the holding member 120 constitute a bottomed container member. In addition, a metal ring 122 is attached to the hook portion 120c in a state where the aroma dish 121 is fitted. Further, two cutout portions 120d are formed at the upper end of the holding member 120 by cutting out a part of the upper end along the circumferential direction. Each notch 120d is provided with a recess 120e. The holding member 120 is formed in such a size that an infant or the like cannot accidentally enter the mouth with the aromatic dish 121 attached.

  A cylindrical lid member 123 having a top plate portion 123a having the same inclination angle as the inclination angle of the top surface 12 is detachably attached to the holding member 120. More specifically, two convex portions 123b that fit into the respective concave portions 120e of the holding member 120 are formed at corresponding positions below the inner side of the lid member 123. And while inserting each convex part 123b of the holding member 120 from upper direction with respect to the notch part 120d, each convex part 123b and the recessed part 120e are each fitted by rotating the cover member 123 to the circumferential direction. It is like that. In addition, the engagement state can be released by rotating the lid member 123 in the reverse direction from the state in which each projection 123b and the recess 120e are fitted. When the lid member 123 is attached to the holding member 120, the hook portion 120 c, the fitted aromatic dish 121, and the ring 122 are covered with the lid member 123. In the center of the top plate portion 123a of the lid member 123, an aroma discharge port 15a for releasing the volatilized aroma is formed. The fragrance outlet 15a is formed in a lattice shape in plan view in a state where the upper part of the fragrance outlet 15a and the inside of the fragrance container HY are communicated. The size of the grid formed in the fragrance discharge port 15a is a size that does not hinder the ejection of the air carried by the fragrance fan 94, and when the liquid fragrance adheres to the grid structure, It is set to a size that is held in the eye and difficult to pass. The size of the lattice of the fragrance discharge port 15a is such a size (fineness) that the user P can be prevented from dropping the fragrance from the upper portion of the fragrance discharge port 15a onto the fragrance plate 121. Is set to In the present embodiment, the lattice is set to □ 0.5 to 4.0 mm, preferably □ 1.8 to 2.2 mm.

  In addition, a guide lane 123c having a rib structure is provided on the side surface of the lid member 123 so as to expand downward. The guide lane 123c is engaged with the guide rib 93d formed in the storage chamber 93a when the fragrance container HY is inserted into the storage chamber 93a, so that the top plate portion 123a and the top surface 12 (main body 11) are inclined. Guides to a state where and match. The lid member 123 is provided with a magnet 123g between the guide lanes 123c. The magnet 123g is disposed at a position corresponding to the take-out button sensor 93f in a state where the fragrance container HY is fixed to the storage chamber 93a. At the lower end of the lid member 123, a flange portion 123e is formed for forming an air passage so as to extend in the circumferential direction. A rubber installation portion 123f partitioned by a plurality of rib structures is formed on the top of the lid member 123, and a rubber member 125 formed in a substantially rectangular parallelepiped is inserted. The lower end portion of the rubber member 125 protrudes from a not-shown peep hole formed in the lid member 123, and comes into contact with the inner wall surface of the storage chamber 93a in a state where the fragrance container HY is inserted into the storage chamber 93a (on the wall surface). It is configured to be depressed so as to be pushed into the lid member 123).

  Further, as shown in FIG. 13, on the inner side of the lid member 123, the advancing direction of the air conveyed by the fragrance fan 94 from the lower side to the upper side of the fragrance container HY is changed from substantially the entire circumference of the fragrance plate 121 to the fragrance plate. A direction changing unit 126 that changes in a direction of flowing into the interior of 121 is provided. More specifically, the direction changing portion 126 is formed inside the top plate portion 123a of the lid member 123, and is formed so that the inner wall surface and the fragrance discharge port 15a have an inverted U shape in a cross-sectional view. Yes.

  In addition, a protruding portion 123d is formed on the side surface of the lid member 123 so that the tip of the hook member 108 is locked. When the fragrance container HY is inserted into the storage chamber 93a, the protrusion 123d is locked to the tip of the hook member 108, so that it is fixed in a state where it cannot be taken out. When the fragrance container extraction button 111 is pressed and the hook member 108 moves away from the storage chamber 93a in a state where the protrusion 123d is locked to the tip of the hook member 108, the locked state is released. At the same time, the spring cover 105 pushes up the aroma container HY. The spring cover 105 is pushed upward so as to protrude from the top surface 12 by a height at which the user P can grip the fragrance container HY.

  On the top of the lid member 123, a container cover 124 having a hole through which fragrance is discharged is attached at the center. On the outer edge of the container cover 124, a plurality of (four in the present embodiment) bent portions 124a bent inward are formed. The container cover 124 is fixed by the bent portions 124 a being engaged with the lid member 123.

Next, the aroma dish 121 for storing the fragrance will be described with reference to FIG.
As shown in FIG. 16, the aroma dish 121 made of metal (for example, stainless steel) is formed in a substantially bottomed cylindrical shape with a wall portion (side wall) 121 h standing from the periphery of a circular bottom portion. The opening edge portion of the aromatic dish 121 is provided with a folded portion 121a formed so as to be folded toward the inside of the bottomed container. The height (the length in the diameter direction) of the folded portion 121a is such that 2 drops, preferably 10 drops or more of the fragrance stored in the aromatic dish 121 is spilled with the aromatic dish 121 standing vertically (90 degrees). Not set to a height. In the present embodiment, the outer diameter of the aroma dish 121 is 28 mm, and the opening diameter of the folded portion 121a is 24 mm. The height of the aroma dish 121 is 10 mm.

  At the bottom of the aroma dish 121, a plurality of (in this embodiment, 19) concave portions 121b (storage portions) formed in a substantially hemispherical shape are provided. In addition, an inclined portion 121c is formed around the plurality of recessed portions 121b so as to be inclined from the wall portion 121h toward the recessed portion 121b. The inclined portion 121c is inclined so as to increase from the center side of the bottom of the aroma dish 121 toward the outside. The concave portion 121b and the inclined portion 121c adjust the contact area between the fragrance and air stored in the fragrance plate 121 (hereinafter referred to as “surface area”). In general, there is a correlation between the surface area of the fragrance and the amount of volatilization. That is, the larger the surface area, the larger the volatilization amount of the fragrance, while the smaller the surface area, the smaller the volatilization amount of the fragrance. The concave portion 121b and the inclined portion 121c of the present embodiment function as adjustment means for adjusting the volatilization amount of the fragrance by adjusting the surface area of the fragrance stored in the fragrance tray 121. More specifically, the concave portion 121b has a fragrance in a portion of the bottom of the fragrance plate 121 where the concave portion 121b is not formed by preferentially flowing the fragrance dropped into the concave portion 121b into each concave portion 121b. It is designed to prevent the agent from spreading. That is, when the amount of the fragrance that does not exceed the sum of the volumes of the respective recesses 121b (hereinafter referred to as “recess volume”) is dropped, the recess 121b has a surface area of the fragrance that is the portion of the portion where each recess 121b is formed. The area corresponding to the area is adjusted. Further, when the amount of the fragrance exceeding the volume of the recess is dropped into the recess 121b, the fragrance that cannot be stored in each recess 121b spreads to the portion where the recess 121b is not formed, and is then dropped by the inclined portion 121c. The surface area is adjusted according to the amount of the fragrance.

  In addition, each of the concave portions 121b and the inclined portions 121c has a surface area ratio of a predetermined ratio when the amount of the fragrance dropped is 1 drop and 2 drops, that is, the number of the fragrance dropped and the surface area. The size (diameter and depth) is set so that there is a certain correlation between the two. In the present embodiment, the ratio of the surface area is 1: 1.3 to 3.0, more preferably 1: 1.5 to 2.0 when the amount of the fragrance is 1 drop and 2 drops. It is comprised so that. In this embodiment, when one drop of the fragrance is dropped on the recess 121b, substantially all of the recess 121b is filled with the fragrance. Moreover, in this embodiment, when 2 drops of fragrance | flavor are dripped with respect to the recessed part 121b, an fragrance | flavor spreads to the lower end (boundary part) of the inclination part 121c. Moreover, in this embodiment, when 3 drops of fragrance | flavor are dripped with respect to the recessed part 121b, a surface area is expanded along the inclination of the inclination part 121c.

  It should be noted that the fragrance stored in the recess 121b is retained in the recess 121b even if the aroma dish 121 is tilted, and is difficult to flow out to a portion where the recess 121b is not formed.

In the fragrance generating unit 15 configured as described above, the concentration of the fragrance that the user P inhales in a state of being mixed with the mists H and C does not exceed a predetermined concentration (for example, 10 ppm), and In order not to disturb the progress (spout) of the generated mists H and C, the diameter of the fragrance discharge port 15a, the flow rate of the air discharged from the fragrance discharge port 15a, and the surface area of the fragrance stored in the fragrance tray 121 Combination conditions are set. For example, in this embodiment, the opening diameter of the fragrance outlet 15a is set to 19 mm. In this case, the fragrance fan 94 is rotationally driven so that the flow velocity of air at the fragrance discharge port 15a is 0.6 m / sec or less, more preferably 0.3 m / sec or less. And when the dripping amount of a fragrance | flavor is 1 drop (about 0.03 ml), the surface area of a fragrance | flavor becomes 100-220 mm < ² >, More preferably, it is 130-190 mm < ² >. It is configured as follows. Moreover, the recessed part 121b and the inclination part 121c of the aroma dish 121 are comprised so that the surface area of a fragrance | flavor may be 220-340 mm < ² >, More preferably, it is 250-310 mm < ² >, when the dripping amount of a fragrance | flavor is two drops. .

Next, control parts of the cosmetic device 10 will be described with reference to FIG.
As shown in FIG. 3, a control circuit board 31 is disposed inside the main body 11 so as to be positioned below the operation unit 14. The control circuit board 31 controls the overall operation of the cosmetic device 10. A power circuit board 30 is fixed below the control circuit board 31. The power supply circuit board 30 supplies power to various motors including the control circuit board 31, various heaters, and the like.

Next, the electrical configuration of the cosmetic device 10 will be described with reference to FIG.
First, the power circuit board 30 will be described.
A power cord 26 is connected to the power circuit board 30 so that power is supplied from a commercial outlet. Further, the power supply circuit board 30 is connected with the power button 16, and every time the power button 16 is pressed, the power supply from the commercial outlet is cut off, and the beauty machine 10 operates. It is configured to switch to a possible ON state.

  The power circuit board 30 is connected with a fragrance motor 95, a warm mist heater (heating means) 41a, a cold mist heater 64, a cooling motor 71, and a blower pump 77. In addition, a discharge unit 42 is connected to the power supply circuit board 30 via a high-voltage circuit board 46. The high-voltage circuit board 46 boosts the voltage of the power supplied from the power circuit board 30 to a predetermined voltage that can be discharged from the discharge needle 48 and supplies it to the discharge unit 42. A control circuit board 31 is connected to the power circuit board 30. The power supply circuit board 30 supplies power under the control of the control circuit board 31 to drive and stop various motors, various heaters, and the like.

Next, the control circuit board 31 will be described.
The control circuit board 31 is equipped with a microcomputer 31a that stores a program for controlling the operation of the beauty machine 10 and executes various arithmetic processes. An operation control button 14b, a use course selection button 14a, and an aroma control button 14c are connected to the control circuit board 31, and operation signals output from the buttons 14a to 14c can be input.

  A main body lid switch 32b is connected to the control circuit board 31, and an ON signal output from the main body lid switch 32b can be input by detecting that the main body lid 13 is opened. When the microcomputer 31a receives the ON signal output from the main body cover switch 32b, the microcomputer 31a validates the pressing operation of the operation control button 14b, the use course selection button 14a, and the aroma control button 14c. On the other hand, when the ON signal is not input from the main body lid switch 32b, that is, when the main body lid 13 is in a closed state, the pressing operation of the buttons 14a to 14c of the operation unit 14 is invalidated. . That is, the main body lid switch 32b functions as a safety switch.

  In addition, an extraction button sensor 93f is connected to the control circuit board 31 so that an ON signal that is detected and output when the fragrance container HY is accommodated (fixed) in the accommodation chamber 93a can be input. Yes. When the microcomputer 31a receives the ON signal output from the extraction button sensor 93f, the microcomputer 31a validates the pressing operation of the operation control button 14b, the use course selection button 14a, and the aroma control button 14c. On the other hand, when the microcomputer 31a does not input the ON signal from the extraction button sensor 93f, that is, when the fragrance container HY is not accommodated (fixed) in the accommodation chamber 93a, the operation of pressing the buttons 14a to 14c of the operation unit 14 is performed. Is supposed to be invalidated. That is, the extraction button sensor 93f functions as a safety switch. Further, when the mist H and C are ejected from the mist nozzles 18 and 19 and the microcomputer 31a stops inputting the ON signal from the take-out button sensor 93f, the microcomputer 31a supplies power to stop the generation of the mist H and C. The circuit board 30 is controlled. More specifically, the microcomputer 31a controls the power supply circuit board 30 so as to turn off the warm mist heater 41a while the warm mist H is generated. Further, the microcomputer 31a controls the power supply circuit board 30 to turn off the blower pump 77, the cold mist heater 64, and the cooling motor 71 during the generation of the cold mist C.

  A tilt detection switch 29 is connected to the control circuit board 31, and the tilt detection switch 29 is configured to be able to input an ON signal that protrudes from the bottom of the main body 11 and outputs it. When the microcomputer 31a inputs an ON signal from the tilt detection switch 29 when the main body 11 falls or is lifted, the power to the warm mist heater 41a, the cold mist heater 64, the cooling motor 71, the blower pump 77, and the high-voltage circuit board 46 is displayed. The power supply circuit board 30 is controlled so as to stop the supply. That is, when the microcomputer 31a receives an ON signal from the tilt detection switch 29, the microcomputer 31a stops all the operations of the cosmetic device 10 and ensures the safety of the user.

A display unit L is connected to the control circuit board 31. Then, the microcomputer 31a performs control so that the light emitter is turned on with a predetermined lighting pattern according to the control state of the cosmetic device 10.
A heater thermistor 41b and a water temperature thermistor 66 are connected to the control circuit board 31, and a temperature detection signal corresponding to the temperature measured by each thermistor 41b, 66 can be input. When the temperature of the warm mist heater 41a detected by the heater thermistor 41b exceeds a predetermined set temperature, the microcomputer 31a controls the power supply circuit board 30 to cut off (stop) the power supplied to the warm mist heater 41a, and the warm mist heater 41a. Is turned off. In addition, the microcomputer 31a is configured to supply power to the cold mist heater 64 when the water temperature of the heat treatment unit 61 detected by the water temperature thermistor 66 is lower than a predetermined sterilization temperature (80 ° C. in the present embodiment). 30 and the cold mist heater 64 is turned on. On the other hand, the microcomputer 31a controls the power supply circuit board 30 so as to cut off the power supplied to the cold mist heater 64 when the water temperature of the heat treatment unit 61 detected by the water temperature thermistor 66 becomes equal to or higher than a predetermined sterilization temperature. Is turned off.

  A power supply circuit board 30 is connected to the control circuit board 31 and is supplied with power from the power supply circuit board 30. The control circuit board 31 controls the power supply circuit board 30 to control power supply to various motors and various heaters connected to the power supply circuit board 30.

  Further, the microcomputer 31a supplies electric power to the fragrance motor 95 so that the rotation number (rotation speed) of the fragrance fan 94 according to the fragrance concentration selected by the user P by the operation of the fragrance control button 14c. Thus, the power supply circuit board 30 is controlled. The microcomputer 31a controls the power supply circuit board 30 so that the rotational speed of the fragrance fan 94 increases as the selected fragrance concentration increases. That is, the microcomputer 31a controls the power supply circuit board 30 so that the amount of air conveyed by the fragrance fan 94 increases as the selected fragrance concentration increases. Further, the microcomputer 31a increases or decreases the amount of the fragrance that is volatilized every predetermined time.

  And the microcomputer 31a of this embodiment is comprised so that the quantity of the fragrance | flavor made to volatilize every predetermined time may be increased / decreased. More specifically, the microcomputer 31a causes the power supply circuit board 30 to drive the aroma motor 95 based on the intensity (concentration) of the aroma selected by the user P. Further, the microcomputer 31a stops the fragrance motor 95 for a predetermined period (5 seconds in the present embodiment) when a predetermined period (20 seconds in the present embodiment) elapses from the start of driving of the fragrance motor 95. Thus, the power supply circuit board 30 is controlled. By configuring in this way, in the cosmetic device 10, the generation and stop of fragrance are executed alternately.

In the present embodiment, the microcomputer 31a that controls the power circuit board 30 to drive the various motors and the various heaters constitutes the adjusting means and the control means.
Next, the operation (operation) of the cosmetic device 10 configured as described above will be described.

First, the operation (operation) of the cap 21 will be described.
As shown to Fig.6 (a), the cap 21 maintains the injection attitude | position in a normal use state. Then, as shown in FIG. 6B, when the hand PH of the user P moves from the upper side to the lower side of the cap 21 and tries to touch each of the mist nozzles 18 and 19, the hand PH touches and moves downward. With the movement, the cap 21 is moved to the protective posture side. For this reason, the cap 21 is disposed between the mist nozzles 18 and 19 and the hand PH, and the mists H and C do not directly touch the user PH of the user P. In other words, when the cap 21 is in the protective posture, the mist nozzles 18 and 19 and the hand PH of the user P are physically separated by the cap 21.

  Further, since the cap 21 in the protective posture covers the top of the mist nozzles 18 and 19, the ejection direction of the mists H and C ejected from the mist nozzles 18 and 19 is changed downward, toward the user P. It will not be ejected.

Next, the operation (operation) of the warm mist generating mechanism 40 will be described.
As shown in FIG. 7, the water supplied from the water supply tank 22 to the tank holder 22a is supplied to the boiling chamber 41c through the water supply path K1 and the water supply path K2. The water level in the boiling chamber 41 c is maintained at a predetermined water level W by water supplied from the water supply tank 22. More specifically, when the water level in the boiling chamber 41c decreases, water supply from the water supply tank 22 is started, and when the water level in the boiling chamber 41c exceeds a predetermined height (water level W), water supply from the water supply tank 22 is performed. It is supposed to be stopped. The water supplied to the boiling chamber 41c is heated and vaporized by the warm mist heater 41a to be warm mist. The generated warm mist is guided upward through the warm mist path M <b> 1 and is refined (ionized) by high-pressure discharge performed between the discharge needles 48 in the discharge unit 42. The refined warm mist is ejected (injected) forward from the warm mist nozzle 18. The warm mist heater 41a is turned off under the control of the microcomputer 31a when the water level W in the boiling chamber 41c decreases and the temperature rises, such as when the water supply tank 22 becomes empty.

Next, the operation (operation) of the cold mist generating mechanism 60 will be described.
As shown in FIG. 9, the water supplied from the water supply tank 22 to the tank holder 22a is supplied to the storage chamber 61a of the heat treatment unit 61 through the water supply path K3. The water supplied to the storage chamber 61a flows into the damper portion 65 from the inlet 65a and is kept at the water level W. The water in the storage chamber 61a including the water flowing into the damper portion 65 is heated to a predetermined sterilization temperature (80 ° C. in the present embodiment) by the cold mist heater 64.

  Inside the damper part 65, the convection of the water which generate | occur | produces with a heating is suppressed by the partition plate 65c arrange | positioned alternately by the predetermined space | interval. Moreover, since the inflow port 65a is formed to have a minimum area, the low-temperature water supplied from the water supply path K3 hardly flows into the damper portion 65 due to convection generated in the storage chamber 61a. It has become. That is, the water inside the damper portion 65 is stably heated by the cold mist heater 64, and the temperature is not lowered by the low temperature water flowing into the inside. Further, in the damper portion 65, water ejected from the cold mist nozzle 19 is retained for at least a period satisfying the sterilization condition (in this embodiment, 30 seconds). In the cosmetic device 10 of the present embodiment, since the use course for ejecting only the cold mist C is not set during the use course, the damper portion is being ejected while the warm mist H is ejected from the warm mist nozzle 18. 65 water sterilization conditions are achieved. When the ejection of the warm mist H is finished, the cold mist nozzle 19 turns the already sterilized water into a cold mist so that it can be quickly ejected toward the user P.

  When the blower pump 77 is turned on (driven) and air is ejected from the air ejection part 19c, the water heated and sterilized inside the damper part 65 is supplied to the water supply path K4 by the negative pressure generated by the ejection. While sucking out toward the supply part 19b, it is made into cold mist and is ejected ahead.

  Air bubbles mixed in water sucked out from the damper unit 65 are captured by the gas-liquid exchange unit 67 and exchanged with water. Here, the microcomputer 31a supplies power so that the blow pump 77 is driven at a low speed for a predetermined period (5 seconds in this embodiment) from the start of cold mist generation by the cold mist nozzle 19 (ON (drive) of the blow pump 77). The circuit board 30 is controlled. Then, the microcomputer 31a controls the power circuit board 30 so that the blower pump 77 is driven at a normal speed after a predetermined period. That is, the microcomputer 31a controls the operation of the blower pump 77 so that the water in the damper portion 65 is slowly introduced into the gas-liquid exchange chamber 67a when cold mist generation starts, and the air inside the gas-liquid exchange chamber 67a. Are first ejected from the cold mist nozzle 19. For this reason, by suddenly flowing water into the gas-liquid exchange chamber 67a, it is possible to prevent the cold mist C from being started to blow out while leaving the air inside the gas-liquid exchange chamber 67a. . Then, it is possible to prevent the water in the water supply path K4 from being divided by the air bubbles and causing the cold mist C to be ejected intermittently or temporarily stopped.

  Further, the water from which the bubbles are removed by the gas-liquid exchanging unit 67 is cooled when passing through the water supply path K4 formed inside the heat radiating member 68. The heat radiating member 68 is cooled by the air conveyed by the cooling fan 70. In addition, the air conveyed by the cooling fan 70 is jetted toward the user P from the blower opening 76 that opens to the side of the cold mist nozzle 19 through the blower path S1. By ejecting air from the air outlet 76 toward the user P, the vaporization of the cold mist C adhering to the skin of the user P is promoted, and the skin of the user P can be efficiently cooled. ing. Therefore, the cooling feeling of the user P is further improved.

Next, the operation (operation) of the fragrance generating unit 15 will be described.
As shown in FIG. 13, when the fragrance container take-out button 111 is pressed, the hook member 108 moves to the side away from the storage chamber 93a (fragrance container HY), and the tip of the hook member 108 and the protrusion of the lid member 123 are moved. The engagement with the portion 123d is released. At the same time, the fragrance container HY is pushed up to a position protruding from the top surface 12 by the spring cover 105 by the urging force of the push-up spring 104 and can be taken out from the main body 11 (accommodating chamber 93a). And the user P can take out the fragrance container HY from the fragrance generation | occurrence | production part 15 (accommodation chamber 93a) by hold | maintaining the upper end of the fragrance container HY protruded from the top | upper surface 12, and pulling up upwards.

  As shown in FIGS. 15A and 15B, the lid member 123 is rotated in the circumferential direction to release the engagement between the convex portion 123 b of the lid member 123 and the concave portion 120 e of the holding member 120. At the same time, it can be removed from the holding member 120. Then, the user P can drop a favorite fragrance on the recess 121b and the inclined portion 121c of the aroma dish 121. At this time, the spread of the fragrance dropped on the bottom surface of the aroma dish 121 can be adjusted by the recess 121b and the inclined portion 121c. That is, the surface area depends on the number of fragrances dropped.

  After dripping the fragrance on the fragrance plate 121, the lid member 123 is set to cover the fragrance plate 121 and rotated in the circumferential direction to engage the convex portion 123b and the concave portion 120e to hold the lid member 123. The member 120 is attached.

  Then, the aroma container HY is inserted into the storage chamber 93a (main body 11) in a state where the guide lane 123c of the lid member 123 and the guide rib 93d of the storage chamber 93a are aligned. At this time, when the upper surface (container cover 124) of the fragrance container HY is pressed downward, the tip of the hook member 108 is pushed by the projection 123d of the lid member 123 and moves to the side away from the fragrance container HY (storage chamber 93a). To do. When the aroma container HY is further pressed and moved downward, the hook member 108 biased by the detachable spring 109 protrudes into the accommodation chamber 93a and engages with the protrusion 123d. The fragrance container HY is fixed (attached) to the accommodation chamber 93a (main body 11).

  As shown in FIG. 13, when electric power is supplied from the power supply circuit board 30 to the fragrance motor 95, the fragrance fan 94 is driven to rotate and air is sucked into the ventilation path S2 from the intake port 99 (arrow). Y4). The air sucked into the blowing path S2 is further conveyed upward by the fragrance fan 94 (arrow Y4). The air conveyed by the fragrance fan 94 is conveyed upward from the ventilation hole 103 a of the fan cover 103 through the side of the spring cover 105, and further by the direction changing portion 126 formed on the inner surface of the lid member 123. The direction of travel is changed so as to flow into the interior. The air that has flowed into the fragrance plate 121 volatilizes the fragrance stored in the concave portion 121b and the inclined portion 121c of the fragrance plate 121, is transported upward again, and is discharged upward from the fragrance discharge port 15a ( Arrow Y4). In addition, the flow velocity of the air ejected upward from the fragrance discharge port 15a is set so as to be a wind speed that does not hinder the progress of the mist ejected from the mist nozzles 18 and 19. In the present embodiment, the maximum wind speed is 0.6 m / sec.

  As shown in FIGS. 18 (a) and 18 (b), when the cosmetic device 10 is in use, the warm mist H is ejected from the warm mist nozzle 18 (warm mist outlet 18a) toward the face of the user P. Is done. Further, the cold mist C is ejected from the cold mist nozzle 19 (cold mist ejection port 19a) toward the face of the user P. When the mists H and C are ejected from the mist nozzles 18 and 19, respectively, the mists H and C move forward while diffusing in the horizontal and vertical directions. That is, the mists H and C are ejected so as to be diffused away from the mist nozzles 18 and 19.

  And the fragrance produced | generated in the fragrance generation | occurrence | production part 15 is discharge | released upwards from the fragrance discharge port 15a (it shows with the arrow A in FIG. 18). The fragrance discharged upward from the fragrance discharge port 15a is ejected from each mist nozzle 18, 19 and mixed with each mist H, C passing above the fragrance discharge port 15a, and each mist H, C. And are conveyed toward the user P together. In other words, the mist ejection direction H2 emitted from each of the mist nozzles 18 and 19 and the fragrance emission direction H1 emitted from the fragrance discharge port 15a are set to intersect each other.

Next, the usage method of the cosmetic device 10 of this embodiment is demonstrated.
First, the cosmetic device 10 is placed on a horizontal desk or the like, and with the main body lid 13 opened, the power cord 26 is inserted into a commercial outlet (not shown) to supply power to the cosmetic device 10. Subsequently, the power button 16 is pressed to place the cosmetic device 10 in an operable standby state. Next, the user P depresses the use course selection button 14a to select a favorite use course.

  Subsequently, the user P depresses the fragrance control button 14c and selects a favorite fragrance intensity (density). In the beauty machine 10, after selecting the use course and the intensity of the fragrance, the operation control button 14b is pressed, so that each mist H is selected with the use course and the intensity of the fragrance arbitrarily selected by the user P. , C ejection and fragrance release (generation).

  More specifically, first, the warm mist H is ejected from the warm mist nozzle 18 toward the user P, and heat is applied to the skin of the user P. When a predetermined period has elapsed from the start of the ejection of the warm mist H, the ejection of the warm mist H is stopped, and the cold mist C is ejected from the cold mist nozzle 19 toward the user P, so that the skin of the user P is removed. Cooling. Further, when a predetermined period has elapsed from the start of the ejection of the cold mist C, the ejection of the cold mist C is stopped and the ejection of the warm mist H is started. Then, after the ejection of the warm mist H and the cold mist C is repeated a predetermined number of times, the ejection of the mist is terminated. Further, during the ejection of the mists H and C, the fragrance is released (generated) with the intensity of the fragrance selected from the fragrance discharge port 15a.

  Even when each mist H, C is being ejected, the user P can switch the intensity (concentration) of the fragrance by pressing the fragrance control button 14c. Further, even when the mists H and C are being ejected, the user P stops the mist ejection from the mist nozzles 18 and 19 by pressing the power button 16 or the operation control button 14b. Can do.

Then, after the cosmetic device 10 is used, the body lid 13 is closed, so that the cosmetic device 10 cannot be operated.
Therefore, according to the present embodiment, the following effects can be obtained.

  (1) The fragrance is discharged (spouted) toward the mists H and C from positions different from the mist nozzles 18 and 19. Therefore, the mists H and C ejected from the mist nozzles 18 and 19 and the fragrance are efficiently mixed and integrated to deliver (send) a stable fragrance in the ejection direction of the mist H and C. be able to. Therefore, the user P of the cosmetic device 10 can obtain a stable fragrance when using the mists H and C ejected from the mist nozzles 18 and 19 against the face or the like.

  (2) The fragrance discharge port 15 a is formed on the user P side from each mist nozzle 18, 19 and at a position close to each mist nozzle 18, 19. For this reason, with respect to each mist H and C spouted so that it may diffuse toward the user P from each mist nozzle 18 and 19, it may discharge | release fragrance toward each mist H and C before spreading | diffusion. it can. Therefore, the fragrance and the mists H and C are compared with the case where the fragrance discharge port 15a is provided at a position separated from the mist nozzles 18 and 19 and the fragrance is discharged toward the already diffused mists H and C. Are easily mixed. The user P who uses the cosmetic device 10 can obtain a stable fragrance when using the mists H and C ejected from the mist nozzles 18 and 19 against the face or the like.

  (3) The aroma discharge port 15a is closer to the user P than the mist nozzles 18 and 19, and includes a warm mist outlet 18a (warm mist nozzle 18) and a cold mist outlet 19a (cold mist nozzle 19). Centered. For this reason, fragrance can be discharged from the fragrance discharge port 15a for both the warm mist H and the cold mist C. Therefore, the mists H and C ejected from the mist nozzles 18 and 19 and the fragrance can be mixed and integrated, and the intensity (concentration) of the fragrance is not uniform between the mists H and C. It can be suppressed. The user P can obtain a stable fragrance regardless of which of the mist nozzles 18 and 19 is used.

  (4) A plurality of concave portions 121 b and inclined portions 121 c are formed on the bottom of the aroma dish 121. For this reason, when the fragrance | flavor of the quantity which does not exceed a recessed part volume is dripped at the recessed part 121b, a fragrance | flavor flows into the several recessed part 121b, and is stored, and a surface area is large so that it may not expand from the part in which the recessed part 121b was formed. Adjusted. Furthermore, when the fragrance | flavor of the quantity exceeding a recessed part volume is dripped at the recessed part 121b, the surface area of a fragrance | flavor is adjusted so that it may become a surface area according to the quantity of the dripped fragrance | flavor along the inclination of the inclination part 121c. The Therefore, it is possible to adjust the volatilization amount of the fragrance by adjusting the surface area of the fragrance dropped (stored) on the fragrance plate 121 to the surface area corresponding to the amount of the fragrance dropped.

  (5) The microcomputer 31a controls the power supply circuit board 30 so as to drive the fragrance motor 95 so as to have a predetermined rotational speed in accordance with the fragrance intensity (concentration) set by the user P. For this reason, the volatilization amount of a fragrance | flavor can be adjusted so that it may become the intensity | strength (concentration) of desired fragrance. Furthermore, since the surface area of the fragrance stored in the fragrance plate 121 is defined within a predetermined range corresponding to the number of fragrances dropped, the finer fragrance strength (concentration) can be adjusted. .

  (6) Generation and stop of fragrance are executed alternately. In general, when the human continues to smell a certain concentration of fragrance, the olfactory intensity of the fragrance decreases, making it difficult to sense the fragrance. According to the cosmetic device 10 of the present embodiment, the olfactory intensity of the fragrance of the user P can be periodically recovered, and the fragrance can be continuously felt by the user P.

  (7) The fragrance stored in the fragrance plate 121 is volatilized by blowing air from the fragrance fan 94. For this reason, it is possible to volatilize the fragrance stably from the start of driving of the fragrance motor 95, and it is possible to quickly stop volatilization of the fragrance by stopping the driving of the fragrance motor 95. Therefore, adjustment of the volatilization amount of the fragrance by the microcomputer 31a can be executed with high responsiveness, rather than volatilizing the fragrance using a heater that requires time for temperature rise and fall.

  (8) The intake port 99 through which the fragrance fan 94 sucks air is provided on the bottom surface of the main body 11. For this reason, it is possible to avoid re-inhalation of the fragrance released from the fragrance discharge port 15a opened in the top surface 12, and to reliably deliver the fragrance to the user P.

  (9) The concentration of the fragrance that the user P inhales in the state of being mixed with the mists H and C does not exceed a predetermined concentration that may adversely affect the user P. The diameter, the flow rate of the air ejected from the aroma discharge port 15a, and the surface area of the fragrance stored in the aroma dish 121 were set. For this reason, it can suppress that the user P continues inhaling the fragrance (fragrance) more than the predetermined | prescribed density | concentration which may have a bad influence on the user P at the time of use of the cosmetic device 10. FIG.

  (10) Air transported by the fragrance fan 94 is formed from substantially the entire circumference of the fragrance plate 121 excluding the portion where the direction changing portion 126 is formed in the fragrance container HY (lid member 123) and the hook portion 120c is disposed. It was made to flow inside. For this reason, fresh air is uniformly supplied to the entire contact surface (surface) between the fragrance and air, and the fragrance can be efficiently volatilized.

  (11) The aroma dish 121 is fitted into the hook portion 120 c and the ring 122 is attached to be fixed to the holding member 120. For this reason, the aroma dish 121 can be reliably fixed to the holding member 120.

  (12) When the fragrance container HY is removed from the main body 11 (housing chamber 93a) by depressing the fragrance container extraction button 111, the generation of the mists H and C is stopped. For this reason, even though the mists H and C are ejected from the mist nozzles 18 and 19, the user P tries to take out the fragrance container HY pushed up so as to protrude from the main body 11. Touching the mists H and C can be prevented.

  (13) A cap 21 is provided on the nozzle cover 20 provided with the mist nozzles 18 and 19. According to this, the operation of the user P's hand touching the mist nozzles 18 and 19 can be restricted, and the user P can be protected.

  (14) When the user P tries to touch the mist nozzles 18 and 19 from above the cap 21, the cap 21 rotates (displaces) from the spraying posture to the protective posture side, and the mist nozzles 18 and 19. It was comprised so that the upper part of might be covered. For this reason, when the user P's hand tries to touch each mist nozzle 18, 19 from above the cap 21, the cap 21 is located between each mist H, C and the user's hand. It is possible to physically prevent the person P from touching the mists H and C directly.

  (15) The cap 21 is configured to be detachable from the nozzle cover 20 (main body 11). For this reason, when the cosmetic device 10 is dropped or an excessive force is applied to the cap 21 by the user P, the cap 21 is removed from the nozzle cover 20 together with the nozzle hinge portion 35, thereby preventing the cap 21 from being damaged. Is done. Further, when the cap 21 is damaged, it is only necessary to replace the cap 21, and resource saving can be achieved by continuously using the main body 11.

  (16) When the main body lid 13 is closed, the cap 21 is moved to the protective posture (downward) side while sliding the sliding rib 13c in accordance with the closing operation of the main body lid 13, and is stored in the main body lid 13. It has become. For this reason, it is not necessary to form the main body cover 13 large, and the cosmetic device 10 in a state where the main body cover 13 is closed can be downsized (compact). And the cosmetic device 10 can be stored in a small space.

  (17) The cap 21 is configured to hold the injection posture by the urging force of the torsion coil spring B2. For this reason, when the main body lid 13 is opened, the cap 21 returns to the injection posture by the urging force. Therefore, when the user P forgets to attach the cap 21 to the nozzle cover 20 or forgets to rotate the nozzle cover 20 to the injection posture, the cap 21 can be rotated to the protective posture and the injection posture is obtained. It is possible to reliably prevent the state from being brought about. In other words, the cap 21 can protect the user P.

  (18) The aroma dish 121 is configured to be detachable from the main body 11 in a state of being accommodated in the aroma container HY. For this reason, it is not necessary to handle the aroma dish 121 in which the fragrance is stored alone, and the user P can be prevented from attaching the fragrance to the hand by mistake. Moreover, handling of the aroma dish 121 becomes easy and it can suppress that the user P falls or falls. And compared with the case where the storage part which stores a fragrance | flavor is provided in the main body 11 side, it is easy to perform the dripping operation | movement of a fragrance | flavor at hand, and places other than the inside (recessed part 121b) of a fragrance | flavor accidentally. It can suppress dripping in.

  (19) The aroma dish 121 is configured to be detachable from the holding member 120 of the aroma container HY. For this reason, it can wash | clean easily by removing the aroma dish 121 from the holding member 120 after use.

  (20) A folded portion 121 a is formed at the opening edge of the aroma dish 121. For this reason, even when the aroma dish 121 is tilted, the fragrance is blocked by the folded-back portion 121a and is prevented from flowing out.

  (21) When the nozzle cover 20 is adjusted downward so that the ejection direction of each mist H, C is on the lower limit direction side, the fragrance container HY interferes (contacts) with the mist guide 20b and moves upward (each mist H, C side) was not able to be taken out. For this reason, in order to take out the fragrance container HY, the user P must adjust the nozzle cover 20 upward so that the ejection direction of the mists H and C is on the upper limit direction side. Accordingly, the user P can adjust the nozzle cover 20 upward to secure a space for putting his hand between the mists H and C and the fragrance container HY and then remove the fragrance container HY.

  (22) The aroma generating unit 15 is configured separately from the warm mist generating mechanism 40. For this reason, the influence of volatilization of the fragrance | flavor stored in the aroma container HY by the heat | fever of the warm mist heater 41a of the warm mist generating mechanism 40 and the warm mist H can be suppressed. Therefore, the ventilation of the aroma fan 94 and the adjustment of the volatilization amount by the aroma dish 121 are facilitated.

  (23) The volatilized fragrance is concentrated and delivered to the user P in a state of being mixed with the mists H and C. For this reason, compared with the case where fragrance is generated in the entire room, the fragrance (fragrance) can be felt by the user P with a small amount of volatilization of the fragrance. Therefore, the amount of fragrance used can be reduced and saved.

  (24) The fragrance container HY (fragrance dish 121) for storing the fragrance is disposed in the air blowing path S2 through which the mists H and C do not pass. For this reason, each mist H and C containing a liquid fragrance | air_jet may be ejected toward the user P because the fragrance | air_aroma stored in the aroma dish 121 and each mist H and C contact directly. Absent. Therefore, the safety of the user P can be ensured.

  (25) The aromatic member HY is disposed so that the rubber member 125 protrudes and contacts the inner wall surface of the storage chamber 93a. For this reason, when the fragrance container HY is taken out from the storage chamber 93a, friction is generated between the rubber member 125 and the inner wall surface of the storage chamber 93a, and the urging force of the push-up spring 104 causes the fragrance container HY to move to the main body 11 (storage). Jumping out of the chamber 93a) can be suppressed.

  (26) The aroma dish 121 was covered with the lid member 123 and the holding member 120, and a space was provided between the aroma dish 121 and the members 123 and 120 in the aroma container HY. For this reason, it is difficult for the heat of the heaters 41 a and 64 constituting the warm mist generating mechanism 40 and the cold mist generating mechanism 60 to be transmitted to the aroma dish 121. Therefore, the fragrance | flavor stored by the aroma dish 121 can suppress the influence that volatilization is accelerated | stimulated by the heat of each heater 41a, 64. And the ventilation of the aroma fan 94 and the adjustment of the volatilization amount by the aroma dish 121 are facilitated.

  (27) The fragrance discharge ports 15a are formed in a lattice shape having an eye size through which liquid fragrance does not easily pass. For this reason, the user P cannot drop the fragrance on the fragrance dish 121 unless the fragrance container HY is removed from the main body 11 and the lid member 123 is removed. That is, it is possible to prevent the fragrance from being dropped by the user P toward the aroma dish 121 while the aroma container HY is accommodated in the main body 11 (accommodating chamber 93a). Moreover, even if the fragrance container HY is tilted with the fragrance stored in the fragrance tray 121, the fragrance can be prevented from jumping out from the fragrance discharge port 15a.

  (28) The size of the lattice of the fragrance discharge port 15a is such a size (fineness) that the user P can be prevented from dropping the fragrance from the upper portion of the fragrance discharge port 15a onto the fragrance plate 121. ). For this reason, it can prevent that the fragrance | flavor is dripped by the user P toward the aroma dish 121 with the aroma container HY accommodated in the main body 11 (accommodating chamber 93a).

In addition, you may change the said embodiment as follows.
In the present embodiment, as shown in FIG. 19, the holding portions 36f extending in a plate shape from both the left and right ends of the nozzle hinge 36 are formed so as to cover the rear of the nozzle cover 20, and concave portions are formed inside the holding portions 36f. 36 g are formed. And the convex part 20c engaged with the recessed part 36g is formed in the both sides | surfaces of the nozzle cover 20 corresponding to each recessed part 36g. Even if comprised in this way, since the plate-shaped holding | maintenance part 36f is easy to bend, the cap 21 can be comprised with respect to the nozzle cover 20 so that attachment or detachment is possible.

  In the present embodiment, a spring other than the torsion coil spring B2 may be used as a means for biasing the cap 21 so as to maintain the injection posture. For example, as shown in FIG. 20 (a), the engaging portion 21c formed on the cap 21 is engaged with a guide portion 20d formed on the upper surface of the nozzle cover 20 so as to extend in the front-rear direction. Is configured to be slidable in the front-rear direction (indicated by arrow Y5) with respect to the nozzle cover 20. Then, one end of the coil spring B3 may be fixed to the rear portion of the cap 21, while the other end may be fixed to the nozzle cover 20, and the cap 21 may be biased so as to be moved rearward. Further, as shown in FIG. 20B, a coil spring B4 may be disposed between the cap 21 and the nozzle cover 20, and the cap 21 may be urged to move upward. Even with this configuration, the cap 21 is always held at the ejection position by the urging force of the coil springs B3 and B4, and can be moved forward by the hand PH of the user P to be in a protective posture. .

  In the present embodiment, the cap 21 may be provided with a shielding portion that shields the warm mist H ejected from the warm mist outlet 18a in conjunction with the movement of the cap 21 from the ejection posture to the protective posture side. Good. More specifically, as shown in FIG. 21A, the cap 21 is disposed in parallel with the warm mist outlet 18a and covers substantially the entire surface of the warm mist outlet 18a in a state of protection. The wall-shaped shielding part F1 is erected from the inside of the cap 21 downward. Further, as shown in FIG. 21 (b), in the state where the cap 21 is in the protective posture, a shielding portion F2 having a substantially conical tip formed so as to be inserted into the warm mist outlet 18a is provided. Also good. Each of the shielding portions F1 and F2 does not prevent the warm mist H from being ejected when the cap 21 is in the ejection posture. Even in this configuration, when the cap 21 is in the protective posture, the warm mist H is shielded by the shielding portions F1 and F2, and the warm mist H is placed in the hand PH of the user P at a position close to the warm mist outlet 18a. It is possible to suppress hitting. Moreover, the pressure inside the warm mist nozzle 18 rises because the warm mist outlet 18a is shielded by the shielding portions F1 and F2. And the temperature of the warm mist H can be lowered | hung by adiabatic expansion because the warm mist H is ejected from the clearance gap between each shielding part F1, F2 and the warm mist ejection opening 18a. For this reason, the user P can be protected more reliably.

  (Circle) in this embodiment, you may comprise the fragrance discharge port 15a not with a grid | lattice form but with several round holes. In this case, the diameter of each round hole formed in the fragrance discharge port 15a is a size that does not hinder the ejection of air carried by the fragrance fan 94, and the liquid fragrance is held in the round hole by surface tension. The diameter is difficult to pass. Moreover, the diameter of each round hole of the fragrance discharge port 15a is good also as a magnitude | size (fineness) which can suppress that the user P raise | generates the mind which dripping a fragrance | flavor to the fragrance plate 121 from the upper direction of the fragrance discharge port 15a. . Even if comprised in this way, it can prevent that the fragrance | flavor is dripped by the user P toward the aroma dish 121 with the aroma container HY accommodated in the main body 11 (accommodating chamber 93a). . Moreover, when the fragrance container HY is brought down, the fragrance can be prevented from jumping out.

  In this embodiment, as shown in FIG. 22, a baffle plate 123 h that covers a part of the opening of the aroma dish 121 may be formed inside the lid member 123. Even if comprised in this way, the user P cannot take out the fragrance | flavor with respect to the aroma dish 121, if it takes out the aroma container HY from the main body 11, and does not remove the cover member 123. FIG. Moreover, since the fragrance plate 121 accommodated in the fragrance container HY cannot be visually recognized from above the fragrance discharge port 15a, the user P drops the fragrance on the fragrance plate 121 from above the fragrance discharge port 15a. It can suppress worries. Moreover, it is possible to prevent the fragrance from jumping out when the fragrance container HY is overturned.

  In this embodiment, the recessed part 121b is good also as a different shape, if it is a shape which can adjust the surface area of the dripped fragrance | flavor. For example, as shown in FIG. 23A, an annular convex wall 121e may be provided at the bottom of the aroma dish 121 to form a circular concave 121b. Even in this configuration, the surface area of the fragrance dropped into the recess 121b is larger than the area of the portion where the recess 121b is formed when the amount of the fragrance dropped is a predetermined amount that does not exceed the volume of the recess. I don't get it. Furthermore, when the fragrance | flavor of the quantity exceeding a recessed part volume is dripped, the surface area of a fragrance | flavor is adjusted with the inclination part 121c. Therefore, the volatilization amount of the fragrance can be adjusted by adjusting the surface area of the dropped fragrance. Further, as shown in FIG. 23 (b), by forming a convex part 121f protruding in a substantially conical shape at the center of the bottom of the aroma dish 121, an annular concave part 121b is formed around the convex part 121f. Also good. Even if comprised in this way, the recessed part 121b can adjust the surface area of the dripped fragrance | flavor.

  In the present embodiment, the shape of the recess 121b is not limited to being formed in a hemispherical shape, and may be changed as appropriate. For example, the hexagonal shape in plan view may be formed without a gap at the bottom of the aroma dish 121. Even if comprised in this way, while being able to adjust the surface area of a fragrance | flavor, the thickness of the wall which divides each recessed part 121b can be made thin.

In this embodiment, you may provide separately the fragrance control part which controls the fragrance generation | occurrence | production part 15 without performing all the control which concerns on the operation | movement of the beauty device 10 with the microcomputer 31a.
In the present embodiment, the generation of the mists H and C may be stopped by detecting that the cap 21 has been moved to the protective posture side. More specifically, as shown in FIG. 21B, a magnet 21d is provided on the hinge portion 32, and a reed switch type cap switch 129 is provided at a corresponding position of the nozzle cover 20. The cap switch 129 is connected to the microcomputer 31a. When the microcomputer 31a detects that the cap 21 has been moved from the ejection posture to the protection posture side and inputs an ON signal output from the cap switch 129, the microcomputer 31a stops the ejection (generation) of the mists H and C. The power supply circuit board 30 is controlled. According to this, when the cap 21 is moved to the protection posture side, the ejection of the mists H and C is stopped, and the mists H and C can be prevented from hitting the hand PH of the user P. In this case, the power supply circuit board 30 may be controlled so that the ejection amount of each mist H, C is reduced. The cap switch 129 may be a mechanical detection switch instead of a reed switch.

  In the present embodiment, the mist nozzles 18 and 19 may be arranged on the main body 11 in the longitudinal direction or in the vertical direction. In this case, the aroma discharge port 15a is provided so as to be arranged in a straight line when viewed from the front. Even if comprised in this way, the fragrance discharge | released from the fragrance discharge port 15a and each mist H and C can be mixed and united.

  In the present embodiment, three or more mist nozzles may be provided. In this case, the fragrance discharge port 15a is disposed between both mist nozzles located at both ends. Even if comprised in this way, while being able to discharge | release fragrance toward mist H and C which are ejected from each mist nozzle, the intensity | strength in the direction between mist ejected from each mist nozzle is non-uniform | heterogenous. Can be suppressed.

In the present embodiment, only one mist nozzle may be provided.
In this embodiment, the mist ejected from the mist nozzle may be only one of the warm mist H and the cold mist C.

  In this embodiment, the fragrance discharge port 15 a may be arranged in the nozzle cover 20 so as to be positioned between the warm mist nozzle 18 and the cold mist nozzle 19. Even if comprised in this way, the fragrance discharge | released from the fragrance discharge port 15a and each mist H and C can be mixed and united.

  In the present embodiment, the fragrance discharge port 15a may not be formed at the center of the warm mist ejection port 18a (warm mist nozzle 18) and the cold mist ejection port 19a (cold mist nozzle 19). That is, the fragrance discharge port 15a may be formed between the warm mist outlet 18a (warm mist nozzle 18) and the cold mist outlet 19a (cold mist nozzle 19). Even if comprised in this way, the fragrance discharge | released from the fragrance discharge port 15a and each mist H and C can be mixed and united.

  In the present embodiment, the microcomputer 31a may reduce the intensity (concentration) of fragrance generated every predetermined time. Even if comprised in this way, the olfactory intensity | strength with respect to the fragrance of the user P can be recovered | restored and a fragrance can be continuously felt.

In the present embodiment, the flow rate of air ejected from the fragrance outlet 15a may be changed as appropriate.
In this embodiment, the warm mist H and the cold mist C may be ejected simultaneously. Moreover, in this embodiment, you may set the use course which ejects only the cold mist C. FIG.

  In this embodiment, instead of the rubber member 125, a protrusion or a leaf spring may be provided on the lid member 123 or the accommodation chamber 93a. Even if comprised in this way, it can prevent that the aroma container HY jumps out of the storage chamber 93a.

In the present embodiment, the aromatic dish 121 may be made of ceramic or plastic.
In the present embodiment, the aroma dish 121 is made of metal, but may be a plastic disposable container. By comprising in this way, the fragrance of a fragrance | flavor is not mixed by using the same aroma dish 121 many times. Moreover, compared with the case where the aroma dish 121 is formed integrally with the holding member 120, the amount of raw materials used, the cost, the storage space of the aroma dish 121, and the environmental load can be reduced.

  ○ In this embodiment, a plurality of types of aroma dishes 121 having different sizes and numbers of recesses 121b and angles and widths of inclined portions 121c are prepared, and exchanged according to the intensity (concentration) of the generated aroma. Also good.

  In this embodiment, instead of air cooling by the heat radiating member 68, a water-cooled cooling unit 62 may be used, or cooling may be performed using a Peltier element. Even if comprised in this way, the water heated by the heat processing part 61 can be cooled.

  In the present embodiment, the fragrance stored in the aroma dish 121 may be volatilized using a heater under the control of the microcomputer 31a. In this case, the heater constitutes the volatilizing means, and the microcomputer 31a that controls the operation of the heater constitutes the adjusting means.

  In the present embodiment, the intake port 99 may be formed in a portion other than the bottom surface of the main body 11. That is, the intake port 99 is formed in a place where the fragrance discharged (spouted) from the fragrance discharge port 15a is difficult to re-suck. For example, the intake port 99 is formed on the rear side surface of the main body 11.

In this embodiment, the aroma dish 121 may be formed integrally with the holding member 120. Even if comprised in this way, handling becomes easy rather than handling the aroma dish 121 alone.
In the present embodiment, the shape of the aroma dish 121 does not have to be circular in plan view, and may be, for example, a polygon.

  In this embodiment, it is not restricted to conveying the air which the fragrance fan 94 conveys from the lower part of the aroma dish 121, You may comprise so that it may be conveyed from a side. In this case, the direction changing unit 126 is configured to be able to change the course so that the air conveyed from the side flows into the inside from substantially the entire circumference of the aroma dish 121.

  In this embodiment, the fragrance discharge port 15a should just be formed between each mist ejection port 18a, 19a, and the shape is not restricted to circular planar view. For example, you may comprise so that it may become an ellipse, a square, and a polygon. Even if comprised in this way, a fragrance is discharge | released from the fragrance discharge port 15a with respect to both the warm mist H and the cold mist C, and the intensity | strength (concentration) of fragrance becomes non-uniform | heterogenous in each mist H and C. This can be suppressed.

  In this embodiment, the liquid (water) may be misted by ultrasonic waves and ejected from the mist nozzle.

The perspective view of the cosmetics device of this embodiment. (A) is a front view of the cosmetic device with the main body lid open, (b) is a side view of the cosmetic device with the main body lid open, and (c) is a cosmetic device with the main body lid closed. (D) is a side view of the cosmetic device with the main body lid closed. AA line sectional view shown in Drawing 2 (c). The partial exploded perspective view of a main part lid. The disassembled perspective view of a cap. (A) And (b) is sectional drawing for demonstrating the operation | movement of a cap. BB sectional drawing shown to Fig.2 (a). EE sectional view taken on the line shown in FIG. (A) is CC sectional view taken on the line shown to Fig.2 (a), (b) is an expanded sectional view of a cold mist nozzle (cold mist jet nozzle). The partial perspective view of a drain outlet. The partial exploded perspective view of a drainage mechanism. (A) And (b) is the FF sectional view taken on the line shown in FIG. (A) is the DD sectional view taken on the line in FIG.2 (b) and FIG.3, (b) is the GG sectional view taken on the line in (a). The disassembled perspective view of an aromatic container attachment / detachment mechanism. (A) is a perspective view of an aroma container, (b) and (c) are the exploded perspective views of an aroma container. (A) is a top view of an aromatic dish, (b) is a side view of an aromatic dish, (c) is the HH sectional view taken on the line of (a). The block diagram which shows the electric constitution of the cosmetics device in this embodiment. (A) is a schematic side view which shows the use condition of the cosmetics device in this embodiment, (b) is a schematic top view which shows the use condition of the cosmetics device in this embodiment. The disassembled perspective view of the cap in another example. (A) And (b) is sectional drawing of the cap in another example. (A) And (b) is sectional drawing of the cap in another example. Sectional drawing of the fragrance container (lid member) in another example. (A) And (b) is sectional drawing of the aroma dish in another example.

Explanation of symbols

  DESCRIPTION OF SYMBOLS 10 ... Beauty device, 11a ... Housing, 13 ... Main body cover, 15 ... Fragrance generating part, 15a ... Fragrance discharge port, 18 ... Warm mist nozzle, 18a ... Warm mist nozzle, 19 ... Cold mist nozzle, 19a ... Cold mist jet Outlet, 20 ... Nozzle cover, 21 ... Cap, 30 ... Power supply circuit board, 31a ... Microcomputer, 40 ... Warm mist generating mechanism, 41a ... Warm mist heater, 60 ... Cold mist generating mechanism, 94 ... Fragrance fan, 99 ... Intake port , 102 ... Fragrance container fixing part, 111 ... Fragrance container removal button, 120 ... Holding member, 121 ... Fragrance dish, 121a ... Folding part, 121b ... Recessed part, 121c ... Inclined part, 121h ... Wall part, 123 ... Lid member, 126 ... direction change part, H ... warm mist, C ... cold mist, P ... user, PH ... hand.

Claims (4)

A mist outlet for ejecting mist generated from the liquid by the mist generating means ;
A fragrance outlet for releasing the fragrance generated by the fragrance generating means;
A mist generating device comprising: a device main body in which the mist ejection port and the fragrance discharge port are disposed on a top surface ;
The mist ejection port is provided in a mist nozzle configured to eject the mist in a predetermined direction,
The fragrance discharge port is provided at a position closer to the user than the mist discharge port and close to the mist discharge port, and is configured to be able to discharge the fragrance toward the mist discharged from the mist discharge port. Mist generator characterized by being made. The mist spray port is disposed side by side in the apparatus main body with the plurality of formed,
The mist generating apparatus according to claim 1 , wherein the fragrance discharge port is provided between a plurality of formed mist outlets. The mist generating means includes a warm mist generating unit that generates a warm mist by heating a liquid, and a cold mist generating unit that generates a cold mist at a lower temperature than the warm mist by converting the liquid into a mist. nozzle includes a warm mist nozzle for ejecting the hot mist from the warm mist spray port in a predetermined direction, that the cold mist are formed and a cool mist nozzle for jetting a cold mist spray port in a predetermined direction The mist generator of Claim 2 characterized by these.   4. The mist according to claim 3, wherein the warm mist nozzle and the cold mist nozzle are arranged in an inclined state so that each mist is ejected toward the front of the user. Generator.

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