JP2017093763A - Remover - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a remover which can absorb a large amount of a cosmetic agent and which can be easily used.SOLUTION: A remover 1 comprises: a rod-shaped handle part 2; an absorption head part 4 which is continuous to an end part of the handle part 2, and which holds a magnet 3; and a magnetic force generation surface 41 which is formed on a surface of the absorption head part 4, and which is formed into an elliptical shape extending along a longer direction of the handle part 2. The magnet 3 has a length dimension which is measured in a direction being parallel to the longer direction of the handle part 2, the length dimension being larger than a width dimension measured in a direction which is perpendicular to the longer direction of the handle part 2.SELECTED DRAWING: Figure 3

Description

  The present invention relates to a remover that adsorbs a cosmetic agent applied to skin by a magnetic force and removes it from the skin.

  Conventionally, cosmetic agents having various properties such as a relatively low-viscosity syrup, a relatively high-viscosity paste, a gel, and a powder are known. Some cosmetic agents of this type are configured to remove skin dirt, wastes and the like together with the cosmetic agent by removing them after a while after being applied to the skin. As a method of removing such a beauty agent from the skin, a method of wiping with cotton or the like, or washing off with warm water or the like is common.

  As a method of removing a cosmetic agent after use more easily than these general methods, a method of adsorbing and removing a cosmetic agent applied to the skin by a magnetic force has been proposed. For example, Patent Document 1 discloses a magnetic attractor having a substantially rod-shaped handle and a magnet attached to the tip of the handle. This magnetic adsorber is configured such that one end face of a disk-shaped magnet is exposed on the outer surface of the magnetic adsorber, and the magnetic fluid contained in the pack agent can be adsorbed on the end face.

JP 2003-199620 A

  Since there is a limit to the amount of the cosmetic agent that can be adsorbed to the magnetic adsorber, it becomes difficult to remove the cosmetic agent from the skin as the amount of the cosmetic agent adsorbed to the magnetic adsorber during use approaches the limit. Therefore, every time it becomes difficult for the user to remove the cosmetic agent from the skin, the user needs to interrupt the operation of removing the cosmetic agent from the skin, and pull the cosmetic agent away from the magnetic adsorber for disposal. Therefore, in order to improve the usability of the magnetic adsorber, it is required to increase the amount of the cosmetic agent that can be adsorbed to the magnetic adsorber and reduce the number of times the cosmetic agent is discarded.

  In order to increase the amount of the cosmetic agent that can be adsorbed to the magnetic adsorber, it is necessary to increase the size of the magnet. However, the disk-shaped magnet as described in Patent Document 1 has a relatively small magnetic attractive force at the center compared to the magnetic attractive force at the outer peripheral edge, so that the cosmetic agent removed from the skin is a magnet. It is easy to gather at the outer periphery. Therefore, if the diameter of the magnet is simply increased, the beauty agent is less likely to be adsorbed on the center of the magnet. Therefore, it is difficult for the magnetic adsorber of Patent Document 1 to increase the amount of the adsorbable cosmetic agent even if the magnet is simply enlarged.

  In addition, when the diameter of the magnet is increased in the magnetic attractor of Patent Document 1, the mass of the magnet increases, so that there is a problem that the usability of the magnetic attractor deteriorates.

  The present invention has been made in view of such a background, and is intended to provide an easy-to-use remover that can adsorb a large amount of a cosmetic agent.

One aspect of the present invention is a handle having a rod shape;
A suction head portion connected to the end of the handle portion and holding a magnet;
A magnetic force generating surface formed on the surface of the suction head portion and having an elliptical shape extending along the longitudinal direction of the handle portion;
The magnet is in a remover, wherein a length dimension obtained by measuring in a direction parallel to the longitudinal direction of the handle part is larger than a width dimension obtained by measuring in a direction perpendicular to the longitudinal direction of the handle part.

  The remover includes the magnet, wherein a length dimension obtained by measuring in a direction parallel to the longitudinal direction of the handle portion is larger than a width dimension obtained by measuring in a direction perpendicular to the longitudinal direction of the handle portion. doing. Thus, the said magnet which exhibits an elongate shape tends to adsorb | suck a beauty agent in the center part of a magnet compared with a disk-shaped magnet. Therefore, the remover can easily increase the amount of the cosmetic agent that can be adsorbed on the magnetic force generating surface by increasing the size of the magnet.

  Moreover, since the said magnet is exhibiting elongate shape, the increase amount of the mass at the time of enlarging compared with a disk-shaped magnet is small. Therefore, the remover can suppress deterioration in usability even if the magnet is enlarged.

It is a perspective view of the remover in an Example. It is a top view of the remover in an Example. It is a bottom view of the remover in an Example. It is a side view of the remover in an Example. FIG. 5 is a cross-sectional view taken along line VV in FIG. 2. It is a perspective view of the magnet and head wall part in the remover of an Example. It is a top view of the handle | steering-wheel lower part in the remover of an Example. It is a side view of the handle | steering-wheel lower part in the remover of an Example. It is the IX-IX arrow directional cross-sectional view of FIG. It is a side view of the handle | steering-wheel upper part in the remover of an Example. It is a bottom view of the upper part of a handle in the remover of an example. It is explanatory drawing of the operation | work which removes the cosmetics apply | coated on the other person's back using the remover of an Example from skin. It is a perspective view of the remover cover with which the remover of an Example is mounted | worn. It is a top view of the sheet | seat material which comprises a remover cover. It is a side view of the state which attached the remover cover to the remover of the Example. It is a side view of the state where the extension part of the remover cover was turned up. It is a perspective view of the mounting base which mounts the remover of an Example. It is a side view of the mounting base in which the remover of the Example was mounted. It is a top view of a stand. FIG. 20 is a cross-sectional view taken along line XX-XX in FIG. 19. It is a bottom view of the mounting surface part in a stand. It is a top view of the side part in a stand. It is a bottom view of a side part in a stand. It is a top view of the bottom face part in a stand.

  The remover has the magnetic force generation surface that exhibits the specific shape on the surface of the suction head portion. Therefore, by moving the remover in a direction perpendicular to the longitudinal direction of the handle portion, the area where the cosmetic agent is removed from the skin can be increased. Therefore, the remover can remove the beauty agent from the skin with a small number of times.

  The remover can be used, for example, at an esthetic salon or the like when removing a cosmetic agent applied to the skin of a patient from the skin. In this case, the practitioner who uses the remover uses the remover while standing on the side of the body of the person to be treated, so that the beauty applied to a relatively flat part such as the back of the person to be treated. The agent can be efficiently removed from the skin.

As described above, when the remover is used for the purpose of removing the cosmetic applied on the back of another person from the skin, it is preferable that the area of the magnetic force generating surface is 3000 mm ² or more. By setting the area of the magnetic force generation surface in the specific range, the cosmetic applied to a relatively flat portion such as the back can be more efficiently removed from the skin. On the other hand, from the viewpoint of ease of use of the remover, the area of the magnetic force generation surface is preferably set to 4000 mm ² or less.

Therefore, by setting the area of the magnetic force generation surface to 3000 to 4000 mm ² , it is possible to achieve both the efficiency of removing the beauty agent and the ease of use of the remover. A remover having such a magnetic force generating surface is optimal for use in removing a cosmetic agent applied to the back of another person from the skin.

  In addition, the remover can naturally be used when adsorbing and removing a cosmetic applied to its own skin from the skin.

  The magnetic force generating surface of the remover has an elliptical shape. Here, the above-described elliptical shape includes a shape obtained by extending a perfect circle along the longitudinal direction of the handle portion, such as an elliptical shape, an oval shape, and an oval shape. Further, the magnetic force generation surface may have a shape obtained by deforming the above-described ellipse or the like to such an extent that it can be recognized as an ellipse as a general sense.

  As the magnet, a plate magnet magnetized in the plate thickness direction can be adopted. The shape of the magnet in plan view can be various shapes such as a rectangle, an ellipse, or an oval, for example. The magnet may have a shape obtained by deforming a rectangular shape or the like that is geometrically defined to the extent that it can be recognized as a rectangle, an ellipse, or an oval as a general sense.

  It is preferable that the magnet has an elliptical plate shape. In this case, the surface area of the magnetic pole surface, that is, the end surface in the plate thickness direction, can be increased while avoiding the formation of a region in which the cosmetic agent is difficult to be adsorbed at the center of the magnet. As a result, the amount of the cosmetic agent that can be adsorbed on the magnetic force generation surface can be increased.

  The suction head part has a length dimension obtained by measuring in a direction parallel to the longitudinal direction of the handle part being 2 to 3 times the width dimension obtained by measuring in a direction perpendicular to the longitudinal direction of the handle part. Preferably there is. In this case, the amount of the cosmetic agent that can be attracted to the magnetic force generating surface can be increased, and the suction head portion can be easily tilted in various directions, so that the ease of use of the remover can be further improved. .

  When the length dimension is less than twice the width dimension, it is difficult to increase the surface area of the magnetic force generation surface, and thus it may be difficult to increase the amount of the cosmetic agent that can be adsorbed to the magnetic force generation surface. There is. On the other hand, when the length dimension exceeds three times the width dimension, the mass of the suction head portion tends to be excessively large. For this reason, in some cases, when the suction head portion is tilted, the posture of the remover becomes unstable, and the usability may be deteriorated.

  The suction head portion preferably has a length dimension obtained by measurement in a direction parallel to the longitudinal direction of the handle portion being 0.5 to 0.6 times the length dimension of the remover. In this case, the amount of the cosmetic agent that can be attracted to the magnetic force generating surface can be increased, and the suction head portion can be easily tilted in various directions, so that the ease of use of the remover can be further improved. .

  If the length of the suction head is less than 0.5 times the length of the remover, it is difficult to increase the surface area of the magnetic force generation surface. There is a possibility that the effect of increasing is reduced. On the other hand, when the length dimension of the suction head part exceeds 0.6 times the length dimension of the remover, the center of gravity of the remover may be excessively biased toward the suction head part side in the longitudinal direction. For this reason, in some cases, when the suction head portion is tilted, the posture of the remover becomes unstable, and the usability may be deteriorated.

  It is preferable that the suction head portion bulges outward from the side peripheral surface of the handle portion, and the magnetic force generation surface is disposed at the top of the suction head portion. In this case, when the magnetic force generation surface is brought close to the skin to which the cosmetic agent is applied, the distance between the handle portion and the skin can be made wider than the distance between the magnetic force generation surface and the skin. Therefore, when the magnetic force generating surface is brought close to the skin to which the cosmetic agent is applied, contact between the skin and the user's hand holding the handle portion can be easily avoided. As a result, the usability of the remover can be further improved.

  The magnet has a first magnetic pole surface facing the magnetic force generation surface side and a second magnetic pole surface facing the handle portion side, and the second magnetic pole surface is made of a soft magnetic material. The yoke plate is preferably covered. In this case, since the outer peripheral edge of the yoke plate becomes a substantial magnetic pole, the magnetic lines connecting the first magnetic pole surface and the outer peripheral edge of the yoke plate extend farther than when no yoke plate is provided. It becomes easy. As a result, the magnetic force generated from the magnetic force generation surface can easily reach far away, and the cosmetic agent applied to the skin can be more easily adsorbed and removed.

  Examples of the remover will be described with reference to the drawings. As shown in FIGS. 1 to 5, the remover 1 includes a handle portion 2 that has a rod shape, an adsorption head portion 4 that is connected to an end of the handle portion 2, holds a magnet 3, and is attached to the surface of the adsorption head portion 4. It has a magnetic force generation surface 41 which is formed and has an elliptical shape extending along the longitudinal direction of the handle portion 2. Further, as shown in FIG. 3, the magnet 3 has a width obtained by measuring a length dimension obtained by measuring in a direction parallel to the longitudinal direction of the handle portion 2 in a direction perpendicular to the longitudinal direction of the handle portion 2. Greater than dimensions.

  As shown in FIGS. 1 and 4, the suction head portion 4 bulges outward from the side peripheral surface of the handle portion 2. As shown in FIGS. 3 to 5, the magnetic force generation surface 41 is disposed on the top of the suction head unit 4.

  As shown in FIGS. 3 and 6, the magnet 3 of this example has an elliptical plate shape. As shown in FIG. 5, the magnet 3 includes a first magnetic pole surface 31 facing the magnetic force generation surface 41 side and a second magnetic pole surface 32 facing the handle portion 2 side. The second magnetic pole surface 32 is covered with a yoke plate 42 made of a soft magnetic material.

  In the following description, the longitudinal direction of the handle portion 2 is sometimes referred to as “vertical direction”, the suction head portion 4 side in the vertical direction is sometimes referred to as “front”, and the opposite side is sometimes referred to as “rearward”. Further, the plate thickness direction of the magnet 3 is referred to as “height direction”, and the first magnetic pole surface 31 side in the height direction may be referred to as “downward”, and the second magnetic pole surface 32 side may be referred to as “upward”. In addition, a direction orthogonal to both the vertical direction and the height direction may be referred to as a “lateral direction”. These descriptions regarding the direction of the remover 1 are for convenience, and have nothing to do with the direction when the remover 1 is actually used.

  As shown in FIGS. 2 and 4, the handle portion 2 extends over the entire length of the remover 1 in the vertical direction. The handle portion 2 includes a head connection portion 21 that is continuous with the suction head portion 4, a handle body portion 23 that is gripped by a user, and a narrow portion 22 that is interposed between the head connection portion 21 and the handle body portion 23. doing.

  As shown in FIG. 2, the head connection portion 21 has a substantially elliptical shape when viewed from above. Further, the head connecting portion 21 has a pair of concave curved surface portions 211 formed on both sides in the lateral direction so as to be recessed inside the handle portion 2 rather than the surroundings. The pair of concave curved surface portions 211 is configured to be able to be placed on the concave curved surface portion 211 by extending a finger in a state where the user holds the handle main body portion 23. When the handle main body 23 is gripped while placing a finger on the concave curved surface portion 211, the magnetic force generating surface 41 is disposed below the finger placed on the concave curved surface portion 211. Therefore, the user can grasp the position of the magnetic force generation surface 41 more intuitively. As a result, the usability of the remover 1 can be further improved.

  As shown in FIGS. 2 to 4, the narrow portion 22 is formed to be narrower than both the head connection portion 21 and the handle main body portion 23. As shown in FIG. 4, the handle main body 23 is disposed above the magnetic force generation surface 41. Therefore, when the magnetic force generation surface 41 is brought close to the skin to which the beauty agent is applied, the distance between the handle main body 23 and the skin can be made wider than the distance between the magnetic force generation surface 41 and the skin. Therefore, the remover 1 can easily avoid contact between the skin to which the cosmetic agent is applied and the user's hand holding the handle main body 23. As a result, the usability of the remover 1 can be further improved.

The suction head unit 4 bulges outward from the side peripheral surface of the head connection unit 21. As shown in FIG. 3, the suction head unit 4 has an elliptical shape when viewed from the bottom. The length L _h of the suction head portion 4 of this example, that is, the outer size obtained by measuring in the direction (longitudinal direction) parallel to the longitudinal direction of the handle portion 2 is about 129 mm. Further, the width dimension W _h of the suction head part 4 of this example, that is, the outer dimension obtained by measuring in the direction (lateral direction) perpendicular to the longitudinal direction of the handle part 2 is about 62 mm.

Therefore, the length dimension L _h obtained by measuring in the direction parallel to the longitudinal direction of the handle portion 2 in the suction head portion 4 of this example is obtained by measuring in the direction perpendicular to the longitudinal direction of the handle portion 2. it is 2.1 times the width dimension W _h.

Further, the length L _r of the remover 1 of the present embodiment is about 253 mm. Therefore, the length dimension L _h in the suction head portion 4 of this example is 0.51 times the length dimension L _r of the remover 1. 2 and 4, the length dimension L _r of the remover 1 matches the length dimension of the handle portion 2.

  A magnetic force generating surface 41 having an elliptical shape is disposed on the top of the suction head portion 4. As shown in FIG. 4, the magnetic force generation surface 41 of this example is formed flat.

  As shown in FIGS. 3, 5, and 6, the magnet 3 magnetized in the thickness direction is accommodated inside the suction head portion 4. The magnet 3 is arranged such that the long axis 301 extends in the longitudinal direction of the handle portion 2 and the first magnetic pole surface 31 and the magnetic force generation surface 41 are substantially parallel. The magnet 3 of this example has an elliptical plate shape in which the major axis 301 is about 101 mm, the minor axis 302 is about 46 mm, and the plate thickness is about 8 mm. Therefore, the length dimension of the magnet 3 obtained by measuring in the direction (longitudinal direction) parallel to the longitudinal direction of the handle portion 2 is about 101 mm, and measured in the direction perpendicular to the longitudinal direction of the handle portion 2 (lateral direction). The width dimension of the magnet 3 obtained in this way is about 46 mm.

  The second magnetic pole surface 32 of the magnet 3 is covered with a yoke plate 42 made of a soft magnetic material. The yoke plate 42 in this example is an iron plate having the same shape as the second magnetic pole surface 32. The yoke plate 42 is disposed so as to contact the entire surface of the second magnetic pole surface 32.

  As shown in FIG. 5, the remover 1 of this example includes a head wall portion 43, a magnet 3, a yoke plate 42, a waterproof packing 44, a cushioning material 45, a handle lower portion 24, and a handle upper portion 25. As shown in FIGS. 4 and 6, the head wall portion 43 constitutes the outer wall of the suction head portion 4 and is configured to hold the magnet 3 and the yoke plate 42 therein. As shown in FIGS. 4, 8, and 10, the lower handle portion 24 constitutes the lower half of the handle portion 2, and the upper handle portion 25 constitutes the upper half of the handle portion 2. Hereinafter, each part which comprises the remover 1 is demonstrated in detail.

  As shown in FIG. 6, the head wall portion 43 is formed in a cup shape, and its central portion is depressed downward. A magnetic force generating surface 41 is disposed at the center of the head wall portion 43. The head wall portion 43 has three fastening bosses 431 fastened to the handle lower portion 24, six positioning portions 432 for holding the magnet 3, and a snap for locking the handle upper portion 25 on the outer peripheral edge thereof. And an accommodating portion 433.

  The fastening boss 431 is erected upward with the inner surface of the head wall portion 43 as a base end. As shown in FIG. 5, the head wall portion 43 and the handle lower portion 24 are fastened by inserting screws 434 from above through screw holes 241 (described later) of the handle lower portion 24 into these three fastening bosses 431. be able to.

  As shown in FIG. 6, the positioning portion 432 is erected upward with the inner surface of the head wall portion 43 as a base end. The six positioning portions 432 have an elliptical arc shape corresponding to the outer shape of the magnet 3 in a top view. The positioning part 432 can hold the position of the magnet 3 disposed on the inner side thereof and can regulate the displacement in the vertical direction and the horizontal direction.

  The snap accommodating portion 433 is disposed in front of the head wall portion 43. As shown in FIG. 5, the handle upper portion 25 can be locked to the head wall portion 43 by accommodating a locking projection 253 (see FIG. 11) of the handle upper portion 25 described later in the snap accommodating portion 433.

  The magnet 3 and the yoke plate 42 are held inside the positioning portion 432 of the head wall portion 43. Further, as shown in FIG. 5, a cushioning material 45 for relaxing an impact applied to the magnet 3 is sandwiched between the yoke plate 42 and the handle lower part 24. The buffer material 45 of this example is a sheet made of EVA (ethylene-vinyl acetate copolymer) foam.

  As shown in FIG. 5, a waterproof packing 44 is sandwiched between the head wall portion 43 and the handle portion 2. The waterproof packing 44 is formed in an annular shape corresponding to the outer periphery of the head wall portion 43 (not shown). Thereby, it is possible to suppress the intrusion of moisture into the head wall portion 43. The waterproof packing 44 of this example is made of silicone rubber.

  As shown in FIG. 5, the handle lower portion 24 extends over substantially the entire length of the remover 1. As shown in FIG. 7, the handle lower part 24 has an abutting edge 242 that abuts the handle upper part 25 at the center in the lateral direction. Further, the inner side in the lateral direction than the contact edge 242 is depressed below the contact edge 242.

  As shown in FIG. 7, three screw holes 241 for fastening the head wall 43 are formed in front of the bottom of the handle lower part 24. Further, three boss holding cylinders 243 are erected on both ends of the handle lower portion 24 in the vertical direction. By inserting a positioning boss 251 (see FIG. 11) of the handle upper portion 25 (described later) into these three boss holding cylinders 243, the handle upper portion 25 is moved to a desired position in the operation of locking the handle upper portion 25 to the handle lower portion 24. Can be easily arranged. As a result, the handle upper portion 25 can be locked more easily.

  Further, as shown in FIG. 7, the handle lower portion 24 has vertical ribs 244 and horizontal ribs 245 that protrude upward from the bottom thereof. The vertical rib 244 is arranged at the center in the horizontal direction of the handle lower part 24 and extends in the vertical direction. The distal end portion of the vertical rib 244 is held in a rib receiving portion 252 (see FIG. 11) of the handle upper portion 25 described later. Further, the lateral rib 245 extends over the entire lateral direction at the bottom of the handle lower portion 24. The rigidity of the handle portion 2 can be further improved by the vertical ribs 244 and the horizontal ribs 245.

  Further, eight snap accommodating portions 246 that lock the handle upper portion 25 are formed on the contact edge portion 242 of the handle lower portion 24. By accommodating a locking protrusion 253 (see FIG. 11) of the handle upper portion 25 described later in these snap accommodating portions 246, the handle upper portion 25 can be locked to the handle lower portion 24.

  As shown in FIG. 5, the handle upper part 25 extends over the entire length of the remover 1. As shown in FIG. 10, the handle upper portion 25 is curved so that the upper contour 250 in a side view has an S shape. As shown in FIG. 11, on the lower surface of the handle upper portion 25, there are three positioning bosses 251 to be inserted into the boss holding cylinder 243 of the handle lower portion 24, snap accommodating portions 433 of the head wall portion 43, and snaps of the handle lower portion 24. Nine locking projections 253 accommodated in the accommodating portion 246, rib receiving portions 252 that hold the vertical ribs 244 of the handle lower portion 24, and horizontal ribs 254 that extend in the lateral direction are formed.

  The positioning bosses 251 are disposed at both ends of the handle upper portion 25 in the vertical direction, and are erected downward. As described above, in the operation of locking the handle upper portion 25 to the handle lower portion 24, the handle upper portion 25 can be easily disposed at a desired position by inserting the positioning boss 251 into the boss holding cylinder 243.

  The locking projection 253 is disposed on the outer peripheral edge of the handle upper portion 25. Of the nine locking projections 253, the locking projection 253 a disposed at the foremost side is accommodated in the snap accommodating portion 433 of the head wall portion 43. Further, the remaining eight locking projections 253 b are accommodated in the snap accommodating portion 246 of the handle lower portion 24. Thus, by accommodating the locking projection 253 in the snap accommodating portions 433 and 246, the handle upper portion 25 can be locked to both the head wall portion 43 and the handle lower portion 24.

  The rib receiving portion 252 is disposed at the center in the lateral direction of the handle upper portion 25 and is composed of a pair of plate-like protrusions extending in the vertical direction. A vertical rib 244 of the handle lower portion 24 is inserted between the pair of plate-like protrusions.

  Next, the function and effect of the remover 1 will be described. As shown in FIG. 3, the remover 1 has a length dimension obtained by measurement in a direction (longitudinal direction) parallel to the longitudinal direction of the handle part 2 in a direction (lateral direction) perpendicular to the longitudinal direction of the handle part 2. The magnet 3 is larger than the width obtained by measurement. Therefore, the beauty agent is more easily adsorbed to the center of the magnet 3 than the disc-shaped magnet. Therefore, the remover 1 can easily increase the amount of the cosmetic agent that can be attracted to the magnetic force generation surface 41 by increasing the size of the magnet 3.

  In addition, since the magnet 3 has an elongated shape, the amount of increase in mass when the size is increased is smaller than that of the disk-shaped magnet. Therefore, the remover 1 can suppress deterioration in usability even if the magnet 3 is enlarged.

  As shown in FIGS. 3, 5, and 6, the magnet 3 has an elliptical plate shape. Therefore, the surface area of the first magnetic pole surface 31 can be increased while avoiding the formation of a region in which the beauty agent is difficult to be adsorbed at the center of the magnet 3. As a result, the amount of the cosmetic agent that can be adsorbed on the magnetic force generation surface 41 can be increased.

In the suction head unit 4, the length dimension L _h obtained by measuring in the vertical direction is 2 to 3 times the width dimension W _h obtained by measuring in the horizontal direction. Further, the suction head portion 4 has a length dimension L _h that is 0.5 to 0.6 times the length dimension L _r of the remover 1. Therefore, the remover 1 can increase the amount of the cosmetic agent that can be attracted to the magnetic force generating surface 41 and can easily tilt the suction head portion 4 in various directions. As a result, the usability of the remover 1 can be further improved.

  As shown in FIGS. 1 and 3 to 5, the suction head portion 4 bulges outward from the side peripheral surface of the handle portion 2, and the magnetic force generation surface 41 is disposed at the top of the suction head portion 4. . Therefore, when the magnetic force generating surface 41 is brought close to the skin to which the cosmetic agent is applied, contact between the skin and the user's hand holding the handle portion 2 can be easily avoided. As a result, the usability of the remover 1 can be further improved.

  As shown in FIG. 5, the magnet 3 has a first magnetic pole surface 31 facing the magnetic force generation surface 41 side and a second magnetic pole surface 32 facing the handle portion 2 side. Is covered with a yoke plate 42 made of a soft magnetic material. Therefore, the outer peripheral edge of the yoke plate 42 becomes a substantial magnetic pole, and the magnetic lines connecting the first magnetic pole surface 31 and the outer peripheral edge of the yoke plate 42 extend farther than when the yoke plate 42 is not provided. It becomes easy. As a result, the magnetic force generated from the magnetic force generation surface 41 can easily reach far away, and the cosmetic agent applied to the skin can be more easily adsorbed and removed.

  The remover 1 of the present example has a magnetic force generation surface 41 that exhibits the specific shape on the surface of the suction head portion 4. Therefore, for example, as shown in FIG. 12, the remover 1 can be used when removing the cosmetic C applied to the skin of the patient P from the skin in an esthetic salon or the like. In this case, the practitioner O who uses the remover 1 uses the remover while standing on the side of the body of the person P to be treated, so that a relatively flat portion such as the back of the person P is used. The applied cosmetic agent C can be efficiently removed from the skin. A cover 5 (see FIGS. 13 to 16) described later is attached to the suction head portion 4 of the remover 1 shown in FIG.

Further, since the remover 1 has an area of the magnetic force generation surface 41 of 3000 to 4000 mm ² , the removal efficiency of the beauty agent C and the removal of the remover 1 in the application for removing the beauty agent C applied to the back of another person from the skin. It is possible to achieve both usability. Therefore, the remover 1 is optimal for use in removing, for example, the cosmetic C applied to the back of another person from the skin in an esthetic salon or the like.

  In addition, this invention is not limited to said aspect, A structure can be suitably changed in the range which does not impair the meaning. Specifically, the configuration can be changed as described above.

The suction head portion 4 may be formed so as to be flush with the side peripheral surface of the handle portion 2 without bulging outward from the side peripheral surface of the handle portion 2.
A rectangular plate magnet may be used as the magnet 3.
-The handle | steering-wheel part 2 may be formed so that thickness may become constant over the full length.
-The handle | steering-wheel part 2 may be exhibiting linear form in a top view and a side view.
-The magnetic force generation surface 41 may be comprised from the curved surface.
Unevenness may be formed on the magnetic force generation surface 41.
The yoke plate 42 may have a cup shape that covers the second magnetic pole surface 32 and the side peripheral surface of the magnet 3.

  The remover 1 of this example is attracted to the magnetic force generation surface 41 by removing the cosmetic applied to the skin in a state where a remover cover (hereinafter simply referred to as “cover”) covering the magnetic force generation surface 41 is attached. The used beauty agent can be discarded more easily. As the cover, for example, a bag-shaped cover that covers from the tip of the suction head portion 4 to the magnetic force generation surface 41 can be used.

  An example of a cover is shown in FIGS. As shown in FIGS. 13 and 15, the cover 5 is provided on the opening side of the bag portion 51 that covers from the tip of the suction head portion 4 to the magnetic force generation surface 41, and the suction head portion 4 is inserted therein. An annular edge portion 52 having an insertion port 521 and an extending portion 53 extending from the annular edge portion 52. And the annular edge 52 has the expansion part 522 whose opening diameter becomes large as it goes to the insertion port 521 from the bag part 51 side.

  Moreover, the annular edge 52 in the cover 5 of this example has a hook-shaped portion 523 that expands outward from the insertion port 521.

  The cover 5 is composed of two sheet materials 6 (see FIG. 14) having the same shape. The sheet material 6 is made of a metallocene low density polyethylene having a thickness of the thickest part of 0.05 mm. Thereby, as shown in FIG. 16, the cover 5 has a softness | flexibility and elastic property of the grade which can be reversely deformed. Although not shown in the figure, the sheet material 6 is embossed and has a fine uneven shape on the surface.

  As shown in FIG. 14, the sheet material 6 includes a bag portion region 61 that becomes the bag portion 51, an edge region 62 that becomes the annular edge portion 52, and an extension portion region 63 that becomes the extension portion 53. It has a shape. In the sheet material 6 of this example, the distance from the front end 611 of the bag portion region 61 to the rear end 631 of the extended portion region 63 is 202 mm.

  The bag region 61 is formed so that the width gradually increases from the front end 611 toward the edge region 62 side, and the width gradually decreases in the vicinity of the edge region 62 side as the edge region 62 is approached. Yes. The outer peripheral part 612 of the bag part area | region 61 is exhibiting elliptical arc shape.

  The edge region 62 is configured to increase in width as the distance from the bag region 61 increases. That is, the cover 5 of the present example is configured such that the entire annular edge portion 52 becomes the expanded portion 522. The outer peripheral portion 621 of the edge region 62 includes a pair of linear portions 622 that are connected to the outer peripheral portion 612 of the bag portion region 61 and have a linear shape, and a pair of arc-shaped portions 623 that are connected to the pair of linear portions 622 and are curved in an arc shape. Have. The radius of curvature of the arc-shaped portion 623 in this example is 5 mm.

  The edge region 62 of this example has the largest width dimension at the end edge on the extended portion region 63 side. The maximum width dimension of the edge region 62, that is, the distance connecting the end points 624 on the extending portion region 63 side in the pair of arcuate portions 623 is 98 mm. In addition, the edge region 62 has a tangent line (not shown) drawn from the end point 624 toward the bag region 61 side and the virtual line L when the virtual line L connecting the pair of end points 624 is used as a reference. The angle formed is 0 °.

  The extension part region 63 has a trapezoidal part 632 formed so as to increase in width from the rear end 631 toward the edge part region 62, and a rectangular part disposed between the trapezoidal part 632 and the edge part region 62. 633, and the rectangular portion 633 has a maximum width. In addition, the maximum width dimension in the extension part region 63, that is, the width dimension of the rectangular part 633 is larger than the maximum width dimension of the edge region 62. Specifically, the width dimension of the rectangular part 633 is 110 mm.

  The cover 5 of this example is configured by stacking two sheet materials 6 having the above-described configuration and joining the outer peripheral portion 612 of the bag region 61 and the outer peripheral portion 621 of the edge region 62. Further, in the cover 5 of this example, the side portion 634 on the edge region 62 side in the outer peripheral portion of the rectangular portion 633 is joined.

  The cover 5 having the above configuration can be attached to the suction head portion 4 of the remover 1 as described below, or can be removed from the suction head portion 4 together with the used cosmetic agent. When the cover 5 is attached to the suction head unit 4, the user has one sheet material 6 a of the two sheet materials 6 (6 a, 6 b) constituting the cover 5 facing the magnetic force generation surface 41 side. Then, the suction head unit 4 is inserted into the insertion port 521. Then, the suction head portion 4 is caused to enter the cover 5 until the magnetic force generation surface 41 is covered with the bag portion 51. Thus, the cover 5 can be attached to the suction head unit 4.

  As shown in FIG. 15, in the state where the cover 5 is attached to the suction head portion 4, one extended portion 53 a of the pair of extended portions 53 (53 a, 53 b) is disposed below the handle portion 2. The The other extending portion 53 b is disposed above the handle portion 2. Further, the magnetic force generation surface 41 is completely covered by the bag portion 51.

  The user can adsorb the cosmetic agent by magnetic force and remove it from the skin by bringing the magnetic force generating surface 41 covered by the cover 5 close to the cosmetic agent applied to the skin. The cosmetic C removed from the skin is adsorbed on the surface of the bag portion 51 by the magnetic force of the magnet 3 as shown in FIG.

  When removing the cover 5 together with the used beauty agent C from the suction head portion 4, the user opens the pair of extending portions 53 in the vertical direction, and then folds the pair of extending portions 53 toward the suction head portion 4 side. . At this time, as shown in FIG. 16, the hook-shaped portion 523 naturally reverses with the displacement of the extending portion 53, and then the rear end of the annular edge portion 52 reverses with the hook-shaped portion 523. As a result, a folded portion 54 is formed which has an annular shape along the insertion port 521 and expands from the insertion port 521 toward the front.

  Thereafter, by pulling the pair of extending portions 53 toward the suction head portion 4 side, the annular edge portion 52 and the bag portion 51 can be easily inverted and deformed. Then, by performing the reverse deformation of the cover 5 in this manner, the cover 5 can be removed from the suction head portion 4 in a state where the used cosmetic C is accommodated in the cover 5.

  The cover 5 having the above-described configuration is configured so that it can be attached to the suction head unit 4 by inserting the suction head unit 4 from the insertion port 521. And the bag part 51 can cover the magnetic force generation surface 41 in the state with which the suction head part 4 was mounted | worn. Therefore, it is possible to suppress the used cosmetic agent C from directly adhering to the suction head unit 4.

  Further, since the annular edge 52 of the cover 5 has the widened portion 522, the used cosmetic agent C is accommodated inside the cover 5 by performing the reverse deformation of the cover 5 as described above. Can do.

  In addition, since the cover 5 has a hook-shaped portion 523 in addition to the widened portion 522, an annular folded portion 54 formed by folding the cover 5 can be naturally formed during the reverse deformation process. . Therefore, in the process of reversing and deforming the cover 5, it is possible to more effectively suppress the cosmetic agent C from leaking outside the cover 5 and directly adsorbing to the adsorption head unit 4.

  As described above, the cover 5 can suppress the dissipation of the unintended beauty agent C such as the beauty agent C removed from the skin by the remover 1 leaks to the outside of the cover 5, and improves the ease of use of the remover 1. Can be made.

  In the remover 1 of this example, since the magnetic force of the magnet 3 acts relatively far, when an electronic device, a magnetic card, or the like is placed near the storage location of the remover 1, they may be adversely affected by the magnetic force. Such a problem can be avoided by placing the remover 1 on a table during storage. As the cradle, for example, a table having a built-in member made of a ferromagnetic material can be used.

  An example of a stand is shown in FIGS. As shown in FIGS. 17 to 20, the cradle 7 includes a main body portion 70 made of a nonmagnetic material and a plurality of built-in members made of a ferromagnetic material and disposed inside the main body portion 70. Yes. The main body portion 70 has a placement surface portion 71 configured to be able to place the magnetic force generation surface 41 of the remover 1. And the stand 7 is comprised so that a magnetic attraction force may arise between the remover 1 mounted in the mounting surface part 71, and a built-in member.

  As shown in FIGS. 18 to 20, the main body portion 70 of the cradle 7 connects the mounting surface portion 71, the bottom surface portion 73 disposed to face the mounting surface portion 71, and the mounting surface portion 71 and the bottom surface portion 73. And a side surface portion 72. As shown in FIG. 19, the main body 70 has a substantially elliptical shape when viewed from above. Further, as shown in FIG. 18, the main body portion 70 gradually expands from the placement surface portion 71 side toward the lower side (the bottom surface portion 73 side). The placement surface portion 71, the bottom surface portion 73, and the side surface portion 72 are all made of ABS resin.

  As shown in FIG. 18, the stand 7 has a handle body portion from the front end of the remover 1 above the body portion 70 in a state where the magnetic force generation surface 41 is placed on a head accommodating portion 711 (described later) of the placement surface portion 71. 23 is configured to be arranged up to the front half of 23. In this way, by configuring the remover 1 so that the entire entirety of the remover 1 is disposed above the main body 70, the remover 1 can be placed on the stand 7 when the user's hand unintentionally hits the remover 1. It can be made difficult to drop from.

  Further, in the state where the magnetic force generating surface 41 is placed on the head accommodating portion 711, the placing table 7 can insert a user's finger between the narrow portion 22 and the handle main body portion 23 and the placing surface portion 71. It is configured to form a clearance as much as possible. Therefore, the user can easily grip the handle main body 23 when lifting the remover 1 from the table 7.

  As shown in FIG. 20, the mounting surface portion 71 has a head accommodating portion 711 formed in a concave shape corresponding to the bulging shape of the suction head portion 4. A central portion of the head accommodating portion 711 is a flat surface 712 that is recessed inside the main body portion 70 rather than around the head accommodating portion 711. As shown in FIG. 19, the flat surface 712 has a substantially elliptical shape corresponding to the magnetic force generation surface 41 of the remover 1 when viewed from above. Thereby, the magnetic force generating surface 41 can be brought into contact with the flat surface 712 in a state where the remover 1 is placed on the placing table 7.

  Although not shown in the drawing, a built-in member is disposed on the back surface of the flat surface 712 in the mounting surface portion 71. As this built-in member, for example, a ferrite sheet in which powdered ferrite is dispersed in a resin can be used. The ferrite sheet is bonded to the mounting surface portion 71 with an adhesive.

  As shown in FIG. 21, the mounting surface portion 71 has a boss 713 for fastening the side surface portion 72 and the mounting surface portion 71 to the outer peripheral edge portion thereof. Screws are inserted into these bosses 713 through fastening holes 721 (see FIG. 22) of the side surface portion 72 described later.

  The side surface portion 72 constitutes an outer wall portion that connects between the placement surface portion 71 and the bottom surface portion 73 in the main body portion 70. As shown in FIG. 22, a fastening hole 721 for inserting a screw is formed in a portion of the side surface portion 72 that contacts the mounting surface portion 71. The mounting surface portion 71 and the side surface portion 72 can be fastened by inserting a screw from below into the boss 713 of the mounting surface portion 71 through these fastening holes 721.

  As shown in FIG. 20, the side surface portion 72 has an intermediate plate portion 722 disposed in the middle in the facing direction of the placement surface portion 71 and the bottom surface portion 73. As shown in FIGS. 20 and 23, the intermediate plate portion 722 has a boss 723 that is erected toward the bottom surface portion 73 side. These bosses 723 are inserted into a fastening cylinder portion 731 (see FIG. 24) of the bottom surface portion 73 described later. Then, a screw 733 is inserted through a fastening hole 732 formed in the fastening cylinder portion 731.

  As shown in FIG. 24, the bottom surface portion 73 has a substantially elliptical plate shape. A built-in member is disposed at the center of the bottom surface portion 73. As this built-in member, for example, an iron plate 74 can be used. As shown in FIG. 20, the four iron plates 74 are fastened to the bottom surface portion 73 by screws 741 in a state where four steel plates 74 are stacked.

  Further, the bottom surface portion 73 has a fastening tube portion 731 erected toward the intermediate plate portion 722 side. A boss 723 of the intermediate plate portion 722 is inserted into the fastening cylinder portion 731. Then, the bottom surface portion 73 and the side surface portion 72 can be fastened by inserting the screw 733 through the fastening hole 732 formed in the fastening cylinder portion 731.

  The cradle 7 having the above-described configuration has a plurality of built-in members (ferrite sheets, iron plates 74) made of a ferromagnetic material inside the main body 70. Therefore, when the remover 1 is placed on the cradle 7, the magnetic lines generated from the magnetic force generation surface 41 concentrate on the built-in member, and the magnetic lines are less likely to leak to the outside of the cradle 7. As a result, the magnetic force generated from the magnetic force generation surface 41 is less likely to act on the periphery of the table 7.

  Further, since the main body portion 70 is made of a non-magnetic material, the main body portion 70 does not receive the action of the magnetic force of the remover 1. Therefore, for example, even when a strong magnet 3 such as a neodymium magnet is used for the remover 1, the remover 1 can be easily pulled away from the main body portion 70 when the remover 1 is used.

  Further, the cradle 7 is configured such that a magnetic attractive force is generated between the built-in member and the remover 1. Since the attracting head portion 4 of the remover 1 is attracted toward the placement surface portion 71 by this magnetic attraction force, the posture of the remover 1 placed on the table 7 can be easily stabilized.

  Moreover, as shown in FIG. 20, since the iron plate 74 as a built-in member is being fixed to the bottom face part 73, the position of the gravity center of the main-body part 70 can be made low. As a result, it is possible to make it difficult for the table 7 to fall unintentionally or to drop from the desk.

DESCRIPTION OF SYMBOLS 1 Remover 2 Handle part 3 Magnet 4 Adsorption head part 41 Magnetic force generation surface

Claims (6)

A handle portion having a rod shape;
A suction head portion connected to the end of the handle portion and holding a magnet;
A magnetic force generating surface formed on the surface of the suction head portion and having an elliptical shape extending along the longitudinal direction of the handle portion;
The magnet has a length dimension obtained by measuring in a direction parallel to the longitudinal direction of the handle part, and a width dimension obtained by measuring in a direction perpendicular to the longitudinal direction of the handle part.   The remover according to claim 1, wherein the magnet has an elliptical plate shape.   The suction head part has a length dimension obtained by measuring in a direction parallel to the longitudinal direction of the handle part being 2 to 3 times the width dimension obtained by measuring in a direction perpendicular to the longitudinal direction of the handle part. The remover according to claim 1 or 2.   The length of the suction head portion obtained by measuring in a direction parallel to the longitudinal direction of the handle portion is 0.5 to 0.6 times the length of the remover. The remover according to any one of the above.   The said attraction | suction head part is bulging outward from the side surrounding surface of the said handle | steering-wheel part, The said magnetic force generation | occurrence | production surface is arrange | positioned at the top part of the said attraction | suction head part. Remover.   The magnet has a first magnetic pole surface facing the magnetic force generation surface side and a second magnetic pole surface facing the handle portion side, and the second magnetic pole surface is made of a soft magnetic material. The remover according to claim 5, which is covered with a yoke plate.

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