JP2015027544A - Mirror cabinet - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a mirror cabinet that can brightly illuminate the face and hands of a person standing in front of mirror doors while sufficiently securing mirror areas of the mirror doors.SOLUTION: In a mirror cabinet, storage spaces 4 and 5 are provided on the backside of adjacent mirror doors 2 and 3 respectively. Vertically extending metal is arranged so that front opening parts 12 opened in a vertically long state face gaps S between the adjacent mirror doors 2 and 3. A plurality of LEDs and LED boards are vertically arranged on the inside of the metal.

Description

  The present invention relates to a mirror cabinet having an illumination function.

  Conventionally, when attaching a lighting fixture to a mirror cabinet of a vanity, illuminate the entire front of the vanity by fixing fluorescent or incandescent lamps in the upper part of the three-sided mirror or in the gap between the mirror doors of the three-sided mirror A general structure is used (see, for example, Patent Document 1).

  However, when a fluorescent lamp or the like is fixed above the three-sided mirror, in order to illuminate the entire front surface of the wash basin, it is necessary to install a large lighting cover so that it protrudes forward from the upper side of the three-sided mirror. Therefore, there is a problem that the mirror area in the three-sided mirror is greatly restricted. On the other hand, when a fluorescent lamp or the like is fixed in the gap between the mirror doors of the three-sided mirror, it is necessary to provide an illumination lamp space with a width of about 100 mm in order to store the fluorescent lamp. There is a problem that the area is greatly restricted.

JP 2001-78909 A

  The present invention has been made in view of the above circumstances, and its purpose is to brighten the face and hand portion of a person standing in front of the mirror door while sufficiently securing the mirror area of the mirror door. The object is to provide a mirror cabinet that can be illuminated.

  In order to solve the above-described problems, the present invention is characterized by the following configurations.

  A mirror cabinet provided with storage spaces 4 and 5 on the back side of the adjacent mirror doors 2 and 3, respectively, and the vertically extending metal is vertically elongated in the gap S between the adjacent mirror doors 2 and 3. It is characterized in that a front opening 12 that is open is faced and a plurality of upper and lower LEDs 15a and LED boards 15b are arranged inside the metal.

  Moreover, in this invention, it is preferable to arrange | position the said LED15a in a line up and down, and to arrange | position inside the said metal.

  Further, it is preferable that the metal has a U-shaped cross section opened forward.

  Moreover, it is preferable that the said metal is integrally formed with an extrusion molding material.

  The metal is preferably a vertical plate 6 that partitions the storage spaces 4 and 5 provided for the mirror doors 2 and 3.

  The mirror cabinet according to the present invention can brightly illuminate the face and hand portion of a person standing in front of the mirror door while sufficiently securing the mirror area of the mirror door.

It is a disassembled perspective view of the vertical board with a light-guide plate of a mirror cabinet used for one Embodiment of this invention, and a top plate. (A) is a side view of the vertical plate with a light guide plate same as the above, (b) is a plan view of the light guide plate and the light source. It is a perspective view of a bathroom vanity provided with a mirror cabinet same as the above. (A) is a perspective view of a mirror cabinet same as the above, (b) is a partial plan view on the mirror door side. It is an enlarged view of the E section of Drawing 4 (b). It is an enlarged view of F section of Drawing 4 (b), (a) is an explanatory view in the state where each adjacent mirror door was closed, and (b) is an explanatory view in the state where the central mirror door was opened. .

  Hereinafter, the present invention will be described based on embodiments shown in the accompanying drawings.

  FIG. 3 shows an example of the mirror cabinet 1 used for the vanity of this embodiment.

  A trihedral mirror having a central mirror door 2 and mirror doors 3 and 3 on both sides is disposed on the front surface of the mirror cabinet 1 disposed above the washstand 20.

  As shown in FIG. 4, the mirror cabinet 1 has a space portion surrounded by a top plate 21, both side plates 22, a back plate (not shown), and a bottom plate 23, and this space portion is arranged in the vertical direction D. The central storage space 4 opened and closed by the central mirror door 2 and the storage spaces 5 and 5 on both sides opened and closed by the mirror doors 3 and 3 on both sides, respectively. It is divided into. For example, as shown in FIG. 6, each mirror door 2, 3 has a mirror panel 17 fixed to the surface of the base panel 16 and a vertical sash 18 fitted into the outer peripheral portion thereof.

  As shown in FIG. 4B, the base end 2a of the central mirror door 2 is connected to a slide hinge 24 provided on the side surface of the left vertical plate 6, and the front end 2b of the mirror door 2 is It is received by one door receiving surface 8 (see FIG. 1) provided on the front end surface 7 of the right vertical plate 6. For example, as shown in FIGS. 6 (a) and 6 (b), the slide hinge 24 includes a parallel link plate 25 that can be expanded and folded so that the mirror door 2 can be opened at a wide angle. With this slide hinge 24, the base end 2a of the mirror door 2 can be rotated at a position where it does not interfere with the light guide plate 10 described later. In addition, about the concrete structure of the slide hinge 24, the technique well-known by Unexamined-Japanese-Patent No. 2003-189950 etc. which this applicant has already disclosed can be employ | adopted.

  The base end portion 3a of the left side mirror door 3 is connected to an open / close hinge (not shown) provided on the side surface portion of the left side plate 22, and the front end portion 3b is provided on the front end surface 7 of the left vertical plate 6. It is received by the door receiving surface 8 (FIG. 1).

  The base end 3 a of the right side mirror door 3 is connected to an open / close hinge (not shown) provided on the side of the right side plate 22, and the tip 3 b is provided on the front end 7 of the right vertical plate 6. It is received by the door receiving surface 9 (FIG. 1).

  In this example, the left and right vertical plates 6 and 6 have door receiving surfaces 8 and 9 (FIG. 5) on both sides in the width direction A of the front end surface 7 and door receiving surfaces 9 only on one side in the width direction A, respectively. The other side in the width direction A is divided into the hinge mounting surface 30 (FIG. 6), but is common in the configuration including the storage recess 11 opened to the front B inside the vertical plate 6. .

  The left and right vertical plates 6 are integrally formed of an aluminum extruded material having a U-shaped cross section. As shown in FIG. 1, a front opening 12 opens vertically from the left and right aluminum extrusion-molded portions 6 a, 6 a toward the front B. 1 is a dowel hole for connecting the aluminum extruded portion 6a and the top plate 21 using a connecting metal fitting (not shown), and 27 is projected from both inner wall surfaces of the storage recess 11 respectively. 1 and 2, reference numerals 28 and 29 in FIG. 1 and FIG. 2 denote plate members that respectively close the upper and lower end portions of the storage recess 11.

  As shown in FIGS. 1 and 2, the light guide plate 10 is stored in the vertical orientation in the storage recess 11 of the vertical plate 6. The light guide plate 10 is made of a translucent material such as acrylic resin or polycarbonate resin, and is formed in a rectangular shape that is long in the vertical direction D. A light incident surface 13 for taking in light from the light source 15 is provided on the end surface 10 a on the back side of the light guide plate 10, and light from the light source 15 incident on the light incident surface 13 is applied to the front end surface 10 b from the strip illumination light R. The light emitting surface 14 to be emitted is provided, and the other upper and lower end surfaces and both side surfaces other than the light incident surface 13 and the light emitting surface 14 are light reflecting surfaces 60a, 60b, 60c, and 60d, respectively. As a method for forming the light reflection surface 60, for example, a reflection process such as aluminum deposition is performed on the outer surface, or a scattering reflection surface is formed.

  The light emitting surface 14 of the light guide plate 10 is disposed so as to face the gap S between the adjacent mirror doors 2 and 3 from the front opening 12 of the vertical plate 6. In this example, the light emitting surface 14 protrudes from the front opening 12 of the vertical plate 6 toward the front B position where it does not interfere with the adjacent mirror doors 2 and 3 by a predetermined dimension from the door receiving surfaces 8 and 9. Yes. As shown in FIG. 5, the projecting dimensions are preferably set so that the mirror panel 17 and the light exit surface 14 of the mirror doors 2 and 3 in the closed state are substantially flush with each other as shown in FIG. . Of course, the light exit surface 14 is not limited to projecting toward the front B from the front opening 12, and at least the strip-shaped illumination light R emitted from the light exit surface 14 is forward B from the gap S between the mirror doors 2 and 3. What is necessary is just to make it irradiate toward.

  A light source 15 is disposed facing the light incident surface 13 of the light guide plate 10. As shown in FIG. 2, the light source 15 includes a plurality of upper and lower LEDs (light emitting diodes) 15a. Each LED 15a is mounted on the LED substrate 15b so that the optical axis of the LED 15a is oriented in a direction perpendicular to the light incident surface 13 of the light guide plate 10.

  Thus, according to the above configuration, when the LED 15a is turned on, the light of the LED 15a is incident from the light incident surface 13 of the light guide plate 10 as shown in FIGS. It spreads away from the light incident surface 13 and proceeds toward the light emitting surface 14 while being specularly reflected by the light reflecting surfaces 60 a to 60 d on both upper and lower end surfaces and both side surfaces, and is almost constant over the entire surface of the light emitting surface 14. The light is emitted as a light amount. As a result, the strip-shaped illumination light R with uniform brightness is irradiated toward the front B through the gap S between the adjacent mirror doors 2 and 3. Can illuminate the face and hand of a person.

  Further, the light exit surface 14 of the light guide plate 10 is exposed from the front opening 12 provided on the center side in the width direction A of the front end surface 7 of the vertical plate 6, whereby interference between the light guide plate 10 and the mirror doors 2 and 3. It becomes possible to arrange the light emitting surface 14 of the light guide plate 10 in the gap S between the adjacent mirror doors 2 and 3 while preventing the above. In addition, in this example, since the light emitting surface 14 of the light guide plate 10 is disposed so as to be substantially flush with the mirror panel 17 of the mirror doors 2 and 3, the mirror panel 17 and the light emitting surface 14 are stepped. When the LED 15a is turned on in this state, the gap S between the adjacent mirror panels 17 shines in a band shape, and the design is further improved.

  Further, since it is only necessary to provide a narrow gap S corresponding to the thickness of the light guide plate 10 between the adjacent mirror doors 2 and 3, unlike the case of providing a wide illumination space for a conventional fluorescent lamp, the mirror The mirror area at the doors 2 and 3 is not greatly restricted. In addition, since the light guide plate 10 can be stored compactly and well within the vertical plate 6, the thickness of the vertical plate 6 can be prevented from increasing, and the storage spaces 4 and 5 partitioned by the vertical plate 6 are not narrowed.

  Note that when a fluorescent lamp or an incandescent lamp is used as the light source 15, there is a problem that heat is generated and power consumption is large, and the life is short and needs to be replaced. Thus, a small and compact vertical plate 6 with an illumination function that has a long life and operates with a low electric energy can be obtained.

  In addition, by forming the vertical plate 6 with an aluminum extrusion molding material, the strength of the light guide plate 10 can be increased, and the overall thickness of the vertical plate 6 housing the light guide plate 10 can be reduced while securing the strength. . In addition, by using a metal, it also serves as a heat dissipation measure for lighting. In addition, since the cross-sectional shape is constant regardless of where the vertical plate 6 is cut in the vertical direction D by extrusion molding, there is an advantage that it can be used after being cut into a predetermined length according to the cabinet size.

  The mirror cabinet 1 of this embodiment is provided with storage spaces 4 and 5 on the back side of adjacent mirror doors 2 and 3, and the storage spaces 4 and 4 of the mirror doors 2 and 3 are respectively provided by vertical plates 6 arranged in the vertical direction D. 5 is a mirror cabinet in which a storage recess 11 having a substantially U-shaped plane cross section opened to the front B is provided in the vertical plate 6 in a vertically long shape. The front opening 12 is formed in a vertically long shape at the front end surface 7 of the vertical plate 6 and facing the gap S between the adjacent mirror doors 2 and 3 across the vertical plate 6. The light guide plate 10 made of a light guide material is vertically stored in the storage recess 11, and the end surface 10 a on the back side of the light guide plate 10 is a light incident surface 13 on which light from the light source 15 is incident. Both side surfaces are light reflecting surfaces 60c and 60, and the front end surface 10b facing the rear end surface 10a of the light guide plate 10 faces the gap S between the mirror doors 2 and 3 adjacent to the front opening 12 above. The light emitting surface 14 is configured such that light incident from the light incident surface 13 is emitted as a strip-shaped illumination light R from between the adjacent mirror doors 2 and 3 toward the front.

  With such a configuration, when the light source 15 is turned on, a gap between the adjacent mirror doors 2 and 3 with the strip-shaped illumination light R from the light emitting surface 14 of the light guide plate 10 stored vertically in the vertical plate 6 is provided. Since the front B is irradiated through S, the face and hand portion of the person in front of the mirror doors 2 and 3 can be sufficiently illuminated. In addition, the light guide plate 10 can be compactly and well stored inside the vertical plate 6 that partitions the storage spaces 4 and 5, and the strip-shaped illumination light from the light exit surface 14 is provided between the adjacent mirror doors 2 and 3. Since it is only necessary to provide a narrow gap S through which R can pass, unlike the case of providing a wide illumination space for storing a conventional fluorescent lamp, the mirror area in the mirror doors 2 and 3 is not greatly restricted. .

  That is, in the mirror cabinet 1 of the present embodiment, the rear end surface 10a forms the light incident surface 13 and the front end surface 10b has the light emitting surface 14 in the housing recess 11 provided in the vertical plate 6 and opened forward. The light guide plate 10 is vertically stored, and the light output surface 14 of the light guide plate 10 is exposed from the front opening 12 of the storage recess 11 to the gap S between the adjacent mirror doors 2 and 3 across the vertical plate 6. As a result, the strip-shaped illumination light emitted from the light exit surface 14 of the light guide plate 10 can be irradiated forward through the gap S between the adjacent mirror doors 2 and 3, thereby partitioning the storage spaces 4 and 5. Using the vertical plate 6, the light guide plate 10 can be packed in a compact and well-contained manner, and a narrow gap S through which the strip-shaped illumination light can pass between the adjacent mirror doors 2 and 3 can be secured. Wide lamp lamps for conventional fluorescent lamps Unlike the case of providing the over scan, nor mirror area is greatly limited in the mirror doors 2, 3. As a result, while sufficiently securing the mirror area in the mirror doors 2 and 3, the face and hand portion of the person standing in front of the mirror doors 2 and 3 can be brightly illuminated by the strip-shaped illumination light.

  Further, the mirror cabinet 1 is preferably formed by projecting the light exit surface 14 of the light guide plate 10 toward the front B position that does not interfere with the mirror doors 2 and 3 from the front opening 12 of the vertical plate 6. . In this case, the light exit surface 14 of the light guide plate 10 is flush with the mirror surface of the mirror doors 2 and 3 while preventing interference between the light guide plate 10 and the mirror doors 2 and 3 when the mirror doors 2 and 3 are opened and closed. As a result, a continuous appearance with no step between the light exit surface 14 and the mirror surface can be exhibited, thereby improving the design.

  In the mirror cabinet 1, the light source 15 is preferably an LED 15a. In this case, mirror illumination can be performed with a small size, a long life, and a low power consumption as compared with an illumination lamp such as a fluorescent lamp or an incandescent lamp.

  In the mirror cabinet 1, the vertical plate 6 is an aluminum extrusion-molded material having a U-shaped cross section, and the light guide plate 10 is preferably housed inside the vertical plate 6. In this case, the thickness of the entire vertical plate 6 including the light guide plate 10 can be kept thin while securing the strength of the light guide plate 10 with the aluminum extrusion molding material, and the extrusion molding material is made of metal such as aluminum. It can also serve as a heat dissipation measure for lighting.

  In the embodiment, at least one of both sides in the width direction A of the front end surface 7 of the vertical plate 6 is a door receiving surface 8 (9), and the other is a door mounting surface 30 for attaching a hinge to the side surface of the vertical plate 6 (FIG. 6). However, both of the side portions of the vertical plate 6 may be the door mounting surface 30. That is, it is only necessary that at least one of the door mounting surface 30 or the door receiving surface 8 (9) is provided on the vertical plate 6.

  In the above embodiment, the vertical plate 6 is an aluminum extrusion-molded product. However, the light guide plate 10 may be sandwiched between two independent metal plates, and these may be assembled together.

  In the above-described embodiment, the back side of the light guide plate 10 is illustrated as the installation location of the LED 15a. In addition, for example, the LED 15a is installed on the upper side or the lower side of the light guide plate 10, and the light of the LED 15a is used using, for example, an optical fiber bundle. A structure in which the light is transmitted to the light incident surface 13 on the back side of the light guide plate 10 is also possible.

  In addition, although the light guide plate 10 and the LED 15a are configured separately, the LED 15a can be integrally formed on the end surface of the light guide plate 10 in an embedded manner.

  The mirror cabinet 1 provided with the vertical plate 6 with an illumination function of the present invention can be widely applied to various equipment units such as a system kitchen other than the vanity.

DESCRIPTION OF SYMBOLS 1 Mirror cabinet 2 Center mirror door 3 Mirror door on both sides 4 Center storage space 5 Storage space on both sides 6 Vertical plate 7 Front end surface of vertical plate 10 Light guide plate 10a End surface on the back side 10b End surface on the front side 11 Storage recess 12 Front surface Aperture 13 Light incident surface 14 Light exit surface 15 Light source 15a LED
B Forward D Longitudinal direction R Strip illumination light

Claims (5)

  Mirror cabinet with storage space on the back side of adjacent mirror doors, with the metal extending in the vertical direction facing the front opening that opens vertically in the gap between the adjacent mirror doors A mirror cabinet comprising a plurality of upper and lower LEDs and an LED substrate disposed inside the metal.   2. The mirror cabinet according to claim 1, wherein the LEDs are arranged in a line in the vertical direction inside the metal.   The mirror cabinet according to claim 1 or 2, wherein the metal has a U-shaped cross section opened forward.   The mirror cabinet according to claim 3, wherein the metal is integrally formed of an extruded material.   The mirror cabinet according to claim 1, wherein the metal is a vertical plate that partitions the storage space provided for each mirror door.

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