JP6527696B2 - Illuminated mirror - Google Patents

Description

  The present invention relates to illuminated mirrors.

  As a prior art, there is a mirror with an illumination device which can use a mirror by forming a light emitting area in the peripheral part of a mirror surface and making the light emitting area emit light in a dark place where external lighting such as a fluorescent lamp can not be used. (See, for example, Patent Document 1).

  Patent Document 1 discloses, as shown in FIG. 4, a self-emission mirror 50 divided into a non-emission part 51 which is a mirror part and a emission part 52. In the self-emission mirror 50, the conductive translucent material layer 54 is formed on a part of the insulating translucent substrate 53, and the insulating translucent substrate 53 is formed on the insulating translucent substrate 53 and the conductive translucent material layer 54. The non-light emitting portion 51 and the light emitting portion 52 are formed by forming an organic compound layer (functional layer) 55 corresponding to the entire surface of the metal layer 56 corresponding to the entire surface of the insulating light transmitting substrate 53 on the functional layer 55. Form.

  Further, in Patent Document 1, as shown in FIG. 5, a conductive translucent material layer 54 is formed on almost the entire surface of the insulating translucent substrate 53, and the mirror portion is on the conductive translucent material layer 54. A resist 57 is formed on the non-light emitting portion 51 to provide insulation, and the functional layer 55 is provided corresponding to the entire surface of the insulating light transmitting substrate 53 including the resist 57 top, and the insulating light transmitting substrate 53 is provided on the functional layer 55. A self-emitting mirror 60 is disclosed in which a metal electrode 56 is formed corresponding to the entire surface of the light emitting diode.

  Further, Patent Document 2 discloses a technique of providing an insulating groove in a conductive light transmitting material layer by laser processing to separate a light emitting portion and a non-light emitting portion.

Unexamined-Japanese-Patent No. 2000-41807 JP, 2005-173036, A

  However, in the configuration of the hand mirrors 50 and 60 described in Patent Document 1, the portion 51 which can be used as a mirror in either configuration is continuous in appearance with the light emitting portion 52, and the light emitting portion 52 also functions as a mirror when not emitting light. Therefore, the distinction is not clear, and the user may look directly at the light emitting portion 52 at the time of light emission, which may cause blindness.

  In addition, Patent Document 2 does not consider the point that the light emitting unit may be viewed directly and blinded similarly to Patent Document 1.

  The present invention has been made focusing on the problems existing in such prior art. The objective is to provide a lighted mirror that does not cause a problem in which the user looks directly into the light emitting portion and emits blindness at the time of light emission.

  Such a lighted mirror of the present invention allows the user to recognize that there is a mirror in the non-light emitting portion since the light emitting portion and the non-light emitting portion functioning as a mirror are completely divided in appearance. Therefore, there is no possibility that the user looks directly at the light emitting unit.

To achieve the above object, lighted mirror of the present invention, one main surface is non-light emission mirror region, and the diffused light emission region A including lighted mirror,
E Bei organic EL tiles containing non-light-emitting region, and the light-emitting region on one main surface of the said one principal surface,
A light extraction film corresponding to the diffused light emitting area is provided on the one main surface side,
The organic EL tile includes an overlapping portion of a first electrode layer, a functional layer, and a metal layer as an organic EL element corresponding to the light emitting region,
The metal layer serves as a light reflecting surface of the mirror,
Plan view, characterized in that the enlarged diffuser emitting area light extraction film is correspondingly comprises a light emitting region and the non-light emitting mirror region light extraction film is not compatible is included in the non-light-emitting region And Such a lighted mirror of the present invention can prevent the user from looking directly at the luminescent material and blinding as described later, and does not give the user a glaring feeling. Furthermore, the illumination object can be made to look beautiful, and furthermore, the light emission from the organic EL element can be maximized without loss, and it has a beautiful appearance.

  In other words, the purpose and effect of the present invention is to utilize that the thin film metal layer formed on the light transmitting substrate, preferably the transparent substrate, through the light transmitting material layer looks like a mirror from the substrate side. And, by forming the light-transmissive material layer and the metal layer as constituent layers of the organic EL element that emits light, the mirror with illumination can be used even in a dark environment, and the mirror user can directly To provide a lighted mirror that does not cause blinding problems. Such a lighted mirror of the present invention can be used even in a dark environment using the fact that the thin film metal layer of the organic EL tile looks like a mirror in the background where the present inventors came to the invention With regard to light-emitting mirrors, there has been a demand for their realization from cosmetics manufacturers in Europe and elsewhere, and there has been a demand for providing lighted mirrors, such as compact ones, which are useful as light-emitting mirrors for makeup. I have had it.

  In addition, the organic EL tile includes, from the one principal surface side, an insulating translucent substrate, a conductive translucent material layer, a functional layer including a light emitting layer containing an organic material, a metal layer, and a sealing layer. The conductive light-transmissive material layer includes a first electrode layer constituting the organic EL element, and an insulating region insulated from the first electrode layer and corresponding to the non-light emitting region, and the organic EL Preferably, the functional layer, the metal layer, and the sealing layer, which constitute the element, are formed on the first electrode layer and the insulating region, and the organic EL element The prevention of the entry of moisture makes it possible to easily manufacture an illuminated mirror having long-term reliability.

  In addition, the first electrode layer and the insulating region are insulated by the insulating groove formed in the conductive light transmissive material layer, and the insulating groove is included in the diffused light emitting region in a plan view. Preferably, when producing the first electrode layer from the conductive light-transmissive material layer, it is not necessary to use a process such as etching, which requires labor and cost, so that the illuminated mirror of the present invention can be manufactured simply and inexpensively. And making the average width of the insulating groove preferably 2 mm or less, more preferably 500 μm or less, more preferably 100 μm or less, and the insulating groove is covered with the light extraction film according to the present invention in plan view. Thus, the insulating groove is not visually recognized from the appearance, whereby the illuminated mirror having an excellent appearance is obtained.

  In addition, the cross-sectional shape of the insulating groove has a shape in which the width of the groove expands from the bottom surface on the insulating light transmitting substrate side to the functional layer side, and the bottom surface is parallel to the insulating groove The substrate functional layer contact region, wherein the material of the conductive light transmissive material layer is absent, and the surface of the insulating light transmissive substrate has a substrate functional layer contact region in direct contact with the functional layer. Preferably, since the insulating region according to the present invention is reliably insulated from the first electrode layer according to the present invention, the non-light emitting region according to the present invention can be reliably made non-luminescent, and It is possible not only to make the eradication effect of the occurrence of the blindness of the user's eyes more reliable, but also to prevent the power loss and the reliability decrease in the illuminated mirror of the present invention.

  The insulating groove may be formed by forming the conductive light transmitting material layer on the insulating light transmitting substrate and then removing a part of the conductive light transmitting material layer by laser processing. It is preferable that processing of the preferred shape is possible, whereby the above-described effect is exhibited. That is, in the present invention, since the insulating groove is formed by laser processing, the first electrode layer corresponding to the light emitting region as the organic EL element and the insulating region are compared to the case where the insulating groove is formed by etching. At the boundary with the region corresponding to the non-light emitting region, a groove having a shape in which the width widens toward the opposite side of the insulating light transmitting substrate can be easily formed, and the insulating groove, preferably in the center thereof, A functional layer contact region parallel to the insulating groove can be formed in which there is no material of the conductive translucent material layer and the surface of the insulating translucent substrate is in direct contact with the functional layer. In such processing by laser processing, from the viewpoint of forming a preferable insulating groove according to the present invention, the maximum width of the groove by microscopic observation is preferably 30 μm to 100 μm.

  The organic EL element is preferably a white light emitting element, and can illuminate the illumination target so as to be able to provide the same visibility as viewed under natural light, more preferably the organic EL element Is a white light emitting element capable of emitting light having a color rendering property of 85 or more, and more preferably 90 or more, particularly preferably 95 or more.

  In addition, the non-light emitting mirror area is used as a mirror, and light is diffused to the entire surface of the light emitting area so that a user of the mirror does not look directly at the light emitting area and blinds. It is preferable that the light extraction film having the function to be disposed is disposed, and such an illuminated mirror of the present invention can be suitably used as, for example, a hand mirror. In this specification, "hand mirror" refers to a compact mirror that can be used as a portable compact mirror, a portable folding mirror, a mirror for a portable accessory (etiquette brush), or the like.

  According to the present invention, the diffused light emitting area of the illuminated mirror has a light extraction film having a function of diffusing light over the entire surface, and thus does not have a function as a mirror, but the present invention In the case of an illuminated mirror, when the diffused light emitting area is made to emit light, for example, in a dark environment, the diffused light emitting area and the non-light emitting mirror area can be easily recognized. Can avoid looking blind and blinding.

Moreover, since only the soft diffused light is emitted from the light emitting portion of the illuminated mirror of the present invention, the user does not have a feeling of glare even when used at a close distance like a hand mirror.
Furthermore, since the illuminated mirror of the present invention emits and illuminates such diffused light, preferably using an organic EL element that emits light with high color rendering, as a light source, the illumination target can be made to look beautiful. Furthermore, in the illuminated mirror of the present invention, all of the light emitting area of the present invention are included in the diffused light emitting area according to the present invention in plan view, so that light emission from the organic EL element is maximized without loss A mirror that is a non-light emitting mirror area of the present invention, which is possible in plan view, according to the present invention has a beautiful appearance with no discontinuities in its mirror surface, all of which are included in the non light emitting area of the present invention.

It is a cross-sectional schematic diagram of the principal part in one embodiment of illumination mirror 100 of the present invention. 1 is a photograph of an example embodiment of an illuminated mirror 100 of the present invention. 7 is a photograph of another example embodiment of the illuminated mirror 100 of the present invention. It is a cross-sectional schematic diagram of an example of the self-emission mirror of a prior art. It is a cross-sectional schematic diagram of another example of the self-emission mirror of a prior art.

  The illuminated mirror of the present invention will be described below using FIG. 1 according to the present invention. FIG. 1 is a schematic cross-sectional view of the main part of an embodiment of the illuminated mirror 100 of the present invention.

(Lighted mirror 100)
In the illuminated mirror 100 of the present invention, as shown in FIG. 1, one major surface 110 includes a diffused light emitting area 111 and a non-light emitting mirror area 112, and preferably, the entire major surface 110 is It consists of these two areas. In addition, the lower side in FIG. 1 is the one main surface 110 side which concerns on this invention. Further, the illuminated mirror 100 of the present invention includes an organic EL tile 1 described later and a light extraction film 2 described later.

  Further, it is a feature of the present invention that the planar view, the diffused light emitting area 111 includes the light emitting area 11 described later, and the non-light emitting mirror area 112 is included in the non light emitting area 12 described later. . Also, it is a feature of the present invention that the non-light emitting mirror area 112 has a function as a mirror. Furthermore, the illuminated mirror 100 of the present invention is provided with the light extraction film 2 having the function of diffusing light on the one principal surface 110 side corresponding to the diffused light emission area. It is one of the features.

  That is, when the non-light emitting mirror area 112 according to the present invention having the function as the mirror is used as a mirror, the user of the mirror looks at the light emitting area 11 directly. A light extraction film 2 having a function of diffusing light is disposed on the entire surface of the light emitting area 11 so as not to be blinded.

  In the illuminated mirror 100 of the present invention, the diffused light emitting area 111 is preferably provided all around the non-light emitting mirror area 112, and when light is emitted, on the face reflected in the illuminated user's mirror , You can reduce the dim parts that will be shadows.

  Further, the shape of the illumination mirror 100 of the present invention is not limited to a rectangular shape, and may be formed into any shape such as a square, another quadrangle, a triangle, a pentagon or more polygon, a circle, or an ellipse.

(Organic EL tile 1)
In the organic EL tile 1 according to the present invention, one main surface on the side of the one main surface 110 of the illuminated mirror 100 of the present invention preferably includes the light emitting region 11 described above and the non-light emitting region 12 described above The entire surface of one main surface is composed of these two regions. The light extraction film 2 is disposed on the entire surface of the light emitting area 11. The organic EL tile 1 according to the present invention includes an organic EL element corresponding to the light emitting area 11. The organic EL tile 1 according to the present invention preferably includes a light emitting layer including the insulating light transmitting substrate 14, the conductive light transmitting material layer 13, and the organic material, all of which will be described later from the one main surface side 110. And the functional layer 15, the metal layer 16, and the sealing layer 17.

  In addition, although each part is typically shown in FIG. 1, while the thickness of the insulated translucent board | substrate 14 is preferable about 0.5 mm-2 mm in fact, the electroconductive translucent material layer 13, the functional layer 15, and a metal are shown. The thickness of the layer 16 is preferably about several tens to 500 nm. In addition, the thickness of the sealing layer 17 is preferably formed to be equal to or greater than the total thickness of the light-transmitting conductive material layer 13, the functional layer 15, and the metal layer 16, and the total thereof. Is 1 μm or more and 10 μm or less, more preferably 2 μm or more and 5 μm or less.

(Light extraction film 2)
The light extraction film 2 according to the present invention is not particularly limited as long as it is a member having a function of diffusing light, but is preferably a member that exhibits transparency at least in the visible light region, and light extraction efficiency It is more preferable that it can contribute to improvement. The material is preferably made of a soft material such as resin from the viewpoint of formability, but it is not limited to this, and a hard material such as glass may be used. Examples of transparent resins include polymethyl methacrylate, polyacrylate, polycarbonate, polyvinyl alcohol, polyvinyl pyrrolidone, hydroxyethyl cellulose, carboxymethyl cellulose, carboxymethyl cellulose, polyvinyl chloride, melanin resin, phenol resin, alkyd resin, epoxy resin, polyurethane resin, polyester Resin, maleic acid resin, polyamide resin, polyimideamide resin, cyclic polyolefin resin, norbornene resin, 4-methylpentene resin, polysulfone resin, polyethersulfone resin, polyarylate resin, polyethylene terephthalate resin, polyethylene terenaphthalate resin, polypropylene resin Phthalate resin, fluorocarbon resin, polyurethane resin, polystyrene resin, polyethylene resin, polypropylene resin , Polyvinyl chloride resins, polyester resins, silicone resins, maleic acid resins. Among such materials, appropriate selection can be made in consideration of the refractive index conditions.

  The light extraction film 2 according to the present invention preferably has a large number of uneven portions in a planar shape, and the unevenness is more preferably present on the side of the one main surface 110 according to the present invention. By having such a concavo-convex portion, total reflection of light generated in the light emitting layer is reduced, and by changing the light emission angle, an improvement effect of light extraction efficiency can be expected. Although the structure of the uneven portion is not particularly limited, for example, those having a microlens structure, a pyramid structure, a photonic array structure, and the like can be preferably used. Further, the structure of the uneven portion may be a regular structure / arrangement, but may be a random structure / arrangement. By making the structure and arrangement of the uneven portion random, the effect of suppressing the light interference can be expected. The concavo-convex portion is formed by finely patterning the resin with light followed by heating, applying a photocurable or thermosetting resin, pressing the concavo-convex mold and curing the resin by light irradiation or heating It can be produced by a method of taking a mold after being made, a method of producing by scraping the material applied to the substrate by the etching method or the substrate itself.

  The height of the unevenness of the uneven portion is not particularly limited, but is preferably 1 μm to 500 μm. More preferably, it is in the range of 5 μm to 100 μm. By having the uneven portion in this range, total reflection of light can be reduced and the light emission angle can be changed, so improvement of the light extraction effect can be expected.

  As the light extraction film 2 in the present invention, a film formed with a concavo-convex portion on a sheet formed of a resin or the like may be used and stuck on the organic EL tile 1 according to the present invention.

(Organic EL element 10)
The organic EL element 10 according to the present invention is a portion corresponding to the light region 11, and preferably is the overlapping portion of the first electrode layer 13a, the functional layer 15, and the metal layer 16 described later, the light A region corresponding to the region 11 is a projection region of the overlapping portion on the insulating light transmitting substrate 14.

  In such an organic EL element according to the present invention, preferably, light emission in the light emitting layer in the functional layer 15 is extracted (emitted) from the light emitting region 11 on the insulating translucent substrate 14 side. That is, it is preferable to be configured as a so-called bottom emission type. And in this invention, the light extraction film 2 which has the function to diffuse light is distribute | arranged to the whole surface of this light emission area | region 11. As shown in FIG. Thus, the diffused light emission area | region 111 which concerns on this invention including planar view and the light emission area | region 11 does not function as a mirror. Therefore, a user who looks into the mirror area does not look into the light emitting area 11.

(Insulated translucent substrate 14)
If the insulating translucent substrate 14 according to the present invention is a plate-like member that is electrically insulating and translucent, the material is not limited to glass, which is a more preferable material, for example, a flexible film It may be a substrate or a plastic substrate.

(Conductive translucent material layer 13)
The conductive light-transmissive material layer 13 according to the present invention is formed on the insulating light-transmissive substrate 14, preferably over substantially the entire surface thereof, and comprises a first electrode layer 13 a constituting an organic EL element; It includes an insulating region 13 b insulated from the electrode layer 13 a and corresponding to the non-light emitting region 12. The first electrode layer 13a preferably functions as an anode of the organic EL element 10 according to the present invention. The first electrode layer 13a and the insulating region 13b are electrically insulated by the insulating groove 13c. It is one of the features of the present invention that the insulating groove 13c is included in the diffused light radiation area 111 according to the present invention. That is, the insulating groove 13c according to the present invention functions as the conductive light transmitting material layer 13 as the first electrode layer 13a constituting the organic EL element 10 corresponding to the light emitting region 11, and the non-light emitting mirror region 112. The insulating region 13 b corresponding to the non-light emitting region 12 including the region is provided for partitioning.

  The material of the conductive light-transmissive material layer 13 according to the present invention is not particularly limited as long as it is a conductive and light-transmissive material, and, for example, indium tin oxide (ITO), indium zinc In addition to metal oxides such as oxides (IZO), tin oxide (SnO 2), zinc oxide (ZnO) and the like, thin films of metals such as silver (Ag), chromium (Cr) and the like, and the like can be mentioned. It is preferably a material that functions as an anode of the organic EL element 10, and is preferably a material that can effectively extract the light generated in the light emitting layer of the organic EL element 10 according to the present invention, From such a point of view, ITO or IZO having high transparency can be particularly preferably used. In the illuminated mirror 100 of the embodiment to be described later, indium tin oxide (ITO) is used as a material of the conductive translucent material layer 13. In the illumination mirror 100 of the embodiment described later, the conductive light-transmissive material layer 13 is formed to have a thickness several times that of the functional layer 15.

  The insulating groove 13 c preferably has a cross-sectional shape in which the width of the groove expands from the bottom surface on the insulating light transmitting substrate 14 side to the functional layer 15 side. It is more preferable that the light-transmissive material layer 13 is formed by removing a part of the conductive light-transmissive material layer 13 by laser processing. Here, the bottom surface is parallel to the insulating groove 13 c, and the material of the conductive translucent material layer 13 does not exist, and the surface of the insulating translucent substrate 14 is in direct contact with the functional layer 15. Preferably, the substrate functional layer contact area 13ca is formed. When the cross-sectional shape is vertical, it is difficult to deposit the functional layer 15 on the side surface on the side of the first electrode layer 13a, and the functional layer 15 is not formed on the side surface far from the insulating translucent substrate 14 As a result, the metal layer 16 may come into contact with the first electrode layer 13a, and an electrical short circuit (leakage) may occur between the metal layer 16 and the first electrode layer 13a.

  The cross-sectional shape, that is, the shape spreading toward the side opposite to the insulating light-transmissive substrate 14 does not have to be uniform on the left and right in the inclined surface which is the side surface of the insulating groove 13c. The shape may have an inclined surface having a shape in which the width is widened toward the opposite side of the insulating light-transmissive substrate 14. With such a shape, the inclined surface on the first electrode layer 13 a side is not broken. It is sufficient if the functional layer 15 can be stacked.

  In the illuminated mirror 100 of the embodiment to be described later, both the straight grooves and the curved grooves are illustrated as the insulating grooves 13 c in a macroscopic view.

  Moreover, it is preferable that insulation be completely obtained by setting the groove width of the insulating groove 13c to, for example, 30 μm to 100 μm. That is, in FIG. 1, the width of the insulating groove 13c is preferably 100 μm or less, while the width of the first electrode layer 13a is preferably several mm or more.

  Due to the presence of the insulating groove 13c, the whole of the functional layer 15 formed on the conductive translucent material layer 13 is not the light emitting region 11, but is the functional layer 15 formed on the first electrode layer 13a. Furthermore, the overlapping portion with the metal layer 16 emits light, and the functional layer 15 formed on the insulating region 13 b included in the other non-light emitting region 12 does not emit light, and such non-light emitting region 12 is The non-light emitting mirror area 112 included is to be used as a mirror.

(Functional layer 15)
The functional layer 15 according to the present invention is a layer provided between the conductive light transmissive material layer 13 and the metal layer 16 and including at least one light emitting layer containing an organic material, and the first electrode layer first It is preferable to form over the electrode layer 13a and the insulating region 13b.

  The functional layer 15 is preferably a layer mainly composed of an organic compound and composed of a plurality of layers, and is preferably a low-molecular-weight pigment material or a conjugated polymer-based material generally used for organic EL elements. It can be formed. The functional layer 15 preferably has a laminated multilayer structure including layers such as a hole injection layer, a hole transport layer, a light emitting layer, an electron transport layer, and an electron injection layer.

  In addition, a plurality of dopants that emit different light may be added to the light emitting layer of the functional layer 15. In addition, a dopant may be added to other layers, such as the electron transport layer and the hole transport layer. If multiple emission colors are seen from different dopants, the desired mixed emission is obtained. White light emission is obtained when the plurality of light emission colors are complementary to each other. The illuminated mirror 100 of the embodiment to be described later is configured to emit white light. In addition, it is preferable that the color rendering index (Ra) with good color rendering properties be 80 or more as white light emission. The average color rendering index (Ra) is an index representing how natural colors look like. It is preferable that the average color rendering index (Ra) is white of 80 or more, but the average color rendering index (Ra) may be less than 80. In addition, although it is preferable that the light emission color of the functional layer 15 is white, for example, it may be one that is refined using colors such as blue and red. In this case, it is suitable not, for example, a mirror for a user to look at his face or figure but for example a mirror for display.

  The functional layer 15 may include a hole injecting and transporting layer, a hole blocking layer, an electron blocking layer, and the like.

(Metal layer 16)
The metal layer 16 according to the present invention has a role as a light reflecting surface of a mirror and a role as an electrode for applying a voltage to the functional layer 15, and as its material, it has a light reflectivity. The metals used are: aluminum (including aluminum alloy) and silver (including silver alloy) are most preferred, and other metals, and alloys thereof may optionally be used, and mixtures of these with electrically conductive compounds, etc. Depending on the case, it can also be used. The metal layer 16 is preferably formed across the first electrode layer first electrode layer 13a and the insulating region 13b. The metal layer 16 preferably functions as a cathode of the organic EL element 10 according to the present invention.

(Sealing layer 17)
The sealing layer 17 according to the present invention is a layer including a sealing film which protects the organic EL element 10 according to the present invention to prevent the element from being deteriorated by infiltration of moisture or oxygen. It is preferable to form over the electrode layer first electrode layer 13a and the insulating region 13b.

The sealing layer 17 covers at least the entire exposed surface of the organic EL device 10 according to the present invention,
It is preferable to form so that the metal layer 16 currently formed on the functional layer 15 and the functional layer 15 and a part of electroconductive translucent material layer 13 may be covered. The material of the sealing film is preferably a material having a function of suppressing permeation of at least moisture or water vapor, more preferably oxygen, in order to prevent deterioration of the organic EL element, silicon nitride, and after drying, It is preferable that it is 1 or more types selected from the group which consists of a polysilazane compound which has the property changed to inorganic silica (SiO2), More preferably, it is using combining these.

  Examples will be described below.

  FIG. 2 is a photograph of an example embodiment of the illuminated mirror 100 of the present invention. FIG. 3 is a photograph of another exemplary embodiment of the illuminated mirror 100 of the present invention.

  The illuminated mirror 100 of such an example was produced by the following procedures (1), (2), (3) and (4).

  (1) The substrate having the ITO layer, which is the conductive light-transmissive material layer 13, is laser-processed to form the insulating groove 13c in the ITO layer, thereby dividing the substrate into the insulating region 13b and the first electrode layer 13a. The insulating area 13 b is an area included in the non-light emitting area 12 of the organic EL tile 1 in plan view.

  (2) The first electrode layer 13a, the functional layer 15, and the metal are formed by forming the functional layer 15 including the light emitting layer containing an organic material and the metal layer 16 across the insulating region 13b and the first electrode layer 13a. An organic EL element layer is formed, including the organic EL element 10 consisting of the overlapping region of the layer 16. A region corresponding to the organic EL element 10 is a light emitting region 11 of the organic EL tile 1.

  (3) A sealing layer over the entire surface of the metal layer 16 covering a part of the conductive light-transmissive material layer 13 except the feed opening for supplying power to the first electrode layer 13 a and the metal layer 16 respectively from the outside 17 was formed.

  (4) By sticking the light extraction film 2 on the entire surface of the light emitting area 11 straddling a part of the non-light emitting area 12 in plan view, the main surface 110 is a non-light emitting mirror area 112 and a diffused light light emitting area An organic EL panel 100 including 111 was manufactured. The area to which the light extraction film 2 is attached is the diffused light emission area 111 of the illuminated mirror 100.

DESCRIPTION OF SYMBOLS 100 Illuminated mirror 110 One principal surface 111 Diffuse light emission area 112 Non-light emission mirror area 1 Organic EL tile 2 Light extraction film 10 Organic EL element 11 Light emission area 12 Non-light emission area 13 Conductive translucent material layer 13a 1st electrode layer 13b Insulating Region 13c Insulating Groove 13ca Substrate Functional Layer Contact Region 14 Insulating Translucent Substrate 15 Functional Layer 16 Metal Layer 17 Sealing Layer

Claims (6)

One main surface is, non-light emission mirror region, and the diffused light emission region A including lighted mirror,
E Bei organic EL tiles containing non-light-emitting region, and the light-emitting region on one main surface of the said one principal surface,
A light extraction film corresponding to the diffused light emitting area is provided on the one main surface side,
The organic EL tile includes an overlapping portion of a first electrode layer, a functional layer, and a metal layer as an organic EL element corresponding to the light emitting region,
The metal layer serves as a light reflecting surface of the mirror,
Plan view, characterized in that the enlarged diffuser emitting area light extraction film is correspondingly comprises a light emitting region and the non-light emitting mirror region light extraction film is not compatible is included in the non-light-emitting region A mirror with illumination. The organic EL tile includes from the one principal surface, an insulating light-transmissive substrate, the conductive transparent material layer, the functional layer including a light emitting layer containing an organic material, the metal layer, and a sealing layer,
Conductor DenToru light material layer comprises a first electrode layer constituting the organic EL element, is insulated from the first electrode layer, and, and an insulating region corresponding to the non-light emitting region,
The functional layer, and said metal layer, and a sealing layer, said first electrode layer, and lighted mirror according to claim 1, characterized in that it is formed over the insulating region . The first electrode layer and the insulating region are insulated by an insulating groove formed in the conductive light transmissive material layer;
The illuminated mirror according to claim 2 , wherein the insulating groove is included in the diffused light emitting area in plan view. The cross-sectional shape of the insulating groove has a shape in which the width of the groove expands from the bottom surface on the insulating light-transmissive substrate side to the functional layer side,
It is a substrate functional layer contact region parallel to the insulating groove on the bottom surface, and the material of the conductive translucent material layer does not exist, and the surface of the insulating translucent substrate is in direct contact with the functional layer The illuminated mirror of claim 3 having a substrate functional layer contact area. The said organic EL element is a white light emitting element, The illumination mirror in any one of the Claims 1-4 characterized by the above-mentioned. The non-light emitting mirror area is used as a mirror, and
The light extraction film having a function of diffusing light is disposed on the entire surface of the light emitting area so that a user of the mirror does not look directly at the light emitting area and is blinded. The illuminated mirror according to any one of claims 1 to 5 .