• 专利附录
  • 专利说明
  • 权利要求
  • 类似技术
  • 同族专利
  • 引用文献
  • 法律状态
  • 优先权
    • 专利摘要:
    The invention relates to a composite arrangement (100, 200, 300) for covering a flat luminaire for motor vehicles, having an inner surface and an outer surface, wherein the composite arrangement (100, 200, 300) has at least one layer, wherein the at least one layer structures (4 , 9, 101, 201, 301a, 301b) of a first transparent polymeric material having a modulus of elasticity E> 2000 MPa, wherein the at least one layer comprises a second transparent material, with which between the structures (4, 9, 101, 201 , 301a, 301b) are at least partially filled, the second transparent material being selected from the group consisting of a gaseous fluid, a liquid material, a gelatinous material and a polymeric material with a modulus of elasticity E <1000 MPa is selected.
    公开号:AT517266A1
    申请号:T50424/2015
    申请日:2015-05-27
    公开日:2016-12-15
    发明作者:Hartmann Peter；Hagleitner Daniel
    申请人:Zkw Group Gmbh；
    IPC主号:
    专利说明:

    Composite arrangement for covering a flat light
    The invention relates to a composite arrangement for covering a flat light for motor vehicles, in particular signal lights or headlights, wherein the composite arrangement has an inner surface and an outer surface.
    In lighting devices for motor vehicles such. Signal lights or headlamps, is in general the light source and the light-forming elements such as lenses and reflectors preceded by a cover. The cover plate closes off the luminaire housing and offers protection against environmental influences. Covering disks are expediently made of a robust, in particular surface-hardened and impact-resistant material. The protective function against, for example, stone chips is also ensured by the fact that the sensitive lighting components positioned at a certain distance behind the cover, which absorbs the impact energy by deformation, whereby an at least necessary space depth of the housing is required. This space depth is in conventional luminaire designs and configurations unproblematic and part of the optical design, but in luminous designs with flat light sources or light components such as organic light emitting diodes (OLED), light-emitting diodes (LED) arrays or a planar light guides undesirable and consequently an obstacle to the desired reduction the installation space depth.
    US 2011/0039073 A1 discloses a protective cover for the mechanical protection of objects underneath which has at least two layers of material, a material layer of hollow sphere, the other material layer of plastically deformable plastic. The spaces between the balls may be filled with a material that provides less resistance to deformation than the balls themselves.
    WO 2014/033725 discloses a formwork panel made of plastic composite which can be used in construction as a lightweight embodiment for transport.
    US 2007/0218261 A1 discloses a light-controlling composite with transparent and light-absorbing regions arranged vertically through the composite surface. The
    Interfaces of the composite are therefore in the emission of the light and perpendicular to the surface of the lamp elements.
    DE 10 2013 218 850 A1 discloses a luminaire cover for covering lighting devices in vehicles, having an at least partially transparent luminous area, which is made of at least one impact-absorbing material or has at least one coating of a shock-absorbing material.
    US Pat. No. 6,464,382 describes a scattering plate with incorporated light-shaping bodies with a specific refractive index.
    US 2001/0055215 A1 discloses a plastic luminaire cover with a soft, flexible layer, which is arranged between a plastic carrier and an outer wear-resistant layer.
    It is an object of the invention to provide a composite arrangement for covering a flat luminaire for motor vehicles, which on the one hand offers reliable wear and impact protection and, on the other hand, the possibility of integrating optical functional elements while minimizing the installation space depth.
    This object is achieved by a composite arrangement as mentioned in the introduction, which according to the invention has at least one layer, wherein the at least one layer comprises structures of a first transparent polymeric material having a modulus of elasticity E> 2000 MPa, wherein the at least one layer comprises a second transparent material, are at least partially filled with the intermediate spaces between the structures, wherein the second transparent material is selected from the group consisting of a gaseous fluid, a liquid material, a gel-like material and a polymeric material having a modulus of elasticity E <1000 MPa.
    Thanks to the invention, a close fitting or directly applied to the flat light cover is provided, which brings a reliable wear and impact protection with drastic reduction of the installation depth. The composite assembly according to the invention can replace the otherwise provided cover plates in certain applications of automotive lighting equipment. The
    Composite assembly also allows a combination of said wear and protection effect with an integration of optical functional elements, such. Light-shaping elements (for example, light-distributing or scattering elements), whereby a variety of design options for flat lights are opened.
    According to the invention, the composite assembly is thus composed of at least one layer, each layer being composed of a structuring, supporting first material and a filling second material, wherein the interstices between the structures of the first material at least partially, preferably entirely, filled up with the second material become. Due to the thus filled support structure creates a reliable impact absorbing effect, whereby underlying bulbs are protected. The light emitted by the light source is guided in the propagation direction through the composite arrangement. For example, through the curvature of the interface, the transmitted light can be formed.
    The "inner surface of the composite assembly" is that surface of the composite assembly that faces the planar lights. Accordingly, the "outer surface of the composite assembly" is understood to mean that surface of the composite assembly that faces away from the planar lamp.
    The term "flat luminaire", also referred to herein as a luminaire, refers to luminaires with planar light components, for example an organic light-emitting diode (OLED), a light-emitting diode (LED) array or a planar light guide Substantially planar or even curved Such luminaires with flat light components are notoriously known to a person skilled in the art.
    As used herein, the term "transparent" means that the composite is passable to visible light. For the functionality of automotive lights, such as signal lights or headlamps, it is essential that the covers downstream of a lamp unit in the optical beam direction have very good optical transparency. In the field of headlamp technology, there are luminous efficiencies for the light emission, the physical measure of which is luminous flux, for projection modules realistic values of 30-40%, reflectance applications up to 60% It depends on the losses in the system (reflectivity of the reflector surface, absorption losses in the lens and lens) and a geometric degree of utilization, which depends on the available installation space, the emission characteristics of the light source and the design strategy of the lighting technician If you want an e. Protecting a headlamp projection module by a composite arrangement according to the invention and still achieve acceptable efficiency in the operating state of the headlamp, the degree of transmission of the cover is preferably greater than 50%.
    The term "headlamp" encompasses all types of motor vehicle headlamps, in particular headlamps and tail lights The term "signal light" includes, for example, a daytime running light or a limiting light. The structural design and the light distribution of flat lights, headlamps and signal lights is well known or usually subject to legal requirements that are known in the art.
    Preferably, the first transparent polymeric material is selected from the group consisting of thermoplastic and thermoset. Suitable polymers for the first transparent polymeric material are, for example, polyolefin, modified polyamides (modified PA), polyacrylates including modified PMMA (modified polymethyl methacrylate), PC (polycarbonates), styrene copolymers such as mABS, ASA, SAN, SBS, and PET (polyethylene terephthalate).
    The second transparent material is preferably a polymeric material having a Shore hardness of <90 D, preferably with a Shore hardness of 20 A - 70 A.
    Advantageously, the second transparent material is a polymeric material selected from the group consisting of an elastomer, an ionomer and a polysaccharide. Examples of suitable elastomers are silicone, TPE / O, TPE / U, TPE / E, TPE / S and modified PA (modified polyamide). An example of a suitable ionomer is Surlyn® (Dupont). As an example of a suitable polysaccharide are mentioned in water swollen cellulose fibers.
    In other variants, the second transparent material is a gaseous fluid, preferably air or an inert gas.
    In particularly advantageous variants, the second transparent material is a liquid having a viscosity of <106 mPa sec or a filler-containing liquid having a viscosity of <106 mPa sec or a gel-like material; Such materials enable good lateral distribution of impact energy (e.g., due to stone chipping) that can be dissipated without a long path. Preferably, the second transparent material behaves dilatantly depending on the impact velocity. Preferably, the second transparent material is a perfluoropolyether. Suitable perfluoropolyethers are, for example, Galden® or Fomblin® (Solvay). If the second transparent material is a liquid with a viscosity of <106 mPa sec or a liquid containing filler with a viscosity of <106 mPa sec or a gel-like material, this preferably has a density of> 1.6 g / cm 3.
    The structures of the first transparent polymeric material are expediently produced by injection molding, by embossing or by deep drawing of a polymeric film. Following the injection molding process, the structures can be applied either to a cover layer or directly to the light exit surface of the planar luminaire, for example by lamination or under temperature by irradiation. Alternatively, the structures can also be produced by embossing or thermoforming a polymeric film.
    The structures of the first polymeric material are preferably formed of dome-shaped structural elements or of structural elements in the form of concave or convex lenses.
    The structures or structural elements preferably have a dimension of 1-25 mm. The height of the structural elements perpendicular to the layer is preferably 1-5 mm. The width of the structural elements parallel to the layer is preferably in a range of 1-25 mm, for example 1, 5, 10, 15 or 25 mm.
    In other variants, the first transparent polymeric material and the second transparent material may have different refractive indices. Depending on the shape of the structures or structural elements and depending on the respective refractive indices, corresponding light-shaping effects (for example focussing, defocusing, collimating, widening, compensating color aberrations) can be achieved. A non-exhaustive summary of light-shaping effects depending on the shape of the lenticular structural elements and the respective refractive indices is given in the following Table 1:
    Table 1:
    If the second transparent material is a viscous liquid or a gel-like material, it may be applied to the structures to fill the gaps between the structures.
    The second transparent material (e.g., it may be a polymer or a solid at room temperature gel) may also be applied by melting.
    Advantageously, an outer cover layer is applied to the outer surface of the composite assembly. The outer cover layer is made, for example, of PET (polyethylene terephthalate), e.g. biaxial PET up to 100 gm thick, PMMA (polyacrylic methacrylate), PC (polycarbonate), PVDF (polyvinylidene fluoride), PA (polyamide), ABS (acrylonitrile-butadiene-styrene copolymer), SAN (styrene-acrylonitrile), ASA (acrylic ester-styrene Acrylonitrile), PS (polystyrene) or glass. The outer cover layer is expediently with dirt-repellent properties in a manner known per se (for example nano-structuring) and / or is coated in a manner known per se with a hard coating (eg UV-cured lacquer or PVD ("physical vapor deposition") silicate, zirconate, titanate or aluminate base, DLC (diamond-like carbon) and the like).
    In other variants, an inner cover layer is applied on the inner surface of the composite structure, which is made of, for example, PET, e.g. biaxial PET can be made up to 100 pm thick, PMMA, PC, PVDF PA, ABS, SAN, ASA, polystyrene or glass. If the sheet light component is an OLED, then it is conceivable that the inner cover layer is omitted. In the case where the planar light components comprise discrete luminous centers (for example LED arrays), the inner cover layer can be designed to be optimized for the coupling-in of light; for example, it may have shaped cavities (e.g., for receiving LED chips) or scattering centers (e.g., by adding pigments or other inclusions).
    To obtain a multilayer composite arrangement, it is expedient if the structure of the composite arrangement comprises at least two layers. Between the individual layers intermediate layers can advantageously be arranged, which separate the individual layers from one another and which are made, for example, of PET, e.g. biaxial PET up to 100 pm thickness, PMMA, PC, PVDF, PA, ABS, SAN, ASA, polystyrene or glass are made.
    In advantageous developments, the outer layers (outer and / or inner) and / or the intermediate layers are built in several layers. Advantageously, optical elements (eg microstructures as described, for example, in AT 514 785 A1, scattering particles (micro / nano), dyes, pigments) and / or structurally reinforcing elements (for example organic elements of the multilayer structure) can be used PP (polypropylene), PE (polyethylene), PET (polyethylene terephthalate) or polyacrylonitrile (PAN), inorganic elements of E / S glass, natural or synthetic minerals or synthetic or natural long or short fibers). The embedding of structure-enhancing elements advantageously increases the overall strength and overall attenuation of the composite structure. A further advantageous development provides that laterally coupling-out optical waveguides are incorporated for special light effects in the multilayered intermediate layers.
    In advantageous developments of the invention, the respective layers of the multilayer composite surface are structured differently and / or contain different combinations of the first and second materials. This makes it possible, for example, to realize a deep-progressive damping behavior of the composite arrangement according to the invention.
    In other embodiments of the invention, it may be provided that the first and / or the second transparent material is foamed in order to achieve improved damping, scattering or weight saving, and / or with optical elements selected from the group consisting of scattering particles, dyes , Effect pigments or a combination thereof. The scattering particles, dyes and effect pigments can be evenly distributed or locally varied to obtain specific lighting and design effects. Examples of effect pigments are tinsel or glitter pigments, luminescent pigments (for example phosphorescent pigments) or iridescent pigments.
    Another object of the invention relates to a flat light for a motor vehicle comprising at least one planar light component and a composite arrangement according to the invention as described herein.
    Advantageously, the areal light component is an organic light-emitting diode (OLED), a light-emitting diode (LED) array or a planar light guide. These light components are notoriously known to one skilled in the art.
    If the planar light includes a light emitting diode (LED) array having a plurality of discrete light centers, then the light centers may be centered or off center to the features of the patterned layer.
    The invention will be further described by way of non-limitative examples, which are illustrated in the accompanying drawings. The drawings show:
    Fig. 1 shows the mechanical properties of the composite assembly according to the invention by means of a mechanical analog.
    2 a-d show the mechanical properties of the composite arrangement on the basis of two exemplary embodiments.
    3 a-f show different variants of light-shaping structural elements made of the first transparent polymeric material.
    Fig. 4 a-c different variants of the structure (single-layer and multi-layer) of the composite assembly according to the invention, and
    5 shows a method for producing a composite arrangement according to the invention.
    Fig. 1 shows the mechanical properties of the composite assembly according to the invention by means of a mechanical analog. The resilient element 1 absorbs the force perpendicular to the plane 2 (symbolized by vertical arrows). The resilient element 1 is not rigidly connected to the plane 2 and can therefore move to the side (symbolized by horizontal arrows). A force acting externally on the composite structure (e.g., a rockfall impact) is thus dissipated laterally.
    In Figures 2 a-d, the mechanical properties of the composite structure upon application of force (e.g., a rockfall impact) are illustrated by two exemplary embodiments (Figures 2 a and 2 b and Figures 2 c and 2 d, respectively). 2 a illustrates the flow of forces in a single-layer composite arrangement shown in FIG. 2 b according to a first exemplary embodiment. FIG. 2 c illustrates the flow of forces in a single-layer composite arrangement shown in FIG. 2 d according to a second exemplary embodiment. The force absorption A illustrated schematically by vertical arrows in FIGS. 2 a and 2 c is that which is perpendicular to the plane of the layer. The power consumption A is preferably used to absorb the energy and is designed to brake faster projectiles stronger, when speed-dependent consideration. In the force absorption B, which is substantially parallel to the plane of the layer and is illustrated by horizontal arrows in Figures 2a and 2c, the energy of the impinging projectile (e.g., a stone) is laterally distributed.
    The composite arrangement shown in FIG. 2 b (corresponding to the course of forces illustrated in FIG. 2 a) has two cover layers 8, between which substantially planely convex or dome-shaped structural elements 9 are arranged (only one structural element 9 is illustrated in FIG. 2 b) ). The structural elements 9 are made of a material with a high modulus of elasticity (E> 2000 MPa). The areas 10 around the structural element 9 are filled, for example, with a viscous liquid, which preferably behaves dilatantly as a function of the impact velocity. The structural elements 9 take over the force A, whereas the filled with viscous fluid areas 10 are responsible for the power B.
    The composite arrangement shown in FIG. 2 d (corresponding to the course of force illustrated in FIG. 2 c) comprises two cover layers 3, between which lens-shaped structural elements 4 which are mounted on support elements 5 are arranged (in FIG. 2 b, only one structural element 4 is present or only one support element 5 shown). The lenticular structural elements 4 are made of a material having a high modulus of elasticity (E> 2000 MPa). The support elements 5 are, for example, hollow cylindrical and preferably made of a softer polymeric material having a modulus of elasticity E <1000 MPa. The region 6 below the structural element 4, for example, can be filled with air. The region 7 outside the structural element 4 can be filled, for example, with a viscous liquid or likewise with air. With reference to the course of forces illustrated in FIG. 2 c, the lenticular structure elements 4 take over the force absorption A. The force absorption B takes place through the support elements 5, which allow the structural elements 4 to deflect laterally in the event of an impact, and through the air or with viscous fluid filled areas 6, 7.
    Fig. 3 shows collecting (Fig. 3a) and scattering (Fig. 3b) light-shaping structural elements. 3c and 3d show structural elements with edges at the transition between planar surface sections, wherein the edges can be positioned symmetrically (FIG. 3c) or asymmetrically (FIG. 3d). FIGS. 3e and 3f show structural elements with edges at the transition between curved surface sections, wherein the edges may be positioned symmetrically (FIG. 3e) or asymmetrically (FIG. 3f).
    Fig. 4 shows schematic representations of different variants of the structure (single-layer and multi-layer) of the composite arrangement according to the invention.
    FIG. 4 a shows an example of a single-layer structure of a composite arrangement 100 according to the invention. The structure comprises collecting light-shaping structural elements 101, which have a substantially plano-convex or dome-shaped form. The structural elements 101 are made of a first transparent polymeric material having a modulus of elasticity E> 2000 MPa, for example of polymethyl methacrylate (PMMA), and arranged on an inner cover layer 102 facing a planar light component. The cover layer 102 consists for example of a film of biaxially oriented polyethylene terephthalate (PET). The intermediate spaces 103 between the structural elements 101 are filled with a second transparent material, here with a perfluoropolyether such as Galden® or Fomblin® (Solvay). Outwardly, the composite assembly 100 is terminated by an outer cover layer 104, which may also be made of PET. The outer cover layer 104 may also with dirt-repellent properties according to known per se (eg nano-structuring) and / or is known per se with a hard coating (eg UV-cured lacquer or PVD layer on silicate, zirconate, titanate or aluminate base, DLC and the like). The height of the structural elements 101 perpendicular to the position is about 5 mm. The width of the structural elements 101 parallel to the position is about 15 mm.
    In FIG. 4 a, the luminescent layers of the planar luminaire components, which are covered with the composite arrangement, are also shown schematically by way of example. In the case of an OLED, the luminescent layer 105 is formed homogeneously. The luminescent layer of an LED has discrete luminous centers which can either be centered (luminescent layer 106) or arranged off-center to the structural elements 101 of the composite arrangement 100.
    Fig. 4b shows a composite assembly 200 which is constructed substantially the same as the composite assembly 100 of Fig. 4b, with the difference that the dimension of the dome-shaped structural elements 201 is chosen smaller. The height of the structural elements 201 perpendicular to the position is about 5 mm. The width of the structural elements 201 parallel to the position is about 5 mm.
    FIG. 4c shows an example of a two-layer structure of a composite arrangement 300 according to the invention. The assembly comprises a total of two layers, an inner layer 300a and an outer layer 300b, each layer 300a, 300b having light-forming structural elements 301a, 301b collecting them. The structural elements 301a, 301b have in the
    Essentially a plano-convex or dome-shaped form and differ in their dimension. The height of the structural elements 301a perpendicular to the layer is about 5 mm. The width of the structural elements 301a parallel to the layer is about 5 mm. The height of the structural elements 301b perpendicular to the position is about 5 mm. The width of the structural elements 301b parallel to the layer is about 15 mm. The layers 300a, 300b are delimited by an inner cover layer 302 facing an areal light component and an outer cover layer 304. In addition, the layers 300a, 300b are separated from each other by an intermediate layer 305. The cover layers 302, 304 and the intermediate layer 305 consist, for example, of a film of biaxially oriented polyethylene terephthalate (PET). The gaps 303a and 303b between the structural elements 301a and 301b are filled with a second transparent material. The outer cover layer 304 can also with dirt-repellent properties according to known per se (eg nano-structuring) and / or is known per se with a hard coating (eg UV-cured paint or PVD layer on silicate, zirconate, titanate or aluminate base, DLC and the like). In a sub-variant, the materials for the structural elements 301a, 301b and the filling materials for the intermediate spaces 303a, 303b are the same. However, in order to realize a deep-progressive damping behavior, the multi-layer composite 300 may have different combinations of materials. Two representative examples of such material combinations for the layers 300a, 300b are shown in Table 2:
    Table 2:
    In Fig. 5, the method for producing a composite assembly according to the invention, here the example of the composite assembly 100 of FIG. 1, shown schematically. The structural members 101 of the first transparent polymeric material (e.g., PMMA having a modulus of elasticity E> 2,000 MPa) prepared in a conventional manner by injection molding are applied to the inner liner 102 by, for example, lamination or exposure to temperature (FIG. In the case of an OLED, the structure elements 101 can also be applied directly to the luminescent layer of the OLED (not shown). Subsequently, the interspaces 103 between the structural elements 101 by doctoring the second transparent material (perfluoropolyethers such as Galden® or
    Fomblin® (Solvay) filled (Figure 5b). Alternatively, it is also possible to melt-coat the second transparent material, for example, when it is a polymer or a room temperature solid gel. Subsequently, the outer cover layer 104 is applied to obtain the composite arrangement (FIG. 5c).
    权利要求:
    Claims (27)
    [1]
    claims
    Composite assembly (100, 200, 300) for covering a flat light for motor vehicles, having an inner surface and an outer surface, characterized in that the composite assembly (100, 200, 300) has at least one layer, wherein the at least one layer structures ( 4, 9, 101, 201, 301a, 301b) of a first transparent polymeric material having a modulus of elasticity E> 2000 MPa, wherein the at least one layer comprises a second transparent material with which between the structures (4, 9, 101, 201, 301a, 301b) are at least partially filled, the second transparent material being selected from the group consisting of a gaseous fluid, a liquid material, a gelatinous material and a polymeric material a modulus of elasticity E <1000 MPa is selected.
    [2]
    2. Composite arrangement according to claim 1, characterized in that the first transparent material is selected from the group consisting of thermoplastic and thermosetting plastic.
    [3]
    3. Composite arrangement according to claim 1 or 2, characterized in that the second transparent material is a polymeric material having a Shore hardness of <90 D.
    [4]
    4. Composite arrangement according to claim 3, characterized in that the second transparent material has a Shore hardness of 20 A - 70 A.
    [5]
    5. The composite assembly of claim 1, wherein the second transparent material is a polymeric material selected from the group consisting of an elastomer, an ionomer, and a polysaccharide.
    [6]
    6. Composite arrangement according to claim 1 or 2, characterized in that the second transparent material is a gaseous fluid, preferably air or an inert gas.
    [7]
    7. Composite arrangement according to claim 1 or 2, characterized in that the second transparent material is a liquid having a viscosity of <106 mPa sec or a filler-containing liquid having a viscosity of <106 mPa sec or a gel-like material.
    [8]
    8. Composite arrangement according to claim 7, characterized in that the second transparent material behaves dilatant.
    [9]
    9. Composite arrangement according to claim 7 or 8, characterized in that the second transparent material is a perfluoropolyether.
    [10]
    10. Composite arrangement according to one of claims 7 to 9, characterized in that the second transparent material has a density of> 1.6 g / cm3.
    [11]
    11. Composite arrangement according to one of claims 1 to 10, characterized in that the structures are produced by injection molding, by embossing or by deep drawing a polymeric film.
    [12]
    12. Composite arrangement according to one of claims 1 to 11, characterized in that the structures (4, 9, 101, 201, 301 a, 301 b) are formed from dome-shaped structural elements or from structural elements in the form of concave or convex lenses.
    [13]
    13. Composite arrangement according to one of claims 1 to 12, characterized in that on the outer surface of the composite arrangement, an outer cover layer (8, 104, 304) is applied.
    [14]
    14. Composite arrangement according to claim 13, characterized in that the outer cover layer (8, 104, 304) made of PET, PMMA, PC, PA, ABS, SAN, ASA, polystyrene or glass is made.
    [15]
    15. Composite arrangement according to claim 13 or 14, characterized in that on the inner surface of the composite arrangement, an inner cover layer (3, 8, 102, 302) is applied.
    [16]
    16. Composite arrangement according to one of claims 1 to 15, characterized in that the first and the second material have different refractive indices.
    [17]
    17. Composite arrangement according to one of claims 1 to 16, characterized in that to obtain a multilayer composite arrangement (300), the structure of the composite arrangement comprises at least two layers (300a, 300b).
    [18]
    18. Composite arrangement according to claim 17, characterized in that intermediate layers (305) are arranged between the individual layers (300a, 300b).
    [19]
    19. Composite arrangement according to one of claims 13 to 15 or 18, characterized in that the cover layers and / or intermediate layers are constructed in multiple layers.
    [20]
    20. Composite arrangement according to claim 19, characterized in that optical elements and / or structure-enhancing elements are embedded in the cover layers and / or intermediate layers.
    [21]
    21. Composite arrangement according to claim 20, characterized in that in the intermediate layers laterally decoupling optical waveguides are integrated.
    [22]
    22. Composite arrangement according to one of claims 17 to 21, characterized in that the respective layers (300a, 300b) of the multilayer composite surface (300) are structured differently and / or contain different combinations of the first and second materials.
    [23]
    23. Composite arrangement according to one of claims 1 to 22, characterized in that the first and / or the second transparent material is foamed and / or provided with optical elements selected from the group consisting of scattering particles, dyes, effect pigments or a combination thereof.
    [24]
    24. Composite arrangement according to one of claims 1 to 2, characterized in that the structures have a dimension of 1-25 mm.
    [25]
    25. A planar light for a motor vehicle comprising at least one planar light component and a composite arrangement according to one of claims 1 to 24.
    [26]
    26. Flat luminaire according to claim 25, characterized in that the planar light component is an organic light-emitting diode (OLED), a light emitting diode (LED) array or a planar light guide.
    [27]
    27. Flat luminaire according to claim 26, characterized in that it comprises a light emitting diode (LED) array with a plurality of discrete luminous centers, wherein the luminous centers are centered or arranged eccentrically to the structural elements of the structured layer.
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    同族专利:
    公开号 | 公开日
    CN106183962A|2016-12-07|
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    法律状态:
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    申请号 | 申请日 | 专利标题
    ATA50424/2015A|AT517266B1|2015-05-27|2015-05-27|COMPOSITE ASSEMBLY FOR COVERING A FLAT LIGHT|ATA50424/2015A| AT517266B1|2015-05-27|2015-05-27|COMPOSITE ASSEMBLY FOR COVERING A FLAT LIGHT|
    EP16170553.8A| EP3098629B1|2015-05-27|2016-05-20|Composite assembly for covering a flat luminaire|
    CN201610359180.1A| CN106183962B|2015-05-27|2016-05-27|The composite component of illuminator for covering surface type|
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