Abstract: A multi-view display is arranged to display views directed to respective viewing zones, comprising pluralities of imaging units and color filters, each of said color filters is associated with one of said imaging units, the color filters being arranged according to a first pitch and in a first sequence of colors, and a barrier including a plurality of color portions comprising color filter material, the color portions being arranged according to a second pitch that is substantially equal to twice the first pitch and in a second sequence of colors that corresponds to the first sequence of colors when reversed in order, the barrier is positioned so that light exits the display panel after passing through one color portion and one color filter and the color portions of the barrier are configured to cooperate with the color filters to selectively direct said light to the first and second viewing zones.

Abstract: The present invention relates to a light emitting device (1) comprising a light emitter (10) and a support (13) to which a plurality of protruding fibers (11) are attached. The light emitter (10) and the protruding fibers (11) are arranged to interact with light emitted from the light emitter (10) so that the light may be diffused. The plurality of protruding fibers comprises fibers (11) which are inclined or perpendicular in relation to the support (13).

Abstract: A display comprises a display panel, a polarizer, a polarization rotator, and a scatterer arranged to scatter light having a first polarization as compared with a second polarization. The display can be switched between 2D and 3D modes by operating the polarization rotator. In 3D mode, the polarization rotator transmits light with relatively little change to its polarization. Light transmitted by the scatterer is used to present three-dimensional images. In 2D mode, the polarization rotator alters the polarization of the light, and light that is scattered by the scatterer is used to present a two-dimensional image. The polarization rotator may be arranged so that light incident on a first area thereof undergoes a different change in polarization to light incident on a second area, to simultaneously present 2D and 3D images.

Abstract: A multi-view display (49) is arranged to provide large viewing zones (23, 24) while producing little or no cross-talk. The display may include a barrier (20) comprising a plurality of color portions (20a, 20b, 20c) that co-operate with color filters (19a-19f) in a display panel (14) to selectively direct light to the viewing zones (23, 24). A lenticular screen (30) may be arranged to create or image light lines onto imaging units (32a, 32f) of the display panel (14) that are spaced from one another, so that adjacent units (32a, 32f) are illuminated by light from different lenses (30a, 30b, 30c), directed towards different viewing zones (23, 24). A light source (35) may generate the light at positions aligned with boundaries between adjacent lenses (30a, 30b, 30c).

Abstract: The invention relates to an illumination system (4) comprising at least one light source (10) for emitting light of a predominant wavelength (W), and a light-transmitting panel (14) which comprises a light-emitting window (16), a rear wall (18) situated opposite said light-emitting window, and edge walls (20) extending between the light-emitting window and the rear wall. Light from the LED is coupled into the light-transmitting panel and is transported substantially via total internal reflection. The rear wall is provided with a two-dimensional array of recesses (22, 24). A sub-set of recesses (22) is distributed substantially regularly on the rear wall. Each recess (22A, 22B, 22C) from the sub-set (22) comprises scattering material (26). When light from the light-transmitting panel reaches the scattering material of the recess, part of the light (W?) is coupled out of the light-transmitting panel via scattering.

Abstract: A display device (200) configured to provide two-dimensional and three dimensional perception. The device comprises a display panel (230), a backlight arrangement (201) and control circuitry (232). The backlight arrangement comprises a first layer (210) in the form of an optically clear lightguide, a birefringent second layer (202) and a third layer (204). At least one interfacing surface between any two of the layers comprises a microstructure (206) in the form of a plurality of essentially parallel structures extending in a direction of extension (x) of the structures. The device further comprises first (218) and second (219) light sources that are configured to emit light into the lightguide in a first (z) and a second direction (-z), respectively. The first and second directions are essentially opposing directions and the first and second directions are essentially perpendicular to the direction of extension of the microstructure.

Abstract: A display comprises a display panel, a polariser, a polarisation rotator, and a scatterer arranged to scatter light having a first polarisation as compared with a second polarisation. The display can be switched between 2D and 3D modes by operating the polarisation rotator. In 3D mode, the polarisation rotator transmits light with relatively little change to its polarisation. Light transmitted by the scatterer is used to present three-dimensional images. In 2D mode, the polarisation rotator alters the polarisation of the light, and light that is scattered by the scatterer is used to present a two-dimensional image. The polarisation rotator may be arranged so that light incident on a first area thereof undergoes a different change in polarisation to light incident on a second area, to simultaneously present 2D and 3D images.

Abstract: A multi-view display (49) is arranged to provide large viewing zones (23, 24) while producing little or no cross-talk. The display may include a barrier (20) comprising a plurality of colour portions (20a, 20b, 20c) that co-operate with colour filters (19a-19f) in a display panel (14) to selectively direct light to the viewing zones (23, 24). A lenticular screen (30) may be arranged to create or image light lines onto imaging units (32a, 32f) of the display panel (14) that are spaced from one another, so that adjacent units (32a, 32f) are illuminated by light from different lenses (30a, 30b, 30c), directed towards different viewing zones (23, 24). A light source (35) may generate the light at positions aligned with boundaries between adjacent lenses (30a, 30b, 30c).

Abstract: The invention provides a mirror unit having a mirror unit front with a mirror surface and having a lighting unit comprising a plurality of light sources and a lenticular lens array. The light sources and the lenticular lens array are arranged to provide mirror unit light in a space in front of the mirror unit front.

Abstract: A multi view display (49) is arranged to provide large viewing zones (23, 24) while producing little or no cross-talk The display may include a barrier (20) comprising a plurality of color portions (20a, 20b, 20c) that co-operate with color filters (19a-19f) in a display panel (14) to selectively direct light to the viewing zones (23, 24) A lenticular screen (30) may be arranged to create or image light lines onto imaging units (32a, 32f) of the display panel (14) that are spaced from one another, so that adjacent units (32a, 32f) are illuminated by light from different lenses (30a, 30b, 30c), directed towards different viewing zones (23, 24) A light source (35) may generate the light at positions aligned with boundaries between adjacent lenses (30a, 30b, 30c) The imaging units may be operated so that units (32a, 32b) displaying information for the first viewing zone (23) are separated from units (32d, 32e) displaying information for the second viewing zone (24) by units (32c, 32f) not used to display informa

Abstract: A display (8) comprises a display panel (9), a polariser (10), a polarisation rotator (13), and a scatterer (12) arranged to scatter light having a first polarisation as compared with light having a second polarisation. The display (8) can be switched between 2D and 3D modes by operating the polarisation rotator (13) accordingly. In 3D mode, the polarisation rotator (13) transmits light with relatively little or no change to its polarisation. Light transmitted by the scatterer (12) is then used to present a three-dimensional image (50). In 2D mode, the polarisation rotator (13) alters the polarisation of the light and light that is scattered by the scatterer (12) is used to present a two-dimensional image (51). The polarisation rotator (13) maybe arranged so that light incident on a first area thereof undergoes a different change in polarisation to light incident on a second area, in order to allow simultaneous presentation of 2D and 3D images (51, 50).

Abstract: The present invention relates to a device for mixing light. More specifically, the invention relates to a device for mixing light 100 comprising at least two light sources wherein a first light source 101 emit light of a first wavelength and a second light source 102 emit light of a second wavelength, and further comprising at least one light guide 103 which has a diffraction grating 104 for outcoupling of light and a facet for each of the at least two light sources for incoupling of light, whereby a first facet 105 is adapted to couple light of the first wavelength into the at least one light guide 103, and a second facet 106 is adapted to couple light of the second wavelength into the at least one light guide 103.

Abstract: The present invention relates to a light emitting device (1) comprising a light emitter (10) and a support (13) to which a plurality of protruding fibers (11) are attached. The light emitter (10) and the protruding fibers (11) are arranged to interact with light emitted from the light emitter (10) so that the light may be diffused. The plurality of protruding fibers comprises fibers (11) which are inclined or perpendicular in relation to the support (13).

Abstract: The invention relates to an illumination system (4) comprising at least one light source (10) for emitting light of a predominant wavelength (W), and a light-transmitting panel (14) which comprises a light-emitting window (16), a rear wall (18) situated opposite said light-emitting window, and edge walls (20) extending between the light-emitting window and the rear wall. Light from the LED is coupled into the light-transmitting panel and is transported substantially via total internal reflection. The rear wall is provided with a two-dimensional array of recesses (22, 24). A sub-set of recesses (22) is distributed substantially regularly on the rear wall. Each recess (22A, 22B, 22C) from the sub-set (22) comprises scattering material (26). When light from the light-transmitting panel reaches the scattering material of the recess, part of the light (W?) is coupled out of the light-transmitting panel via scattering.

Abstract: A backlight (5) for a 3D display device, the backlight (5) comprising a planar light guide (7) through which light is guided transversely by internal reflection. The light guide (7) is provided with a plurality of grooves (8), which are configured to direct light propagating within the light guide (7), out of a face (7f) of the light guide (7) so as to form a plurality of line light sources.

Abstract: A light-emitting device (100), comprising a plurality of light emitting diodes (107) arranged spaced apart from each other on a substrate (108), is provided. The device further comprises a light guide plate (101) having a front surface (102) and an opposing back surface (103) that is provided with an array of protrusions (104) extending towards said substrate. The light guide plate is arranged such that light-emitting diodes emits light towards light receiving faces (105) of the protrusions (104). Further, collimators (110) are arranged between the light emitting diodes and the light receiving faces, to collimate the light before it enters the light guide plate. The light from the plurality of LEDs will be transmitted in to the light guide plate and will be distributed therein before exiting the light guide plate via the front side thereof. Thus, the present invention provides a light-emitting device that provides well-distributed and collimated light from a plurality of point light sources.

Abstract: The invention relates to an illumination system (4) comprising at least one light source (10) for emitting light of a predominant wavelength (W), and a light-transmitting panel (14) which comprises a light-emitting window (16), a rear wall (18) situated opposite said light-emitting window, and edge walls (20) extending between the light-emitting window and the rear wall. Light from the LED is coupled into the light-transmitting panel and is transported substantially via total internal reflection. The rear wall is provided with a two-dimensional array of recesses (22, 24). A sub-set of recesses (22) is distributed substantially regularly on the rear wall. Each recess (22A, 22B, 22C) from the sub-set (22) comprises scattering material (26). When light from the light-transmitting panel reaches the scattering material of the recess, part of the light (W?) is coupled out of the light-transmitting panel via scattering.

Abstract: The invention relates to an illumination device (10) for illuminating a surface (101), with at least one lighting element (20) and an illuminating body (30), wherein the lighting element (20) emits an artificial light (21,21), a housing element (40) comprises the lighting element (20) and supports the illuminating body (30), the illuminating body (30) comprises a transparent light conductive material suitable to illuminate the surface (101) lying subjacent. The invention discloses, that the illuminating body (30) comprises a surface pattern (80), forming a Fresnel-type lens to optically magnify the surface (101).

Abstract: A display device (200) configured to provide two-dimensional and three dimensional perception. The device comprises a display panel (230), a backlight arrangement (201) and control circuitry (232). The backlight arrangement comprises a first layer (210) in the form of an optically clear lightguide, a birefringent second layer (202) and a third layer (204). At least one interfacing surface between any two of the layers comprises a microstructure (206) in the form of a plurality of essentially parallel structures extending in a direction of extension (x) of the structures. The device further comprises first (218) and second (219) light sources that are configured to emit light into the lightguide in a first (z) and a second direction (-z), respectively. The first and second directions are essentially opposing directions and the first and second directions are essentially perpendicular to the direction of extension of the microstructure.

Abstract: A flexible display device comprises a top, user-deformable layer, a bottom substrate layer, a spacing element spacing the top layer from the bottom layer, and a light source for supplying light to at least one of the bottom layer or the top layer, the display device emitting light when the top layer is deformed towards the bottom layer. The display device also includes a voltage source for applying a potential difference across a first electrode on the top user-deformable layer and a second electrode on the bottom substrate layer.