Abstract: A head-up display system includes a display device, a liquid crystal cell and a driver circuit. The display device is configured to generate multiple images at a frame rate. Each image includes multiple image segments with an initial polarization. The liquid crystal cell includes multiple addressable segments. The addressable segments are aligned with the image segments. The addressable segments are individually controllable to selectively adjust the initial polarization of the image segments between two different polarizations. The driver circuit is in communication with the display device and the liquid crystal cell. The driver circuit is configured to control the addressable segments to pass each image segment that has visible content to a user with the initial polarization switched between the two different polarizations at a frequency greater than the frame rate of the images and attenuate sunlight incident on the display device at each image segment that has blank content.

Abstract: A head-up display (HUD) compatible with polarized sunglasses is disclosed. The HUD includes a thin-film transistor liquid crystal display (TFT-LCD), an active polarization modulator, and a wavelength filter. The active polarization modulator and the wavelength filter are optically bonded to the TFT-LCD. The active polarization modulator is configured to modulate a polarization from the TFT-LCD. The wavelength filter is configured to increase a sunlight resistance of the TFT-LCD.

Abstract: The present invention relates to a picture generation unit for a head-up display. The picture generation unit comprises an array of light-sources for emitting beams of light, the light sources being arranged in a matrix of Ly rows and Lx columns; an array of collimation lenses for receiving said emitted beams of light, the collimation lenses being arranged in a matrix of Ly rows and Lx columns; a micro lens array for receiving light from the collimation lenses and providing a focused light output, the micro lens array arranged in a matrix of Fy rows and Fx columns, wherein Fx>2·Lx and Fy>2·Ly; a field lens array for receiving said light from the micro lens array and providing a collimated light output, the field lens array arranged in a matrix of Lx rows and Ly columns; and an image generation unit for receiving said collimated light output.

Abstract: Disclosed herein are systems, methods, and devices for implementing a heads-up display (HUD) that is viewable in conditions where a viewer is wearing a p-polarized eyewear, eyewear polarized between s-polarized and p-polarized, or not. Thus, employing the aspects disclosed herein, a viewer may realize all the benefits of a HUD implementation (for example, one implemented via a vehicle), while realizing all the benefits of wearing polarized eyewear.

Abstract: A head-up display unit having a segmented cover includes a housing having an upper surface defining an aperture to an interior space and holding a combiner. The combiner is movable between a storage position within the housing and an operational position extending through the aperture. The segmented cover is movable between a closed position covering the aperture and an opened position uncovering the aperture. The segmented cover includes a plurality of flaps of rigid material, each having a generally rectangular elongated profile and arranged adjacent and parallel to one another. The segmented cover also includes a flexible connection between adjacent ones one of the flaps to allow the segmented cover to be rolled cylindrically into the opened position. The flexible connection includes flexible material overmolded on the flaps in one or more different configurations. A method of constructing the segmented cover for a head-up display unit is also provided.

Abstract: A system and method for canceling vibrations in a head-up display device displaying a projected image superimposed over a field of view of a driver of a vehicle includes a mounting plate fixed to the vehicle and supporting a combiner panel while allowing the combiner panel to be rotated about a rotation axis. An image source generates a signal corresponding to the projected image, which is then projected upon the combiner panel by a picture generating unit. A rotation sensor measures rotation of the combiner panel and causes a displacement compensation controller to shift the projected image to offset displacement caused by vibration which would otherwise cause the projected image to appear to move. In this way, unwanted movement of the projected image caused by vibration is effectively cancelled-out. Alternative arrangements of components of the system are disclosed.

Abstract: A system and method for canceling vibrations in a head-up display device displaying a projected image superimposed over a field of view of a driver of a vehicle includes a mounting plate fixed to the vehicle and supporting a combiner panel while allowing the combiner panel to be rotated about a rotation axis. An image source generates a signal corresponding to the projected image, which is then projected upon the combiner panel by a picture generating unit. A rotation sensor measures rotation of the combiner panel and causes a displacement compensation controller to shift the projected image to offset displacement caused by vibration which would otherwise cause the projected image to appear to move. In this way, unwanted movement of the projected image caused by vibration is effectively cancelled-out. Alternative arrangements of components of the system are disclosed. A method for vibration cancellation in a HUD device is also provided.

Abstract: A display device for a motor vehicle includes: a projection module fix generating an image for a projection in a direction of gaze of a user of the display device along an optical path; a reflection and/or display element; a support element for the reflection and/or display element; and a holding element, configured such that the reflection and/or display element is held, without deformation of the reflection and/or display element, between the support element and the holding element and in a fixed position relative to the support element.

Abstract: Disclosed herein are systems, methods, and devices for implementing a heads-up display (HUD) that is viewable in conditions where a viewer is wearing a p-polarized eyewear, eyewear polarized between s-polarized and p-polarized, or not. Thus, employing the aspects disclosed herein, a viewer may realize all the benefits of a HUD implementation (for example, one implemented via a vehicle), while realizing all the benefits of wearing polarized eyewear.

Abstract: A display device for a motor vehicle includes: a projection module fix generating an image for a projection in a direction of gaze of a user of the display device along an optical path; a reflection and/or display element; a support element for the reflection and/or display element; and a holding element, configured such that the reflection and/or display element is held, without deformation of the reflection and/or display element, between the support element and the holding element and in a fixed position relative to the support element.

Abstract: A head-up display includes at least three light sources, each one arranged to emit light with a basic color different from the basic color of the other light sources, a digital micro mirror device including an array of micro mirrors, wherein the light of the light sources is directed onto the digital micro mirror device, at least one combiner for displaying an image, and at least one control unit for multiplexing the light sources so as to sequentially emit light thus creating a field sequential color system and for controlling the digital micro mirror device so as to selectively rotate the micro mirrors between an on state, where the light from the light sources is reflected into an optical path towards the combiner, and an off state, where the light is reflected away from that optical path. A method for operating the head-up display is also disclosed.

Abstract: The present invention relates to a display, in particular Head-Up-Display of a vehicle, comprising an image forming unit for generating an image, an illumination means for illuminating the image forming unit and a deflecting unit for providing a user with a virtual image of the image generated by the image forming unit, wherein the image forming unit comprises a reflective LCoS—(Liquid Crystal on Silicon) display and the deflecting unit comprises a partially transmissive combiner.

Abstract: An optical element, notably an optical element for creating a retractable sheet for use in a motor vehicle, has in the final state a three-dimensional shape resulting from forming of the optical element, the optical element being designed to have an extended shape comprising: a first main surface, a second main surface, and an edge surface. A method of manufacturing involves during a first step of the method, forming the optical element to give its final three-dimensional shape in terms of the first main surface, the second main surface and the edge surface. During a second step at least one of the surfaces of the optical element is cleaned. During a third step, a functional coating is applied to the first main surface and/or the second main surface.

Abstract: A head-up display has a screen, a cover for the screen, and a gear mechanism for simultaneously pivoting the screen and the cover around a pivot axis between a first end position and a second end position and concurrently shifting the cover relatively to the screen in such a way that the cover uncovers the screen in the first end position and completely covers the screen in the second end position.

Abstract: A display device, in particular for a motor vehicle, includes a projection module and a reflection element, the reflection element being designed to at least partially reflect an image from the projection module in a normal direction of vision of a user of the display device. The display module is a monochrome display module. The display device has a display area of a display module. The display area comprises a first part of the display area, the display area comprises a second part of the display area, and the display device has at least one light source. The display device is designed to display a first symbol in the first part of the display area and a second symbol in the second part of the display area.

Abstract: A combiner element for a head up display (HUD) system includes: a glass pane, a further glass pane, and a safety foil, the glass pane having a first main plane of extension, a first main surface and a second main surface, the second main surface being positioned opposite of the first main surface of the glass pane, the further glass pane having a second main plane of extension, a third main surface and a fourth main surface, the fourth main surface being positioned opposite of the third main surface of the further glass pane, and the safety foil being positioned between the first main plane of extension and the second main plane of extension such that the safety foil is positioned on the second main surface of the glass pane and on the third main surface of the further glass pane.

Abstract: A head-up display includes at least three light sources, each one arranged to emit light with a basic color different from the basic color of the other light sources, a digital micro mirror device including an array of micro mirrors, wherein the light of the light sources is directed onto the digital micro minor device, at least one combiner for displaying an image, and at least one control unit for multiplexing the light sources so as to sequentially emit light thus creating a field sequential color system and for controlling the digital micro mirror device so as to selectively rotate the micro mirrors between an on state, where the light from the light sources is reflected into an optical path towards the combiner, and an off state, where the light is reflected away from that optical path. A method for operating the head-up display is also disclosed.

Abstract: A display device, in particular for a motor vehicle, includes a projection module and a reflection element, the reflection element being designed to at least partially reflect an image from the projection module in a normal direction of vision of a user of the display device. The display module is a monochrome display module. The display device has a display area of a display module. The display area comprises a first part of the display area, the display area comprises a second part of the display area, and the display device has at least one light source. The display device is designed to display a first symbol in the first part of the display area and a second symbol in the second part of the display area.

Abstract: An optical element, notably an optical element for creating a retractable sheet for use in a motor vehicle, has in the final state a three-dimensional shape resulting from forming of the optical element, the optical element being designed to have an extended shape comprising: a first main surface, a second main surface, and an edge surface. A method of manufacturing involves during a first step of the method, forming the optical element to give its final three-dimensional shape in terms of the first main surface, the second main surface and the edge surface. During a second step at least one of the surfaces of the optical element is cleaned. During a third step, a functional coating is applied to the first main surface and/or the second main surface.

Abstract: A head-up display has a screen, a cover for the screen, and a gear mechanism for simultaneously pivoting the screen and the cover around a pivot axis between a first end position and a second end position and concurrently shifting the cover relatively to the screen in such a way that the cover uncovers the screen in the first end position and completely covers the screen in the second end position.