Abstract: According to one implementation, an image display system includes a computing platform having a hardware processor and a system memory storing a software code, a display coupled to the computing platform, and a visual filter and at least partially surrounding the display and having an opaque mode and a transparent mode. The hardware processor executes the software code to set the visual filter to the opaque mode to obscure the display. The hardware processor also executes the software code to generate a visual image using the display, to obtain an operating parameter of the image display system corresponding to a status of the display, and to detect that the operating parameter meets a predetermined criterion. In response to detecting that the operating parameter meets the predetermined criterion, the hardware processor further executes the software code to set the visual filter to the transparent mode to make the display visible.

Abstract: Apparatuses and methods for improving the accuracy of an analyte sensor are disclosed. The sensor may include a photodetector and a low angle sensitive (LAS) optical filter. The photodetector may be configured to convert received light into current indicative of the intensity of the received light. The LAS optical filter may be configured to prevent light having a wavelength outside a band pass region from reaching the photodetector and to pass light having a wavelength within the band pass region to the photodetector. The percentage of light passing through the LAS optical filter may decrease as the angle of incidence of the light increases.

Abstract: A projection apparatus that projects a projection image includes a first panel, a second panel, a projection optical system that projects light that has passed through the first panel and the second panel, an information acquisition unit that acquires light reduction information of a region which is a part of the projection image and overlaps with an image projected by another projection apparatus, and a panel control unit that controls the first panel based on data of the projection image and controls the second panel based on the light reduction information.

Abstract: A projection system is provided, including: a projection unit to output a projection image; a retardation plate arranged obliquely with respect to an optical axis of the projection image, the retardation plate to modulate a polarization state of the projection image incident thereon; a reflective polarizing plate stacked on a side of the retardation plate opposite to that on which the projection image is incident, the reflective polarizing plate to reflect a first polarization component of the projection image transmitted through the retardation plate; and a retro-reflective element provided along a direction in which the projection image is reflected by the reflective polarizing plate, the retro-reflective element to output reflected light against a direction in which the light is incident, wherein the reflective polarizing plate transmits a second polarization component of the projection image reflected by the retro-reflective element and modulated by the retardation plate.

Abstract: A projector that projects an image includes a communication section that sends a projection request command that requests another projector connected to the projector to project a test image, an imaging section that captures an image of the test image projected in response to the projection request command by the another projector, and a layout recognition section that recognizes a relative layout relationship between the projector and the another projector based on the image captured by the imaging section.

Abstract: An energy optimized imaging system that includes a light source that has the ability to illuminate specific pixels in a scene, and a sensor that has the ability to capture light with specific pixels of its sensor matrix, temporally synchronized such that the sensor captures light only when the light source is illuminating pixels in the scene.

Abstract: Laser or narrow band light sources (e.g., red, green, and blue) are utilized to form left (e.g., R1, G1, B1) and right (e.g., R2, G2, B2) images of a 3D projection. Off-axis viewing of the projections which has the potential to cause crosstalk and/or loss of energy/brightness in any channel or color, is eliminated (or reduced to only highly oblique viewing angles) via the combined use of any of guard bands between light bands of adjacent channels, curvature of viewing filters, and selection of passband wavelengths that maximize usability of the passband as it “shifts” due to varying or increasing angles of off-axis viewing. Implemented with any number of light sources, the light sources selected may also be converted to showing 2D images where the additional light sources are utilized to affect a desirable increase in color gamut.

Abstract: A display subsystem for a virtual image generation system comprises a planar waveguide apparatus, an optical fiber, at least one light source configured for emitting light from a distal end of the optical fiber, and a mechanical drive assembly to which the optical fiber is mounted as a fixed-free flexible cantilever. The drive assembly is configured for displacing a distal end of the optical fiber about a fulcrum in accordance with a scan pattern, such that the emitted light diverges from a longitudinal axis coincident with the fulcrum. The display subsystem further comprises an optical modulation apparatus configured for converging the light from the optical fiber towards the longitudinal axis, and an optical waveguide input apparatus configured for directing the light from the optical modulation apparatus down the planar waveguide apparatus, such that the planar waveguide apparatus displays one or more image frames to an end user.

Abstract: Systems, devices, and methods for eyebox expansion by exit pupil replication in wearable heads-up displays (“WHUDs”) are described. A WHUD includes a scanning laser projector (“SLP”), a holographic combiner, and an exit pupil selector positioned in the optical path therebetween. The exit pupil selector is controllably switchable into and between N different configurations. In each of the N configurations, the exit pupil selector receives a light signal from the SLP and redirects the light signal towards the holographic combiner effectively from a respective one of N virtual positions for the SLP. The holographic combiner converges the light signal to a particular one of N exit pupils at the eye of the user based on the particular virtual position from which the light signal is made to effectively originate. In this way, multiple instances of the exit pupil are distributed over the eye and the eyebox of the WHUD is expanded.

Abstract: A retroreflecting display that enables the formation of a real image in free space includes a first light source that generates a first light output; a first beam splitter module; and a retroreflector module opposite the first light source.

Abstract: A multi-player gaming system includes a reflective display assembly that presents multiple views of a 3D game object as seen from different viewpoints. The reflective display assembly includes a plurality of reflectors the each reflect an image of the 3D game object toward a respective position disposed around the gaming system.

Abstract: A light emitting module includes a lens and first and second light sources aligning with the lens. The lens includes a first biconcave section having a first light-entrance concave surface and a first light-exit concave surface, a second biconcave section having a second light-entrance concave surface and a second light-exit concave surface, and a shared section having a light-exit shared surface. A tangent slope of the shared section where the light-exit shared surface is connected to the first light-exit concave surface is less than a tangent slope of the first biconcave section where the first light-exit concave surface is connected to the light-exit shared surface. A tangent slope of the shared section where the light-exit shared surface is connected to the second light-exit concave surface is larger than a tangent slope of the second biconcave section where the second light-exit concave surface is connected to the light-exit shared surface.

Abstract: A superstereoscopic image retroreflecting display that enables the formation of a real image in free space includes a first light source that generates a first light output; a lenticular lens optically coupled to the first light source that, with the first light source, generates a first light output having viewing angle dependency; a first beam splitter module; and a retroreflector module opposite the first light source.

Abstract: An autostereoscopic display screen includes a light-deflecting component and a double-sided lenticular lens. The light-deflecting component is configured to deflect the light beam towards a plurality of directions. The double-sided lenticular includes a first cylindrical lens array, a second cylindrical lens array, and a central portion. The first cylindrical lens array faces towards light-deflecting component. The first cylindrical lens array includes first cylindrical lenses, and each of the first cylindrical lenses has a first length A in a first axial direction. The second cylindrical lens array faces away from the light-deflecting component. The second cylindrical lens array includes second cylindrical lenses, and each of the second cylindrical lenses has a second length B in the first axial direction. The first length A is greater than the second length B. The central portion is disposed between the first cylindrical lens array and the second cylindrical lens array.

Abstract: Method of using a device for displaying a real image of the head-up display (HUD) type in a passenger compartment comprising glazing, notably laminated glazing, said device comprising a source emitting a beam of radiation of the visible UV or IR laser type or of the light-emitting diode type, directed towards a portion of said glazing comprising a fluorescent material absorbing said radiation and re-emitting light in the visible region, the illumination of said portion by the beam enabling a real image to be displayed on the glazing.

Abstract: Disclosed herein is a method of representing the visible area of a theater. The method may include generating a value of an angle at which a specific spot is seen from a reference spot within the theater and representing the visible area of the theater based on the value of the angle.

Abstract: Three-dimensional (3D) displays and methods for controlling the displays are disclosed. A display may include an n-layered 3D column, wherein each i-th layer of the n-layered 3D column includes a group of at least one illuminable element uniquely positioned within the n-layered 3D column. The display may also include a 2D macro-pixel configured to control a depth of illumination within the n-layered 3D column. The macro-pixel may include n-number of control groups, and each i-th control group of the n-number of control groups may include at least one individual pixel uniquely positioned to selectively provide at least one directional beam toward the group of at least one illuminable element positioned in the i-th layer of the n-layered 3D column, thereby allowing the macro-pixel to control the depth of illumination within the n-layered 3D column by selectively engaging at least one of the n-number of control groups of the macro-pixel.

Abstract: A projector includes a lamp that emits projection light to project 3D picture, in which a right eye image and a left eye image are represented in a time division manner, to an object, a synchronization signal transmission section which transmits shutter synchronization signal to glasses having a right eye shutter and a left eye shutter to control the opened state or the closed state of the right eye shutter and the left eye shutter, based on the signal indicating a displaying period of the right eye image and the left eye image of 3D picture, and a lamp drive section that supplies AC current having peak overlapping with a period when the right eye shutter of the glasses is in the opened state and peak overlapping with a period when the left eye shutter of the glasses is in the opened state to the lamp, based on the signal.

Abstract: A display apparatus includes a screen formed in an arcuate shape centering on a center axis and a projection device configured to project, along projecting directions orthogonal to the center axis and different from one another, images corresponding to the projecting directions on the inner circumferential surface or the outer circumferential surface of the screen. The screen includes a retroreflective layer having a reflection surface directed to the projection device and a diffusion layer arranged on the projection device side with respect to the retroreflective layer and configured to diffuse, when transmitting light made incident from the retroreflective layer, the light wider in a first direction along the center axis than in a second direction, which is a circumferential direction centering on the center axis.

Abstract: An image processing device includes: a terminal that receives an image signal for a display for displaying images in directions, the display including pixels having sub-pixels and a parallax optical element for directing light from each sub-pixel in a direction predetermined for each sub-pixel, the signal including a grayscale value of each sub-pixel; a memory that stores information indicating a defective sub-pixel displayed in a direction due to a defect of the parallax optical element; and a corrector that determines, using the grayscale value of a sub-pixel whose predetermined direction is another direction different from the predetermined direction of the defective sub-pixel, a grayscale value of the defective sub-pixel for the image displayed in the other direction, and outputs a corrected image signal including, as a grayscale value of the defective sub-pixel, the smaller of the grayscale value of the defective sub-pixel in the image signal and the determined value.

Abstract: An apparatus for displaying and/or capturing auto-multiscopic 3D images includes a concave mirror array; a parallax barrier with an inner wall, an opaque outer wall and an array of first transparent spots or lines extending through the parallax barrier; and a membrane between the opaque outer wall and the concave mirror array. The membrane is capable of displaying an intrinsic image when illuminated, sensing an image projected onto it, displaying an image projected onto it, and/or emitting light. The membrane includes a second transparent spot or line atop each first transparent spot or line respectively. A light source may illuminate the membrane and/or project an image onto the membrane. The reflective concave surface also may be configured to permit some light to pass through it and when so configured a second transparent solid and/or an image sensor may be placed behind the concave mirror array.

Abstract: Systems and methods are disclosed for generating stereoscopic images for a user based on one or more images captured by one or more scene-facing cameras or detectors and the position of the user's eyes or other parts relative to a component of the system as determined from one or more images captured by one or more user-facing detectors. The image captured by the scene-facing detector is modified based on the user's eye or other position. The resulting image represents the scene as seen from the perspective of the eye of the user. The resulting image may be further modified by augmenting the image with additional images, graphics, or other data. Stereoscopic mechanisms may also be adjusted or configured based on the location or the user's eyes or other parts.

Abstract: A spatial image projection apparatus including a receiver configured to receive an image signal; a display unit configured to display an image acquired by processing the image signal; a projection unit configured to project a spatial image to a prescribed space by reflecting light corresponding to the image displayed on the display unit. Further, the projection unit includes a plate having a first surface facing the display unit and a second surface opposite to the first surface; and a protrusion arranged on the first surface or the second surface of the plate. In addition, the protrusion includes first and second slopes tilted at about 45 degrees relative to the surface of the plate, and an angle between the first and second slopes is about 90 degrees.

Abstract: Eye-glasses for viewing stereoscopic images or a perspective sub-image of a stereoscopic image, comprising at least one interference filter that has at least one photosensitive polymer film and at least two separated filter regions, said filter regions being superimposed along at least one normal line that stands vertically on a first outer surface of the interference filter, between a first point at which the normal line pierces the first outer surface and a second point at which the normal line pierces a second outer surface of the interference filter after having passed through said interference filter proceeding from the first point, and said filter regions being, along said normal line, at least substantially impermeable to a respective predetermined wavelength interval of the electromagnetic spectrum.

Abstract: In one embodiment, a method includes displaying a test pattern on a display device associated with a client device, the test pattern comprising a stereoscopic image having first and second images and depth characteristics associated with an offset between the first and second images; adjusting the offset between the first and second images in response to inputs received from a user of the client device viewing said stereoscopic image from at least one viewing position; and storing the adjusted offset in a storage device.

Abstract: A projector includes a lens shift mechanism that is capable of lens shift of shifting the lens in an upward/downward direction or a leftward/rightward direction, a distortion correction information input section that allows input of distortion correction information used to correct distortion of projected image light projected on a projection surface, a shift correction information input section that allows input of shift correction information relating to the lens shift, and an image generation section that generates the image based on the distortion correction information. The shift correction information input section has an input menu image. The input menu image contains choices for inputting the shift correction information. The choices include a maximum amount of lens shift of the lens in at least one of the upward/downward direction and the leftward/rightward direction. The image generation section generates the image based on the distortion correction information and the shift correction information.

Abstract: A transmission type head mounted display device includes an image display unit including an image-light generating unit configured to generate image light on the basis of image data and emit the image light, the image display unit causing a user to visually recognize the image light as a virtual image and transmitting an outside scene in a state in which the image display unit is worn on the head of the user, and a control unit configured to set, as the image light that the control unit causes the user to visually recognize using the image display unit, specific image light generated on the basis of set specific image data and changing according to elapse of time.

Abstract: Provided is a display apparatus including: a first display unit including a first screen on which a first image is imaged and that is capable of displaying the first image in a first direction and a first optical member capable of reflecting and displaying the first image in at least one second direction crossing the first direction; a second display unit that includes a second screen on which a second image is imaged and that is capable of displaying the second image in the second direction; and a light source configured to project first image light forming the first image onto the first screen and project second image light forming the second image onto the second screen.

Abstract: A system and method for a display device is provided. An image display that displays at least one image of at least one of a product and person is coupled to a support structure, and at least one shelf may be operatively coupled to the support structure. Further, at least one database stores a plurality of queries and replies to the queries, and at least one processor is provided that is operatively coupled to the database. The processor(s) programmed and configured to receive from the database at least one reply to a first query. The processor is further configured to transmit at least one instruction to the display for rendering a plurality of images of the person, wherein the rendered images of the person include providing the at least one reply to the first query.

Abstract: An autostereoscopic multi-view image display apparatus includes an image panel including pixels arranged in rows and columns, a backlight unit configured to provide light to the image panel, and a viewing zone separator disposed in front of the image panel and configured to provide different viewpoints according to viewing zones. A processor is configured to control multi-view images included into one image frame to be divided into two groups, and to control two sub-frames including multi-view images included in the divided groups to be sequentially displayed. The lights of different directions are provided to the image panel at points of time when the two sub-frames are displayed, respectively.

Abstract: Examples disclosed herein relate to systems and methods for delivering game play, which may include providing wagering game options that may include a two-dimensional option, a three-dimensional option, and/or a combination of both.

Abstract: A display device includes: an image display means for displaying left-eye images and right-eye images alternately; a light-shielding means for generating an effect of binocular parallax in images displayed by the image display means; and a detection means for detecting a position of an observer, wherein the light-shielding means includes an image transmitting portion through which images of the image display means are transmitted and an image non-transmitting portion through which images are not transmitted, which moves a position of the image transmitting portion by ½, ¼ or ? of a light-shielding portion pitch prescribed by an arrangement interval of the image transmitting portion based on a detected result of the detection means.

Abstract: An illumination system includes an optical switch component, a wavelength conversion element, a first light splitter and a light combining element. The optical switch component switches between a first state and a second state. The illumination system generates first and second waveband lights on the first and second states respectively. The first light splitter reflects a first light generated by a first light source to the wavelength conversion element to generate a second light. The composite light splitter includes a second light splitter to transmit a third light generated by a second light source to the optical switch component. In the first state, the optical switch component reflects the second light to the second light splitter to generate the first waveband light. On the second state, the second light and the third light penetrate the optical switch component to a reflection component to generate the second waveband light.

Abstract: An autostereoscopic display device includes a projector module, a screen, and a window. The projector module includes a first projector and a second projector. The first projector is used for providing a first image unit with a first polarization, and the second projector is used for providing a second image unit with a second polarization. The screen is used for reflecting the first image unit and the second image unit. The screen is disposed at the same side of the projector module and the window, and a projective location of the projector module on the window is at an edge of the window. The window includes a divided visual-field area and a liquid-crystal silt layer. The liquid-crystal silt layer is used for allowing a portion of the first image unit and a portion of the second image unit passing through the divided visual-field area to pass therethrough.

Abstract: An illumination system including at least one laser light source, a wavelength conversion device, and a two-dimensional (2D) anisotropic diffusion sheet is provided. The laser light source emits a laser beam, and the wavelength conversion device is located on a transmission path of the laser beam. The 2D anisotropic diffusion sheet is located on the transmission path of the laser beam and between the laser light source and the wavelength conversion device. Besides, the 2D anisotropic diffusion sheet allows the laser beam to have an increasing degree of a divergent angle in a first direction greater than an increasing degree of a divergent angle in a second direction. The first direction is substantially parallel to a slow axis of the laser beam. A projection apparatus is also provided.

Abstract: A sensitivity acquisition section that acquires sensitivity to light incident through the first region of pixels in a pupil division direction of the first pixel group, and acquires sensitivity to light incident through the second region of pixels in the pupil division direction of the second pixel group; a correction section that derives linearly approximated sensitivity correction coefficients for each of the first image and the second image based on the sensitivities, and corrects the brightness of the first and second images based on the derived sensitivity correction coefficients; and a generation section that generates a first display image based on an image signal output from the image pick-up device, and generates a second display image for use in focus verification based on the first and second images corrected by the correction section.

Abstract: A light source device includes an excitation light source that generates excitation light, a phosphor wheel including a phosphor segment that generates fluorescent light by excitation of the excitation light, and a mirror that guides the excitation light from the excitation light source to the phosphor wheel and emits the fluorescent light from the phosphor wheel as illumination light. The phosphor wheel further includes an anisotropic diffusion and reflection unit that diffuses and reflects incident excitation light such that an optical path for the incident excitation light and an optical path for the diffused excitation light after incidence of the excitation light are not overlapped. The mirror includes a first region that reflects the excitation light and transmits the fluorescent light and a second region that transmits the fluorescent light and the diffused excitation light which the anisotropic diffusion and reflection unit has diffused and reflected.

Abstract: A shelving system and method are disclosed. The shelving system includes: a plurality of shelves; at least one display screen; at least one camera, for optically detecting the contents of each one of the shelves; and at least one computing device in communication with the display screen and the at least one camera for presenting sales and promotional information on the display screen in dependence on the contents of the compartments as sensed by the sensors.

Abstract: A transmission type head mounted display device includes an image display unit including an image-light generating unit configured to generate image light on the basis of image data and emit the image light, the image display unit causing a user to visually recognize the image light as a virtual image and transmitting an outside scene in a state in which the image display unit is worn on the head of the user, and a control unit configured to set, as the image light that the control unit causes the user to visually recognize using the image display unit, specific image light generated on the basis of set specific image data and changing according to elapse of time.

Abstract: The display apparatus comprises a display screen and a plurality of projectors. Each of the projectors comprises at least a light source module, a spatial light modulator and a lens. The first view angle image and second view angle image emitted from each projector are guided to a first sub-viewing zone and a second sub-viewing zone via a first light beam and second light beam, respectively. The sub-viewing zones imaged by each projector are adjacent to each other along a transverse axis sequentially.

Abstract: A pixel matrix located on a liquid crystal display (LCD) that includes a plurality of first pixels having a first polarization; a plurality of second pixels having a second polarization; and a plurality of electrodes configured to activate the first pixels followed by the second pixels, the activating at twice a frame rate of the LCD.

Abstract: Creating a three dimensional (3D) image on a liquid crystal display (LCD) including providing a light source, a pixel matrix, and a plurality of electrodes for applying a voltage to the pixel matrix. The pixel matrix includes a plurality of first pixels having a first polarization and a plurality of second pixels having a second polarization. A first light is emitted from the light source, and first voltage is applied to at least one of the plurality of first pixels. A second light is emitted from the second light source and a second voltage is applied to at least one of the plurality of second pixels.

Abstract: A projector system includes an imaging device operable to direct light to a reflective screen, and an active light steering element placed in the light path between the imaging device and the screen. The steering element is operable to sequentially scan the light across the screen. The steering element may be used to temporally multiplex images at different viewpoints. The steering element enables trade-offs to be made between spatial, temporal, color and/or viewpoint resolutions of the images displayed by the imaging device.

Abstract: The present invention provides a light source apparatus (10) for use with a projector (80) and a method for combining laser beams of different polarization characterized in that an overall efficiency for the reflection and transmission exceeding 97% is achieved. A first white laser light beam (18) having a first polarization is combined with a second white laser light beam (28) having a second polarization that is orthogonal to the first polarization by utilizing a multi narrow-band polarizing beam splitter (20) positioned to receive the first and the second white laser light beams (18, 28). Embodiments of the present invention utilize two laser light sources (12, 22) emitting two sets of laser light beams with multiple wavelengths (14, 15, 16 and 24, 25, 26).

Abstract: An image display device includes a display panel displaying an image, and a diffractive element formed to operate in a 2D mode or a 3D mode so that the image of the display panel is perceived as a 2D image or a 3D image after passing through the diffractive element. In the image display device, the diffractive element includes a first substrate and a second substrate facing each other, a first electrode layer formed on the first substrate that includes a plurality of zones, a second electrode layer formed on the second substrate, and a liquid crystal layer interposed between the first substrate and the second substrate. Further, when the diffractive element operates in the 3D mode, a common voltage is applied to the second electrode layer, and polarity of voltages applied to the first electrode layer with respect to the common voltage is inverted every zone.

Abstract: A projection system performs projection on a projection surface using a plurality of projectors including a first projector and a second projector. The projection system projects, using the first projector, a first guide in a position a predetermined amount of a margin spaced apart from a border of a projection region where an image is projected and projects, using the second projector, a second guide distinguishable from the first guide.

Abstract: A front-projection 3D autostereoscopic display system using time-sequencing approach is configured for forming a plurality of perspective views of 3D images of an object or scene in a field of view. The 3D displays system comprises a display component, an optical scanning assembly, a sensor and a controller. The optical scanning assembly includes a first lens array, an optical beam shifting device, an optical projection block and a reflection screen. The reflection screen comprises a second converging lens array and a mirror. In the first and second embodiments of the present invention the reflection screen is made respectively flat or curved. The present invention can be used with a wide range of screen sizes especially for large screens and allows significant reduction or elimination of optical cross-talk and also reduces mechanical complexity of 3D display system.

Abstract: Provided is a device which can present three dimensional information by a simple structure and in which the information can be viewed with the naked eye. A plurality of rotary line-light-source units are arranged. The line-light-source units provide different pieces of image information in different directions, in order to produce a parallax between both eyes. A three-dimensional image control unit performs a control to provide thinned image information at corresponding positions to the plurality of line-light-source units and successively present the entire three-dimensional image information by scrolling. As a result, a viewer can recognize the three-dimensional image moved and presented by the scroll control.

Abstract: An optical module includes a curved reflecting component, a first filtering component, a second filtering component and a rolling component. The curved reflecting component has a focus, a transmissive portion, a first reflecting portion and a second reflecting portion. The rolling component includes a first transforming portion and a second transforming portion. The first waveband light is transmitted into the transmissive portion and is then transformed into a second waveband light via the first transforming portion. The second waveband light is subsequently transformed into a first emergent light. The first waveband light is transmitted into the transmissive portion and is then transformed into the second waveband light via the second transforming portion. The second waveband light is subsequently transformed into a second emergent light.

Abstract: An image projection module, a mobile device including the image projection module, and a method for operating the same are disclosed. A method for operating a mobile device including an image projection module includes splitting an input image into a left-eye image and a right-eye image in a three-dimensional (3D) image display mode, driving left-eye and right-eye light sources for outputting light having different wavelengths based on the left-eye image and the right-eye image, synthesizing light output from the left-eye light source and light output from the right-eye light source, and projecting the synthesized light in a first direction and then a second direction. Therefore, it is possible to conveniently display a three-dimensional (3D) image.