Abstract: A method of adapting a visual unit having a first screen (10) in a first focal plane by the addition of one or more at least partially transparent display screens (20) at least partially overlapping said first screen (10) and located in focal planes distinct from said first focal plane, characterized in that an at least partially transparent emissive layer (21) is provided between said first screen (10) and at least one said additional display screen (20).

Abstract: A method, computer-usable medium, and system for processing graphical data for display on a multi-component display is disclosed. Embodiments improve the display quality of multi-component displays by modifying graphical data to preemptively compensate for distortion caused by interstitial layers and/or display screens of the multi-component display, thereby enabling display of graphical objects from multi-component displays with improved optical characteristics. For example, where components of a multi-component display blur displayed images, graphical data used to display graphical objects may be modified to sharpen the graphical objects before display. The pre-sharpening amplifies the high frequency components of the displayed graphical objects to compensate for the dampening caused by passing the graphical objects through the components of the multi-component display.

Abstract: A method of adapting a visual unit having a first screen (10) in a first focal plane by the addition of one or more at least partially transparent display screens (20) at least partially overlapping said first screen (10) and located in focal planes distinct from said first focal plane, characterized in that an at least partially transparent emissive layer (21) is provided between said first screen (10) and at least one said additional display screen (20).

Abstract: A method of adapting a visual unit having a first screen (10) in a first focal plant by the addition of one or more at least partially transparent display screens (20) at least partially overlapping said first screen (10) and located in focal planes distinct from said first focal plane, characterized in that an at least partially transparent emissive layer (21) is provided between said first screen (10) and at least one said additional display screen (20).

Abstract: A method of controlling a point spread of an object is disclosed. The method includes determining a first value of a characteristic of an optical component of a display, wherein the display includes a first display screen and a second display screen, and wherein the first and second display screens overlap. The method also includes determining a position for the optical component based upon the first value of the characteristic by determining a distance from an origin of the object to the position based upon the first value of the characteristic.

Abstract: An improved optical diffuser for use in a multi-component display (MCD), and also to a method of manufacturing the same, is disclosed. Embodiments provide an optical diffuser film which may be manufactured with fewer manual operations, at a lower cost, and in larger volume than conventional optical diffusers. The optical diffuser film may include a flexible polymer substrate coupled to an optical diffuser material with a plurality of features for diffusing light. The optical diffuser film may be stored, transported, or otherwise handled more easily and with less damage than conventional optical diffusers. Additionally, the optical diffuser film may be coupled to a rigid substrate to reduce distortion of the optical diffuser, thereby providing improved optical performance.

Abstract: A display including a first-order optical retarder and a method for assembling the same is disclosed. A display includes a first display screen operable to display a first image using a first plurality of pixels. A second display screen is operable to display a second image using a second plurality of pixels, wherein the first and second display screens overlap. The display also includes a first-order optical retarder disposed between the first and second display screens.

Abstract: A method of rendering an image using a multi-component display includes displaying a first image on a first display screen of the multi-component display, wherein the displaying the first image further includes displaying the first image with a first luminance. A second image is displayed on a second display screen of the multi-component display, wherein the first display screen and the second display screen overlap, and wherein the displaying the second image further includes displaying the second image with a second luminance. The displaying of the first image and the displaying of the second image further include displaying the first and second images in an overlapping manner to render the image, and wherein a perceived depth of the image is related to the first luminance and the second luminance.

Abstract: A method of controlling the point spread function of an image projected with said image being diffused by a filter; said point spread function is a result of the application of spatial filter(s) on said image; with said control of the point spread function effected by varying the distance between such image and said spatial filter(s) and varying the bidirectional scattering transmission function of the spatial filter(s). Said spatial filter may be a holographic diffuser, which by method of manufacture has a well defined bi-directional scattering transmission spread function. Control of said spread function is particularly useful to maintain image quality while abating moiré interference in situations where two periodic patterns are layered causing moiré interference.

Abstract: The present invention (1) includes a multi-focal plane display with two or more at least partially overlapping screens (2, 3) with a first order optical retarder (5) interposed therebetween. The invention removes the undersirable presence of colored interference fringes while also providing a means of addressing the polarization incompatibility between adjacent LCD display screens (2, 3).

Abstract: A system and method for interacting with at least one display screen of a multi-component display is disclosed. A system includes a first display screen operable to display a first image, wherein the first display screen includes a first plurality of pixels. A second display screen is operable to display a second image, wherein the second display screen includes a second plurality of pixels, wherein the second display screen overlaps the first display screen, wherein the second display screen is further operable to display the second image simultaneously with the display of the first image, and wherein a portion of the first image is viewable through the second display screen. A user interface is operable to enable interaction with at least one display screen selected from a group consisting of the first display screen and the second display screen.

Abstract: A method of displaying an image with variable perceived depth using a display (1) including one or more at least partially transparent, substantially parallel imaging screens (3) located in front of, and overlapping with, a rear imaging screen (4), characterized in that a physical image is formed on two or more imaging screens (3,4), each image being of substantially identical configuration and being sized and aligned such that like portions of each image are coterminous to a viewer observing the display, wherein at least two of said coterminous images are displayed with different luminance.

Abstract: An improved optical diffuser for use in a multi-component display (MCD), and also to a method of manufacturing the same, is disclosed. Embodiments provide an optical diffuser film which may be manufactured with fewer manual operations, at a lower cost, and in larger volume than conventional optical diffusers. The optical diffuser film may include a flexible polymer substrate coupled to an optical diffuser material with a plurality of features for diffusing light. The optical diffuser film may be stored, transported, or otherwise handled more easily and with less damage than conventional optical diffusers. Additionally, the optical diffuser film may be coupled to a rigid substrate to reduce distortion of the optical diffuser, thereby providing improved optical performance.

Abstract: A method, computer-usable medium, and system for processing graphical data for display on a multi-component display is disclosed. Embodiments improve the display quality of multi-component displays by modifying graphical data to preemptively compensate for distortion caused by interstitial layers and/or display screens of the multi-component display, thereby enabling display of graphical objects from multi-component displays with improved optical characteristics. For example, where components of a multi-component display blur displayed images, graphical data used to display graphical objects may be modified to sharpen the graphical objects before display. The pre-sharpening amplifies the high frequency components of the displayed graphical objects to compensate for the dampening caused by passing the graphical objects through the components of the multi-component display.

Abstract: The present invention (1) includes a multi-focal plane display with two or more at least partially overlapping screens (2, 3) with a first order optical retarder (5) interposed therebetween. The invention removes the undersirable presence of coloured interference fringes whilst also providing a means of addressing the polarisation incompatibility between adjacent LCD display screens (2, 3).