Abstract: A system includes a plurality of stationary gaming tables positioned at a plurality of respective locations, a moveable table game device, one or more processors, and a server. Each gaming table includes a table transceiver. The table game device includes a device transceiver that receives data signals including identification data from the table transceivers via a first communication network. The processors determine an identity of the gaming tables based on the identification data, calculate a relative distance between the table game device and each gaming table based on at least one characteristic of a respective data signal, and generate location data indicating a relative location of the gaming device as a function of the calculated relative distances. The server collects the location data via a second communication network and stores the location data for analysis and location tracking.

Abstract: A system and method for managing remote assets with data aggregation. The system including: a server running software to manage data and communications; a database accessible by the server; a client application provided to one or more clients, in communication with the server; wherein the server is configured to control a method that includes: receive communications from the remote asset and receive communications from the client application; analyze the received communications for data related to the remote asset; determine if the data indicates an issue in relation to the remote asset; if so: determine a prescribed action based on the issue and the data; automatically determine resources for the prescribed action; and send communications to at least one of the remote asset and the client application with the prescribed action and determined resources, if not, continue to receive and analyze the received communications.

Abstract: A system includes a plurality of stationary gaming tables positioned at a plurality of respective locations, a moveable table game device, one or more processors, and a server. Each gaming table includes a table transceiver. The table game device includes a device transceiver that receives data signals including identification data from the table transceivers via a first communication network. The processors determine an identity of the gaming tables based on the identification data, calculate a relative distance between the table game device and each gaming table based on at least one characteristic of a respective data signal, and generate location data indicating a relative location of the gaming device as a function of the calculated relative distances. The server collects the location data via a second communication network and stores the location data for analysis and location tracking.

Abstract: A system includes a plurality of stationary gaming tables positioned at a plurality of respective locations, a moveable table game device, one or more processors, and a server. Each gaming table includes a table transceiver. The table game device includes a device transceiver that receives data signals including identification data from the table transceivers via a first communication network. The processors determine an identity of the gaming tables based on the identification data, calculate a relative distance between the table game device and each gaming table based on at least one characteristic of a respective data signal, and generate location data indicating a relative location of the gaming device as a function of the calculated relative distances. The server collects the location data via a second communication network and stores the location data for analysis and location tracking.

Abstract: A system includes a plurality of stationary gaming tables positioned at a plurality of respective locations, a moveable table game device, one or more processors, and a server. Each gaming table includes a table transceiver. The table game device includes a device transceiver that receives data signals including identification data from the table transceivers via a first communication network. The processors determine an identity of the gaming tables based on the identification data, calculate a relative distance between the table game device and each gaming table based on at least one characteristic of a respective data signal, and generate location data indicating a relative location of the gaming device as a function of the calculated relative distances. The server collects the location data via a second communication network and stores the location data for analysis and location tracking.

Abstract: A head-up display assembly includes a liquid crystal display element, a first backlight light source, and a remote backlight light source. The first light source is physically mounted in proximity to the liquid crystal display element, and is operable to directly backlight illuminate the liquid crystal display element. The remote light source mounted physically remote from the liquid crystal display element, and is operable to backlight illuminate the liquid crystal display element via a light guide.

Abstract: A LCD display comprises a backlight assembly that includes a backlight substrate, one or more first white LEDs coupled to the backlight substrate and configured to produce a first light output, and one or more second white LEDs coupled to the backlight substrate and configured to produce a second light output. A light integration unit is coupled to the backlight assembly and configured to produce a combined output from the first light output and the second light output, the combined output having a desired luminance and chrominance. A LCD assembly is coupled to the light integration unit.

Abstract: A projection system includes a vibration controlling structure. The projection system includes an imaging unit mounted to a movable platform via a partially compliant mount structure, such that the imaging unit is partially isolated from the platform while projecting an image which is stable with respect to the platform. The imaging unit and partially compliant mounting structures are constructed and arranged to damp vibrational forces on the imaging unit.

Abstract: An image projection system has a first lens with a defined entrance pupil. An image source has an image field and a defined exit pupil. The exit pupil of the image source is configured such that the exit pupil of the image source underfills the entrance pupil of the lens for portions of the image source that are not in the center portion of the image field.

Abstract: Methods and apparatus are provided for reducing the visual artifacts exhibited by a display employing individually addressable pixels. The apparatus comprises an array of pixels, each pixel having a switchable region of alterable transparency or luminance and a non-switchable region. The switchable region of each pixel is distributed, that is, divided into at least two simultaneously switched portions at least partly separated by a significant portion of the non-switchable region. The first order spatial harmonics and visual artifacts are significantly reduced. For a color display, each color pixel is similarly subdivided.

Abstract: A head-up display assembly includes a liquid crystal display element, a first backlight light source, and a remote backlight light source. The first light source is physically mounted in proximity to the liquid crystal display element, and is operable to directly backlight illuminate the liquid crystal display element. The remote light source mounted physically remote from the liquid crystal display element, and is operable to backlight illuminate the liquid crystal display element via a light guide.

Abstract: Method and apparatus are provided for displaying an image to a viewer with reduced visual artifacts. The apparatus comprises a display panel for forming the image using an array of pixels with distributed active regions, and a viewing arrangement optically situated between the display panel and the viewer for transferring the image formed on the display panel to the viewer with limited angular pixel subtense. The distributed active regions of the pixels are desirably divided into at least two simultaneously switched portions at least partly separated by or surrounding a significant portion of the non-switchable region. First order spatial harmonics and associated artifacts are reduced by the distributed apertures and second order and higher harmonics are reduced by limiting the pixel subtense angle seen by the viewer. A significant reduction in visual artifacts arising from the periodic structure of the display panel is obtained.

Abstract: Methods and apparatus are provided for generating and transmitting a substantially uniform light output. The apparatus includes a spatially modulated extended light source configured to project an output having at least one region of diminished illumination, and an array of polarizing beam splitters (PBSs) positioned proximal to the spatially modulated extended light source. The light source includes at least two light outputs configured to project unpolarized light; and at least one gap interspersed between the light outputs. The array of PBSs is configured to receive the output from the light source, convert the unpolarized light to light having a first polarized state, and remove the at least one region of diminished illumination.

Abstract: Methods and apparatus are provided for projecting light carrying a data image. The apparatus comprises a first layer having regions of electrically alterable variable light transmittance adapted to form the data image, and a hollow cavity backlight having a light exiting surface coupled to the first layer and adapted to provide light to the first layer through the light exiting surface from one or more light emitters some of which point in a principal direction other than at right angles to the light exiting surface. In a preferred embodiment, LEDs are used as the light emitters and are preferably mounted on one or more printed circuit boards or other support tilted at non-zero angles with respect to the light exiting surface.

Abstract: Methods and apparatus are provided for color correction and contrast enhancement of projection displays. A visual display system includes a projector having a light source with a fixed spectral output, a display screen receiving the output of the projector and emitting a diffused output, and a color correction contrast enhancement filter positioned between the diffusing screen and a viewer. The filter differentially attenuates primary colors of the emission from the diffusing screen. The method includes projecting a light output from a light source having a fixed spectral output onto a diffusing screen, and attenuating primary colors of the emission from the diffusing screen with a light filter positioned adjacent to the diffusing screen.

Abstract: Methods and apparatus are provided for a combined image on a head-up display. A data image display provides a first part of a combined image. An optical input provides a second part of the combined image, e.g., the background scene. A combiner superimposes the first and second parts to provide the combined image to the viewer. The data image display preferentially delivers s-polarized light to the combiner, which has a selective reflectance region for preferentially reflecting s-polarized light in a wavelength region of interest. In a preferred embodiment, the data image display comprises a backlight, a liquid crystal layer and two polarizers oriented so that the data images directed toward the combiner are s-polarized with respect to the selective reflectance region. A polarization rotation element may also be used in the data image display to facilitate s-polarization orientation.

Abstract: Methods and apparatus are provided for chromatic vignetting in lens systems. The apparatus includes a projection lens unit having an aperture stop, and a selective filter positioned at the aperture stop. The aperture stop defines a ray bundle boundary of an image passing therethrough. The selective filter includes a transmission area having an optical perimeter based on the ray bundle boundary, and a wavelength band filter partially extending from the optical perimeter into the transmission area. The projection lens unit may be used with an illumination unit having a light source and optics conditioning the light from the light source prior to illumination of a light valve. The selective filter may optionally be positioned at a conjugate plane to the aperture stop in the illumination unit.

Abstract: An electronic dimming system for use in projection displays is provided. In a first embodiment, the dimming system comprises a first non-absorbing polarizer, a variable polarization rotator, a second non-absorbing polarizer and a heat absorber. The first non-absorbing polarizer receives light from a light source and passes the light of a selected polarization to the variable polarization rotator. The variable polarization rotator selectively rotates the polarization of the received light. The light passes from the variable polarization rotator to the second non-absorbing polarizer. The second non-absorbing polarizer passes only light of a second selected polarization. The light that passes the second non-absorbing polarizer is passed to the display, where it is used to illuminate the display. The system provides the ability to control the amount of light passed to the display by selectively rotating the polarization of the light with the variable polarization rotator.

Abstract: An arm holding device. The device includes a waist band, a groin strap fitted with an attachment/release buckle, and arms bands which are slidably attached to the waist band. The attachment/release buckle on the groin strap makes placing and removing the device on the patient a simple process. The slidably attached arm bands give the patient limited movement of their arms, while effectively holding the arms of the patient to prevent the patient from aggravating an injury. The device is made of flexible materials to provide as much comfort as possible for the patient, while still being effective.

Abstract: A beam folder increases optical length with polarizing beam splitters and reflectors that repolarize a beam by retarding it. An incident beam encounters the beam splitters multiple times, and are both passed and rejected by the same splitters. The splitters and repolarizing reflectors can be shaped to perform optical functions in a smaller volume. Valves and controls can varyl the beam intensity and combine multiple beams. Applications include projection, imaging, collimating, mixing, and balancing.