Abstract: A method includes receiving a widget insertion request associated with an email message and customizing one or more options of the widget based on one or more user selections. The widget is inserted into a body of the email message. The widget provides one or more interactive services to a recipient of the email message based on the one or more options. The email message is sent with the widget to the recipient to allow the recipient to interact with the widget upon receiving the email message.

Abstract: A connector, or a peripheral module including a connector, is configured to form at least a portion of an operative link between a wearable combat processing platform and the peripheral module. The connector may be adapted to facilitate deployment with a soldier or combatant in contexts including battlefield contexts. The wearable combat processing platform may include one or more processors and a power distribution unit. The peripheral module may include one or more peripherals configured to communicate data and to receive power over the operative link with the wearable combat processing platform.

Abstract: A LCD test system is provided for use in a high volume production environment. An automated test is performed that tests each LCD and provides a pass/fail indication. The automated test includes an image-sticking test that drives the test image based on a control voltage that corresponds to a maximum rate of change of brightness. The control voltage is determined by differentiating an electro-optic curve. The brightness difference between the test image and another test image is compared to predetermined threshold. The other test image may be a gray scale test. Alternatively, the image-sticking test may integrate brightness levels of odd and even frames, compare these results to predetermined thresholds. The test includes a color uniformity test in which average differences in peak reflectance and peak frequency within sections of the LCD are compared to predetermined thresholds for the pass/fall indication. The test includes a spatial distribution of defects test.

Abstract: Liquid crystal display devices having display screens with an improved black frame is provided. The microdisplay of the LCD is formed of a matrix of pixels disposed on the top surface of a silicon substrate, a layer of glass, and a layer of a reflective metal, preferably aluminum, which is disposed between the silicon substrate and layer of glass. The layer of reflective metal has a pattern, which forms a frame around the matrix of pixels, and is involved in generating the black frame when viewed by the user on the display screen. The reflective material functions to reflect light back to the light generating source, and thus displays a pure black image to the user. In another embodiment, a layer of reflective metal, preferably black chromium, patterned to form a frame around the matrix of pixels, is disposed on the top surface of the glass.

Abstract: A test method and apparatus for liquid crystal display (LCD) devices, and in particular LCoS (liquid crystal on silicon) display devices, to achieve a pass/fail determination based upon user-defined tolerances of the LCD devices. The test apparatus side-illuminates the LCD device to provide reliable pixel defect detection and uniformity measurement. The test method is adaptable for LCD devices that have light emitting devices (LEDs) integrated into the LCD or separated from the LCD. The side-illumination provides a gradient of brightness that is further discernable into red, green, and blue colors. A monochromatic image can be driven by the LEDs using one of two drive schemes. The first drive scheme illuminates a single color according to a monochrome test mode. The second drive scheme drive a white image with a single LED illuminated such that a monochromatic image results. A module can reorder the testing according to the rate of failures for each test.