Abstract: A utility wall for a pickup truck includes: a first portion disposed along a first plane and including alternating first and second vertical columns of apertures, where: the first vertical columns include a vertically repeating pattern including: first rectangular apertures with longer sides oriented in a first direction; ovular apertures; and circular apertures; and the second vertical columns include second rectangular apertures with longer sides oriented in a second direction that is different than the first direction; second and third portions disposed along a second plane that is parallel to the first plane, the second and third portions including bolt apertures through which bolts can extend to bolt the utility wall to the pickup truck; a first c-shaped portion that connects a first end of the first portion to the second portion; and a second c-shaped portion that connects a second end of the first portion to the third portion.

Abstract: A utility wall for a pickup truck includes: a first portion disposed along a first plane and including alternating first and second vertical columns of apertures, where: the first vertical columns include a vertically repeating pattern including: first rectangular apertures with longer sides oriented in a first direction; ovular apertures; and circular apertures; and the second vertical columns include second rectangular apertures with longer sides oriented in a second direction that is different than the first direction; second and third portions disposed along a second plane that is parallel to the first plane, the second and third portions including bolt apertures through which bolts can extend to bolt the utility wall to the pickup truck; a first c-shaped portion that connects a first end of the first portion to the second portion; and a second c-shaped portion that connects a second end of the first portion to the third portion.

Abstract: An imaging apparatus in accordance with the present invention comprises a hand-held, battery powered imaging device that provides: (1) an Identification Picture wherein an image of the patient's face is captured for identification purposes; (2) an Area of Interest picture wherein an image of the general area of interest on the patient is captured; and (3) a Subject of Interest picture wherein an image of the subject lesion of interest is captured. Two digital imaging systems, including a wide-angle (e.g. fisheye) imaging system and a macro (close-up) imaging system, are provided to allow for the simultaneous capture of AOI and SOI images thereby capturing an image that identifies the location of the lesion on the body and an image that comprises a close-up view of the lesion. A light source or flash provides illumination during the image capture phase.

Abstract: In general, this disclosure describes techniques for providing a user of a computing device with the ability to view a realistic map of the sky based on information associated with the current location of the user. The information may be geographical information, orientation or directionality of the computing device, time and date, and zoom settings of the computing device. The computing device may use built-in capabilities (e.g., compass) and applications (e.g., maps and GPS) to determine the current location information. The computing device then uses the current location information to obtain celestial and topographical information. Using the celestial information, the computing device displays a map of the sky with the appropriate celestial bodies. Additionally, the computing device uses the topographical information to display a realistic rendering of the horizon, such that objects in the horizon may be displayed to render a realistic representation of the sky from the current location.

Abstract: In general, this disclosure describes techniques for providing a user of a computing device with the ability to view a realistic map of the sky based on information associated with the current location of the user. The information may be geographical information, orientation or directionality of the computing device, time and date, and zoom settings of the computing device. The computing device may use built-in capabilities (e.g., compass) and applications (e.g., maps and GPS) to determine the current location information. The computing device then uses the current location information to obtain celestial and topographical information. Using the celestial information, the computing device displays a map of the sky with the appropriate celestial bodies. Additionally, the computing device uses the topographical information to display a realistic rendering of the horizon, such that objects in the horizon may be displayed to render a realistic representation of the sky from the current location.

Abstract: In general, this disclosure describes techniques for providing a user of a computing device with the ability to view a realistic map of the sky based on information associated with the current location of the user. The information may be geographical information, orientation or directionality of the computing device, time and date, and zoom settings of the computing device. The computing device may use built-in capabilities (e.g., compass) and applications (e.g., maps and GPS) to determine the current location information. The computing device then uses the current location information to obtain celestial and topographical information. Using the celestial information, the computing device displays a map of the sky with the appropriate celestial bodies. Additionally, the computing device uses the topographical information to display a realistic rendering of the horizon, such that objects in the horizon may be displayed to render a realistic representation of the sky from the current location.

Abstract: In general, this disclosure describes techniques for providing a user of a computing device with the ability to view a realistic map of the sky based on information associated with the current location of the user. The information may be geographical information, orientation or directionality of the computing device, time and date, and zoom settings of the computing device. The computing device may use built-in capabilities (e.g., compass) and applications (e.g., maps and GPS) to determine the current location information. The computing device then uses the current location information to obtain celestial and topographical information. Using the celestial information, the computing device displays a map of the sky with the appropriate celestial bodies. Additionally, the computing device uses the topographical information to display a realistic rendering of the horizon, such that objects in the horizon may be displayed to render a realistic representation of the sky from the current location.

Abstract: An imaging apparatus in accordance with the present invention comprises a hand-held, battery powered imaging device that provides: (1) an Identification Picture wherein an image of the patient's face is captured for identification purposes; (2) an Area of Interest picture wherein an image of the general area of interest on the patient is captured; and (3) a Subject of Interest picture wherein an image of the subject lesion of interest is captured. Two digital imaging systems, including a wide-angle (e.g. fisheye) imaging system and a macro (close-up) imaging system, are provided to allow for the simultaneous capture of AOI and SOI images thereby capturing an image that identifies the location of the lesion on the body and an image that comprises a close-up view of the lesion. A light source or flash provides illumination during the image capture phase.

Abstract: The innovation relates to a system and/or methodology for the convenient and consistent determination of fee refunds for financial products. The system provides for a fee refund component that determines a proposed fee refund based on a customer's score, and information regarding the financial institution's fee refund policies. The customer scores and fee refund policies are determined by a data analytics component, which can update the data at regular intervals or when modifications to the data occur.

Abstract: A Taylor pre-paid cash card, is a card spent as cash at any market that has a scan system to except it. A safeway to carry large amounts of cash in a card. The value of the card is worth what you pay for it, less a small user fee. As the card is spent, a receipt is given for amount spent, and a remaining balance. Use it up, throw away the card and buy another. A cash card used by the means of electronic transfer. A plastic card carried in your wallet. The card has a pin # and printed numbers with magnet stripes to identify card value. Assorted colors for priced cards with a bar code on the front. Cash Cards have company information and a secondary bar code on the back. A all public cash card, bought and sold to the public, by public markets.