Abstract: An imaging device includes groupings of photodiodes having four photodiodes. A transfer transistor is between each photodiode and a floating diffusion. Each floating diffusion is coupled to up to two photodiodes per grouping at a time through transfer transistors. A buffer transistor is coupled to each floating diffusion. The buffer transistors may be in a first or second grouping of buffer transistors. A first bit line is coupled to up to two buffer transistors of the first grouping and a second bit line is coupled to up to two buffer transistors of the second grouping of buffer transistors at a time. A color filter array including a plurality of groupings of color filters is disposed over respective photodiodes of the photodiode array, wherein each grouping of color filters includes four color filters having a same color, wherein each grouping of color filters overlaps two groupings of photodiodes.

Abstract: An imaging device includes groupings of photodiodes having four photodiodes. A transfer transistor is between each photodiode and a floating diffusion. Each floating diffusion is coupled to up to two photodiodes per grouping at a time through transfer transistors. A buffer transistor is coupled to each floating diffusion. The buffer transistors may be in a first or second grouping of buffer transistors. A first bit line is coupled to up to two buffer transistors of the first grouping and a second bit line is coupled to up to two buffer transistors of the second grouping of buffer transistors at a time. A color filter array including a plurality of groupings of color filters is disposed over respective photodiodes of the photodiode array, wherein each grouping of color filters includes four color filters having a same color, wherein each grouping of color filters overlaps two groupings of photodiodes.

Abstract: An imaging device includes groupings of photodiodes having four photodiodes. A transfer transistor is between each photodiode and a floating diffusion. Each floating diffusion is coupled to up to two photodiodes per grouping at a time through transfer transistors. A buffer transistor is coupled to each floating diffusion. The buffer transistors may be in a first or second grouping of buffer transistors. A first bit line is coupled to up to two buffer transistors of the first grouping and a second bit line is coupled to up to two buffer transistors of the second grouping of buffer transistors at a time. A color filter array including a plurality of groupings of color filters is disposed over respective photodiodes of the photodiode array, wherein each grouping of color filters includes four color filters having a same color, wherein each grouping of color filters overlaps two groupings of photodiodes.

Abstract: An imaging device includes groupings of photodiodes having four photodiodes. A transfer transistor is between each photodiode and a floating diffusion. Each floating diffusion is coupled to up to two photodiodes per grouping at a time through transfer transistors. A buffer transistor is coupled to each floating diffusion. The buffer transistors may be in a first or second grouping of buffer transistors. A first bit line is coupled to up to two buffer transistors of the first grouping and a second bit line is coupled to up to two buffer transistors of the second grouping of buffer transistors at a time. A color filter array including a plurality of groupings of color filters is disposed over respective photodiodes of the photodiode array, wherein each grouping of color filters includes four color filters having a same color, wherein each grouping of color filters overlaps two groupings of photodiodes.

Abstract: A mainframe of an organization includes a transaction layer and a middleware layer and an operating system layer is structured by steps including identifying that transactions of the transaction layer are related to a classification of the organization. The steps further include identifying resources of the mainframe for executing the transactions, wherein the resources includes a processor and a memory. The steps include identifying transaction access paths between the transaction layer and the middleware layer resources that are associated with the middleware layer. The steps include identifying resources that are associated with the operating system layer and generating a service model of the mainframe that includes a visual representation of the transactions and the resources that are related to the classification across the middleware layer and the transaction layer and the operating system layer of the mainframe.

Abstract: A mainframe of an organization includes a transaction layer and a middleware layer and an operating system layer is structured by steps including identifying that transactions of the transaction layer are related to a classification of the organization. The steps further include identifying resources of the mainframe for executing the transactions, wherein the resources includes a processor and a memory. The steps include identifying transaction access paths between the transaction layer and the middleware layer resources that are associated with the middleware layer. The steps include identifying resources that are associated with the operating system layer and generating a service model of the mainframe that includes a visual representation of the transactions and the resources that are related to the classification across the middleware layer and the transaction layer and the operating system layer of the mainframe.

Abstract: A spreadsheet software program may be utilized to define a user transaction relationship. The defined user transaction relationship may be loaded. An operating system (OS) discovery library adaptor (DLA) may be run to discover resources within the mainframe. Middleware DLA may be run to discover a transaction access path within the mainframe. A middleware DLA book that includes the discovered transaction access path may be generated. The middleware DLA book that includes the discovered resources may be preprocessed. The middleware DLA book may be loaded to a service manager (SM) service component repository (SCR). The middleware DLA book may be loaded to the SM SCR to configure data. A business service model of the mainframe may be activated.

Abstract: A spreadsheet software program may be utilized to define a user transaction relationship. The defined user transaction relationship may be loaded. An operating system (OS) discovery library adaptor (DLA) may be run to discover resources within the mainframe. Middleware DLA may be run to discover a transaction access path within the mainframe. A middleware DLA book that includes the discovered transaction access path may be generated. The middleware DLA book that includes the discovered resources may be preprocessed. The middleware DLA book may be loaded to a service manager (SM) service component repository (SCR). The middleware DLA book may be loaded to the SM SCR to configure data. A business service model of the mainframe may be activated.

Abstract: An apparatus for manufacturing a heat retaining multi-ply textile includes an adhesive tank; a lower drive roll partially submerged in the tank; an upper drive roll including spaced, longitudinal projections wherein the projections contact the lower drive roll to bring the adhesive onto the projections; two opposite driven rolls; a first supply spool for moving a continuous upper textile sheet wherein the continuous upper textile sheet moves to have its underside contacted the longitudinal projections when passing the upper drive roll before moves to a joining line of the driven rolls; a second supply spool for moving a continuous lower textile sheet to the joining line of the driven rolls wherein the continuous lower and upper textile sheets are pressed toward each other to form compartments; and an oven for heating in order to produce the production. Down migration can be avoided.

Abstract: A clamping apparatus for receiving a plurality of objects comprises a base, a limiting mechanism with a pair of limiting plates, and at least one clamping mechanisms secured to one of the limiting plates. The limiting mechanisms are secured to the base and cooperate with the base to form a receiving channel for receiving the objects. Each of the limiting plates comprises a first end. The at least one clamping mechanism is rotatably secured to the first end and clamps the object adjacent to the first end, for allowing the clamped object to be pulled out of the receiving channel. When the clamped object is separated from the at least one clamping mechanism, the at least one clamping mechanism clamps the rest of the objects at the first end.

Abstract: The direct deposit of photoelectric materials onto low-cost prefabricated patterned flexible electrodes provided by the present invention introduces a new design approach that permits the development of innovative lightweight, durable and non-planar sensing systems. By extending single and multi-spectral bioelectronic sensing technology to flexible plastic substrates, the invention offers a number of potential advantages over structurally rigid silicon-based microelectronics (e.g. CMOS) including a reduction in spatial requirements, weight, electrical power consumption, heat loss, system complexity, and fabrication cost.

Abstract: The direct deposit of photoelectric materials onto low-cost prefabricated patterned flexible electrodes provided by the present invention introduces a new design approach that permits the development of innovative lightweight, durable and non-planar sensing systems. By extending single and multi-spectral bioelectronic sensing technology to flexible plastic substrates, the invention offers a number of potential advantages over structurally rigid silicon-based microelectronics (e.g. CMOS) including a reduction in spatial requirements, weight, electrical power consumption, heat loss, system complexity, and fabrication cost.