Abstract: An electronic card includes a support substrate, a plurality of storage devices on the support substrate, and a plurality of controllers on the support substrate to manage access of the corresponding plurality of storage devices, wherein the plurality of controllers and the plurality of storage devices are arranged to store data according to a Redundant Array of Independent Disks (RAID) mode.

Abstract: Graft polymerization is fulfilled on a functionalized substrate. The functionalized substrate is prepared from a disulfide bond-containing feedstock and has been prepared for polymerization through the introduction of one or more polyfunctional monomers containing a disulfide bond breaking material functional group.

Abstract: In one example in accordance with the present disclosure, a computing system is provided. The computing system includes a first bus controller to control X bus lanes, a second bus controller to control Y bus lanes, a 2-to-1 X lane multiplexer, and a Y lane system component, where Y>X>0. X lanes from the first bus controller are coupled to the 2-to-1 X lane multiplexer. X lanes from the second bus controller are coupled to the 2-to-1 X lane multiplexer, and Y-X lanes from the second bus controller are coupled directly to the Y lane system component. In addition, X lanes from the 2-to-1 X lane multiplexer are coupled to the Y lane system component.

Abstract: Systems and methods for making, engineering and processing of degradation-promoted polymers in accordance with their end-use applications and environmental conditions are provided. The systems and methods include incorporating, blending and compounding the degradation-promoting agent(s) into a polymeric material. The resulting degradation-promoted polymeric material can be molded to create a desired end use product that, when exposed to an application-specific environment, the degradation rate of the degradation-promoted polymer can be enhanced compared to the degradation rate of the input polymer(s) without the incorporated degradation-promoting agents.

Abstract: Graft polymerization is fullfiled on a functionalized substrate. The functionalized substrate is prepared from a disulfide bond-containing feedstock and has been prepared for polymerization through the introduction of one or more polyfunctional monomers containing a disulfide bond breaking material functional group.

Abstract: Graft polymerization is fullfiled on a functionalized substrate. The functionalized substrate is prepared from a disulfide bond-containing feedstock and has been prepared for polymerization through the introduction of one or more polyfunctional monomers containing a disulfide bond breaking material functional group.

Abstract: Examples related to the universal serial bus (USB) protocol are provided. In one example, a computer or other device includes USB controllers according to at least two different protocols. A first of the USB controllers is coupled to communicate directly with one or more USB ports. A second of the USB controllers is coupled to communicate with one or more USB ports by way of a USB hub.

Abstract: The embodiments provided herein are directed to methods and systems for generating a customized functionalized substrate. In particular, the embodiments provided herein generate a customized functionalized substrate that can be used for a variety of applications and a variety of chemical and other reactions, processes and methodologies, by modifying a disulfide bond-containing feedstock through the introduction of a disulfide bond breaking material.

Abstract: The embodiments provided herein are directed to methods and systems for generating a customized functionalized substrate. In particular, the embodiments provided herein generate a customized functionalized substrate that can be used for a variety of applications and a variety of chemical and other reactions, processes and methodologies, by modifying a disulfide bond-containing feedstock through the introduction of a disulfide bond breaking material.

Abstract: Graft polymerization is fullfiled on a functionalized substrate. The functionalized substrate is prepared from a disulfide bond-containing feedstock and has been prepared for polymerization through the introduction of one or more polyfunctional monomers containing a disulfide bond breaking material functional group.

Abstract: A multi-channel memory connection system comprises a circuit board comprising a plurality of memory connectors, at least one of the plurality of memory connectors configured to receive either a memory module or a memory riser, the at least one memory connector having at least two memory channels connected thereto through the circuit board.

Abstract: A multi-channel memory connection system comprises a circuit board comprising a plurality of memory connectors, at least one of the plurality of memory connectors configured to receive either a memory module or a memory riser, the at least one memory connector having at least two memory channels connected thereto through the circuit board.

Abstract: A computer system is provided that includes a processor and a memory slot coupled to the processor. The system also includes a multi-memory module attached to the memory slot, the multi-memory module having a plurality of memory sets mounted on a single circuit base. The memory sets are treated as separate memory modules.

Abstract: A computer includes a motherboard having first and second sets of expansion card slots, an expansion card bulkhead defining expansion card openings, and a configurable alignment mechanism operable to place the motherboard and the expansion card openings into first and second configurations relative to one another. In the first configuration, the first set of expansion card slots is aligned with the openings. In the second configuration, the second set of expansion card slots is aligned with the openings.

Abstract: A light-emitting device (52) suitable for a flat-panel cathode-ray tube display contains a light-emissive region (66) formed over a plate (64). The light-emissive region contains a plurality of light-emissive particles (72). Part of the outer surface of each of a group of the light-emissive particles is conformally covered with a group of intensity-enhancement coatings (82 and 84).

Abstract: A computer includes a motherboard having first and second sets of expansion card slots, an expansion card bulkhead defining expansion card openings, and a configurable alignment mechanism operable to place the motherboard and the expansion card openings into first and second configurations relative to one another. In the first configuration, the first set of expansion card slots is aligned with the openings. In the second configuration, the second set of expansion card slots is aligned with the openings.

Abstract: Embodiments of an electronic device and method are disclosed herein. One embodiment of the electronic device comprises a power supply and a processor circuit. The power supply comprises a supply input and a supply output, the supply output suppling a first power when the supply input is at a first voltage and a second power when the supply input is at a second voltage. The processor circuit comprises a processor circuit power input and a processor circuit output. The processor circuit power input is operatively connectable to the supply output and the processor circuit output is operatively connectable to the supply input. The first voltage is present at the supply input when the processor circuit output is operatively connected to the supply input.

Abstract: A light-emitting device (52) suitable for a flat-panel cathode-ray tube display contains a light-emissive region (66) formed over a plate (64). The light-emissive region contains a plurality of light-emissive particles (72). Part of the outer surface of each light-emissive particle is conformally covered with a coating (74) that provides light reflection or/and gettering.

Abstract: A light-emitting device (52, 80, 110, 128, or 130) suitable for a flat-panel cathode-ray tube display contains a light-emissive region (66) formed over a plate (64). The light-emissive region contains a plurality of light-emissive particles (72). Part of the outer surface of each light-emissive particle is conformally covered with one or more coatings (74, 82, 84, 112, and 114). The coatings variously provide light-reflection, gettering, intensity-enhancement, and contrast-enhancement functions.