Abstract: A surgical instrument may include a multi-lumen catheter configured to be inserted within the tissue. The multi-lumen catheter may include a first lumen that may enable a flow of a fluid, a second lumen that may receive a navigation probe that may facilitate an ability to locate the region of interest within the tissue, and an expandable membrane that may be situated toward a distal end of the first lumen to form an expandable cavity. The expandable cavity may be configured to expand or contract based on the flow of the fluid through the first lumen. The surgical instrument may include a fluid line, coupled to the first lumen, that may supply the fluid to the first lumen to enable the expandable cavity to expand or withdraw the fluid from the first lumen to enable the expandable cavity to contract.

Abstract: Power supply efficiency may be provided. First, a total power supply capacity may be determined comprising a sum of a plurality of supply capacities respectively corresponding to a plurality of power supplies serving a plurality of components. Next, a load value corresponding to the plurality of components may be determined. A number of the plurality of power supplies may then be powered down. The number of power supplies powered down may comprise a value that may cause a remaining number of the plurality of power supplies serving the plurality of components to operate within an efficiency range.

Abstract: Power supply efficiency may be provided. First, a total power supply capacity may be determined comprising a sum of a plurality of supply capacities respectively corresponding to a plurality of power supplies serving a plurality of components. Next, a load value corresponding to the plurality of components may be determined. A number of the plurality of power supplies may then be powered down. The number of power supplies powered down may comprise a value that may cause a remaining number of the plurality of power supplies serving the plurality of components to operate within an efficiency range.

Abstract: Power supply efficiency may be provided. First, a total power supply capacity may be determined comprising a sum of a plurality of supply capacities respectively corresponding to a plurality of power supplies serving a plurality of components. Next, a load value corresponding to the plurality of components may be determined. A number of the plurality of power supplies may then be powered down. The number of power supplies powered down may comprise a value that may cause a remaining number of the plurality of power supplies serving the plurality of components to operate within an efficiency range.

Abstract: A surgical instrument may include a multi-lumen catheter configured to be inserted within the tissue. The multi-lumen catheter may include a first lumen that may enable a flow of a fluid, a second lumen that may receive a navigation probe that may facilitate an ability to locate the region of interest within the tissue, and an expandable membrane that may be situated toward a distal end of the first lumen to form an expandable cavity. The expandable cavity may be configured to expand or contract based on the flow of the fluid through the first lumen. The surgical instrument may include a fluid line, coupled to the first lumen, that may supply the fluid to the first lumen to enable the expandable cavity to expand or withdraw the fluid from the first lumen to enable the expandable cavity to contract.

Abstract: Power supply efficiency may be provided. First, a total power supply capacity may be determined comprising a sum of a plurality of supply capacities respectively corresponding to a plurality of power supplies serving a plurality of components. Next, a load value corresponding to the plurality of components may be determined. A number of the plurality of power supplies may then be powered down. The number of power supplies powered down may comprise a value that may cause a remaining number of the plurality of power supplies serving the plurality of components to operate within an efficiency range.

Abstract: Power supply efficiency may be provided. First, a total power supply capacity may be determined comprising a sum of a plurality of supply capacities respectively corresponding to a plurality of power supplies serving a plurality of components. Next, a load value corresponding to the plurality of components may be determined. A number of the plurality of power supplies may then be powered down. The number of power supplies powered down may comprise a value that may cause a remaining number of the plurality of power supplies serving the plurality of components to operate within an efficiency range.

Abstract: Power supply efficiency may be provided. First, a total power supply capacity may be determined comprising a sum of a plurality of supply capacities respectively corresponding to a plurality of power supplies serving a plurality of components. Next, a load value corresponding to the plurality of components may be determined. A number of the plurality of power supplies may then be powered down. The number of power supplies powered down may comprise a value that may cause a remaining number of the plurality of power supplies serving the plurality of components to operate within an efficiency range.

Abstract: Power supply efficiency may be provided. First, a total power supply capacity may be determined comprising a sum of a plurality of supply capacities respectively corresponding to a plurality of power supplies serving a plurality of components. Next, a load value corresponding to the plurality of components may be determined. A number of the plurality of power supplies may then be powered down. The number of power supplies powered down may comprise a value that may cause a remaining number of the plurality of power supplies serving the plurality of components to operate within an efficiency range.

Abstract: An image sensor includes; a pixel array including pixels providing pixel signals, a timing controller that controls exposure time for the pixels and generates a flag signal indicating a start and a stop for the exposure time, and a first connection pin configured to transfer the flag signal to a gyroscope sensor.

Abstract: Power supply efficiency may be provided. First, a total power supply capacity may be determined comprising a sum of a plurality of supply capacities respectively corresponding to a plurality of power supplies serving a plurality of components. Next, a load value corresponding to the plurality of components may be determined. A number of the plurality of power supplies may then be powered down. The number of power supplies powered down may comprise a value that may cause a remaining number of the plurality of power supplies serving the plurality of components to operate within an efficiency range.

Abstract: An image sensor includes; a pixel array including pixels providing pixel signals, a timing controller that controls exposure time for the pixels and generates a flag signal indicating a start and a stop for the exposure time, and a first connection pin configured to transfer the flag signal to a gyroscope sensor.

Abstract: An outer garment that can be fashionably acceptable for either business and/or casual use is provided. The outer garment can, optionally, include inner pocket(s). The inner pocket(s) are generally accessible from inner surface of the outer garment.

Abstract: Dummy patterns are generated for a region of an integrated circuit that is divided into buckets by obtaining a local pattern density for a respective bucket and adjusting a density of the dummy pattern for the respective bucket as a continuously variable function of the respective local pattern density and a target density for the region. By providing a continuously variable dummy pattern density, the desired density of the dummy pattern group may be adjusted precisely, to thereby reduce or eliminate loading effects. The density of the dummy pattern for the respective bucket may be calculated according to a formula in which the density of the dummy pattern is continuously variable. The dummy patterns may include features of fixed pitch and a size of the features of fixed pitch is increased or decreased as a continuously variable function of the respective local pattern density and the target density for the region.

Abstract: Embodiments of the present invention can provide systems, methods and/or computer program products that can obtain an effective pattern density of a layer of an integrated circuit from layout data that defines the layout. A grid of pattern cells is defined for the layout data. A respective pattern density is determined for a respective the pattern cell in the grid. An effective pattern density is calculated for a first pattern cell in the grid. The effective pattern density for the first pattern cell is a function of the pattern density of at least second pattern cell in the grid that is remote from (i.e. nonadjacent) the first pattern cell, and a distance of the at least a second pattern cell from the first pattern cell. Adjacent cells also may be included, and preferably are included, in the effective pattern density.

Abstract: Dummy patterns are generated for a region of an integrated circuit that is divided into buckets by obtaining a local pattern density for a respective bucket and adjusting a density of the dummy pattern for the respective bucket as a continuously variable function of the respective local pattern density and a target density for the region. By providing a continuously variable dummy pattern density, the desired density of the dummy pattern group may be adjusted precisely, to thereby reduce or eliminate loading effects. The density of the dummy pattern for the respective bucket may be calculated according to a formula in which the density of the dummy pattern is continuously variable. The dummy patterns may include features of fixed pitch and a size of the features of fixed pitch is increased or decreased as a continuously variable function of the respective local pattern density and the target density for the region.