Abstract: Compressor rotor structure and methodology for harmonizing compressor aerodynamics and rotordynamics are provided. Disclosed embodiments benefit from a compressor design effective for improving rotordynamics (e.g., stiffer rotor structure) without reducing a usable aerodynamics range of the compressor. This design may involve variation of the rotor structure along the rotor axis to locate respective surfaces defined by respective inlets of the one or more impellers at a varying distance relative to the rotor axis based on respective ratios selected for the configuration of the impeller bodies. This arrangement may be effective for improving rotordynamics while satisfactorily meeting the respective varying aerodynamics requirements at the various compression stages by the impeller bodies.

Abstract: The described embodiments relate to slotted substrates. One exemplary method forms a feature into a substrate, at least in part, by directing a laser beam at the substrate. During at least a portion of said directing, the method supplies a conductive material proximate the substrate.

Abstract: A method of laser machining a substrate is provided. The method comprises directing laser energy at a first surface of the substrate, while providing an assist medium at the first surface of the substrate at least at approximately the area at which the laser energy is being directed. The assist medium is no longer provided prior to completion of formation of a feature in the substrate created utilizing the laser energy.

Abstract: The described embodiments relate to slotted substrates. One exemplary method forms a feature into a substrate, at least in part, by directing a laser beam at the substrate. During at least a portion of said directing, the method supplies a conductive material proximate the substrate.

Abstract: The described embodiments relate to slotted substrates. One exemplary method forms a feature into a substrate, at least in part, by directing a laser beam at the substrate. During at least a portion of said directing, the method supplies a conductive material proximate the substrate.

Abstract: A method of laser machining a substrate is provided. The method comprises directing laser energy at a first surface of the substrate, while providing an assist medium at the first surface of the substrate at least at approximately the area at which the laser energy is being directed. The assist medium is no longer provided prior to completion of formation of a feature in the substrate created utilizing the laser energy.

Abstract: The described embodiments relate to slotted substrates. One exemplary method forms a feature into a substrate, at least in part, by directing a laser beam at the substrate. During at least a portion of said directing, the method supplies a conductive material proximate the substrate.

Abstract: The described embodiments relate to laser micromachining a substrate. One exemplary method includes forming a feature into a substrate, at least in part, by directing a laser beam at the substrate. During at least a portion of said forming, the method includes supplying liquid to at least a first region of the feature along a first liquid supply path and supplying liquid to at least a second different region of the feature along at least a second liquid supply path.

Abstract: In a bridged, pipelined network (FIG. 1), a network-to-host bridge (140) identifies the address space of a host computer (FIG. 2) as not being contained within the host computer memory space (120). During the removal of the host computer (100) and its replacement by a new host computer, the network-to-host bridge (140) momentarily locks out traffic (FIG. 3, step 320) in order to disable peripheral components (FIG. 1, 160, 180) from initiating bus transactions. When the new host computer is installed (FIG. 3, step 320) and the bus lockout is removed (step 340), the new host memory area is protected from direct memory access transactions which were stored in the bus hierarchy during the host computer swap.

Abstract: Disclosed is a novel multi-chamber ink-jet print cartridge (pen) that is formed of a main body member divided into three sections, a center section, and two side sections. Cover members are attached to this main body section to define three ink chambers. Each ink chamber contains a synthetic foam member that receives a respective one of three primary colored inks. The main body member is molded to be a single unitary part, so that the only ink-to-ink sealing interface between inks of different colors occurs at the interface between the main body member and the printhead. The main body member is formed to have a center ink pipe that extends upwardly into compressive contact with the foam member in the center chamber, and two side ink pipes that extend outwardly in a direction orthogonal to the center ink pipe into compressive contact with the foam held in the side ink chambers.

Abstract: An ink cartridge having an improved ink-retaining capacity. The cartridge (preferably of the thermal inkjet type) includes a housing having a multi-cellular foam member therein. To increase the ink-retaining capacity of the foam member, one or more elongate bores are positioned entirely through the foam member. Each bore is preferably uniform in cross-sectional size and configuration along its entire length, and may encompass numerous cross-sectional configurations (e.g. circular or rectangular). The longitudinal axis of each bore is preferably perpendicular to the longitudinal axis of the foam member. When the foam member is supplied with ink, an additional portion of ink is retained within each bore. As a result, the ink-retaining capacity of the foam member is increased compared with foam members which lack any bores. The bores function as internal ink reservoirs from which ink may be drawn during cartridge operation.