Abstract: A method for designing an integrated circuit by a user, including: evaluating noise parameters for design elements of an integrated circuit design; determining if the noise parameters meet noise constraints of the integrated circuit design; and if the noise parameters do not meet the noise constraints, selecting alternative design elements having noise parameters that do meet the noise constraints.

Abstract: A method for designing an integrated circuit by a user, including: evaluating noise parameters for design elements of an integrated circuit design; determining if the noise parameters meet noise constraints of the integrated circuit design; and if the noise parameters do not meet the noise constraints, selecting alternative design elements having noise parameters that do meet the noise constraints.

Abstract: A structure and method for a field effect transistor capable of handling high currents, comprises interleaved source and drain diffusion regions with drain diffusion contacts to a first metal level over the drain diffusions only; while a second metal level covers the full width of the device and takes current out of the source in a primarily vertical direction.

Abstract: A structure and method for a field effect transistor capable of handling high currents, comprises interleaved source and drain diffusion regions with drain diffusion contacts to a first metal level over the drain diffusions only; while a second metal level covers the full width of the device and takes current out of the source in a primarily vertical direction.

Abstract: A structure and method for a field effect transistor capable of handling high currents, comprises interleaved source and drain diffusion regions with drain diffusion contacts to a first metal level over the drain diffusions only; while a second metal level covers the full width of the device and takes current out of the source in a primarily vertical direction.

Abstract: A structure and method for a field effect transistor capable of handling high currents, comprises interleaved source and drain diffusion regions with drain diffusion contacts to a first metal level over the drain diffusions only; while a second metal level covers the full width of the device and takes current out of the source in a primarily vertical direction.

Abstract: A cartridge valve assembly (19) including a sleeve valve (49) fixed within a valve housing (17), and a spool valve (47) moveable both axially and rotatably within the sleeve valve. Rotation of an input (35,39) causes rotation of a cam member (43) and the spool valve, and the engagement of the cam member (43) with a cam surface (57) results in axial movement of the spool valve within the sleeve valve. The spool and sleeve valves define a neutral axial and rotational position (FIG. 5), and rotation from neutral in a first direction (FIG. 6) communicates fluid from an inlet port (21) to a first actuator port (25), and rotation from neutral in a second direction (FIG. 7) communicates fluid from the inlet port to a second actuator port (27). In either case, the axial movement of the spool valve (47), relative to the sleeve valve (49) is the same. The spool valve defines a load holding land (97) which, in the neutral position (FIG.

Abstract: A pump assembly (33) including a cartridge valve assembly (39) having a poppet member (69) biased toward a closed position (FIG. 4) when a pilot portion (51) is closed, under the influence of an electromagnetic actuator (53), so that flow entering an inlet port (65) flows out an outlet opening (61). When the actuator (53) is not energized (FIG. 1), a pilot poppet (89) and armature (93) are biased to an open position (FIG. 5) by a pilot spring (94), so that fluid in the inlet port (65) flows through an orifice (71) in the poppet member (69) and through the pilot portion (51) to a system reservoir (R), creating a pressure differential across the poppet member (69), and opening a tank port (67). Flow is then from the inlet port (65) to the tank port (67), thus operating in a "bypass" mode. Under excessive inlet pressure, the pilot portion (51) also serves a pressure relief function.