Abstract: A differential gear mechanism includes a differential case, a first and second side gear, a first, second and third pinion gear and a center block. The differential case can define a first, second and third counterbore formed therearound. The differential case rotates around an axis of rotation. Each cross-pin can have a cylindrical pin body that extends between first and second ends. The first, second and third pinion gears intermesh with the first and second side gears to form a torque transfer arrangement. The center block can have a cylindrical body that defines a first, second and third locating feature thereon. The center block can be disposed between the first and second side gears. Each first end of a respective cross-pin is received by a corresponding counterbore of the differential case. Each second end is received by a corresponding locating feature of the center block.

Abstract: An oil control valve assembly includes a valve body and a controller coupled to an exterior end of the valve body. The controller includes a solenoid housing attached to the exterior end of the valve body, and defines an interior region. An encapsulated coil assembly is disposed within the interior region of the solenoid housing. A housing seal is disposed within the interior region of the solenoid housing, in sealing engagement with the solenoid housing, the valve body, and the encapsulated coil assembly. The housing seal is operable to seal the interior region of the solenoid housing to prevent fluid communication between the solenoid housing and the valve body. An adapter assembly is coupled to the valve body to reposition a discharge location of a supply port, a control port, and an exhaust port of the valve body along a longitudinal axis of the valve body.

Abstract: An apparatus includes a first enclosure configured to be mounted on a first wall of a bus duct and housing at least one circuit protective device and a connector assembly configured to engage an outlet of the bus duct of the first wall of the bus duct. The apparatus further includes a second unit including a second enclosure mounted on the first enclosure and housing at least one metering device and wiring passing between the first and second enclosures.

Abstract: An air bleed valve having a housing with hydraulic fluid therein and a first acoustic wave sensor mounted within the housing so as to be covered in the hydraulic fluid and a second acoustic wave sensor mounted within the housing so that it can detect when air is present in the housing sufficient to be vented outside upon the opening of an air vent valve and where both the first acoustic wave sensor and the second acoustic wave sensor and the air vent valve are electrically connected to a air bleed controller. In a preferred embodiment, the first and second acoustic wave sensors are of the type known as a shear horizontal surface acoustic sensor.

Abstract: A system and method for controlling an AC motor drive includes a control system programmed with an energy algorithm configured to optimize operation of the motor drive. Specifically, the control system input an initial voltage-frequency command to the AC motor drive based on an initial voltage/frequency (V/Hz) curve, receives a real-time output of the AC motor drive generated according to the initial voltage-frequency command, and feedback a plurality of modified voltage-frequency commands to the AC motor drive, each of the plurality of modified voltage-frequency commands comprising a deviation from the initial V/Hz curve. The control system also determines a real-time value of the motor parameter corresponding to each of the plurality of modified voltage-frequency commands, and feeds back a modified voltage-frequency command to the AC motor drive so that the real-time value of the motor parameter is within a motor parameter tolerance range.

Abstract: A home wellness system includes a headless base station having a first wireless communication port, a portable fob having a second wireless communication port, a user input device and a display, and plurality of sensors. Each of the sensors senses information and includes a third wireless communication port, which sends the sensed information to the first wireless communication port of the headless base station. The headless base station sends the sensed information for one, some or all of the sensors from its first wireless communication port to the second wireless communication port of the portable fob. The portable fob displays the sensed information for one, more or all of the sensors at its display.

Abstract: A support structure is connected with a base and supports a carrier for movement along a linear path relative to the base. The base includes inner and outer panels. A pair of Hall effect devices are mounted on the inner panel. A magnet is mounted on the carrier. An actuator member is mounted on the outer panel and extends through the inner and outer panels into engagement with the carrier. The actuator member is movable relative to the inner and outer panels to move the carrier and magnet relative to the Hall effect devices. The support structure includes a generally U-shaped support member having a pair of legs which are connected with the inner panel. The carrier is disposed between the legs of the U-shaped support member. The carrier is supported for movement relative to the Hall effect devices by tracks which are disposed on the legs of the U-shaped support member and extend parallel to the inner panel.

Abstract: A brake shoe assembly is formed by precision stamping a net shaped web blank out of steel forming a series of tabs projecting outward therefrom, stamping a corresponding table member provided with tab receiving apertures, and bending the table member into a semi-cylindrical segment. The web blank and the table are assembled causing the web tabs and table apertures to be interlocked securely locating the parts temporarily together. The cooperating tabs and projections are then permanently joined together using a hot staking process which quickly heats, radially deforms and self quenches the tab to metallurgically strength the joint.

Abstract: An amplitude-control system for a signal generator corrects for variations that occur in the amplitude of output signal upon changing of the specified frequency. It also corrects for errors that occur (due to non-linearity) in the amplitude of its output signal upon changing of the specified amplitude. The amplitude-control system performs both of the amplitude corrections simultaneously and very rapidly by means of an arrangement that employs mostly hardware and very little software. Look-up tables that are stored in memories are read directly instead of by a CPU, and a resulting control signal sets the gain of an amplifier that has voltage-controllable gain. The amplifier amplifies the uncorrected output of the signal generator so as to provide an output signal of corrected amplitude. Calibration is accomplished by automatically or semi-automatically by loading correction data into the memories to form look-up tables.