Means Industries, Inc.

Electric Power Research Institute Incorporated

Other

Balance Dynamics Corporation

Clear Path Energy, LLC

Advanced Propulsion Technologies, Inc.

Ecomotors International

Patrick James McCleer

John W Kimes

Terry O Hendrick

Jack S Lawler

Peter Hofbauer

Brian Kent Hackett

J Milton Bailey

William G Sharples

Tyler R Garrard

Adrian Tusinean

Arthur P McCleer

Natarajan Narasimhamurthi

An electronic, high-efficiency vehicular transmission, an overrunning, non-friction coupling and control assembly and switchable linear actuator device for use in the assembly and the transmission are provided. The device controls the operating mode of at least one non-friction coupling assembly. The device has a plurality of magnetic sources which produce corresponding magnetic fields to create a net translational force. The net translational force comprises a first translational force caused by energization of at least one electromagnetic source and a magnetic latching force based upon linear position of a permanent magnet source along an axis.

Electronic, high-efficiency vehicular transmission, overrunning, non-friction coupling and control assembly and switchable linear actuator device for use therein

Device and apparatus for controlling the operating mode of a coupling assembly, coupling and control assembly and electric motor disconnect and pass through assemblies are provided. The device is a switchable linear actuator device to control the operating mode of a coupling assembly. A plurality of magnetic sources produce corresponding magnetic fields to create a net translational force. A stator structure includes at least one electromagnetic source and a translator structure includes a permanent magnet source magnetically coupled to the stator structure across a radial air gap. The translator structure is supported for translational movement relative to the stator structure along an axis between first and second stable axial end positions which correspond to first and second operating modes of the coupling assembly and an unstable axial equilibrium position between the end positions. The translator structure translates along the axis between the different positions upon experiencing the net translational force.

Device and apparatus for controlling the operating mode of a coupling assembly, coupling and control assembly and electric motor disconnect and pass through assemblies

An electromechanical assembly to control the operating mode of a coupling apparatus is provided. The assembly includes a first subassembly including a stator having at least one electromagnetically inductive coil to create a magnetic flux when the at least one coil is energized. At least one bi-directionally movable rod has a free end adapted for connection to a strut of the coupling apparatus for selective, small displacement strut movement. An actuator is operatively connected to the at least one rod for selective bi-directional shifting movement along a rotational axis between a first position of the actuator which corresponds to a first mode of the coupling apparatus and a second position of the actuator which corresponds to a second mode of the coupling apparatus. A magnetic control force is applied to the actuator when the at least one coil is energized to cause the actuator to move between positions.

Electromechanical assembly to control the operating mode of a coupling apparatus

Direct drive rotating electrical machines with axial air gaps are disclosed. In these machines, a rotor ring and stator ring define an axial air gap between them. Sets of gap-maintaining rolling supports bear between the rotor ring and the stator ring at their peripheries to maintain the axial air gap. Also disclosed are wind turbines using these generators, and structures and methods for mounting direct drive rotating electrical generators to the hubs of wind turbines. In particular, the rotor ring of the generator may be carried directly by the hub of a wind turbine to rotate relative to a shaft without being mounted directly to the shaft.

Axial gap rotating electrical machine

An electromechanically actuated coupling and control assembly is provided. In one embodiment, an overrunning clutch and control assembly having first and second operating modes is provided. The clutch and control assembly includes first and second clutch members supported for rotation relative to one another about a common rotational axis. The first and second clutch members have respective coupling faces that oppose each other. The coupling face of one of the clutch members has a pocket. The coupling face of the other clutch member has a locking formation. The assembly further includes a strut received within the pocket in the coupling face of the one clutch member and has an end that is pivotally movable outwardly of the pocket. The assembly still further includes a biasing spring. The assembly further includes an electromechanical apparatus including an actuator mounted for controlled linear reciprocating motion and in communication with the pocket. The assembly still further includes communication apparatus for wirelessly communicating electrical power from a source of electrical power to the electromechanical apparatus to cause the actuator to linearly move and pivot the strut end against the bias of the spring from a first position which corresponds to the first operating mode to a second position which corresponds to the second operating mode.

Electromechanically actuated coupling and control assembly

An electrical generator utilizing two internal combustion engine having an expanded range of power output is disclosed. A primary internal combustion engine is coupled to the magnet rotor assembly. The primary engine is operated solely in a lower power range. A secondary engine, coupled to a coil assembly is locked in place in such lower power range to make the coil assembly stationary. In a higher power range, that overlaps the lower power range, the secondary engine is unlocked and operated to rotate in a counter-rotating direction with respect to the first engine. The secondary engine can be started by operating the generator (consisting of the magnet rotor assembly and the coil assembly) as a motor by appropriate application of current.

Electrical generator

The present invention is a rotary device that may be adapted for use as a propeller assembly and electrical generator for aerial vehicles or other vehicles intended for fluid media. In one example, the device includes a ring assembly having a plurality of centrally linked blades coupled to a rotatable common hub. Rotary motion of the ring assembly is facilitated by coupling it to an opposed cylinder, opposed piston, internal combustion. The ring assembly includes components of an electrical power generating system so that electrical power is produced from the rotation of the ring assembly.

Ring generator

A multiple phase heteropolar inductor electrical machine utilizing relatively movable stators and rotors wherein the rotors include electrical winding for producing electricity. The stators and rotors are spaced as to produce an electrical balancing among the machine phases. Preferably, a balance is achieved in the energy conversion process as measured over any given one-half electrical cycle within that phase. The machine substantially achieves equal and balanced peak torque per amp performance within a half cycle of operation of any given phase through the spacing between the stator and elements.

Brushless heteropolar inductor machine

A new class of higher phase-order (five or more) quasi square-wave back emf permanent magnet machines including radial, axial and linear embodiments which employ a greater number of active phase windings during continuous operation, thereby utilizing more of the machine copper and magnet material.

Quasi square-wave back-EMF permanent magnet AC machines with five or

A method and apparatus is disclosed for transferring electrical power to a balancer 14 without the need for a physical connection between the balancer and the power source 16 or the controller 12 and which also provides for data communication between a balancer 14 and a balancer controller 12.

Apparatus for the transfer of electrical power to a balancer

A method for smoothing the torque characteristics of a multi-phase PM synchronous machine by controlled driving with a conventional voltage source inverter operated in accordance with a predetermined switching sequence wherein the sum of the excitation voltages applied to the incoming phase winding and outgoing phase winding are maintained constant at a predetermined value for the duration of each commutation period. In addition, the individual excitation voltages applied to the remaining phase active windings are also held constant during the commutation period.

Growing community of inventors

Jackson, MI, United States of America

Patrick James McCleer