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A rotary electric machine for a hybrid vehicle includes a rotor connected between a vehicle engine and a torque transmission mechanism at the back of the vehicle engine and a stator. The rotor includes an outer rotor portion having an inner surface electro-magnetically connected to the outer surface

A rotary electric machine for a hybrid vehicle includes a rotor connected between a vehicle engine and a torque transmission mechanism at the back of the vehicle engine and a stator. The rotor includes an outer rotor portion having an inner surface electro-magnetically connected to the outer surface of the stator, an inner rotor portion having an outer surface electro-magnetically connected to the inner surface of the stator. The stator includes a stator core disposed between the inner rotor portion and the outer rotor portion and a multi-phase winding wound on the stator to be electro-magnetically connected with both the outer and inner rotor portions.

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A rotary electric machine for a hybrid vehicle includes a rotor connected between a vehicle engine and a torque transmission mechanism at the back of the vehicle engine and a stator. The rotor includes an outer rotor portion having an inner surface electro-magnetically connected to the outer surface

A rotary electric machine for a hybrid vehicle includes a rotor connected between a vehicle engine and a torque transmission mechanism at the back of the vehicle engine and a stator. The rotor includes an outer rotor portion having an inner surface electro-magnetically connected to the outer surface of the stator, an inner rotor portion having an outer surface electro-magnetically connected to the inner surface of the stator. The stator includes a stator core disposed between the inner rotor portion and the outer rotor portion and a multi-phase winding wound on the stator to be electro-magnetically connected with both the outer and inner rotor portions. minum, The 7th International Conference on Solid-State Sensors and Actuators (No date), pp. 958-961. Petersen, Silicon Torsional Scanning Mirror, (Sep. 1980) IBM J. Res. Develop., vol. 24, No. 5. Kleiman et al., Single-Crystal High-Q Torsional Oscillators, The American Institute of Physics (1985), pp. 2088-2091, Rev. Scl. Instrum. 58 (11). Buser et al. Very High Q-factor Resonators in Monocrystalline Silicon, (1990), Sensors and Actuators, pp. 323-327. Breng et al., Electrostatic Micromechanic Actuators, Micromechanical Microengineering 2 (1992), pp. 256-261, IOP Publishing Ltd., UK. Elwenspoek et al., Active Joints for Microrobot Limbs, J. Micromechanical Microengineering 2 (1992), pp. 221-223, IOP Publishing Ltd., UK. Jaecklin et al., Optical Microshutters and Torsional Micromirrors for Light Modulator Arrays (1993), IEEE. Apte et al., Deformable Grating Light Valves for High Resolution Displays, Solid-State Sensor and Actuator Workshop, (Jun. 1994), pp. 1-6. Storemnt et al., Dry-Released Process for Aluminum Electrostatic Actuators, Solid State Sensor and Actuator Workshop (Jun. 1994), pp. 95-98. Petersen, Single Crystal Silicon Actuators and Sensors Based On Silicon Fusion Bonding Technology, Advanced Research Projects Agency, Semi-Annual Progress Report 1 (Jun. 1994), pp. 1-13, Lucas Nova Sensor, Fremont, California. Petersen, Single Crystal Silicon Actuators and Sensors Based On Silicon Fusion Bonding Technology, Advanced Research Projects Agency, Semi-Annual Progress Report 2 (Jan. 1995), pp. 1-18, Lucas Nova Sensor, Fremont, California.