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An electrically driven motor, an electrical generator, a rotating electrical machine and method of operating, that includes a rotating rotor having an even number of alternating polarity permanent magnet poles and a stator with an odd number of evenly spaced alternating magnetic polarity electromagn

An electrically driven motor, an electrical generator, a rotating electrical machine and method of operating, that includes a rotating rotor having an even number of alternating polarity permanent magnet poles and a stator with an odd number of evenly spaced alternating magnetic polarity electromagnetic poles divided into an odd number of equal stator phase groups with a magnetically unbalanced orphan, pole from each stator phase group removed without re-spacing the remaining stator poles to produce a gap between stator phase groups that is greater than the spacing between adjacent poles in each stator phase group. The rotor can be a rotating external rotor or a stationary internal rotor and the stator can be a stationary interior stator or a rotating exterior stator.

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1. A rotating electrical machine comprising: a rotating rotor having an even number of alternating polarity permanent magnet poles; anda stationary stator divided into an odd number of evenly spaced pole positions, the odd number of pole positions divided into an odd number of equal stator phase gro

1. A rotating electrical machine comprising: a rotating rotor having an even number of alternating polarity permanent magnet poles; anda stationary stator divided into an odd number of evenly spaced pole positions, the odd number of pole positions divided into an odd number of equal stator phase groups each with an even number of adjacent alternating magnetic polarity electromagnetic active poles occupying an even number of phase group pole positions leaving a gap between each of the stator phase groups, a powering and controlling electronic circuit located in and mounted to the gap between each stator phase group, wherein the gap between adjacent stator phase groups is machined flat to allow the mounting of an electronics mounting plate and to allow the stator core surface to act as a heat sink for the electronics mounting plate. 2. The rotating electrical machine of claim 1, further comprising: a formulae to calculate a stator pole number and rotor pole number for a three phase machine according to one of (3Y+1)=X and (3Y−1)=X whereX=number of permanent magnetic poles in the rotor,Y=number of pole positions in each stator phase group,(Y−1)=number of active adjacent electromagnetic poles per phase group, andY=an odd integer not equal to one for the three phase machine. 3. The rotating electrical machine of claim 1 wherein the stationary stator comprises: one single stator divided into an odd number of evenly spaced pole positions, the odd number of pole positions divided into an odd number of equal stator phase groups each with an even number of adjacent alternating magnetic polarity electromagnetic active poles occupying an even number of phase group pole positions leaving a gap between each of the stator phase groups, the one single stator surrounding one single permanent magnet rotor having an even number of alternating polarity permanent magnets. 4. The rotating electrical machine of claim 1, wherein the stator comprises: an odd number of stator phase groups each fabricated separately and mounted to a non-magnetic hub using non-magnetic materials to magnetically isolate each stator phase group from each other for greater efficiency. 5. The rotating electrical machine of claim 4, further comprising: electrical windings around each one of the stator poles, the electrical windings having a common neutral terminal, each adjacent electrical winding alternately driven by a positive power source and a negative power source with the common neutral terminal of the positive and negative power sources connected to the stator pole electrical windings common neutral. 6. The rotating electrical machine of claim 4, wherein the stator includes one more magnetic stator pole spaces than in the number of rotor permanent magnet poles, and arranged so that the otherwise evenly spaced odd number of stator poles, in which the unbalanced poles are removed, and the remaining active poles are spread out from each other by an additional space up to 4% to allow the active poles more space for additional copper windings and larger copper windings. 7. The rotating electrical machine of claim 1 further comprising: a powering and controlling electronic circuit located in and mounted in the gap between each stator phase group. 8. The rotating electrical machine of claim 1, wherein the powering and controlling electronic circuit comprises: for each stator phase group, a Hall sensor to produce a timing signal located in the gap between each stator phase group away from the magnetic interference from the neighboring electromagnetic stator poles. 9. The rotating electrical machine of claim 1, wherein the machine is a generator and the powering and controlling electronic circuit comprises: a rectification electronic circuit located within the gap between adjacent stator phase groups. 10. The rotating electrical machine of claim 1, wherein the machine is a multi phase machine and the powering and controlling electronic circuit comprises: a conductor separately wound around each one of the stator poles of the multi phase machine as separate magnetic circuits that are not inter mingled for greater efficiency and reduced magnetic saturation. 11. The rotating electrical machine of claim 1, wherein the powering and controlling electronic circuit comprises: multiple Hall sensors to detect rotor position and speed, the Hall sensors located in and mounted to the gap between stator phase groups to generate variable timing signals that are available to an electronic drive circuit to optimize performance and efficiency for different speeds and directions of rotation. 12. The rotating electrical machine of claim 1, further comprising: a commutation electronic circuit located within the gap between adjacent stator phase groups. 13. The rotating electrical machine of claim 1 wherein the machine is connected to a hub of a vehicle wheel. 14. The rotating electrical machine of claim 1, wherein the rotor includes one less permanent magnet than the odd number of stator pole positions, and the active stator poles in each stator phase group are evenly spaced further apart than the dimension of the original odd number of stator pole positions, but less than that dimension of the next lower number of permanent magnet pole positions, to gain increased efficiency. 15. The rotating electrical machine of claim 1 wherein the gap between adjacent stator pole phases provides a cooling air channel and a wiring location for interconnected groups of active stator poles. 16. The rotating electrical machine of claim 1, wherein the stator includes an even number of stator poles in each stator phase group, each one of the stator phase groups wired to receive or generate power for one single phase in a multi-phase machine. 17. The rotating electrical machine of claim 1 further comprising: multiple Hall sensors located in the gap between adjacent stator phase groups to sense position and speed of the rotor permanent magnets. 18. A rotating electrical machine comprising: a rotating rotor having an even number of alternating polarity permanent magnet poles;a stationary stator divided into an odd number of evenly spaced pole positions, the odd number of pole positions divided into an odd number of equal stator phase groups each with an even number of adjacent alternating magnetic polarity electromagnetic active poles occupying an even number of phase group pole positions leaving a gap between each of the stator phase groups; anda formulae to calculate a stator pole number and rotor pole number for a five phase machine according to one of (5Y+1)=X and (5Y−1)=X whereX=number of permanent magnetic poles in the rotor,Y=number of pole positions in each stator phase group,Y=an odd integer not equal to one for the five phase machine, and(Y−1)=number of active adjacent electromagnetic poles in each stator phase group. 19. The rotating electrical machine of claim 18 wherein the stationary stator comprises: one single stator divided into an odd number of evenly spaced pole positions, the odd number of pole positions divided into an odd number of equal stator phase groups each with an even number of adjacent alternating magnetic polarity electromagnetic active poles occupying an even number of phase group pole positions leaving a gap between each of the stator phase groups, the one single stator surrounding one single permanent magnet rotor having an even number of alternating polarity permanent magnets. 20. The rotating electrical machine of claim 18 further comprising: a powering and controlling electronic circuit located in and mounted in the gap between each stator phase group. 21. The rotating electrical machine of claim 20, wherein the powering and controlling electronic circuit comprises: for each stator phase group, a Hall sensor to produce a timing signal located in the gap between each stator phase group away from the magnetic interference from the neighboring electromagnetic stator poles. 22. The rotating electrical machine of claim 20, wherein the gap between adjacent stator phase groups is machined flat to allow the mounting of an electronics mounting plate and to allow the stator core surface to act as a heat sink for the electronics mounting plate. 23. The rotating electrical machine of claim 20, wherein the machine is a multi phase machine and the powering and controlling electronic circuit comprises: a conductor separately wound around each one of the stator poles of the multi phase machine as separate magnetic circuits that are not inter mingled for greater efficiency and reduced magnetic saturation. 24. The rotating electrical machine of claim 20, wherein the powering and controlling electronic circuit comprises: multiple Hall sensors to detect rotor position and speed, the Hall sensors located in and mounted to the gap between stator phase groups to generate variable timing signals that are available to an electronic drive circuit to optimize performance and efficiency for different speeds and directions of rotation. 25. The rotating electrical machine of claim 18, further comprising: a commutation electronic circuit located within the gap between adjacent stator phase groups. 26. The rotating electrical machine of claim 18, wherein the machine is a generator and the powering and controlling electronic circuit comprises: a rectification electronic circuit located within the gap between adjacent stator phase groups. 27. The rotating electrical machine of claim 18, wherein the rotor includes one less permanent magnet than the odd number of stator pole positions, and the active stator poles in each stator phase group are evenly spaced further apart than the dimension of the original odd number of stator pole positions, but less than that dimension of the next lower number of permanent magnet pole positions, to gain increased efficiency. 28. The rotating electrical machine of claim 18 wherein the gap between adjacent stator pole phases provides a cooling air channel and a wiring location for interconnected groups of active stator poles. 29. The rotating electrical machine of claim 18, wherein the stator includes an even number of stator poles in each stator phase group, each one of the stator phase groups wired to receive or generate power for one single phase in a multi-phase machine. 30. The rotating electrical machine of claim 18 further comprising: multiple Hall sensors located in the gap between adjacent stator phase groups to sense position and speed of the rotor permanent magnets. 31. A generator comprising: a rotating rotor having an even number of alternating polarity permanent magnet poles;a stationary stator divided into an odd number of evenly spaced pole positions, the odd number of pole positions divided into an odd number of equal stator phase groups each with an even number of adjacent alternating magnetic polarity electromagnetic active poles occupying an even number of phase group pole positions leaving a gap between each of the stator phase groups; anda powering and controlling electronic circuit including a rectification electronic circuit located within the gap between adjacent stator phase groups. 32. A generator comprising: a rotating rotor having an even number of alternating polarity permanent magnet poles; anda stationary stator divided into an odd number of evenly spaced pole positions, the odd number of pole positions divided into an odd number of equal stator phase groups each with an even number of adjacent alternating magnetic polarity electromagnetic active poles occupying an even number of phase group pole positions leaving a gap between each of the stator phase groups, a powering and controlling electronic circuit located in and mounted to the gap between each stator phase group, wherein the gap between adjacent stator phase groups is machined flat to allow the mounting of an electronics mounting plate and to allow the stator core surface to act as a heat sink for the electronics mounting plate. 33. A multi phase machine comprising: a rotating rotor having an even number of alternating polarity permanent magnet poles;a stationary stator divided into an odd number of evenly spaced pole positions, the odd number of pole positions divided into an odd number of equal stator phase groups each with an even number of adjacent alternating magnetic polarity electromagnetic active poles occupying an even number of phase group pole positions leaving a gap between each of the stator phase groups;a powering and controlling electronic circuit located in and mounted to the gap between each stator phase group, the powering and controlling electronic circuit including a conductor separately wound around each one of the stator poles of the multi phase machine as separate magnetic circuits that are not inter mingled for greater efficiency and reduced magnetic saturation.