You are on the right track
David,
You are on the right track. The most important thing about limiting BEMF is limiting input VOLTAGE. Magnetic field strength can be measured in either Gauss, or "ampere-turns". Notice it is not "watt-turns", as it does not actually require a specific number of watts to produce a specific strength of magnetic field. The DVD was produced 3.5 years ago, and since that time I have been working with a number of people on this concept. We have run hundreds of computer simulations on the method and developed very advanced designs, which I am not free to discuss here, because we have all signed NDAs.
I can tell you that the ideal motor, based on these principles, has a number of characteristics. These are:
1) The coil impedance of the system is quite low, to allow rapid charge and discharge of the coils.
2) The inductance changes very little through the power stroke, to maximize electrical recovery. The way this is accomplished, I cannot discuss.
3) The reluctance of the total magnetic circuit changes very little through the power stroke, as well.
4) Input supply voltage is kept to the lowest value possible by limiting BEMF in the input coils. The methods used to accomplish this, I cannot discuss.
5) Mechanical power production is managed by optimizing the timing, the size of the air-gap, and the total coercive force of the magnetic field across the air-gap, measured in Oersteds.
6) Capacitors are used in the electrical recovery circuitry.
If you think carefully through each of the parameters that must be accomplished, the motor designs itself.
Best of luck,
Peter
Originally posted by extace
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You are on the right track. The most important thing about limiting BEMF is limiting input VOLTAGE. Magnetic field strength can be measured in either Gauss, or "ampere-turns". Notice it is not "watt-turns", as it does not actually require a specific number of watts to produce a specific strength of magnetic field. The DVD was produced 3.5 years ago, and since that time I have been working with a number of people on this concept. We have run hundreds of computer simulations on the method and developed very advanced designs, which I am not free to discuss here, because we have all signed NDAs.
I can tell you that the ideal motor, based on these principles, has a number of characteristics. These are:
1) The coil impedance of the system is quite low, to allow rapid charge and discharge of the coils.
2) The inductance changes very little through the power stroke, to maximize electrical recovery. The way this is accomplished, I cannot discuss.
3) The reluctance of the total magnetic circuit changes very little through the power stroke, as well.
4) Input supply voltage is kept to the lowest value possible by limiting BEMF in the input coils. The methods used to accomplish this, I cannot discuss.
5) Mechanical power production is managed by optimizing the timing, the size of the air-gap, and the total coercive force of the magnetic field across the air-gap, measured in Oersteds.
6) Capacitors are used in the electrical recovery circuitry.
If you think carefully through each of the parameters that must be accomplished, the motor designs itself.
Best of luck,
Peter
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