QUOTE(Celumnaz @ May 22 2006, 09:34 AM) [snapback]1200711[/snapback]
Why is the car a bad idea again?
Got to get the power to separate h and o somewhere. One fellow, as I understand it, used the gas in an IC engine, but instead of using the expansion (since the actual heat produced wasn't much) he used the contraction of the h-o to water when burned. Didn't work too well.
Once again, as many people (some who do know and some who do not), to develop a usable, fuel efficient vehicle, one must be esoteric. Common methods won't quite cut it, so a new or different method must be used.
It makes no sense whatever to use electical power to convert water to split fuel (oxidant and oxidizer) and then burn it to achieve mechanical power, OK? If electrical power is to be used, cut out the middleman (hydrogen-oxygen) and go directly to electric. The fact is that e-force to m-force conversion is far more efficient than even the finest improvements to internal combustion. Further, the entire e-field/h-field phenomena is not entirely understood by anyone.
Some say they understand it, using Maxwellian theory. But Maxwell excludes free charges/fields (no, don't comment otherwise until you understand what I just stated). Maxwell et al do NOT account for Heaviside/Poynting findings, to simplify and make Maxwellian theory acceptable and calculable. Heaviside is ignored.
As the skeptics will say, undoubtedly, " you can't get something for nothing". While this is reasonably close to the truth, the facts of the matter still remain: scalar potentials are completely ignored, as is the law of conservation of matter and energy (in the macro sense), and also particle physics. You see, our science of electronics and electrical phenomena is quite limited.
We do not account for any of the unique fields, both production of and collapse of, except in a practical sense. In theory, these are essentially ignored.
If one makes a mathematical model of a conversion system, electric to mechanical, and fully accounts for all energy input, one finds that the only conversion losses are heat losses (more commonly known as copper losses) in producing the magnetic fields, flux losses due primarily to gaps, and frictional losses. These are heat conversions, and if design is proper, these can be minimized. What is completely ignored is the fact that fields collapse to balance the circuit.
Think of it this way: you can't get something from nothing, but neither can you make something into nothing.
Don't go to some fool engineering department at some fool school to learn about this: go to someone who does motors for a living, or designs controls using solenoids, and so forth. You will find little in the books, for the above reasons. People who write textbooks don't have the practical experience of dealing with the real world. Find material from companies that do these things, for they do have the experience.
The world of physics tends to sell short on the world of electrical phenomena; to find some more interesting stuff, visit JLN Labs website. This may open some eyes.