Retired Physics Professor, Steven E. Jones is working on a simple overunity circuit that he has seen go as high as 20 times overunity; documented on a state-of-the-art Tektronix 3032 oscilloscope at Brigham Young University producing eight times as much energy as was required to run the solid state circuit. One of his friends, Les Kraut, has replicated the circuit and also achieved eight times overunity.
As a second and more simple test, Steve let the circuit run overnight, powering an LED bulb; and nine hours later, the input battery was still at the same measured voltage as it has been at the beginning, it used so little power. Normally that would drain the AA battery quite a bit.
It's just a small amount of power we're talking about - in the hundreds of milliwatts range (just under a Watt), but it's a start.
What is significant about this is 1) the credibility and reputation of Dr. Jones, being something that academic types won't be able to ignore; 2) the rigor of the testing, given the measurement equipment he has access to; 3) the simplicity of the circuit, which is actually open source; 4) the low cost of the circuit components, making it easy to be replicated.
"I don't know where the energy is coming from, but it's coming from somewhere," he said.
The circuit is a derivation of the "Joule Thief" circuit or a "blocking oscillator". His variation has an LC-circuit feeding into the base of the transistor (which is unusual) which regulates the resonant frequency of the device. He calls this circuit a "boost resonator" because it resonates at a certain frequency, and since the evidence shows that it somehow boosts the input power. "I also found a way to 'tune' the efficiency, n, and to reduce the net input power to nearly zero."
It's a small world, isn't it?
It's going to be an open source project with diagrams, plans and kits available on a PESwiki page coming soon to a web page near you!
Check out the video.