In my quest to understand and reproduce the famous (or perhaps infamous) Don Smith device, I have taken the approach of carefully investigating the physics behind it, testing configuration after configuration looking for evidence of anomalous behavior. The actual source of overunity energy in all of Don's devices (except perhaps the magnetostriction device) is the "Don Smith Effect", which he described in a separate very short document that is totally incomprehensible. Don stated that "only moron level intelligence" was necessary to understand it because it's so amazingly simple, and yet his explanation and diagrams have defied all attempts to make sense of them.
I have now reproduced the Don Smith Effect, and it is indeed amazingly simple. Once you understand it, it becomes obvious how Don's other devices work. To reproduce the Don Smith Effect on your own workbench, you will need:
-A high voltage high frequency power source of some kind. A flyback driver is ideal.
-A battery to drive the flyback.
-A diode on the battery positive lead. Don called this a "kickback diode", but it has nothing to do with classic inductive kickback suppression. What it actually does is turn the whole battery into the positive half of an avramenko plug/cap arrangement for converting HV/HF into DC.
-An earth ground for the flyback.
That's it. I used the top cover of an old dead computer power supply as a way to make sure there is plenty of capacitive coupling between the flyback output and the battery case. Use caution, because when the circuit is operating it's at high voltage and will shock you. Keep all low voltage wires well away from the exposed HV.
What you should expect: at first, the battery will run down somewhat as there isn't any cold/radiant energy stored in the battery yet. I had two small 12V gel-cells to try it with and the first one only took a few seconds to start self-charging. The second one took about a minute. Both batteries were partially conditioned on a Bedini/Ufopolitics style inductive kickback pulse charger with repeated charge and discharge cycles and both were almost completely discharged. With a new gel cell or one that's only ever been charged with hot electricity, seeing the effect could take quite a while, because the battery will probably have to run almost completely down, draining the "hot" electricity out so it can be replaced with the cold/ambient/radiant power as it's self charging in the ambient field of the flyback.
Once the Don Smith Effect kicks in, the battery voltage will stop going down. Depending on the particulars of your rig, it may even start going up. Keep a close watch because it can go up surprisingly high, within 5 minutes mine started exceeding the 20V range on my cheapo voltmeter. It's also hard to get good readings while the rig is running due to the HV.
Congratulations! You now have a closed-loop self-runner with ambient feedback. This is the input stage to the regular Don Smith device. For additional fun, attach a cap with avramenko to the HV part of the circuit and use that to do something useful like light a lamp or charge a battery. Then see how much power you can draw while the battery maintains voltage. I haven't spent much time optimizing for power output but I can achieve a continuous 1 watt output easily. While I doubt you will achieve kilowatts of output this way, I suspect 10 watts or perhaps even much more is achievable.
I have included a picture of this configuration. Please excuse the messy workbench and all the other extraneous components. The only components in this configuration are as described. The diode is an STTH3010 30A, 1000V, ultrafast diode. This is overkill, and probably even something like a UF4007 would work and even a 1N400X series might be OK too. Experiment with what you have on hand.
The keys to understanding the Don Smith Effect are that the battery or cap receives an ambient/cold/radiant charge due to its being charged while in an HV field. Then when this special electricity is passed through a transformer, the transformer runs overunity and Lenz's law is reduced. At higher power levels the transformer should run noticeably cold, but I haven't reproduced this effect yet. To draw excess power from this circuit you should tap it from the HV side, after the flyback transformer, not from the battery DC side which has not gone through the transformer yet.
You're welcome, and please report your results here.
I have now reproduced the Don Smith Effect, and it is indeed amazingly simple. Once you understand it, it becomes obvious how Don's other devices work. To reproduce the Don Smith Effect on your own workbench, you will need:
-A high voltage high frequency power source of some kind. A flyback driver is ideal.
-A battery to drive the flyback.
-A diode on the battery positive lead. Don called this a "kickback diode", but it has nothing to do with classic inductive kickback suppression. What it actually does is turn the whole battery into the positive half of an avramenko plug/cap arrangement for converting HV/HF into DC.
-An earth ground for the flyback.
That's it. I used the top cover of an old dead computer power supply as a way to make sure there is plenty of capacitive coupling between the flyback output and the battery case. Use caution, because when the circuit is operating it's at high voltage and will shock you. Keep all low voltage wires well away from the exposed HV.
What you should expect: at first, the battery will run down somewhat as there isn't any cold/radiant energy stored in the battery yet. I had two small 12V gel-cells to try it with and the first one only took a few seconds to start self-charging. The second one took about a minute. Both batteries were partially conditioned on a Bedini/Ufopolitics style inductive kickback pulse charger with repeated charge and discharge cycles and both were almost completely discharged. With a new gel cell or one that's only ever been charged with hot electricity, seeing the effect could take quite a while, because the battery will probably have to run almost completely down, draining the "hot" electricity out so it can be replaced with the cold/ambient/radiant power as it's self charging in the ambient field of the flyback.
Once the Don Smith Effect kicks in, the battery voltage will stop going down. Depending on the particulars of your rig, it may even start going up. Keep a close watch because it can go up surprisingly high, within 5 minutes mine started exceeding the 20V range on my cheapo voltmeter. It's also hard to get good readings while the rig is running due to the HV.
Congratulations! You now have a closed-loop self-runner with ambient feedback. This is the input stage to the regular Don Smith device. For additional fun, attach a cap with avramenko to the HV part of the circuit and use that to do something useful like light a lamp or charge a battery. Then see how much power you can draw while the battery maintains voltage. I haven't spent much time optimizing for power output but I can achieve a continuous 1 watt output easily. While I doubt you will achieve kilowatts of output this way, I suspect 10 watts or perhaps even much more is achievable.
I have included a picture of this configuration. Please excuse the messy workbench and all the other extraneous components. The only components in this configuration are as described. The diode is an STTH3010 30A, 1000V, ultrafast diode. This is overkill, and probably even something like a UF4007 would work and even a 1N400X series might be OK too. Experiment with what you have on hand.
The keys to understanding the Don Smith Effect are that the battery or cap receives an ambient/cold/radiant charge due to its being charged while in an HV field. Then when this special electricity is passed through a transformer, the transformer runs overunity and Lenz's law is reduced. At higher power levels the transformer should run noticeably cold, but I haven't reproduced this effect yet. To draw excess power from this circuit you should tap it from the HV side, after the flyback transformer, not from the battery DC side which has not gone through the transformer yet.
You're welcome, and please report your results here.
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