This simulation uses next to no watts from a 12 volt DC battery. In fact, it charges the battery at a rate of negative 1.4 nano watts to be precise. Its output is over 1 kV and around 26 micro amps (approximately 20 milli watts of power), continually, without much variation by comparison to my earlier attempts at simulating overunity.
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Quote...
"Overall, higher voltage systems will actually be more efficient and more cost-effective, whether DC or AC. Losses in electrical circuits are based on the amperage (electron flow). You can move more energy (kWh) with lower amperage by running it at higher voltage. This is why utility transmission lines run in the thousands of volts, and homes at 120/240 volts. Higher voltage means lower losses with the same size wire, or the same losses with much smaller wire. Copper wire is costly, so higher voltage saves you dollars up front, as well as energy losses throughout the life of the system."
https://www.homepower.com/articles/solar-electricity/design-installation/ask-experts-12-volt-power
https://is.gd/HVAC_COIL
https://is.gd/blankcanvas
Quote...
"Overall, higher voltage systems will actually be more efficient and more cost-effective, whether DC or AC. Losses in electrical circuits are based on the amperage (electron flow). You can move more energy (kWh) with lower amperage by running it at higher voltage. This is why utility transmission lines run in the thousands of volts, and homes at 120/240 volts. Higher voltage means lower losses with the same size wire, or the same losses with much smaller wire. Copper wire is costly, so higher voltage saves you dollars up front, as well as energy losses throughout the life of the system."
https://www.homepower.com/articles/solar-electricity/design-installation/ask-experts-12-volt-power
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