This is a bit similar to what boguslaw in http://www.energeticforum.com/renewa...-charging.html thread. The difference is the source is normal power source and without coil.
This circuit purposes is to charge battery using capacitor charge at frequency as high as possible.
This is based loosely from Tom Bearden design in
20* Bedini
There is also explanation of capacitive discharge in Thomas Henry Moray book "Beyond the lightrays". It explain that if discharging is done at spesific frequency it would add up to previous charging and increase the output.
My short observation result is:
- It would charge the battery very good but it seems it charge normal electricity. Charging performance is better than Tesla switch, better than Joule thief, better than Imhotep RO.
- The transistor would not get hot if 12V source used to charge 12V battery.
- Input current increase proportionally with load / charged part.
- Capacitor voltage is at 11.12V when the charging battery is at 11.08V, source is 11.16V.
Both transistor in the circuit should not turn on at the same time. When 2N3055 turned on the capacitor will be charged. When MJ2955 turned on the capacitor will charge the battery. In theory the battery would only draw current from the capacitor, but in reality it also draw current from the source too.
Maybe what I did is charging the battery directly with source electricity. Maybe the transistor is not capable of switching fast enough and make it just flowing normal electricity at lower amp. The capacitor aid it a little. Any comment?
Edit: circuit diagram fixed
Second version of the circuit charge a lot slower but seems to work as expected? voltage of the charged battery is increasing with very little input amp draw at 0.01A.
Second circuit can also be used to ligth up CFL with the help of car coil. It can output a decent high voltage at secondary part. It also produce long spark as can be seen in this video:
YouTube - Capacitor discharge CFL lighter
This circuit purposes is to charge battery using capacitor charge at frequency as high as possible.
This is based loosely from Tom Bearden design in
20* Bedini
There is also explanation of capacitive discharge in Thomas Henry Moray book "Beyond the lightrays". It explain that if discharging is done at spesific frequency it would add up to previous charging and increase the output.
My short observation result is:
- It would charge the battery very good but it seems it charge normal electricity. Charging performance is better than Tesla switch, better than Joule thief, better than Imhotep RO.
- The transistor would not get hot if 12V source used to charge 12V battery.
- Input current increase proportionally with load / charged part.
- Capacitor voltage is at 11.12V when the charging battery is at 11.08V, source is 11.16V.
Both transistor in the circuit should not turn on at the same time. When 2N3055 turned on the capacitor will be charged. When MJ2955 turned on the capacitor will charge the battery. In theory the battery would only draw current from the capacitor, but in reality it also draw current from the source too.
Maybe what I did is charging the battery directly with source electricity. Maybe the transistor is not capable of switching fast enough and make it just flowing normal electricity at lower amp. The capacitor aid it a little. Any comment?
Edit: circuit diagram fixed
Second version of the circuit charge a lot slower but seems to work as expected? voltage of the charged battery is increasing with very little input amp draw at 0.01A.
Second circuit can also be used to ligth up CFL with the help of car coil. It can output a decent high voltage at secondary part. It also produce long spark as can be seen in this video:
YouTube - Capacitor discharge CFL lighter
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