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Originally posted by timmhaines
reply to post by timmhaines
Appears 512khz is the frequency you want. It also happens to be a human body frequency.
Originally posted by naycalvert
All I can say is keep an open mind!
Disclaimer - I have no intention of building an over unity or free energy device. I know what happens to people who go down that path!
Originally posted by misterbeefy
Originally posted by Shirak
Good job. You can increase the voltage by connecting more that one of these in SERIES with each other. You can retain the additional current by connecting some more in PARALLEL to the ones you already have in SERIES. Example:
2 circuits in series produces 14v .1 amp
Create 2 more of these and connect them in series as well for identical results. Now you have 2 circuits producing the said 14v .1 amp EACH.
Now connect the 2 "combined" circuits in parallel. This will give you the same voltage (14v) but DOUBLE your current. Now you have 14v and .2 amp, from a total of 4 of these circuits.
Try it with a total of 6 connected in a 3x3 configuration and you would have 21v and .3amp or 300 mA.
Keep in mind that each circuit would need the same antenna length/diameter, etc.
Another thing to consider is that your typical 12v car battery needs about 15.7 volts being fed to it to be able to charge. You could add some resistors to the circuit in parallel as well to balance out your voltage, while increasing the current.
Hope this helps.
ha ha, he's not going to get more voltage by doubling the circuits.....this isn't the same as a car battery where car batteries have a certain amount STORED in them, this thing is only able to get what it gets out of the air period....
Originally posted by misterbeefy
Originally posted by misterbeefy
Originally posted by Shirak
Good job. You can increase the voltage by connecting more that one of these in SERIES with each other. You can retain the additional current by connecting some more in PARALLEL to the ones you already have in SERIES. Example:
2 circuits in series produces 14v .1 amp
Create 2 more of these and connect them in series as well for identical results. Now you have 2 circuits producing the said 14v .1 amp EACH.
Now connect the 2 "combined" circuits in parallel. This will give you the same voltage (14v) but DOUBLE your current. Now you have 14v and .2 amp, from a total of 4 of these circuits.
Try it with a total of 6 connected in a 3x3 configuration and you would have 21v and .3amp or 300 mA.
Keep in mind that each circuit would need the same antenna length/diameter, etc.
Another thing to consider is that your typical 12v car battery needs about 15.7 volts being fed to it to be able to charge. You could add some resistors to the circuit in parallel as well to balance out your voltage, while increasing the current.
Hope this helps.
ha ha, he's not going to get more voltage by doubling the circuits.....this isn't the same as a car battery where car batteries have a certain amount STORED in them, this thing is only able to get what it gets out of the air period....
And why wouldn't he? If he built IDENTICAL circuits, placing the antennas side by side, pointing in the same direction, made of the same materieals, etc., then he should obtain the same amount of radiant energy in circuit 2 as he would in circuit 1, thus doubling the voltage. The radiant energy isn't going to suffer a voltage drop just because he has one circuit tuned into it. Listen to your own statement, a car battery has a CERTAIN AMOUNT stored in them, radiant energy doesn't.edit on 17-8-2011 by misterbeefy because: (no reason given)
Originally posted by Pilgrum
If you build this 'radiant energy' receiver and manage to tap into sources within your home which is very doable on a small scale, you're not really getting free energy if the sources are mains powered devices because you'll be getting metered for what ever energy you receive. It's only 'free' for you if you tap into someone else's source and then you're technically taking their energy without paying for it which might result in legal problems if you get enough to be noticed. Let's say you manage to magnetically couple to the field surrounding a power line, every bit of power you divert through your device has to be supplied at the source end of that line IE none of it is actually free and you're simply taking that energy without compensating the actual owner(s) of it.
Not to put a damper on the experimenter spirit but that does need to be kept in mind if you plan to use someone else's property without paying them for it. Significant success could result in some nasty litigation.edit on 17/8/2011 by Pilgrum because: (no reason given)
Originally posted by Pilgrum
If anyone wants to experiment with a simple 'joule thief' circuit, here's the one I've been using that lights up a 3.6V high brightness white LED from a flattish single cell battery. It works as long as the battery can provide a voltage in excess of the transistor's Vbe and a simple modification with a solar cell turns it into a solar powered day/night sensing lamp - essentially an automatic garden light that collects its energy during the day (battery needs to be a rechargable 1.2V NiCd or NiMH of course).
Basic 'Joule thief'
With solar option which is a true application of 'free' energy storage (from the sun):
No magic here, just an interesting arrangement for experimenting. The transformer is very simple being 10 turns bifilar wound on a very small ferrite toroid and even the number of turns is not critical (5 will probably work). The output voltage is regulated by the breakdown voltage of the LED so any small LED can be driven by the blocking oscillator successfully. The 1 ohm resistor in series with the LED is only for limiting the peak inrush current when it 'fires'. Might be interesting to check the waveform out with a CRO if you have access to one.
An idea for experimenting: modify the number of turns on the winding and the output voltage can be increased EG this oscillator should be capable of say, making a substitute for a 9V battery but powered by a single cell (1.5V) battery.
edit on 17/8/2011 by Pilgrum because: (no reason given)