Joule Thief

[xee2]

@ jeanna and anyone else interested

You will get the most voltage if all of your secondary coil turns go around the toroid in the same direction. If you take one side of the toroid and call it the top, then all turns should go from the outside of the toroid to the inside of the toroid when seen from the top (or all turns can go from the inside of toroid to the outside, either way as long as all turns are going the same way). If you use two layers for your coils, then both layers should go around the toroid in the same direction. Just bring the wire for the second layer back to the start of the first layer and start the second layer right on top of the start of the first layer. When the two layer are wound in opposite directions the current induced in one layer will be going in the opposite direction to the current induced in the other layer and they will try to cancel.

[WilbyInebriated]

    In the power =  voltage times amps let us not forget the time factor.  If you can get the voltage and amps flowing a million times a second it screws around alot more with the status quo distribution of charge and it's magnetic field disruption when the charges move.  (charges can move without mass moving by the way).
This phenomenon is so disruptive that it will radiate the power out of the system in the form of heat or emwaves unless provisions are made to confine this gain in energy to the field in question.

wouldn't that be a frequency of 1MHz? are you suggesting we will see something special at 1MHz?

[sparks]

    Volts is the pressure differential say between a faucet tap and the open end of the hose.  Then there is the current which is the flow of the water from the tap to the end of the hose.  Now we can open and close the valve real fast and we all know that the hose will kick.  Because this is when the voltage or pressure differential  is at a maximum and the amps or flow will be the greatest and the resistance of the hose the least.  Now if we just leave the valve open the hose saturates and the voltage is now distributing itself along the length of the hose and slowly causing the hose to inflate and frictional losses and the need for alot of pressure.  But what if we can store the energy of the hose kicking and make it kick real fast.

[WilbyInebriated]

    Volts is the pressure differential say between a faucet tap and the open end of the hose.  Then there is the current which is the flow of the water from the tap to the end of the hose.  Now we can open and close the valve real fast and we all know that the hose will kick.  Because this is when the voltage or pressure differential  is at a maximum and the amps or flow will be the greatest and the resistance of the hose the least.  Now if we just leave the valve open the hose saturates and the voltage is now distributing itself along the length of the hose and slowly causing the hose to inflate and frictional losses and the need for alot of pressure.  But what if we can store the energy of the hose kicking and make it kick real fast.

sounds good in theory, how do you plan to put it into reality?

[sparks]

     @Wilby

     The hose moving is liken to an emwave.  So I need an observer of the emwave energy that is normally radiated and vibrates every single atom on it's way.  I'm working with microwave excited plasma and feeding stuff like water vapor into the pinch zone.  Having a hell of a time trying to figure out where the water goes.  Lots of white hot light some blue light and a bunch of sound and a little bit of yellow flame.  My wife doesn't like the sounds of things when I do it so given women's intuition it's probably not good for ya.  Another thing is pulsing an iron wire coil with 30kv that is extended through a plastic block.  The electrostatic polarization of the field around this deal is unbelievable.  It refrigerates space.    The ion wind could drive a small turbine.  Got no idea where the heat energy of this space goes.