Ibpointless2 Crystal Cells

[jbignes5]

 You know I was thinking about diodes and it appeared to me to be something special. most diodes need a certain amount to potential difference (voltage) that it causes it to conduct. Typical ranges of this switch on point is roughly .2v-???Volts... Since Voltage leads current ie a voltage difference must be maintained to cause conduction, once that potential hits a threshold it conducts. We should use this diode in a natural switch mode. It blocks anything below that threshold then it switches on at a predetermined level. A diode across a suitable cap should make for an interesting combination. If we make the cap in the cell of ours it should be very interesting at the bursting capability of that device. Series and parallel modes should be used because that will allow for a bigger push capable active capacitor.


The active capacitor now transcends the regular capacitor. With "Active" meaning it supplies the oscillation and the voltage(potential) that is pulsed. The more you short it the more it fills from the surrounding environment. There seems to be ways to diffuse the environment network which gives it more connections or a higher density to conduct. This is the vibration on a network wide scale. With the network being the whole of the universe. Learn to listen in on those vibrations and you have the power of the universe in your hands.

Another avenue that can help us in attaining more power could be the magnetic amplifier. This new approach will allow for the conduction based on the toughness of copper and inductive fields and not solely on silicon which is severely limited amperage wise.

[jbignes5]

Hmmm.. Drats!


http://www.nuenergy.org/experiments/perreault_cap.htm

But this might shed some light on the subject as well...

http://physics.bu.edu/~duffy/py106/Capacitors.html

[triffid]

My buttermilk cells need more drying out.48 hours is not enough drying time for them.Maybe I should have added vineagar like up to 5 drops in each cell.The voltages by themselves with just buttermilk are around 1.4 volts.With the vineagar cells I got 1.67 volts in the beginning.I went to radio shack today and bought some transisters to make blinking LED circuits using 9 volt batteries.triffid

[PhiChaser]

You know I was thinking about diodes and it appeared to me to be something special. most diodes need a certain amount to potential difference (voltage) that it causes it to conduct. Typical ranges of this switch on point is roughly .2v-???Volts... Since Voltage leads current ie a voltage difference must be maintained to cause conduction, once that potential hits a threshold it conducts. We should use this diode in a natural switch mode. It blocks anything below that threshold then it switches on at a predetermined level. A diode across a suitable cap should make for an interesting combination. If we make the cap in the cell of ours it should be very interesting at the bursting capability of that device. Series and parallel modes should be used because that will allow for a bigger push capable active capacitor.
The active capacitor now transcends the regular capacitor. With "Active" meaning it supplies the oscillation and the voltage(potential) that is pulsed. The more you short it the more it fills from the surrounding environment. There seems to be ways to diffuse the environment network which gives it more connections or a higher density to conduct. This is the vibration on a network wide scale. With the network being the whole of the universe. Learn to listen in on those vibrations and you have the power of the universe in your hands.
Another avenue that can help us in attaining more power could be the magnetic amplifier. This new approach will allow for the conduction based on the toughness of copper and inductive fields and not solely on silicon which is severely limited amperage wise.

@ Jbignes5: You know, it didn't occur to me to use diodes like that but it makes perfect sense!! How small can can you find diodes? My electronics (basic college text) book says you're stuck with about 0.7v loss on a diode... If you're using it as a transistor then you just have to have enough cells to go over that mark, right? Shouldn't be too tough for any of us (heh heh)... Silicon is okay, my intuition tells me that silica will probably be one of my cell ingredients before I'm through... Jeeze, I need more time to play with...

Oh yeah, I forgot to mention I purchased an old single pulse signal generator!! I think it works on a 12v DC input so I will be able to test my idea that the cells can be brought back up to full voltage with a single pulse.  More data anyways... (I hope I don't have to rebuild it, it is already missing the variable knob...) It will arrive next week probably...
With the generator I can make the pulses pretty short (uSec scale I think) and watch what happens on a VOM or, hopefully, see what happens on my scope.
That mortar I repaired works great! I now have a bottle of finely crushed epsom salt for my next batch of electrolyte.

Anyhow, happy experimenting everyone!
PC

[jbignes5]

Yes it does make sense now that we have seen things like blocking oscillators and that kind of circuits. The diode and cap combination will be all one unit with the magnetic amp in cascade mode with other cells allowing for some incredible amping up of the cells discharges.


The Magnetic transistor looks to be well established especially where durability is a requirement. and since it is made of coils the magnetic amp is a purely passive device except for what it amplifies. We just might have the whole package finally figured out.


The better diodes seem to be included in most transistors. So we might be stuck there. Well unless you start looking at cat whisker diodes. <==Crystal!


The real diode in this case is the crystal matrix that is developed in the cell. With out the active inductive diode we set up by bringing these two different electrodes together we would have very little action and the crystal forms in it's natural state. But when you maintain the polarization of that crystal while it is forming it will grow in the direction of energy field in between the electrodes we present. So in effect we are conditioning the crystal formation to resist flow backwards. The growth period for this kind of density would be extremely high. Properly sized crystals that form as the solution evaporates. Oxygen must be used in the forming of the crystals base. After that they will change. They get thinner and spiny. Great outcroppings or bushes of these crystals form at nodes on the electrodes. Just like any living system we must exercise to grow strong and it is the same way with these. But once you get a great base to start with you will get a strong one.


My strong one was the first one I made. The glass one I showed already. I learned a lot from that one. With the proper amount of borax around the aluminum I found an aquas solution that had salt added to it was fine for upto 3-4 months I believe. The glass allowed me to check on the crystal structure that was growing on the aluminum and glass. I know it was very very wet in there I disturbed it by tipping it over and I could see the water. It was not fully formed yet when I took it apart. So maybe another 4-5 months would have completed the formation I am guessing.


Two reasons for the early dissection of that cell. One is my failing health and the other is that all my other cells dried up and I lost voltage to run the led head I was using. The led head was from a shake up flashlight. It had it's own full wave bridge rectifier built in with a 5v super cap as well that was on a switch. All I did was bridge the full wave in parallel and connected the cells directly to the led unit. With the switch off it ran the led straight and with the switch on it would parallel the cel with the supercap and charge that was well.


The light from the leds were not that bright but acceptable for testing. When I had it charge the cap as well it lowered the voltage but not by much. You could tell it was running the cells hard to charge that cap. But it worked for short bursts of 1-2 minutes then swap back to run the led. I actually got the voltage to stay the same so that meant the electrodes were not degrading in the cells. As the cells dried out they lost a lot of the push they showed. But after I started adding bulk water it rejuvenated the flow. This I found to be a problem and is most likey due to the evaporation of the water from the crystalline structure. My first wet cell worked well and like I said was the most strongest cell to date.