Driving rosonators at their self-frequency. Their self-frequency floats.

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Re: Driving rosonators at their self-frequency. Their self-frequency floats.
« Reply #26, on January 16th, 2015, 06:12 AM »
Quote from andy on January 16th, 2015, 01:37 AM
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Can we build ATL  to resonate with bifilar - it is smal in comparison with transmission line?
But how to  calculate coils and capacitors used to build ATL?
thank
andy
Yes you can use a pulse forming network ATL set up. This is what gpssonar is talking about. What I have been describing is the effect on a normal transmission line so that people can see the effect and see exactly what is going on. Artificial transmission lines have the same voltage and current phases as normal transmission lines and gpssonar has worked out where the capacitance and inductance is available in such set ups. We are aiming for where capacitance sits on a transmission line at resonance and driving an isolated LC network with the stored capacitance and mutual inductance of a series of oscillators. All we seek is to start the pendulum action, keep it running and make sure its phase relationship is related to the primary. All we need to do is keep the pendulum swinging so that nothing in the network is out of phase.

Tarakan

Re: Driving rosonators at their self-frequency. Their self-frequency floats.
« Reply #27, on January 16th, 2015, 09:47 AM »
I don't want to be rude, but are we staying on topic here?

Is variable sweep a worthy "small scale experiment" for the digital PLL step-skipping FPGA Tesla driver system?

Currently I want to make a beautiful video of the concept and see if someone picks it up.