Quote from: synchro1 on February 16, 2020, 11:11:12 AM
"The characteristics of the spark channel plasma formed in the external longitudinal magnetic field are studied experimentally. In experiment, the current-voltage, optical, and spectral characteristics of the discharge were measured and analyzed. Synchronization of the pulsed electric and magnetic fields was performed. The effect of the magnetic field on the radial expansion of the spark channel, the shock wave formation, as well as the changes in the balance of energy and temperature in the ionized plasma of the high-pressure gas discharge were analyzed. It was found out that, in the strong longitudinal magnetic field, the temperatures of electrons and ions in the spark channel become equal. The current density, the plasma channel conductivity of the spark channel, and the specific energy deposition into the discharge increased. The channel plasma parameters were analyzed as functions of the external magnetic field".


A schematic of what a spark amplification looks like under secondary field amplification:

@Synchro1 --  Very interesting.  Can you please provide us the reference document for this quote? 

Publication:


Journal of Physics: Conference Series, Volume 1383, Issue 1, article id. 012020 (2019).Pub Date:November 2019


10.1088/1742-6596/1383/1/012020Bibcode:2019JPhCS1383a2020O Formation and time development of spark channel in strong magnetic field Show affiliations


Omarov, O. A.
Omarova, N. O.
Omarova, P. K.


Abstract:


"The characteristics of the spark channel plasma formed in the external longitudinal magnetic field are studied experimentally. In experiment, the current-voltage, optical, and spectral characteristics of the discharge were measured and analyzed. Synchronization of the pulsed electric and magnetic fields was performed. The effect of the magnetic field on the radial expansion of the spark channel, the shock wave formation, as well as the changes in the balance of energy and temperature in the ionized plasma of the high-pressure gas discharge were analyzed. It was found out that, in the strong longitudinal magnetic field, the temperatures of electrons and ions in the spark channel (ne ∼ 1018 cm−3) become equal. The current density, the plasma channel conductivity of the spark channel, and the specific energy deposition into the discharge increased. The channel plasma parameters were analyzed as functions of the external magnetic field".

The use of the "Electromagnet" as a flyback amplifier is the discovery!

Suppose we replace Tinman's (Hocus Pocus) magnet core coil with my Neo backed electromagnet and compare performance. The magnets amplify the flyback in both coils; So what happens if we add more?

https://www.youtube.com/watch?v=vSODFYCqQH8&t=13s

Tinman's Byzantine design for an Amazon order?

Part A--the drive coil configuration.


1x PM of rod type. 2  inches long 10-12mm diameter.NEO or ceramic type ok.


1x PVC or plastic tube to fit over PM snug,and of same length.


1x Steel tube-black pipe or iron pipe,2-3mm thick,with non magnetic keepers at each end.To be same length as magnet and PVC/plastic tube,and to fit snug over PVC/plastic tube.


A coil of 200 turns is to be wound over the steel pipe,with wire size of between .6mm to .7mm


That is the drive coil.


The C-2 recovery circuit shows the D-1 diode and capacitor in series with an LED in parallel.

The Resonant Oscillator replaces Tinman's entire power pulse circuit and runs it free of charge at peak efficiency! The COP will improve with the precision high perm electromagnet core. Tinman succeeds in demonstrating the awesome generating power of this approach! The Neo backed Electromagnet combination is very powerful. This is a really hot generator!