I have been looking at this a long time and working on the timing and movements of these plasmoids (I call them plasma bubbles). I use the term "plasma bubbles" for pieces of them break off and trail the main bubble. Much like smaller bubbles forming behind a large bubble.
My data indicatetes the plasma bubbles enter at a longitude near the Indian ocean and begin their eastward trek.
The timing runs like this;
[*]Australia - ~2 days
[*]US west coast ~12 days
[*]Oklahoma - ~13 days
[*]US east coast - ~15 days
[*]mid Atlantic ridge - ~26 days
[*]UK - ~30 days
[*]Southeast asia completed ciruuit - ~45 days
This timing can also be used for VLF (natural radio) reception dates which are tied to plasma being overhead.
I believe the plasma bubbles follow the plasma duct work at higher latitudes and enter and are trapped in the lower latitudes. They then follow along B field magnetic field gradiants, going eastwards. As they cross tectonic plate faults they ground out creating; gamma rays, lightning, geologic force (right hand rule), a birth place for tornados and hurricanes, ball lightening, warm fronts, barometric high pressure, etc.

If you look at where I believe the plasma bubbles enters the mgagnetic field pinches together.
This offers us an "earthquake potential" based on the date of the solar storm allowing elevated plasma bubbles into the system and the distance the bubbles need to travel to cross a particular fault line affecting a land mass.
The Pacific ring of fire being a ring of fire because that is where the most charged plasma (highest density) first enters the system and you get the most magnetic/geologic pressure.
It would appear they discharge at tectonic faults and magnetic anomalies. I noticed Oklahoma because it fit the data timing and I then went looking for a anomaly that would cause it.
I am guessing if we measure plasma bubble charged particle density we will have earthquake magnitude potentials.
Tom
