deepwater

THE DEEPWATER OCEANS

The planetary field captures electrons from the solar wind and electrified weather systems charge the planetary surface which induces a voltage potential between the surface and core where electrons transform into field lines and the voltage potential powers core electric currents through the lithosphere along ferrite conductors from land surfaces and from the oceans through the discharge from hydrothermal vents in the deep ocean trenches.

Photons transform into electron positron pairs at the core surface where electrons transform into field lines resulting in residual positrons which merge in trios, 3 trios are trapped by 4 transiting electrons, transform into protons, and protons and electrons transform into elements which increases mantle mass and surface area as magma upwells and forms new lithosphere between the oceanic plates:

Atlantic Ocean
North America – Eurasia — 20–30 km/Myr
South America – Africa — 30–40 km/Myr
Africa – Antarctica — 20–30 km/Myr

Arctic Ocean
North America – Eurasia — 10–20 km/Myr

Indian Ocean
Africa – Antarctica — 10–20 km/Myr
Africa – Indo-Australian plate — 50–60 km/Myr
Australia – Antarctica — 60–70 km/Myr
Arabia – Africa — 20–30 km/Myr

Pacific Ocean
Pacific – Nazca — 40–160 km/Myr
Pacific – Cocos — 80–90 km/Myr
Pacific – Antarctic — 70–100 km/Myr
Nazca – Antarctic — 70–80 km/Myr
Pacific – Juan de Fuca — 55–65 km/Myr

Seawater in hydrothermal vents may reach temperatures of over 700° Fahrenheit. Hot seawater in hydrothermal vents does not boil because of the extreme pressure at the depths where the vents are formed.

Electrified weather systems charge the oceans inducing a voltage potential across the lithosphere which powers high amperage currents conducted through the electrolyte discharge from hydrothermal vents in the ocean trenches which transform voltage potential into kinetic energy until electrical of the dischargeresistance transforms kinetic energy into photons which heats the discharge.

A new study shows a correlation between solar cycles and a switch from El Nino to La Nina conditions in the Pacific Ocean. They found all 5 terminator events studied coincided with a flip from an El Nino to a La Nina. They found only a 1 in 5,000 chance all five events would randomly coincide with the flip in ocean temperatures.

During the solar maximum more frequent geomagnetic storms increase electrification and increase the voltage potential across the oceanic lithosphere, which increases the amperage and kinetic energy of the current which heats the discharge and reliability triggers a flip from El Nino to La Nina conditions at the trailing end of the maximum.