moments

DIPOLE MOMENTS

The ionized rotating cores of stars, planets and black holes transform the momentum of moving charges into dipole moments, and the sum of moments induced by core ions is captured by the fields of stars, planets and black holes, which increase the velocity of orbiting ions in the direction of core rotation powering super-rotation of atmospheres, high velocity ring currents around stars and planets, and the rotation of spiral galaxies.

Atmospheric super-rotation is a phenomenon where a planet’s atmosphere rotates faster than the planet’s rotation. This is observed in the atmosphere of Venus, Titan, Jupiter, and Saturn. Venus exhibits the most extreme super-rotation, with its atmosphere circling the planet in 4 Earth days, much faster than its planet’s own rotation in 243 earth days.

Moments captured by Jupiter’s field powers super-rotation of Jupiter’s atmosphere and powers high velocity counter-flowing electric currents around the poles, charged by planetary field lines grounded in atmosphere inside the auroral ovals which capture electrons from the solar wind.

Scientists identify incredibly powerful winds in Jupiter’s atmosphere. The team used molecules exhumed by the 1994 impact of comet Shoemaker–Levy 9 to trace winds in excess of 900 miles per hour, opposite to core rotation, near Jupiter’s poles.

Porphyrion’s jets are huge streams of ions and electrons with a power that is equivalent to trillions of suns. Each jet covers a distance equivalent to 140 Milky Way galaxies.

Electron jets from wormholes induce monopole charge in the same instant and repelling forces between like charges on field lines of twin phase electrons which spiral anticlockwise into matter universes and clockwise into antimatter universes. Electron jets transform the angular momentum of spiralling charges into moments and sum of moments into a field along the rotation axis, attracting electrons in the current direction with a force which increases directly as the current amperage.

em>Black holes can spin extremely fast, approaching the theoretical maximum which is 84% of the speed of light. Some black holes, like GRS 1915+105, have been observed to rotate over 1,000 times per second, close to the theoretical limit.

Black hole cores are composed of ferrite fragments, denatured from in-falling stellar objects which cross the event horizon and lighter elements composing the high velocity ionized accretion disk ring current, outside the event horizon.

The ionized core transforms rotational momentum into moments, the sum of moments is captured by the field, powering the high velocity accretion disk ring current which transform the momentum of ring current ions into dipole moments and sum of moments into a dipole field along the black hole rotation axis which power high velocity electron jets and plumes ionized gas and stardust toward opposite poles of the field.

Electrons are attracted to the pole along the rotations axis away from the anticlockwise rotating face in matter universes and away from the clockwise rotating face, of the black hole accretion disk, in antimatter universes.

The slow clockwise rotation of the ionized core of Venus transforms the momentum of core rotation into dipole moments which is captured by the field, increasing the momentum of orbiting ions in the direction of core rotation and powering the high velocity clockwise rotation of the atmosphere.

If Venus were once tidally locked to the sun, could atmospheric torque from the 4 day rotation axis of the atmosphere have driven the planet to today’s 243-day retrograde rotation? And how long would that take?

Chat GBT:
Yes — in principle this is physically plausible. And the timescale would likely be tens to hundreds of millions of years, possibly up to a few hundred million. Now let’s unpack why. First: This is a small change from synchronous rotation: 224.7 days, to current rotation of 243 days (retrograde) ~8% change in angular velocity. Here we’re talking about a small deviation from lock, which is realistic.