stars

SOLAR DYNAMICS

Stars transform photons into protons at the surface of their cores which compose their solar winds of ionized planma gas which induce monopole charge in the same instant, as 2 electrons cycle through singularity with a positron trio and like charges induced in the same instant are electrically repelled, inducing a voltage potential between stars and deep space.

Starlight ionizes atoms freeing electrons in deep space, and the voltage potential powers solar electric currents which transform momentum of spiralling charges into moments and sum of moments into a field along the current rotation axis attracting electrons sunward with a force which increases directy as the current amperage.

Solar electric currents increase the voltage potential between stars and deep space and transform the voltage potential into kinetic energy until electrical resistance of solar coronas transforms kinetic energy into photons, radiating outward as starlight and downward, radiating the ferrite core below the mantle.

The Solid Solar Surface Model is based upon observations from the YOHKOH, SOHO and TRACE satellite programs, from spectral analysis data compiled by the SERTS program. This “running Difference” image of the sun’s surface was captured by SOHO. This NASA image was taken on May 27th 2005 at 19:13 using the 195A filter that is sensitive to iron ion emissions.

At high photon energy, electron positron pair production is the dominant mode of photon interaction with matter. First observed in Patrick Blackett’s cloud chamber, leading to the 1948 Nobel Prize in Physics. If the photon is near an atomic nucleus, the energy of a photon can be converted into an electron–positron pair:

Photons transforms into electron positron pairs at the core surface where electrons transform into solar field lines, resulting in residual positrons merge into trios, trios are trapped by transiting electrons and transform into protons composing the solar mantle, solar wind and interstellar medium.

Protons and electrons transform in endothermic reactions with electrons into elements above iron on the periodic table composing the ferrite core surface, and transform in exothermic reactions into lighter elements composing solar coronas, CMEs and supernovas of ionized plasma gas.

The solar wind escapes from coronal holes and sunspots, carrying solar field lines antisunward in the orbital plane, filling the heliosphere with conductors grounded in the corona around the poles which capture electrons electrically attracted to the solar wind which conduct electrons sunward which increases inversely as field line deviation from the sunward path.

Temperatures in the corona are upwards of 2 million degrees Fahrenheeit, while just 1,000 miles below, the underlying surface simmers at a balmy 10,000 F. How the Sun manages this feat remains one of the greatest unanswered questions in astrophysics; scientists call it the coronal heating problem.

The cores of stars are rotating arrays of equal radius ionized spheres of protons, draped in ferrite boundary layers which transform the momentum of moving charges into moments and the sum of moments is captured by the solar field which increases the momentum of orbiting ions in the direction of core rotation, powering super-rotation of the solar atmosphere and solar wind.

The solar field captures repelling forces between core ions. When gravitational collapse disrupts the fields of first generation stars repelling forces between core ions are restored and the star goes supernova.