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SOLAR DYNAMICS

Deep space is electrified by jets from black holes and wormholes to antimatter universes. Starlight ionizes atoms in deep space freeing electrons which induce monopole charge in the same instant as solar wind ions and opposite monopole charges induced in the same instant are attracted.

The attractive force between electrons and solar winds induces a voltage potential between stars and deep space powering solar electric currents transforming voltage potential into kinetic energy until electrical resistance of the solar coronas transform kinetic energy into photons, which are radiated outward as starlight and downward, heating the ferrite surface of the 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.

High energy photons induced by coronal heating transform into electron positron pairs at the solar core surface where electrons transform into field lines resulting in residual positrons which merge in trios, 3 trios are trapped by 4 transiting electrons, and transform into protons, composing the hydrogen mantle and ionized plasma corona and solar wind.

Transformation of photons into protons cools the core. Protons and electrons transform in exothermic reactions up to iron on the periodic table into elements composing the solar atmosphere and solar wind, and in endothermic reactions to ferrite elements composing the boundary layer which increases the mass and rotational momentum of solar cores.

Transformation of photons into protons cools the core surface and the surface of the mantle is cooled by endothermic change of state from liquid to ionized gas solar wind which escapes through coronal holes and sunspots.

Temperatures in the corona are upwards of 2 million degrees Fahrenheit, 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 the sun and the gas giants, Jupiter and Saturn, are rotating arrays of equal radius ionized spheres draped in ferrite boundary layers and embedded in fields which capture the repelling force between core ions, and dipole moments induced by rotation of moving charges which induces a field electrically attracting orbiting ions in the direction of core rotation.

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Accretion disks around black holes powered by momentum of infalling matter transform the angular momentum of moving charges into moments and sum of moments as a field along the disk rotation axis with like pole to disk ions along the rotation axis away from the anticlockwise ring current face.

An accretion disk is a swirling structure of hot gas and dust that forms around a black hole as matter falls towards it. This process is called accretion, and it’s how black holes grow by consuming material. The disk becomes extremely hot due to friction between the swirling particles, and the resulting energy is emitted as radiation, including X-rays.