Black holes are Blackbody Radiators

I am glad this idea is finally entering scientific publications.

Black holes are Planks Radiators.

This model has shown this from its inception. Black Holes must form all the stars in a spiral galaxy. Their massive rotation causes an immense magnetic field causing stars to orbit the Black Hole. 

Above we see a Black Hole emit a star. Credit Max Plank's Institute. 

Elliptical galaxies from explosions.

Abstract of the Baryonic Model

Dark Energy is the media in which all vibrations transverse. The Ruleset is one bit of dark energy. Dark energy is rigid and 3 dimensional.


Baryonic matter: All baryonic matter consists of 3 gluons. These 3 gluons always form a triangle. At the connection points of 2 gluons a quark is formed by the intertwining of the gluons. Baryons have two of one type of quark and one of another. The two similar quarks spin around the axis of the other type of quark. This forms a cone in shape.

The gluon transmits information using the photon(heat), Z boson(electricity), and W+/- boson(magnetism). Each boson transmits information.

The Z boson is electricity. The dissimilar quark provides the direction of charge. The Z boson provides information to the lepton electron. This information is photon data, electron data and current. If the current of the Z boson is too strong it ejects the electron causing electricity. If the current of the Z boson is much more intense the Z boson extends to another baryon. This is plasma.

The W boson results from the two similar quarks spinning about the axis of the direction of charge. The more intense the spin of the baryon the more intense the W boson.

The photon is generated by the lepton electron. It is preloaded by the Z Boson. The electron emits the photon using Planck's Spectral Black Body Equations.
Frequency = u(v,T) = (8πhv^3/C^3)(1/e^(hv/kT)-1)
Wave length = u(λ,T) = ((8πhc)/λ^5)*(1/e^(hc/λkT)-1)

The receiving baryon's electron calculates the frequency and wave length. By evaluating the number of spins the photon has taken since emission, the receiving baryon get this information, spectra(what the emitting baryon is), Temperature of the emitting baryon, Distance traveled by the photon and direction. With this information the receiving baryon can calculate directed pressure on it, changes in temperature. Baryonic density is calculated by:

where
where M is the magnetic field
where E is the electric field
where T is the temperature field
where a,b,c are the lengths of the gluons
where A,B,C are the angles between gluons

Dark matter is made of 2 anti-gluons. These anti-gluons form anti-quarks. These vibrations spin in the opposite direction. These dark matter anti-gluon systems form threads. Many threads form fabrics. Dark matter is repelled by charge. Any W+/- boson pressurizes dark matter. This provides a bubble in the dark matter where baryons can exist.

Aaron Guerami

Variables Involved in Baryonic Motion

δ_Dn= δ_Dp+(Δδ_M+Δδ_E+Δδ_T)

Where:

δ_Dn = Baryonic density of object, not effected by dark matter boundaries.
where δ_Dp Previous baryonic density of object = (δ_M+δ_E+δ_T)/(1/2bcSin(A))
where a,b,c are the lengths of Gluons
where A,B,C are the angles between Gluons at the Quarks

δ_M = Magnetic field (W Boson) emitted from and read by Baryon. The W Boson is related to the rotational speed of the Baryon. In the case of uud, the 2 u quarks spin in a cone shape around the d Quark. The center of this cone is the rotational axis. The faster the spin the more intense the W Boson. The Voltage = the rotational speed.

δ_E = Electric field (Z Boson) emitted from and read by Baryon.
The uu rotational plane is perpendicular to the Z Boson field . The down quark lies on the rotational axis and is the direction of charge.

using Density Function Theory Introduction
ABCs of DFT
(DFT Wiki)

δ_T = Temperature field (Photon) emitted from and read by Leptons (Electrons) of the Baryon.
using Planck's spectral black body equations
u(v,T) = (8πhv^3/C^3)(1/e^(hv/kT)-1)
u(λ,T) = ((8πhc)/λ^5)*(1/e^(hc/λkT)-1)

This occurs during one spin of the object.
Equilibrium state:
t₀₁ = beginning of vibrations entrance to the Dark Energy Ruleset.
where
Work state:
t₁₁ = change period of Baryon. Application of work equations.
where δ_D= δ_Dp+(Δδ_M+Δδ_E+Δδ_T)
Equilibrium state:
t₀₂ = beginning of vibrations entrance to the Dark Energy Ruleset.
where δ_D = (δ_M+δ_E+δ_T)/(1/2bcSin(A))

Information Density and the Gluon

E = hv

Which says Energy = Planck's Constant h multiplied by the frequency of the vibration.

Now these are 19th century equations that have been purposefully discarded by einsteinians. Because they are difficult. Not a good reason.

Others density equations include (Planck)
Frequency
u(v,T) = ((8(pi)hv^3)/(c^3))*(1/(e^(hv/kT)-1)

Wave length
u(λ,T) = ((8(pi)hc)/λ^5)*(1/e^(hc/λkT)-1)

u = spectra. The emitting Baryon leaves its identification on the spectra. Along the spectral line, where the temperature = 0, identifies the emitting baryon.

So here we have an exactly derived system of equations that show the vibration of energy over time through its frequency or wave length. There are other equations that show the vibration of energy over time through its charge or current. This is the basis of my model.

Now the sender and receiver of this energy is the gluon. Gluons communicate like this.
This is me,
All of this information is in the photonwave. The gluon produces the photonwave by exciting a z boson (near field) and vibrating the loaded electron. Then the electron discharges the photonwave.
I have a frequency of u(v,T)
I have a wave length of u(λ,T)
I have an intensity of u(λ,v,T)
and my identity is where the information is 0

A similar process occurs with the W boson. The gluon vibrates and discharges the w boson.
it says I am a far field W boson
(I am not as familiar with these equations)
I have a charge of
I have a inducted current of
I have voltage of

I will fill these W boson magnetism equations

Simple Counter

Both the photonwave and the W boson have counters. This is a simple mechanism that counts the number of spins since existence. So

Distance traveled = number of dark energy units or spins counted.

This counter tells the receiving atom the temperature loss in the photon wave and the pressure loss in the W boson since inception

Black holes are Planck’s Black Body Radiators

Black holes are Planck’s Black Body Radiators
Planck’s Black Body Spectral Objects are all radiators. This includes the Black Hole.

A black hole is a spectral emitter just like any star, just the temperature is too high to emit photons, except through the asymptote at the poles. Photons ejected from the poles of the black hole are highly excited Gamma Rays.

Black holes rotate at high radial velocities. ~17 minutes. When a black hole reduces it’s radial velocity and it's temperature dips below 10¹³, it burps a baryonic star. When the black hole ejects the baryonic star, the black hole increases radial velocity and temp. Stars ejected from the black hole will orbit in a manner similar to Mercury’s orbit. Ejected baryonic matter cannot be reabsorbed by the black hole.

Here is the physical evidence of star motion around a black hole.

This link also shows material being ejected by a black hole over a 116 minute period.

A black hole ejects magnetism from every part of the sphere except the poles. This magnetism is so intense that it bends the dark matter to form the space for galaxies. With this notion, we can go from the sub-atomic level all the way to the Black hole with these equations. There are 4 equations; Frequency, Wave Length, Inducted Current, and Voltage. Frequency and Wave Length are listed below.


Video Max Planck's Institute