Heuristic Gravitational Impedance -- Yau-Exact Hamiltonian Operator

 The lower the heuristic gravitational impedance, that is here to be incurred upon the electromotive flow, of a given arbitrary respective charged Yau-Exact Hamiltonian Operator, the more seamless that the piecewise continuity of its cohomology-related deformation, will consequently tend to be. SAM.(1989).

Gauge-Bosons As Messenger Particles

Gauge-Bosons work to act as messenger particles.  These said gauge-bosons act, in so as to work to pluck their correlative second-order light-cone-gauge eigenstates like a harp -- in so as to work to form a certain general genus of Schwinger-Indices, -- that are kinematic along the Rarita Structure, in so as to work to form the four general classifications of the physical forces.  Gauge-Bosons thus work to form certain given arbitrary vibrational oscillations -- that act upon their Ward-Cauchy-related substringular environment, -- in so as to help at forming these so-stated four basic physical forces of nature.  Consequently:  Where the multiplicit centralized knotting of the Rarita Structure is at, in a covariant kinematic-related manner -- due in part to the various kinematic activity of those wave-based vibrational oscillations, that are here to physically be those Schwinger-Indices that are formed by the said plucking activity of gauge-bosons -- is the multiplicit region, at which the strong force is to tend to be localized at.  Where such a said general genus of Schwinger-Indices, are to be directly associated in part with the activity of both spontaneous cohomology-based generation and/or spontaneous cohomology-based degeneration -- is where there are the multi-various eigenstates of the electromotive force to tend to be localized at.  Where such a said general genus of Schwinger-Indices are to come together, in a relatively quantized manner over time -- is where the gravitational force is here to tend to be localized at.  And, where such a said general genus of Schwinger-Indices, are to bear a general multiplicit perturbation in their covariant kinematic-based proximal locus, that is affiliated the directly correlative centralized knotting of the Rarita Structure, -- is where the weak force is to tend to be localized at.
I will continue with the suspense later!  To Be Continued!  Sincerely, Samuel David Roach.

Gauge-Bosons Working To Help Form The Various Forces

Here are some details -- as to the general idea as to how the various different activities of gauge-bosons, help to work at forming the crucible of the four different general forces of the overall unified field homotopy of space-time-fabric.  Gauge-Bosons work to strike the correlative second-order light-cone-gauge eigenstates, in so as to form Schwinger-Indices that are thence to be propagated along the multiplicit Rarita Structure over time.  When such said Schwinger-Indices are here to work to form eigenstates that are of a centralized knotting, along the here mentioned Rarita Structure, -- this works to help at forming discrete increments of the strong force.  When, instead, certain various Schwinger-Indices work to form the condition of a cohomological generation per successive iteration of instanton -- that is orthogonal to the condition of the number of discrete quanta of energy that are here to be produced per cohomological generation -- as is according to the right-hand-rule (due to the dual general condition that the general holomorphic direction is to the relative left, and, as well, the other so-eluded-to condition of touch being associated with tangency, of which is likewise associated with an orthogonal nature), which works to help at forming the electromotive force.  The oscillations of mini-stringular segmentation are caused by the propagation of Schwinger-Indices.  The integration of Schwinger-Indices that propagate in both a perpendicular and in a transversal manner work to help at forming the gravitational force.  And, the spontaneous degeneration of the cohomology that is proximal local to the multiplicit eigenstates of the relatively centralized knotting of the Rarita Structure, works to help at forming the weak force.
I will continue with the suspense later!  To Be Continued!  Sincerely, Samuel David Roach.

GUFT, Session 15

The electromotive force is stronger than the gravitational force The gravitational force is formed by intwined mini-strings that act upon surrounding forces and surrounding forms of material phenomenology by the means of the Ricci Scalar. All gravity effects all other forces and all other forms of phenomenology because all mini-string has an indirect or direct wave-tug upon all other mini-string since all topology of superstrings and Planck phenomenon related phenomena in terms of their homotopy is interconnected in one way or another at all times except for at the space-hole. So, gravity has metric-gauge pull due to intertwined mini-strings that bear a supplemental norm condition relative to the Yau-Exact singularities of mass. Electromotive force, however, bears its metric-gauge based on the superstringular force of superstrings, Planck phenomenon related phenomena, and sheathes of mini-strings that interconnect the charges, light and the plain energy, and the electrical voltage and current of the atoms and their surroundings in terms of holomorphic and antiholomorphic attraction (metric-gauge), the illumination of phenomena by the scattering of quantized photons, the redistribution of fermionic strings, as well as the electrical discharging of electrons that flow (the transversal formed fields and the spin-orbitally formed fields of electrons). Since the electromotive force involves a metric-gauge that is primarily superstringular and not closed on the wave-tug of mini-strings that are tied to gravitons and gravitinos , the electromotive force is stronger than the gravitational force. Electrons and light are primarily Chern-Simmons since these are not completely hermitian and non-perturbative , while gluons are consistantly Yau-Exact unless these are spontaneously radioactive. Gluons are thus consistantly superconformal and Yau-Exact at the core of BRST. The Chern-Simmons Anti-De-Sitter mode that precedes the core of BRST reinforces the force of gluons. The mass of electrons is conformally invariant yet redistributed thru a Chern-Simmons plain energy. So, the mass of electrons is Yau-Exact, yet this Yau-exact condition has no Anti-De-Sitter reinforcement becase it (electrons) are trajectorially kinematic. Thus, the binding force of neucleons is a stronger force than the electromotive force.
A Gaussian transformation happens whenever the conformal invariance is altered Gauge transformations only happens when there is scattering. Gaussian transformations always happen with a gauge transformation. Yet scattering does not always happen when conformal invariance changes. Gauge transformations are usually mostly Real. Formation of a worm-hole involves a scattering that is mostly Imaginary. Light striking mass involves a scattering that is mostly Real. Real meaning on the Real Reimmanian plane and Imaginary meaning involving a multiplicit Njenhuis plane. The type of scattering that I am referring to is Calabi interactions and reverse Calabi interactions. Reverse Calabi interactions scatter into a worm-hole or these scatter into light.

GUFT, Session 9

The force that is next in strength to the strong force is the electromotive force. The electromotive force is the force of electrodynamic energy. Electrodynamic energy is formed in mainly electromagnetic energy and electrons. The most common form of electrodynamic energy is electromagnetic energy. All electromagnetic energy is a propagated field of electrical field that has a magnetic field curled around it by the right-hand-rule in which both the electric field fluctuates at a given wavelength and the magnetic field fluctuates at a given wavelength. The wavelength of a beam of electromagnetic energy is the fluctuation of the electric field of the given electromagnetic beam of energy as the given beam is propagated directorally in a straight line if the beam of electromagnetic energy is traveling through a vacuum. However, when the electric field of a beam of electromagnetic energy fluctuates, its corresponding magnetic field will curl around it with the same relative homogeneity of fluctuation, yet often with a different indical amplitude when considering the density of the corresponding orbifold spin-orbital delineations and the given metric-gauge actions of these given orbifolds. The spin and orbit actions of the superstrings of the given orbifolds may have a redistribution matrix that has a gauge-metric that distributes a higher metric-gauge per set of iterations than the angular momentum of these superstrings delineate. If an orbifold has a higher spin-orbit quantum than its angular momentum has, the redistribution matrix of this orbifold, here of electromagnetic energy, will apply a coefficient euclidean based added magnetism to the energy. What will happen here is that you will proportionably, by an integer based solution, have an eletromagnetic beam that is more magnetic than electrical. What this is is a magnetized beam of electromagnetic energy.

The Grand Unified Field Theory (GUFT), Session one

The Grand Unified Field Theory, Session one

There are four basic types of forces. The strong force, the electromotive force, the gravitational force, and the weak force. The strong force is the force that binds the components of a nucleon together. The force here is composed of gluons. Neucleons are the protons and neutrons of the neucleus of an atom. The electromotive force is the force of electromagnetic energy and the force associated with electricity. Electromagnetic energy is energy that fluctuates in its electric and magnetic fields, and electricity is the flow of electrons. The gravitational force is the force of gravitons and gravitinos upon the mass, plain energy, and electromagnetic energy via the Ricci Scalar. Gravitons are transversal particles that are composed of dilatons that have quantized in the spacial fabric off of the Real Reimmanian plane. Gravitinos are spin-orbital particles of energy that are made up of dilatinos that have quantized in the spacial fabric off of the Real Reimmanian plane. The Ricci Scalar is the quantific mini-string fabric that pushes and pulls mass, plain energy, and electromagnetic energy according to the overall relative quantum effect that these phenomena exert upon each other given their differentiation along the topological Lagrangian integration of the space-time fabric. The weak force is the force of spontaneous radioactive decay. This is the gradual alteration or perturbation of nuclei to form different atoms of an element as the atoms of these elements are short lived on account of having a weak associated strong force. The weak force is weak because it is just a spontaneous reaction. Spontaneous here means that it is due to happen without the need of kinematics from an outside source. A reaction may be spontaneous, yet still be relatively gradual.