Helmholtz Hamiltonian Mechanics Electromagnetic Physics Gaging Charge Fields Having Novel Quantum Circuitry Model

This article shows novel model Pauli-Dirac-Planck-quantum-circuit-assembly-gage, consisting of the monopole quasiparticles and electron-positron particle fields, demonstrating power of Iyer Markoulakis Helmholtz Hamiltonian mechanics of point vortex and gradient fields general formalism. Transforming this general metrics to Coulombic gaging metrics and performing gage charge fields calculations, derivation of assembly eigenvector matrix bundle constructs of magnetic monopoles, and electron positron particle gage metrics were successfully compiled, like SUSY (?( 1 &?@?*&1 )) Hermitian quantum matrix., modified to asymmetric strings gage metrics to account for asymmetrical magnetic pole forces measurements recently in physics. Physical analysis with graphics discussing scenarios of electric tensor particles and magnetic tensor monopoles permutationally interacting, figures showing simulations of fermions’ spins with Clifford algebraic geometry, and the graphs explaining vortex sinusoidal pulsed signal output distribution profile of typical equivalent wave velocity of the related point fields partially verify this quantum circuity assembly model. Table shows estimated size of this assembly greater than 10-34 Planck unit and less than quasi-particle size of 10-26 metrics unit. Wide-ranging applications of this quantum circuitry assembly model exist for quantum supercomputing expertise antenna networks, alongside quantum astrophysical grand unifying genesis of electromagnetic gravitational matter antimatter systems. This quantum model can be verified by experimental techniques, such as spin-ice and Bose-Einstein condensate spinors.

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Helmholtz Hamiltonian Mechanics Electromagnetic Physics Gaging Generalizing Mass-Charge and Charge-Fields Gage Metrics to Quantum Relativity Gage Metrics

10.20944/preprints202107.0685.v1 ◽

2021 ◽

Author(s):

Rajan Iyer

Keyword(s):

Scalar Potential ◽

Magnetic Monopoles ◽

Real Space ◽

Physical Analysis ◽

Hamiltonian Mechanics ◽

Flow Loop ◽

Dirac Monopole ◽

Time Space ◽

Electron Positron ◽

Quantum Relativity

This article will continue ansatz gage matrix of Iyer Markoulakis Helmholtz Hamiltonian mechanics points’ fields gage to Pauli Dirac monopole particle fields ansatz gage general formalism at Planck level, by constructing a Pauli Dirac Planck circuit matrix field gradient of particle monopole flow loop. This circuit assembly gage (PDPcag) that maybe operating at the quantum level, demonstrates the power of point fields matrix theoretical quantum general formalism of Iyer Markoulakis Helmholtz Hamiltonian mechanics transformed to Coulomb gage metrics, to form eigenvector fields of magnetic monopoles as well as electron positron particle gage metrics fields. Eigenvector calculations performed based on Iyer Markoulakis quantum general formalism are substituted for gage values of typical eigenvectors of dipolar magnetically biased monopoles with their conjugate eigenvectors, as well as eigenvector fields that are of the electron and positron particles. Then they are compiled to form combinatorial eigenvector matrix bundle of the monopole particle circuit field constructs assembly. Evaluation of this monopole particle fields matrix provided eigenvector fields results like SUSY, having Hermitian quantum matrix with electron-positron annihilation alongside north and south monopoles collapsing to dipolar “stable” magnetism, representing electromagnetic gaging typical metrics fields. Applying experimental observations on magnetic poles with measuring magnetic forces John Hodge’s results were showing asymmetrical pole forces; author has mathematically constructed asymmetric\strings\gage\metrics to characterize electromagnetic gravity, putting together while integrating with stringmetrics gravity that author has been reporting in earlier published articles. Physical Analysis with generalization of mass-charge and charge-fields gage metrics to quantum relativity gage metrics fields are proposed based on author’s proof formalism paper providing derivational algorithmic steps, to determine gage parametric values within the equation of Coulomb gage. Vortex fields’ wavefunctions and the scalar potential characterized by a function and a coupling constant having quantum density matrix together define the gage metrics quantifiable observable measurement physics of electron-positron cross-diagonal fields; contrastingly, diagonal terms of PDPcag matrix characterizes electron-positron particle eigenvector fields, while Hilbert Higgs mass metrics characterizes eigen-matter. Author is already working with Christopher O’Neill about magic square symmetry configurations to quantitatively understand symmetry, structure, and the real space geometry that are expected to form out of vacuum quanta point fields’ quantitative quantum general formalism theory of Iyer Markoulakis. In addition, author is currently collaborating with Manuel Malaver’s astrophysical Einstein Minkowski modified space time metrics evaluations of the sense-time-space relativistic general metrics to have means to account for curving or shaping of spacetime topology of a five-dimensional sense-time-space. Manuel Malaver’s specialization with modified Einstein Maxwell equations for modeling galaxies and stars cosmological physics, utilizing Einstein-Maxwell-Tolman- Schwarzschild and Reissner-Nordström spacetime and black holes theoretical formalisms have author of this paper collaboratively model quantum astrophysics of dark energy Star’s theory with Einstein-Gauss-Bonnet gravity equations.

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Identification of magnetic monopoles via electron-positron pair production

Physics Letters B ◽

10.1016/0370-2693(87)90383-2 ◽

1987 ◽

Vol 197 (1-2) ◽

pp. 277-280 ◽

Cited By ~ 1

Author(s):

Elena Papageorgiu ◽

Leo Stodolsky

Keyword(s):

Pair Production ◽

Magnetic Monopoles ◽

Electron Positron ◽

Electron Positron Pair

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On the abundance of primordial bound states of superheavy magnetic monopoles

International Journal of Modern Physics A ◽

10.1142/s0217751x14501000 ◽

2014 ◽

Vol 29 (18) ◽

pp. 1450100

Author(s):

Dmitry R. Gulevich

Keyword(s):

Cosmic Rays ◽

Bound States ◽

Charged Particles ◽

Magnetic Monopoles ◽

Final Concentration ◽

Ultrahigh Energy ◽

Cosmic Inflation ◽

Electron Positron ◽

Ultrahigh Energy Cosmic Rays

It has been suggested that superheavy charged particles might have been born in primordial bound pairs at the end of cosmic inflation. Such pairs have been proposed as a source of ultrahigh energy cosmic rays (UHECR). We show that primordial bound pairs of magnetic monopoles larger than 10-9 cm quickly thermalise due to the interaction with primordial electron–positron plasma and any such initial primordial concentration is washed out. The final concentration will therefore be defined by their equilibrium abundance.

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Quantum Circuit Oscillator

10.36227/techrxiv.16566717.v1 ◽

2021 ◽

Author(s):

Alberto Delgado

Keyword(s):

Stability Analysis ◽

Error Correction ◽

Systems Theory ◽

Control Systems ◽

Quantum Circuit ◽

Quantum Computers ◽

Quantum Model ◽

Control Systems Theory ◽

A Chain

<div>There is an increasing interest to find applications of current quantum computers, small number of qubits and no error correction, known as NISQ computers. In this paper a parametrized quantum model is embedded in a chain of integrators to create an oscillator, the parameters are estimated using Taylor linearization and stability analysis from classic control systems theory.</div><div><br></div>

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A Quantum Model of Computation

An Introduction to Quantum Computing ◽

10.1093/oso/9780198570004.003.0007 ◽

2006 ◽

Author(s):

Phillip Kaye ◽

Raymond Laflamme ◽

Michele Mosca

Keyword(s):

Quantum Circuit ◽

Circuit Model ◽

Circuit Diagram ◽

Qubit State ◽

Quantum Gates ◽

Quantum Model ◽

Reversible Circuit ◽

Logical Qubits ◽

General Measurement ◽

Computational Basis

In Section 1.3, we introduced the circuit model of (classical) computation. We restricted attention to reversible circuits since they can simulate any non-reversible circuit with modest overhead. This model can be generalized to a model of quantum circuits. In the quantum circuit model, we have logical qubits carried along ‘wires’, and quantum gates that act on the qubits. A quantum gate acting on n qubits has the input qubits carried to it by n wires, and n other wires carry the output qubits away from the gate. A quantum circuit is often illustrated schematically by a circuit diagram as shown in Figure 4.1. The wires are shown as horizontal lines, and we imagine the qubits propagating along the wires from left to right in time. The gates are shown as rectangular blocks. For convenience, we will restrict attention to unitary quantum gates (which are also reversible). Recall from Section 3.5.3 that non-unitary (non-reversible) quantum operations can be simulated by unitary (reversible) quantum gates if we allow the possibility of adding an ancilla and of discarding some output qubits. A circuit diagram describing a superoperator being implemented using a unitary operator is illustrated in Figure 4.2. In the example of Figure 4.1, the 4-qubit state |ψi⟩= |0⟩⊗ |0⟩⊗ |0⟩⊗ |0⟩ enters the circuit at the left (recall we often write this state as |ψi⟩ = |0⟩|0⟩|0⟩|0⟩ or |ψi⟩ = |0000⟩.) These qubits are processed by the gates U1, U2, U3, and U4. At the output of the circuit we have the collective (possibly entangled) 4-qubit state |ψf⟩. A measurement is then made of the resulting state. The measurement will often be a simple qubit-by-qubit measurement in the computational basis, but in some cases may be a more general measurement of the joint state. A measurement of a single qubit in the computational basis is denoted on a circuit diagram by a small triangle, as shown in Figure 4.1 (there are other symbols used in the literature, but we adopt this one). The triangle symbol will be modified for cases in which there is a need to indicate different types of measurements.R50

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Search for magnetic monopoles in electron-positron collisions at 34 GeV CM energy

Physics Letters B ◽

10.1016/0370-2693(83)90270-8 ◽

1983 ◽

Vol 128 (5) ◽

pp. 333-335 ◽

Cited By ~ 24

Author(s):

P. Musset ◽

M. Price ◽

E. Lohrmann

Keyword(s):

Magnetic Monopoles ◽

Electron Positron ◽

Positron Collisions

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Physics Formalism Helmholtz Matrix to Coulomb Gage

10.20944/preprints202107.0451.v1 ◽

2021 ◽

Author(s):

Rajan Iyer

Keyword(s):

Dark Matter ◽

Particle Physics ◽

Charge Asymmetry ◽

Zero Point ◽

Hamiltonian Mechanics ◽

Relativistic Energy ◽

Gravitational Fields ◽

Electron Positron ◽

Physics Literature ◽

Gravitational Dipoles

Iyer Markoulakis Helmholtz Hamiltonian mechanics formalisms mathematically modeled physics with vortex rotational fields acting with gradient fields, typically in zero-point microblackhole general fields. Here, Helmholtz metrics have been gaged to Coulombic Hilbert metrics, representing Gilbertian and Amperian natures of electromagnetic fields out of the mechanical fields from Helmholtz Hamiltonian mechanics. This ansatz general gaging helps to properly isolate field effects – mechanical, electric, magnetic components within the analytical processes. Vacuum gravitational fields and the flavor Higgs-Boson matter inertial gravitational fields have been thus quantified extending to stringmetrics constructs matrix showing charge asymmetry gage metrics, having the power to analyze dark energy superluminal phase, dark matter luminal phase, and light matter subluminal phase. Interpreting particle physics gage matrix pointing to Dirac seas electrons, monopoles with positrons, electron-positron annihilation leading to energy production, relativistic energy generating matter, and both monopoles – vacuum and compressed out of vortex Helmholtz decomposition fields have been interpolated. Quantum ASTROPHYSICS gage metrix posits superluminal profile of signals velocity generating electron-positron chain like “curdling” action that is consistent with physics literature reporting nature electron photon observed oscillatory fields configurations. This helps proposing creation of neutrino antineutrino pair orthogonal to electron positron “curdling” planes, that may lead to formation of protonic hydrogen of stars or orthogonally muon. These aspects will explain receding or fast expanding universe with dark matter in terms of flavor metrics versus gage associating metrics flavor. Additional interpretations of virtual gravitational dipoles that have gravitational charge of opposite signs, reported per physics literature at Planck dimensions, that may originate at the center of supermassive blackhole. On the other hands, vacuum monopoles occur probably at infinity with cosmos extent.

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Quantum Circuit Oscillator

10.36227/techrxiv.16566717 ◽

2021 ◽

Author(s):

Alberto Delgado

Keyword(s):

Stability Analysis ◽

Error Correction ◽

Systems Theory ◽

Control Systems ◽

Quantum Circuit ◽

Quantum Computers ◽

Quantum Model ◽

Control Systems Theory ◽

A Chain

<div>There is an increasing interest to find applications of current quantum computers, small number of qubits and no error correction, known as NISQ computers. In this paper a parametrized quantum model is embedded in a chain of integrators to create an oscillator, the parameters are estimated using Taylor linearization and stability analysis from classic control systems theory.</div><div><br></div>

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Comparison between two different quantum models of ball lightning

E3S Web of Conferences ◽

10.1051/e3sconf/20186201004 ◽

2018 ◽

Vol 62 ◽

pp. 01004

Author(s):

Vladimir Kuznetsov

Keyword(s):

Water Clusters ◽

Three Dimensional ◽

High Energy ◽

Einstein Condensate ◽

Ball Lightning ◽

General Nature ◽

Quantum Model ◽

Bose Einstein Condensate ◽

Quantum Models ◽

Bose Einstein

Two models of ball lightning are compared here. Each model is quantum. One of them was proposed by American and Finnish physics [1], who were the first to create three-dimensional skyrmions – particles in Bose- Einstein condensate with an ordered spin structure where central and boundary spins are opposite directed. A stable knot between electric and magnetic fields in a three-dimensional skyrmion is treated by the authors as a quantum model of ball lightning (BL). The next model proposed here proceeds from quantum entanglement (QE) of protons in hydrogen bonds (HBP) inside atmosphere oversaturated water vapour [2]. Two other quantum models issued in 1937 and 2007 are mentioned here. Origin of high-energy particles flux inside clouds as conditions for its origin when dark lightning [3] precede ordinary one creating additional ionization, fluxes of fast electrons with MeV energy prior to lightning which is initiating BL, glow, sprites are considered. All phenomena listed above appear to be of general nature resulting from QE of HBP in overstable water clusters (tetramers) inside clouds. Comparing models introduced above we use the estimation of BL capacity to enter via glass as a key parameter. Unexplained in BL models this frequently observed phenomenon as well as many other such as the BL transparency, its coldness and hiss become obviously explicable in the context of our model.

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