Quantum Nanoelectronics for 3D EM Full-wave Microchip Design Software

Quantum Nanoelectronics

for 3D EM Full-wave

Microchip Design Software

___________

Electron Quantum Mechanics

Explained in CRQT Topofuncs

| MAVCAM-type Electron Topology | Femtoscale Images

_______ | Nanoyoctoscale RQT Electron Closeup |

Old electrical engineering

analyzes circuits and components

in terms of standard, classical

Newtonian, and Maxwellian models.

That proceeds by curve fitting which

estimates the detailed topologies of

_______________________________ electrons flowing through materials. | Positron Topology |

While approximation of the ____________________________________

electricity in power generation, transmission, communication, or microcircuits

by electrical simulation software has advanced to the nanotechnical level, the present popularly applied models lack

clear defintions for the electron itself or the electromagnetic fields and waves. In order to redesign the system for safety and

efficiency, developing the CAD software for a femtoscale circuit simulator in terms of relative quantum electromagnetic

physics, CRQT physics was designed as a completely new mathematical model for 3D EM full-wave electrical simulation

software.

Exact picoyoctoscale modeling of electrical current as individual 3D

electrons with their magnetic fields is achieved by the grand unified GT

integral atomic function. The topologies of that electromagnetic energy

flow may now be studied for any material in terms of it's electric and

magnetic field energy textures and densities, while displaying the pymscale

details of each energy or force particle's structure, location, velocity, and

interactive quantum mechanics. The immense complexity of that task will

be achieved by computer programs that are bulkier, slower, and

operated in an interactive decision making mode for selection of data

summation options. The results will have permanent, cumulative value that

leads gradually to the completion of the intended comprehensive material

data file archival system named SYMAVIA, Synthetic Molecular or Material

Animated Video Interactive Archives.

MAVCAM images of the electron, shown as pen and ink models | Ultrascale MAVCAM Mockup Model |

above, have data point definitions by the electron topological wavefunction, | of an Electromagneton Emitting |

or simply the GT electron topofunc. This format of electron modeling |_____________________________________|

maps any volume of material to display the selected electron's state for an

instant t₁, including cross-section closeups of internal pymscale details. It's companion magnetic field is data imaged in the

context of it's true pulsation mode. A wider scene of electromagnetic energy and force fields emerges by zooming out, revealing

how the moving electron will meet and interact with challenges to it's inertial flow.

__________________________________________________

The Relative Quantum Electronics Viewpoint of MAVCAM

A whole new perspective for analysis of electrical currents emerges. Now the new CRQT model dimensions open a wide

vista of magnetic and electrical particles associated by force in arrays simulated for each possible variable by atomic

topological function mapping. This mode is electromagnetic particle visualization of circuitry driven by the unassisted relativistic

quantum mechanics of particle dynamics. Each particle of the four force fields is displayed with it's force interrelationships to the

other forcons, energy particles, and electrons. That scene of electronic modeling is a complete mechanism of quark-string

structures in which the grand unified quantum physics equations' dynamics move the virtual electrons while displaying the

exact Planck scale topologies of their magnetic fields. The result is a deterministic MAVCAM electromagnetic wave physics

system free of estimation or noise.

The visual aids above show how each regular electron holds an array of energetic negative charge particles named

minons in it's outer diffuse region. Their relativistic quantum mechanics, powered by superworkons, animate the minons to

deliver concentrated negative charge forcon particles that interact with the more rigid magnetic matrix of force-linked magnetons,

magnons, fabrixons, and magnixals. MAVCAM is a magnetic field modeling software build system, and has produced the images

of a varied spectrum of the magnetic energy particles, explaining quantum magnetodynamics in terms of workon relativity. The

driving force transfer model clearly illustrates how magnetic attractive force pulls or repels susceptible objects, allowing verification

of magnetic action by electron spin quantum mechanics functions and the list of magnetic field equations. CRQT physics analysis

of this sort develops the image of the magnetic flux variable B as the frequency of a particle, defining magnetism in

comprehensive, relativistic terms. CRQT-MAVCAM is, in fact, a complete system of electrodynamics driven by Einstein-Lorenz

relativity.

Within and around the virtual electron's minosphere the positrons hover to add essential fluidity to the electron's pulsations of

redistributive structural symmetry work. That conservation of the momentum of a current electron's

whole symmetric topological particle state proceeds by relativistic quantum functions, which also build

a spectrum of waveparticles named electromagnetons. They collect an atom's surplus force or energy

due to it's constant work, focusing and blending forcons to achieve construction of new electromagnetic

output photons. The Stefan-Boltzmann thermal photon output rule, at left, projects an exact pymscale

video sequence of single electromagnetic photon emission events when viewed through the lens of

MAVCAM. The electromagneton pictured above gives an idea of how pymscale architectural features process stress by

delivering it to a succession of workons capable of proportioning the photon output event's spin states and triggering probability

threshold.

Now that an electromagnetic energy video system has revealed how positrons work in IC chips the dynamic, flowing chain

of quantized relativistic time, mass, and energy events driving electron motion and work may be modeled with complete

accounting for that mechanism's concerted thermic force and energy catalysis. Electrons are portrayed as waveparticles that

may be referred to as wavectrons, holding both particle and wave characteristics. The exact animated, interactive Planck scale

electromagnethermal MAVCAM microchip energy and force field video simulation invention is a reality.

|________| .||. |______|| O ||......|....|..||.|||

Clough Essays in Quantum Mechanics Grand Unified Particle Physics Previews The Crystalon Door - The Grand Unified Theory

Reductive Mathematical Processing of

Electromagnetic Equations for Exact

Transistorized IC Modeling at Ultrascales

One way to think of the new physics system is to

idealize the infinitesimal Planck scale of particles, fields,

and waves within atoms. Those objects pulsate, move,

and react due to their radiation and absorption of forcons

as defined by the Einstein-Lorenz transformation functions.

They interact by the radiation of mass as they lose velocity,

due to Lorenzian transform of mass to forcons with joule

values. Conversely, they absorb forcons while they

gain velocity.

New physics applies Lorenz time and mass transform

functions to calculate exact modes of electromagnetic

waveparticle existence. They have been reduced to

ultimate topologies by exhaustive mathematical separation,

simplification, rearrangement, expansion, and boundary

valuation of the E.L. functions. Those processes reveal a

wide series of modeling innovations when the remixed

relative quantum equations are given dynamics by solving

derivatives and integrals.

The Crystalon Door gives explanation of relativistic

quantum topological mechanics in terms of those

mathematical steps, the CRQT function network, built solely

of standard algebra and calculus operations. It does not

allow any negative root, matrix operation, approximation,

disconnected process, curve fitting spline,or unexplained

feature.

Since the GT integral atomic topofunc defines the point

map of a pulsating atom, it provides an exact, complete

resource for nearly all issues of material, energy, or force.

One vital feature of this new physics format is the RQT

imaging of electrons and electromagnetic waves. The

topological waveparticle function of the electron was solved,

and the electromagnetic wave photon's. Precise quantum

electrodynamics was resolved at the Planck scale.

While the earlier visualizations of electrons and their

physics of motion and work seems like a vague, speculative

venture of many different nanomodels based on the idea of

a wavenode, those may be easily translated from their

present levels of development to an electromagnetic energy

and force model made up entirely of specific particles with

highly defined topologies, quantum states and relativistic

interactions. This picoyoctoscale virtualization includes

supersymmetry as an omnipresent parameter of both

waveparticle topology and interaction. MAVCAM operates

by a complete electromagnetic wave physics model of

relative quantum topological functions.

|_____|___|_| -e ||||

Quantum Electrodynamics for Beginners

Relativistic Electronic Particle Physics Explained

Looking at electronic schematics with the standard

set of continuous functions for electricity flow and circuit

component parameters gives a view shaped by basic

measurements for standard operating conditions.

Microcircuits, transistors, and other more modern electrical

devices based on quantum effects by application of more

highly detailed designs and new, quantized component

materials have strained the old standard system of electrical

circuit analysis and design.

That inadequacy of approximative nanoscale physics

in addressing 21st century challenges is being superceded

now by CRQT, which went back to the beginnings of physics

to build the grand unified atomic model as the basis for all

science and engineering. That project, Nabla Cubed,

reasoned that only the composition of the valid atomic

topological function by unification of Einsteinian-Lorenzian

relativity with quantum physcics, with definition of the force

and energy relationships of electromagnetism with gravity,

could build the ultimate mathematical quantum function

network defining electrons and their interactions.

When the first GT atomic function research produced

the early 3D, animated, interactive, picoyoctoscale images

of pulsating atoms the electron's model emerged as the

Symmecon MAVCAM pen and ink mockups above and

below display. Now CRQT physics understands the electron

as a standing overtone wavenode of the nucleus that has

crystallized to a state of semimatter. The video format allows

observers to study electrons as waveparticles that perform

work to conserve momentum, a set of electrocore force

processes driven by well defined interactions of heat,

magnetism, positrons, workons, negative charge, timefield,

probability, and space.

Grand Unified Theory . . . . . . . . . . . . . Symmecon Marketing Corp. ________________________________________

* Nanotechnical Atomic Imaging Software Development * * Chip Design Software Builds................................................................................ The Solution to the Schrodinger Wave Equation*

Grand Unified Theory . . . . . . . . . . . . . Symmecon Marketing Corp. ________________________________________

* Nanotechnical Atomic Imaging Software Development * * Chip Design Software Builds*................................................................................ *The Solution to the Schrodinger Wave Equation*

* Nanotechnical Atomic Imaging Software Development * * Chip Design Software Builds................................................................................ The Solution to the Schrodinger Wave Equation*