Retired - Independent Researcher
The Great US Northwest
Joined October 2022
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Ron Messick retweeted
The geodesic equation was developed primarily by Elwin Bruno Christoffel in 1869 when he introduced the Christoffel symbols.
It builds on the work of Euler and Bernoulli in variational calculus, Gauss on curved surfaces for Earth measurement, and Riemann's 1854 Riemannian geometry. Derived by extremizing the arc length using Euler-Lagrange equations, it finds the shortest paths on manifolds.
Einstein used it in 1915 for general relativity because free-falling particles follow these geodesics due to the equivalence principle.
Ron Messick retweeted
مركبة صينية الصنع تنزل إلى حفرة الجن، وانظروا كيف تخرج منها...
✅ تحطيم الأسعار ✅
بناء ، تشطيب ، ترميم زودونا بأقل سعر حصلتم عليه وسنزودكم بأقل منه وبنفس البنود . تواصلوا معنا الآن👇🏻
الجوال: 0595990382
واتساب: wa.me/966595990382
Ron Messick retweeted
Six-layer graphene displays superconductivity and orbital magnetism
Researchers at Cornell have found that stacking six graphene sheets in a rhombohedral, staircase-like arrangement produces a single platform hosting two distinct quantum phenomena: superconductivity and orbital magnetism. The work, published in Nature Physics, was led by Xiaomeng Liu's group with co-first authors Jinghao Deng, Hongyuan Li and Jiabin Xie.
Superconducting states appeared when electrons and holes coexisted in the material, and they proved surprisingly resilient to in-plane magnetic fields. The team also observed an orbital form of magnetism tied to the material's electric polarization, which could be switched with an electric field, pointing to electrical control of magnetic properties.
The findings show that an all-carbon material can support a rich set of collective electron behaviors, making rhombohedral multilayer graphene a promising testbed for probing how superconductivity and magnetism arise and how they might be controlled. That has implications for designing future quantum devices from atomically thin layers.
nanotechnologyworld.org/post…
Ron Messick retweeted
Gravity is not an invisible force pulling objects across empty space.
In General Relativity, mass tells spacetime how to curve, and curved spacetime tells mass how to move.
The Sun’s 1.989 × 10³⁰ kg mass depresses four-dimensional spacetime into a deep gravitational throat. Earth and Jupiter are simply traveling along straight inertial paths called geodesics (d²xᵘ/dτ² + Γᵘₐᵦ uᵅuᵝ = 0) through the warped geometry of the universe.
Ron Messick retweeted
In 1953, Enrico Fermi, John Pasta, Stanislaw Ulam and a young programmer named Mary Tsingou used one of the first computers, the MANIAC at Los Alamos, to watch a vibrating chain of weights share its energy out evenly, just as everyone expected.
One day, the run was accidentally left going long past its cutoff, and when they came back the energy had flowed almost entirely back into the original wave, as if the chain remembered where it started.
That surprise helped launch the modern science of Nonlinear Waves, and for decades Tsingou, who wrote the code, was left out of the problem's name.
Ron Messick retweeted
Three orbs. Then they lock. Then the flash. My read: a jump, not an explosion. Full MH370 Files on my YouTube: youtube.com/@drew_ponder
ASi recreation, altered/synthetic content.
🤖 Made with AI
Ron Messick retweeted
Structurally and geometrically, the two images below present the exact same mathematical story from two complementary perspectives: geometric topology (Image 1) and harmonic scalar electrodynamics (Image 2).
1. Image 1: Geometric Topology (The 3-Node Interference Pattern) The crop circle formation maps the physical geometry of an interlocking 3-node standing wave field:
Triadic Resonance (3 Nodal Centers): The formation contains three major concentric circular wave centers arranged at phase shifts.📷
The Scalar Intersect: Where the three spherical wavefronts overlap, they create a central interference cavity (a neutral scalar zone/inertia line).
Grid Quantization (The Checkerboard Lattice): The outer perimeter transitions into a quantized grid/lattice. In wave mechanics, this represents the phase boundary where smooth field dynamics discretize into standing wave nodes (matter/charge).
Duality/Binary Scaling: Notice how each circular node is halved into light/dark (compression/rarefaction) states, demonstrating a 2:1 rotational and phase symmetry.
2. Image 2: Mathematical Formulation (Gauss's Law & Base-144 Harmonics)
The mathematical expression translates this exact geometric topology into Gauss's Law ():📷
Ron Messick retweeted
Why does a single electron create an interference pattern as if it were a wave?
De Broglie showed every particle carries wavelength λ = h/p. For electrons this is large enough to diffract. Double-slit experiments confirm they interfere with themselves. Electron microscopes resolve atoms because those wavelengths are far smaller than light.
The shortest formula can hide the deepest duality.
Ron Messick retweeted
Is this a type of so-called "bound state in the contunuum?" I know Raymond Rumpf studied this for photonic structures.
Ron Messick retweeted
Electrons in a metal are supposed to roam free, yet Columbia just caught electron waves trapped in place inside a metal called Pd5AlI2.
In this metal, every escape path is open but the paths cancel each other out by quantum interference.
Light has been pulling this trick for over a decade, and this is the first time anyone has seen electrons do it.
quantum.columbia.edu/news/qu…
Ron Messick retweeted
Albert Einstein explaining (E=mc^2) by stating that mass and energy are both but diffrent manifestations of the same thing.
Albert Einstein's equation, \(E=mc^2\), demonstrates that mass and energy are not distinct realities, but rather different manifestations of the same underlying physical entity. In his own words, Einstein described matter as a concentrated field of energy, stating that "mass and energy are both but different manifestations of the same thing—a somewhat unfamiliar conception for the average mind."
Ron Messick retweeted
Is it possible to bring something more about the positions that the sun occupies in the second graphic?
Ron Messick retweeted
OMG it's happening! Something MASSIVE just appeared on the coronagraph! Look bottom left!
Ron Messick retweeted
Quantum mechanics makes sense, a physicists shows mathematically, if the universe has two dimensions of time, rather than just one. Does this make sense? I've had a look at the paper.
Ron Messick retweeted
In 1908, Hermann Minkowski proposed a radical idea: space and time are not separate things, but parts of one structure called spacetime.
Two observers can measure different distances and durations, yet agree on the spacetime interval. Its formula combines time and space into one quantity that stays unchanged between inertial observers.
Space and time depend on how you move. The relationship between events does not.
Ron Messick retweeted
These are the three, inner working parts of a UFO drive.
A central ring magnet and two magnetic flywheels.
Drawn three different times and places in crops (2000, 2020, 2026). Can you visualize how they will move with respect to one another?
Video 4 shows what contactee Norman Paulsen saw, when he rode on a UFO out to Jupiter in the 1960s.
Right now I feel very limited of intelligence, when trying to build this magnetic-gyroscopic UFO drive on a small scale! How about you?
Can anyone tell me how it creates space propulsion?
Red Collie feeling dumb 🐶
Ron Messick retweeted
Richard Feynman called Euler's formula "the most remarkable formula in mathematics."
And there's a fascinating engineering reason why this equation is so important.
e^(iθ) = cos(θ) + i·sin(θ)
It connects exponential functions, imaginary numbers, trigonometry, and rotation through a single mathematical relationship.
But its usefulness goes much further.
Consider a sinusoidal signal:
x(t) = A cos(ωt + φ)
Using Euler's formula, we can represent it as the real part of a complex exponential:
A e^(i(ωt + φ))
Why would engineers use this representation?
Because differentiating e^(iωt) simply multiplies it by iω. Phase shifts can be represented through complex multiplication.
For linear, time-invariant electrical circuits in sinusoidal steady state, this allows differential equations to be reduced to algebraic equations.
Engineers use this mathematics in phasor analysis, AC circuit calculations, impedance, and frequency-response analysis.
The same complex-exponential representation is fundamental to Fourier analysis, signal processing, communication systems, and the study of mechanical vibrations.
Feynman also described the complex-plane representation of numbers as the unification of algebra and geometry.
And that's what makes Euler's formula so remarkable.
An equation connecting imaginary numbers and circular motion provides a practical way to analyze real electrical signals, oscillations, and physical systems.