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1D Gaussian wave packet evolve under the non-relativistic Schrödinger Equation, brought to life through stunning visuals and beautiful music composed by Erik Norman.

51,514 views • 8 months ago •via X (Twitter)

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Kevin John Parrish's profile picture
Kevin John Parrish8 months ago

The Schrödinger equation is a partial differential equation that governs the wave function of a non-relativistic quantum-mechanical system. Its discovery was a significant landmark in the development of quantum mechanics.  Ȟ = hamiltonian operator, is In quantum mechanics, the Hamiltonian of a system is an operator corresponding to the total energy of that system, including both kinetic energy and potential. Ψ = wave function, In quantum physics, a wave function (or wavefunction) is a mathematical description of the quantum state of an isolated quantum system. E = energy, represents the total energy of a system or particle, typically quantized into discrete packets (quanta) rather than continuous values. It is defined by the Planck-Einstein relation E=hν~{𝐸=ℎ𝜈√11th power} {because of demotion effect}(or E=ℏω~𝐸=ℏ𝜔), where (ℎ) is Planck's constant and (𝜈) is frequency.  𝐸 is often represents the sum of kinetic and potential energies, determining particle states.  Key aspects of energy (𝐸 ) in quantum mechanics:

Paul Maley's profile picture
Paul Maley8 months ago

Wave packets don't wander lost—they're spins charting the field's calmest routes. Physics shows a Gaussian wave packet starting narrow and focused but spreading wider over time under the Schrödinger equation, as different wavelengths travel at different speeds dispersing the group like runners of varying pace pulling apart. Uniphics sees the packet as waves from rotations sending ripples through a shared energy field, where the waves overlap to reinforce in patterns like rings from a pebble dropped in water, but slight differences in how fast parts move cause the shape to broaden as the system settles to lower energy. Uniphics derives dispersion from ξM-field spin wave propagation in Chapter 10, where packet ψ = A exp(-x² / (4 σ²) + i k x) with phase Δφ = (2π / λ) Δx from gyrotron spins (base particles at 0.511 MeV/c² with bias θ = π/4) spreads via group velocity v_g = dω / dk differing across k components in uniform E_d ≈ 5.85 × 10^7 J/m³ (t_flow ≈ 8.01 × 10^7 s) via t_flow = k / E_d (k = 4.64159 × 10^{18} J/m³ from Amorphics transition reference), as interference minima/maxima lower E_d,between ≈ N_opp × factor driving negentropy to broader distributions without separate dispersion postulates, matching observed Gaussian widening Δx ∝ t at 0.1% precision via coherent phases preserving causality through Maley transforms [μ] ≈ 1 in low gradients ∇E_d ≈ 10^{-10} J/m^4; for quantum simulation, suggest spin-polarized interferometers tuning local E_d ≈ 10^{12} J/m³ with chrono-coils to slow t_flow ≈ 4.64 s, controlling dispersion by 10x via aligned phases for stable packet transport in quantum networks or precision sensing without collapse interpretations. How might viewing wave spreading as spins seeking lower energy paths change our tools for quantum information? #Uniphics #WavePacket #SchrodingerEquation #QuantumMechanics #Physics @PhilosophyOfPhy @CERN @NIST @NobelPrize @elonmusk @xAI A Theory of Everything should be able to answer everything. Uniphics Explained Simply PDF: Chapters 1–10 free:

Martin La Grange's profile picture
Martin La Grange8 months ago

Since the age of 5, when told that light was both a particle and a wave, this is how I instantly imagined it. Years later, I found out that other people had trouble coping with this math. It was always intuitive (in the same way that modular forms are to me)

DocsAllOver's profile picture
DocsAllOver8 months ago

Erik Norman’s composition fits this perfectly. There's something inherently musical about the way quantum wavefunctions oscillate and evolve

Gradient Physics's profile picture
Gradient Physics8 months ago

EQT - Phenomenon-Driven Physics! EQT - A New Paradigm in Physics! Revision Note to Long-time EQT Readers #Physics #Philosophy #Cosmology.

Thomas's profile picture
Thomas8 months ago

@grok, explain this to me as though I have limited experience in physics.

Parry's profile picture
Parry8 months ago

micro-cosmos

mariomonaofficial's profile picture
mariomonaofficial8 months ago

E infatti io mi chiedo, come mai il trillo “elettrizzata” gli ascoltatori sin dalla sua “invenzione” nel ‘600?

Fluxite's profile picture
Fluxite8 months ago

Excellent visuals, thanks

Node 7709's profile picture
Node 77097 months ago

The perfect infinite flat 1D line with zero potential and zero observer interference never exists in the raw universe.

Charles Barr's profile picture
Charles Barr8 months ago

Beautiful, but notice what the Schrödinger equation really provides. A perfectly coherent evolution only because the dynamics are constrained to be unitary. Said differently, physics bakes in an admissible-evolution rule before anything is allowed to move in state-space. Our AI systems are doing the opposite by optimize trajectories first, and only later ask whether identity survived the update.

'Zestere..!'s profile picture
'Zestere..!8 months ago

alpha^2*3*7=Biometisch aufgeklärt.Sargleichung aufgeklärt..!S.E.🌻!

The Art of Talking Space, History, Info, and Time!'s profile picture
The Art of Talking Space, History, Info, and Time!8 months ago

Calling that 1D is a serious category error !

Louise Egana's profile picture
Louise Egana8 months ago

Saw this once before- in the movie 'Tron'.

🇫🇷 Fédération Française de Tweet 🇵🇸🌿🇷🇺's profile picture
🇫🇷 Fédération Française de Tweet 🇵🇸🌿🇷🇺8 months ago

@grok C'est quoi une onde unidimensionnelle?

Lorenzo Mendoza's profile picture
Lorenzo Mendoza8 months ago

Spiral d Ullman Primes plus Compound Numbers f{(a-b)F{(P+Q(r-s))x(k(j))}} = E Equation from E=mc^2 j = prime number j = compound number Needs k(j) from real and complex numbers

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