Blog

Quantum physics, AI and research, explained.Quantenphysik, KI und Forschung, verständlich erklärt.

Articles from Deep Quantum Science: our research made accessible, with real simulations behind every figure.Artikel von Deep Quantum Science: unsere Forschung verständlich aufbereitet, mit echten Simulationen hinter jeder Abbildung. Die Artikel sind auf Englisch.

Research explained ·

From bits to trits: spin-1 operators as base-3 numbersVon Bits zu Trits: Spin-1 im Dreiersystem

A spin 1 has three positions. Read them as the digits 0, 1, 2, and spin-1 operators become jumps between integers written in base 3.

Research explained ·

The Haldane chain: a gap that should not be thereDie Haldane-Kette: eine unerwartete Energielücke

Integer spins keep an energy gap, hide a perfect up–down order and carry half spins at their ends. We compute it all exactly with our base-3 representation.

Research explained ·

One machine, all the energies: perturbation theory with matricesEine Maschine für alle Energien

A compact matrix recursion gives every eigenvalue and eigenstate at once, to any order. We run it, and show exactly when and why it breaks.

Physics explained ·

Can a quantum system remember its past? Many-body localisationKann sich ein Quantensystem erinnern?

Most systems forget where they started. With strong disorder, interacting quantum spins can refuse to. Three fingerprints, computed exactly.

Software · Open design ·

How to build a Word ⇄ LaTeX converter: the design of DeepQ ManuscriptWie man einen Word-⇄-LaTeX-Konverter baut

The architecture and the algorithms behind DeepQ Manuscript, explained step by step with figures and pseudocode. Free to read, reuse and build upon.

Research ·

Quantum spins are just binary numbersQuantenspins sind Binärzahlen

Read a chain of spins as a binary number, and spin operators become simple jumps between integers: the idea behind our Dirac representation.

Research explained ·

Perturbation theory explained like you’re 10Störungstheorie, kindgerecht erklärt

Tiny magnets on a bumpy road: how physicists estimate energies when the exact problem is too hard, step by step and with real numbers.