Topic
Materials Science
Episodes and research papers from From First Principles that help explain Materials Science from the ground up.
Episodes
Conversations and explainers connected to Materials Science.
Harder Than Diamond? The New Hexagonal Diamond Breakthrough
A 50-year debate, a harder-than-diamond claim, and some very funny peer review drama.

Roman Concrete, Brain "Cognitive Legos," DeepSeek, and Econophysics
Roman concrete, compositional brains, DeepSeek scaling, and market impact physics.

Hypersonic Physics, Deep Sea Life & Princeton's Millisecond Qubits
Hypersonics, alien-life analogs, and a millisecond qubit.

Portable Muon Beams, Sodium Batteries, and the Secret to Long Life
Muons, sodium batteries, and naked-mole-rat longevity biology.

From Cells to Circuits to Crystals — 2025 Nobel Prizes Unpacked
A 2-hour Nobel Week mega-episode: Medicine, Physics, Chemistry.

Hacking The Human Brain, Unlocking Our DNA, Unbreakable Diamonds & The Quantum Magician
Mind-reading BCIs, human genetic switches, tougher diamonds, and quantum history.
Research
Papers and studies featured by the show.
An unfinished Pompeian construction site reveals ancient Roman building technology
Imagine you're baking a cake. Modern concrete is like using a standard, room-temperature cake mix. This research found that the Romans used a different recipe: they mixed a very reactive ingredient called 'quicklime' with dry volcanic ash *before* adding water. This is like adding a bath bomb to your dry ingredients – when they finally added water, the whole mix got very hot. This 'hot mix' created special, little white chunks in the finished concrete. For centuries, people thought these chunks were mistakes. It turns out, they're the secret sauce: if a tiny crack forms and water gets in, these chunks dissolve and create a natural cement that automatically fills the crack. The concrete literally heals itself.
Millisecond lifetimes and coherence times in 2D transmon qubits
Imagine a qubit is like a tiny, spinning top. Its spin holds special quantum information. The problem is that this top is incredibly wobbly and easily disturbed by the 'table' it's sitting on. The slightest vibration or imperfection in the table can make it fall over and lose its information. This is called 'decoherence'. Scientists have been searching for the perfect material for this table. This research discovered that using a super-pure silicon wafer as the table, instead of the more common sapphire, makes the top spin for a much, much longer time. A longer spin time means we can perform more calculations before the qubit forgets what it's doing, which is essential for a working quantum computer.