A Korean research team from KAIST has built a new kind of physics-informed AI that can uncover the hidden properties of materials using only a handful of data points — no supercomputers, no endless lab trials.
Traditionally, discovering new materials meant running thousands of experiments and simulations with expensive equipment. But this new approach fuses machine learning with the laws of physics, creating a smarter, faster, and more reliable system.
🧠 How it works
The method uses Physics-Informed Machine Learning (PIML) — an AI that learns the rules of physics directly.
Instead of blindly crunching numbers, it’s guided by equations that describe how materials behave in the real world.
- In one test, the AI accurately modeled rubber-like materials using data from just one experiment.
- In another, it predicted the key traits of thermoelectric materials (which convert heat into electricity) from only a few measurements.
⚙️ The big leap — PINO
They also developed a Physics-Informed Neural Operator (PINO) — a model that not only understands physics but can generalize to entirely new materials it has never seen before.
After training on 20 materials, PINO correctly predicted the properties of 60 new ones — a massive breakthrough for speed and scalability in materials discovery.
🌌 Why this matters
This could accelerate the discovery of alien-level materials — superconductors, self-healing composites, ultra-efficient batteries, and metamaterials that bend light or sound.
By the late 2030s, AI-discovered matter could reshape entire industries — from energy and electronics to transportation, construction, and space tech.
The era of trial-and-error material science is ending.
The era of AI-designed physics has begun.

