Battery cathodes
Design lithium and solid-state cathodes with double the energy density.
Application / Energy
Batteries, fusion, and smarter grids for the next century.
The energy transition depends on chemistry (better batteries), plasma physics (fusion), and optimization (grids). All three sit inside quantum computing's core capabilities.
Plasma dynamics at fusion temperatures push classical simulation to its absolute ceiling.
What already happened, and what's next for quantum energy.
ExxonMobil signs on with IBM Quantum Network — first energy major.
PsiQuantum + Mercedes battery materials collaboration begins.
TotalEnergies launches quantum catalyst discovery program.
Multiple grid operators pilot quantum optimization in Japan and Europe.
First quantum-simulated battery cathode reaches lab prototype.
Fusion company reports quantum-assisted confinement optimization result.
Grid-scale battery designed on quantum hardware enters commercial production.
Room-temperature superconductor discovered — grid losses effectively vanish.
Design lithium and solid-state cathodes with double the energy density.
Simulate confinement dynamics to accelerate the path to net-positive fusion.
Balance generation, demand, and storage in real time across a continent.
Find cheap, non-precious-metal catalysts for green hydrogen production.
Who's actually building here — hardware makers, industry partners, and pure-play startups.
First energy major to join IBM Quantum Network; heavy chemistry focus.
Battery materials partnership with Mercedes-Benz.
Multi-vendor quantum program spanning catalysts and CO₂ capture.
Long-running quantum computing membership with IBM.
Public interest in quantum tools for plasma modeling.
Runs one of the earliest oil-major quantum chemistry pilots.
Ecosystem highlights
First narrow wins: 3–7 years for battery materials.