Climate & sustainability
Quantum-Powered Carbon Capture ModelingMaturity: concept
Molecular adsorption and sequestration modelling; MOF screening, reaction pathways and AI-assisted process optimisation.
concept — An idea we find credible. Nothing has been built or measured.
What this is
The problem
Direct air capture and point-source capture both depend on materials that bind CO₂ selectively, release it cheaply, and survive thousands of cycles. Metal-organic frameworks are the promising family, and the candidate space is effectively unbounded.
Where the current approach strains
Screening is a funnel: cheap approximate methods narrow millions of candidates to thousands, then expensive accurate methods narrow those to dozens. The approximations at the top of the funnel are where good candidates get discarded silently, and nobody finds out.
What we are exploring
Electronic-structure and adsorption modelling for the middle of that funnel — the band where classical approximations get unreliable but full accuracy is unaffordable. Plus AI-assisted process optimisation once a candidate reaches pilot.
What would have to be true
A benchmark set of materials with known experimental binding behaviour, and a demonstration that the method ranks them correctly. Ranking is the real test, not absolute accuracy: screening only needs the ordering to be right.
Where it applies
Related
Quantum-Accelerated Climate Forecasting
Climate models trade resolution against ensemble size, and decision-makers usually need what the budget cannot give: many detailed scenarios rather than one. We are looking at whether the sampling step alone can be restructured, leaving the physics to the classical models that already handle it well. No classical baseline has been run yet, which is why this sits as a concept.
Quantum-Informed Climate Modeling
Hybrid modelling of climate systems, parameterisation and scenario analysis.
Power Grid Optimisation
Load balancing, fault detection, grid stability and energy-distribution optimisation concept.