Powering the next century of growth
For decades the carbon-capture bottleneck wasn’t the idea — it was the material. Generative AI now designs the sorbents and catalysts that decide whether direct air capture pays for itself.
Microbial electrosynthesis uses living electroactive biofilms as biocatalysts that turn CO2 and renewable power into hydrogen. A 2026 breakthrough doubled acetate output by steering which microbe grows on the cathode, and startups Ossus and Cemvita now aim the same living cathode at fuel.
One fuel line now serves two customers: advanced reactors on the grid and cislunar rockets. The bottleneck is enrichment and fuel fabrication, built years ahead of the reactors that burn it.
Wind and solar are now cheaper to build than new fossil plants, yet the investment story has moved to storage, grids and stranded-asset risk.
Biology is replacing the cement kiln. Prometheus Materials ProZERO uses microalgae to grow the binding mineral, and it is already pouring at commercial scale.
Biology is becoming a storage medium. Microbes and archaea convert surplus renewable electricity and captured CO2 into drop-in e-methane and carbon-negative chemicals. The anchor deal is real; the bottleneck is the balance sheet.
Grid batteries crossed 100 GW of annual additions while venture money fled long-duration storage. Inside the technology ladder, the AI data center deals rewriting demand, and the financing gap that decides which chemistry gets built.
A South Dakota startup is betting the carbon-capture prize is the enzyme, not the plant, as it moves from lab to a 2026 field pilot.