Our portfolio

Leilac’s calcination technology uses indirect heating to convert abundant carbonate rocks, such as limestone, into an alkaline product with low carbon emissions. The process is compatible with renewable energy sources, captures CO₂ released from the feedstock, and prevents contamination from combustion gases. The resulting alkaline material can be used for carbon removal (via ocean alkalinity enhancement or direct air capture) or to mitigate local ocean acidification.

SaltX builds electric arc calciners (EAC) which use plasma torches to heat limestone, converting it to high quality quick lime and releasing high purity CO₂ for storage. The plasma torch can generate heat at over 4,000℃ allowing a compact low-cost reactor. The quick lime is suitable for carbon removal uses like ocean alkalinity enhancement and mineral looping Direct Air Capture (DAC).

Cella is advancing in-situ mineralization (ISM) in deep underground basalt formations, converting captured CO₂ into durable mineral carbonates. Their subsurface and monitoring technologies expand where geological storage is feasible while supporting durable, verifiable long-term carbon storage.

PRONOE designs and deploys standardized, automated water treatment units that connect to coastal industrial outflows to raise alkalinity and dissolved carbonate levels in seawater, enhancing the ocean’s local capacity to absorb CO₂. Their approach minimizes pH change to the marine ecosystem, tolerates variable feedwater and feedstock conditions, and handles acid waste streams to simplify deployment at coastal facilities.

NULIFE GreenTech uses a process called hydrothermal liquefaction to efficiently transform wet and dry waste biomass—including from food processors, grain handlers, pulp and paper mills, and municipal biosolids facilities—into a bio-oil that is injected deep underground for permanent carbon removal.