cluster
CDR & carbon management
Carbon dioxide removal and utilization — biological CCU, biochar, BECCS, DAC-with-biointegration and carbon-to-products pathways.
Where it's used
BECCS
Bioenergy with carbon capture and storage to provide negative emissions.
Bio-cementation & MICP materials
Microbes and mineral carbonation bind aggregate into cement at room temperature — replacing the 1,500-degree kiln that makes Portland cement responsible for roughly 8% of global CO2 — turning concrete into a carbon-negative climate asset sold as tiles, self-healing structures and CO2-derived aggregates.
Biochar carbon removal
Pyrolysing biomass into stable biochar — or fast-pyrolysis bio-oil injected underground — turns atmospheric carbon into a durable, monetisable climate asset, with soil-amendment value and certified carbon-removal credits as the twin revenue streams.
Biochar pyrolysis equipment & process
The reactor and balance-of-plant hardware that carbonises biomass into biochar plus heat and power — modular continuous carbonisers, biomass-cogeneration-coupled pyrolysis, and batch or mobile units — supplied by specialist manufacturers whose equipment is what makes certified biochar carbon removal physically possible.
Biological carbon capture & utilization (bio-CCU: gas fermentation, CO2-to-protein, e-fuels)
Turning captured CO2 into fuels, proteins, polymers and methanol via microbial gas fermentation, engineered microbes and algae — a carbon-utilization value chain from industrial emissions to circular carbon products.
DAC with biointegration (hybrid bio-DAC)
Direct air capture with bio-integration — carbonic-anhydrase-functionalized sorbents and engineered-microalgae photobioreactors that cut DAC regeneration energy and cost via low-temperature desorption.
Enhanced rock weathering
Crushed silicate rocks applied to agricultural lands to draw down CO2.
Ocean alkalinity enhancement
Accelerating the ocean's natural carbon sink by adding alkaline minerals to seawater to safely sequester CO2.