Green hydrogen becomes bankable when it ships as a molecule the world already buys — ammonia, methanol, and e-fuels. We run the techno-economics, RE sizing, and process engineering that turn a renewable resource into an export-ready derivatives plant. Delivered at export scale (Kandla, 1,500 tpd) and for the fertilizer sector (Kerala).
Pure hydrogen is hard to move and store. Its derivatives aren't: ammonia has a global trade and a fertilizer market; methanol drops into existing chemistry and shipping fuel; e-fuels decarbonise aviation. Converting green H₂ into a derivative is often what makes an export project finance-able — and that conversion is an engineering and techno-economic problem we solve end to end.
Sizing the opportunity across fertilizer, shipping fuel, and export — with the buyers and the regulations mapped.
Cost of the molecule all the way to the derivative — ammonia, methanol — across RE mix and plant configuration.
Electrolyzer, ASU, and synthesis-loop sizing against banked renewable generation and target output.
Synthesis loop, storage, and balance-of-plant — PFDs, P&IDs, and mass/energy balance.
Identification and qualification of derivative buyers across Japan, South Korea, Europe, and emerging importers; MoU and term-sheet support.
Port, storage, and shipping pathway scoping for export-oriented projects.
Fertilizer, shipping fuel, and the leading H₂ export vector. Feasibility delivered at 1,500 tpd.
Drop-in for existing chemistry and marine fuel; bio- and e-methanol pathways.
Sustainable aviation fuel and synthetic fuels — pathway scoping and techno-economics.
Tell us your resource, target derivative, and market. We'll model the economics and scope the plant.