True Decarbonization Requires Circularity by Design—Not Just Linear Capture

We believe environmental performance is an engineering constraint, not a cosmetic layer. That is why we are reimagining clean fuel synthesis from the ground up with Truly Regenerative Methanol Production

Rather than relying on fossil-derived feedstocks or energy-intensive linear processes, our closed-loop architecture integrates carbon capture and green hydrogen generation into a unified, self-sustaining cycle:

🔄 Circular Carbon Capture & Harvest: Industrial CO2 emissions are captured directly using sodium hydroxide (NaOH) to form sodium carbonate (Na2CO3). At the utilization stage, pure CO2 is regenerated by reacting Na2CO3 with hydrochloric acid (HCl).

🌊 Seawater-Powered Chemical Loop: Both the NaOH and HCl needed for carbon capture and release are produced sustainably from seawater using Bipolar Membrane Electrodialysis (BMED), eliminating external chemical supply dependencies.

⚡ Biomass-Driven Redox Hydrogen: Clean H2 is generated through an iron oxide reduction-oxidation cycle (Fe3O4 <—> Fe), utilizing carbon monoxide (CO) derived from sustainable biomass gasification to drive the reduction phase.

🌱 Regenerative Methanol Synthesis: By uniting regeneratively harvested CO2 and circular H2, we produce drop-in Regenerative Methanol (CH3OH)—turning industrial emissions and seawater into high-value, zero-waste fuel.

We are moving beyond simple mitigation toward engineered closed-loop material and carbon systems.

Explore our modular frameworks and technical capabilities at www.biocom.id, or connect with our team to discuss a feasibility assessment for your industrial operations.

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