The BioCom Tamanu Scientific: Validating Next-Generation Lipids
At BioCom, our research centers on the Calophyllum inophyllum (Tamanu) seed. From a botanical and chemical perspective, it is a masterclass in efficiency.
10/29/20262 min read


First-generation biofuels are failing the climate timeline. While the market demands rapid decarbonization, traditional lipid feedstocks like soy, canola, and palm oil require prime agricultural land, driving up food prices and causing indirect land-use changes that erase their carbon benefits. The world doesn't just need alternative fuels—it needs a chemically superior, non-food lipid matrix that scales without ethical compromises.
The Calophyllum inophyllum Profile
The Scientific Foundation: At BioCom, our research centers on the Calophyllum inophyllum (Tamanu) seed. From a botanical and chemical perspective, it is a masterclass in efficiency:
Lipid Density: The kernel yields an unprecedented 65% to 75% oil content by dry weight, drastically outperforming commercial oilseeds.
Non-Edible Toxicity: Naturally rich in toxic neoflavonoids and coumarin derivatives (such as calophyllolide), it is inherently non-edible. It carries zero risk of entering the human food supply chain.
Agronomic Resilience: The tree acts as a robust carbon sink, thriving in degraded, saline, and marginal coastal soils across Africa, Asia and Pacific where food crops perish.
Decarbonizing Through Advanced Hydroprocessing
The Pathway: We have shifted away from traditional esterification (which produces low-stability biodiesel) and instead focused on advanced Hydroprocessed Esters and Fatty Acids (HEFA) pathways. By optimizing the catalytic conditions over customized Nickel-Molybdenum (Ni-Mo) and Platinum (Pt) beds, our team controls three core reactions:
Hydrodeoxygenation (HDO): Cleaving the carboxyl oxygen atoms to yield pure, oxygen-free linear paraffins.
Hydrocracking: Selectively breaking long-chain C18 carbon skeletons into tailored fuel ranges.
Isomerization: Converting straight-chain paraffins into branched iso-paraffins to secure elite cold-flow properties required by the aviation sector.
Empowering SDG 2030 Research Priorities
The Impact: By backing the BioCom research roadmap, your institution isn't just funding a fuel; you are pioneering an integrated ecosystem that satisfies multiple UN Sustainable Development Goals simultaneously:
SDG 7 & 13 (Clean Energy & Climate Action): Delivering drop-in hydrocarbons that slash lifecycle greenhouse gases by up to 80% compared to conventional petroleum.
SDG 15 (Life on Land): Driving large-scale phytoremediation and agroforestry programs that restore degraded terrains and halt coastal soil erosion.
The molecular blueprint is clear, and the initial lab yields are proven. What we need now is the institutional framework to advance our catalytic selectivity, optimize municipal scale-up, and publish the benchmark data that will define the next generation of global energy policy. Partner with BioCom, provide the scientific support we need, and let’s engineer the future of clean energy together. Tamanu research was initiated at www.biocom.id.
BioCom Indonesia
Industrial sustainability engineering & closed-loop infrastructure.
ARCHIVE
Home
Systems
Projects
Capabilities
Contact
INQUIRIES
info@biocom.id
Direct Line: +62 812 1350 243
Jakarta - Indonesia
www.linkedin.com/in/biocom-indonesia
© 2026 BioCom-Engineered closed-loop material and carbon systems.
FIELD-TESTED INFRASTRUCTURE
