Higher costs.
Less predictable production from variable natural inputs.
Lower cost at scale.
Repeatable production with tighter process control.
Rare-molecule research across alkaloid, peptide, terpene, and cannabinoid classes.
Yeast-biosynthesis compounds characterized on the platform, across alkaloid, peptide, terpene, and rare-molecule classes.
From variable natural sourcing to precise biomanufacturing.
Less predictable production from variable natural inputs.
Repeatable production with tighter process control.
Natural sources arrive with companion compounds and impurities.
One pathway, one molecule, higher purity.
Season, geography, and growing conditions shift the result.
The same strain produces the same output every cycle.
Acreage, water draw, and carbon footprint grow with demand.
A single fermenter replaces many fields, with efficient resource use.
Growing seasons set the pace, and the result is rarely predictable.
Days, not seasons. Tighter process control, faster iteration.
Engineered microbes turn renewable feedstocks into high-value molecules. The same chemistry runs from grams on the bench to kilograms in production.
Enzyme design goes into the tank. Yeast expresses the pathway. Purity data returns to the model. The next run starts smarter.

Engineered yeast strains turn renewable feedstocks into rare-class molecules. The platform pairs biology with downstream chemistry to bring them from discovery to production.
A growing portfolio protecting the core technologies behind the yeast-biosynthesis platform. Six domains of coverage across the granted patents below.
CB Therapeutics. Rare molecules. Real biology. Biology makes better chemistry. Precision synthetic biology, Carlsbad, CA.
Research organizations, formulators, pharma partners, academic labs. A short email to the team is the easiest way in.