Publications
Curated papers, preprints, and external literature that frame the scientific basis of one-carbon conversion systems.
Resources
This page gives technical funders, collaborators, and industrial partners a clearer view of the platform logic, assumptions, and questions that shape one-carbon conversion work.
Categories
The categories below frame the materials needed for disciplined external review: technical rationale, intellectual property, partner-facing briefings, and operating questions.
Curated papers, preprints, and external literature that frame the scientific basis of one-carbon conversion systems.
A place for issued or filed intellectual property materials when there is enough substance to share responsibly.
Technical overviews, decks, and presentation materials intended for serious external review.
Focused memos that explain design logic, pathway assumptions, process constraints, and commercialization framing.
A structured set of questions and answers for technical funders, collaborators, and industrial partners evaluating the company closely.
How to use this page
The point is to separate documented evidence, operating assumptions, and questions that require direct validation. For an infrastructure-oriented deep-tech company, that distinction matters. A useful resource page should sharpen those boundaries, not blur them.
FAQ
These answers are intentionally concise. They clarify C1 Foundry's current thinking without overstating what has already been proven.
Why this instead of petrochemical routes?
The argument is not that petrochemical routes disappear. It is that biological routes may become attractive where feedstock flexibility, product selectivity, or carbon positioning create an advantage that conventional chemistry does not easily provide. Whether that advantage is real depends on the full process, not just the biological step.
Why not just buy acetate?
Buying acetate may be simpler in many cases, and that is exactly why it is a useful comparison. The technical question is whether producing an intermediate in-platform creates strategic or economic value that outweighs the added process burden. If it does not, the platform logic needs to be reconsidered.
Where does the economics get hard?
The economics usually get hard where several constraints compound at once: feedstock handling, energy demand, biological performance, separation cost, and capital intensity. A route can look attractive at the carbon-balance level and still become difficult once redox burden, purification, and process stability are accounted for together.
What advantage do CO2 and H2 actually provide?
In principle, CO2 and H2 can offer a route to carbon sourcing and reducing power that is less tied to conventional fossil intermediates. In practice, that only matters if the combined system can use them efficiently, safely, and at a cost that supports a real product strategy. The advantage is conditional, not automatic.
What has been demonstrated versus what is still conceptual?
The broad scientific building blocks around C1 conversion, acetate-related metabolism, and engineered product pathways exist in the field. What remains conceptual at the company level is the integrated platform claim: a specific combination of inputs, pathway logic, process design, and product strategy that works well enough to support commercialization.
Why might high-value products be the first wedge?
Higher-value products may offer more room for early technical inefficiency, development cost, and specialized process design. That can make them a more credible place to validate a platform before attempting categories such as commodity fuels, where margins are tighter and scale pressure appears earlier.