
FeMoco Labs
FeMoco Labs is developing a solar-powered, container-sized system that produces nitrogen fertilizer from air and water at ambient temperature and pressure, eliminating the emissions and energy demands of the Haber-Bosch process. The company identified a synthetic catalyst, BE-1, by solving the electronic structure of the nitrogenase enzyme's FeMoco cofactor on classical computers. This catalyst is designed to replicate nature's nitrogen-fixation mechanism, potentially enabling decentralized, zero-emission fertilizer production.
- Agriculture Technology
- Artificial Intelligence
- Chemical Technology
- Clean Technology
- Energy
- Hardware
- New Materials
Funding
Founders
Product
Problem
Modern fertilizer production relies on the Haber-Bosch process, invented in 1909, which requires extreme heat and pressure to break nitrogen's triple bond. This single process consumes 2% of all energy on Earth and produces 1–3% of global CO₂ emissions, while also consuming 3–5% of the world's natural gas. The fundamental chemistry has remained unchanged for over a century, creating an urgent need for a sustainable alternative.
Solution
FeMoco Labs has developed a computational platform that solves the electronic structure of FeMoco, the catalytic core of the nitrogenase enzyme, on classical computers. This breakthrough enabled the company to identify BE-1, a synthetic catalyst that replicates FeMoco's mechanism for breaking nitrogen's triple bond at ambient conditions. The company is designing a solar-powered, 20-foot container unit that uses BE-1 to produce nitrogen fertilizer from air and water, requiring no grid connection, natural gas, or industrial plant infrastructure. This system operates at roughly 20°C and atmospheric pressure, with zero emissions, making fertilizer production possible at any location with sunlight.
Target Audience
Primary customers are fertilizer producers, agricultural cooperatives, and distributed farming operations seeking decentralized, emissions-free ammonia production. The technology also serves sustainability-focused chemical manufacturers looking to replace fossil-fuel-dependent feedstock processes.
Features
- Achieved certified ground-state energy of FeMoco at −22,140.967 Ha, surpassing prior best estimates by 556 mHa using classical computation
- Identified BE-1, an electronic twin to nitrogenase's active site, through screening candidate catalysts against FeMoco's full electronic fingerprint
- Formal verification of computations using Lean theorem-prover and SNARK cryptographic certificates for verifiable results
- Solar-powered 20-foot container form factor requiring only air, water, and sunlight as inputs
- Operations at ambient conditions (~20°C, 1 atm), eliminating the need for high-pressure and high-temperature infrastructure
- Computational platform resolves strongly correlated electron systems (76 orbitals, 113 electrons) previously thought to require quantum computing