Architecting the
Biological Industrial Revolution.
Chondrule AI translates your prompts to proteins.
We are building a platform to design, synthesize, and validate custom proteins at the speed of AI.
Our Story
The power of de novo protein design - creating biological machines from scratch - has been the exclusive domain of elite academic labs and multi-billion dollar pharmaceutical giants.
While the protein-design world focused on therapeutics, the most pressing challenges of our century - climate change, food security, and materials innovation - remained largely unaddressed.
Chondrule was founded to change that. We are bridging the gap between the potential of de novo proteins and industrial reality. By abstracting the complexity of state-of-the-art protein design models, we make it possible for every engineer to design proteins that solve real-world problems.
Our Mission
"To democratize the expertise of the world’s leading protein design labs for every industrial researcher."
We believe that the next industrial revolution won't be made of silicon, but of programmable biomolecules.
The Chondrule Edge
Solving the three core bottlenecks of de novo protein design for industrial applications.
The Expertise Gap
Most researchers know what they want their biomolecule to do, but not how to design it. Our AI Architect translates natural language industrial goals into high-fidelity computational pipeline for novel protein-based solutions.
The Orchestration Gap
The field moves too fast for any team to keep up. Chondrule dynamically assembles the optimal stack - integrating models like RFDiffusion, AlphaFold3, and BoltzGen.
The Infrastructure Gap
State-of-the-art de novo protein design requires massive VRAM and complex DevOps. We handle the hardware scaling and pipeline execution so your team can focus on the science.
Built for the sectors that power our world.
Chondrule is committed to commercial-grade, physical-world impact. We focus the full strength of de novo protein design on the most critical bottlenecks in heavy industry and global supply chains.
Agriculture & Soil Resilience
Discovering and scaffolding novel nitrogenase-mimicking enzymes to facilitate room-temperature biological nitrogen fixation directly at the plant root interface, bypassing fossil-fuel-intensive Haber-Bosch processing.
ESTIMATED IMPACT
Dependency on Synthetic Nitrogen
Advanced Bio-Materials
Architecting high-tensile structural biopolymers, carbon-negative concrete alternatives, and self-healing bio-cementation agents that replicate organic silica and calcium mineralization pathways.
ESTIMATED IMPACT
Tensile Strength vs. Structural Steel
Climate & Decarbonization
Engineering high-thermostability carbonic anhydrase variants capable of operating inside chimney stack heat to accelerate industrial flue-gas carbon capture by orders of magnitude.
ESTIMATED IMPACT
Flue-Gas Carbon Scrubbing Efficiency
Resource Recovery & Biomining
Designing custom peptide sequences that selectively chelate and bind rare-earth elements and critical minerals from low-grade ores and industrial waste streams, eliminating toxic acid separation loops.
ESTIMATED IMPACT
Reduction in Toxic Chemical Waste
Built by Pioneers.
Deep domain expertise across de novo protein design and planetary chemistry.
PhD, Planetary Science (UC Davis)
Expert in geochemistry and mass-dependent isotope fractionation
NASA Fellow, ex-BCG consultant in sustainability, experienced in building Agentic AI platforms
Join the Biological
Industrial Revolution.
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