HyphaLabs focuses its R&D on two material science platforms derived from engineered fungal mycelium, each targeting a distinct defense and aerospace application domain.
HyphaLabs applies engineered mycelium biology across four distinct capability areas, each directly relevant to active DoD and NASA funding programs.
Impact-resistant mycelium substrates that autonomously repair micro-fractures and surface damage — enabling sustained operational readiness for unmanned ground and aerial platforms without manual intervention.
Melanin-enriched mycelium panels that absorb ionizing radiation via radiosynthesis. Passive, lightweight shielding for crewed spacecraft and orbital habitats, without the mass penalty of traditional polyethylene barriers.
Process development for reproducible, mission-qualified mycelium production at pilot and industrial scale. Addressing the DEVCOM and Navy SBIR requirement for domestically sourced, non-petroleum defense materials.
Mycelium-based structural panels qualified for thermal cycling, vacuum exposure, and high-G loading — targeting applications from deep-space transit vehicles to forward-deployed military installations in austere environments.
Impact-resistant, self-repairing biological skin for military robotic platforms. Our synthetic flesh platform engineers mycelium strains optimized for tensile strength, environmental resilience, and autonomous wound-healing at the material level. The goal: a skin that absorbs ballistic impact, repairs itself without human intervention, and degrades gracefully in extreme environments.
Targeting 30-50 MPa — comparable to vulcanized rubber — through strain selection and substrate optimization of hyphal network density.
Dormant mycelium reactivates at damage sites when exposed to moisture and nutrients embedded in the substrate, bridging tears within 48-72 hours.
Engineered to withstand -20°C to 60°C operational range, UV exposure, and salt spray per MIL-STD-810 environmental testing standards.
Outer protective layer for unmanned ground vehicles (UGVs), humanoid military robots, and sensor-equipped reconnaissance platforms.
Lightweight mycelium-based panels for spacecraft exterior shielding. This platform exploits mycelium's natural radiation-absorbing properties and its ability to be grown into precise geometric forms, producing structural panels that insulate, shield, and weigh dramatically less than traditional aluminum or carbon-fiber composites.
Mycelium composites achieve 60-70% weight savings over aluminum while maintaining comparable compressive strength at panel thicknesses of 15-25mm.
Melanin-rich mycelium strains absorb ionizing radiation, offering passive shielding for crewed spacecraft without the mass penalty of traditional lead or polyethylene barriers.
Natural air-pocket microstructure of mycelium networks provides thermal conductivity of 0.04-0.06 W/mK — comparable to commercial foam insulation.
Non-structural hull panels for orbital habitats, lunar surface structures, and radiation-shielded crew compartments for deep-space transit vehicles.
From strain engineering to flight qualification
Systematic evaluation of mycelium species for target mechanical properties. CRISPR-based genetic modification to optimize tensile strength, growth rate, and environmental tolerance.
Development of growth media and environmental conditions that maximize hyphal density and network interconnectivity. Process parameters for reproducible material properties.
Production of test coupons and prototype panels for mechanical testing per ASTM standards. Initial self-healing validation under controlled damage conditions.
MIL-STD-810 testing for synthetic flesh. NASA-STD-6016 outgassing tests for hull composites. Radiation exposure trials at national laboratory facilities.
Partner with prime contractors for integration testing on robotic platforms and spacecraft mockups. Iterative refinement based on operational feedback.
We welcome conversations with program managers, prime contractors, and academic collaborators.
Contact HyphaLabsHyphaLabs is in active pre-publication research. Technical reports, white papers, and peer-reviewed manuscripts are in preparation and will be posted as they are cleared for public release.
For program managers seeking non-public technical documentation or SBIR proposal abstracts, contact us directly to establish a CDA or work under an existing government vehicle.
Request Technical BriefingResearch manuscripts are currently in preparation. Topics in development include:
Estimated availability: Q3 2026