HyphaLabs is building a full autonomous defense platform from the ground up. Self-healing fungal flesh wraps the chassis. An embedded AI brain drives decision-making. The robot operates in contested, hazardous environments — without a maintenance window.
Mycelium-composite skin that absorbs ballistic impact and autonomously repairs itself within 48–72 hours.
We're not building a skin add-on. We're building the entire robot — chassis, actuators, power, sensors.
Embedded inference stack for real-time situational awareness, navigation, and threat response in degraded environments.
Mycelium-based skin engineered for military robotic platforms. Hyphal networks absorb ballistic impact, shrapnel, and environmental damage — then autonomously bridge wound sites without human intervention, electrical power, or depot maintenance. Unlike synthetic polymer skins that fail permanently at impact sites, mycelium substrates reactivate at damage sites when exposed to moisture and embedded nutrient cues.
Targeting 30–50 MPa — comparable to vulcanized rubber — through strain selection and hyphal network density optimization.
Dormant mycelium reactivates at damage sites via embedded nutrient cues. Wound bridging within 48–72 hours under ambient conditions.
Engineered for −20°C to +60°C operation, UV exposure, and salt spray per MIL-STD-810H environmental testing standards.
40–60% weight savings over synthetic rubber analogs at equivalent impact-absorption thickness — critical for UGV and drone payload budgets.
Micro-encapsulated nutrient reservoirs embedded throughout the substrate support 50+ autonomous repair cycles before replenishment.
Material biodegrades on command via enzyme cocktail — enabling mission-end disposal without recovery of sensitive robotic assets.
Three-stage repair sequence triggered at impact. No human intervention. No external power.
Mechanical deformation ruptures micro-encapsulated nutrient capsules throughout the substrate. Healing medium floods the damage site within seconds of impact.
Dormant mycelium spores detect the nutrient signal and begin germinating at the wound boundary. Active hyphal growth initiates within 6–12 hours.
Growing hyphae bridge the damage site, interlocking with intact substrate fibers. Tensile strength at the repair site recovers to 70–90% of baseline within 48–72 hours.
HyphaLabs is not a materials company selling a coating to prime contractors. We are designing and building the complete autonomous defense platform — from structural chassis to end-effectors — with synthetic flesh as the outer layer and an AI inference stack as the decision layer. Vertical integration lets us co-optimize skin properties, structural geometry, and AI sensor placement as a single system.
Ground platform designed for contested terrain. Low center of gravity, multi-modal locomotion, and modular payload bays for sensor packages, effectors, or mission-specific hardware.
Extended autonomous operation without depot return — the core operational requirement for dismounted and deep-penetration missions.
Embedded AI inference stack designed for contested electromagnetic environments — no persistent cloud dependency, no GPS reliance. The system maintains operational decision-making capacity with degraded sensing, intermittent comms, and real-time threat adaptation. The AI layer is co-designed with the synthetic flesh: damage detection from the skin informs the autonomy stack's operational state.
Sensor fusion across visual, thermal, LiDAR, and acoustic modalities. Onboard edge inference for object detection, terrain classification, and threat identification without uplink dependency.
Simultaneous localization and mapping (SLAM) optimized for degraded urban and subterranean environments. Inertial odometry + visual-inertial fusion for reliable position estimation under jamming.
Embedded sensors in the synthetic flesh report structural damage state to the autonomy stack in real time — enabling the AI to adapt locomotion patterns, reduce load on compromised areas, and initiate repair protocols.
Adjustable autonomy levels from teleoperated to fully autonomous. STANAG 4586-compatible data link. Compliant with DoD autonomy framework requirements for lethal and non-lethal platforms.
The platform is purpose-designed for operational environments where maintenance is unavailable, recovery is impossible, and standard robotic systems fail. Self-healing flesh, GPS-denied AI, and selectable disposal converge for missions that conventional platforms cannot sustain.
Direct alignment with DARPA's Hybrid Biologically-derived and Robotically Integrated Defense Systems initiative. HyphaLabs addresses the core HyBRIDS challenge: integrating living biological materials with autonomous robotic platforms to produce capabilities unavailable in purely synthetic systems.
CBRN-hardened platform for environments that preclude human entry. Mycelium layer provides chemical and biological agent resistance through natural hydrophobic surface chemistry. Selectable biodegradation enables sensitive-site denial without asset recovery.
Persistent ISR in denied-access areas. The combination of self-healing durability and GPS-denied navigation supports long-duration autonomous missions beyond conventional UGV endurance limits. Controlled disposal eliminates intelligence compromise risk on mission end.
Robotic wingman platform for manned-unmanned teaming under the Army's Next-Generation Combat Vehicle program. Synthetic flesh enables closer proximity operations without increasing platform replacement cost — the robot repairs rather than returns.
We speak directly with DARPA program managers, DoD evaluators, and prime contractor leads. Classified and unclassified briefing formats available. No pitch decks — technical data only.