DRAGONWORX SOLUTIONS

When the power is out, the rope is gone,
and the building is still standing.

Special operations and first response share a constraint most equipment ignores: the moment a system needs charging, pairing, or a signal, it becomes a liability. Every DragonWorx tactical platform is passive by design — it works because of what the material is, not because something is powering it.

Who this serves SOCOM / SOF Urban search & rescue Fire & structural rescue CBRN response Structural inspection Tactical climbing Combat medics

The failure mode is always the same.

Powered exosuits run flat. Ropes need anchors. Ladders need a truck that can reach the wall. Radios give away position. The gap in tactical and rescue equipment is not capability at full charge — it is capability at zero charge, in the dark, on a surface nobody surveyed. DragonWorx builds for that state as the design baseline rather than the degraded case. The adhesion holds because van der Waals forces do not switch off. The joints return energy because resilin-analog laminates are springs. Nothing in the stack has a duty cycle.

0 W
Power draw across the passive stack
0 dB
Acoustic signature on adhesion release
10 N/cm²
GripSuit shear adhesion, smooth dry surface
51%
Reduction in minimum deployment altitude, Apex-M
The biology underneath

The gecko solved silent adhesion. The mantis shrimp solved impact fracture. The scorpion solved identification without emission. The platypus solved detection without a signal. None of these organisms had access to a power budget either — which is precisely why their solutions transfer so cleanly to operators who cannot rely on one.

PLATFORMS SERVING THIS MARKET

What we build for them.

Project B · TRL 5 · Highest readiness

GripSuit Apex-M

Four-mechanism adhesion stack in a zone-selective pad: gecko van der Waals nano-pillars for glass and polished stone, clingfish compliant disc lip for rough concrete and masonry, remora lamellar spinules that self-tighten under shear, and DOPA-mimetic mussel chemistry for submerged steel. Silent ascent of structures with no anchor points, no drilling, and no rope signature. CBRN-relevant access to contaminated structures.

Ra 0.01–1000 µmWet & drySilent releaseDARPA Z-Man validated
GripSuit technical detail →
Project A · Military SKU

DragonSuit Apex-M

Low-observable passive insertion platform. Five-layer composite stack — SMP rib skeleton holding NACA 4412 geometry under load, auxetic self-cambering panels, humpback tubercle leading edge, shark riblet film — with helicoidal CFRP armour, NIJ-rated padding and MOLLE integration over the full aerodynamic stack. Roughly twice the glide ratio and half the minimum deployment altitude of current military wingsuit options.

2× glide ratioStall delayed 22°→28°No powered component$28K–$45K
DragonSuit technical detail →
Project C · TRL 5

JumpSuit

Carbon-fibre leaf-spring exoskeletal joints at ankle and knee, storing and returning energy through a bistable snap-through latch modelled on insect resilin at 97% elastic return. Gets an operator over a wall, onto a roof, or across rubble without a ladder, a boost, or a power pack. Adds no electronics to a kit already carrying too many.

97% energy return3–10× jump heightZero powerPassive latch
JumpSuit technical detail →
TRL 5–6 · Most mature platform

ArmorSuit — helicoidal CFRP

Mantis shrimp fibre architecture applied to carbon composite: the same carbon fibre, stacked in a rotating helicoidal ply schedule rather than a conventional one. A crack that would run straight is forced into a spiral path, requiring roughly 70% more energy to propagate. Runs on existing automated fibre placement machines — no new factory.

+70% fracture energyExisting AFP toolingMantis shrimp dactyl club
TRL 3 · Sensing

SensorSuit & ElectraSuit

Passive electroreception modelled on the platypus bill: 64–256 graphene electrodes across helmet and collar detecting oscillating electric fields from living organisms, electronics and structural voids at roughly two metres. It emits nothing, so it cannot be detected in return. Direct search-and-rescue application locating casualties through rubble. Powered by PVDF harvesting from the wearer's own gait.

~2 m passive detectionNo emitted signalPVDF self-poweredSAR through rubble
TRL 2–3 · Force protection

SentinelSuit

Beta-carboline compounds in the shell panels fluoresce under 365 nm UV, giving passive friend-or-foe identification with no power, no emitter and no electronic signature — borrowed directly from scorpion cuticle. Microfluidic channels running through the garment deliver haemostatic sealant automatically at a puncture site.

Passive IFF365 nm UVMicrofluidic wound sealantScorpion cuticle
Where this stands today

GripSuit sits at TRL 5 on the gecko layer — DARPA's Z-Man programme carried a 100 kg climber up 7.6 m of vertical glass in 2014, so the mechanism is not speculative. The clingfish, remora and DOPA layers sit at TRL 2–3 and are the subject of an active research proposal with UT Dallas. Nano-pillar cycle life under repeated full-body-weight loading is the single largest open engineering question and we say so in the proposal itself.

ArmorSuit is the most mature platform at TRL 5–6 because helicoidal layup requires no new material — only a different ply schedule on machines that already exist. SensorSuit and SentinelSuit are earlier, TRL 2–3, and are presented here as platform direction rather than near-term procurement.

For procurement, SBIR/STTR pathways, or a technical briefing on any platform above, contact getdragons@dragonworx.bio