REGENERATUS crest

REGENERATUS

Active Phase-Change Ballistic Armor

The BFD limitation

The armor tradeoff

Level IIIA soft armor relies on synthetic tensile fibers—Kevlar and UHMWPE—to catch projectiles. Penetration is stopped, but kinetic energy still forms a deep, localized crater in the panel, transmitting extreme shock to the torso. Hard plates mitigate backface deformation (BFD) but impose weight penalties and restrict biomechanical movement. REGENERATUS bridges that gap with thermally activated, on-demand rigidity.

Level IIIA Soft Armor

  • High Mobility
  • Stops Penetration
  • Fails at Blunt Force Trauma Protection

Level IV Hard Plates

  • Maximum Protection
  • Zero Blunt Force
  • Exhausts Operator

Operators are forced to choose between Mobility and Survivability

Competitive landscape

Why REGENERATUS is the obvious choice

Today's armor market forces a binary: soft armor that moves with you but leaves you vulnerable to blunt force trauma, or hard plates that stop trauma but break your mobility. No incumbent product occupies both axes at once—REGENERATUS does.

Blunt Force Protection ↑

Operator Mobility & Weight →

Level IV Hard Plates

REGENERATUS

Mobility + survivability

Level IIIA Soft Armor

Empty quadrant: no legacy system delivers both

Level IIIA Soft Armor

High mobility · Low blunt-force protection

  • + Lightweight
  • + Flexible
  • + Stops most handgun penetration

Fails at behind-armor blunt trauma (BABT)—the round may not penetrate, but the operator can still suffer severe internal injury.

Level IV Hard Plates

High blunt-force protection · Low mobility

  • + Maximum rifle-rated protection
  • + Low backface deformation when rigid

Heavy, rigid plates exhaust operators and degrade mission endurance—protection at the cost of mobility.

Ceramic / Steel Systems

High protection · Single-hit degradation

  • + Stops high-energy threats

Fracture after impact, require field replacement under ACE logistics—and still struggle to mitigate BABT without adding weight.

REGENERATUS — the only occupant of the winning quadrant

  • Only solution in the top-right quadrant: high blunt-force protection and high operator mobility
  • 1mm Nitinol core — concealable soft-armor weight with hard-plate BFD performance when activated
  • Superelastic kinetic dispersion: impact-driven stress reversion spreads force across the full panel
  • UHMWPE energy-capture backer maintains NIJ Level IIIA baseline even if power is lost
  • Staged composite stack: strike-face shatter, active core dispersion, and constrained-shell integrity
Core technology

Solid-solid phase transition

REGENERATUS manipulates the core's atomic structure on demand via controlled heating—eliminating the static compromise between flexible wearability and rigid stopping power.

Passive State · Martensite

At ambient temperature, the Nitinol core rests in a twinned monoclinic phase—highly ductile with ~250 MPa yield strength. The plate flexes with the operator's torso, matching standard soft-panel comfort.

Active State · Austenite

Joule heating drives the core past its Austenite finish temperature (Af). The atomic structure snaps to a rigid body-centered cubic phase, amplifying yield strength to 700+ MPa across the panel.

Superelastic Dispersion · On Impact

When a projectile strikes heated Austenite, localized pressure forces a stress-induced reversion to Martensite—a massive thermal-mechanical shock absorber that prevents deep cratering and spreads force across the plate surface.

System architecture

Staged composite stack

A multi-material stack engineered for staged failure and dispersion—each layer assigned a specific kinetic-energy role from first contact through fragment capture.

  1. 01

    Strike Face · Carbon Fiber

    Rigid, brittle primary layer shatters on impact—initiating the kinetic energy dump and disrupting projectile integrity.

  2. 02

    Active Core · 1mm Solid Nitinol

    Primary energy dispersion layer. Ultra-thin profile enables rapid thermal activation while preserving soft-armor weight.

  3. 03

    Thermal Firewall · Welding Felt

    High-temperature insulation encapsulates the core, isolating Austenite transition heat from the synthetic backer.

  4. 04

    Energy Capture · UHMWPE

    Ultra-high-molecular-weight polyethylene tensile backer catches decelerated fragments—the final ballistic net.

  5. 05

    Constraint Shell · Composite Matrix

    Cross-hatch high-tensile mesh and heat-resistant tape bind the stack, pre-compressing layers against lateral expansion and delamination.

REGENERATUS composite stack diagram
Power & deployment

Instantaneous phase transition in the field

Combat activation demands sub-second rigidity. REGENERATUS pairs an over-volted thermal array with a secure wireless relay so the operator hardens armor at the moment of maximum risk—not before.

Thermal Array

Dual Polyimide (PI) film heating pads in a parallel sandwich on the Nitinol core—front and rear—for immediate, uniform thermal penetration.

Over-Volt Activation

16.8 V drive delivers ~28 W combined output, flash-heating the low-volume core into Austenite in seconds.

Secure Remote Relay

433 MHz wireless RF relay in toggle/latched mode isolates the operator from the power source—instant activation to 300 m, without Bluetooth unreliability in contested RF environments.

Performance

Defeating blunt force trauma

Testing against NIJ Level IIIA handgun threats quantifies the delta between passive and active core states. Penetration remains at zero—trauma transfer is what changes.

ThreatStateCore StrengthPenetrationBFD
9mm 115gr FMJPassive (Cold)~250 MPa0%Deep (~25–30 mm)
Active (Hot)700+ MPa0%Reduced (~10–15 mm)
.45 ACP 230gr FMJPassive (Cold)~250 MPa0%Critical (35+ mm)
Active (Hot)700+ MPa0%Controlled (~20 mm)

Projected performance matrix per REGENERATUS v1.0 engineering documentation. Live-fire BFD values below.

Measured backface deformation

The Action: Heated Austenite core violently disperses kinetic energy at the point of impact.

The Result: Prevents localized cratering seen in passive soft armor—bridging the gap between lightweight mobility and hard-plate survivability.

Backface Deformation (mm) — tested

Passive Core (Cold)Active Core (Hot)

9mm NATO

28
11

.45 ACP

39
17

Zero single point of failure

×

If the power source is compromised, the system defaults to the passive Martensite state.

The UHMWPE backer retains full NIJ Level IIIA ballistic integrity, catching the projectile exactly like standard-issue soft armor.

Tactical CONOPS

Close Quarters Battle & Breaching

The Drag: 4+ hour perimeter approaches drain operator stamina.
The Switch: Point-man triggers armor during the door stack.
The Advantage: Breaches the room with hard-plate kinetic dispersion, but soft-armor physical stamina.

Blunt Force Trauma Mitigation

The Threat: Stopping a round is not the same as surviving it. Conventional soft armor prevents penetration but still transfers behind-armor blunt trauma (BABT)—severe internal injury without a through-and-through.
The Switch: On impact, the operator triggers the active austenite core. Flash-heated phase-change material violently disperses kinetic energy instead of localizing it against the body.
The Advantage: Measured backface deformation drops by more than 50% versus passive state (9mm: 28mm → 11mm; .45 ACP: 39mm → 17mm)—the hit is stopped, and trauma transfer to the operator is dramatically reduced.

Low-Visibility

The Profile: Standard hard plates "print" heavily through civilian suits.
The Switch: Ultra-thin Martensite profile remains virtually invisible.
The Advantage: Instant ballistic hardening when acting as a human shield for a VIP.
Contact

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