SoafAii Portfolio Demo
A working tour of the C3D voxel manufacturing platform and four of its strongest applications for IAI strategic interest. Built for screen-share discussion with Meir Shabtai, 21 May 2026.
C3D Architecture
The manufacturing OS: VTL-3 language, multi-backend orchestrator, ExoShield, VIS interposers, QA passport. Click any component to inspect.
C3D in Operation
Type a natural-language manufacturing intent. Watch the compiler emit VTL-3 triplets, select backends, generate QA passport. Live AI.
Aero-EM Surfaces
Voxelized wing surface with flow control + EM stealth + crash mitigation + harvesting. Adjustable parameters; sectorized RCS response.
Quiet Rotors
Trailing-edge micro-appendage arrays for UAV acoustic control. ANC + phase control + actuated edge voxels. Target 8+ dB reduction.
Active Ground Pads
Voxelized aircraft pushback and apron logistics. Vessel-motion-compensated naval helipads. Vertiport infrastructure.
μ-Active Capture Decks
Programmable-friction surfaces for VTOL landings. Sectorized μ control. Soft-capture progressing to hard-lock. Sea-state operation.
C3D — Multi-Scale Voxel Manufacturing OS
Click any component in the diagram to inspect. The flow runs top to bottom: natural-language intent compiles to VTL-3 triplets, the orchestrator selects backends, VIS interposers and ExoShield handle compatibility and protection, the QID/PUF passport seals the audit trail.
Select a component
Click any component in the diagram on the left to inspect its role in the C3D manufacturing OS.
C3D in Operation — Natural-Language Compilation
Type any manufacturing intent in plain English. The C3D compiler produces structured VTL-3 voxel descriptions, selects backend(s), and emits the QID/PUF passport. Powered by live AI through the SoafAii intent pipeline.
Submit an intent to see the C3D compilation result. The output will include VTL-3 voxel triplets, backend selection rationale, VIS/ExoShield choices, and a QID/PUF passport.
Reconfigurable Voxelized Aero-EM Surfaces
Voxelized surface integrating four capability classes: active flow control (suction + Coanda), electromagnetic stealth (sectorized RCS reduction), crash mitigation (inflatable voxels), energy harvesting (rectenna voxels). Retrofit-ready into existing composite skins.
Each voxel zone color-coded by function. Adjust controls on the right to see response.
Voxelized Trailing-Edge Micro-Appendage Arrays
Rotor and propeller systems with distributed micro-appendage arrays (flagella voxels) on trailing edges, plus protective duct/guard with near-field microphones and outward acoustic emitters. Region-targeted tonal attenuation via rotor phase control + feedforward ANC.
Top view of a 4-rotor configuration. Edge voxel array visualized on each blade. Adjust controls to see acoustic response.
Active Voxelized Ground Pad Systems
Dense arrays of mechanically mobile voxels (balls, rollers, driven pads) selectively actuated in position, rotation, friction, and height. Aircraft pushback, gate alignment, apron logistics without tugs. Naval helipads with vessel motion compensation. Vertiport infrastructure.
Voxel grid actively coordinates aircraft motion. Arrows show actuation direction. Yellow zone = active actuation field.
μ-Active VTOL Capture Decks & Vertiport Pads
Programmable-friction (μ-active) surfaces with sectorized friction control, flush mechanical locks, optional hexapod motion compensation. Soft-capture progresses to hard-lock with proof-of-seat. Sea-state-resilient naval VTOL operations.
Helicopter approach + touch + soft-capture + hard-lock. Hexapod compensates vessel motion. Sectorized friction visible on deck.