Consumer NLOS perception

See what direct sight cannot.

RuView combines motion induced LiDAR aperture sampling, bounded temporal inference, and governed RF context to reveal movement around blind corners without cameras, giving people and machines earlier spatial awareness.

Interactive concept modelG0 synthetic evidence
Hidden target92%narrower synthetic uncertainty
66.25Synthetic fps
1.95 cmSynthetic fused error
100%Synthetic track recovery
2Physical gates open

Know what is happening before it enters view.

RuView extends spatial awareness into blind and occluded areas. The near term value is earlier, privacy preserving context for navigation, occupancy, and controlled safety research.

No camerasIdentity free spatial signals
Earlier awarenessDetect before line of sight
Better continuityRF persists through occlusion
Governed evidenceConfidence and expiry retained
01 · ROBOTICS

Safer blind corner navigation

Give robots an early hidden target hypothesis before committing to a turn or doorway.

Benefit · more reaction time and fewer occlusion driven stops
02 · SMART SPACES

Privacy first occupancy

Understand movement around entrances and interior corners without recording identifiable imagery.

Benefit · spatial context with a smaller privacy footprint
03 · INDUSTRIAL

Blind zone awareness

Provide advisory context near shelving, machinery, corridors, and loading areas where direct view is unreliable.

Benefit · earlier human and object awareness
04 · CARE RESEARCH

Occlusion resilient presence

Study identity free movement continuity in care environments without positioning cameras in private spaces.

Benefit · persistent research signals with explicit evidence limits
Available now

Secure clients, synthetic tracking, governed transport, temporal memory, and the hardware test protocol.

Still gated

Physical around the corner reproduction and measured CSI improvement.

Implemented is not the same as physically proven.

The architecture, contracts, clients, simulation, security controls, tests, and CI are built. Apple raw transient access, physical 27 fps reproduction, and measured CSI improvement remain unverified. Native Swift tests and an unsigned iOS Simulator build now pass on macOS CI.

01

Transient input

Near raw time of flight histograms

02

Motion aperture

Pose aligned temporal accumulation

03

NLOS inversion

Hidden target hypotheses

04

RuView memory

Tracks, confidence, provenance

Weak signals become governed spatial memory.

Every stage preserves evidence level, provenance, confidence, expiry, and rejection reasons. The system refuses to turn simulation into a hardware claim.

Sensor planeConsumer ToF LiDARRaw or near raw transients
Geometry planePose and motion apertureCalibration drift gates
Inference planeMultipath inversion and trackingBounded particle state
Memory planeRuVector plus RuFieldTemporal continuity
World planeWorldGraphExpiring target hypotheses
Fusion planeCSI contextMeasured mode remains gated

Move the sensor. Watch uncertainty collapse.

This model explains the mechanism and expected direction of change. It does not reproduce the MIT algorithm or generate physical evidence.

Interactive synthetic modelNot hardware evidence

Move the sensor and accumulate frames. More viewpoint diversity increases the virtual aperture. RF contributes a coarse prior, not optical geometry.

Virtual aperture quality47%
LiDAR estimate5.21 cmsynthetic position error
Fused estimate3.77 cmsynthetic RF prior applied
Track confidence70%illustrative only

Optical precision meets RF persistence.

The business value is privacy preserving spatial awareness in environments where cameras are undesirable, blocked, or fragile.

Around corner presenceHighHighVery high
Through wall presenceLowHighHigh
Precise geometryHighLowHigh
Persistent sensingLowHighHigh
Occlusion resilienceMediumHighVery high
CapabilityLiDARRFFused

Built software. Open physical proof.

The current release is suitable for integration, simulation, contract testing, transport testing, and preparing a controlled hardware trial.

Review source and validation in PR 1687
Complete

Rust sensing layer

Transient contracts, calibration, tracking, transport, bounded readers, and world model bridge.

36 tests passed
Complete

Web and iOS clients

Expo web and iOS bundles plus native Swift contracts, secure sessions, provenance, and stale state handling.

250 web tests passed
Complete

Native Apple validation

Swift protocol and security tests plus the unsigned iOS Simulator build passed on macOS CI. Raw transient access remains a hardware API uncertainty.

macOS CI passed
Open gate

Physical reproduction

Run the pinned MIT method with a supported sensor and witness sustained tracking at 27 fps or better.

Required before hardware claim
Open gate

Measured CSI fusion

Capture paired LiDAR and RF sessions and demonstrate at least 25 percent lower error or lost track rate.

Required before fusion claim
Intentional boundary

Evidence remains explicit

ARKit depth only input is rejected for live NLOS. L3 evidence and measured fusion are rejected in the version one contract.

Fail closed by design

Built from published physics. Extended with governed multimodal memory.

MIT demonstrated that tiny sensor motion can synthesize an aperture large enough to recover weak multipath LiDAR returns. RuView adds bounded temporal state, RF context, evidence controls, native clients, and a world model integration path.