Your spacecraft.
One connected workspace.
Connect your rail, choose a spacecraft, then start monitoring. No hardware? Explore with clearly labelled demo data.
Astronaut neuromotor health,
in every push-off.
In microgravity, locomotion occurs through handrail push-offs. By instrumenting the entire translation bar with a dense 10 × 10 mm tactile sensor matrix in a repeating 3–2–2–3 pattern, we capture contact dynamics, multi-digit load sharing, 8–12 Hz micro-tremor, and autonomic arousal to evaluate psychological and cognitive health in real time.
Real-time biometric telemetry streaming from active handrail matrix.
Asteria · Deep Space Exploration Rocket
Select a spacecraft model or upload custom 3D vehicle geometries. Click any numbered rail on the cabin map to inspect its full tactile sensor telemetry.
Long-duration deep space exploration craft with 4 translation handrails.
Artemis crew capsule with 3 axial propulsion rails for lunar transit.
Columbus / Destiny laboratory module with dense wall and ceiling rails.
Cis-lunar outpost habitat with dual hatch and docking locomotion bars.
Upload .OBJ / .GLB 3D mesh or 2D architectural blueprint PNG.
Available Translation Rails in Current Vehicle
🛠️ Vehicle Customizer · Upload 3D Rocket Model, 2D Blueprint, or Save Cabin Layout
Renders custom rocket or station hull in the 3D orbit viewport.
Loads architectural cutaway floorplan for interactive rail placement.
Export or import cabin dimensions and 3D handrail coordinates.
Live contact & physiology
Start monitoring to follow contact and available sensor channels. Psychological state requires self-report; it is not diagnosed from the rail.
Astronaut demonstrates consistent neuromotor coordination, symmetrical digit load sharing, and low sympathetic tone. Biomechanical push-off trajectory is fluid.
Astronaut demonstrates fluid motor coordination. Thumb-to-digit load sharing is balanced (23% / 21% / 22% / 19% / 15%). Sympathetic tone nominal at 3.2 μS. Zero micro-slip detected during terminal propulsion. Cleared for standard intravehicular tasks.
Systems · Wall Rail
Instrumented translation handrail with 150 physical 10 × 10 mm tactile cells arranged in a repeating 3–2–2–3 pattern every 40 mm along the cylinder.
Hand Placement & Load Sharing
Identified Cylindrical Power Grip. Hand placed at centroid 240 mm.
3D Cylindrical Handrail & Tactile Matrix
10 × 10 mm tactile cells arranged in 3-2-2-3 repeating pattern around the cylinder.
Calibrate Variables & Test Biomechanical Responses
Every parameter can be adjusted in real time. Hover or read the explanations below to understand how each variable informs astronaut health monitoring.
Integral of normal force over push-off duration (∫ F dt). Determines takeoff velocity across the cabin. Higher values indicate energetic locomotion.
Involuntary physiological neuromuscular oscillations in the 8–12 Hz band. Primary biomarker for central nervous system fatigue and sensorimotor ataxia.
Palmar skin conductance driven by sympathetic nervous system activation. Elevates instantly under acute cognitive demand, anxiety, or stress.
Contact dwell latency before takeoff initiation (Hesitation Index). Reflects motor planning latency, cognitive uncertainty, or tactile confidence.
Physical length and cylindrical diameter. Modifying length adjusts total sensor count (150 cells for 600 mm, 120 cells for 480 mm).
Connect live microcontroller tactile stream via Web Serial API (115200 baud) or import JSON sensor recordings.
Connect your Arduino at 115200 baud. Keep your hand off the bar during calibration.
CSV mapping: Z1–Z10 → first ten cells in 3–2–2–3 order. Other cells are unmeasured. Raw values are capacitive counts, not pressure.
Continuous Flight Contact & Force History
Drag the time cursor or press Play to inspect dynamic push-off maneuvers frame-by-frame.
Cell-by-Cell Tactile Matrix Heatmap (150 Channels)
Each horizontal strip corresponds to one physical 10 × 10 mm tactile cell.
Independent Flight Physiological Channels
Synchronized to the flight time cursor. Sensor channels operate independently to avoid false inferences.
Contextual Calibration Reference
Astronaut Self-Reported Affect
Subjective emotional state reported directly by the crew member.
Flight Research Context & Architecture
Investigates grip force regulation and object manipulation in microgravity using instrumented friction bars.
NASA GRIP Overview ↗Wearable research platform recording ECG, respiration, skin temperature, and acceleration during long-duration flight.
CSA Bio-Monitor ↗Records tactile contact and experimental grip measurements for future phenotyping research with 10 × 10 mm taxels in 3–2–2–3 pattern.
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