Sensor intelligence for health

Connect real-world signals to general-purpose intelligence.

Transform continuous wearable sensor data into interpretable movement events, behavioral evidence, and longitudinal summaries.

Built to support clinical review — never to replace it.

Ankle IMU100 Hz • live
ACC X / Y / ZGYRO X / Y / Z
Interpreting 12.4s window
01ContextStationary
02PatternRhythmic motion
Movement summaryReady for review

Reduced mobility and several short episodes of repetitive lower-limb movement were observed during stationary periods.

05events06.2smedian duration0.87confidence
01 Wearable sensors02 Sensor intelligence03 Movement evidence04 Clinical summary
A different kind of sensor product

Traditional tools describe the signal. We explain the movement.

Statistical features are useful, but they still leave a person to work out what happened. SenseMind adds context-aware, common-sense reasoning to produce a fuller account.

TRADITIONAL SENSOR PRODUCTSignal statistics
AVERAGE MOTION0.42 gPEAK FREQUENCY5.1 HzSIGNAL VARIATION0.18ACTIVITY SCORELow

?What this meansThe product summarizes the shape of the sensor signal — its average, strongest rhythm, and amount of variation. A specialist must still infer what the person was doing.

Still requiresManual interpretation + clinical context
VERSUS
SENSEMINDContext-rich report
SignalBody movementActivity contextMeaningful event
DETAILED MOVEMENT REPORT
“A short period of rhythmic lower-limb movement occurred while the patient was otherwise stationary. The event lasted 6.2 seconds and was followed by normal walking.”
What moved Lower limbWhat was happening StationaryWhat happened next Walking
Ready forFaster, evidence-led clinical review

Common sense, made reviewable The system connects signal patterns with body location, activity, timing, and surrounding events — then shows the evidence behind its description.

Operational value

More useful evidence can mean less wasted effort.

HFOR HOSPITALS & CARE TEAMS

Focus expensive clinical time where it matters.

  • 01
    Reduce manual data review

    Surface meaningful events instead of asking specialists to scan hours of raw signals.

  • 02
    Prioritize follow-up

    Use longitudinal evidence to identify which monitoring periods need closer human review.

  • 03
    Reuse one data layer

    Support monitoring, research, and rehabilitation workflows through a shared sensor-intelligence API.

POTENTIAL OPERATIONAL IMPACTLess screening work • better use of appointments • scalable monitoring
PFOR PATIENTS & FAMILIES

Make each care interaction more informed.

  • 01
    Bring daily life into the conversation

    Give care teams evidence from between visits, not just a patient's brief time in clinic.

  • 02
    Reduce avoidable travel burden

    Support remote review when clinically appropriate, saving time and transport costs.

  • 03
    Get more value from appointments

    Spend visit time discussing meaningful changes rather than reconstructing what happened.

POTENTIAL PATIENT IMPACTFewer avoidable journeys • less time away from work • better-prepared visits

Actual savings depend on the care pathway, deployment model, and clinical governance. SenseMind supports—not replaces—professional review and clinician-led decisions.

Lead application / Parkinson's

See movement in daily life, not just a moment in clinic.

Motor patterns can fluctuate throughout the day. Wearable sensors capture that missing context; our system makes long periods of IMU data reviewable.

01Ankle IMUContinuous capture
02Accelerometer + GyroscopeMulti-axis signals
03Sensor Intelligence EngineContext + pattern extraction
Aa04Movement interpretationEvidence for review
Clinical boundary These examples describe observable movement patterns from sensor data. They are not diagnoses and do not replace clinical assessment.
01Stationary context

Rhythmic lower-limb movement

Rhythmic lower-limb movement was detected during a predominantly stationary period.

02Walking context

Short, repetitive steps

Walking was characterized by short, repetitive lower-limb movements with reduced movement amplitude.

03Transition context

Movement initiation difficulty

Several brief movement attempts occurred before sustained walking began.

Longitudinal intelligence

Understand the whole day, not just individual windows.

Thousands of windows become a coherent timeline of movement events, changes, and context.

MONITORING PERIODTuesday, 18 August
PATIENT IDPD–0048
↗ 12% vs. baseline
DAILY MOVEMENT TIMELINE08:00 — 18:00
08:20Walking
09:05Reduced movement
10:32Repetitive movement
12:10Walking
14:47Initiation difficulty
17:25Stable walking
AI
Generated monitoring summary

Most active periods showed stable walking. Reduced mobility appeared in the late morning and afternoon. Three short repetitive lower-limb movement events occurred during stationary periods, alongside two delayed transitions to sustained walking.

Traditional sensor model Class predictionsSenseMind Events + Evidence + Context + Summary
Developer-ready infrastructure

Integrate movement intelligence into your health platform.

Send continuous IMU windows. Receive structured events, human-readable evidence, and longitudinal summaries for clinical review, rehabilitation, or research.

AccelerometerGyroscopeEvent detectionWindow analysisStructured JSONNatural language
REQUESTRESPONSEAPI v1
POST /v1/movement/analyze

{
  "sensor": "imu",
  "device_location": "ankle",
  "sampling_rate": 100,
  "data": "..."
}
200 OK

{ "movement_pattern": "rhythmic_lower_limb_motion",

"context": "stationary", "confidence": 0.87 }

Build with interpretable movement data

Make continuous movement data clinically interpretable.

Build monitoring and research systems that understand what patients are physically doing between visits.

Request a demo Talk to us
For research and clinical review support. Not a diagnostic device.