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CASE STUDY

Wearable Neurotechnology and Mixed-Reality Sensor Integration

Expanded biosensing capabilities into wearable and immersive environments, enabling real-time interaction between human physiology and digital systems.

Situation

Most biosensing systems are confined to controlled lab environments, limiting their applicability in real-world or immersive contexts such as AR/VR or human-computer interaction research.

Solution

Developed wearable and integrated sensor platforms. The system allowed biosignal capture in both controlled and dynamic environments.

OUTCOMES

Expanded fielding
for wearable neurotech
40% lower friction
non-specialist user onboarding
0 gel required
dry electrode operation

Challenges

Mobility

  • Lab-bound sensing systems
  • Limited field deployment

Integration

  • Weak AR/VR interoperability
  • Fragmented sensor pipelines

Solutions

01

Wearable EEG Headset

Designed a 3D-printable EEG headset aligned with standardized electrode placement systems.

  • Produced 3D-printable headset aligned with electrode standards
  • Enabled repeatable placement across experiments
  • Reduced fabrication barriers for labs
02

Dry Electrode Support

Enabled dry electrode configurations for ease of use and rapid deployment.

  • Eliminated gel preparation requirements
  • Reduced setup time for field environments
  • Improved usability for non-specialists
03

Multimodal Integration

Integrated multi-modal sensing (EEG, EMG, eye tracking) into mixed-reality headsets.

  • Combined multiple physiological sensing streams
  • Enabled synchronized immersive interaction research
04

Unified Signal Interface

Created a unified interface for synchronizing signals across multiple sensor types.

  • Standardized cross-sensor synchronization workflows
  • Enabled consistent data alignment pipelines