The Second Bend — Our Unique Access Point

Patented 3D Ear Mapping Precision Sensor Fit High-Fidelity Signals

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ADVANCING MONITORING, PRECISION THERAPEUTICS, NEUROMODULATION & BIOMETRIC INTELLIGENCE
$20M+ Development Funding
FDA–Cleared 3D Ear Scanner
In-Ear EEG: Journal of Neural Engineering
Ten + Technology Patents
Defense Innovation SBIR Awards
$7.5M Congressional Support

Simultaneous Mulitmodal Monitoring

Aware Hearable Lab

Our first-generation Ear-EEG was independently validated and published in the Journal of Neural Engineering, proving medical-grade brain signal capture from a discreet, in-ear device. Compared to gold-standard wet EEG, it achieved an 83% correlation (p < 0.001), establishing the foundation for clinical-grade monitoring. The custom-fit, non-invasive earbud was further evaluated in epilepsy patients for its ability to record continuous EEG.
At the core of this innovation is Aware’s patented 3D scanning technology, which captures the full geometry of the ear canal to ensure precision placement of custom sensors deep in the second bend. This secure anatomical fit delivers stable, high-fidelity signals—unlocking brain data never before captured from the ear.

Building on this foundation, the Aware Hearable V2 (in development) fuses neural and physiological monitoring in a single device engineered for real-world, high-stress environments such as combat zones, training ranges, first responder missions, and industrial sites. By simultaneously capturing brain and body data under extreme conditions, V2 enables insights that traditional lab-based systems and consumer wearables cannot achieve.


Anatomically Anchored Sensor Array

The Aware Hearable V2 performs simultaneous multimodal monitoring—capturing EEG, heart rate & HRV, SpO₂ & pulse, core temperature, motion (accelerometer, gyroscope, IMU), and contextual audio in real-world, high-stress environments.

Because the platform is built on validated, patented core technology, it opens the door to future capabilities—predicting neurological events, modeling resilience and recovery, and advancing precision therapeutics. Together, these advances establish a new class of biometric intelligence - Stress Contextual Biometric Intelligence—a breakthrough that captures how the brain and body truly perform in the most extreme, real-world environments.


AI-Ready Data for Clinical and Operational Impact

These AI-ready datasets are structured, HIPAA-compliant, and ISO-aligned, supporting immediate applications in seizure monitoring and drug trials, blast overpressure and TBI research, stress and PTSD detection, sleep analysis, extreme-environment readiness, and the development of next-gen therapeutics.

Journal Of Neural Engineering

Abstract Overview: A custom-fit, non-invasive earbud was evaluated for its ability to record continuous electroencephalography (EEG) in epilepsy patients. Across multiple recording sessions, the device demonstrated stable, medical-grade brain signal acquisition with high signal-to-noise ratio. Data captured from the hearable device strongly correlated with gold-standard wet EEG, enabling accurate seizure detection when paired with machine learning algorithms. This validation established a new benchmark for long-term, unobtrusive brain monitoring.

To read full published paper
CLICK HERE
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The Second Bend Advantage

The ear’s second bend provides stable, low-motion placement close to the brain, blood vessels, and the auricular branch of the vagus nerve. This unique anatomical site enables high-fidelity, stable recordings and sensor placement that one-size-fits-all wearables cannot achieve.

Data Pipeline Framework

Our secure pipeline structures raw multimodal data into AI-ready datasets for predictive modeling and research:

Data Generation

Rich, multidimensional signals captured continuously by the in-ear hearable.

Data Structuring

Encryption, anonymization, labeling, and validation under HIPAA and DoD standards.

Model Training

ML-driven predictive insights with role-based access and audit controls.

Insights & Applications

Applied safely in defense, healthcare, industry, and sports.

Integrated Neural and Physiological Monitoring in Real Time

The data highlight the Hearable’s ability to capture synchronized neural and physiological activity across multiple modalities during stress and breathing tasks. EEG traces demonstrate continuous monitoring of brain activity, while simultaneous measurements of pulse, oxygen saturation, and core temperature provide a comprehensive view of physiological state. Accelerometer spectrograms add another layer of resolution, revealing both breathing rhythms and pulse rate dynamics as they fluctuate under stress. Together, these results show how the device performs real-time, multimodal monitoring that links brain and body signals—creating a richer, more precise understanding of human performance in demanding environments.

Capturing longitudinal data with multiple signals (EEG, PPG, pulse rate, SpO₂, perfusion, HRV, core temperature, motion) provides context-rich datasets. This enables linking brain activity with physiology and behavior—critical for detecting stress, fatigue, or injury in real time.

Synchronous measurement of core body temperature, triaxial accelerometer signals (X, Y, and Z axes), electroencephalographic (EEG) potentials, and multi-wavelength photoplethysmography (PPG) data—including derived pulse rate and SpO₂— during exaggerated eye movements and blinks. Tracking cognitive load and fatigue. Early indicator of stress, sleep deprivation, or PTSD-related hypervigilance

Artifact Detection & Rapid Recovery Shows how the system manages motion-induced artifact and demonstrates fast signal recovery. Synchronous measurement of core body temperature, triaxial accelerometer signals (X, Y, and Z axes), electroencephalographic (EEG) potentials, and multi-wavelength photoplethysmography (PPG) data—including derived pulse rate and SpO₂—during repetitive vertical jumping, enabling advanced analysis of motion artifacts, kinematic profiles, and real-time physiological response.

Detecting balance and motor function changes—key for TBI screening and rehabilitation. Simultaneous acquisition of core body temperature, triaxial linear acceleration (X, Y, Z axes), electroencephalographic (EEG) potentials, and photoplethysmography (PPG) signals at multiple wavelengths during dynamic walking and head movement, with arterial oxygen saturation (SpO₂) quantified from infrared and red PPG channels and pulse rate extracted from green PPG signals.

Coordinated Response to Controlled Breathing - Assessing autonomic regulation and stress resilience; used in mindfulness, PTSD therapy, and readiness training. Synchronous acquisition of multi-sensor data, including triaxial acceleration, photoplethysmography-derived pulse rate, peripheral oxygen saturation (SpO₂), and electroencephalographic (EEG) signals, revealing coordinated physiological responses during controlled breathing exercises.

Spectrogram and waveform illustrating accelerometer responses over time, clearly revealing respiratory components in the 0.1–0.5 Hz range (below) and pulse rate components (above) near 1 Hz, along with their harmonic frequencies.

Spectrogram and waveform illustrating accelerometer responses over time, clearly revealing respiratory components in the 0.1–0.5 Hz range (below) and pulse rate components (above) near 1 Hz, along with their harmonic frequencies.

Core body temperature response demonstrating a rapid decline, consistent with thermoregulatory predictions, following ingestion of 1.5 L of ice-cold water.

Brain Alpha Wave: Measuring attention, relaxation, and recovery—critical for TBI monitoring and resilience training. EEG spectrogram depicting the temporal evolution of brainwave activity, highlighting alpha wave activity in the 8–10 Hz range

Demonstrates our dry in-ear electrodes capture brain signals with fidelity comparable to clinical wet electrodes. This validation enables scalable, real-world deployment without gels, wires, or lab settings. Electroencephalographic (EEG) signals recorded using dry electrodes (red) and wet electrodes (blue), demonstrating comparable fidelity between the two modalities.

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TOP 12 HEALTH TECHPRENEURS
Düsseldorf Germany I January 2024

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TOP 12 WEARABLE TECHN INOVATOR
Mountain View CA | September 2025

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