Real-time Epileptic Seizure Detection Using Hybrid SNN and ConvSNN Architectures
Epileptic seizure detection is a long-standing challenge in consumer and clinical neurotechnology. Conventional deep-learning models offer high accuracy but remain computationally heavy and unsuitable for real-time, low-power deployment in wearable and bedside monitoring devices.
This talk presents a new neuromorphic processing framework that combines event-based spike encoding with lightweight spiking neural architectures for fast, reliable, real-time EEG analysis.
Key Topics Covered:
- Event-based EEG preprocessing using hybrid Signal-to-Spike encoding
- Design of Hybrid SNN and ConvSNN architectures for streaming 0.5-second windows
- Real-time seizure detection without lookahead or future context
- Comparative study vs. 1D-CNN baseline on the CHB-MIT dataset
- Deployment pathways toward neuromorphic hardware and consumer health devices
Why It Matters:
This neuromorphic approach achieves millisecond-scale decision latency and is designed for continuous monitoring applications such as patient-side seizure alarms, wearable neurotech, and embedded smart EEG systems.
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Real-time Epileptic Seizure Detection Using Hybrid SNN and ConvSNN Architectures
Overview:
Epileptic seizure detection is a long-standing challenge in consumer and clinical neurotechnology. Conventional deep-learning models offer high accuracy but remain computationally heavy and unsuitable for real-time, low-power deployment in wearable and bedside monitoring devices.
This talk presents a new neuromorphic processing framework that combines event-based spike encoding with lightweight spiking neural architectures for fast, reliable, real-time EEG analysis.
Key Topics Covered:
- Event-based EEG preprocessing using hybrid Signal-to-Spike encoding
- Design of Hybrid SNN and ConvSNN architectures for streaming 0.5-second windows
- Real-time seizure detection without lookahead or future context
- Comparative study vs. 1D-CNN baseline on the CHB-MIT dataset
- Deployment pathways toward neuromorphic hardware and consumer health devices
Why It Matters:
This neuromorphic approach achieves millisecond-scale decision latency and is designed for continuous monitoring applications such as patient-side seizure alarms, wearable neurotech, and embedded smart EEG systems.
Address:Australia