Personalized Spiking Neural Networks with Ferroelectric Synapses for EEG Signal Processing. Covers deployment of SNNs on ferroelectric memristive hardware for adaptive EEG-based motor imagery decoding, mixed-precision training with device-aware updates, and subject-specific transfer learning on neuromorphic platforms. Use when working with: ferroelectric synapses, memristive SNN deployment, EEG-based BCI personalization, neuromorphic hardware constraints, mixed-precision spiking training, or ...
Scanned 9/11/2026
Install to Claude Code
npx -y skills add hiyenwong/ai_collection --skill ferroelectric-snn-eeg --agent claude-codeInstalls into .claude/skills of the current project.
Are you the author of Ferroelectric Snn Eeg?
Add the live security badge to your README — it updates automatically with every re-scan.
[](https://www.skillsdirectory.com/skills/hiyenwong-ferroelectric-snn-eeg)More formats (shields.io, HTML) on the badges page.
---
name: ferroelectric-snn-eeg
description: >
Personalized Spiking Neural Networks with Ferroelectric Synapses for EEG Signal Processing.
Covers deployment of SNNs on ferroelectric memristive hardware for adaptive EEG-based
motor imagery decoding, mixed-precision training with device-aware updates, and
subject-specific transfer learning on neuromorphic platforms.
Use when working with: ferroelectric synapses, memristive SNN deployment,
EEG-based BCI personalization, neuromorphic hardware constraints,
mixed-precision spiking training, or device-aware weight updates.
Activation: ferroelectric SNN, memristive EEG, neuromorphic BCI,
ferroelectric synapse, personalized SNN, device-aware training,
EEG motor imagery, hardware-constrained SNN
---
# Ferroelectric SNN for EEG Signal Processing
Based on arXiv:2601.00020 (Garg et al., May 2026).
## Paper Overview
**Title:** Personalized Spiking Neural Networks with Ferroelectric Synapses for EEG Signal Processing
**Authors:** Nikhil Garg, Anxiong Song, Niklas Plessnig, Nathan Savoia, Laura Bégon-Lours
**Published:** Submitted Dec 2025, revised May 6, 2026 (v3)
**DOI:** 10.1063/5.0319912
**Categories:** cs.NE, cs.AI, cs.ET, cs.LG, eess.SY
## Core Problem
EEG-based BCIs suffer from non-stationary neural signals varying across sessions and individuals,
limiting subject-agnostic model generalization. Programmable memristive hardware enables
post-deployment adaptation but faces challenges: limited weight resolution, device variability,
nonlinear programming dynamics, and finite device endurance.
## Key Contributions
### 1. Ferroelectric Memristive Synapses for SNN
- Fabricated and characterized ferroelectric synapses for spiking neural network deployment
- Modeled weight update dynamics under realistic device constraints
- Demonstrated SNN deployment on ferroelectric memristive synaptic arrays
### 2. Mixed-Precision Training Strategy
- Gradient-based updates accumulated digitally
- Converted to discrete programming events only when threshold exceeded
- Device-aware weight updates accounting for nonlinear, state-dependent programming dynamics
- Mitigates endurance and energy constraints during learning/adaptation
### 3. Subject-Specific Transfer Learning
- Software-trained weights transferred to hardware
- Low-overhead on-device re-tuning of final network layers only
- Achieves classification performance comparable to software-based SNNs
- Enables personalized neuromorphic processing of neural signals
## Architecture
```
Convolutional-Recurrent SNN
├── Convolutional layers (feature extraction from EEG)
├── Recurrent layers (temporal dynamics)
└── Ferroelectric memristive synapses (hardware deployment)
├── Mixed-precision accumulation (digital)
└── Threshold-based programming events (analog)
```
## Device-Aware Training Algorithm
1. Compute gradients digitally (high precision)
2. Accumulate weight updates in digital memory
3. When accumulated update exceeds threshold:
- Map to discrete programming events
- Account for nonlinear, state-dependent device dynamics
- Apply to ferroelectric synapses
4. Repeat for adaptation phase
## Transfer Learning Pipeline
1. Train SNN in software on population data
2. Transfer weights to ferroelectric hardware
3. Retrain only final layers with subject-specific data
4. Achieve personalized model with minimal hardware overhead
## Key Insights
- Ferroelectric hardware supports robust low-overhead adaptation
- Mixed-precision strategy bridges software-hardware performance gap
- Subject-specific transfer learning outperforms subject-agnostic models
- Device-aware training mitigates endurance constraints
- Classification accuracy comparable to software SNNs despite hardware constraints
## Activation Keywords
- ferroelectric SNN
- memristive EEG processing
- neuromorphic BCI
- personalized spiking networks
- device-aware training
- mixed-precision SNN
- ferroelectric synapse
- EEG motor imagery decoding
- hardware-constrained neural networks
- neuromorphic adaptation
## Related Skills
- spiking-neural-network-analysis
- eeg-brain-connectivity-bci
- snn-learning-survey
- snn-performance-analysis
Is this your skill, or is something wrong with this listing? Request removal or report an issue. Author removals are honored within 72 hours.
No comments yet. Be the first to comment!