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Talent Scout

S

Seongwon Jin

Incheon National University

H

Hanseul Choi

Incheon National University

S

Sunggu Yang

Incheon National University

S

Sungho Park

Incheon National University

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References (62)

[1]
Explainable AI-Driven Neural Activity Analysis in Parkinsonian Rats under Electrical Stimulation
2025Jibum Kim, Hanseul Choi et al.
[2]
Transformer-based neural speech decoding from surface and depth electrode signals
2025Junbo Chen, Xupeng Chen et al.
[3]
Bi-Band ECoGNet for ECoG Decoding on Classification Task
2024Changqing Ji, Keisuke Kawasaki et al.
[4]
RISE-iEEG: Robust to Inter-Subject Electrodes Implantation Variability iEEG Classifier
2024Maryam Ostadsharif Memar, Navid Ziaei et al.
[5]
Parkinson's Disease Detection from Resting State EEG using Multi-Head Graph Structure Learning with Gradient Weighted Graph Attention Explanations
2024Christopher Neves, Yong Zeng et al.
[6]
Self-supervised learning for seizure classification using ECoG spectrograms
2024Van Lam, Chima Oliugbo et al.
[7]
DMMR: Cross-Subject Domain Generalization for EEG-Based Emotion Recognition via Denoising Mixed Mutual Reconstruction
2024Yiming Wang, Bin Zhang et al.
[8]
A novel automated Parkinson’s disease identification approach using deep learning and EEG
2023M. Obayya, Muhammad Kashif Saeed et al.
[9]
MADG: Margin-based Adversarial Learning for Domain Generalization
2023Aveen Dayal, B. VimalK. et al.
[10]
Distinguishing Parkinson’s Disease with GLCM Features from the Hankelization of EEG Signals
2023M. F. Karakaş, F. Latifoğlu
[11]
Discrepancy between inter- and intra-subject variability in EEG-based motor imagery brain-computer interface: Evidence from multiple perspectives
2023Gan Huang, Zhiheng Zhao et al.
[12]
EEG Conformer: Convolutional Transformer for EEG Decoding and Visualization
2022Yonghao Song, Qingqing Zheng et al.
[13]
A Method for Optimizing the Artifact Subspace Reconstruction Performance in Low-Density EEG
2022A. Cataldo, Sabatina Criscuolo et al.
[14]
Impact of dataset size and long-term ECoG-based BCI usage on deep learning decoders performance
2022Maciej Śliwowski, Matthieu Martin et al.
[15]
[Parkinson's disease].
2022Houeto Jean-Luc
[16]
Towards best practice of interpreting deep learning models for EEG-based brain computer interfaces
2022Jian Cui, Liqiang Yuan et al.
[17]
Predictive accuracy of CNN for cortical oscillatory activity in an acute rat model of parkinsonism
2021Ali Abdul Nabi Ali, M. Alam et al.
[18]
Efficient Artifact Removal from Low-Density Wearable EEG using Artifacts Subspace Reconstruction
2021V. Kumaravel, V. Kartsch et al.
[19]
The Influence of Filters on EEG-ERP Testing: Analysis of Motor Cortex in Healthy Subjects
2021Ilona Karpiel, Zofia Kurasz et al.
[20]
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2021C'edric Rommel, T. Moreau et al.

Showing 20 of 62 references

Founder's Pitch

"Swap-Adversarial Framework for enhanced Parkinson's prediction using ECoG data with strong domain generalization."

Medical AIScore: 8View PDF ↗

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0-10 scale

High Potential

3/4 signals

7.5

Quick Build

4/4 signals

10

Series A Potential

3/4 signals

7.5

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Why It Matters

Parkinson's disease is a significant burden, and early detection can drastically alter patient outcomes. This framework, by improving signal processing, addresses the challenge of variability in brain signal data thus enhancing early diagnosis capabilities, potentially at a population scale through common EEG devices.

Product Angle

This research can be turned into a scalable cloud-based diagnostic support tool for neurologists and healthcare providers, delivering predictions from EEG data to assist in early Parkinson's detection.

Disruption

This framework can replace current disparate and less effective methods in early PD detection which typically rely on late-stage symptom observation, by leveraging scalable EEG data analysis.

Product Opportunity

The market for neurodegenerative disease diagnostics is growing as the global population ages, with healthcare systems prepared to invest in early detection tools that can reduce long-term treatment costs and improve patient outcomes.

Use Case Idea

Develop a commercial early-warning system for Parkinson's using EEG-based devices, integrating this framework to provide healthcare practitioners with high-confidence alerts based on brain activity analysis.

Science

This research uses a Swap-Adversarial Framework to improve the generalization of Parkinson's disease prediction models across subjects and datasets. It uses inter-subject balanced channel swaps and domain-adversarial training to mitigate variability in ECoG and EEG data, enhancing the robustness of predictions.

Method & Eval

The framework was validated using extensive experiments that included cross-subject, cross-session, and cross-dataset evaluations, consistently outperforming baselines and demonstrating improved performance in variable environments.

Caveats

The reliance on specific ECoG data means ethical and practical limitations when scaling to human EEG data, and performance could vary with different EEG configurations or in clinical settings.

Author Intelligence

Seongwon Jin

Incheon National University
jinwork00@gmail.com

Hanseul Choi

Incheon National University
himlm0704@gmail.com

Sunggu Yang

Incheon National University
sungguyang@inu.ac.kr

Sungho Park

Incheon National University
yunisomi@inu.ac.kr

Jibum Kim

Incheon National University
jibumkim@inu.ac.kr