你說:
I need to know the background of Chun-Chuan Chen who is a PHD from University College London.
Here’s an image of Chun‑Chuan Chen, likely taken during her academic tenure at University College London. Based on publicly available profiles, here’s a concise overview of her background and career:
Ph.D. in Neuroimaging from University College London (UCL), where she studied within the Wellcome Department of Imaging Neuroscience from September 2005 to September 2009 國防醫學院ResearchGate.
M.S. in Biomedical Engineering from National Cheng-Kung University (Taiwan) 國防醫學院.
B.S. in Biomedical Imaging and Radiological Sciences from National Yang-Ming University (Taiwan) 國防醫學院.
Presently a Full Professor at National Central University (NCU), in the Graduate Institute of Biomedical Engineering, Taoyuan City, Taiwan 國防醫學院+1ResearchGate.
Leads the Computational Neuroscience Lab and is also affiliated with the Cognitive Intelligence and Precision Healthcare Research Center ResearchGateNational Central University.
Her expertise spans a broad spectrum of cutting-edge topics, including:
Neuroengineering and computational neuroscience
Brain electromagnetic (M/EEG) signal processing
Virtual Reality (VR) applications in clinical and rehabilitation settings
Applied artificial intelligence and precision medicine 國防醫學院+1National Central University.
Recent years have seen her active in impactful interdisciplinary research. Notable examples include:
Investigating the interplay between skin microbiome and brain cognitive functions
VR-based interventions for stress and symptom management in breast cancer patients undergoing chemotherapy
AI-driven multimodal neurophysiological approaches for addiction treatment, especially methamphetamine use disorder National Central University.
Work on ED‑based neuronal correlates to improve detection of ADHD using EEG signals 國防醫學院+1.
Use of intelligent VR systems to reveal neuronal abnormalities in methamphetamine use disorder 國防醫學院.
| Aspect | Information |
|---|---|
| Education | Ph.D. (UCL, Neuroimaging); M.S. (NCKU); B.S. (NYMU) |
| Current Role | Full Professor at NCU (Graduate Institute of Biomedical Engineering) |
| Research Areas | Neuroengineering, VR in clinical applications, EEG/MEG, AI in neuroscience |
| Key Projects | Skin‑brain microbiome studies; VR for chemotherapy stress; AI for addiction rehabilitation |
| Notable Publications | ADHD detection via EEG; VR in methamphetamine treatment research |
If you’d like more details on her doctoral thesis, publications, or current lab activities, feel free to ask—I’d be happy to dig deeper!
If you’re looking to join Professor Chun‑Chuan Chen’s lab at National Central University—focused on computational neuroscience, neuroengineering, VR applications, EEG/MEG signal processing, AI in medicine, and precision healthcare—here’s a clear breakdown of the key skills and knowledge areas worth developing to increase your chances:
1. Signal Processing (EEG/MEG)
Her work prominently features EEG and MEG electromagnetic signal analysis—developing neuromarkers, detecting ADHD, modeling brain activity under VR conditions, etc.國防醫學院+1National Central University.
Familiarity with signal preprocessing, artifact removal, feature extraction, time–frequency analyses, and ERP (e.g., P300) detection would be essential.
2. Computational Neuroscience & Data Analysis
The lab uses computational methods to understand neural correlates, involving multimodal neurophysiological data fusion and modelling.National Central University國防醫學院.
Be prepared for statistical modelling, neural data analysis, possibly machine learning for classification or prediction tasks (e.g., addiction detection, cognitive function analysis).
3. Programming & Scripting
While the CV of a different Dr. Chen (Chun‑Chung Chen) lists skills like C++, Python, MATLAB, and HPC toolsccdw.org, it suggests what tends to be broadly relevant in such labs.
Specifically, familiarize yourself with MATLAB (commonly used in EEG/MEG processing), Python (data handling, ML frameworks), and possibly GPU programming if working with heavy computation tasks.ResearchGateNational Central University.
4. Virtual Reality Integration
Several of Prof. Chen’s projects involve VR—for both experimental stimuli and therapeutic interventions (e.g., methamphetamine cue induction, breast cancer symptom management)National Central University國防醫學院.
Skills in developing or managing VR protocols, integrating VR interfaces with neurophysiology systems, or handling synchronized stimulus presentation will help you stand out.
5. Artificial Intelligence & Precision Medicine
The lab pursues AI-driven, multimodal neurophysiological approaches, particularly tailored for precision addiction treatment and health interventionsNational Central University國防醫學院.
Competency in machine learning, especially in handling multimodal datasets (EEG data + behavioral/vital signals), could be a major asset.
While not explicitly listed for Prof. Chen’s group, interdisciplinary approaches are common in such research environments:
Cross-disciplinary collaboration—comfortable working with peers in engineering, neuroscience, VR, clinical domains.
Critical thinking and data science literacy—drawing meaningful insights from complex data (a quality emphasized in related labslabspotlight.ntu.edu.tw).
Independent research mindset—proactive in designing experiments, analyzing data, and interpreting findings.
| Category | Suggested Skill Areas |
|---|---|
| Signal Processing | EEG/MEG analysis, P300/ERP processing, artifact removal, time–frequency analysis |
| Computational Skills | MATLAB, Python, GPU acceleration (if applicable), statistical modeling |
| Machine Learning | Classification, data fusion, pattern detection from multimodal neurophysiological data |
| Virtual Reality | VR experimental design/implementation, stimulus control, synchronization |
| Translational Focus | Precision medicine applications, healthcare data modeling |
| Interdisciplinary Ability | Team collaboration, data science mindset, independent project management |
Gain hands-on experience:
Work in a neuroimaging or EEG/MEG lab.
Take courses or complete projects using MATLAB and Python for neural signal processing.
Explore ML pipelines tailored to physiological data.
Experiment with VR tools:
Learn basic Unity or similar platforms to design VR stimuli or neurofeedback environments.
Engage in interdisciplinary research:
Collaborate across fields (e.g., engineering, healthcare) or join cross-disciplinary workshops or hackathons.
Build a focused project or portfolio:
For example, analyze a publicly available EEG dataset, apply ML classification, or demonstrate a basic VR interface with physiological input.
If you’d like, I can help you find specific courses, online resources, or beginner projects in any of these areas—just let me know which skill interests you most!
Here’s a selection of high-quality resources and tools tailored to your interest in AI, image processing, and big data, especially relevant if you're targeting Professor Chun‑Chuan Chen's lab, which bridges computational neuroscience, EEG/MEG, VR, and AI-driven medical applications:
A widely used open-source toolbox for EEG/MEG preprocessing, time/frequency analysis, artifact rejection, visualization, and independent component analysis (ICA)—all essential for EEG-based work.
維基百科
A powerful Python library for EEG and MEG data analysis, offering extensive support for advanced processing in the Python ecosystem.
維基百科
A versatile, Python-based toolbox for physiological signal processing (like ECG, EDA, EEG), with high-level workflows for neurophysiological data analysis.
維基百科
A MATLAB-based GUI framework that integrates EEG preprocessing, feature extraction, and classification (e.g., K-NN, SVM, ANN)—great for beginners and practical experimentation.
arXiv
A resource hub offering courses such as:
Machine Learning (CONP): Python-based supervised learning applied to neuroscience data.
Preprocessing Data in EEGLAB: Hands-on EEG/MEG preprocessing in MATLAB.
Neuro4ML (Neuroscience for Machine Learners): Helps those with ML backgrounds explore neuroscience concepts.
Additional modules on neuroinformatics, reproducibility (Git, Docker), and FAIR data principles.
INCF Training+1
A PhD/Master course teaching big data techniques for neuroscience, including handling EEG/calcium imaging data, ML, and managing data pipelines.
OsloMet
A course focused on big data analysis in biomedical research, relevance to neuro‑omics, data integration, graph analytics, predictive analytics, and working with complex datasets.
Vrije Universiteit Amsterdam
A short, immersive program covering computational imaging (including medical/VR imaging), ML, computer vision, and real-world applications like medical imaging analytics.
MIT專業教育
A practical, multi-week course combining machine learning fundamentals (supervised/unsupervised, time series, reinforcement learning) with their application to brain activity analysis.
CAJAL
A cloud-based, open-source platform designed for standardized, reproducible analysis of neuroimaging data (EEG, MEG, MRI), offering data management and processing workflows.
arXiv
A repository of 1,000+ neuroimaging tools for EEG/MEG, MR, CT, imaging genomics, and computational neuroscience—ideal for discovering new tools and benchmarking.
維基百科
A standard format facilitating unified data structuring, sharing, and pipeline development across neuroscience experiments—critical for big data reproducibility.
arXiv
An international body promoting FAIR neuroscience data practices and offering training on standards that ensure reproducible and integrable research output.
維基百科
On Reddit users share practical advice:
“...Cohen’s book … I use EEGLAB on Matlab. Their wiki is a good source…”
“Focus on good coding practice... get hold of the neuroimaging libraries/toolboxes and get access to some open data... learn lots of python and learn lots of relevant mathematics.”
“Introduction to EEG and Neural Signal Processing” video modules are available—great for beginners.
Practice EEG/MEG analysis using EEGLAB (MATLAB) and MNE‑Python.
Explore NeuroKit2 for combined physiological signal analysis.
Take INCF’s Machine Learning (CONP) or Neuro4ML courses.
Build familiarity with frameworks like scikit-learn, Keras, or PyTorch.
Enroll in OsloMet’s neuroscience‑focused data science or VU Amsterdam’s big data course.
Consider the MIT Advances in Imaging & ML short course for exposure to medical and VR imaging applications.
Get hands-on with brainlife.io.
Explore tool repositories via NITRC.
Follow training on NWB and FAIR practices via INCF.
Start using Git, Docker, Binder, etc. in your projects (INCF resources again valuable).
INCF Training維基百科
| Focus Area | Suggested Resources |
|---|---|
| EEG/MEG Analysis | EEGLAB, MNE‑Python, NeuroKit2, EEGsig |
| Machine Learning in Neuroscience | INCF ML Course, Neuro4ML, Cajal Training, Reddit insights |
| Big Data & Data Science | OsloMet Neuro‑insights, VU Amsterdam Big Data course |
| Imaging & VR | MIT Advances in Imaging & ML |
| Neuroinformatics & Standards | brainlife.io, NITRC, NWB, INCF |
| Reproducible Practices | Git/Docker tutorials via INCF |
Let me know if you'd like help enrolling, finding free resources, or starting a project/tutorial in any of these areas—I’m happy to assist further!