Data Science & Machine Learning Education
Making Complex Concepts Accessible
Data science is a multi-disciplinary field that uses scientific methods and algorithms to extract knowledge and insights from structured and unstructured data.
Recent advances in technology allow for the collection of enormous amounts of health-related data. Consequently, skills pertaining to handling and manipulating these data and extracting relevant information have become crucial to perform high-quality research.
Unfortunately, many researchers without a technical background frequently experience troubles obtaining or developing these skills. This is where I come in.
I believe in teaching concepts through real-world applications, particularly in healthcare and biomedical research where data science can have immediate impact.
Complex machine learning concepts should be accessible to researchers from all backgrounds, not just computer scientists.
Students learn best by doing. My courses emphasize practical exercises and real datasets from biomedical research.
Beyond technical skills, I teach students to critically evaluate methods and results, essential for good scientific practice.
Netherlands Institute for Health Sciences (NIHES)
Comprehensive course covering machine learning applications in healthcare research, from basic concepts to advanced techniques.
Student Materials & Resources
Comprehensive materials for learning data science methods specifically applied to epidemiological research.
Genomics of MusculoSkeletal Traits
International summer school focusing on genomics applications in musculoskeletal research using advanced computational methods.
The intersection of domain expertise, programming skills, and statistical knowledge
Experience machine learning concepts through interactive visualizations and hands-on learning. This comprehensive educational platform makes complex ML algorithms accessible through engaging, interactive content specifically designed for healthcare applications.
Navigate your ML journey with an interactive mindmap organized by topics and difficulty levels
Comprehensive coverage of algorithms, optimization, and validation with healthcare examples
Interactive visualizations of neural network training, backpropagation, and autoencoders
Visual understanding of bias-variance tradeoff, ROC curves, and performance metrics
Real-world applications in epidemiology, medical imaging, and clinical decision support
Test your understanding with 40 interactive questions covering ML basics
Beyond traditional courses, I actively contribute to the broader educational community through specialized workshops, conference presentations, and comprehensive resource collections that support learning in AI, genomics, and computational biology.
Comprehensive workshop exploring the applications of Large Language Models in dementia research, covering both theoretical foundations and practical implementations.
Advanced workshop on AI applications in genomics and population genetics research, featuring cutting-edge methodologies and case studies.
Detailed analysis and comprehensive table of Explainable AI methods applied to genomics research, including methodologies, applications, and comparative studies.
Extensive collection of educational resources covering data science, machine learning, genomics, and computational biology. This comprehensive table includes courses, tutorials, papers, and tools organized by topic and difficulty level.
I contribute to the Delft Nanobiology program through two complementary teaching activities that prepare students for cutting-edge research at the intersection of biology, physics, and computational science.
To form a truly educated opinion on a scientific subject, you need to become familiar with current research in that field. And to be able to distinguish between good and bad interpretations of research, you have to be willing and able to read the primary research literature for yourself.
Reading and understanding research papers is a skill that every single doctor and scientist has had to learn. But like any skill it takes patience and practice.
In our journal club sessions, students learn to critically analyze recent research papers in computational biology, machine learning applications in biomedical research, and emerging trends in nanobiology. We focus on developing critical thinking skills and the ability to evaluate scientific evidence.
Modern biology generates enormous amounts of data that require sophisticated computational approaches to analyze and interpret. Students learn essential computational skills including data analysis, statistical modeling, machine learning, and bioinformatics tools.
The course covers practical applications in genomics, proteomics, medical imaging, and systems biology. Students work with real datasets and learn to apply computational methods to solve biological problems, preparing them for careers in computational biology and data science.
Program Details