Lectures related to Computational biology

Explores the science of articulation and the relationship between space and mental imagery.

Explores Systems Biology, metabolic pathways, genome-scale models, and bioinformatic tools for predictive biochemistry in bioproduction.

Energy Transformations: ATP and Cellular Work

Explores major themes in biology, focusing on energy transformations within cellular systems and the crucial role of adenosine triphosphate (ATP).

Plasma Medicine: Overview

Explores the therapeutic potential of cold atmospheric plasmas in various medical applications.

Prototyping: EPFL Support and Workshops

Explores the importance of prototyping, EPFL support programs, workshops, and coaching for diverse projects.

The Final Word

Reflects on the journey taken throughout the year and encourages students to persevere.

Ordinary Differential Equations: Growth Factors and Stability

Explores ordinary differential equations in biology, emphasizing growth factors and predator-prey system stability.

Zernike Phase-Contrast Imaging

Explores Zernike phase-contrast imaging, providing high-resolution images with high contrast for biological systems.

Tutorial On Auto-encoders

Explores auto-encoders, covering invertibility conditions, projections, and generalized inverses in linear algebra.

Microsystems for Biology: Nanopores and DNA Analysis

Delves into microsystems for biology, highlighting the use of nanopores for DNA analysis.

Introduction to Biology and Cells

Introduces biology and cells, covering proteins, lipids, DNA, organs, tissues, and more.

Imaging Electric Fields and Soft Matter: Multidimensional TEM

Explores imaging electric fields, 3D shapes, and soft matter using multidimensional TEM.

Synchrotron Radiation

Explores Synchrotron Radiation, its properties, and applications in scientific research.

X-rays: From Discovery to Applications

Explores the historical perspective, properties, and applications of X-rays, including diffraction, atomic resolution, and spectral colors of elements.

Computational Molecular Design: Mathematical Theory, High Performance Computing, In Vivo Experiments

Explores Computational Molecular Design, emphasizing Mathematical Theory, High Performance Computing, and In Vivo Experiments.

Physics of Biological Systems

Covers transport in living systems, protein aggregation, and the physics of biological systems.

Metabolic Engineering: Systems Biology and Tools

Explores systems biology of metabolism, genome-scale models, and metabolic engineering applications.

Advanced General Chemistry I: Basic Concepts

Covers the fundamental concepts of advanced general chemistry, including organic chemistry basics, molecular structures, and chemical reactions.

Synaptic Transmission: Molecular Mechanisms

Explores the molecular mechanisms of synaptic transmission, focusing on synapse formation, neurotransmitter release, and computational cell biology.

Parallel and Scalable Bioinformatics: Minimizing Data and Addressing FRAC Issues

Explores genomics computational analysis challenges and FRAC validation issues in doctoral studies.