Lectures related to Protein Engineering & In vitro Evolution

Protein Engineering & In Vitro Evolution

Explores protein engineering, computational design, and screening protein libraries to generate novel proteins with desired functions.

Protein Design: Structure and Function

Covers protein design fundamentals, including secondary structures, amino acid propensity, loops, and computational methods.

Drug Discovery: Computational Approaches

Explores the EXSCALATE4COV project, focusing on computational drug discovery for COVID-19 treatments and the collaboration between academia and industry.

Proteins: Engineering and Materials

Explores protein engineering, elastin-based materials, lab protein production, AI prediction of folding, and non-natural amino acids.

Computational Protein Design

Series explores computational protein design, covering challenges, applications, and importance in bioengineering and synthetic biology.

Computational Protein Design: Principles and Challenges

Covers the principles and challenges of computational protein design in bioengineering.

Protein Production: Engineering Bacteria for Protein Synthesis

Covers the engineering of bacteria for efficient protein production and purification techniques using affinity tags.

Protein Folding: Structure and Design

Explores protein folding, hydrophobic interactions, compact conformations, the HP model, co-evolution, and computational methods.

Protein Polymers: Biophysics Insights

Delves into protein polymers, discussing co-evolution, diffusion, protein structures, and experimental methods.

Protein Engineering: Techniques and Applications

Explores protein engineering techniques, including synthesis, mutations, and applications in biotechnology and vaccine development.

Proteins: Central Dogma and Translation

Explains protein synthesis, translation, and the central dogma of molecular biology.

Fragment-Based Drug Discovery: Concepts & Technologies

Covers the concepts and technologies of fragment-based drug discovery, exploring hit identification, lead optimization, and screening methods.

Protein Co-evolution Analysis

Delves into protein co-evolution analysis, covering discoveries, residue contacts, and direct coupling analysis.

Engineering with Cellular Components: Proteins, Lipids, and DNA

Explores biology fundamentals, proteins, lipids, and DNA as synthetic materials, covering cell structure, membrane composition, protein production, DNA structure, and tissue engineering.

Protein-Repair Machineries: Evolution and Function

Explores the evolution and function of protein-repair machineries, emphasizing the role of ATP-fueled unfolding machines in preventing protein aggregation and promoting proper folding.

Protein Folding Dynamics

Explores protein folding dynamics, chaperones, ATP hydrolysis, and DNA folding intricacies within the nucleus.

Protein Folding: Mechanisms and Consequences

Explores protein folding, misfolding consequences, chaperones' role, and ATP importance.

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Protein Composition and Structure

Explores protein composition, peptide bonds, secondary structures, and protein folding prediction.

Protein Function Regulation: Degradation Mechanisms

Covers the mechanisms of protein degradation, including the roles of the proteasome and autophagy in regulating protein function.