Concept

Protein design

Related lectures (21)

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 Design: Computational Methods

Covers challenges in protein design, energy functions, search algorithms, and applications in synthetic biology, emphasizing the importance of protein design and the methods used for designing proteins.

Protein Design: Enzyme Engineering

Explores the design of novel enzymes, sustainable enzyme production, and the creation of selective peptides and biosensors.

Proteins: Engineering and Materials

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

Protein Design: Structure and Function

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

Protein Design: Enzyme and Biosensor Engineering

Explores novel enzyme and biosensor design for catalysis and ligand detection.

Computational Protein Design

Covers the basics of computational protein design, highlighting the significance of energy functions and efficient search methods.

Circular Permutation in Protein Engineering

Delves into circular permutation in protein engineering, focusing on optimizing proteins by introducing new termini without changing the structure.

Protein Engineering: Techniques and Applications

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

Deep Generative Models in Drug Discovery

Explores the application of deep generative models in drug discovery, focusing on designing small molecules and optimizing molecular structures.

Protein Folding: Structure and Design

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

Protein folding: energy landscapes and molecular dynamics

Covers protein folding, from molecular dynamics to sequence design criteria and the challenges of the energy landscape.

Protein Structure: General Principles

Explores protein structures, folding principles, and sequence determinants, emphasizing the diverse three-dimensional structures proteins can adopt.

Synthetic Biology: Engineering Living Systems

Explores synthetic biology, emphasizing protein engineering, gene circuits, and cellular design for diverse applications.

Protein Conformations and Energy Calculations

Explores protein energy states, covalent bonds, salt bridges, and van der Waals interactions.

Engineering Proteins: Structure, Function, and Applications

Covers the structure, function, and engineering of proteins, emphasizing their biological significance and applications in biotechnology.

Protein Function Regulation: Degradation Mechanisms

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

Protein Maturation: Post-Translational Modifications

Covers the maturation of proteins and the role of post-translational modifications in their functionality and regulation.

Protein Design: Synthetic Biology

Explores protein design principles, challenges in membrane protein stability, and computational approaches for optimizing protein structures.