Protein Engineering & In Vitro Evolution

Related lectures (32)

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

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

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

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

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

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

Explores the fundamentals of proteins, their production, and natural materials like silk and collagen.

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

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

Explores protein co-evolutionary analysis, covering protein functions, folding, correlations, DCA, and structure prediction tools like AlphaFold 2.

Explores proteins' structure, function, cooperativity, and allostery, including action at a distance and protein evolution.

Explores polymer folding, hydrophobic interactions, and DNA organization, highlighting their biological importance.

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