
doi: 10.1007/bf01079609
pmid: 6633670
The elucidation of the three-dimensional structure of now over 100 proteins provides the basis for describing the nature of interactions stabilizing native protein structure. To understand the forces responsible for maintaining the native structure, it is necessary to analyze the contributions of the specific forces like a hydrogen bond, a salt bridge or a hydrophobic interaction to the overall stability of a protein. Using mutant proteins carrying a single amino acid substitution, specific interactions in a protein can be altered and the effect can be studied. In this paper the results of such studies on stability variants of human haemoglobin and of T4 phage lysozyme are described.
Models, Molecular, Hot Temperature, Bacteria, Protein Conformation, Genetic Variation, Proteins, Article, Hemoglobins, Drug Stability, Mutation, Humans, 500.sciences
Models, Molecular, Hot Temperature, Bacteria, Protein Conformation, Genetic Variation, Proteins, Article, Hemoglobins, Drug Stability, Mutation, Humans, 500.sciences
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