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The Protein Folding Problem

FEB 01, 1993
Understanding and predicting the three‐dimensional structures of proteins from their sequences of amino acids requires both basic knowledge of molecular forces and sophisticated computer programs that search for the correct configurations.

DOI: 10.1063/1.881371

Hue Sun Chan
Ken A. Dill

Thousands of different types of proteins occur in biological organisms. They are responsible for catalyzing and regulating biochemical reactions, transporting molecules, the chemistry of vision and of the photosynthetic conversion of light to growth, and they form the basis of structures such as skin, hair and tendon. Protein molecules have remarkable structures. A protein is a linear chain of a particular sequence of monomer units. A major class of proteins, globular proteins, ball up into compact configurations that can have much internal symmetry. (See figure 1.) Each globular protein has a unique folded state, determined by its sequence of monomers.

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More about the Authors

Hue Sun Chan. University of California, San Francisco.

Ken A. Dill. University of California, San Francisco.

This Content Appeared In
pt-cover_1993_02.jpeg

Volume 46, Number 2

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