title: The new architectonics: an invitation to structural biology.
abstract: The philosophy of art might offer an epistemological basis for talking about the complexity of biological molecules in a meaningful way. The analysis of artistic compositions requires the resolution of intrinsic tensions between disparate sensory categories-color, line and form-not unlike those encountered in looking at the surfaces of protein molecules, where charge, polarity, hydrophobicity, and shape compete for our attentions. Complex living systems exhibit behaviors such as contraction waves moving along muscle fibers, or shivers passing through the growth cones of migrating neurons, that are easy to describe with common words, but difficult to explain in terms of the language of chemistry. The problem follows from a lack of everyday experience with processes that move towards equilibrium by switching between crystalline order and chain-like disorder, a commonplace occurrence in the submicroscopic world of proteins. Since most of what is understood about protein function comes from studies of isolated macromolecules in solution, a serious gap exists between what we know and what we would like to know about organized biological systems. Closing this gap can be achieved by recognizing that protein molecules reside in gradients of Gibbs free energy, where local forces and movements can be large compared with Brownian motion. Architectonics, a term borrowed from the philosophical literature, symbolizes the eventual union of the structure of theories-how our minds construct the world-with the theory of structures-or how stability is maintained in the chaotic world of microsystems.
authors.affiliation: The Henry H. Hoyt Laboratory, Princeton University, Princeton, NJ 08544, USA. schutt@chemvax.princeton.edu
authors.forename: C E
authors.initials: CE
authors.lastname: Schutt
authors.forename: U
authors.initials: U
authors.lastname: Lindberg
mesh_terms: D049673:History, 20th Century; D007107:Immune System / Q000737:chemistry; D008958:Models, Molecular; D008967:Molecular Biology / Q000266:history / Q000639:trends*; D009124:Muscle Proteins / Q000737:chemistry; D011487:Protein Conformation; D011506:Proteins / Q000737:chemistry* / Q000145:classification; D013329:Structure-Activity Relationship; D013816:Thermodynamics
chemical_list: D009124:Muscle Proteins; D011506:Proteins