When Topology Meets Chemistry
The applications of topological techniques for understanding molecular structures have become increasingly important over the past thirty years. In this topology text, the reader will learn about knot theory, 3-dimensional manifolds, and the topology of embedded graphs, while learning the role these play in understanding molecular structures. Most of the results that are described in the text are motivated by questions asked by chemists or molecular biologists, though the results themselves often go beyond answering the original question asked. There is no specific mathematical or chemical prerequisite; all the relevant background is provided. The text is enhanced by nearly 200 illustrations and more than 100 exercises. Reading this fascinating book, undergraduate mathematics students can escape the world of pure abstract theory and enter that of real molecules, while chemists and biologists will find simple, clear but rigorous definitions of mathematical concepts they handle intuitively in their work.
- Throughout the text, the topology is motivated by its chemical applications
- Well-written, combining mathematical rigor with intuitive explanations
- All necessary background is provided
Reviews & endorsements
"Well-written, well-organized and a pleasure to read, this book is full of interesting results, illustrated with line diagrams wherever needed. Every mathematician or chemist interested in the notions of chirality and symmetry should have a copy within easy reach." American Scientist
This is a very useful text for the purpose stated...This handy book should provide a helpful start for either biochemists or topologists who want a basic introduction to the subject." Mathematical Reviews
Product details
July 2000Paperback
9780521664820
256 pages
229 × 152 × 15 mm
0.38kg
180 b/w illus. 100 exercises
Available
Table of Contents
- 1. Stereochemical topology
- 2. Detecting chirality
- 3. Chiral moebius ladders and related molecular graphs
- 4. Different types of chirality and achirality
- 5. Embeddings of complete graphs in 3-space
- 6. Rigid and non-rigid symmetries of graphs in 3-space
- 7. Topology of DNA.