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Full Description
Many philosophers, physicists, and mathematicians have wondered about the remarkable relationship between mathematics with its abstract, pure, independent structures on one side, and the wilderness of natural phenomena on the other. Famously, Wigner found the "effectiveness" of mathematics in defining and supporting physical theories to be unreasonable, for how incredibly well it worked. Why, in fact, should these mathematical structures be so well-fitting, and even heuristic in the scientific exploration and discovery of nature? This book argues that the effectiveness of mathematics in physics is reasonable. The author builds on useful analogies of prime numbers and elementary particles, elementary structure kinship and the structure of systems of particles, spectra and symmetries, and for example, mathematical limits and physical situations. The two-dimensional Ising model of a permanent magnet and the proofs of the stability of everyday matter exemplify such effectiveness, and the power of rigorous mathematical physics. Newton is our original model, with Galileo earlier suggesting that mathematics is the language of Nature.
Contents
- 1. Introduction. - 2. Why Mathematical Physics?. - 3. Learning from Newton. - 4. Primes and Particles. - 5. So Far and in Prospect. - 6. Creation: When Something Appears Out of Nothing. - 7. Packaging "Spectra" (as in Partition Functions and L/ζ-Functions) to Reveal Symmetries in Nature and in Numbers. - 8. Legerdemain in Mathematical Physics: Structure, "Tricks," and Lacunae in Derivations of the Partition Function of the Two-Dimensional Ising Model and in Proofs of The Stability of Matter. - 9. Mathematical Physics.
