String Theory - 2º Semester 2011/2012
ProgramGoal: Introduce the basic notions of string theory, together with an introduction to selected advanced research topics. Bosonic Strings: Polyakov action, covariant quantization, open strings and closed strings; S-matrix, tree-level and one-loop amplitudes; Riemann surfaces and CFT. D-Branes and Dualities: Toroidal compactication, closed strings and T-duality; Orbifolds; D-branes, T-duality and Wilson lines; Gauge theory and Born-Infeld electrodynamics. Superstrings: Superstrings of type I and II, Ramond and Neveu-Schwarz sectors, modular invariance and GSO projection; Superstring interactions; Calabi-Yau compactications. More on D-Branes and Dualities: T-duality; D-brane interactions: kinematics, dynamics and bound states; S-duality, U-duality, M-theory and other dualities; Black holes and AdS/CFT. Topological String Theory: Chern-Simons theory; Kaehler and Calabi-Yau geometry; Topological models, A and B models; Mirror symmetry; Large N dualities and matrix models; OSV conjecture.BibliographySuperstring Theory, M.B. Green, J.H. Schwarz and E. Witten, 1987, Cambridge University Press. String Theory, Joseph Polchinski, 1998, Cambridge University Press. What is String Theory? Quantum Fields and Strings: A Course for Mathematicians, Vol. 2, 1999, American Mathematical Society, IAS. A First Course in String Theory, Barton Zwiebach, 2004, Cambridge University Press. David Tong: Lectures on String Theory. Paul Ginsparg: Applied Conformal Field Theory. Summary |