superski

For Students

Here are some general guidelines for those considering a research career in Mathematical Physics.

If you are looking for a research advisor, I would be happy to discuss possible research opportunities. I currently offer graduate research projects in different aspects of Mathematical Physics.

At IST you may either get a degree in Physics or a degree in Mathematics (undergraduate and graduate), and you may also join doctoral programs in either Mathematics or Physics. At this stage there is yet no joint degree. In this sense, I strongly recommend that you should follow the course plan presented below as much as you can.

FCT Ph.D. Fellowships:

The Portuguese Science Foundation opens applications for individual doctoral fellowships in all areas roughly every summer, where applicants may apply after being accepted in a doctoral program. If you are interested in applying for this fellowship with the aim of pursuing doctoral studies in Mathematics, in the general area of Mathematical Physics, the first step consists in sending me an email.

The complete application procedure consists of two distinct phases. The candidate must first apply to the IST Doctoral Program in Mathematics. In order to qualify for the Doctoral Program in Mathematics, you must hold either a master's degree or a bachelor's degree (or equivalent). A degree in mathematics is not required but you should have a good mathematics record. Admisson to our program is based on past academic performance; further details on the admission requirements may be found here. Once the candidate has been admitted, the String Theory and Mathematical Physics group will jointly apply for a FCT Ph.D. fellowship. The complete procedure is described in the FCT web-page, in particular the Fellowships and Grants section, where you should pay attention to the BD (Doctoral Grant) fellowship. The expected duration of the fellowship is 4 years. The deadline for application is typically between May and September, with evaluations on two cycles: one after June and the other after September, with results coming out typically a couple of months later, but consult the aforementioned links for the precise data. Positions may then start in either October or January, correspondingly, at the earliest. Do notice that we have been mostly successfull with these applications in the past.


First Cycle: Undergraduate Degree

1st Year, 1st Term 1st Year, 2nd Term
Differential and Integral Calculus I Differential and Integral Calculus II
Linear Algebra Mechanics and Waves
Experimental Mathematics Introduction to Geometry
Elements of Finite Mathematics Introduction to Optimization
Basic Experimental Physics Programming
2nd Year, 1st Term 2nd Year, 2nd Term
Complex Analysis and Differential Equations Electromagnetism and Optics
Thermodynamics and the Structure of Matter Topology
Introduction to Algebra Mathematical Logic
Probability and Statistics Complements of Probability and Statistics
Computational Physics Computational Mathematics
3rd Year, 1st Term 3rd Year, 2nd Term
Quantum Mechanics Analytical Mechanics
Classical Electrodynamics Statistical Physics
Complements of Complex Analysis Quantum Structure of Matter
Riemannian Geometry Riemann Surfaces and Algebraic Curves
Functional Analysis Applied Analysis


Second Cycle: Master Degree

1st Year, 1st Term 1st Year, 2nd Term
Complements of Quantum Mechanics Quantum Field Theory
Physics of Continuous Media Unification Theories
Differential Geometry Statistical Mechanics and Phase Transitions
Geometrical Mechanics Solid State Physics
Ordinary Differential Equations Discrete Dynamical Systems
2nd Year, 1st Term 2nd Year, 2nd Term
Renormalization Group Mathematical Relativity
Relativity and Cosmology Master Thesis
Many Particle Systems and Critical Phenomena  
Lie Groups and Lie Algebras  
Master Thesis  


Third Cycle: Doctoral Degree

1st Year, 1st Term 1st Year, 2nd Term
Conformal Field Theory Geometry and Gauge Theory
Advanced Quantum Field Theory String Theory
Differential Topology Symplectic Geometry
Knot Theory Partial Differential Equations



Introduction to String Theory, Matrix Models and Conformal Field Theory

1. QFT Basics for Mathematicians

[1] — Feynman Diagrams for Pedestrians and Mathematicians
Michael Polyak
e-Print: arXiv:math/0406251 [math.GT]
Link to SPIRES and link to arXiv.

[2] — Perturbative Expansion of Chern-Simons Theory
Justin Sawon
e-Print: arXiv:math/0504495 [math.GT]
Link to SPIRES and link to arXiv.

2. String Theory: Basics

[1] — A First Course in String Theory
Barton Zwiebach
Cambridge University Press 2004
Link to SPIRES and link to Amazon.co.uk.

[2] — String Theory, Volume 1: An Introduction to the Bosonic String
Joseph Polchinski
Cambridge University Press 1998
Link to SPIRES and link to Amazon.co.uk.

3. Matrix Models: Basics

[1] — 2d Gravity and Random Matrices
Philippe Di Francesco, Paul Ginsparg, Jean Zinn-Justin
Published in Physics Reports 254 (1995) 1-133
e-Print: arXiv:hep-th/9306153
Link to SPIRES and link to arXiv.

[2] — A Planar Diagram Theory for Strong Interactions
Gerard 't Hooft
Published in Nuclear Physics B72 (1974) 461-473
Link to SPIRES.

[3] — Les Houches Lectures on Matrix Models and Topological Strings
Marcos Mariño
e-Print: arXiv:hep-th/0410165
Link to SPIRES and link to arXiv.

4. The Renormalization Group

[1] — The Theory of Critical Phenomena: An Introduction to the Renormalization Group
J.J. Binney, N.J. Dowrick, A.J. Fisher, M.E.J. Newman
Oxford University Press 1992
Link to SPIRES and link to Amazon.co.uk.

[2] — Renormalization Group Approach to Matrix Models
Edouard Brézin, Jean Zinn-Justin
Published in Physics Letters B288 (1992) 54-58
e-Print: arXiv:hep-th/9206035
Link to SPIRES and link to arXiv.

5. Conformal Field Theory

[1] — Applied Conformal Field Theory
Paul Ginsparg
e-Print: arXiv:hep-th/9108028
Link to SPIRES and link to arXiv.

[2] — Conformal Field Theory and Statistical Mechanics
John Cardy
e-Print: arXiv:0807.3472 [cond-mat.stat-mech]
Link to SPIRES and link to arXiv.

[3] — Conformal Field Theory
Philippe Di Francesco, Pierre Mathieu, David Senechal
Springer 1997
Link to SPIRES and link to Amazon.co.uk.

6. String Theory: Topics

[1] — A First Course in String Theory
Barton Zwiebach
Cambridge University Press 2004
Link to SPIRES and link to Amazon.co.uk.

[2] — String Theory, Volume 2: Superstring Theory and Beyond
Joseph Polchinski
Cambridge University Press 1998
Link to SPIRES and link to Amazon.co.uk.

7. Matrix Models: Topics

[1] — 2d Gravity and Random Matrices
Philippe Di Francesco, Paul Ginsparg, Jean Zinn-Justin
Published in Physics Reports 254 (1995) 1-133
e-Print: arXiv:hep-th/9306153
Link to SPIRES and link to arXiv.

[2] — Les Houches Lectures on Matrix Models and Topological Strings
Marcos Mariño
e-Print: arXiv:hep-th/0410165
Link to SPIRES and link to arXiv.

[3] — Matrix Model Calculations Beyond the Spherical Limit
Jan Ambjørn, Leonid Chekhov, Charlotte Kristjansen, Yuri Makeenko
Published in Nuclear Physics B404 (1993) 127-172
e-Print: arXiv:hep-th/9302014
Link to SPIRES and link to arXiv.

[4] — Higher Genus Correlators for the Hermitian Matrix Model with Multiple Cuts
Gernot Akemann
Published in Nuclear Physics B482 (1996) 403-430
e-Print: arXiv:hep-th/9606004
Link to SPIRES and link to arXiv.

8. Liouville Theory and Minimal Strings

[1] — Liouville Field Theory: A Decade After the Revolution
Yu Nakayama
Published in International Journal of Modern Physics A19 (2004) 2771-2930
e-Print: arXiv:hep-th/0402009
Link to SPIRES and link to arXiv.

[2] — Lectures on 2d Gravity and 2d String Theory
Paul Ginsparg, Gregory Moore
e-Print: arXiv:hep-th/9304011
Link to SPIRES and link to arXiv.



...and remember...