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Graduate Programme in Physics
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Course in
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| MONTE CARLO METHODS IN PHYSICS | ||
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This is part of the course
Statistical and Monte Carlo methods in physics (see this home page for
general information regarding schedule, participants etc).
Course in 2009:
Part 1: Basic techniques | ||
| Contents: |
Techniques for simulations of functions of one or several variables.
Applications to theoretical formulae (e.g. differential cross sections)
and processes.
Lecture 1: Introduction. Hit-or-miss. Stratified sampling. "Direct/smart" sampling. Importance sampling. Functions with spikes. Weighted & unweighted events. Multidimensional functions. Normalisation. Random numbers. Lecture 2: Example: differential cross section for high energy particle physics & Lund MC generators. Lecture 3: Adaptive integration & simulation. General purpose MC programs: DIVONNE, VEGAS etc. Random walk. Metropolis algorithm. | |
| Literature: |
G. Ingelman: Lecture notes on Monte Carlo methods.
T. Sjöstrand, PYTHIA manual chapter 4 and section 7.4-7.5. F. James, Monte Carlo theory and practice, Rep. Prog. Phys. vol. 43 (1980) p. 1145-1189 P.R. Bevington and D.K. Robinsson, Data reduction and error analysis for the physical sciences, 3rd edition, McGraw-Hill, chapter 5 on `Monte Carlo techniques'.
Further reading:
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| Programs: |
CERN program library CERNLIB: RIWIAD, RADMUL, DIVONNE etc.
VEGAS: G. P. Lepage, Journal of Computational Physics 27 (1978) 192-203 RAMBO: R. Kleiss et al., Computer Physics Communications 40 (1986) 359-373 PYTHIA/JETSET, LEPTO and other high energy physics event generators | |
| Examination: | Hand-in exercise Performed/accepted hand-in exercises. | |
| Teacher: |
Gunnar.Ingelman@physics.uu.se,
phone 018-471 3884, fax 018-471 3833,
Department of Physics and Astronomy, Box 516, 751 20 Uppsala
Part 2: Applications | |
| Contents: | This part of the course on the Monte Carlo methods deals with their applications to diverse experimental (practical) situations, in particular to the problem of unfolding the "truth" from measurements. | |
| Literature: | Lecture notes and the DESY 95-113 preprint by G. Zech. The latter can be found in the CERN library (start from www.cern.ch and then follow links) as a pdf file. A non-compulsory item, where a mathematical approach to the problem of unfolding (i.e. the Fredholm integral equations) is treated in a strict and extensive way, is: B.W. Rust and W.R. Burns, "Mathematical Programming and the Numerical Solution of Linear Equations", Americal Elsevier Publishing Company, Inc., New York, 1972. | |
| Examination: | Hand-in exercise Performed/accepted hand-in exercises. | |
| Teacher: | Barbara.Badelek@tsl.uu.se, | |
| www3.tsl.uu.se/~ingelman/graduate_school/courses/montecarlo/ | 2007-12-07 |