Magnetic Monopoles E.A. Olszewski Outline I. Duality (Bosonization) II. The Maxwell Equations III. The Dirac Monopole (Wu-Yang) IV. Mathematics Primer.

Slides:



Advertisements
Similar presentations
Toward M5-branes from ABJM action Based on going project with Seiji Terashima (YITP, Kyoto U. ) Futoshi Yagi (YITP, Kyoto U.)
Advertisements

Vector integrals Line integrals Surface integrals Volume integrals Integral theorems The divergence theorem Green’s theorem in the plane Stoke’s theorem.
A journey inside planar pure QED CP3 lunch meeting By Bruno Bertrand November 19 th 2004.
STRING THEORY: CHALLENGES AND PROSPECTS John H. Schwarz October 2008.
and Stockholm, August 27, 2004 Gerard ’t Hooft Utrecht University The Nature of.
Wayne Leonardo Silva de Paula Instituto Tecnológico de Aeronáutica Dynamical AdS/QCD model for light-mesons and baryons. Collaborators: Alfredo.
1 Interacting Higher Spins on AdS(D) Mirian Tsulaia University of Crete.
QCD – from the vacuum to high temperature an analytical approach an analytical approach.
Smashing the Standard Model: Physics at the CERN LHC
The Ideas of Unified Theories of Physics Tareq Ahmed Mokhiemer PHYS441 Student.
} space where are positive and negative energy solutions to free KG equation time.
Wilson-’t Hooft operators and the theta angle Måns Henningson Chalmers University of Technology.
8. Forces, Connections and Gauge Fields 8.0. Preliminary 8.1. Electromagnetism 8.2. Non-Abelian Gauge Theories 8.3. Non-Abelian Theories and Electromagnetism.
Lecture 3: The Standard Model
String Theory Books MBG 60 April 7, Chronology JHS: , Princeton U. MBG: , IAS 1972: JHS to Caltech, MBG to England 1979: Begin collaboration.
PHY 042: Electricity and Magnetism Introduction Prof. Pierre-Hugues Beauchemin.
New Gauge Symmetries from String Theory Pei-Ming Ho Physics Department National Taiwan University Sep. 23,
An Introduction to Field and Gauge Theories
Hermann Kolanoski, "Magnetic Monopoles" Magnetic Monopoles How large is a monopole? Is a monopole a particle? How do monopoles interact? What.
Takayuki Nagashima Tokyo Institute of Technology In collaboration with M.Eto (Pisa U.), T.Fujimori (TIT), M.Nitta (Keio U.), K.Ohashi (Cambridge U.) and.
Monday, Apr. 2, 2007PHYS 5326, Spring 2007 Jae Yu 1 PHYS 5326 – Lecture #12, 13, 14 Monday, Apr. 2, 2007 Dr. Jae Yu 1.Local Gauge Invariance 2.U(1) Gauge.
10 lectures. classical physics: a physical system is given by the functions of the coordinates and of the associated momenta – 2.
The Standard Model of Electroweak Physics Christopher T. Hill Head of Theoretical Physics Fermilab.
Exact Results for perturbative partition functions of theories with SU(2|4) symmetry Shinji Shimasaki (Kyoto University) JHEP1302, 148 (2013) (arXiv: [hep-th])
The Standard Model of Electroweak Physics Christopher T. Hill Head of Theoretical Physics Fermilab.
D-term Dynamical Supersymmetry Breaking K. Fujiwara and, H.I. and M. Sakaguchi arXiv: hep-th/ , P. T. P. 113 arXiv: hep-th/ , N. P. B 723 H.
Gauge Theory, Superstrings and Supermagnets Volker Schomerus SYSY Goettingen 2012.
Lecture Dirac 1927: search for a wave equation, in which the time derivative appears only in the first order ( Klein- Gordon equation:
String/M Theory – what is it? Branes and brane world Holography The Landscape Nick Evans Strong Force Origins Superstrings Ten & eleven dimensions.
Solvable Lie Algebras in Supergravity and Superstrings Pietro Fré Bonn February 2002 An algebraic characterization of superstring dualities.
Wednesday, Mar. 5, 2003PHYS 5326, Spring 2003 Jae Yu 1 PHYS 5326 – Lecture #13 Wednesday, Mar. 5, 2003 Dr. Jae Yu Local Gauge Invariance and Introduction.
“Significance of Electromagnetic Potentials in the Quantum Theory”
PHY 520 Introduction Christopher Crawford
Topology induced emergent dynamic gauge theory in an extended Kane-Mele-Hubbard model Xi Luo January 5, 2015 arXiv:
The inclusion of fermions – J=1/2 particles
Strings, Gravity and the Large N Limit of Gauge Theories Juan Maldacena Institute for Advanced Study Princeton, New Jersey.
Monday, Mar. 10, 2003PHYS 5326, Spring 2003 Jae Yu 1 PHYS 5326 – Lecture #14 Monday, Mar. 10, 2003 Dr. Jae Yu Completion of U(1) Gauge Invariance SU(2)
Seiberg Duality James Barnard University of Durham.
} } Lagrangian formulation of the Klein Gordon equation
Quantization of free scalar fields scalar field  equation of motin Lagrangian density  (i) Lorentzian invariance (ii) invariance under  →  require.
Monday, Apr. 11, 2005PHYS 3446, Spring 2005 Jae Yu 1 PHYS 3446 – Lecture #18 Monday, Apr. 11, 2005 Dr. Jae Yu Symmetries Local gauge symmetry Gauge fields.
Classical Electrodynamics Jingbo Zhang Harbin Institute of Technology.
ArXiv: (hep-th) Toshiaki Fujimori (Tokyo Institute of Technology) Minoru Eto, Sven Bjarke Gudnason, Kenichi Konishi, Muneto Nitta, Keisuke Ohashi.
Bum-Hoon Lee Sogang University, Seoul, Korea D-branes in Type IIB Plane Wave Background 15th Mini-Workshop on Particle Physics May 14-15, 2006, Seoul National.
Wednesday, Nov. 15, 2006PHYS 3446, Fall 2006 Jae Yu 1 PHYS 3446 – Lecture #19 Wednesday, Nov. 15, 2006 Dr. Jae Yu 1.Symmetries Local gauge symmetry Gauge.
Fundamental principles of particle physics Our description of the fundamental interactions and particles rests on two fundamental structures :
“Applied” String Theory Pinaki Banerjee The Institute of Mathematical Sciences, Chennai Department of Physics, Visva Bharati 12 th July, 2013.
A TEST FOR THE LOCAL INTRINSIC LORENTZ SYMMETRY
Department of Electronics
PHYS 3446 – Lecture #23 Symmetries Why do we care about the symmetry?
Lagrange Formalism & Gauge Theories
STRING THEORY AND M-THEORY: A Modern Introduction
Magnetic Monopoles and the Homotopy Groups
Construction of a relativistic field theory
Reference: “The Standard Model Higgs Boson” by Ivo van Vulpen,
Fundamentals of Quantum Electrodynamics
Announcements Exam Details: Today: Problems 6.6, 6.7
Standard Model of Particles
The symmetry of interactions
Adnan Bashir, UMSNH, Mexico
Principal Chiral Model on Superspheres
in SU(N) Gauge Field Theory
PHYS 3446 – Lecture #19 Symmetries Wednesday, Nov. 15, 2006 Dr. Jae Yu
Quark and lepton masses
SUSY breaking by metastable state
前回まとめ 自由scalar場の量子化 Lagrangian 密度 運動方程式 Klein Gordon方程式 正準共役運動量 量子条件
Chapter III Dirac Field Lecture 4 Books Recommended:
in collaboration with G. Ishiki, S. Shimasaki
Gauge theory and gravity
wan ahmad tajuddin wan abdullah jabatan fizik universiti malaya
Presentation transcript:

Magnetic Monopoles E.A. Olszewski

Outline I. Duality (Bosonization) II. The Maxwell Equations III. The Dirac Monopole (Wu-Yang) IV. Mathematics Primer V. The t’Hooft/Polyakov and BPS Monopoles a. Gauge groups SU(2) and SO(3) b. Gauge groups SU(N) and G2

Outline (continued) VI. Montonen-Olive Conjecture (weak/strong duality) and SL(2,Z) VII. Montonen-Olive Duality and Type IIB Superstring Theory

Duality (Bosonization) The sine-Gordon equation The sine-Gordon equation The Thirring model The Thirring model Meson states → fermion-anti fermion bound states Soliton → fundamental fermion

The Maxwell Equations

The Maxwell Equations (continued)

 Coupling electromagnetism to quantum mechanics The Maxwell Equations (continued)

 Aharonov-Bohm effect

The Dirac Monopole (Wu-Yang)

Dirac Monopole (continued) 1.The existence of a single magnetic charge requires that electric charge is quantized. 2.The quantities exp(-ie  are elements of a U(1) group of gauge transformations. If electric charge is quantized, then  and  e 1 (where e 1 is the unit of charge) yield the same gauge transformation, i.e. the range of  is compact. In this case the gauge group is called U(1). In the alternative case when charge is not quantized and the range of  is not compact the gauge group is called R. 3.Mathematically, we have constructed a non-trivial principal fiber bundle with base manifold S 2 and fiber U(1).

Mathematics Primer Magnetic monopole bundle

The t’Hooft/Polyakov and BPS Monopoles The Maxwell Equations (Minkowski space)

The Maxwell Equations (continued) The t’Hooft/Polyakov and BPS Monopoles (continued)

Gauge groups SU(2) and SO(3)

The t’Hooft/Polyakov and BPS Monopoles (continued) Monopole construction

The t’Hooft/Polyakov and BPS Monopoles (continued) The potential V(  is chosen so that vacuum expectation value of  is non-zero, e.g.

The t’Hooft/Polyakov and BPS Monopoles (continued) The equations of motion can be obtained from the Lagrangian.

The t’Hooft/Polyakov and BPS Monopoles (continued)

BPS bound

Gauge groups SU(N) and G2 t’Hooft/Polyakov magnetic monopole in SU(N) BPS dyon G2 monopoles and dyons consist of two copies of SU(3)

Montonen-Olive Conjecture (weak/strong duality) and SL(2,Z)

Montonen-Olive Duality and Type IIB Superstring Theory

Summary I have reviewed the Dirac monopole and its natural extension to spontaneously broken YangMills gauge theories. I have reviewed the Dirac monopole and its natural extension to spontaneously broken YangMills gauge theories. I have explicitly constructed t’Hooft/polyakov magnetic monopole and BPS dyon solutions for SU(N). Suprisingly, the electric charge of the dyon is coupled strongly, as is the magnetic charge. I have explicitly constructed t’Hooft/polyakov magnetic monopole and BPS dyon solutions for SU(N). Suprisingly, the electric charge of the dyon is coupled strongly, as is the magnetic charge.