Wilson lines in quantum field theory
- 1. Joint Institute of Nuclear Research, Moscow (Russian Federation). Bogoliubov Lab. of Theoretical Physics
- 2. Antwerpen Univ., Antwerp (Belgium). Fysica Dept.
Description
Wilson lines (also known as gauge links or eikonal lines) can be introduced in any gauge field theory. Although the concept of the Wilson exponentials finds an enormously wide range of applications in a variety of branches of modern quantum field theory, from condensed matter and lattice simulations to quantum chromodynamics, high-energy effective theories and gravity, there are surprisingly few books or textbooks on the market which contain comprehensive pedagogical introduction and consecutive exposition of the subject. The objective of this book is to get the potential reader acquainted with theoretical and mathematical foundations of the concept of the Wilson loops in the context of modern quantum field theory, to teach him/her to perform independently some elementary calculations with Wilson lines, and to familiarize him/her with the recent development of the subject in different important areas of research. The target audience of the book consists of graduate and postgraduate students working in various areas of quantum field theory, as well as researchers from other fields.
Additional details
Publishing Information
- Publisher
- De Gruyter
- Imprint Place
- Berlin (Germany)
- ISBN
- 978-3-11-030910-2; 978-3-11-030921-8 (electronic)
- Imprint Pagination
- 268 p.
- Journal Volume
- 24
- Series
- De Gruyter Studies in Mathematical Physics
- ISSN
- 2194-3532
INIS
- Country of Publication
- Germany
- Country of Input or Organization
- Germany
- INIS RN
- 46063236
- Subject category
- S72: PHYSICS OF ELEMENTARY PARTICLES AND FIELDS;
- Descriptors DEI
- DISTRIBUTION FUNCTIONS; EIKONAL APPROXIMATION; GAUGE INVARIANCE; LECTURES; LIE GROUPS; PARTICLE STRUCTURE; QUANTUM CHROMODYNAMICS; STRUCTURE FUNCTIONS; UNIFIED GAUGE MODELS; VECTOR FIELDS; WILSON LOOP
- Descriptors DEC
- APPROXIMATIONS; CALCULATION METHODS; DOCUMENT TYPES; FIELD THEORIES; FUNCTIONS; INVARIANCE PRINCIPLES; MATHEMATICAL MODELS; PARTICLE MODELS; QUANTUM FIELD THEORY; SYMMETRY GROUPS