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Softcover ISBN: | 978-1-4704-4243-9 |
Product Code: | CONM/718 |
List Price: | $130.00 |
MAA Member Price: | $117.00 |
AMS Member Price: | $104.00 |
eBook ISBN: | 978-1-4704-4941-4 |
Product Code: | CONM/718.E |
List Price: | $125.00 |
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AMS Member Price: | $100.00 |
Softcover ISBN: | 978-1-4704-4243-9 |
eBook ISBN: | 978-1-4704-4941-4 |
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Book DetailsContemporary MathematicsVolume: 718; 2018; 258 ppMSC: Primary 18; 53; 55; 81
This volume contains the proceedings of the NSF-CBMS Regional Conference on Topological and Geometric Methods in QFT, held from July 31–August 4, 2017, at Montana State University in Bozeman, Montana.
In recent decades, there has been a movement to axiomatize quantum field theory into a mathematical structure. In a different direction, one can ask to test these axiom systems against physics. Can they be used to rederive known facts about quantum theories or, better yet, be the framework in which to solve open problems? Recently, Freed and Hopkins have provided a solution to a classification problem in condensed matter theory, which is ultimately based on the field theory axioms of Graeme Segal.
Papers contained in this volume amplify various aspects of the Freed–Hopkins program, develop some category theory, which lies behind the cobordism hypothesis, the major structure theorem for topological field theories, and relate to Costello's approach to perturbative quantum field theory. Two papers on the latter use this framework to recover fundamental results about some physical theories: two-dimensional sigma-models and the bosonic string. Perhaps it is surprising that such sparse axiom systems encode enough structure to prove important results in physics. These successes can be taken as encouragement that the axiom systems are at least on the right track toward articulating what a quantum field theory is.
ReadershipGraduate students and research mathematicians interested in topology, geometry, and mathematical physics.
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Table of Contents
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Articles
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David R. Morrison — Geometry and physics: An overview
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Ingmar Saberi — An introduction to spin systems for mathematicians
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Arun Debray and Sam Gunningham — The Arf-Brown TQFT of pin$^-$ surfaces
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Agnès Beaudry and Jonathan A. Campbell — A guide for computing stable homotopy groups
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David Ayala and John Francis — Flagged higher categories
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Owen Gwilliam and Theo Johnson-Freyd — How to derive Feynman diagrams for finite-dimensional integrals directly from the BV formalism
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Ryan Grady and Brian Williams — Homotopy RG flow and the non-linear $\sigma $-model
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Owen Gwilliam and Brian Williams — The holomorphic bosonic string
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Additional Material
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RequestsReview Copy – for publishers of book reviewsPermission – for use of book, eBook, or Journal contentAccessibility – to request an alternate format of an AMS title
- Book Details
- Table of Contents
- Additional Material
- Requests
This volume contains the proceedings of the NSF-CBMS Regional Conference on Topological and Geometric Methods in QFT, held from July 31–August 4, 2017, at Montana State University in Bozeman, Montana.
In recent decades, there has been a movement to axiomatize quantum field theory into a mathematical structure. In a different direction, one can ask to test these axiom systems against physics. Can they be used to rederive known facts about quantum theories or, better yet, be the framework in which to solve open problems? Recently, Freed and Hopkins have provided a solution to a classification problem in condensed matter theory, which is ultimately based on the field theory axioms of Graeme Segal.
Papers contained in this volume amplify various aspects of the Freed–Hopkins program, develop some category theory, which lies behind the cobordism hypothesis, the major structure theorem for topological field theories, and relate to Costello's approach to perturbative quantum field theory. Two papers on the latter use this framework to recover fundamental results about some physical theories: two-dimensional sigma-models and the bosonic string. Perhaps it is surprising that such sparse axiom systems encode enough structure to prove important results in physics. These successes can be taken as encouragement that the axiom systems are at least on the right track toward articulating what a quantum field theory is.
Graduate students and research mathematicians interested in topology, geometry, and mathematical physics.
-
Articles
-
David R. Morrison — Geometry and physics: An overview
-
Ingmar Saberi — An introduction to spin systems for mathematicians
-
Arun Debray and Sam Gunningham — The Arf-Brown TQFT of pin$^-$ surfaces
-
Agnès Beaudry and Jonathan A. Campbell — A guide for computing stable homotopy groups
-
David Ayala and John Francis — Flagged higher categories
-
Owen Gwilliam and Theo Johnson-Freyd — How to derive Feynman diagrams for finite-dimensional integrals directly from the BV formalism
-
Ryan Grady and Brian Williams — Homotopy RG flow and the non-linear $\sigma $-model
-
Owen Gwilliam and Brian Williams — The holomorphic bosonic string