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E-raamat: Quantum Field Theory and Critical Phenomena: Fifth Edition

(Member of the French Academy of Sciences and the Academy for Sciences and Literature in Mainz, Germany, IRFU/CEA, Paris-Saclay University)
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Introduced as a quantum extension of Maxwell's classical theory, quantum electrodynamics has been the first example of a Quantum Field Theory (QFT). Eventually, QFT has become the framework for the discussion of all fundamental interactions at the microscopic scale except, possibly, gravity. More surprisingly, it has also provided a framework for the understanding of second order phase transitions in statistical mechanics.

As this work illustrates, QFT is the natural framework for the discussion of most systems involving an infinite number of degrees of freedom with local couplings. These systems range from cold Bose gases at the condensation temperature (about ten nanokelvin) to conventional phase transitions (from a few degrees to several hundred) and high energy particle physics up to a TeV, altogether more than twenty orders of magnitude in the energy scale.

Therefore, this text sets out to present a work in which the strong formal relations between particle physics and the theory of critical phenomena are systematically emphasized. This option explains some of the choices made in the presentation. A formulation in terms of field integrals has been adopted to study the properties of QFT. The language of partition and correlation functions has been used throughout, even in applications of QFT to particle physics. Renormalization and renormalization group properties are systematically discussed. The notion of effective field theory and the emergence of renormalisable theories are described. The consequences for fine tuning and triviality issue are emphasized.

This fifth edition has been updated and fully revised, e.g. in particle physics with progress in neutrino physics and the discovery of the Higgs boson. The presentation has been made more homogeneous througout the volume, and emphasis has been put on the notion of effective field theory and discussion of the emergence of renormalisable theories.

Arvustused

Review from previous edition A remarkable achievement. * I. D. Lawrie, Contemporary Physics * This excellent book is surely destined to become a valuable and standard work of reference. * Lewis Ryder, Times Higher Educational Supplement * This excellent book offers a systematic presentation of the quantum field theory approach in describing all fundamental interactions in particle physics and the second order phase transition in statistical mechanics. * Giuseppe Mussardo, Mathematical Reviews *

1 Gaussian integrals. Algebraic preliminaries
1(17)
1.1 Gaussian integrals: Wick's theorem
1(2)
1.2 Perturbative expansion. Connected contributions
3(1)
1.3 The steepest descent method
4(1)
1.4 Complex structures and Gaussian integrals
5(1)
1.5 Grassmann algebras. Differential forms
6(2)
1.6 Differentiation and integration in Grassmann algebras
8(5)
1.7 Gaussian integrals with Grassmann variables
13(3)
1.8 Legendre transformation
16(2)
2 Euclidean path integrals and quantum mechanics (QM)
18(24)
2.1 Markovian evolution and locality
19(1)
2.2 Statistical operator: Path integral representation
20(4)
2.3 Explicit evaluation of a path integral: The harmonic oscillator
24(1)
2.4 Partition function: Classical and quantum statistical physics
25(2)
2.5 Correlation functions. Generating functional
27(3)
2.6 Harmonic oscillator. Correlation functions and Wick's theorem
30(3)
2.7 Perturbed harmonic oscillator
33(2)
2.8 Semi-classical expansion
35(3)
A2 Additional remarks
38(4)
A2.1 A useful relation between determinant and trace
38(1)
A2.2 The two-point function: An integral representation
39(1)
A2.3 Time-ordered products of operators
40(2)
3 Quantum mechanics (QM): Path integrals in phase space
42(22)
3.1 General Hamiltonians: Phase-space path integral
42(3)
3.2 The harmonic oscillator. Perturbative expansion
45(2)
3.3 Hamiltonians quadratic in momentum variables
47(4)
3.4 The spectrum of the O(2)-symmetric rigid rotator
51(1)
3.5 The spectrum of the O(Ar)-symmetric rigid rotator
52(4)
A3 Quantization. Topological actions: Quantum spins, magnetic monopoles
56(8)
A3.1 Symplectic form and quantization: General remarks
56(2)
A3.2 Classical equations of motion and quantization
58(2)
A3.3 Topological actions
60(4)
4 Quantum statistical physics: Functional integration formalism
64(26)
4.1 One-dimensional QM: Holomorphic representation
64(3)
4.2 Holomorphic path integral
67(4)
4.3 Several degrees of freedom. Boson interpretation
71(1)
4.4 The Bose gas. Field integral representation
72(8)
4.5 Fermion representation and complex Grassmann algebras
80(3)
4.6 Path integrals with fermions
83(4)
4.7 The Fermi gas. Field integral representation
87(3)
5 Quantum evolution: From particles to non-relativistic fields
90(15)
5.1 Time evolution and scattering matrix in quantum mechanics (QM)
90(2)
5.2 Path integral and 5-matrix: Perturbation theory
92(3)
5.3 Path integral and 5-matrix: Semi-classical expansions
95(4)
5.4 5-matrix and holomorphic formalism
99(3)
5.5 The Bose gas: Evolution operator
102(1)
5.6 Fermi gas: Evolution operator
103(1)
A5 Perturbation theory in the operator formalism
104(1)
6 The neutral relativistic scalar field
105(20)
6.1 The relativistic scalar field
105(5)
6.2 Quantum evolution and the 5-matrix
110(2)
6.3 5-matrix and field asymptotic conditions
112(4)
6.4 The non-relativistic limit: The Φ4 QFT
116(2)
6.5 Quantum statistical physics
118(4)
6.6 Kallen-Lehmann representation and field renormalization
122(3)
7 Perturbative quantum field theory (QFT): Algebraic methods
125(35)
7.1 Generating functional of correlation functions
126(1)
7.2 Perturbative expansion. Wick's theorem and Feynman diagrams
127(2)
7.3 Connected correlation functions: Generating functional
129(2)
7.4 The example of the Φ4 QFT
131(2)
7.5 Algebraic properties of field integrals. Quantum field equations
133(6)
7.6 Connected correlation functions. Cluster properties
139(2)
7.7 Legendre transformation. Vertex functions
141(3)
7.8 Momentum representation
144(2)
7.9 Loop or semi-classical expansion
146(5)
7.10 Vertex functions: One-line irreducibility
151(1)
7.11 Statistical and quantum interpretation of the vertex functional
152(3)
A7 Additional results and methods
155(5)
A7.1 Generating functional at two loops
155(1)
A7.2 The background field method
156(1)
A7.3 Connected Feynman diagrams: Cluster properties
157(3)
8 Ultraviolet divergences: Effective field theory (EFT)
160(25)
8.1 Gaussian expectation values and divergences: The scalar field
161(1)
8.2 Divergences of Feynman diagrams: Power counting
162(2)
8.3 Classification of interactions in scalar quamtum field theories
164(2)
8.4 Momentum regularization
166(3)
8.5 Example: The Φd=6 field theory at one-loop order
169(4)
8.6 Operator insertions: Generating functionals, power counting
173(2)
8.7 Lattice regularization. Classical statistical physics
175(1)
8.8 Effective QFT. The fine-tuning problem
176(3)
8.9 The emergence of renormalizable field theories
179(2)
A8 Technical details
181(4)
A8.1 Schwinger's proper-time representation
181(1)
A8.2 Regularization and one-loop divergences
181(3)
A8.3 More general momentum regularizations
184(1)
9 Introduction to renormalization theory and renormalization group (RG)
185(35)
9.1 Power counting. Dimensional analysis
186(1)
9.2 Regularization. Bare and renormalized QFT
187(4)
9.3 One-loop divergences
191(3)
9.4 Divergences beyond one-loop: Skeleton diagrams
194(2)
9.5 Callan-Symanzik equations
196(2)
9.6 Inductive proof of renormalizability
198(5)
9.7 The (Φ2Φ2) vertex function
203(1)
9.8 The renormalized action: General construction
204(1)
9.9 The massless theory
204(4)
9.10 Homogeneous RG equations: Massive QFT
208(2)
9.11 EFT and RG
210(2)
9.12 Solution of bare RG equations: The triviality issue
212(2)
A9 Functional RG equations. Super-renormalizable QFTs. Normal order
214(6)
A9.1 Large-momentum mode integration and functional RG equations
214(2)
A9.2 The Φ4 QFT in three dimensions: Divergences
216(2)
A9.3 Super-renormalizable scalar QFTs in two dimensions: Normal order
218(2)
10 Dimensional continuation, regularization, minimal subtraction (MS). Renormalization group (RG) functions
220(20)
10.1 Dimensional continuation and dimensional regularization
220(4)
10.2 RG functions
224(2)
10.3 The structure of renormalization constants
226(1)
10.4 MS scheme
227(3)
10.5 RG functions at two-loop order: The Φ4 QFT
230(5)
10.6 Generalization to N-component fields
235(4)
A10 Feynman parametrization
239(1)
11 Renormalization of local polynomials. Short-distance expansion (SDE)
240(18)
11.1 Renormalization of operator insertions
240(5)
11.2 Quantum field equations
245(3)
11.3 Short-distance expansion of operator products
248(5)
11.4 Large-momentum expansion of the SDE coefficients: CS equations
253(2)
11.5 SDE beyond leading order. General operator product
255(1)
11.6 Light-cone expansion of operator products
256(2)
12 Relativistic fermions: Introduction
258(34)
12.1 Massive Dirac fermions
258(5)
12.2 Self-interacting massive fermions: Non-relativistic limit
263(2)
12.3 Free Euclidean relativistic fermions
265(4)
12.4 Partition function. Correlations
269(1)
12.5 Generating functionals
270(2)
12.6 Connection between spin and statistics
272(2)
12.7 Divergences and momentum cut-off
274(2)
12.8 Dimensional regularization
276(1)
12.9 Lattice fermions and the doubling problem
276(4)
A12 Euclidean fermions, spin group and 7 matrices
280(12)
A12.1 Spin group. Dirac 7 matrices
280(8)
A12.2 The example of dimension 4
288(1)
A12.3 The Fierz transformation
289(1)
A12.4 Traces of products of 7 matrices
290(2)
13 Symmetries, chiral symmetry breaking, and renormalization
292(32)
13.1 Lie groups and algebras: Preliminaries
293(2)
13.2 Linear global symmetries and WT identities
295(3)
13.3 Linear symmetry breaking
298(3)
13.4 Spontaneous symmetry breaking
301(3)
13.5 Chiral symmetry breaking in strong interactions: Effective theory
304(2)
13.6 The linear σ-model
306(4)
13.7 WT identities
310(3)
13.8 Quadratic symmetry breaking
313(4)
A13 Currents and Noether's theorem
317(7)
A13.1 Currents in classical-field theory
317(1)
A13.2 The energy-momentum tensor
318(2)
A13.3 Euclidean theory: Dilatation and conformal invariance
320(2)
A13.4 QFT: Currents and correlation functions
322(1)
A13.5 Energy-momentum tensor and QFT
323(1)
14 Critical phenomena: General considerations. Mean-field theory (MFT)
324(33)
14.1 The transfer matrix
325(3)
14.2 The infinite transverse size limit: Ising-like systems
328(3)
14.3 Continuous symmetries
331(1)
14.4 Mean-field approximation
332(5)
14.5 Universality within mean-field approximation
337(5)
14.6 Beyond the mean-field approximation
342(3)
14.7 Power counting and the role of dimension 4
345(1)
14.8 Tricritical points
346(1)
A14 Additional considerations
347(10)
A14.1 High-temperature expansion
347(1)
A14.2 Mean-field approximation: General formalism
348(3)
A14.3 Mean-field expansion
351(1)
A14.4 High-, low-temperature, and mean-field expansions
352(2)
A14.5 Quenched averages
354(3)
15 The renormalization group (RG) approach: The critical theory near four dimensions
357(34)
15.1 RG: The general idea
358(5)
15.2 The Gaussian fixed point
363(3)
15.3 Critical behaviour: The effective φ4 field theory
366(2)
15.4 RG equations near four dimensions
368(2)
15.5 Solution of the RG equations: The ε-expansion
370(2)
15.6 Critical correlation functions with Φ2(x) insertions
372(4)
15.7 The O(N)-symmetric (Φ2)2 field theory
376(1)
15.8 Statistical properties of long self-repelling chains
377(5)
15.9 Liquid-vapour phase transition and Φ4 field theory
382(5)
15.10 Superfluid transition
387(4)
16 Critical domain: Universality, ε-expansion
391(30)
16.1 Strong scaling above Tc: The renormalized theory
392(4)
16.2 Critical domain: Homogeneous RG equations
396(1)
16.3 Scaling properties above Tc
396(3)
16.4 Correlation functions with Φ2 insertions
399(1)
16.5 Scaling properties in a magnetic field and below Tc
400(3)
16.6 The N-vector model
403(2)
16.7 The general N-vector model
405(5)
16.8 Asymptotic expansion of the two-point function
410(2)
16.9 Some universal quantities as ε expansions
412(8)
16.10 Conformal bootstrap
420(1)
17 Critical phenomena: Corrections to scaling behaviour
421(15)
17.1 Corrections to scaling: Generic dimensions
421(2)
17.2 Logarithmic corrections at the upper-critical dimension
423(3)
17.3 Irrelevant operators and the question of universality
426(2)
17.4 Corrections coming from irrelevant operators. Improved action
428(3)
17.5 Application: Uniaxial systems with strong dipolar forces
431(5)
18 O(N)-symmetric vector models for N large
436(22)
18.1 The large N action
436(2)
18.2 Large N limit: Saddle point equations, critical domain
438(7)
18.3 Renormalization group (RG) functions and leading corrections to scaling
445(2)
18.4 Small-coupling constant, large-momentum expansions for d > 4
447(1)
18.5 Dimension 4: Triviality issue for N large
448(1)
18.6 The (Φ2)2 field theory and the non-linear σ-model for N large
449(4)
18.7 The 1/N-expansion: An alternative field theory
453(2)
18.8 Explicit calculations
455(3)
19 The non-linear σ-model near two dimensions: Phase structure
458(31)
19.1 The non-linear σ-model: Definition
459(2)
19.2 Perturbation theory. Power counting
461(2)
19.3 IR divergences
463(1)
19.4 UV regularization
464(2)
19.5 WT identities and master equation
466(3)
19.6 Renormalization
469(2)
19.7 The renormalized action: Solution to the master equation
471(3)
19.8 Renormalization of local functionals
474(1)
19.9 A linear representation
475(1)
19.10 (Φ2)2 field theory in the ordered phase and non-linear cr-model
476(3)
19.11 Renormalization, RG equations
479(1)
19.12 RG equations: Solutions (magnetic terminology)
480(6)
19.13 Results beyond one-loop order
486(2)
19.14 The dimension 2: Asymptotic freedom
488(1)
20 Gross-Neveu-Yukawa and Gross-Neveu models
489(18)
20.1 The GNY model: Spontaneous mass generation
489(5)
20.2 RG equations near four dimensions
494(4)
20.3 The GNY model in the large N limit
498(3)
20.4 The large N expansion
501(3)
20.5 The GN model
504(3)
21 Abelian gauge theories: The framework of quantum electrodynamics (QED)
507(41)
21.1 The free massive vector field: Quantization
507(2)
21.2 The Euclidean free action. The two-point function
509(3)
21.3 Coupling to matter
512(2)
21.4 The massless limit: Gauge invariance
514(2)
21.5 Massless vector field, gauge invariance, and quantization
516(3)
21.6 Equivalence with covariant quantization
519(2)
21.7 Gauge symmetry and parallel transport
521(1)
21.8 Perturbation theory: Regularization
522(4)
21.9 WT identities and renormalization
526(2)
21.10 Gauge dependence: The fermion two-point function
528(3)
21.11 Renormalization and RG equations
531(1)
21.12 One-loop β function and the triviality issue
532(3)
21.13 The Abelian Landau-Ginzburg-Higgs model
535(2)
21.14 The Landau-Ginzburg-Higgs model: WT identities
537(1)
21.15 Spontaneous symmetry breaking: Decoupling gauge
538(1)
21.16 Physical observables. Unitarity of the 5-matrix
539(1)
21.17 Stochastic quantization: The example of gauge theories
540(2)
A21 Additional remarks
542(6)
A21.1 Vacuum energy and Casimir effect
542(3)
A21.2 Gauge dependence
545(1)
A21.3 Divergences at one loop from Schwinger's representation
546(2)
22 Non-Abelian gauge theories: Introduction
548(19)
22.1 Geometric construction: Parallel transport
548(3)
22.2 Gauge-invariant actions
551(1)
22.3 Hamiltonian formalism. Quantization in the temporal gauge
551(3)
22.4 Covariant gauges
554(3)
22.5 Perturbation theory, regularization
557(2)
22.6 The non-Abelian Higgs mechanism
559(6)
A22 Massive Yang-Mills fields
565(2)
23 The Standard Model (SM) of fundamental interactions
567(26)
23.1 Weak and electromagnetic interactions: Gauge and scalar fields
568(2)
23.2 Leptons: Minimal SM extension with Dirac neutrinos
570(3)
23.3 Quarks and weak-electromagnetic interactions
573(3)
23.4 QCD. RG equations and β function
576(2)
23.5 General RG β-function at one-loop order: Asymptotic freedom
578(4)
23.6 Axial current, chiral gauge theories, and anomalies
582(9)
23.7 Anomalies: Applications in particle physics
591(2)
24 Large-momentum behaviour in quantum field theory (QFT)
593(14)
24.1 The (Φ2)2 Euclidean field theory: Large-momentum behaviour
593(5)
24.2 General Φ4-like field theories: d=4
598(2)
24.3 Theories with scalar bosons and Dirac fermions
600(2)
24.4 Gauge theories
602(2)
24.5 Applications: The theory of strong interactions
604(3)
25 Lattice gauge theories: Introduction
607(16)
25.1 Gauge invariance on the lattice: Parallel transport
607(2)
25.2 The matterless gauge theory
609(2)
25.3 Wilson's loop and confinement
611(6)
25.4 Mean-field approximation
617(4)
A25 Gauge theory and confinement in two dimensions
621(2)
26 Becchi-Rouet-Stora-Tyutin (BRST) symmetry. Gauge theories: Zinn-Justin equation (ZJ) and renormalization
623(33)
26.1 ST identities: The origin
624(2)
26.2 From ST symmetry to BRST symmetry
626(2)
26.3 BRST symmetry: More general coordinates. Group structure
628(2)
26.4 Stochastic equations
630(2)
26.5 BRST symmetry, Grassmann coordinates, and gradient equations
632(3)
26.6 Gauge theories: Notation and algebraic structure
635(1)
26.7 Gauge theories: Quantization
636(3)
26.8 WT identities and ZJ equation
639(2)
26.9 Renormalization: General considerations
641(1)
26.10 The renormalized gauge action
642(5)
26.11 Gauge independence: Physical observables
647(2)
A26 BRST symmetry and ZJ equation: Additional remarks
649(7)
A26.1 BRST symmetry and ZJ equation
649(1)
A26.2 Canonical invariance of the ZJ equation
650(1)
A26.3 Elements of BRST cohomology
651(3)
A26.4 From BRST symmetry to supersymmetry
654(2)
27 Supersymmetric quantum field theory (QFT): Introduction
656(14)
27.1 Scalar superfields in three dimensions
656(5)
27.2 The O(N) supersymmetric non-linear a model
661(1)
27.3 Supersymmetry in four dimensions
662(4)
27.4 Vector superfields and gauge invariance
666(4)
28 Elements of classical and quantum gravity
670(22)
28.1 Manifolds. Change of coordinates. Tensors
671(2)
28.2 Parallel transport: Connection, covariant derivative
673(4)
28.3 Riemannian manifold. The metric tensor
677(1)
28.4 The curvature (Riemann) tensor
678(4)
28.5 Fermions, vielbein, spin connection
682(2)
28.6 Classical GR. Equations of motion
684(3)
28.7 Quantization in the temporal gauge: Pure gravity
687(3)
28.8 Observational cosmology: A few comments
690(2)
29 Generalized non-linear a-models in two dimensions
692(29)
29.1 Homogeneous spaces and Goldstone modes
692(3)
29.2 WT identities and renormalization in linear coordinates
695(4)
29.3 Renormalization in general coordinates: BRST symmetry
699(4)
29.4 Symmetric spaces: Definition
703(1)
29.5 Classical field equations. Conservation laws
704(2)
29.6 QFT: Perturbative expansion and RG
706(5)
29.7 Generalizations
711(2)
A29 Homogeneous spaces: A few algebraic properties
713(8)
A29.1 Pure gauge. Maurer-Cartan equations
713(1)
A29.2 Metric and curvature in homogeneous spaces
714(1)
A29.3 Explicit expressions for the metric
715(2)
A29.4 Symmetric spaces: Classification
717(4)
30 A few solvable two-dimensional quantum field theories (QFT)
721(26)
30.1 The free massless scalar field
721(4)
30.2 The free massless Dirac fermion
725(3)
30.3 The gauge-invariant fermion determinant and the anomaly
728(3)
30.4 The sG model
731(1)
30.5 The Schwinger model
732(4)
30.6 The massive Thirring model
736(3)
30.7 A generalized Thirring model with two fermions
739(3)
30.8 The SU(N) Thirring model
742(3)
A30 Two-dimensional models: A few additional results
745(2)
A30.1 Four-fermion current interactions: RG β-function
745(1)
A30.2 The Schwinger model: The anomaly
745(1)
A30.3 Solitons in the sG model
746(1)
31 0(2) spin model and the Kosterlitz-Thouless's (KT) phase transition
747(13)
31.1 The spin correlation functions at low temperature
748(1)
31.2 Correlation functions in a field
749(1)
31.3 The Coulomb gas in two dimensions
750(5)
31.4 O(2) spin model and Coulomb gas
755(1)
31.5 The critical two-point function in the O(2) model
756(2)
31.6 The generalized Thirring model
758(2)
32 Finite-size effects in field theory. Scaling behaviour
760(26)
32.1 RG in finite geometries
760(4)
32.2 Momentum quantization
764(2)
32.3 The Φ4 field theory in a periodic hypercube
766(6)
32.4 The Φ4 field theory: Cylindrical geometry
772(4)
32.5 Finite size effects in the non-linear σ-model
776(6)
A32 Additional remarks
782(4)
A32.1 Perturbation theory in a finite volume
782(1)
A32.2 Discrete symmetries and finite-size effects
783(3)
33 Quantum field theory (QFT) at finite temperature: Equilibrium properties
786(45)
33.1 Finite- (and high-) temperature field theory
786(4)
33.2 The example of the Φ41,d-1 field theory
790(6)
33.3 High temperature and critical limits
796(3)
33.4 The non-linear σ-model in the large N limit
799(5)
33.5 The perturbative non-linear σ-model at finite temperature
804(6)
33.6 The GN model in the large N expansion
810(7)
33.7 Abelian gauge theories: The QED framework
817(7)
33.8 Non-Abelian gauge theories
824(4)
A33 Feynman diagrams at finite temperature
828(3)
A33.1 One-loop calculations
828(2)
A33.2 Group measure
830(1)
34 Stochastic differential equations: Langevin, Fokker-Planck (FP) equations
831(26)
34.1 The Langevin equation
831(2)
34.2 Time-dependent probability distribution and FP equation
833(2)
34.3 Equilibrium distribution. Correlation functions
835(3)
34.4 A special class: Dissipative Langevin equations
838(1)
34.5 The linear Langevin equation
839(3)
34.6 Path integral representation
842(1)
34.7 BRST and supersymmetry
843(3)
34.8 Gradient time-dependent force and Jarzynski's relation
846(2)
34.9 More general Langevin equations. Motion in Riemannian manifolds
848(4)
A34 Markov's stochastic processes: A few remarks
852(5)
A34.1 Discrete spaces: Markov's processes, phase transitions
852(3)
A34.2 Stochastic process with prescribed equilibrium distribution
855(1)
A34.3 Stochastic processes and phase transitions
856(1)
35 Langevin field equations: Properties and renormalization
857(18)
35.1 Langevin and Fokker-Planck (FP) equations
857(1)
35.2 Time-dependent correlation functions and equilibrium
858(3)
35.3 Renormalization and BRST symmetry
861(3)
35.4 Dissipative Langevin equation and supersymmetry
864(3)
35.5 Supersymmetry and equilibrium correlation functions
867(1)
35.6 Stochastic quantization of two-dimensional chiral models
868(3)
35.7 Langevin equation and Riemannian manifolds
871(3)
A35 The random field Ising model: Supersymmetry
874(1)
36 Critical dynamics and renormalization group (RG)
875(24)
36.1 Dissipative equation: RG equations in dimension d -- 4 -εe
876(4)
36.2 Dissipative dynamics: RG equations in dimension d = 2+ε
880(2)
36.3 Conserved order parameter
882(1)
36.4 Relaxational model with energy conservation
883(3)
36.5 A non-relaxational model
886(2)
36.6 Finite size effects and dynamics
888(6)
A36 RG functions at two loops
894(5)
A36.1 Supersymmetric perturbative calculations at two loops
894(5)
37 Instantons in quantum mechanics (QM)
899(20)
37.1 The quartic anharmonic oscillator for negative coupling
899(2)
37.2 A toy model: A simple integral
901(1)
37.3 QM: Instantons
902(2)
37.4 Instanton contributions at leading order
904(4)
37.5 General analytic potentials: Instanton contributions
908(1)
37.6 Evaluation of the determinant: The shifting method
909(6)
37.7 Zero temperature limit: The ground state
915(1)
A37 Exact Jacobian. WKB method
916(3)
A37.1 The exact Jacobian
916(1)
A37.2 The WKB method
917(2)
38 Metastable vacua in quantum field theory (QFT)
919(23)
38.1 The Φ4 QFT for negative coupling
920(4)
38.2 General potentials: Instanton contributions
924(2)
38.3 The Φ4 QFT in dimension 4
926(1)
38.4 Instanton contributions at leading order
927(4)
38.5 Coupling constant renormalization
931(1)
38.6 The imaginary part of the n-point function
932(1)
38.7 The massive theory
933(1)
38.8 Cosmology: The decay of the false vacuum
934(2)
A38 Instantons: Additional remarks
936(6)
A38.1 Virial theorem
936(1)
A38.2 Sobolev inequalities
937(2)
A38.3 Instantons and RG equations
939(1)
A38.4 Conformal invariance
940(2)
39 Degenerate classical minima and instantons
942(18)
39.1 The quartic double-well potential
942(3)
39.2 The periodic cosine potential
945(3)
39.3 Instantons and stochastic dynamics
948(3)
39.4 Instantons in stable boson field theories: General remarks
951(2)
39.5 Instantons in CP(N - 1) models
953(3)
39.6 Instantons in the SU(2) gauge theory
956(3)
A39 Trace formula for periodic potentials
959(1)
40 Large order behaviour of perturbation theory
960(15)
40.1 Qm
960(3)
40.2 Scalar field theories: The example of the Φ24 field theory
963(1)
40.3 The (Φ22)2 field theory in dimension 4 and 4-ε
964(4)
40.4 Field theories with fermions
968(6)
A40 large-order behaviour: Additional remarks
974(1)
41 Critical exponents and equation of state from series summation
975(17)
41.1 Divergent series: Borel summability, Borel summation
975(3)
41.2 Borel transformation: Series summation
978(2)
41.3 Summing the perturbative expansion of the (Φ2)2 field theory
980(3)
41.4 Summation method: Practical implementation
983(2)
41.5 Field theory estimates of critical exponents for the O(N) model
985(1)
41.6 Other three-dimensional theoretical estimates
986(1)
41.7 Critical exponents from experiments
987(2)
41.8 Amplitude ratios
989(1)
A41 Some other summation methods
990(2)
A41.1 Order-dependent mapping method (ODM)
990(1)
A41.2 Linear differential approximants
991(1)
42 Multi-instantons in quantum mechanics (QM)
992(27)
42.1 The quartic double-well potential
993(7)
42.2 The periodic cosine potential
1000(4)
42.3 General potentials with degenerate minima
1004(3)
42.4 The O(v)-symmetric anharmonic oscillator
1007(2)
42.5 Generalized Bohr-Sommerfeld quantization formula
1009(2)
A42 Additional remarks
1011(8)
A42.1 Multi-instantons: The determinant
1011(1)
A42.2 The instanton interaction
1012(2)
A42.3 A simple example of non-Borel summability
1014(2)
A42.4 Multi-instantons and WKB approximation
1016(3)
Bibliography 1019(22)
Index 1041
Jean Zinn-Justin, Scientific Advisor, CEA, Paris-Saclay. Jean Zinn-Justin has worked as a theoretical and mathematical physicist at Saclay Nuclear Research Centre (CEA) since 1965, where he was also Head of the Institute of Theoretical Physics from 1993-1998. Since 2010 he has also held the position of Adjunct Professor at Shanghai University. Previously he has served as a visiting professor at the Massachusetts Institute of Technology (MIT), Princeton University, State University of New York at Stony Brook, and Harvard University. He directed the Les Houches Summer School for theoretical physics from 1987 to 1995. He has served on editorial boards for several influential physics journals including the French Journal de Physique, Nuclear Physics B, Journal of Physics A, and the New Journal of Physics.