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9780198510932

The Global Approach to Quantum Field Theory 2-Volume Set

by
  • ISBN13:

    9780198510932

  • ISBN10:

    0198510934

  • Format: Hardcover
  • Copyright: 2003-05-01
  • Publisher: Clarendon Press

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Summary

This new volume takes a complete look at how classical field theory, quantum mechanics and quantum field theory are interrelated. It takes a global approach and discusses the importance of quantization by relating it to different theories such as tree amplitude and conservation laws. There are special chapters devoted to Euclideanization and renormalization, space and time inversion and the closed-time-path formalism.

Table of Contents

I CLASSICAL DYNAMICAL THEORY
Fundamentals
3(10)
Classical Dynamical Systems
3(1)
Space of Histories, Functional Differentiation
4(2)
Examples of Simple Functionals. Notational Abbreviations
6(3)
Condensed and Supercondensed Notations
9(2)
Changing Topology
11(1)
Comments on Chapter 1
12(1)
Reference
12(1)
Dynamics and Invariance Transformations
13(17)
Action Functional and Dynamical Equations
13(1)
Invariance Transformations
14(3)
Commutator of Invariance Transformations
17(1)
Gauge Algebras. Gauge Groups. Orbits
18(4)
Functional Differential Equation for the Structure Functions
22(2)
Further Simplification of Notation
24(1)
Physical Observables
25(1)
Gauge Groups and Manifest Covariance
26(2)
Comments on Chapter 2
28(1)
References
29(1)
Small Distrubances and Green's Functions
30(16)
The Equations of Small Disturbances. Jacobi Fields
30(1)
The Structure of i, S,j
31(1)
Other Identities Satisfied by the Coefficient Matrices
32(1)
Supplementary Conditions
33(2)
Retarded and Advanced Green's Functions of F
35(1)
Equality of Left and Right Green's Functions
36(1)
Reciprocity Relations
37(1)
Explicit Structure of F
38(2)
Relation between the Green's Functions of J and F
40(2)
The Green's Functions Off Shell. Coherent Green's Functions
42(2)
Landau Green's Functions
44(1)
Transformation Laws for the Green's Functions
44(1)
Comments on Chapter 3
45(1)
The Peierls Bracket
46(14)
Disturbances in Physical Observables
46(1)
The Reciprocity Relation for Physical Observables
47(1)
Invariance Properties of DAB
47(2)
The Peierls Bracket and the Supercommutator Function
49(1)
The Bracket Identities
50(1)
Standard Canonical Systems. Equivalence of Peierls and Poisson Brackets
51(3)
The Wronskian Operator
54(2)
The Cauchy Problem for Jacobi Fields
56(2)
Comments on Chapter 4
58(1)
Reference
59(1)
Finite Disturbances. Tree Theorems. Asymptotic Fields
60(18)
Differential and Integro-differential Equations for Finite Disturbances
60(3)
Iterative Solutions. Tree Functions
63(1)
Background Field. Transformation Laws
64(2)
Changes in P and k
66(1)
Gauge Transformations
67(1)
Tree Amplitudes and Tree Theorems
67(2)
Tree Theorems When the Configuration Space is not a Vector Space
69(1)
Change of Chart
70(3)
Asymptotic ``In'' and ``Out'' Fields
73(4)
Comments on Chapter 5
77(1)
Reference
77(1)
Conservation Laws
78(39)
Alternative Action Functional
78(1)
Internal Sources
78(1)
Killing Fields, Currents, and Charges
79(2)
The Charge Group
81(1)
Flow Invariance of the Charges
82(1)
Fundamental Lemma
83(2)
A Special Transformation
85(2)
The Peierls Bracket (qA, qB). The View from the Remote Past or Future
87(3)
The View from Spatial Infinity
90(3)
Compact Universes and Linearization Constraints
93(1)
Pseudocovariants
94(1)
Externally Impressed Fields
95(1)
Charges in the Presence of External Fields
96(2)
Peierls Bracket for the Charges
98(1)
Differences form the Previous Theory
98(3)
External Gravitational Field. Diffeomorphism Gup
101(2)
Stress-energy Density
103(4)
Killing Vector Fields. The Poincare Group
107(1)
Energy-momentum Vector and Angular Momentum Tensor
108(1)
Local Conformal Group
109(1)
Conformal Killing Vector Fields. The Global Conformal Group
110(1)
Conformal Charges and their Peierls Brackets
111(1)
Comments on Chapter 6
112(1)
References
113(4)
II THE HEURISTIC ROAD TO QUANTIZATION. THE QUANTUM FORMALISM AND ITS INTERPRETATION
Classical Theory of Measurement
117(14)
System. Apparatus. Coupling
117(1)
Apparatus Inertia
118(2)
Disturbance in the Apparatus
120(1)
Design of the Coupling. Accuracy of the Measurement
121(1)
Compensation Term
122(1)
Stern-Gerlach Experiment
123(2)
Electric Field Measurement
125(5)
Comments on Chapter 7
130(1)
Reference
130(1)
Quantum Theory of Measurement
131(14)
Measurement of Two Observables
131(1)
Mutual Uncertainties
132(1)
A Universal Uncertainty Principle
133(1)
The Heuristic Quantization Rule
134(2)
A Preferred Basis
136(2)
Relative States. Good Measurements
138(2)
Many Worlds
140(1)
Unobservability of the Splits
141(3)
Comments on Chapter 8
144(1)
References
144(1)
Interpretation of the Quantum Formalism I
145(17)
Reality
145(1)
Signalling by Permutations
146(1)
Equal Likelihood
147(2)
Unequal Probabilities
149(1)
Irrational Probabilities
150(2)
Expectation Value. Single System vs. an Ensemble
152(1)
Relative Frequency Function. The Ensemble Interpretation of Quantum-mechanical Probabilities
153(3)
Density Operator. Decoherence
156(3)
Imperfect Measurements
159(2)
Comments on Chapter 9
161(1)
Reference
161(1)
The Schwinger Variational Principle and the Feynman Functional Integral
162(16)
Transition Amplitudes
162(1)
The Schwinger Variational Principle
162(3)
External Sources and Chronological Products
165(3)
The Operator Dynamical Equations and the Measure Functional
168(3)
Functional Fourier Analysis. The Feynman Functional Integral
171(2)
Comments on the Feynman Integral
173(2)
The Schwinger Variational Principle Revisited
175(1)
Expressions Involving S,i
176(1)
Comments on Chapter 10
177(1)
References
177(1)
The Quantum Mechanics of Standard Canonical Systems
178(17)
Problems with the Naive Quantization Rule
178(1)
The Position Mapping
178(2)
Vector Operators
180(3)
The Momentum Operator
183(1)
Restriction to a Local Chart
184(2)
Overlapping Charts. Transformation of Coordinates
186(2)
The Position Representation
188(1)
The Projection m-form
189(1)
The Momentum Operator in the Position Representation
190(2)
The Schrodinger Equation
192(2)
Remarks on Global Consistency
194(1)
Comments on Chapter 11
194(1)
Reference
194(1)
Interpretation of the Quantum Formalism II
195(18)
Tracing Out
195(1)
The Model System
196(2)
Density Operator
198(1)
Localization. Sharp Decoherence
199(2)
Discussion
201(1)
Coarse Graining. Decoherence Function
202(1)
Interpretation of the Diagonal Elements
203(2)
Emergence of Classicality
205(2)
Many Worlds Again. Prbability as a Phenomenological Concept
207(2)
Comments on Chapter 12
209(1)
References
209(4)
III EVALUATION AND APPROXIMATION OF FEYNMAN FUNCTIONAL INTEGRALS
The Functional Integral for Standard Canonical Systems
213(21)
The Path Integral
213(1)
The Point-to-point Amplitude. The Action Function
213(3)
Formal Computation of det G[x] in the Lagrangian Formalism
216(1)
Formal Computation of det G[x, p] in the Hamiltonian Formalism
217(2)
Ambiguity in the Path Integral
219(1)
Homotopy
220(1)
The Universal Covering Space. Covering Translations
221(2)
The Relation of Homotopy to Homology and Cohomology
223(2)
The Path Integral in C
225(2)
Fundamental Domains
227(1)
Partial Amplitudes in C. The Total Amplitude
228(1)
Combination Law
229(1)
The Hamiltonian Form of the Path Integral and the Schrodinger Equation
230(2)
Homotopy in Quantum Field Theory
232(1)
Comments on Chapter 13
233(1)
References
233(1)
Approximation and Evaluation of the Path Integral
234(17)
The Van Vleck-Morette Determinant
234(2)
Jacobi Fields and Green's Functions for the Trajectory xc
236(3)
Determinantal Relations
239(2)
The Loop Expansion
241(2)
The WKB Approximation
243(3)
Other Boundary Conditions
246(1)
WKB Approximation
247(3)
Comments on Chapter 14
250(1)
References
250(1)
The Nonrelativistic Particle in a Curved Space
251(24)
From the Hamiltonian Path Integral to the Lagrangian Path Integral
251(1)
The Nonrelativistic Particle in a Curved Space
252(1)
Covariant Variation
253(1)
Covariant Differentiation with Respect to t
254(1)
The Dynamical Equations
255(1)
Covariant Functional Differentiation
255(2)
The Measure for the Lagrangian Path Integral
257(2)
Computation of HQ
259(3)
Normalization of the Path Integral
262(1)
A Two-loop Calculation
263(2)
Analysis of the Jacobi Field Operator
265(2)
The Morse Index
267(1)
Morse Index Theorem
268(3)
Application to Path Integration
271(1)
The Generalized Morse Index
272(2)
Comments on Chapter 15
274(1)
References
274(1)
The Heat Kernel
275(16)
History
275(1)
Geodesic Normal Coordinates
275(2)
Coincidence Limits
277(2)
Caustics
279(2)
Riemannian Connection. The World Function
281(2)
Auxiliary Geometrical Quantities. Modified Covariant Derivative
283(1)
Further Coincidence Limits
284(1)
Heat-kernel Expansion. Recursion Relations
285(1)
Comments on Chapter 16
286(1)
References
287(4)
IV LINEAR SYSTEMS
Linear Boson Fields in Stationary Backgrounds
291(29)
The Scalar Field
291(1)
Stationary Backgrounds
292(1)
The Field Equations
293(2)
The Energy
295(1)
Energy Bounds
296(1)
Mode Functions
297(1)
Alternative Representation
298(2)
Multiple Roots
300(1)
Wronskian Relations
301(1)
Zero Roots
302(2)
Wronskian Relations Again
304(3)
General Solution. Supercommutator Function. Energy
307(1)
Matrix Identities
307(2)
Mode Functions for the Scalar Field
309(1)
The Massless Scalar Field in a Compact Universe
310(2)
The Vector Field
312(3)
Rescaling of Time and Energy. Canonical Form for the Energy
315(3)
Conformally Invariant Scalar and Vector Fields
318(1)
Comments on Chapter 17
319(1)
Quantization of Linear Boson Fields
320(21)
Green's Functions
320(1)
Quantization
321(1)
Super Hilbert and Fock Spaces
322(5)
Nonstationary Backgrounds and Inequivalent Vacua
327(1)
Nonuniqueness of ∂/∂x
328(2)
Vacua Defined by Symmetry Properties
330(1)
The Feynman Propagator
330(2)
Feynman Propagators for the Scalar and Vector Fields
332(3)
When the Energy is Unbounded from Below
335(2)
When K-1 M is Fully Diagonalizable and has Pure Imaginary Eigenvalues
337(2)
Comments on Chapter 18
339(1)
References
340(1)
Linear Fermion Fields. Stationary Backgrounds
341(26)
Local Lorentz Frames
341(1)
The Dirac Matrices
342(2)
Spin Structures
344(1)
Space Inversions and Pin Structures
345(2)
Spinor Fields
347(2)
The Spin Connection
349(1)
Generalized Spin or Pin Structures
350(1)
Real Representations
351(1)
Lagrange Function. Conformal Invariance. Majorana Representation
351(2)
Stress-energy Density
353(2)
Leibniz Rule. Matrix Identities. Canonical Form for the Energy
355(2)
Energy-momentum Conservation and the Poincare Group
357(2)
The Dirac Operator
359(1)
Stationary Backgrounds. A Special Field of Local Lorentz Frames
360(2)
A Model Stem
362(1)
Mode Functions
362(3)
When ---iB is not Positive Definite
365(1)
Comments on Chapter 19
365(1)
References
366(1)
Quantization of Linear Fermion Fields
367(10)
Green's Functions
367(1)
Quantization
367(1)
Fock Space
368(2)
Hole Theory
370(2)
The Feynman Propagator
372(4)
Comments on Chapter 20
376(1)
Linear Fields in Nonstationary Backgrounds
377(19)
``In'' and ``Out'' Regions
377(2)
Bogoliubov Relations
379(2)
``In'' and ``Out'' Fock Spaces and the S-matrix
381(1)
Particle Production and Annihilation Amplitudes
382(3)
One-particle Scattering Amplitudes
385(1)
Nonsingularity of α
386(1)
Unitarity. The Vaccum Persistence Amplitude
387(2)
Unitarily Inequivalent Fock Spaces
389(2)
Green's Function Representation of eiW. The Feynman Propagator
391(2)
Functional Integral Representation of eiW
393(1)
Comments on Chapter 21
394(1)
References
395(1)
Linear (or Linearized) Fields Possessing Invariant Flows
396(13)
The Electromagnetic Field in a Stationary Curved Background
396(1)
Other Linear or Linearized Fields on Stationary Backgrounds
397(2)
Mode Functions for F and F
399(2)
Mode-function Decompositions of G and k
401(1)
Quantization
402(1)
Fields on Nonstationary Backgrounds
402(2)
Green's Function Representation of eiW
404(2)
Comments on Chapter 22
406(3)
V NONLINEAR FIELDS
The Effective Action, the S-matrix, and Slavnov-Taylor Identities
409(47)
Anticipation of Counter Terms
409(1)
Correlation Functions
410(1)
The Effective Action
411(2)
The Relation of Γ to W. The Legendre Transform
413(1)
The Correlation Functions as Tree Functions
413(1)
Structure of the Effective Action
414(2)
The Loop Expansion
416(3)
Real-valuedness of the Counter Terms. Perturbative Renormalizability
419(2)
Asymptotic Fields
421(1)
Asymptotic States
422(2)
Wave-packet States
424(2)
The S-matrix and the Scattering Operator
426(1)
The Lehmann-Symanzik-Zimmermann Theorem
427(3)
Mode Functions for the Effective Action
430(2)
The Effective Action as the Generator of Quantum Dynamics
432(1)
Coherent States as Relative Vacua
433(3)
Evaluation of (+, rel vac-, rel vac)
436(2)
Expression of the S-matrix in Terms of Quantum Tree Functions
438(1)
The Cluster Decomposition Principle
439(1)
Use of a (Super)Classical Background
440(2)
Construction of the Relative S-matrix
442(2)
Structure of the Relative S-matrix
444(2)
When the Configuration Space is Not a Supervector Space
446(3)
Relation to the Classical Tree Theorems
449(1)
Slavnov-Taylor Identities
450(2)
Current Algebra
452(1)
Relation to the Effective Action. Finiteness of the Current Operator
453(1)
Comments on Chapter 23
454(1)
References
455(1)
Gauge Theories I. General Formalism
456(36)
Structure of the Space of Field Histories
456(1)
Fibre-Adapted Coordinated Patches
457(2)
A Metric for Φ/G
459(1)
Vilkovisky's Connection
460(2)
Properties of Vilkovisky's Connection
462(1)
The Functional Integral for ``In-Out'' Amplitudes
463(2)
Properties of the Jacobian J[Y]
465(2)
A Special Choice for Ω and a New Measure Functional
467(1)
Explicit Form for the New Measure
468(2)
Consistency of Eq. (24.80)
470(1)
Ghosts
471(2)
Relation to the Functional G. The Batalin---Vilkovisky Equation
473(1)
Counter Terms, the Measure Functional, and the Quantum BV Equation
474(2)
The Slavnov Operator and BRST Transformations
476(1)
Cohomology of the Slavnov Operator
477(1)
Loop Decomposition of the Measure
478(2)
The Role of the Measure Functional
480(2)
The Effective Action
482(2)
The Zinn-Justin Equation. Proof of Eq. (24.125)
484(1)
The Yang-Mills Field in Four Dimensions
485(3)
Rigidity of the Gauge Group
488(1)
Renomalization Constants
489(1)
Comments on Chapter 24
490(1)
References
491(1)
Gauge Theories II. Background Field Methods. Scattering Theory
492(21)
Invariants. The Quantum Slavnov Operator
492(1)
Integrating Out the Ghosts
493(1)
Reduced Effective Action
494(1)
Introduction of a Background Field
495(1)
Gauge Fixing
496(1)
Loop Expansion of the Reduced Effective Action
496(2)
Structure of the Reduced Effective Action
498(2)
The Full Quantum Shell
500(1)
Alternative Loop Expansions
500(1)
The S-matrix
501(2)
Mode Functions for the Effective Action
503(2)
S-matrix Relative to an Arbitrary Background
505(2)
Use of the (Super)Classical Background
507(2)
A Special Phenomenon
509(1)
Use of Γ[y] in Constructing the S-matrix
510(1)
Comments on Chapter 25
511(1)
Reference
512(1)
Case-I Gauge Theory without Ghosts. Description of Cases II and III
513
Geodesic Normal Fields
513(1)
A New Effective Action
514(2)
The Illusory Ghost
516(2)
The Loop Series
518(1)
Rules for Differentiating the Measure
519(1)
Invariance of the Loop Graphs
520(2)
Renormalization
522(1)
Difficulties in Applying the LSZ Theorem
523(1)
Case-II Systems
524(1)
Uncertain Cohomology of the Slavnov Operator
525(1)
Decomposition of the Effective Action
525(1)
Scattering Theory
525(1)
Case-III Systems
526(2)
Comments on Chapter 26
528(1)
Reference
528
Index
1
Volume 2
VI Tools for Quantum Field Theory. Applications
The Heat Kernel
531(1)
Formal Representation of the Feynman Propagator in the Nonstationary Case
531(1)
Schwinger's Representation and the Heat Kernel
532(1)
Some Technical Details. Coincidence Limits
533(1)
Geodetic Parallel Displacement
534(2)
The Cartan-Killing Metric
536(1)
Application to the Lorentz Group
537(3)
Traces
540(1)
The Heat-kernel Expansion
541(1)
Expansion for the Feynman Propagator
542(2)
Difficulties in the Nonflat Case
544(2)
Heat-kernel Representation of eiW
546(1)
Dimensional Regularization
547(2)
δW for the Spinor Field
549(2)
Heat Kernel for the Spinor Field
551(1)
Dimensional Regularization in the Spinor Case
552(2)
Zeta Function Regularization
554(2)
Zeta Function Representation of W
556(2)
Electromagnetic Background
558(1)
Comments on Chapter 27
558(1)
References
559(1)
Vacuum Currents. Anomalies
560(1)
Formal Invariances of the Vacuum Persistence Amplitude
560(1)
The Trace Anomaly
561(3)
Alternative Derivation of the Trace Anomaly
564(1)
Conformal Invariance of the Finite Local Terms
565(1)
Trace Anomaly for the Massless Spinor Field
566(2)
Chiral Coupling
568(2)
Traces
570(2)
Gauge Invariance of the Classical Theory
572(1)
Vaccum Persistence Amplitude and Heat Kernel
572(2)
Asymptotic Expansion
574(1)
The Zeta Function and its Gauge Transformation Law
575(2)
The Chiral Anomaly
577(1)
Robustness of the Chiral Anomaly
578(2)
Computation of the Chiral Anomaly
580(2)
The Wess-Zumino Consistency Condition
582(2)
Comments on Chapter 28
584(1)
References
585(1)
More Vacuum Phenomena
586(1)
Particle Production by Weak Backgrounds
586(1)
Explicit Expressions for Tμν (u~, u)o and jαμ(u~, u)o
587(2)
Average Number of Particles Producted
589(3)
Energy Production
592(1)
No Particle Production by Freely Propagating Linear Background Waves
592(1)
Expectation Values of the Current Operators
593(1)
Physical Renormalization of the Current Operators
594(1)
The Case of the Scalar Field. Lack of Uniqueness when n=4
595(3)
The Spinor Field. Massless Fields
598(1)
Conformally Invariant Fields in Conformally Flat Spacetimes
599(1)
Conformally Invariant Scalar Field
600(3)
De Sitter and Anti-de Sitter Spacetimes
603(1)
Einstein Static Spacetime
604(1)
Alternative Vacua. Rindler Mode Functions
605(3)
Stress Energy in the Rindler Vacuum
608(1)
Connection Between Rindler and Minkowski Quanta. Bogoliubov Coefficients
609(2)
Inverse Bogoliubov Coefficients
611(1)
Formal Pair Production and Annihilation Amplitudes
612(1)
Unitary Inequivalence of Minkowski and Rindler Folk Spaces
613(1)
Thermality of the Minkowski Vacuum Relative to Rindler Fock Space
614(3)
Properties of the Rindler Gas
617(1)
Thermal Wightman Function
618(2)
Detectors
620(2)
Accelerating Detectors. The Unruh Effect
622(2)
Comments on Chapter 29
624(1)
References
624(1)
Black Hole Vacua. Hawking Radiation
625(1)
Scalar Field in a Black-hole Metric
625(2)
Change of Coordinates. Mode Functions
627(2)
Normalization
629(1)
Kruskal Coordinates
630(2)
Extended Mode Functions
632(2)
Mode Functions in Region II
634(1)
Mode Functions with ω2 < μ2
635(1)
Analytic Continuation in ω
635(2)
Quasi-bound States
637(1)
Zeroes of α (l, ω)
637(2)
The Boulware Vacuum
639(1)
The Hartle-Hawking Vacuum
640(1)
Properties of the Hartle-Hawking Vacuum
641(2)
Computation of (Trenμν) for Large r
643(3)
Reactions of a Monopole Detector to the Hartle-Hawking and Boulware Vacua
646(1)
Black Holes Formed by Collapse
646(1)
``In'' Mode Functions
646(3)
``Out'' Mode Functions
649(2)
Bogoliubov Coefficients
651(3)
Pair Production
654(1)
Wightman Function
655(1)
Hawking Radiation
656(1)
Temperature and Entropy of a Black Hole
657(1)
Black-hole Luminosity
657(1)
Decay and Ultimate Fate of Black Holes
658(2)
Comments on Chapter 30
660(1)
References
660(2)
The Closed-time-path or ``In-in'' Formalism
662(1)
Functional Integral for Expectation Values
662(2)
Properties of the System Described by the Action SY
664(1)
The Jacobi Field Operator. Mode Functions
665(2)
Wronskian Relations and Supercommutator Function
667(1)
Other Green's Functions
668(2)
Return to the Fields Y+ and Y-
670(2)
External Sources. Causality
672(1)
The Measure
673(1)
The ``In-In'' Effective Action
674(2)
``In-in'' Formalism for Gauge Theories
676(1)
Connection 1-form and Horizontal Projection Operator
677(1)
Vilkovisky's Connection
678(1)
Geodesic Normal Fields
679(1)
The Effective Action
680(1)
Alternative Propagator
681(1)
The Measure
682(1)
Discussion
683(1)
Comments on Chapter 31
684(1)
References
685(4)
Special Topics
Euclideanization and Renormalization
689(1)
Momentum Space
689(1)
Vertex Functions
690(1)
Graphical Rules in Momentum Space
691(1)
Contribution of the Measure in One-loop Graphs
692(4)
Wick Rotation
696(1)
Euclideanization
697(1)
Boundary Conditions
698(1)
Failure of Euclideanization in the Case of Quantum Gravity
699(1)
Graphs and Subgraphs
700(1)
The Pole Operation
701(1)
Counter Terms
702(2)
Minimal Subtraction and Finiteness
704(2)
Comments on Chapter 32
706(1)
References
706(1)
Canonical Transformations. Space Inversion and Time Reversal
707(1)
Infinitesimal Canonical Transformations
707(1)
Finite Canonical Transformations
708(1)
Space Inversion
709(2)
Examples of Systems Invariant Under Space Inversion
711(1)
Quantum Theory
712(1)
Pseudoscalar Field
713(1)
Massive Vector Field in Four Dimensions
714(1)
Massive Antisymmetric Field in Four Dimensions
714(1)
Massive Spinor Field in Four Dimensions
714(3)
Time Reversal
717(1)
Transformation of the Jacobi Field Operator
718(2)
Quantum Theory
720(1)
Chiral Couplings
721(1)
Time Reversal of Asymptotic Fields
721(2)
Massive Antisymmetric Field in Four Dimensions
723(1)
Massive Spinor Field in Four Dimensions
723(2)
Massless Fields
725(1)
CP Invariance for Massless Fields
726(1)
The Relation Between Helicity, Chirality, and Charge
727(2)
CP Invariance for Massive Fields
729(1)
The PT Theorem for Even-dimensional Spacetimes
729(1)
Comments on Chapter 33
729(2)
Quantum Electrodynamics
731(1)
Action and Gauge Group
731(1)
Jacobi Field Operator
732(1)
One-loop Effective Action
733(1)
Electrodynamic β-function
734(1)
Constant Fields
735(2)
Computation of the Trace
737(1)
Renormalization. Scattering of Light by Light
738(2)
Pair Production
740(2)
Effective Field Equations
742(3)
Vacuum Polarization
745(1)
Mass Operator
745(2)
Anomalous Magnetic Moment
747(5)
Atomic Level Shifts
752(2)
Comments on Chapter 34
754(1)
References
754(1)
The Yang-Mills and Gravitational Fields
755(1)
Action and Gauge Group for the Yang-Mills Field
755(1)
Classical Field Equation and Jacobi Field Operator
756(1)
The Operators &J and F and the Invariant Metric
757(1)
Traces of the a2 Coefficients and the One-loop Effective Action
758(1)
Yang-Mills β-function and Asymptotic Freedom
759(1)
Stress-energy Density of the Yang-Mills Field
760(1)
Yang-Mills Trace Anomaly
761(2)
Constant Fields
763(3)
Evidence for Confinement
766(1)
Yang-Mills Charge
767(2)
Careful Definition of G and Φ
769(3)
Axial Gauge
772(1)
Homotopy of Gauge Transformations. Cartan-Maurer Invariant
773(1)
Evaluation of I ([D])
774(4)
Chern-Simons Secondary Characteristic
778(2)
Chern Number
780(1)
The Total Amplitude. Instantons
781(2)
Action and Gauge Group for the Gravitational Field
783(1)
Classical Field Equation and Jacobi Field Operator
784(1)
The Operators J and F and the Invariant Metric
785(2)
Traces of the a2 Coefficients and the One-loop Effective Action
787(1)
One-loop Finiteness
788(1)
Gravitational Stress-energy Density
789(1)
Energy, Momentum, and Angular Momentum in the Gravitational Field
790(2)
Topological Questions
792(1)
Coupled Yang-Mills and Gravitational Fields
792(2)
Comments on Chapter 35
794(1)
References
795(4)
Examples. Simple Exercises in the use of the Global Formalism
The Nonrelativistic Particle in Flat Space
799(1)
Action Functional and Green's Functions
799(1)
Momentum and Energy
800(1)
The Case Ji = O
801(1)
The Transition Amplitude in the General Case
802(3)
The Momentum-to-momentum Transition Amplitude
805(1)
Variation of the Sources
806(1)
A Simple Fermi System
807(1)
Action Function and Green's Functions
807(1)
Eigenvectors of y
808(1)
The Energy
808(1)
A Pure Basis
809(1)
An Alternative Representation
810(1)
The Functional Integral Representation of (y, ty1, 1)
811(3)
Evaluation of the Functional Integral
814(3)
Other Transition Amplitudes
817(2)
The Average (Super)Classical Trajectory
819(1)
Propagator of the Fermi System
820(2)
A Fermi doublet
822(1)
Action Function and Green's Functions
822(1)
A Symmetrical Basis
823(2)
The Energy
825(1)
Coherent States
825(1)
The Coherent-state Representation
826(2)
Transition Amplitudes
828(3)
The Stationary Trajectory
831(2)
Variation of the Sources
833(2)
Fermi Multiplet
835(1)
Action Functional and Green's Functions
835(1)
The Case of Even N
836(1)
The Case of Odd N
837(1)
Hamiltonian and Path Integrals
838(1)
The Fermi Oscillator
839(1)
Action Functional and Green's Functions
839(1)
Mode Functions and Hamiltonian
840(1)
Basis Supervectors
841(1)
Coherent States
842(1)
The Functional Integral Representation of (a*, ta1, t1)
843(2)
Direct Evaluation of the Functional Integral
845(1)
The Importance of Endpoint Contributions
846(1)
The Stationary Trajectory as a Matrix Element
847(1)
The Feynman Propagator
847(2)
The Bose Oscillator
849(1)
Action Functional and Green's Functions
849(1)
Eigenvectors
850(1)
Mode Functions and Hamiltonian
850(2)
Energy Eigenvectors
852(1)
Coherent States
852(2)
Hamilton-Jacobi Theory
854(2)
The Point-to-point Amplitude
856(1)
The Functional Integral Representation (a*, ta1, t1)
857(1)
The Stationary Path Between Coherent States
858(1)
The Feynman Propagator
859(1)
Energy Eigenfunctions
860(2)
A Fourth-order System
862(1)
Action Functional and Green's Functions
862(1)
Wronskian Operator and Mode Functions
863(1)
Hamiltonian
864(1)
Wightman Function and Feynman Propagator
865(1)
Pauli-Villars Regularization
866(1)
Fourth-order Quantum Gravity
867(1)
A Model for Ghosts
868(1)
Action Functional and Green's Functions
868(1)
Wronskian Operator and Mode Functions
869(1)
Decomposition of the Dynamical Variables
870(1)
Energy and Hamiltonian
871(1)
Use of Ghosts in Gauge Theory
871(2)
Free Scalar Field in Flat Spacetime
873(1)
Mode Functions
873(1)
Green's Functions
874(2)
Massive Vector Field in Four-dimensional Flat Spacetime
876(1)
Green's Functions
876(1)
Mode Functions
877(3)
Massive Antisymmetric Tensor Field
880(1)
Action and Field Equation
880(1)
Minkowski Spacetime
880(1)
Mode Functions in Four Dimensions
881(2)
Massive Symmetric Tensor Field in Flat Spacetime
883(1)
Action and Field Equation
883(1)
Jacobi Field Operator and Feynman Propagator
884(1)
Mode Functions in Four Dimensions
885(1)
Spin
886(2)
Massive Spinor Field in Flat Spacetime
888(1)
Action, Field Equation, and Feynman Propagator
888(1)
Spinor Boosts
888(1)
Polarization Spinors in Four Dimensions
889(3)
Mode Functions
892(2)
Spin
894(1)
Massive spin-3/2 Field in Flat Spacetime
895(1)
Action and Field Equation
895(1)
Jacobi Field Operator and Feynman Propagator
896(1)
Auxiliary Matrices when n = 4
897(2)
Mode Functions and Polarization Vector-spinors
899(1)
Wronskian Operator and Mode-function Relations
900(1)
Spin
901(1)
Electromagnetic Field in Flat Spacetime
902(1)
The Special Character of Masslessness
902(1)
Invariant-flow Vectors and Supplementary Conditions
902(1)
Polarization Vectors
903(1)
The Operator F and its Mode Functions
904(1)
Spin. Helicity
905(1)
Massless Symmetric Tensor Field in Flat Spacetime
906(1)
Invariant-flow Vectors and Supplementary Condition
906(1)
The Operator F and its Mode Functions
907(1)
Physical Mode Functions
908(1)
Spin. Helicity
909(1)
Massless Spinor Field in Four-dimensional Flat Spacetime
910(1)
Polarization Spinors
910(1)
Properties of the Polarization Spinors
911(2)
Mode Functions
913(1)
Spin. Helicity
914(1)
Massless Spin 3/4 Field in Four-dimensional Flat Spacetime
915(1)
Invariant Flow Vectors and Supplementary Condition
915(1)
The Operators F
916(1)
Polarization Vector-spinors
917(1)
Mode Functions
917(2)
Spin. Helicity
919(1)
Renormalization Group and Spontaneous Symmetry Breaking in the λY4 Model
920(1)
The λY4 Model
920(1)
Jacobi Field Operator, Heat Kernel, and Effective Action
921(2)
Renormalization Group
923(2)
Self-consistency Conditions
925(2)
Energy Zero Point and Physical Mass
927(1)
Sponteaneous Symmetry Breaking
928(2)
The Relativistic Particle in Minkowski spacetime
930(1)
Action Functional and Dynamical Equations
930(1)
Gauge Invariance
931(1)
Green's Functions
931(1)
The Measure
932(2)
The Ghost Determinant
934(1)
The Functional Integral
935(1)
Consistency Check
936(2)
Evaluation of the Path Integral
938(1)
Interpretation of the Path Integral
939(1)
Change of Variables
940(2)
Further Reduction of the Functional Integral
942(1)
Elimination of λ
943(2)
A Simple Soluble Nonlinear Model
945(1)
Action Functional and Gauge Invariance
945(1)
Dynamical Equations and Conserved Quantities
946(1)
Energy
946(1)
Jacobi Field Operator and Ghost Operator
947(3)
Quantization
950(1)
Dynamics
951(1)
Quantum Mechanics on a Circle
952(1)
Lagrangian and Periodicity Conditions
952(1)
Homotopy
953(1)
Energy Eigenfunctions
954(2)
Quantum Mechancis on a Klein Bottle
956(1)
Periodicity Conditions and Lagrangian
956(1)
Energy Eigenfunctions
956(1)
Homotopy
957(2)
Ghosts for Ghosts
959(1)
Linearly Dependent Flow Vectors
959(1)
Nonsingular Operators
960(1)
Mode Functions
961(3)
Green's Function Relations
964(2)
Nonstationary Background
966(3)
Massless Antisymmetric Tensor Field
969(1)
Flow Vectors
969(1)
Matris and Operators
970(1)
Four-dimensional Minkowski Spacetime
971(1)
Heat Kernels and Vacuum Persistence Amplitude
972(4)
Appendix A: Superanalysis
976(1)
Supernumbers
976(1)
Superanalytic Functions
977(1)
Functions of Real Variables
978(1)
Integration
979(2)
Supervector Spaces
981(2)
Bases
983(1)
Change of Basis
984(1)
Shifting Indices. The Supertranspose
985(2)
Dual Supervector Spaces
987(1)
Dual Bases
988(1)
The Supertrace and Superdeterminant
989(1)
Integration over Rcm x Ran
990(1)
Transformation of Variables
991(3)
Gaussian Integrals
994(2)
Supermanifolds
996(2)
Structures on Supermanifolds
998(1)
Super Lie Groups
999(1)
Super Hilbert Spaces
1000(1)
Linear Operators. Superalgebras
1001(1)
Physical Observables
1002(1)
Basic Inequalities for Ordinary Hilbert Space. Averages and Variances
1003(1)
Supercommutator and Antisupercommutator
1004(2)
Appendix B
1006(1)
The Structure Functions to All Orders
1006(4)
Appendix C
1010(1)
The Case in Which is not Supersymmetric
1010(4)
Appendix D: Properties of Vilkovisky's Connection
1014(1)
Horizontal Geodesics
1014(1)
Derivation of Eq. (24.40)
1014(1)
Vertical Geodesics
1015(1)
Derivation of Eq. (24.41)
1016(2)
Appendix E: Analytic Continuation in Dimension
1018(1)
Compilation of Familiar Equations
1018(1)
Axioms for Analytic Continuation in (Euclidean) Dimensions
1019(1)
Illustrative Examples
1020(5)
Integrals over Euclidean Spaces of Even Negative Dimension
1025(1)
External Parameters
1026(2)
Integrals of Tensors
1028(2)
Change of Integration Order
1030(1)
Integration Over Minkowski Spacetime
1031(4)
Analytic Continuation in the Presence of Dirac Matrices
1035(1)
Analytic Continuation of Traces
1036(2)
Appendix F: Conformally Flat Spacetimes
1038(1)
Conformal Transformations
1038(1)
Conformal Flatness in Two Dimensions
1039(1)
Conformal Flatness in Three Dimensions
1040(1)
Conformal Flatness in Dimensions Greater Than Three
1040(2)
Spacetimes of Isotropic Curvature
1042
Index 1

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