本书是靠前上很好新的加速器物理方面的专著。对于大型强子对撞机LHC，兆瓦级直线型加速器，以及小型加速器的原理以及其上所做的实验都有很详细的介绍。是加速器领域、粒子物理领域很好有价值的图书。自上世纪以来，加速器获得了很大发展，并对物理学的进展起到了巨大的推动作用。本书目的在于说明加速器是如何工作的。入手处是单粒子在加速器中运动的动力学。本书内容包含了粒子物理、加速原理、对撞和束流动力学，以及工程上的考虑。本书是加速器、高能物理领域科研工作者的很好参考，同时也可作为研究生和高年级本科生的教材。

（美）史蒂芬?佩格斯（Stephen Peggs）是纽约大学石溪分校以及美国布鲁克海文国家实验室的资深研究人员，（美）托德?萨托加塔（Todd Satogata）是美国杰斐逊实验室教授。

Preface
1 Introduction
1.1 Differences or Differentials?
1.2 Phase Space Co-ordinates
1.3 Iterations,Ancient and Modern
1.4 Accelerator History:The Two Golden Ages
Exercises
2 Linear Motion
2.1 Stable Oscillations
2.2 Transverse Motion through Magnets
2.3 Matrix Equations of Motion
Exercises
3 Strong Focusing Transverse Optics
3.1 Linear Stability and Twiss Functions
3.2 Turn-by-Turn Motion in Phase Space
3.3 Propagation across a Fraction of a Turn
3.4 Continuous Propagation
3.5 FODO Cell Optics
Exercises
4 Longitudinal and Off-Momentum Motion
4.1 Constant Momentum Offset:Transverse Motion
4.2 The Dispersion Function
4.3 Oscillating Momentum:Longitudinal Motion
4.4 The Standard Map
Exercises
5 Action and Emittance-One Particle or Many?
5.1 Transverse Action-Angle Co-ordinates
5.2 Unnormalised Emittances and Beam Sizes
5.3 Tune Spread and Filamentation
5.4 Linac(Phase Space Area)Emittances
5.5 Normalised Emittance and Adiabatic Damping
5.6 Longitudinal Phase Space Parameters
Exercises
6 Magnets
6.1 Normal and Skew Multipole Magnets
6.2 Iron-Dominated Magnets
6.3 Conductor-Dominated Magnets
6.4 Field Quality and Errors
Exercises
7 RF Cavities
7.1 Waveguides
7.2 Transverse Modes
7.3 Cylindrical Resonant Cavities-Pill-Boxes
7.4 Cavity Performance Limits
Exercises
8 Linear Errors and Their Correction
8.1 Trajectory and Closed Orbit Errors
8.2 Linear Coupling
8.3 Tune Shifts and B-Waves
Exercises
9 Sextupoles,Chromaticity and the Henon Map
9.1 Chromaticity in a FODO Lattice
9.2 Chromaticity Correction
9.3 The Henon Map-A Unit Strength Sextupole in 1-D
9.4 A Taxonomy of 1-D Motion
9.5 Dynamic Aperture
Exercises
10 Octupoles,Detuning and Slow Extraction
10.1 Single Octupole Lattice
10.2 Discrete Motion in Action-Angle Space,(J,p)
10.3 Two-Turn Motion with Q≈1/2
10.4 Slow Extraction near the Half-Integer
Exercises
11 synchrotron Radiation-Classical Damping
11.1 Spectrum and Distribution Pattern
11.2 EnergY.Loss Per Turn and Longitudinal Damping
11.3 Continuous Acceleration
11.4 Transverse Damping and Partition Numbers
Exercises
12 synchrotron Radiation -Quantum Excitation
12.1 Energy Spread
12.2 Horizontal Emittance
12.3 Vertical Emittance
Exercises
13 Linacs-Protons and Ions
13.1 Time Structures
13.2 Multi-Cell Synchronism
13.3 Linear Motion
13.4 Radio Frequency Quadrupoles
13.5 Beam Losses and Haloes
Exercises
14 Linacs-Electrons
14.1 Longitudinal and Transverse Focusing
14.2 RF Capture
14.3 Bunch Compression
14.4 Recirculating and Energy Recovery Linacs
14.5 Beam Breakup
Exercises
15 The Beam-Beam Interaction and 1-D Resonances
15.1 Round Beam-Beam Interaction
15.2 First-Order Theory of 1-D Resonances
15.3 Resonance Island Tunes and Widths
Exercises
16 Routes to Chaos
16.1 Resonance Overlap
16.2 Tune Modulation
16.3 Dynamical Zones in Tune Modulation Space
Exercises
Appendix A Selected Formulae for Accelerator Design
A.1 Matrices for Linear Motion through Accelerator Elements
A.2 Propagation of Twiss Functions
References
Index