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9780120147502

Modern Map Methods in Particle Beam Physics

by
  • ISBN13:

    9780120147502

  • ISBN10:

    0120147505

  • Format: Hardcover
  • Copyright: 1999-09-13
  • Publisher: Elsevier Science
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Summary

Advances in Imaging & Electron Physics merges two long-running serials--Advances in Electronics & Electron Physics and Advances in Optical & Electron Microscopy. The series features extended articles on the physics of electron devices (especially semiconductor devices), particle optics at high and low energies, microlithography, image science and digital image processing, electromagnetic wave propagation, electron microscopy, and the computing methods used in all these domains.

Table of Contents

Dynamics of Particles and Fields
Beams and Beam Physics
1(1)
Differential Equations, Determinism, and Maps
2(5)
Existence and Uniqueness of Solutions
3(3)
Maps of Deterministic Differential Equations
6(1)
Lagrangian Systems
7(13)
Existence and Uniqueness of Lagrangians
7(1)
Canonical Transformation of Lagrangians
8(4)
Connection to a Variational Principle
12(2)
Lagrangians for Particular Systems
14(6)
Hamiltonian Systems
20(42)
Manipulations of the Independent Variable
23(3)
Existence and Uniqueness of Hamiltonians
26(1)
The Duality of Hamiltonians and Lagrangians
27(5)
Hamiltonians for Particular Systems
32(2)
Canonical Transformation of Hamiltonians
34(10)
Universal Existence of Generating Functions
44(9)
Flows of Hamiltonian Systems
53(1)
Generating Functions
54(5)
Time-Dependent Canonical Transformations
59(1)
The Hamilton-Jacobi Equation
60(2)
Fields and Potentials
62(19)
Maxwell's Equations
62(3)
Scalar and Vector Potentials
65(11)
Boundary Value Problems
76(5)
Differential Algebraic Techniques
Function Spaces and Their Algebras
81(4)
Floating Point Numbers and Intervals
81(1)
Representations of Functions
82(2)
Algebras and Differential Algebras
84(1)
Taylor Differential Algebras
85(15)
The Minimal Differential Algebra
85(6)
The Differential Algebra nDv
91(1)
Generators, Bases, and Order
92(4)
The Tower of Ideals, Nilpotency, and Fixed Points
96(4)
Advanced Methods
100(20)
Composition and Inversion
100(2)
Important Elementary Functions
102(2)
Power Series on nDv
104(4)
ODE and PDE Solvers
108(3)
The Levi-Civita Field
111(9)
Fields
Analytic Field Representation
120(6)
Fields with Straight Reference Orbit
120(5)
Fields with Planar Reference Orbit
125(1)
Practical Utilization of Field Information
126(20)
Multipole Measurements
127(1)
Midplane Field Measurements
128(1)
Electric Image Charge Methods
129(3)
Magnetic Image Charge Methods
132(7)
The Method of Wire Currents
139(7)
Maps: Properties
Manipulations
146(2)
Composition and Inversion
146(1)
Reversion
147(1)
Symmetries
148(11)
Midplane Symmetry
148(2)
Rotational Symmetry
150(5)
Symplectic Symmetry
155(4)
Representations
159(9)
Flow Factorizations
159(5)
Generating Functions
164(4)
Maps: Calculation
The Particle Optical Equations of Motion
168(22)
Curvilinear Coordinates
168(6)
The Lagrangian and Lagrange's Equations in Curvilinear Coordinates
174(5)
The Hamiltonian and Hamilton's Equations in Curvilinear Coordinates
179(6)
Are Length as an Independent Variable for the Hamiltonian
185(3)
Curvilinear Coordinates for Planar Motion
188(2)
Equations of Motion for Spin
190(5)
Maps Determined by Algebraic Relations
195(6)
Lens Optics
195(2)
The Dipole
197(4)
Drifts and Kicks
201(1)
Maps Determined by Differential Equations
201(10)
Differentiating ODE Solvers
201(1)
DA Solvers for Differential Equations
202(1)
Fast Perturbative Approximations
203(8)
Imaging Systems
Introduction
211(3)
Aberrations and their Correction
214(3)
Reconstructive Correction of Aberrations
217(11)
Trajectory Reconstruction
218(3)
Reconstruction in Energy Loss Mode
221(2)
Examples and Applications
223(5)
Aberration Correction via Repetitive Symmetry
228(22)
Second-Order Achromats
230(3)
Map Representations
233(5)
Major Correction Theorems
238(2)
A Snake-Shaped Third-Order Achromat
240(3)
Repetitive Third- and Fifth Order Achromats
243(7)
Repetitive Systems
Linear Theory
250(15)
The Stability of the Linear Motion
250(10)
The Invariant Ellipse of Stable Symplectic Motion
260(2)
Transformations of Elliptical Phase Space
262(3)
Parameter-Dependent Linear Theory
265(5)
The Closed Orbit
266(1)
Parameter Tune Shifts
267(1)
Chromaticity Correction
268(2)
Normal Forms
270(22)
The DA Normal Form Algorithm
270(4)
Symplectic Systems
274(3)
Nonsymplectic Systems
277(2)
Amplitude Tune Shifts and Resonances
279(3)
Invariants and Stability Estimates
282(6)
Spin Normal Forms
288(4)
Symplectic Tracking
292(1)
Generating Functions
293(2)
Prefactorization and Symplectic Extension
295(2)
Superposition of Local Generators
297(1)
Factorizations in Integrable Symplectic Maps
298(1)
Spin Tracking
299

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