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Mathematical Methods in Image Reconstruction [Pehme köide]

  • Formaat: Paperback / softback, 228 pages, kõrgus x laius x paksus: 229x152x10 mm, kaal: 420 g
  • Sari: Mathematical Modeling and Computation No. 5
  • Ilmumisaeg: 30-Apr-2006
  • Kirjastus: Society for Industrial & Applied Mathematics,U.S.
  • ISBN-10: 0898716225
  • ISBN-13: 9780898716221
  • Formaat: Paperback / softback, 228 pages, kõrgus x laius x paksus: 229x152x10 mm, kaal: 420 g
  • Sari: Mathematical Modeling and Computation No. 5
  • Ilmumisaeg: 30-Apr-2006
  • Kirjastus: Society for Industrial & Applied Mathematics,U.S.
  • ISBN-10: 0898716225
  • ISBN-13: 9780898716221
Since the advent of computerized tomography in radiology, many imaging techniques have been introduced in medicine, science, and technology. This book describes the state of the art of the mathematical theory and numerical analysis of imaging. The authors survey and provide a unified view of imaging techniques, provide the necessary mathematical background and common framework, and give a detailed analysis of the numerical algorithms. This book not only reflects the theoretical progress and the growth of the field in the last 10 years but also serves as an excellent reference. It will provide readers with a superior understanding of the mathematical principles behind imaging and will enable them to write state-of-the-art software as a result.

Mathematical Methods in Image Reconstruction provides a very detailed description of two-dimensional algorithms. For three-dimensional algorithms, the authors derive exact and approximate inversion formulas for specific imaging devices and describe their algorithmic implementation (which by and large parallels the two-dimensional algorithms). Integral geometry is surveyed as far as is necessary for imaging purposes; imaging techniques based on or related to integral geometry are briefly described in the section on tomography.

Some of the applications covered in the book include computerized tomography, magnetic resonance imaging, emission tomography, electron microscopy, ultrasound transmission tomography, industrial tomography, seismic tomography, impedance tomography, and NIR imaging. The authors provide the necessary mathematical background and common mathematical framework needed to understand the book. Knowledge of tomography literature from the 1980s will be useful to the reader.

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This book provides readers with a superior understanding of the mathematical principles behind imaging.
Preface ix
List of Symbols
xi
Introduction
1(8)
The Basic Example
1(1)
Overview
2(1)
Mathematical Preliminaries
3(6)
Fourier analysis
3(2)
Some integral operators
5(1)
The Moore--Penrose generalized inverse
5(1)
The singular value decomposition
5(1)
Special functions
6(2)
The fast Fourier transform
8(1)
Integral Geometry
9(32)
The Radon Transform
9(8)
The Ray Transform
17(6)
The Cone Beam Transform
23(4)
Weighted Transforms
27(4)
The attenuated ray transform
27(3)
The Feig--Greenleaf transform
30(1)
The windowed ray transform
31(1)
Integration over Curved Manifolds
31(5)
Computing an even function on S2 from its integrals over equatorial circles
32(1)
Reduction of problems on the sphere to the Radon transform
33(1)
Reconstruction from spherical averages
34(2)
More general manifolds
36(1)
Vector Fields
36(5)
Tomography
41(22)
Transmission Tomography
41(3)
Parallel scanning geometry
41(1)
Fan beam scanning geometry
42(1)
3D helical scanning
43(1)
3D cone beam scanning
43(1)
Emission Tomography
44(2)
Diffraction Tomography
46(4)
Magnetic Resonance Imaging
50(4)
Electron Tomography
54(1)
Radar
55(2)
Synthetic aperture radar
55(1)
Range-Doppler radar
56(1)
Vector Tomography
57(2)
Doppler tomography
57(1)
Schlieren tomography
58(1)
Photoelastic tomography
58(1)
Seismic Tomography
59(2)
Travel time tomography
59(1)
Reflection tomography
59(1)
Waveform tomography
60(1)
Historical Remarks
61(2)
Stability and Resolution
63(18)
Stability
63(2)
Sampling
65(6)
Resolution
71(7)
The FFT on Nonequispaced Grids
78(3)
Reconstruction Algorithms
81(58)
The Filtered Backprojection Algorithm
81(19)
Standard parallel scanning
83(4)
Parallel interlaced scanning
87(3)
Standard fan beam scanning
90(3)
Linear fan beam scanning
93(2)
Fast backprojection
95(1)
The point spread function
96(1)
Noise in the filtered backprojection algorithm
97(2)
Filtered backprojection for the exponential Radon transform
99(1)
Filtered backprojection for the attenuated Radon transform
99(1)
Fourier Reconstruction
100(10)
Standard Fourier reconstruction
100(2)
The gridding method
102(4)
The linogram algorithm
106(2)
Fourier reconstruction in diffraction tomography and MRI
108(2)
Iterative Methods
110(15)
Art
110(8)
The EM algorithm
118(6)
Other iterative algorithms
124(1)
Direct Algebraic Algorithms
125(2)
3D Algorithms
127(7)
The FDK approximate formula
128(1)
Grangeat's method
129(2)
Filtered backprojection for the cone beam transform
131(1)
Filtered backprojection for the ray transform
132(1)
The Radon transform in 3D
133(1)
Circular Harmonic Algorithms
134(3)
Standard parallel scanning
134(2)
Standard fan beam scanning
136(1)
ART for Nonlinear Problems
137(2)
Problems That Have Peculiarities
139(22)
Unknown Orientations
139(5)
The geometric method
139(2)
The moment method
141(1)
The method of Provencher and Vogel
142(1)
The 2D case
143(1)
Incomplete Data
144(7)
Uniqueness and stability
144(3)
Reconstruction methods
147(1)
Truncated projections in PET
148(2)
Conical tilt problem in electron tomography
150(1)
Discrete Tomography
151(1)
Simultaneous Reconstruction of Attenuation and Activity
152(3)
Local Tomography
155(4)
Few Data
159(2)
Nonlinear Tomography
161(28)
Tomography with Scatter
161(2)
Optical Tomography
163(13)
The transport model
163(2)
The diffusion model
165(3)
The linearized problem
168(2)
Calderon's method
170(2)
The transport-backtransport algorithm
172(2)
The diffusion-backdiffusion algorithm
174(2)
Impedance Tomography
176(2)
Ultrasound Tomography
178(11)
Frequency domain ultrasound tomography
179(6)
Time domain ultrasound tomography
185(4)
Bibliography 189(20)
Index 209


Frank Natterer is a Professor in the Institut für Numerische und instrumentelle Mathematik at the University of Münster. Frank Wübbeling is a researcher in the Institut für Numerische und instrumentelle Mathematik at the University of Münster.