Introduction to the mathematics of medical imaging
Table of Contents
- 1 Introduction (Introduction to: Mathematics of Medical Imaging)
- 2 Integral Geometry and Integral Transforms
- 2.1 Introduction ( Introduction to: Integral geometry))
- 2.2 Represenation of a Line and other linear geometrical elements
- 2.3 The 2D Radon transform
- 2.4 The sinogram
- 2.5 The properties of the Radon transform
- 2.6 The Hilbert-transform
- 2.7 The Digital Radon Transform
- 2.8 The Radon Transform in multiple dimensions
- 3 Analytical Reconstruction techniques
- 3.1 Introduction (Analyitical Reconstruction)
- 3.2 The Central Slice Theorem
- 3.3 The Filtered Backprojection
- 3.4 Relaization of the filtered backprojection
- 3.5 Multidimensional Central Slice Theorem and the Fourier Inverson Formula
- 3.6 Interpretation of the inverse Radon transform
- 3.7 Inverse Radon transfrom with Riesz potentials
- 3.8 Filter Design for the Filtered Backprojection
- 3.9 3D reconstruction
- 4 Algebraic Image Reconstruction
- 4.1 Introduction (Introduction to: Algebraic Image Reconstruction)
- 4.2 Descrete Base for the reconstruction
- 4.3 Non-statistical iterative reconstructions
- 4.4 Statistical image reconstruction strategies
- 4.5 The ML-EM algorithm
- 4.6 The ML-EM algorithm for emission tomography
- 4.7 ML-EM variations: MAP-EM,OSEM
- 5 The DICOM standard
- 5.1 Abstract
- 5.2 Introduction (DICOM)
- 5.3 A simplified DICOM for beginners
- 5.3.1 Introduction to the digital representation of alphanumeric data
- 5.3.2 Introduction to the a simplified toy-DICOM file format I (Problems for the reader)
- 5.3.3 Introduction to the a simplified toy-DICOM file format II (Solutions of the problems)
- 5.3.4 Introduction to the a simplified toy-DICOM file format III
- 5.3.5 Introduction to the a simplified 'toy-DICOM' file format IV (Further development: the Value Representation)
- 5.4 A few words about the real DICOM format
- 5.5 Appendix
- 6 Mathematical Methods of Linear Model Based Image Processing Procedures
- 6.1 Introduction.
- 6.2 Linear Operators
- 6.3 Characteristic Input Functions
- 6.4 General Input Functions - Fourier Transformation
- 6.5 Laplace-Transformation
- 6.5.1 Analysis of linear systems in extended frequency space
- 6.5.2 Properties and rules of Laplace transformation
- 6.5.3 Laplace transformation of characteristic and any other typical functions
- 6.5.4 Mathematical description of the system properties functions
- 6.5.5 Inverse transformation method for linear invariant systems
- 6.5.6 Inverse transformation of the proper rational function
- 6.5.7 Transfer Function
- 6.5.8 Transfer characteristic function (Modulation Transfer Function MTF)
- 6.5.9 Linear shift invariant system description by the step response function
- 6.5.10 Relation between the step response function and weighting function of linear shift invariant system
- 6.6 Problems (Linear Systems)
- 6.7 Theory and basic laws of sampling
- 6.8 Planar imaging as a linear system
- 6.9 Appendix.
- 6.9.1 Theorems, Detailed explanations
- 6.9.1.1 Deriving of Fourier Theory, Fourier Series
- 6.9.1.2 Description of Fourier series by complex expression
- 6.9.1.3 Parzeval theorem
- 6.9.1.4 Response function in general case
- 6.9.1.5 Deriving of Duhamel Theorem
- 6.9.2 Solution of problems
- 6.9.1 Theorems, Detailed explanations
- 7 Monte Carlo Methods (English)
- 8 References