: Dagmar Kainmueller
: Deformable Meshes for Medical Image Segmentation Accurate Automatic Segmentation of Anatomical Structures
: Springer Vieweg
: 9783658070151
: 1
: CHF 41.30
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: Anwendungs-Software
: English
: 184
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​ Segmentation of anatomical structures in medical image data is an essential task in clinical practice. Dagmar Kainmueller introduces methods for accurate fully automatic segmentation of anatomical structures in 3D medical image data. The author's core methodological contribution is a novel deformation model that overcomes limitations of state-of-the-art Deformable Surface approaches, hence allowing for accurate segmentation of tip- and ridge-shaped features of anatomical structures. As for practical contributions, she proposes application-specific segmentation pipelines for a range of anatomical structures, together with thorough evaluations of segmentation accuracy on clinical image data. As compared to related work, these fully automatic pipelines allow for highly accurate segmentation of benchmark image data.​

Dagmar Kainmueller works as a research scientist at the Max Planck Institute of Molecular Cell Biology and Genetics in Dresden, Germany, with a focus on bio image analysis.
Preface by the Series Editor7
Foreword8
Acknowledgments9
Abstract10
Contents11
Chapter 1 Introduction15
1.1 Motivation15
1.1.1 Segmentation of Medical Image Data16
1.1.2 Automation of the Segmentation Task18
1.1.3 Segmentation Accuracy19
1.2 Scope of this Thesis19
1.2.1 Automated Segmentation with Deformable Models19
1.2.2 Selection of Anatomical Structures and Imaging Modalities23
1.2.3 Contribution23
1.2.4 Topics Not Discussed25
1.3 Structure of this Thesis26
Part I The Segmentation Framework28
Chapter 2 Basic Terms and Notation29
2.1 Images, Segmentations, and Surface Meshes30
2.1.1 Three-dimensional Medical Images30
2.1.2 Segmentations of Three-dimensional Medical Images30
2.1.3 Triangle Surface Meshes31
2.1.4 From Segmentations to Surface Meshes and Back33
2.2 Deformable Surface Meshes33
2.2.1 Displacement Fields and Sets of Candidate Displacements34
2.2.2 Appearance Cost34
Chapter 3 Deformable Meshes for Automatic Segmentation36
3.1 Statistical Shape Models (SSMs) for Segmentation38
3.1.1 Generation of SSMs39
3.1.2 Prerequisites: Shape Correspondences and Alignment40
3.1.3 Image Segmentation via SSM Deformation41
3.1.4 Initial Shape Detection43
3.1.5 Lack of Image Features: SSMs for Extrapolation44
3.2 A Simple Heuristic Appearance Model45
3.2.1 Appearance Cost Function45
3.2.2 Intensity Parameter Estimation46
3.3 Local Search for Appearance Match46
3.3.1 Unidirectional Displacements46
3.3.2 Optimal Displacement Fields47
3.3.3 Intensity Profiles48
3.4 Shape-constrained Free Mesh Deformations48
3.4.1 Free Deformation within a Narrow Band50
3.4.2 Free Deformation with Bounded Displacement Differences51
3.5 Simultaneous Free Deformations of Multiple Meshes54
3.5.1 Multi-object Graph-based Deformation of Coupled Meshes55
3.5.2 Coupling Adjacent Surface Meshes56
3.6 Conclusion60
Chapter 4 Omnidirectional Displacements for Deformable Surfaces (ODDS)61
4.1 The Visibility Problem62
4.2 ODDS: Free Mesh Deformations with All-around Visibility63
4.2.