1.2 Digital Geometry and Related Disciplines
Chapter 2: Grids and Digitization
2.1 The Grid Pointand Grid Cell Modesls
4.1 Graphs, Adjacency Structures, and Adjacency Graphs
4.2 Some Basics of Graph Theory
Chapter 5: Incidence Pseudographs
5.2 Boundaries, Frontiers, and the Euler Characteristic
5.4 Pictures on Incidence Grids
Chapter 7: Curves and Surfaces: Topology
7.1 Curves in the Euclidean Topology
7.4 Surfaces in the Euclidean Topology
7.5 Surfaces and Separations in 3D Grids
Chapter 8: Curves and Surfaces: Geometry
8.3.4 Gauss ’ definition of surface curvature
8.3.5 Principal, Gaussian, and mean surface curvature
8.4 Surface Tracing and Approximation
9.5 Number-Theoretic Properties
Chapter 10: 2D Arc Length; Curvature and Corners
10.1 The Length of a Digital Curve
10.2 Definitions of 2D Arc Length Estimators
10.3 Evaluation of 2D Arc Length Estimators
10.4 The Curvature of a Planar Digital Curve
Chapter 11: 3D Straightness and Planarity
11.2 Digital Planes in 3D Adjacency Grids
11.3 Digital Planes in the 3D Incidence Grid
11.4 DPS Recognition and Generation
Chapter 12: 3D Arc Length, Surface Area, and Curvature
12.3 Surface Curvature Estimation
Chapter 13: Hulls and Diagrams
14.2 Axiomatic Digital Geometry
14.3 Transformation Groups and Symmetries
14.4 Neighborhood-Preserving Transformations
14.5 Applying Transformations to Pictures
14.6 Magnification and Demagnification
Chapter 15: Morphologic Operations
15.3 Combining Dilations and Erosions
16.1 Topology-Preserving Deformations and Simple Pixels
16.5 Interchangeable Pairs of Pixels
16.6 Deformations of 3D Pictures
16.7 Deformations of Multivalued Pictures
Chapter 17: Picture Properties and Spatial Relations
17.3 Experimental Evaluation of Moment Estimates