如果有可能的话找找B.K.Choi在1998年出的书:"Sculptured Surface Machining- Theory and Applications",看看目录就知道它的价值了
PART I: FUNDAMENTALS OF SCULPTURED SURFACE MACHINING
1 Introduction to sculptured surface machining
1.1 Industrial impacts
1.2 Achievable productivity goals
1.3 Developments of related technologies
1.4 User requirement specifications
1.5 Information processing issues
1.6 High speed machining and SSM-technology
1.7 Discussion
2 Mathematical background for sculptured surface machining
2.1 Introduction
2.2 Basics of vector algebra
2.3 Coordinate transformations
2.4 Curve and surface geometry for cutter path generation
2.5 Non-parametric representation for cutter path generation
2.6 Curve differential geometry
2.7 Surface normal and first fundamental form
2.8 Surface curvatures and second fundamental form
3 Sculptured surface machining processes
3.1 Basic concepts and definitions
3.2 Machining process models
3.3 Unit machining operations (UMO)
3.4 Machining stages
3.5 UMOs for 5-axis machining
3.6 Industrial practices of sculptured surface machining
3.7 Discussion
4 Process planning for sculptured surface machining
4.1 Introduction
4.2 Process planning models
4.3 Form features in sculptured parts
4.4 Machining feature
4.5 Feature-based approach to process-planning
4.6 Discussion
5 Fundamentals of tool-path generation and validation
5.1 Introduction
5.2 Tool-path topology and milling-strategy planning
5.3 Tool-path resolution planning
5.4 Tool-path generation
5.5 Cutter-interference handling
5.6 Cutting simulation and NC verification
5.7 Cutting condition determination
5.8 Summary and discussion
PART II: TOOL-PATH GENERATION METHODS FOR SCULPTURED SURFACE MACHINING
6 Introduction to tool-path generation methods
6.1 Overview of tool-path generation methods
6.2 Overview of CC-based tool-path generation methods
6.3 CL-data computation for isoparametric tool-path
6.4 CL-data computation for Cartesian tool-path
6.5 CL-data computation for APT-type tool-path
6.6 Application of the APT-type tool-path
6.7 C-space approach to tool-path generation
6.8 Implementation issues of the C-space methods
6.9 Discussion
7 Tool-path generation for roughing
7.1 Characteristics of roughing operations
7.2 CL-surface construction for roughing
7.3 Tool-path generation procedure for pocketing
7.4 CPO-curve generation via 2D-curve offsetting
7.5 Handling of uncuts in 2D pocketing
7.6 Special topics in pocket-machining
7.7 C-space approach to collision detection
7.8 Discussion
8 Tool-path generation for finishing
8.1 Issues in finish machining
8.2 Path-resolution planning and tool-path generation
8.3 Tool-path linking for milling efficiency
8.4 Cutting-load smoothing for milling efficiency
8.5 Discussion
9 Tool-path generation for clean-up machining
9.1 Characteristics of clean-up tool-path generation
9.2 Pencil-curve detection and tracing
9.3 Pencil-curve refinement
9.4 Generation of pencil-cut tool-paths
9.5 Generation of fillet-cut tool-paths
9.6 Discussion
10 Cloud-of-points machining for reverse engineering
10.1 Overview of cloud-of-points data machining
10.2 Preprocessing of digitized data
10.3 Segmentation of data-points
10.4 Smoothing of digitized surface
10.5 Postprocessing and tool-path generation
10.6 Discussion
11 Five axis machining
11.1 Introduction
11.2 Related work and accuracy issues
11.3 Five axis tool-path generation methodology
11.4 Path-interval and cusp-height in 5-axis machining
11.5 C-space methods in 5-axis machining
11.6 Discussion
PART III: CONTROLLING ACCURACY AND QUALITY IN SCULPTURED SURFACE MACHINING
12 Geometric cutting simulation and verification
12.1 The need for simulation and verification
12.2 Alternative methods
12.3 Model implementation issues
12.4 Intersection calculations
12.5 Error detection and correction
12.6 Discussion
13 Cutting force modeling and physical cutting simulation
13.1 Introduction
13.2 Cutting force models
13.3 Mechanistic model implementation
13.4 Verification of safe machining conditions
13.5 Discussion
PART IV: SYSTEMS INTEGRATION FOR SCULPTURED SURFACE MACHINING
14 A unified CAM-system architecture
14.1 User requirement specifications for CAM-system
14.2 Basic architecture of unified CAM-system
14.3 Advanced architecture of unified CAM-system
14.4 Discussion
15 Development of integrated SSM-software
15.1 New framework for SSM-software development
15.2 SSM-system analysis and structuring
15.3 Product-design and BPR phase
15.4 Process-design phase
15.5 Cutting-condition models and tool management
15.6 Discussion
16 CAPP for sculptured surface machining
16.1 Hierarchical CAPP architecture for SSM
16.2 CAPP algorithm
16.3 CAPP example
16.4 Discussion