Grinding of Single-Crystal Superalloys : Fundamentals and Technologies (1. Auflage. 2026. 288 S. 244 mm)

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Grinding of Single-Crystal Superalloys : Fundamentals and Technologies (1. Auflage. 2026. 288 S. 244 mm)

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  • 製本 Hardcover:ハードカバー版
  • 商品コード 9783527355228

Full Description

Comprehensive reference on state-of-the-art aerospace materials, reviewing the latest developments in the field and providing guidance on machining challenges

Grinding of Single-Crystal Superalloys provides a comprehensive understanding of grinding technology for single-crystal nickel-based superalloys. It explores and analyzes grinding mechanisms and characteristics using both theoretical and simulation approaches. Grinding behavior in conventional and micro grinding processes are evaluated and compared.

The book assesses the surface integrity of single-crystal nickel-based superalloys under different grinding conditions. Simulation and theoretical models for predicting temperature and residual stresses in profile grinding, facilitating optimization, and control are summarized and validated.

Grinding of Single-Crystal Superalloys discusses sample topics including:

Friction coefficient, wear volume, and wear rate during fretting
Influence of material anisotropy and different crystal orientations
Residual stress fields in grinding of single-crystal turbine blade roots
Yield and failure criterion
Analysis of formation mechanisms in nanostructures

Grinding of Single-Crystal Superalloys is an essential reference for industry professionals and researchers seeking to understand the machining theory and practice of this important type of material, especially in the field of aerospace components manufacturing.

Contents

Contents

Foreword          

Preface               

Part I Grinding mechanism of single-crystal nickel alloy             

Chapter 1 Introduction 

1.1 Development and practical application of single-crystal nickel alloy            

1.2 Advantages of grinding technology of single crystal nickel alloy      

1.3 High-efficiency grinding technology development of single crystal nickel alloy       

1.4 Micro-grinding technology development of single-crystal nickel alloy          

1.5 Contents of this book            

References

Chapter 2 Removal mechanism of single-crystal nickel alloy in high-efficiency grinding             

2.1 Yield criterion and failure criterion of single-crystal nickel alloy     

2.2 Simulation model and experiment conditions         

2.3 Simulation results on material removal by multi abrasive grains    

2.4 Experimental verification of simulation results       

References

Chapter 3 Plastic deformation mechanism of single-crystal nickel alloy in micro-grinding       

3.1 Verification of plastic deformation mechanism in micro-grinding materials             

3.2 Microscale Debris in Micro - grinding of Single - crystal Nickel Alloy            

Reference

Part II Grindability of single-crystal nickel alloys            

Chapter 4 Grinding force evaluation    

4.1 Grinding force in surface grinding  

4.2 Grinding force in profile grinding     

4.3 Grinding Force in Micro-grinding    

Reference

Chapter 5 Grinding temperature evaluation     

5.1 Grinding temperature in surface grinding    

5.2 Grinding temperature in profile grinding      

5.3 Grinding Temperature in Micro-grinding      

Reference

Chapter 6 Grinding wheel wear evaluation        

6.1 Grinding wheel wear in surface grinding       

6.2 Grinding wheel wear in profile grinding         

6.3 Grinding Wheel Wear in Micro-Grinding     

Reference 

Part III Surface integrity by high-efficiency grinding        

Chapter 7 Surface and subsurface microstructures in high-efficiency grinding               

7.1 Surface microstructure and surface roughness in surface grinding               

7.2 Subsurface microstructure in surface grinding        

7.3 Surface microstructure and surface roughness in profile grinding  

7.4 Subsurface microstructure in profile grinding           

Reference

Chapter 8 Subsurface nanostructures in high-efficiency grinding          

8.1 Subsurface nanostructures in profile grinding          

8.2 Analysis on formation mechanism of nanostructures         

8.3 Plastic Deformation and microstructure evolution of single-crystal nickel superalloy         

Reference

Chapter 9 Microhardness and residual stresses in high-efficiency grinding     

9.1 Microhardness in surface grinding 

9.2 Microhardness in profile grinding    

9.3 Residual stresses in profile grinding              

Reference

Chapter 10 Fretting wear behavior of the machined surface in high-efficiency grinding              

10.1 Friction coefficient, wear volume and wear rate during fretting    

10.2 Surface and subsurface microstructure during fretting    

10.3 Analysis on fretting wear evolution of the ground surface

Reference

Part IV Surface integrity in micro-grinding          

Chapter 11 Surface roughness in micro-grinding           

11.1 Theoretical model of surface roughness  

11.2 Influence of grinding parameters

11.3 Influence of material anisotropy of nickel-based single-crystal superalloy            

11.4 Influence of different crystal orientations of nickel-based single-crystal superalloy          

11.5 Influence of grinding methods      

Reference        

Chapter 12 Ground surface and subsurface damage in micro-grinding              

12.1 Influence of grinding parameters

12.2 Influence of working fluid

Reference

Chapter 13 Subsurface microstructure and recrystallization in micro-grinding               

13.1 Subsurface microstructure in the micro-grinding process              

13.2 Subsurface recrystallization in micro-grinding      

Reference

Part V Simulation, optimization and control in grinding of single-crystal turbine blade root      

Chapter 14 Temperature field in grinding of single-crystal turbine blade root  

14.1 FE model for grinding temperature simulation     

14.2 Thermal analysis for grinding temperature simulation      

14.3 Experimental validation of grinding temperature 

14.4 Temperature simulation results and analysis        

References

Chapter 15 Residual stress field in grinding of single-crystal turbine blade root              

15.1 Mechanical analysis for residual stress simulation             

15.2 Experimental verification of residual stresses        

15.3 Residual stress simulation results and analysis    

15.4 Collaborative manufacturing of structure shape and surface integrity       

Reference

 

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