High-Speed Precision CNC Machine Tools: The Theory and Methods of Thermal Behavior Simulation and Control summarizes the thermal-structure interaction simulation and optimization of high-speed precision machine tools. It begins by examining the current research status of high-speed precision machine tools followed by the thermal-structure interaction characteristic modeling and simulation of high-speed precision machine tools. Later chapters are related to the application of the topology optimization method and axial rotating heat pipe in high-speed precision machine tools.
1. Chapter 1. Introduction - p. 1 2. Chapter 2. Theoretical modeling and prediction of contact thermal conductance of bearing contact interfaces - p. 155 3. Abstract - p. 155 4. 2.1 Overview - p. 155 5. 2.2 Microscopic morphology characterization and fractal parameter identification - p. 157 6. 2.3 Multiscale contact mechanics modeling of angular contact ball bearing interface - p. 177 7. 2.4 Modeling for thermal contact conductance - p. 206 8. 2.5 Experimental study on thermal contact resistance - p. 224 9. 2.6 Results and discussion - p. 228 10. References - p. 272 11. Chapter 3. Heat generation mechanism analysis and transient thermal characteristics simulation of high-speed spindle system - p. 275 12. Chapter 4. Thermal-structure interaction characteristics simulation and modeling - p. 315 13. Chapter 5. Thermal boundary conditions optimization based on response surface analysis - p. 371 14. Chapter 6. Thermal error measurement, modeling, and compensation of ball screw feed drive system with fixed-fixed installation - p. 411 15. Chapter 7. Multiobjective topology optimization method of cooling plate and cooling water jacket toward precision machine tool heat dissipation and thermal error control - p. 463 16. Chapter 8. Effect of gas liquid phase change of axial rotating heat pipe, sintered core rotating heat pipe, and closed loop pulsating heat pipe on fluid thermal solid behaviors of high speed spindle - p. 567 17. Index - p. 651
High-Speed Precision CNC Machine Tools: The Theory and Methods of Thermal Behavior Simulation and Control summarizes the thermal-structure interaction simulation and optimization of high-speed precision machine tools. It begins by examining the current research status of high-speed precision machine tools followed by the thermal-structure interaction characteristic modeling and simulation of high-speed precision machine tools. Later chapters are related to the application of the topology optimization method and axial rotating heat pipe in high-speed precision machine tools.
1. Chapter 1. Introduction - p. 1 2. Chapter 2. Theoretical modeling and prediction of contact thermal conductance of bearing contact interfaces - p. 155 3. Abstract - p. 155 4. 2.1 Overview - p. 155 5. 2.2 Microscopic morphology characterization and fractal parameter identification - p. 157 6. 2.3 Multiscale contact mechanics modeling of angular contact ball bearing interface - p. 177 7. 2.4 Modeling for thermal contact conductance - p. 206 8. 2.5 Experimental study on thermal contact resistance - p. 224 9. 2.6 Results and discussion - p. 228 10. References - p. 272 11. Chapter 3. Heat generation mechanism analysis and transient thermal characteristics simulation of high-speed spindle system - p. 275 12. Chapter 4. Thermal-structure interaction characteristics simulation and modeling - p. 315 13. Chapter 5. Thermal boundary conditions optimization based on response surface analysis - p. 371 14. Chapter 6. Thermal error measurement, modeling, and compensation of ball screw feed drive system with fixed-fixed installation - p. 411 15. Chapter 7. Multiobjective topology optimization method of cooling plate and cooling water jacket toward precision machine tool heat dissipation and thermal error control - p. 463 16. Chapter 8. Effect of gas liquid phase change of axial rotating heat pipe, sintered core rotating heat pipe, and closed loop pulsating heat pipe on fluid thermal solid behaviors of high speed spindle - p. 567 17. Index - p. 651
