Functional Materials and Advanced Manufacturing

Table of contents

1. Cover
2. Volume 1
   1. Cover
   2. Half Title
   3. Series Page
   4. Title Page
   5. Copyright Page
   6. Contents
   7. Preface
   8. Editors
   9. Contributors
   10. Chapter 1 Electrochromics for Smart Windows: Oxide-Based Thin Films (1/4)
   11. Chapter 1 Electrochromics for Smart Windows: Oxide-Based Thin Films (2/4)
   12. Chapter 1 Electrochromics for Smart Windows: Oxide-Based Thin Films (3/4)
   13. Chapter 1 Electrochromics for Smart Windows: Oxide-Based Thin Films (4/4)
   14. Chapter 2 Polymeric Biomaterials in Tissue Engineering (1/4)
   15. Chapter 2 Polymeric Biomaterials in Tissue Engineering (2/4)
   16. Chapter 2 Polymeric Biomaterials in Tissue Engineering (3/4)
   17. Chapter 2 Polymeric Biomaterials in Tissue Engineering (4/4)
   18. Chapter 3 Amorphous Semiconductors: Past, Present, and Future (1/6)
   19. Chapter 3 Amorphous Semiconductors: Past, Present, and Future (2/6)
   20. Chapter 3 Amorphous Semiconductors: Past, Present, and Future (3/6)
   21. Chapter 3 Amorphous Semiconductors: Past, Present, and Future (4/6)
   22. Chapter 3 Amorphous Semiconductors: Past, Present, and Future (5/6)
   23. Chapter 3 Amorphous Semiconductors: Past, Present, and Future (6/6)
   24. Chapter 4 Promise of Self-lubricating Aluminum-Based Composite Material (1/4)
   25. Chapter 4 Promise of Self-lubricating Aluminum-Based Composite Material (2/4)
   26. Chapter 4 Promise of Self-lubricating Aluminum-Based Composite Material (3/4)
   27. Chapter 4 Promise of Self-lubricating Aluminum-Based Composite Material (4/4)
   28. Chapter 5 Energy Materials and Energy Harvesting (1/6)
   29. Chapter 5 Energy Materials and Energy Harvesting (2/6)
   30. Chapter 5 Energy Materials and Energy Harvesting (3/6)
   31. Chapter 5 Energy Materials and Energy Harvesting (4/6)
   32. Chapter 5 Energy Materials and Energy Harvesting (5/6)
   33. Chapter 5 Energy Materials and Energy Harvesting (6/6)
   34. Chapter 6 Advanced Processing of Superalloys for Aerospace Industries (1/3)
   35. Chapter 6 Advanced Processing of Superalloys for Aerospace Industries (2/3)
   36. Chapter 6 Advanced Processing of Superalloys for Aerospace Industries (3/3)
   37. Chapter 7 Review on Rheological Behavior of Aluminum Alloys in Semi-Solid State (1/2)
   38. Chapter 7 Review on Rheological Behavior of Aluminum Alloys in Semi-Solid State (2/2)
   39. Chapter 8 Bio-Nanomaterials: An Inevitable Contender in Tissue Engineering (1/7)
   40. Chapter 8 Bio-Nanomaterials: An Inevitable Contender in Tissue Engineering (2/7)
   41. Chapter 8 Bio-Nanomaterials: An Inevitable Contender in Tissue Engineering (3/7)
   42. Chapter 8 Bio-Nanomaterials: An Inevitable Contender in Tissue Engineering (4/7)
   43. Chapter 8 Bio-Nanomaterials: An Inevitable Contender in Tissue Engineering (5/7)
   44. Chapter 8 Bio-Nanomaterials: An Inevitable Contender in Tissue Engineering (6/7)
   45. Chapter 8 Bio-Nanomaterials: An Inevitable Contender in Tissue Engineering (7/7)
   46. Chapter 9 Biomaterials (1/6)
   47. Chapter 9 Biomaterials (2/6)
   48. Chapter 9 Biomaterials (3/6)
   49. Chapter 9 Biomaterials (4/6)
   50. Chapter 9 Biomaterials (5/6)
   51. Chapter 9 Biomaterials (6/6)
   52. Chapter 10 Characterisation and Optimisation of TiO2/CuO Nanocomposite for Effective Dye Degradation from Water under Simulated Solar Irradiation (1/3)
   53. Chapter 10 Characterisation and Optimisation of TiO2/CuO Nanocomposite for Effective Dye Degradation from Water under Simulated Solar Irradiation (2/3)
   54. Chapter 10 Characterisation and Optimisation of TiO2/CuO Nanocomposite for Effective Dye Degradation from Water under Simulated Solar Irradiation (3/3)
   55. Chapter 11 Dual Applicability of Hexagonal Pyramid-Shaped Nitrogen-Doped ZnO Composites As an Efficient Photocatalyst (1/3)
   56. Chapter 11 Dual Applicability of Hexagonal Pyramid-Shaped Nitrogen-Doped ZnO Composites As an Efficient Photocatalyst (2/3)
   57. Chapter 11 Dual Applicability of Hexagonal Pyramid-Shaped Nitrogen-Doped ZnO Composites As an Efficient Photocatalyst (3/3)
   58. Index (1/2)
   59. Index (2/2)
3. Volume 2
   1. Cover
   2. Half Title
   3. Series Page
   4. Title Page
   5. Copyright Page
   6. Contents
   7. Preface
   8. Editors
   9. Contributors
   10. Chapter 1 A Critical Review on the Machining of Engineering Materials by Die-Sinking EDM (1/5)
   11. Chapter 1 A Critical Review on the Machining of Engineering Materials by Die-Sinking EDM (2/5)
   12. Chapter 1 A Critical Review on the Machining of Engineering Materials by Die-Sinking EDM (3/5)
   13. Chapter 1 A Critical Review on the Machining of Engineering Materials by Die-Sinking EDM (4/5)
   14. Chapter 1 A Critical Review on the Machining of Engineering Materials by Die-Sinking EDM (5/5)
   15. Chapter 2 Optimization of Machining Parameters of High-Speed Toolpath to Achieve Minimum Cycle Time for Ti-6Al-4V (1/5)
   16. Chapter 2 Optimization of Machining Parameters of High-Speed Toolpath to Achieve Minimum Cycle Time for Ti-6Al-4V (2/5)
   17. Chapter 2 Optimization of Machining Parameters of High-Speed Toolpath to Achieve Minimum Cycle Time for Ti-6Al-4V (3/5)
   18. Chapter 2 Optimization of Machining Parameters of High-Speed Toolpath to Achieve Minimum Cycle Time for Ti-6Al-4V (4/5)
   19. Chapter 2 Optimization of Machining Parameters of High-Speed Toolpath to Achieve Minimum Cycle Time for Ti-6Al-4V (5/5)
   20. Chapter 3 A Review of Machinability Aspects of Difficult-to-Cut Materials Using Microtexture Patterns (1/5)
   21. Chapter 3 A Review of Machinability Aspects of Difficult-to-Cut Materials Using Microtexture Patterns (2/5)
   22. Chapter 3 A Review of Machinability Aspects of Difficult-to-Cut Materials Using Microtexture Patterns (3/5)
   23. Chapter 3 A Review of Machinability Aspects of Difficult-to-Cut Materials Using Microtexture Patterns (4/5)
   24. Chapter 3 A Review of Machinability Aspects of Difficult-to-Cut Materials Using Microtexture Patterns (5/5)
   25. Chapter 4 Micromachining (1/9)
   26. Chapter 4 Micromachining (2/9)
   27. Chapter 4 Micromachining (3/9)
   28. Chapter 4 Micromachining (4/9)
   29. Chapter 4 Micromachining (5/9)
   30. Chapter 4 Micromachining (6/9)
   31. Chapter 4 Micromachining (7/9)
   32. Chapter 4 Micromachining (8/9)
   33. Chapter 4 Micromachining (9/9)
   34. Chapter 5 A Review Study on Miniaturization—A Boon or Curse (1/5)
   35. Chapter 5 A Review Study on Miniaturization—A Boon or Curse (2/5)
   36. Chapter 5 A Review Study on Miniaturization—A Boon or Curse (3/5)
   37. Chapter 5 A Review Study on Miniaturization—A Boon or Curse (4/5)
   38. Chapter 5 A Review Study on Miniaturization—A Boon or Curse (5/5)
   39. Chapter 6 A Comprehensive Review on Similar and Dissimilar Metal Joints by Friction Welding (1/3)
   40. Chapter 6 A Comprehensive Review on Similar and Dissimilar Metal Joints by Friction Welding (2/3)
   41. Chapter 6 A Comprehensive Review on Similar and Dissimilar Metal Joints by Friction Welding (3/3)
   42. Chapter 7 3D Bioprinting in Pharmaceuticals, Medicine, and Tissue Engineering Applications (1/4)
   43. Chapter 7 3D Bioprinting in Pharmaceuticals, Medicine, and Tissue Engineering Applications (2/4)
   44. Chapter 7 3D Bioprinting in Pharmaceuticals, Medicine, and Tissue Engineering Applications (3/4)
   45. Chapter 7 3D Bioprinting in Pharmaceuticals, Medicine, and Tissue Engineering Applications (4/4)
   46. Chapter 8 Investigating on the Lapping and Polishing Process of Cylindrical Rollers (1/5)
   47. Chapter 8 Investigating on the Lapping and Polishing Process of Cylindrical Rollers (2/5)
   48. Chapter 8 Investigating on the Lapping and Polishing Process of Cylindrical Rollers (3/5)
   49. Chapter 8 Investigating on the Lapping and Polishing Process of Cylindrical Rollers (4/5)
   50. Chapter 8 Investigating on the Lapping and Polishing Process of Cylindrical Rollers (5/5)
   51. Chapter 9 NiTi Thin-Film Shape Memory Alloys and Their Industrial Application (1/5)
   52. Chapter 9 NiTi Thin-Film Shape Memory Alloys and Their Industrial Application (2/5)
   53. Chapter 9 NiTi Thin-Film Shape Memory Alloys and Their Industrial Application (3/5)
   54. Chapter 9 NiTi Thin-Film Shape Memory Alloys and Their Industrial Application (4/5)
   55. Chapter 9 NiTi Thin-Film Shape Memory Alloys and Their Industrial Application (5/5)
   56. Chapter 10 Carbon Fibers: Surface Modification Strategies and Biomedical Applications (1/4)
   57. Chapter 10 Carbon Fibers: Surface Modification Strategies and Biomedical Applications (2/4)
   58. Chapter 10 Carbon Fibers: Surface Modification Strategies and Biomedical Applications (3/4)
   59. Chapter 10 Carbon Fibers: Surface Modification Strategies and Biomedical Applications (4/4)
   60. Index (1/2)
   61. Index (2/2)
4. Volume 3
   1. Cover
   2. Half Title
   3. Series Page
   4. Title Page
   5. Copyright Page
   6. Contents
   7. Preface
   8. Editors
   9. Contributors
   10. Chapter 1 Wear Measuring Devices for Biomaterials (1/3)
   11. Chapter 1 Wear Measuring Devices for Biomaterials (2/3)
   12. Chapter 1 Wear Measuring Devices for Biomaterials (3/3)
   13. Chapter 2 Closed Form Solution for the Vibrational Analysis of Metal–Ceramic-Based Porous Functionally Graded Plate (1/4)
   14. Chapter 2 Closed Form Solution for the Vibrational Analysis of Metal–Ceramic-Based Porous Functionally Graded Plate (2/4)
   15. Chapter 2 Closed Form Solution for the Vibrational Analysis of Metal–Ceramic-Based Porous Functionally Graded Plate (3/4)
   16. Chapter 2 Closed Form Solution for the Vibrational Analysis of Metal–Ceramic-Based Porous Functionally Graded Plate (4/4)
   17. Chapter 3 Functionally Graded Structures: Design and Analysis of Tailored Advanced Composites (1/5)
   18. Chapter 3 Functionally Graded Structures: Design and Analysis of Tailored Advanced Composites (2/5)
   19. Chapter 3 Functionally Graded Structures: Design and Analysis of Tailored Advanced Composites (3/5)
   20. Chapter 3 Functionally Graded Structures: Design and Analysis of Tailored Advanced Composites (4/5)
   21. Chapter 3 Functionally Graded Structures: Design and Analysis of Tailored Advanced Composites (5/5)
   22. Chapter 4 Heat Transfer in Noncircular Microchannels Using Water and Ethylene Glycol as Base Fluids with Zn and ZnO Nanoparticles (1/4)
   23. Chapter 4 Heat Transfer in Noncircular Microchannels Using Water and Ethylene Glycol as Base Fluids with Zn and ZnO Nanoparticles (2/4)
   24. Chapter 4 Heat Transfer in Noncircular Microchannels Using Water and Ethylene Glycol as Base Fluids with Zn and ZnO Nanoparticles (3/4)
   25. Chapter 4 Heat Transfer in Noncircular Microchannels Using Water and Ethylene Glycol as Base Fluids with Zn and ZnO Nanoparticles (4/4)
   26. Chapter 5 Inufluence of Layer Thickness and Orientation on Tensile Strength and Surface Roughness of FDM-Built Parts (1/4)
   27. Chapter 5 Inufluence of Layer Thickness and Orientation on Tensile Strength and Surface Roughness of FDM-Built Parts (2/4)
   28. Chapter 5 Inufluence of Layer Thickness and Orientation on Tensile Strength and Surface Roughness of FDM-Built Parts (3/4)
   29. Chapter 5 Inufluence of Layer Thickness and Orientation on Tensile Strength and Surface Roughness of FDM-Built Parts (4/4)
   30. Chapter 6 Effect of Process Parameters on Cutting Forces and Osteonecrosis for Orthopedic Bone Drilling Applications (1/4)
   31. Chapter 6 Effect of Process Parameters on Cutting Forces and Osteonecrosis for Orthopedic Bone Drilling Applications (2/4)
   32. Chapter 6 Effect of Process Parameters on Cutting Forces and Osteonecrosis for Orthopedic Bone Drilling Applications (3/4)
   33. Chapter 6 Effect of Process Parameters on Cutting Forces and Osteonecrosis for Orthopedic Bone Drilling Applications (4/4)
   34. Chapter 7 Fabrication and Machining Methods of Composites for Aerospace Applications (1/4)
   35. Chapter 7 Fabrication and Machining Methods of Composites for Aerospace Applications (2/4)
   36. Chapter 7 Fabrication and Machining Methods of Composites for Aerospace Applications (3/4)
   37. Chapter 7 Fabrication and Machining Methods of Composites for Aerospace Applications (4/4)
   38. Chapter 8 Computational Analysis of Aerodynamics Characteristics of High-Speed Moving Vehicle (1/3)
   39. Chapter 8 Computational Analysis of Aerodynamics Characteristics of High-Speed Moving Vehicle (2/3)
   40. Chapter 8 Computational Analysis of Aerodynamics Characteristics of High-Speed Moving Vehicle (3/3)
   41. Chapter 9 Role of Finite Element Analysis in Customized Design of Kid’s Orthotic Product (1/5)
   42. Chapter 9 Role of Finite Element Analysis in Customized Design of Kid’s Orthotic Product (2/5)
   43. Chapter 9 Role of Finite Element Analysis in Customized Design of Kid’s Orthotic Product (3/5)
   44. Chapter 9 Role of Finite Element Analysis in Customized Design of Kid’s Orthotic Product (4/5)
   45. Chapter 9 Role of Finite Element Analysis in Customized Design of Kid’s Orthotic Product (5/5)
   46. Chapter 10 An Experimental Study of Mechanical and Microstructural Properties of AA7075-T6 by Using UWFSW Process (1/6)
   47. Chapter 10 An Experimental Study of Mechanical and Microstructural Properties of AA7075-T6 by Using UWFSW Process (2/6)
   48. Chapter 10 An Experimental Study of Mechanical and Microstructural Properties of AA7075-T6 by Using UWFSW Process (3/6)
   49. Chapter 10 An Experimental Study of Mechanical and Microstructural Properties of AA7075-T6 by Using UWFSW Process (4/6)
   50. Chapter 10 An Experimental Study of Mechanical and Microstructural Properties of AA7075-T6 by Using UWFSW Process (5/6)
   51. Chapter 10 An Experimental Study of Mechanical and Microstructural Properties of AA7075-T6 by Using UWFSW Process (6/6)
   52. Index (1/2)
   53. Index (2/2)