Nanoelectronics: Physics, Materials and Devices addresses the concepts involved in the exploration of research on nanoscale electronics and photonic devices and their application in next-generation integrated circuits (ICs). The book presents a detailed discussion on the field of nanoscale electronic and photonic devices, as well as the most recent techniques for the modeling and simulation of these devices. It provides an in-depth analysis of theoretical frameworks, the fundamental physics underlying device operation, computational modeling, simulation methods, and circuit applications of nanoscale devices. The purpose of this book is to provide a desirable balance between basic background and concepts to improve device performance.
In this book, both qualitative and quantitative approaches are considered to analyze and explore the contributions made by various researchers actively engaged in nanoscale device research. The book's main motivation is to help solve the challenges of analyzing and exploring the electrical behaviors of contemporary nanoscale device technologies. It purposefully builds the principles of nano electronic devices gradually, invigorating those of micro electronic devices.
1. Nanoelectronics: Physics, Materials, and Devices - p. i 2. Cover - p. i 3. Title Page - p. iii 4. Copyright Page - p. iv 5. Contents - p. v 6. List of contributors - p. xv 7. Preface - p. xix 8. Chapter 1 Basics concepts of device physics - p. 1 9. Chapter 2 Scaling the MOSFET: detrimental short channel effects and mitigation techniques - p. 11 10. Chapter 3 Alternate device architectures to mitigate challenges - p. 39 11. Chapter 4 Emerging field effect transistor architectures—part I - p. 63 12. Chapter 5 Emerging FET architectures—part II - p. 95 13. Chapter 6 Novel materials-based devices to mitigate challenges - p. 119 14. Chapter 7 End of the road map: quest for beyond Si CMOS era - p. 159 15. Chapter 8 Low dimensional materials in nanoelectronics - p. 173 16. Chapter 9 An overview of nanoscale device fabrication technology—part I - p. 193 17. Chapter 10 An overview of nanoscale device fabrication technology—part II - p. 215 18. Chapter 11 Flexible electronics and devices with new materials - p. 237 19. Chapter 12 Emerging non-CMOS devices and technologies - p. 263 20. Chapter 13 Emerging memories and their applications in neuromorphic computing - p. 305 21. Chapter 14 Application of nanoscale devices in circuits - p. 359 22. Chapter 15 Analytical modeling of nanoscale advance devices and their reliability aspects - p. 385 23. Chapter 16 TCAD simulation of emerging nanoscale devices - p. 409 24. Chapter 17 Advanced materials for smart devices - p. 457 25. Chapter 18 Internet-of-Thing-enabled energy systems: architectures, issues, and challenges - p. 487 26. Index - p. 507
Nanoelectronics: Physics, Materials and Devices addresses the concepts involved in the exploration of research on nanoscale electronics and photonic devices and their application in next-generation integrated circuits (ICs). The book presents a detailed discussion on the field of nanoscale electronic and photonic devices, as well as the most recent techniques for the modeling and simulation of these devices. It provides an in-depth analysis of theoretical frameworks, the fundamental physics underlying device operation, computational modeling, simulation methods, and circuit applications of nanoscale devices. The purpose of this book is to provide a desirable balance between basic background and concepts to improve device performance.
In this book, both qualitative and quantitative approaches are considered to analyze and explore the contributions made by various researchers actively engaged in nanoscale device research. The book's main motivation is to help solve the challenges of analyzing and exploring the electrical behaviors of contemporary nanoscale device technologies. It purposefully builds the principles of nano electronic devices gradually, invigorating those of micro electronic devices.
1. Nanoelectronics: Physics, Materials, and Devices - p. i 2. Cover - p. i 3. Title Page - p. iii 4. Copyright Page - p. iv 5. Contents - p. v 6. List of contributors - p. xv 7. Preface - p. xix 8. Chapter 1 Basics concepts of device physics - p. 1 9. Chapter 2 Scaling the MOSFET: detrimental short channel effects and mitigation techniques - p. 11 10. Chapter 3 Alternate device architectures to mitigate challenges - p. 39 11. Chapter 4 Emerging field effect transistor architectures—part I - p. 63 12. Chapter 5 Emerging FET architectures—part II - p. 95 13. Chapter 6 Novel materials-based devices to mitigate challenges - p. 119 14. Chapter 7 End of the road map: quest for beyond Si CMOS era - p. 159 15. Chapter 8 Low dimensional materials in nanoelectronics - p. 173 16. Chapter 9 An overview of nanoscale device fabrication technology—part I - p. 193 17. Chapter 10 An overview of nanoscale device fabrication technology—part II - p. 215 18. Chapter 11 Flexible electronics and devices with new materials - p. 237 19. Chapter 12 Emerging non-CMOS devices and technologies - p. 263 20. Chapter 13 Emerging memories and their applications in neuromorphic computing - p. 305 21. Chapter 14 Application of nanoscale devices in circuits - p. 359 22. Chapter 15 Analytical modeling of nanoscale advance devices and their reliability aspects - p. 385 23. Chapter 16 TCAD simulation of emerging nanoscale devices - p. 409 24. Chapter 17 Advanced materials for smart devices - p. 457 25. Chapter 18 Internet-of-Thing-enabled energy systems: architectures, issues, and challenges - p. 487 26. Index - p. 507
