Complementary Metal-Oxide-Semiconductor (CMOS) nanoelectronics are approaching their physical limits, leading to issues such as excessive leakage and increased power consumption. New materials, computing methods, and state variables are being investigated to solve these issues. These emerging technologies embrace a wide range of cutting-edge developments aimed at surpassing the physical constraints of traditional CMOS devices. This research is vital for enabling future computing abilities, particularly in devices that could serve new functions in fields such as artificial intelligence and quantum information processing.
Providing an engaging and clear perspective on the future of nanoelectronics, this book will be a valuable reference for graduate students specializing in electrical engineering, computer engineering, materials science, and physics, as well as for university instructors delivering advanced coursework on nanoelectronics, VLSI design, and solid-state devices. Professional engineers and designers in the semiconductor field who wish to stay up to date on new technologies, as well as investigators in nanoelectronics and semiconductor technology, will also find it useful.
Key features:
- Explains why conventional CMOS scaling is reaching its physical and technological limits and outlines new approaches necessary to improve performance.
- Highlights the importance of moving beyond electric-charge-based computing to explore alternative properties such as electron spin, for information storage and processing.
- Bridges the gap between devices and systems by integrating the core physics and materials science of devices with high-level architectural design and advanced packaging techniques.
This book offers an in-depth examination of the challenges associated with conventional CMOS technology, outlining the obstacles and issues encountered with traditional CMOS scaling, including power and energy consumption, as well as variability, and highlighting the necessity for alternative technologies. It presents possible successor technologies to CMOS, including emerging logic devices, memory chips, compute-in-memory architectures, new materials, and integration methods. These technologies leverage alternative physical effects, including spintronics, neuromorphic computing, and quantum phenomena, and introduce novel functionalities to enhance performance.
Table of Contents:
1. Physical and Technological Limitations of CMOS Nanoelectronics. 2. Exploring Nanoelectronics Beyond CMOS Technology. 3. The Expanding Portfolio of Silicon and Supplementary Materials. 4. CMOS and Upcoming Electronic Logic Devices. 5. Spintronic Logic Devices. 6. Non-Volatile Memories. 7. Computing Architectures and Paradigms. 8. Nanofabrication Techniques. 9. Integration and Packaging. 10. Future Outlook and Research Trends.
About the Author :
Vinod Kumar Khanna, Ph. D (Physics), is an independent researcher from Chandigarh, India. He is a retired Chief Scientist from the Council of Scientific and Industrial Research (CSIR)—Central Electronics Engineering Research Institute (CEERI), Pilani, India, and a retired Professor from the Academy of Scientific and Innovative Research (AcSIR), Ghaziabad, India. He is a former Emeritus Scientist at CSIR and a Professor Emeritus at AcSIR, India. His broad research areas include the design, fabrication, and characterization of power semiconductor devices and micro- and nanosensors. He has published 194 research papers in leading peer-reviewed journals and conference proceedings. He has authored 25 books and contributed six chapters to edited books. He has five granted patents to his credit, including two US patents. He is featured in the Stanford–Elsevier prestigious list of the world’s top 2% scientists (2022, Elsevier Data Repository, V4, doi:10.17632/btchxktzyw.4). He is named as a Highly ranked Scholar -Lifetime: #2 in Nanoelectronics by ScholarGPS.
