Emerging Devices for Low-Power and High-Performance Nanosystems
Physics, Novel Functions, and Data Processing

Pan Stanford Series on Intelligent Nanosystems Series

Coordinator: Deleonibus Simon

Language: Anglais
Cover of the book Emerging Devices for Low-Power and High-Performance Nanosystems

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· 15.2x22.9 cm · Hardback

The history of information and communications technologies (ICT) has been paved by both evolutive paths and challenging alternatives, so-called emerging devices and architectures. Their introduction poses the issues of state variable definition, information processing, and process integration in 2D, above IC, and in 3D.

This book reviews the capabilities of integrated nanosystems to match low power and high performance either by hybrid and heterogeneous CMOS in 2D/3D or by emerging devices for alternative sensing, actuating, data storage, and processing. The choice of future ICTs will need to take into account not only their energy efficiency but also their sustainability in the global ecosystem.

Introduction: Cramming More Functions in an Integrated System for a Sustainable Information Technology World

Simon Deleonibus 

Part 1: Hybrid and Heterogeneous CMOS for Ultralow-Power Data Processing 

1. The Junctionless Transistor

Jean-Pierre Colinge 

2. Several Challenges in Steep-Slope Tunnel Field-Effect Transistors

Katsuhiro Tomioka  

3. Nanoelectromechanical Switches

Chuang Qian and Tsu-Jae King Liu 

4. Adiabatic Solutions for Ultralow-Power Electronics

Hervé FanetFrance 

Part 2: Revised Actuation, Sensing, and Data Storage Modes in Emerging Devices for Alternative Computing 

5. Control of Single Spin in CMOS Devices and Its Application for Quantum Bits

R. Maurand et al. 

6. Physically Defined Coupled Silicon Quantum Dots Containing Few Electrons for Electron Spin Qubits

Tetsuo Kodera, Kosuke Horibe, Shunri Oda 

7. Oxide Memristor and Applications

Mingyi Rao, Rivu Midya, and J. Joshua Yang 

8. Resistive Memories for Spike-Based Neuromorphic Circuits

E. Vianello et al. 

9. Nanomagnet Logic: Routes to Enhanced Dot-Dot Coupling

H. Dey et al.