Architecture and Design of Molecule Logic Gates and Atom Circuits

Chapter 1 Architecture at the End of Moore

Chapter 2 Towards Post-CMOS Molecular Logic Devices

Chapter 3 Architecture and Design of Molecule Logic Gates and Atom Circuits

Chapter 4 Mapping Electron Transport Pathways in Complex Systems

Chapter 5 Switching Mechanisms for Single-Molecule Logic Gates

Chapter 6 PTM Radicals for Molecular-Based Electronic Devices

Chapter 7 Vibrational Heating in Single-Molecule Switches

Chapter 8 Heat Dissipation in Molecular Junctions: Linking Molecules to Macroscopic Contacts

Chapter 9 Classical Logic in a Single Molecule

Chapter 10 Modeling and Simulation of Electron Transport at the Nanoscale: Illustrations in Low-Dimensional Carbon Nanostructures

Chapter 11 First-Principles Simulations of Electronic Transport in Dangling-Bond Wires

Chapter 12 Dangling-Bond Logic: Designing Boolean Logic Gates on a Si(001)-(2x1):H Surface

Chapter 13 Dangling-Bond Wire Circuits on a Si(001)-(2x1):H Surface with Their Contacting Nanopads

Chapter 14 Theory of Inelastic Transport Through Atomic Surface Wires

Chapter 15 Single Molecule Can Calculate 1,000 Times Faster than Supercomputers

Chapter 16 Realization of Complex Logic Operations at the Nanoscale

Chapter 17 Binary Full-Adder in a Single Quantum System

Chapter 18 A Controlled Quantum SWAP Logic Gate in a 4-center Metal Complex

Chapter 19 Artificial Molecular Nanomagnets as Spin-Based Quantum Logic Gates

Chapter 20 Toward a Molecular Ion Qubit

Chapter 21 Implementing Quantum Gates and Algorithms in Ultracold Polar Molecules