Architecture and design of molecule logic gates and atom circuits :
General Material Designation
[Book]
Other Title Information
proceedings of the 2nd AtMol European Workshop
First Statement of Responsibility
Nicolas Lorente, Christian Joachim.
.PUBLICATION, DISTRIBUTION, ETC
Place of Publication, Distribution, etc.
Heidelberg ; New York ; Dordrecht ; London
Name of Publisher, Distributor, etc.
Springer, [
Date of Publication, Distribution, etc.
2013]
PHYSICAL DESCRIPTION
Specific Material Designation and Extent of Item
ix, 290 pages : illustrations (some color) ; 24 cm
SERIES
Series Title
Advances in atom and single molecule machines.
CONTENTS NOTE
Text of Note
Architecture at the End of Moore.- MOLECULAR DEVICES FOR CLASSICAL LOGIC.- Towards Post-CMOS Molecular logic devices.- Quantum interference effects in electron transport: How to select suitable molecules for logic gates and thermoelectric devices.- Mapping electron transport pathways in complex systems.- Switching mechanisms for single molecule logic gates.- PTM radicals for molecular-based electronic devices.- Vibrational heating in Single Molecule.- Heat Dissipation in Molecular Junctions: linking Molecules to Macroscopic Contacts.- MOLECULE-CIRCUITS.- Classical Logic in a Single Molecule.- Modelling and simulation of electron transport at the nanoscale: illustrations in low-dimensional carbon nanostructures.- First-principles simulations of electronic transport in dangling-bond wires.- Dangling Bond Logic: Designing Boolean Logic Gates on a Si(001)-(2x1):H surface.- Large dangling bond electronic circuits with supporting surface and contacting nano-pads.- A model for inelastic transport through atomic surface wires.- QUANTUM CONTROLLED LOGIC GATES.- Single molecule can calculate 1000 times faster than supercomputers.- Realization of complex logic operations at the nanoscale.- Binary full adder in a single quantum system parallelization using the Quantum Hamiltonian Computing approach.- MOLECULAR QUBITS.- A controlled Quantum SWAP logic gate in a 4-Center metal complex.- Molecular prototypes for spin-based quantum logic gates.- Implementing quantum gates and algorithms in ultracold polar molecules..- Towards Post-CMOS Molecular logic devices.- Quantum interference effects in electron transport: How to select suitable molecules for logic gates and thermoelectric devices.- Mapping electron transport pathways in complex systems.- Switching mechanisms for single molecule logic gates.- PTM radicals for molecular-based electronic devices.- Vibrational heating in Single Molecule.- Heat Dissipation in Molecular Junctions: linking Molecules to Macroscopic Contacts.- MOLECULE-CIRCUITS.- Classical Logic in a Single Molecule.- Modelling and simulation of electron transport at the nanoscale: illustrations in low-dimensional carbon nanostructures.- First-principles simulations of electronic transport in dangling-bond wires.- Dangling Bond Logic: Designing Boolean Logic Gates on a Si(001)-(2x1):H surface.- Large dangling bond electronic circuits with supporting surface and contacting nano-pads.- A model for inelastic transport through atomic surface wires.- QUANTUM CONTROLLED LOGIC GATES.- Single molecule can calculate 1000 times faster than supercomputers.- Realization of complex logic operations at the nanoscale.- Binary full adder in a single quantum system parallelization using the Quantum Hamiltonian Computing approach.- MOLECULAR QUBITS.- A controlled Quantum SWAP logic gate in a 4-Center metal complex.- Molecular prototypes for spin-based quantum logic gates.- Implementing quantum gates and algorithms in ultracold polar molecules.