Charge Transport and Thermoelectric Properties of Carbon Sulfide Nanobelts in Single-Molecule Sensors

Engineering & Materials Science

• Nanobelts 100%
• Charge transfer 69%
• Transport properties 68%
• Sulfides 62%
• Molecules 52%
• Carbon 40%
• Bias voltage 33%
• Sensors 27%
• Nanotubes 25%
• Density functional theory 20%
• Green's function 15%
• Stark effect 13%
• Fermi level 11%
• Molecular electronics 11%
• Conduction bands 11%
• Electronic properties 10%
• Thermoelectric power 9%
• Fluorine 9%
• Chemical sensors 7%
• Carbon monoxide 7%
• Gold 7%
• Electrons 6%
• Adsorption 6%
• Sulfur 6%
• Nitrogen 6%
• Transistors 5%
• Oxygen 5%
• Modulation 5%
• Electrodes 5%
• Wire 5%

Chemical Compounds

• Thermoelectricity 59%
• Transport Property 50%
• Sulfide 42%
• Voltage 39%
• Charge Transfer 37%
• Tight Binding Model 36%
• Nanotube 32%
• Carbon Atom 25%
• Stark Effect 19%
• Density Functional Theory 16%
• Molecular Electronics 15%
• Conduction Band 14%
• Density of State 14%
• Nonequilibrium 14%
• Gas Sensor 13%
• Fluorine Atom 11%
• Carbon Monoxide 11%
• Aromatic Structure 11%
• Electronic Property 11%
• Double Bond 10%
• Probe 8%
• Nitrogen 8%
• Length 8%
• Environment 7%
• Electron Particle 7%
• Behavior as Electrode 6%
• Adsorption 6%
• Dioxygen 6%
• Energy 6%