Direct detection by atomic force microscopy of single bond forces associated with the rupture of discrete charge-transfer complexes

Medicine & Life Sciences

• tetracyanoquinodimethane 100%
• Tetramethylphenylenediamine 95%
• single bond 66%
• Atomic Force Microscopy 54%
• Rupture 38%
• Electrons 15%
• 1,4-cyclohexadiene 13%
• 4-phenylenediamine 9%
• Surface Tension 8%
• Thermodynamics 7%
• Hydrogen Bonding 7%
• Periodicity 7%
• Disulfides 6%
• Mechanics 6%

Engineering & Materials Science

• Self assembled monolayers 70%
• Charge transfer 57%
• Chemical bonds 40%
• Electrons 27%
• Substrates 25%
• Hydrogen bonds 12%
• Functional groups 11%
• Surface tension 9%
• Mechanics 7%
• Thermodynamics 7%
• Derivatives 7%
• Experiments 3%

Chemical Compounds

• Single Bond 48%
• Atomic Force Microscopy 35%
• Tetracyanoquinodimethane 30%
• Force 30%
• Self Assembled Monolayer 17%
• Chemical Bond 13%
• Charge Transfer Interaction 5%
• Mechanics 5%
• Bond Energy 5%
• Electron Acceptor 4%
• Solvent 4%
• Electron Donor 4%
• Disulfide 3%
• Donor 3%
• Thermodynamics 2%
• Probe 2%
• Hydrogen Bond 2%
• Electron Particle 2%