Superlubricity
-10%
portes grátis
Superlubricity
Erdemir, Ali; Martin, Jean-Michel; Luo, Jianbin
Elsevier Science & Technology
09/2020
586
Mole
Inglês
9780444643131
15 a 20 dias
920
Descrição não disponível.
I. Introduction
II. Theoretical aspects of superlubricity
III. Evidencing superlubricity at atomic-to-nanoscales (experiments and simulations)
IV. Superlubricty of lamellar solids (i.e., MeS2, graphite, coatings etc.) and other 2D materials
V. Superlubricity of carbon-based coatings (H-mediated superlubricity)
VI. Approaching superlubricity under liquid conditions and boundary lubrication
VII. Other systems where superlubricity has been observed or achieved
II. Theoretical aspects of superlubricity
III. Evidencing superlubricity at atomic-to-nanoscales (experiments and simulations)
IV. Superlubricty of lamellar solids (i.e., MeS2, graphite, coatings etc.) and other 2D materials
V. Superlubricity of carbon-based coatings (H-mediated superlubricity)
VI. Approaching superlubricity under liquid conditions and boundary lubrication
VII. Other systems where superlubricity has been observed or achieved
Este título pertence ao(s) assunto(s) indicados(s). Para ver outros títulos clique no assunto desejado.
2D heterostructure; 2D materials; 60NiTi alloy; Ab initio molecular dynamics; Acid-based lubricants; Active control; Amorphous carbon; Aqueous suspension; Atomic force microscopy; Atomistic friction model; Atomistics of friction; Biological mucus; Black phosphorus; Boundary lubrication; Carbon; Carbon nitride; Chaos; Coating; Computational chemistry; Confined interfaces; Damping; Degradation; Density functional theory; Diamond-like carbon; Diamond-like carbon films; Dislocations; Doping effect; Edges; Electrical potential; Electrochemistry; Electronic dissipation; Energy dissipation; Environmental effect; Frenkel-Kontorova model; Friction; Friction energy dissipation; Friction laws; Fullerene-like; Fundamental mechanisms; Glycerol; Graphene; Graphene oxide; Graphite-like; Green superlubricity; Heterojunction; Humidity effects; Hydration; Hydrogels; Inert gas; Interfacial nanostructure; Interfacial rheology; Interlayer sliding; Ionic liquids; Lamella elasticity; Large scale; Layered double hydroxide; Liquid superlubricity; Lubricant additive; Lubrication; MoDTC; MoS2; Molecular behavior; Molecular dynamics; Molecules; Molecules orientation measurement; Molybdenum disulfides; Multicontact model; Nano manipulation; Nanodiamond; Nanotribology; Noble metals; Nonaqueous liquid; Nonlinear dynamics; Onion-like; Oxygen concentration; Phase transformation; Phononic dissipation; Phospholipids; Polishing; Polyhydroxyl group lubricants; Polymer brushes; QM/MM; Quantum chemistry; Relative humidity; Relaxation; Robust superlubricity; Run in; Self-organization; Shear localization; Solid lubricants; Solid superlubricity; Structural superlubricity; Structure; Superlow friction; Superlubricity; Surface chemistry; Surface passivation; Surfactant; Surfactant micelles; Ta-C
I. Introduction
II. Theoretical aspects of superlubricity
III. Evidencing superlubricity at atomic-to-nanoscales (experiments and simulations)
IV. Superlubricty of lamellar solids (i.e., MeS2, graphite, coatings etc.) and other 2D materials
V. Superlubricity of carbon-based coatings (H-mediated superlubricity)
VI. Approaching superlubricity under liquid conditions and boundary lubrication
VII. Other systems where superlubricity has been observed or achieved
II. Theoretical aspects of superlubricity
III. Evidencing superlubricity at atomic-to-nanoscales (experiments and simulations)
IV. Superlubricty of lamellar solids (i.e., MeS2, graphite, coatings etc.) and other 2D materials
V. Superlubricity of carbon-based coatings (H-mediated superlubricity)
VI. Approaching superlubricity under liquid conditions and boundary lubrication
VII. Other systems where superlubricity has been observed or achieved
Este título pertence ao(s) assunto(s) indicados(s). Para ver outros títulos clique no assunto desejado.
2D heterostructure; 2D materials; 60NiTi alloy; Ab initio molecular dynamics; Acid-based lubricants; Active control; Amorphous carbon; Aqueous suspension; Atomic force microscopy; Atomistic friction model; Atomistics of friction; Biological mucus; Black phosphorus; Boundary lubrication; Carbon; Carbon nitride; Chaos; Coating; Computational chemistry; Confined interfaces; Damping; Degradation; Density functional theory; Diamond-like carbon; Diamond-like carbon films; Dislocations; Doping effect; Edges; Electrical potential; Electrochemistry; Electronic dissipation; Energy dissipation; Environmental effect; Frenkel-Kontorova model; Friction; Friction energy dissipation; Friction laws; Fullerene-like; Fundamental mechanisms; Glycerol; Graphene; Graphene oxide; Graphite-like; Green superlubricity; Heterojunction; Humidity effects; Hydration; Hydrogels; Inert gas; Interfacial nanostructure; Interfacial rheology; Interlayer sliding; Ionic liquids; Lamella elasticity; Large scale; Layered double hydroxide; Liquid superlubricity; Lubricant additive; Lubrication; MoDTC; MoS2; Molecular behavior; Molecular dynamics; Molecules; Molecules orientation measurement; Molybdenum disulfides; Multicontact model; Nano manipulation; Nanodiamond; Nanotribology; Noble metals; Nonaqueous liquid; Nonlinear dynamics; Onion-like; Oxygen concentration; Phase transformation; Phononic dissipation; Phospholipids; Polishing; Polyhydroxyl group lubricants; Polymer brushes; QM/MM; Quantum chemistry; Relative humidity; Relaxation; Robust superlubricity; Run in; Self-organization; Shear localization; Solid lubricants; Solid superlubricity; Structural superlubricity; Structure; Superlow friction; Superlubricity; Surface chemistry; Surface passivation; Surfactant; Surfactant micelles; Ta-C
