A Nanoscope III atomic force microscope (AFM) was used to measure the friction between glassy carbon microspheres, glued to the AFM cantilever, and flat surfaces of silicon, carbon, steel and silver. The measured friction data was fitted using the Derjaguin-Müller-Toporov (DMT) model. The work of adhesion between the spheres and the surfaces ranged from 0.45 mNm⁻¹ for the carbon surface to 19 mNm⁻¹ for the silicon surface. The work of adhesion was found to be proportional to the interfacial shear strength for silver, steel and carbon
This report briefly reviews the measurements and interpretation of adhesion forces between microscop...
The tribological characteristics of diamond-like carbon (DLC) films have been studied by lateral for...
The atomic force microscope (AFM) is designed to provide high-resolution (in the ideal case, atomic)...
The authors describe a novel approach to the measurement of nanofriction, and demonstrate the applic...
Friction between nanoscale objects has been a subject of great interest and intense research effort ...
Surface chemistry impacts technology, advancing the development of new heterogeneous catalysts, semi...
The atomic force microscope (AFM) allows investigation of the properties of surfaces and interfaces ...
We have characterized the frictional properties of nanostructured carbon films grown by supersonic c...
Surfaces tend to be made smoother in order to gain flatness or in order to fulfill the need for more...
Friction of graphite and diamond surfaces against a sharp silicon nitride tip was measured using a f...
Adhesion is an important surface phenomenon that controls many physical events in nature and technol...
An atomic force microscope (AFM) operating in the lateral (frictional) force mode (LFM) was used to ...
Many technological processes demand for a detailed understanding of tribology at the nanoscale. Par...
Friction force measurements using modified atomic force microscopy, called here Friction Force Micro...
Adhesion assessment of nanoscale contacts is a critical capability for the development of future nan...
This report briefly reviews the measurements and interpretation of adhesion forces between microscop...
The tribological characteristics of diamond-like carbon (DLC) films have been studied by lateral for...
The atomic force microscope (AFM) is designed to provide high-resolution (in the ideal case, atomic)...
The authors describe a novel approach to the measurement of nanofriction, and demonstrate the applic...
Friction between nanoscale objects has been a subject of great interest and intense research effort ...
Surface chemistry impacts technology, advancing the development of new heterogeneous catalysts, semi...
The atomic force microscope (AFM) allows investigation of the properties of surfaces and interfaces ...
We have characterized the frictional properties of nanostructured carbon films grown by supersonic c...
Surfaces tend to be made smoother in order to gain flatness or in order to fulfill the need for more...
Friction of graphite and diamond surfaces against a sharp silicon nitride tip was measured using a f...
Adhesion is an important surface phenomenon that controls many physical events in nature and technol...
An atomic force microscope (AFM) operating in the lateral (frictional) force mode (LFM) was used to ...
Many technological processes demand for a detailed understanding of tribology at the nanoscale. Par...
Friction force measurements using modified atomic force microscopy, called here Friction Force Micro...
Adhesion assessment of nanoscale contacts is a critical capability for the development of future nan...
This report briefly reviews the measurements and interpretation of adhesion forces between microscop...
The tribological characteristics of diamond-like carbon (DLC) films have been studied by lateral for...
The atomic force microscope (AFM) is designed to provide high-resolution (in the ideal case, atomic)...