The atomic force microscopy (AFM)-based nanomachining of nanochannels on silicon oxide surfaces is investigated both theoretically and experimentally. The relationships of nanochannel depth versus cutting velocity, nanochannel depth versus normal force, friction force versus cutting velocity, and friction force versus normal force are systematically studied. Using the derived theory and fabrication method, a nanochannel with an expected depth can be machined simply by controlling the vertical deflection signal on the position sensitive detector of AFM. The theoretical analysis and fabrication method can be effectively used for AFM-based fabrication of nanochannels
The growing interest in the physics of fluidic flow in nanoscale channels, as well as the possibilit...
The growing interest in the physics of fluidic flow in nanoscale channels, as well as the possibilit...
Atomic force microscopy (AFM) lithography was applied to produce nanoscale pattern for silicon nanow...
The atomic force microscopy (AFM)-based nanomachining of nanochannels on silicon oxide surfaces is i...
The atomic force microscopy (AFM)-based repeated nanomachining of nanochannels on silicon oxide surf...
An experimental study was conducted to investigate the feasibility of fabricating relatively long na...
The atomic force microscopy (AFM)-based repeated nanomachining of nanochannels on silicon oxide surf...
A silicon nanochannel system with integrated transverse electrodes was designed and fabricated by co...
A silicon nanochannel system with integrated transverse electrodes was designed and fabricated by co...
The present paper proposes using atomic force microscopy (AFM) and the concept of specific down forc...
poster abstractRecent developments in science and engineering have advanced the atomic manufacture o...
A silicon nanochannel system with integrated transverse electrodes was designed and fabricated by co...
A silicon nanochannel system with integrated transverse electrodes was designed and fabricated by co...
Atomic force microscopy (AFM) has been used for tribological studies of silicon surfaces both with a...
Atomic force microscopy (AFM) has been used for tribological studies of silicon surfaces both with a...
The growing interest in the physics of fluidic flow in nanoscale channels, as well as the possibilit...
The growing interest in the physics of fluidic flow in nanoscale channels, as well as the possibilit...
Atomic force microscopy (AFM) lithography was applied to produce nanoscale pattern for silicon nanow...
The atomic force microscopy (AFM)-based nanomachining of nanochannels on silicon oxide surfaces is i...
The atomic force microscopy (AFM)-based repeated nanomachining of nanochannels on silicon oxide surf...
An experimental study was conducted to investigate the feasibility of fabricating relatively long na...
The atomic force microscopy (AFM)-based repeated nanomachining of nanochannels on silicon oxide surf...
A silicon nanochannel system with integrated transverse electrodes was designed and fabricated by co...
A silicon nanochannel system with integrated transverse electrodes was designed and fabricated by co...
The present paper proposes using atomic force microscopy (AFM) and the concept of specific down forc...
poster abstractRecent developments in science and engineering have advanced the atomic manufacture o...
A silicon nanochannel system with integrated transverse electrodes was designed and fabricated by co...
A silicon nanochannel system with integrated transverse electrodes was designed and fabricated by co...
Atomic force microscopy (AFM) has been used for tribological studies of silicon surfaces both with a...
Atomic force microscopy (AFM) has been used for tribological studies of silicon surfaces both with a...
The growing interest in the physics of fluidic flow in nanoscale channels, as well as the possibilit...
The growing interest in the physics of fluidic flow in nanoscale channels, as well as the possibilit...
Atomic force microscopy (AFM) lithography was applied to produce nanoscale pattern for silicon nanow...