We propose a novel method to detect and correct drift in non-raster scanning probe microscopy. In conventional raster scanning drift is usually corrected by subtracting a fitted polynomial from each scan line, but sample tilt or large topographic features can result in severe artifacts. Our method uses self-intersecting scan paths to distinguish drift from topographic features. Observing the height differences when passing the same position at different times enables the reconstruction of a continuous function of drift. We show that a small number of self-intersections is adequate for automatic and reliable drift correction. Additionally, we introduce a fitness function which provides a quantitative measure of drift correctability for any a...
Because of the presence of thermal drift, AFM (atomic force microscopy) images are always contaminat...
This Ph.D. project is aimed at developing and validating techniques for successful use of Atomic For...
Nanomanipulation and nanoimaging with Atomic Force Microscopes (AFM) is a popular technique for nano...
AbstractWe propose a novel method to detect and correct drift in non-raster scanning probe microscop...
We propose a novel method to detect and correct drift in non-raster scanning probe microscopy. In co...
We propose a novel method to detect and correct drift in non-raster scanning probe microscopy. In co...
AbstractWe propose a novel method to detect and correct drift in non-raster scanning probe microscop...
An experimentally proved method for the automatic correction of drift-distorted surface topography o...
The paper presents implementation and validation of a method for accurate imaging of three-dimension...
Thermal drift in atomic force microscopy (AFM) is one of the major hurdles to achieve accurate and e...
Thermal drift in atomic force microscopy (AFM) is one of the major hurdles to achieve accurate and e...
Thermal drift in atomic force microscopy (AFM) is one of the major hurdles to achieve accurate and e...
The system drift causes the AFM tip to stochastically displacement in the sample surface of substrat...
The system drift causes the AFM tip to stochastically displacement in the sample surface of substrat...
Because of the presence of thermal drift, AFM (atomic force microscopy) images are always contaminat...
Because of the presence of thermal drift, AFM (atomic force microscopy) images are always contaminat...
This Ph.D. project is aimed at developing and validating techniques for successful use of Atomic For...
Nanomanipulation and nanoimaging with Atomic Force Microscopes (AFM) is a popular technique for nano...
AbstractWe propose a novel method to detect and correct drift in non-raster scanning probe microscop...
We propose a novel method to detect and correct drift in non-raster scanning probe microscopy. In co...
We propose a novel method to detect and correct drift in non-raster scanning probe microscopy. In co...
AbstractWe propose a novel method to detect and correct drift in non-raster scanning probe microscop...
An experimentally proved method for the automatic correction of drift-distorted surface topography o...
The paper presents implementation and validation of a method for accurate imaging of three-dimension...
Thermal drift in atomic force microscopy (AFM) is one of the major hurdles to achieve accurate and e...
Thermal drift in atomic force microscopy (AFM) is one of the major hurdles to achieve accurate and e...
Thermal drift in atomic force microscopy (AFM) is one of the major hurdles to achieve accurate and e...
The system drift causes the AFM tip to stochastically displacement in the sample surface of substrat...
The system drift causes the AFM tip to stochastically displacement in the sample surface of substrat...
Because of the presence of thermal drift, AFM (atomic force microscopy) images are always contaminat...
Because of the presence of thermal drift, AFM (atomic force microscopy) images are always contaminat...
This Ph.D. project is aimed at developing and validating techniques for successful use of Atomic For...
Nanomanipulation and nanoimaging with Atomic Force Microscopes (AFM) is a popular technique for nano...