Using the technique of differential phase contrast (DPC) Lorentz electron microscopy, the magnetic stray field distribution from magnetic force microscopy (MFM) tips can be calculated in a plane in front of the tip using tomographic reconstruction techniques. Electrostatic charging of the tip during DPC imaging can significantly distort these field reconstructions. Using a simple point charge model, this paper illustrates the effect of electrostatic charging of the sample on the accuracy of tomographic field reconstructions. A procedure for separating electrostatic and magnetic effects is described, and is demonstrated using experimental tomographic data obtained from a modified MFM tip
The stray field, magnetic microstructure, and switching behavior of high‐resolution electron beam fa...
The stray field, magnetic microstructure, and switching behavior of high‐resolution electron beam fa...
The theory of vector field electron tomography, the reconstruction of the three-dimensional magnetic...
Using the technique of differential phase contrast (DPC) Lorentz electron microscopy, the magnetic s...
The work presented in this thesis is a study of the magnetic properties of various magnetic force mi...
Lorentz electron microscopy has been applied to the study of the magnetic field distribution from MF...
The study of stray magnetic fields from magnetic recording heads for tape applications was undertake...
The quantitative evaluation of inductive recording head fields has been achieved by electron beam to...
Magnetic force microscope (MFM) tips coated with an amorphous ferromagnetic alloy have been studied ...
In this article we present results and analysis from measurements of the field distributions from st...
Quantitative analysis of magnetic force microscope (MFM) images is only possible if the magnetic sta...
Lorentz TEM observations of magnetic nanoparticles contain information on the magnetic and electrost...
We present results from an aberration corrected scanning transmission electron microscope which has ...
Vector field electron tomography is a relatively new technique for quantitative three-dimensional im...
The work described in this thesis is focused on the fabrication and understanding of the characteris...
The stray field, magnetic microstructure, and switching behavior of high‐resolution electron beam fa...
The stray field, magnetic microstructure, and switching behavior of high‐resolution electron beam fa...
The theory of vector field electron tomography, the reconstruction of the three-dimensional magnetic...
Using the technique of differential phase contrast (DPC) Lorentz electron microscopy, the magnetic s...
The work presented in this thesis is a study of the magnetic properties of various magnetic force mi...
Lorentz electron microscopy has been applied to the study of the magnetic field distribution from MF...
The study of stray magnetic fields from magnetic recording heads for tape applications was undertake...
The quantitative evaluation of inductive recording head fields has been achieved by electron beam to...
Magnetic force microscope (MFM) tips coated with an amorphous ferromagnetic alloy have been studied ...
In this article we present results and analysis from measurements of the field distributions from st...
Quantitative analysis of magnetic force microscope (MFM) images is only possible if the magnetic sta...
Lorentz TEM observations of magnetic nanoparticles contain information on the magnetic and electrost...
We present results from an aberration corrected scanning transmission electron microscope which has ...
Vector field electron tomography is a relatively new technique for quantitative three-dimensional im...
The work described in this thesis is focused on the fabrication and understanding of the characteris...
The stray field, magnetic microstructure, and switching behavior of high‐resolution electron beam fa...
The stray field, magnetic microstructure, and switching behavior of high‐resolution electron beam fa...
The theory of vector field electron tomography, the reconstruction of the three-dimensional magnetic...