The exploitation of low-energy electrons for examination of the material surfaces has several advantages. One of them is a small depth penetration of the primary electrons (PE) to the observed material. At low energies the charging effects on non-conductive or slightly conductive specimens are suppressed and also radiation damage of the observed specimen is decreased. Since the secondary electron (SE) yield is high, the signal to noise ratio (SNR) is about one order of magnitude larger than those in microscopes operated at 20kV
Examination of thin samples in TEM or STEM has been performed at hundreds of keV. This energy range ...
Scanning low energy electron microscopes (SLEEMs) have been built at ISI for over 20 years, either b...
This paper addresses some of the principles underpinning chemical microanalysis of bulk specimens in...
Exploitation of the low-energy electrons is advantageous for several reasons. One of them is their s...
The main aspects of the SEM performed in the low energy (below 5 keV) and very low energy (below 50 ...
The low energy scanning electron microscope (SEM) which is currently at the Institute of\nScientific...
Very low energy scanning electron microscopy is introduced as a scanning version of the low energy e...
For examination of thin films by transmitted electrons (TE) the Transmission Electron Microscope is ...
Scanning electron microscopy (SEM) represents a powerful tool for studying spatial structures in con...
Development of new types of materials such as 2D crystals (graphene, MoS2, WS2, h-BN, etc.) requires...
Observation of insulators ' surface in low voltage scanning electron microscope (SEM) becomes u...
A method of scanning electron microscopy (SEM) of nonconductive specimens, based on measurement and ...
In 1981 Prof. Sir Alec Broers suggested that the spatial limit of direct writing electron beam litho...
Recent developments in applications of the scanning very low energy electron microscopy in selected ...
The scanning electron microscope (SEM) usually operates with a beam voltage, V0, in the range of 10-...
Examination of thin samples in TEM or STEM has been performed at hundreds of keV. This energy range ...
Scanning low energy electron microscopes (SLEEMs) have been built at ISI for over 20 years, either b...
This paper addresses some of the principles underpinning chemical microanalysis of bulk specimens in...
Exploitation of the low-energy electrons is advantageous for several reasons. One of them is their s...
The main aspects of the SEM performed in the low energy (below 5 keV) and very low energy (below 50 ...
The low energy scanning electron microscope (SEM) which is currently at the Institute of\nScientific...
Very low energy scanning electron microscopy is introduced as a scanning version of the low energy e...
For examination of thin films by transmitted electrons (TE) the Transmission Electron Microscope is ...
Scanning electron microscopy (SEM) represents a powerful tool for studying spatial structures in con...
Development of new types of materials such as 2D crystals (graphene, MoS2, WS2, h-BN, etc.) requires...
Observation of insulators ' surface in low voltage scanning electron microscope (SEM) becomes u...
A method of scanning electron microscopy (SEM) of nonconductive specimens, based on measurement and ...
In 1981 Prof. Sir Alec Broers suggested that the spatial limit of direct writing electron beam litho...
Recent developments in applications of the scanning very low energy electron microscopy in selected ...
The scanning electron microscope (SEM) usually operates with a beam voltage, V0, in the range of 10-...
Examination of thin samples in TEM or STEM has been performed at hundreds of keV. This energy range ...
Scanning low energy electron microscopes (SLEEMs) have been built at ISI for over 20 years, either b...
This paper addresses some of the principles underpinning chemical microanalysis of bulk specimens in...