Traditional electron microscopes use accelerating voltages in the range of 10-1000 keV.
2.
The neutron yield is mostly determined by the accelerating voltage and the ion current level.
3.
The power is controlled by the beam current at constant accelerating voltage, usually the highest accessible.
4.
Ideal section thickness for transmission electron microscopy with accelerating voltages between 50kV and 120kV is about 30 100 nm.
5.
Because the fossiliferous layer is so thin, it is effectively transparent to electrons at high ( > 15V ) accelerating voltages.
6.
The accelerating voltage may be chosen between 30 and 200 kV . Usually it is about 60 or 150 kV, depending on various conditions.
7.
Precession electron diffraction is typically conducted using accelerating voltages between 100-400 kV . Patterns can be formed under parallel or convergent beam conditions.
8.
In older television designs, the transformer produced the required high voltage for the CRT accelerating voltage directly with the output rectified by a simple rectifier.
9.
This wave has a wavelength of about 0.02-0.03 �ngstr�m ( depending on the accelerating voltage of the electron microscope ).
10.
Zamboni piles of more modern construction were manufactured as recently as the 1980s for providing the accelerating voltage for image intensifier tubes, particularly in military use.