cited By 1International audienceThe Au/n-Si(100) contact has been studied using reverse ballistic electron emission microscopy and spectroscopy. Two types of localized collector currents have been observed: one, positive corresponding to electron injection into Si, and the other, negative, associated with hole injection into the semiconductor. The comparative trial of BEEM and reverse BEEM images from the same area shows this difference to be linked to the interface structure. Effects of surface roughness on the observed contrasts are also discussed
The transport of hot holes across metal-semiconductor interfaces is studied using ballistic hole emi...
<p>Hot electron transport of direct and scattered carriers across an epitaxial NiSi2/n-Si(111) inter...
The invention of ballistic-electron-emission microscopy (BEEM) has made it possible to study hot ele...
cited By 1International audienceThe Au/n-Si(100) contact has been studied using reverse ballistic el...
The Au/n-Si(100) contact has been studied using reverse ballistic electron emission microscopy and s...
In this paper, experiments performed on Au-Si (100) junctions by Ballistic Electron Emission Microsc...
In this paper, experiments performed on Au-Si (100) junctions by Ballistic Electron Emission Microsc...
In this paper, experiments performed on Au-Si (100) junctions by Ballistic Electron Emission Microsc...
Through the results obtained on Au-Si(100) junctions, we show the main aspects of Ballistic Electron...
The transport of hot holes across metal-semiconductor interfaces is studied using ballistic hole emi...
The transport of hot holes across metal–semiconductor interfaces is studied using ballistic hole emi...
The transport of hot holes across metal–semiconductor interfaces is studied using ballistic hole emi...
The transport of hot holes across metal–semiconductor interfaces is studied using ballistic hole emi...
Ballistic-electron-emission microscopy (BEEM) has been used to study the PtSi/n-type Si(100) interfa...
The transport of hot holes across metal–semiconductor interfaces is studied using ballistic hole emi...
The transport of hot holes across metal-semiconductor interfaces is studied using ballistic hole emi...
<p>Hot electron transport of direct and scattered carriers across an epitaxial NiSi2/n-Si(111) inter...
The invention of ballistic-electron-emission microscopy (BEEM) has made it possible to study hot ele...
cited By 1International audienceThe Au/n-Si(100) contact has been studied using reverse ballistic el...
The Au/n-Si(100) contact has been studied using reverse ballistic electron emission microscopy and s...
In this paper, experiments performed on Au-Si (100) junctions by Ballistic Electron Emission Microsc...
In this paper, experiments performed on Au-Si (100) junctions by Ballistic Electron Emission Microsc...
In this paper, experiments performed on Au-Si (100) junctions by Ballistic Electron Emission Microsc...
Through the results obtained on Au-Si(100) junctions, we show the main aspects of Ballistic Electron...
The transport of hot holes across metal-semiconductor interfaces is studied using ballistic hole emi...
The transport of hot holes across metal–semiconductor interfaces is studied using ballistic hole emi...
The transport of hot holes across metal–semiconductor interfaces is studied using ballistic hole emi...
The transport of hot holes across metal–semiconductor interfaces is studied using ballistic hole emi...
Ballistic-electron-emission microscopy (BEEM) has been used to study the PtSi/n-type Si(100) interfa...
The transport of hot holes across metal–semiconductor interfaces is studied using ballistic hole emi...
The transport of hot holes across metal-semiconductor interfaces is studied using ballistic hole emi...
<p>Hot electron transport of direct and scattered carriers across an epitaxial NiSi2/n-Si(111) inter...
The invention of ballistic-electron-emission microscopy (BEEM) has made it possible to study hot ele...