The continuous scaling of electron devices places strong demands on device design
and simulation. The currently prevailing bulk transistors as well as future designs based on
thin silicon layers all require a tight control of the dopant distribution. For process simulation,
especially the correct prediction of boron diffusion and activation was always a problem. The
paper describes the model developed for boron implanted into crystalline silicon and shows
applications to hot-shield annealing and flash-assisted rapid thermal processing.
In this work we present a comprehensive comparison of ultra thin thermally nitrided
(TN) to plasma nitrided (PN) gate dielectrics (GD). We will show that thermal nitridation is a
promising technique to increase the nitrogen concentration up to 25%. Furthermore, we will
demonstrate that ultra thin thermally nitrided GD have the potential to be an alternative solution
compared to plasma nitrided GD. This work includes the analysis of physical and electrical
parameters as well as reliability results from reliability characterization. Additionally, we
investigated the impact of Deuterium on electrical parameters and reliability behavior.
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