We report a comprehensive ab initio survey of possible dissociation intermediates of phosphine (PH3) on the Si(001) surface. We assign three scanning tunneling microscopy (STM) features, commonly observed in room-temperature dosing experiments, to PH2+H, PH+2H, and P+3H species, respectively, on the basis of calculated energetics and STM simulation. These assignments and a time series of STM images which shows these three STM features converting into another, allow us to outline a mechanism for the complete dissociation of phosphine on the Si(001) surface. This mechanism closes an important gap in the understanding of the doping process of semiconductor devices
Using a rst-principles pseudopotential method we have compared the adsorption and dissociation of th...
Using first-principles density functional theory, we discuss doping of the Si(001) surface by a sing...
To understand the atomistic doping process of phosphorus in germanium, we present a combined scannin...
Using density functional theory and guided by extensive scanning tunneling microscopy (STM) image da...
A detailed atomic-resolution scanning tunneling microscopy (STM) and density functional theory study...
Density functional calculations are performed to identify features observed in STM experiments after...
Using density functional theory and guided by extensive scanning tunneling microscopy (STM) image da...
Using a first-principles pseudopotential method we have compared the adsorption and dissociation of ...
Using a first-principles pseudopotential method we have compared the adsorption and dissociation of ...
We use scanning tunneling microscopy (STM) and Auger electron spectroscopy to study the behavior of ...
The most stable structures for the adsorption and dissociation of phosphine (PH3) on SiGe(100) (2 x ...
We present a detailed voltage-dependent scanning tunneling microscopy study of a single phosphorus a...
We present a detailed voltage-dependent scanning tunneling microscopy study of a single phosphorus a...
PH 3 adsorption on Si(1 1 1)-7 × 7 was studied after various exposures between 0.3 and 60 L at room ...
Using density-functional theory and a combination of growing string and dimer method transition stat...
Using a rst-principles pseudopotential method we have compared the adsorption and dissociation of th...
Using first-principles density functional theory, we discuss doping of the Si(001) surface by a sing...
To understand the atomistic doping process of phosphorus in germanium, we present a combined scannin...
Using density functional theory and guided by extensive scanning tunneling microscopy (STM) image da...
A detailed atomic-resolution scanning tunneling microscopy (STM) and density functional theory study...
Density functional calculations are performed to identify features observed in STM experiments after...
Using density functional theory and guided by extensive scanning tunneling microscopy (STM) image da...
Using a first-principles pseudopotential method we have compared the adsorption and dissociation of ...
Using a first-principles pseudopotential method we have compared the adsorption and dissociation of ...
We use scanning tunneling microscopy (STM) and Auger electron spectroscopy to study the behavior of ...
The most stable structures for the adsorption and dissociation of phosphine (PH3) on SiGe(100) (2 x ...
We present a detailed voltage-dependent scanning tunneling microscopy study of a single phosphorus a...
We present a detailed voltage-dependent scanning tunneling microscopy study of a single phosphorus a...
PH 3 adsorption on Si(1 1 1)-7 × 7 was studied after various exposures between 0.3 and 60 L at room ...
Using density-functional theory and a combination of growing string and dimer method transition stat...
Using a rst-principles pseudopotential method we have compared the adsorption and dissociation of th...
Using first-principles density functional theory, we discuss doping of the Si(001) surface by a sing...
To understand the atomistic doping process of phosphorus in germanium, we present a combined scannin...