Ultra-thin silicon nitride films grown by exposure of Si(111) substrates to a flux of atomic nitrogen at temperatures between 700 °C and 1050 °C have been investigated by means of X-ray spectromicroscopy, atomic force microscopy, X-ray reflectivity, and X-ray photoemission spectroscopy. The films show a Si3N4 stoichiometry. For reactive nitride growth at temperatures below 800 °C, a smooth surface and interface morphology is found. Higher temperatures lead to the formation of rough films with holes and grooves of increasing size, approaching a lateral size of several hundred nanometers for growth temperatures above 900 °C. Nonetheless, X-ray spectromicroscopy shows that the bottom of the holes consists of Si3N4
Thermal nitr idation of silicon in ammonia or ammonia-argon mixtures at temperatures between 900 ~ a...
Silicon nitride.(SiNx) layers of varying thickness were fabricated in a a-Si/SiNx/a-Si heterostructu...
With the continued miniaturization of devices in the semiconductor industry, atomic layer deposition...
A detailed investigation of the growth mechanism of ultra-thin silicon nitride (Si3N4) films on Si(1...
[[abstract]]Scanning tunneling microscopy (STM) was used to study the surface structure of ultrathin...
[[abstract]]The initial stages of NH3 exposure on Si (100) & (111) at different substrate temperatur...
X-ray photoelectron spectroscopy, high resolution cross-sectional transmission electron microscopy (...
We demonstrate the deposition of SixNy thin films using octachlorotrisilane (Si3Cl8) and ammonia bet...
Abstract. Layer-by-layer growth of silicon nitride by NH, and SiH, was investigated using an ultracl...
Ultra thin films of pure silicon nitride were grown on a Si (1 1 1) surface by exposing the surface ...
High-quality GaN epilayers were grown on Si (1 1 1) substrates by molecular beam epitaxy using a new...
SiNx thin films were prepared by the RF plasma-enhanced chemical vapor deposition method. Compositio...
Localized deposits of silicon nitride, which are stable to at least 5000 C, have been formed by a ne...
Thin silicon nitride films were prepared at 350 degrees C by inductively coupled plasma chemical vap...
[[abstract]]In this experiment the ultrahigh vacuum environment of a molecular‐beam epitaxy reactor ...
Thermal nitr idation of silicon in ammonia or ammonia-argon mixtures at temperatures between 900 ~ a...
Silicon nitride.(SiNx) layers of varying thickness were fabricated in a a-Si/SiNx/a-Si heterostructu...
With the continued miniaturization of devices in the semiconductor industry, atomic layer deposition...
A detailed investigation of the growth mechanism of ultra-thin silicon nitride (Si3N4) films on Si(1...
[[abstract]]Scanning tunneling microscopy (STM) was used to study the surface structure of ultrathin...
[[abstract]]The initial stages of NH3 exposure on Si (100) & (111) at different substrate temperatur...
X-ray photoelectron spectroscopy, high resolution cross-sectional transmission electron microscopy (...
We demonstrate the deposition of SixNy thin films using octachlorotrisilane (Si3Cl8) and ammonia bet...
Abstract. Layer-by-layer growth of silicon nitride by NH, and SiH, was investigated using an ultracl...
Ultra thin films of pure silicon nitride were grown on a Si (1 1 1) surface by exposing the surface ...
High-quality GaN epilayers were grown on Si (1 1 1) substrates by molecular beam epitaxy using a new...
SiNx thin films were prepared by the RF plasma-enhanced chemical vapor deposition method. Compositio...
Localized deposits of silicon nitride, which are stable to at least 5000 C, have been formed by a ne...
Thin silicon nitride films were prepared at 350 degrees C by inductively coupled plasma chemical vap...
[[abstract]]In this experiment the ultrahigh vacuum environment of a molecular‐beam epitaxy reactor ...
Thermal nitr idation of silicon in ammonia or ammonia-argon mixtures at temperatures between 900 ~ a...
Silicon nitride.(SiNx) layers of varying thickness were fabricated in a a-Si/SiNx/a-Si heterostructu...
With the continued miniaturization of devices in the semiconductor industry, atomic layer deposition...