Abstract: Electrically active devices are formed using a special conducting material of the form Tm-Ox mixed with SiO2 where the materials are immiscible. The immiscible materials are forced together by using high energy process to form an amorphous phase of the two materials. The amorphous combination of the two materials is electrically conducting but forms an effective barrier.

Abstract: Electrically active devices are formed using a special conducting material of the form Tm—Ox mixed with SiO2 where the materials are immiscible. The immiscible materials are forced together by using high energy process to form an amorphous phase of the two materials. The amorphous combination of the two materials is electrically conducting but forms an effective barrier.

Abstract: The present invention relates to the forming of amorphous or near-amorphous, ternary films of W-Si-N on substrates by chemical vapor deposition of WF.sub.6, SiH.sub.4 and NH.sub.3 and a carrier gas. The present invention method will allow the conformal forming of amorphous or near-amorphous, ternary films of W-Si-N on patterned non-planar substrates at temperatures at or below about 450.degree. C., by chemical vapor deposition of WF.sub.6, SiH.sub.4 and NH.sub.3 and a carrier gas. A typical temperature range for the formation of the films is between 473.degree. K. and 773.degree. K., while the reactor pressure can be varied between 0.1 to 50 Torr. The composition of the deposited films is adjusted by varying the flow ratios of the reactive gases.

Abstract: A method of depositing a ternary, refractory based thin film on a substrate by chemical vapor deposition employing precursor sources of tungsten comprising WF.sub.6, either silicon or boron, and nitrogen. The result is a W--Si--N or W--B--N thin film useful for diffusion barrier and micromachining applications.

Abstract: A preferred embodiment of this invention comprises an oxidizable layer (e.g. TiN 50), an noble-metal-insulator-alloy barrier layer (e.g. Pd-Si-N 34) overlying the oxidizable layer, an oxygen stable layer (e.g. platinum 36) overlying the noble-metal-insulator-alloy layer, and a high-dielectric-constant material layer (e.g. barium strontium titanate 38) overlying the oxygen stable layer. The noble-metal-insulator-alloy barrier layer substantially inhibits diffusion of oxygen to the oxidizable layer, thus minimizing deleterious oxidation of the oxidizable layer.

Abstract: A preferred embodiment of this invention comprises an oxidizable layer (e.g. TiN 50), an noble-metal-insulator-alloy barrier layer (e.g. Pd-Si-N 34) overlying the oxidizable layer, an oxygen stable layer (e.g. platinum 36) overlying the noble-metal-insulator-alloy layer, and a high-dielectric-constant material layer (e.g. barium strontium titanate 38) overlying the oxygen stable layer. The noble-metal-insulator-alloy barrier layer substantially inhibits diffusion of oxygen to the oxidizable layer, thus minimizing deleterious oxidation of the oxidizable layer.

Abstract: A preferred embodiment of this invention comprises an oxidizable layer (e.g. TiN 50), an noble-metal-insulator-alloy barrier layer (e.g. Pd-Si-N 34) overlying the oxidizable layer, an oxygen stable layer (e.g. platinum 36) overlying the noble-metal-insulator-alloy layer, and a high-dielectric-constant material layer (e.g. barium strontium titanate 38) overlying the oxygen stable layer. The noble-metal-insulator-alloy barrier layer substantially inhibits diffusion of oxygen to the oxidizable layer, thus minimizing deleterious oxidation of the oxidizable layer.

Abstract: A semiconductor contact has a thin barrier layer less than 500 angstroms in thickness of a metal such as tungsten applied between an aluminum contact layer and a metal-semiconductor compound. The metal semiconductor compound forms a junction with an underlying semiconductor substrate. The thin barrier prevents a chemical reaction between the aluminum of the contact layer and the metal of the metal-semiconductor compound.

Abstract: A solid phase epitaxially grown semi-conductor is described wherein a thin film of a semi-conductor material together with a thin film dopant are transported through a metal film onto a substrate, using a temperature below the eutectic temperature for the material.