Abstract:
Embodiments of the present invention generally relate to a method for forming a dielectric barrier layer. The dielectric barrier layer is deposited over a substrate by a plasma enhanced deposition process. In one embodiment, a gas mixture is introduced into a processing chamber. The gas mixture includes a silicon-containing gas, a nitrogen-containing gas, a boron-containing gas, and argon (Ar) gas.
Abstract:
A method and apparatus for forming magnetic media substrates is provided. A patterned resist layer is formed on a substrate having a magnetically susceptible layer. A conformal protective layer is formed over the patterned resist layer to prevent degradation of the pattern during subsequent processing. The substrate is subjected to an energy treatment wherein energetic species penetrate portions of the patterned resist and conformal protective layer according to the pattern formed in the patterned resist, impacting the magnetically susceptible layer and modifying a magnetic property thereof. The patterned resist and conformal protective layers are then removed, leaving a magnetic substrate having a pattern of magnetic properties with a topography that is substantially unchanged.
Abstract:
Embodiments disclosed herein generally relate to forming dielectric materials in high aspect ratio features. In one embodiment, a method for filling high aspect ratio trenches in one processing chamber is disclosed. The method includes placing a substrate inside a processing chamber, where the substrate has a surface having a plurality of high aspect ratio trenches and the surface is facing a gas/plasma distribution assembly. The method further includes performing a sequence of depositing a layer of dielectric material on the surface of the substrate and inside each of the plurality of trenches, where the layer of dielectric material is on a bottom and side walls of each trench, and removing a portion of the layer of dielectric material disposed on the surface of the substrate, where an opening of each trench is widened. The sequence repeats until the trenches are filled seamlessly with the dielectric material.
Abstract:
Embodiments of the invention provide processes to selectively form a cobalt layer on a copper surface over exposed dielectric surfaces. Embodiments described herein control selectivity of deposition by preventing damage to the dielectric surface, repairing damage to the dielectric surface, such as damage which can occur during the cobalt deposition process, and controlling deposition parameters for the cobalt layer.
Abstract:
Embodiments disclosed herein generally relate to the processing of substrates, and more particularly, relate to methods for accurate control of film thickness using deposition-etch cycles. Particularly, embodiments of the present disclosure may be used in controlling film thickness during filling high aspect ratio features.
Abstract:
Embodiments disclosed herein generally relate to the processing of substrates, and more particularly, relate to methods for forming a dielectric film. In one embodiment, the method includes placing a plurality of substrates inside a processing chamber and performing a sequence of exposing the substrates to a first reactive gas comprising silicon, and then exposing the substrates to a plasma of a second reactive gas comprising nitrogen and at least one of oxygen or carbon, and repeating the sequence to form the dielectric film comprising silicon carbon nitride or silicon carbon oxynitride on each of the substrates.
Abstract:
A method for dielectric filling of a feature on a substrate yields a seamless dielectric fill with high-k for narrow features. In some embodiments, the method may include depositing a metal material into the feature to fill the feature from a bottom of the feature wherein the feature has an opening ranging from less than 20 nm to approximately 150 nm at an upper surface of the substrate and wherein depositing the metal material is performed using a high ionization physical vapor deposition (PVD) process to form a seamless metal gap fill and treating the seamless metal gap fill by oxidizing/nitridizing the metal material of the seamless metal gap fill with an oxidation/nitridation process to form dielectric material wherein the seamless metal gap fill is converted into a seamless dielectric gap fill with high-k dielectric material.
Abstract:
A method and apparatus for forming magnetic media substrates is provided. A patterned resist layer is formed on a substrate having a magnetically susceptible layer. A conformal protective layer is formed over the patterned resist layer to prevent degradation of the pattern during subsequent processing. The substrate is subjected to an energy treatment wherein energetic species penetrate portions of the patterned resist and conformal protective layer according to the pattern formed in the patterned resist, impacting the magnetically susceptible layer and modifying a magnetic property thereof. The patterned resist and conformal protective layers are then removed, leaving a magnetic substrate having a pattern of magnetic properties with a topography that is substantially unchanged.
Abstract:
Embodiments described herein generally relate to the formation of a UV compatible barrier stack. Methods described herein can include delivering a process gas to a substrate positioned in a process chamber. The process gas can be activated to form an activated process gas, the activated process gas forming a barrier layer on a surface of the substrate, the barrier layer comprising silicon, carbon and nitrogen. The activated process gas can then be purged from the process chamber. An activated nitrogen-containing gas can be delivered to the barrier layer, the activated nitrogen-containing gas having a N2:NH3 ratio of greater than about 1:1. The activated nitrogen-containing gas can then be purged from the process chamber. The above elements can be performed one or more times to deposit the barrier stack.
Abstract:
Methods for the repair of damaged low k films are provided. In one embodiment, the method comprises providing a substrate having a low k dielectric film deposited thereon, and exposing a surface of the low k dielectric film to an activated carbon-containing precursor gas to form a conformal carbon-containing film on the surface of the low k dielectric film, wherein the carbon-containing precursor gas has at least one or more Si—N—Si linkages in the molecular structure.