Abstract:
According to embodiments provide a method for forming dielectric films using physical vapor deposition chamber. Particularly, a pasting process may be performed to apply a conductive coating over inner surfaces of the physical vapor deposition chamber. The pasting process may be performed under adjusted process parameters, such as increased spacing and/or increased chamber pressure. The adjusted parameters allow the conductive coating to be formed more efficiently and effectively.
Abstract:
Embodiments of process shield for use in process chambers are provided herein. In some embodiments, a process shield for use in a process chamber includes: an annular body having an upper portion and a lower portion extending downward and radially inward from the upper portion, wherein the upper portion includes a plurality of annular trenches on an upper surface thereof and having a plurality of slots disposed therebetween to fluidly couple the plurality of annular trenches, wherein one or more inlets extend from an outer surface of the annular body to an outermost trench of the plurality of annular trenches.
Abstract:
A method of depositing a backside film layer on a backside of a substrate includes loading a substrate having one or more films deposited on a front side of the substrate onto a substrate support of a processing chamber, depositing, from the sputter target, a target material on the backside of the substrate to form a backside layer on the backside of the substrate, and applying an RF bias to an electrode disposed within the substrate support while depositing the target material. The front side of the substrate faces the substrate support and is spaced from a top surface of the substrate support, and a backside of the substrate faces a sputter target of the processing chamber.
Abstract:
The present disclosure provides an interconnect formed on a substrate and methods for forming the interconnect on the substrate. In one embodiment, the method for forming an interconnect on a substrate includes depositing a barrier layer on the substrate, depositing a transition layer on the barrier layer, and depositing an etch-stop layer on the transition layer, wherein the transition layer shares a common element with the barrier layer, and wherein the transition layer shares a common element with the etch-stop layer.
Abstract:
Methods are disclosed for depositing a thin film of compound material on a substrate. In some embodiments, a method of depositing a layer of compound material on a substrate include: flowing a reactive gas into a plasma processing chamber having a substrate to be sputter deposited disposed therein in opposition to a sputter target comprising a metal; exciting the reactive gas into a reactive gas plasma to react with the sputter target and to form a first layer of compound material thereon; flowing an inert gas into the plasma processing chamber; and exciting the inert gas into a plasma to sputter a second layer of the compound material onto the substrate directly from the first layer of compound material. The cycles of target poisoning and sputtering may be repeated until a compound material layer of appropriate thickness has been formed on the substrate.
Abstract:
Methods for forming a metal dielectric etching stop layer onto a substrate with good etching selectivity and low wet etching rate. In one embodiment, a method of sputter depositing a metal dielectric etching stop layer on the substrate includes transferring a substrate in a processing chamber, supplying a gas mixture including at least N2 gas into the processing chamber, applying a RF power to form a plasma from the gas mixture to sputter source material from a target disposed in the processing chamber, maintaining a substrate temperature less than about 320 degrees Celsius, and depositing a metal dielectric etching stop layer onto the substrate from the sputtered source material.
Abstract:
The embodiments herein provides methods for forming a PVD silicon oxide or silicon rich oxide, or PVD SiN or silicon rich SiN, or SiC or silicon rich SiC, or combination of the preceding including a variation which includes controlled doping of hydrogen into the compounds heretofore referred to as SiOxNyCz:Hw, where w, x, y, and z can vary in concentration from 0% to 100%, is produced as a hardmask with optical properties that are substantially matched to the photo-resists at the exposure wavelength. Thus making the hardmask optically planarized with respect to the photo-resist. This allows for multiple sequences of litho and etches in the hardmask while the photo-resist maintains essentially no optical topography or reflectivity variations.
Abstract translation:本文的实施方案提供了用于形成PVD氧化硅或富硅氧化物或PVD SiN或富硅SiN或富SiC或富硅SiC的方法或前述组合,包括将氢控制掺入到迄今为止参考的化合物 作为SiO x N y C z:H w,其中w,x,y和z可以在0%至100%的浓度范围内变化,作为具有与曝光波长下的光致抗蚀剂基本匹配的光学性质的硬掩模。 因此使相对于光致抗蚀剂光学平坦化的硬掩模。 这允许在硬掩模中的多个序列的光刻和蚀刻,而光致抗蚀剂基本上保持没有光学形貌或反射率变化。
Abstract:
Embodiments described herein provide a semiconductor device and methods and apparatuses of forming the same. The semiconductor device includes a substrate having a source and drain region and a gate electrode stack on the substrate between the source and drain regions. In one embodiment, the method includes positioning a substrate within a processing chamber, wherein the substrate includes a source and drain region, a gate dielectric layer between the source and drain regions, and a conductive film layer on the gate dielectric layer. The method also includes depositing a refractory metal nitride film layer on the conductive film layer, depositing a silicon-containing film layer on the refractory metal nitride film layer, and depositing a tungsten film layer on the silicon-containing film layer.