Abstract:
An apparatus, system, and method for cleaning surfaces is presented. One embodiment of the system includes an array of surface acoustic wave (SAW) transducers coupled to a substrate. The system may include a positioning mechanism coupled to at least one of a target surface or the array of SAW transducers, and configured to position the array of SAW transducers within an effective cleaning distance of a target surface. The system may also include a cleaning liquid supply arranged to provide cleaning liquid for coupling the array of SAW transducers to the target surface. The system may further include a controller coupled to the array of SAW transducers and configured to activate the array of SAW transducers. At least one of the SAW transducers may be formed to focus cleaning liquid on a focal point and jet cleaning liquid in a direction substantially out of the place of the SAW transducer.
Abstract:
Provided are methods for preparing a doped silicon material. The methods include contacting a surface of a silicon material with a dopant solution comprising a dopant-containing compound selected from a phosphorus-containing compound and an arsenic-containing compound, to form a layer of dopant material on the surface; and diffusing the dopant into the silicon material, thereby forming the doped silicon material, wherein the doped silicon material has a sheet resistance (Rs) of less than or equal to 2,000 Ω/sq.
Abstract:
A process for cleaning and restoring deposition shield surfaces which results in a cleaned shield having a surface roughness of between about 200 microinches and about 500 microinches and a particle surface density of less than about 0.1 particles/mm2 of particles between about 1 micron and about 5 microns in size and no particles less than about 1 micron in size and method for use thereof is disclosed.
Abstract translation:一种用于清洁和恢复沉积屏蔽表面的方法,其导致具有约200微英寸至约500微英寸之间的表面粗糙度和小于约0.1微米/ mm 2的颗粒的颗粒表面密度在约1微米至约5微米之间的清洁屏蔽 公开了尺寸微米和尺寸小于约1微米的颗粒及其使用方法。
Abstract:
Horizontal and vertical tunneling field-effect transistors (TFETs) having an abrupt junction between source and drain regions increases probability of direct tunneling of carriers (e.g., electrons and holes). The increased probability allows a higher achievable on current in TFETs having the abrupt junction. The abrupt junction may be formed by placement of a dielectric layer or a dielectric layer and a semiconductor layer in a current path between the source and drain regions. The dielectric layer may be a low permittivity oxide such as silicon oxide, lanthanum oxide, zirconium oxide, or aluminum oxide.
Abstract:
A semiconductor structure may include a semiconductor bulk region with a gate stack on the semiconductor bulk region. The source region and the drain region in the semiconductor bulk region may be located on opposing sides of a channel region below the gate stack. An interfacial layer coupled to the channel region may modify a workfunction of a metal-semiconductor contact. In a MOSFET, the metal-semiconductor contact may be between a metal contact and the source region and the drain region. In a Schottky barrier-MOSFET, the metal-semiconductor contact may be between a silicide region in the source region and/or the drain region and the channel region. The interfacial layer may use a dielectric-dipole mitigated scheme and may include a conducting layer and a dielectric layer. The dielectric layer may include lanthanum oxide or aluminum oxide used to tune the workfunction of the metal-semiconductor contact.
Abstract:
Method, apparatus, and composition of matter suited for use with, for example, immersion lithography. The composition of matter includes hafnium dioxide nanoparticles having diameters less than or equal to about 15 nanometers. The apparatus includes the composition of matter, a light source, a platform for supporting a work piece, and a lens element. The method includes providing a light source, providing a lens element between the light source and a work piece, providing the composition of matter between the lens element and the work piece, and exposing the work piece to light provided by the light source by passing light from the light source through the lens element and the composition of matter to the work piece.
Abstract:
An apparatus, system, and method for a Gigasonic Brush for cleaning surfaces is presented. One embodiment of the system includes an array of acoustic transducers coupled to a substrate where the individual acoustic transducers have sizes in the range of 9 um2 to 250,000 um2. The system may include a positioning mechanism coupled to at least one of a target surface or the array of acoustic transducers, and configured to position the array of acoustic transducers within 1 millimeter of a target surface. The system may also include a cleaning liquid supply arranged to provide cleaning liquid for coupling the array of acoustic transducers to the target surface. The system may further include a controller coupled to the array of acoustic transducers and configured to activate the array of acoustic transducers.
Abstract:
Systems and methods for fabricating semiconductor devices with dual-stress layers using double-stress oxide/nitride stacks. A method comprises providing NMOS and PMOS regions, selectively forming a dual-stack tensile stress layer over the NMOS region by depositing a tensile silicon nitride layer over the NMOS and PMOS regions, depositing a tensile silicon oxide layer over the tensile silicon nitride layer, removing a portion of the tensile silicon oxide layer from the PMOS region, and removing a portion of the tensile silicon nitride layer from the NMOS region and selectively forming a dual stack compressive stress layer over the PMOS region by depositing a compressive silicon nitride layer over the NMOS and PMOS regions, depositing a compressive silicon oxide layer over the compressive silicon nitride layer, removing a portion of the compressive silicon oxide layer from the NMOS region, and removing a portion of the compressive silicon nitride layer from the NMOS region.
Abstract:
The present invention relates generally to the fields of semiconductor lithography. More particularly, it concerns methods, compositions, and apparatuses relating to 157 nm and 193 nm soft pellicles and the use of perfluorinated polymers in the creation of pellicles.
Abstract:
The present invention relates generally to the fields of semiconductor lithography. More particularly, it concerns methods, compositions, and apparatuses relating to 157 nm, 167 nm, 193 nm, 248 nm, 365 nm, and 436 nm soft pellicles and the use of perfluorinated polymers in the creation of pellicles.