Abstract:
In an apparatus and related method, a substrate that has multiple facets is held in a chamber of a plasma reactor that has multiple plasma cavities. The substrate is positioned by a transport arrangement with each plasma cavity of the plasma reactor aligned to a facet of the substrate. A plasma is generated in each plasma cavity, to apply simultaneous plasma processing to multiple facets of the substrate.
Abstract:
Sputtering system having cylindrical target with sputtering material on exterior surface; magnet arrangement inside the cylindrical target, having first set of magnets arranged on straight row, each having first pole facing interior wall of the target and second pole facing away from the interior wall, second set having plurality of magnets arranged in obround shape around the first set, each magnet having first pole facing away from the interior wall and second pole facing the interior wall; a keeper plate between the first set of magnets and the second set of magnets, such that straight line passing through an axis connecting the first pole and the second pole of a magnet from the second set intercepts the keeper plate prior to reaching the interior wall; and a cover.
Abstract:
A plasma chamber for physical vapor deposition, having an anode aperture shield that reduces the field of view to the substrate for deposition particles from the sputtering target. The anode aperture shield limits the deposition particles reaching the substrate to selected maximum angles from the vertical, and rejects particles approaching with a larger angle from the vertical. The node aperture shield is grounded and may be constructed of an upper plate and a lower plate spaced apart from the upper plate, wherein the upper plate may include perforations or may incorporate an electron filter.
Abstract:
A linear processing system having an entry loadlock, a first multi-pass processing chamber coupled to the entry loadlock, the first multi-pass processing chamber having a sputtering magnetron arrangement and configured to house a single substrate carrier for performing a multi-pass processing; a single-pass chamber coupled to the first multi-pass processing chamber and having a plurality of magnetron arrangements arranged along a carrier travel direction, the single-pass chamber configured to house multiple carriers arranged serially in a row and configured for a single-pass processing; a second multi-pass processing chamber coupled to the single-pass processing chamber, the second multi-pass processing chamber having a sputtering magnetron arrangement and configured to house a single substrate carrier for performing a multi-pass processing; and an exit loadlock chamber coupled to the second multi-pass processing chamber.
Abstract:
Disclosed is a substrate processing system which enables combined static and pass-by processing. Also, a system architecture is provided, which reduces footprint size. The system is constructed such that the substrates are processed therein vertically, and each chamber has a processing source attached to one sidewall thereof, wherein the other sidewall backs to a complementary processing chamber. The chamber system can be milled from a single block of metal, e.g., aluminum, wherein the block is milled from both sides, such that a wall remains and separates each two complementary processing chambers.
Abstract:
A method for forming thin film layer having micro-voids therein. The method proceeds by dispersing micro-particles over the surface of a substrate. The micro particles are made of sublimable material. Then the thin film layer is formed over the surface, so as to cover the particles. The thin film is then etched back so as to expose the particles at least partially. The material of the particles is then sublimed, e.g., by heating the substrate, thereby leaving micro-voids inside the thin film layer. The micro voids can be filled or remain exposed to generate textured surface.
Abstract:
Disclosed is a substrate processing system which enables combined static and pass-by processing. Also, a system architecture is provided, which reduces footprint size. The system is constructed such that the substrates are processed therein vertically, and each chamber has a processing source attached to one sidewall thereof, wherein the other sidewall backs to a complementary processing chamber. The chamber system can be milled from a single block of metal, e.g., aluminum, wherein the block is milled from both sides, such that a wall remains and separates each two complementary processing chambers.
Abstract:
Disclosed is a substrate processing system which enables combined static and pass-by processing. Also, a system architecture is provided, which reduces footprint size. The system is constructed such that the substrates are processed therein vertically, and each chamber has a processing source attached to one sidewall thereof, wherein the other sidewall backs to a complementary processing chamber. The chamber system can be milled from a single block of metal, e.g., aluminum, wherein the block is milled from both sides, such that a wall remains and separates each two complementary processing chambers.
Abstract:
Disclosed is a substrate processing system which enables combined static and pass-by processing. Also, a system architecture is provided, which reduces footprint size. The system is constructed such that the substrates are processed therein vertically, and each chamber has a processing source attached to one sidewall thereof, wherein the other sidewall backs to a complementary processing chamber. The chamber system can be milled from a single block of metal, e.g., aluminum, wherein the block is milled from both sides, such that a wall remains and separates each two complementary processing chambers.
Abstract:
A physical vapor deposition (PVD) chamber for depositing a transparent and clear hydrogenated carbon, e.g., hydrogenated diamond-like carbon, film. A chamber body is configured for maintaining vacuum condition therein, the chamber body having an aperture on its sidewall. A plasma cage having an orifice is attached to the sidewall, such that the orifice overlaps the aperture. Two sputtering targets are situated on cathodes inside the plasma cage and are oriented opposite each other and configured to sustain plasma there-between and confined inside the plasma cage. The plasma inside the cage sputters material from the targets, which then passes through the orifice and aperture and lands on the substrate. The substrate is moved continuously in a pass-by fashion during the process.