Abstract: Embodiments of the invention generally relate to a process kit for a semiconductor processing chamber, and a semiconductor processing chamber having a kit. More specifically, embodiments described herein relate to a process kit including a deposition ring and a pedestal assembly. The components of the process kit work alone, and in combination, to significantly reduce their effects on the electric fields around a substrate during processing.

Abstract: Embodiments of methods and apparatus for thermally treating a substrate are provided herein. In some embodiments, a thermal treatment apparatus includes a chamber body including an interior volume; a plurality of substrate supports disposed within the interior volume, wherein each of the plurality of substrate supports includes a heating element; a selectively sealable opening in the chamber body sized to allow substrates to be inserted into or removed from the interior volume; a robotic arm disposed in the interior volume to move substrates onto and off of the plurality of substrate supports; and a heating assembly configured to heat substrates disposed on the robotic arm.

Abstract: Methods and apparatus for controlling the ion fraction in physical vapor deposition processes are disclosed. In some embodiments, a process chamber for processing a substrate having a given diameter includes: an interior volume and a target to be sputtered, the interior volume including a central portion and a peripheral portion; a rotatable magnetron above the target to form an annular plasma in the peripheral portion; a substrate support disposed in the interior volume to support a substrate having the given diameter; a first set of magnets disposed about the body to form substantially vertical magnetic field lines in the peripheral portion; a second set of magnets disposed about the body and above the substrate support to form magnetic field lines directed toward a center of the support surface; a first power source to electrically bias the target; and a second power source to electrically bias the substrate support.

Abstract: A heat sink includes a frame having a non-metallic body that includes a window. The non-metallic body includes at least one peripheral wall that defines a boundary of the window. The non-metallic body includes a non-metallic material. The heat sink also includes a heat exchanger having a base and cooling fins. The base has a structure side and an opposite environmental side. The structure side of the base is configured to thermally communicate with a structure for absorbing heat from the structure. The cooling fins extend from the environmental side of the base. The heat exchanger is held by the frame such that the cooling fins extend within the window of the frame.

Abstract: A demand based control for a hydronic heating system varies the heat response based on an actual demand of the conditioned space, rather than an estimated thermal loss. Differences between supply and return of a heat transfer medium, such as forced hot water, are measured for the conditioned space, as well as the flow rate of the forced water to determine an actual thermal transfer to the conditioned space. A required heat generation is computed based on the measured transfer and resultant temperature change of the conditioned space, and heat generation parameters such as boiler firing rate and circulator pump speed varied to control the heat transfer to the conditioned space and avoid overshoot or excessive heat generation beyond that needed for the measured demand.

Abstract: Embodiments of the invention generally relate to a process kit for a semiconductor processing chamber, and a semiconductor processing chamber having a kit. More specifically, embodiments described herein relate to a process kit including a deposition ring and a pedestal assembly. The components of the process kit work alone, and in combination, to significantly reduce their effects on the electric fields around a substrate during processing.

Abstract: Methods and apparatus for processing a substrate in a physical vapor deposition (PVD) chamber are provided herein. In some embodiments, a process kit shield used in a substrate processing chamber may include a shield body having an inner surface and an outer surface, a process kit shield impedance match device coupled between the shield body and ground, wherein the process kit shield impedance match device is configured to adjust a bias voltage of the process kit shield, a cavity formed on the outer surface of the shield body, and one or more magnets disposed within the cavity.

Abstract: In some embodiments, a sputter source for a process chamber may include: a first enclosure having a top, sides and an open bottom; a target coupled to the open bottom; an electrical feed coupled to the top of the first enclosure proximate a central axis of the first enclosure to provide power to the target via the first enclosure; a magnet assembly having a shaft, a support arm coupled to the shaft, and a magnet coupled to the support arm disposed within the first enclosure; a first rotational actuator disposed off-axis to the central axis of the first enclosure and rotatably coupled to the magnet to rotate the magnet about the central axis of the first enclosure; and a second rotational actuator disposed off-axis to the central axis of the first enclosure and rotatably coupled to the magnet to rotate the magnet about a central axis of the magnet assembly.

Abstract: Processing chamber shutter blade and robot blade assemblies are constructed to eliminate thermal effects on the placement of elements in processing chambers. Such blade assemblies may contain at least two parts, which may include a positioning member including a low CTE material and a thermal compensating member including a high CTE material. The positioning member includes a coupling point and a reference point on a reference axis separated by a first distance. The thermal compensating member includes a connection point and a controlled point separated by another distance that is less than the first distance. A distance ratio of the first distance to the other distance is substantially equal to a CTE ratio of the high CTE material to the low CTE material, and the positioning member is joined to the thermal compensating member through the coupling point and the connection point.

Abstract: In some embodiments, a target assembly, for use in a substrate processing chamber having a process shield, may include a backing plate having a first side and an opposing second side, wherein the second side comprises a first surface having a first diameter bounded by a first edge; a target material having a first side bonded to the first surface of the backing plate; wherein the first edge is an interface between the backing plate and the target material; a plurality of slots disposed along an outer periphery of the backing plate extending from the first side of the backing plate toward the second side of the backing plate, wherein the plurality of slots are configured to align the target assembly with respect to the process shield.

Abstract: A method and apparatus for repairing overhead conveyor chain by removing a section of track, locating a mobile repair station under the exposed track, and effecting the needed repair on the chain by cycling the intact chain past the mobile repair station and repairing it as it passes. Repair embodiments include re-swaging and repair, replacement or rotation of chain links.

Abstract: Embodiments of the invention generally relate to a process kit for a semiconductor processing chamber, and a semiconductor processing chamber having a kit. More specifically, embodiments described herein relate to a process kit including a deposition ring and a pedestal assembly. The components of the process kit work alone, and in combination, to significantly reduce their effects on the electric fields around a substrate during processing.

Abstract: Embodiments described herein generally relate to components for a semiconductor processing chamber, a process kit for a semiconductor processing chamber, and a semiconductor processing chamber having a process kit. In one embodiment a lower shield for encircling a sputtering target and a substrate support is provided. The lower shield comprises a cylindrical outer band having a first diameter dimensioned to encircle the sputtering surface of the sputtering target and the substrate support, the cylindrical band comprising a top wall that surrounds a sputtering surface of a sputtering target and a bottom wall that surrounds the substrate support, a support ledge comprising a resting surface and extending radially outward from the cylindrical outer band, a base plate extending radially inward from the bottom wall of the cylindrical band, and a cylindrical inner band coupled with the base plate and partially surrounding a peripheral edge of the substrate support.

Abstract: An electrostatic chuck includes a puck having a support surface to support a substrate when disposed thereon and an opposing second surface, wherein one or more chucking electrodes are embedded in the puck, a body having a support surface coupled to the second surface of the puck to support the puck, a DC voltage sensing circuit disposed on support surface of the puck, and an inductor disposed in the body and proximate the support surface of the body, wherein the inductor is electrically coupled to DC voltage sensing circuit, and wherein the inductor is configured to filter high frequency current flow in order to accurately measure DC potential on the substrate.

Abstract: Apparatus for physical vapor deposition of dielectric material is provided herein. In some embodiments, a chamber lid of a physical vapor deposition chamber includes an inner magnetron assembly coupled to an inner target assembly, and an outer magnet assembly coupled to an outer target assembly, wherein the inner magnetron assembly and the inner target assembly are electrically isolated from the outer magnet assembly and the outer target assembly.

Abstract: Protective cover including a mating cap having a cap body. The cap body includes a connector cavity that opens in a loading direction. The connector cavity is configured to receive an electrical connector of a communication system when the mating cap is moved in a loading direction onto the electrical connector. The cap body is configured to surround a mating interface of the electrical connector. The protective cover also includes a movable latch that is coupled to the mating cap and extends in a rearward direction that is generally opposite the loading direction. The movable latch has a side surface and a latch projection that extends laterally from the side surface. The movable latch is configured to flex relative to the mating cap to move the latch projection. The latch projection is configured to engage the communication system to block the protective cover from being inadvertently removed.

Abstract: In some embodiments, a method for processing a substrate in a process chamber having a substrate support configured to move in a direction perpendicular to a top surface of a cover ring of a process kit may include positioning the substrate support in a first position such that a top surface of the substrate is positioned about 3 mm above to about 10 mm below a top surface of a cover ring of a process kit disposed about the periphery of the substrate support; performing a plasma deposition process while the substrate support is in the first position; moving the substrate support to a second position such that the top surface of the substrate is disposed about 3 mm below to about 15 mm above the top surface of the cover ring; and performing a plasma etch process while the substrate support is in the second position.

Abstract: Substrate processing systems are provided herein. In some embodiments, a substrate processing system may include a target assembly having a target comprising a source material to be deposited on a substrate; a grounding assembly disposed about the target assembly and having a first surface that is generally parallel to and opposite a backside of the target assembly; a support member coupled to the grounding assembly to support the target assembly within the grounding assembly; one or more insulators disposed between the backside of the target assembly and the first surface of the grounding assembly; and one or more biasing elements disposed between the first surface of the grounding assembly and the backside of the target assembly to bias the target assembly toward the support member.

Abstract: Embodiments of methods and apparatus for thermally treating a substrate are provided herein. In some embodiments, a thermal treatment apparatus includes a chamber body including an interior volume; a plurality of substrate supports disposed within the interior volume, wherein each of the plurality of substrate supports includes a heating element; a selectively sealable opening in the chamber body sized to allow substrates to be inserted into or removed from the interior volume; a robotic arm disposed in the interior volume to move substrates onto and off of the plurality of substrate supports; and a heating assembly configured to heat substrates disposed on the robotic arm.