Abstract: A rotary chuck adapted to hold a substrate. The rotary chuck has a rotatable chuck portion and an edge grip having a movable grip member movably mounted to the rotatable chuck portion, the moveable grip member being substantially free moving so that rotation of the rotating chuck portion causes the moveable grip member to move in a plane substantially aligned with a surface of the substrate to engage the substrate in a engaged position. A resilient element is coupled to the moveable grip member, the resilient member biasing the grip member to a disengaged position.

Abstract: Techniques disclosed herein include an electro-chemical deposition apparatus that provides an efficient circulation system, chemical management that provides reliable and uniform plating, and a configuration that provides short maintenance times and greater tool availability. Techniques include a processing tank containing an anolyte fluid, and one or more plating cells each having a catholyte fluid compartment with a circulation path that connects to a separate or remote catholyte reservoir. Thus, with such a configuration, a single pump can be used to flow catholyte (via manifolds) through one or more plating cells. Thus, with the catholyte reservoir maintained off board, instead of dumping catholyte over a weir into a reservoir, catholyte fluid—after flowing through a plating cell—is returned to the catholyte reservoir.

Abstract: A system for fluid processing substrate surfaces arrayed in a fluid having a process section with a frame having a plurality of process elements to process the substrate surfaces without contacting the substrate surfaces. A substrate holder assembly having a holder frame and a number of substrate holders, each of which is coupled to the holder frame and is configured for holding a substrate so that each substrate holder holds a different substrate for transport as a unit with the substrate holder assembly to and from the process section. The substrate holder assembly and each substrate holder are removably coupled to the process section frame, and the substrate holders of the substrate holder assembly are movable relative to the holder frame and positionable in repeatable alignment with respect to a predetermined feature of the process section and independent of positioning of the holder frame with respect to the process section.

Abstract: A system for fluid processing substrate surfaces arrayed in a fluid having a process section with a frame having a plurality of process elements to process the substrate surfaces without contacting the substrate surfaces and a substrate holder assembly having a number of substrate holders and configured for transporting substrates as a unit. The substrate holder assembly and each of the substrate holders are configured for removable coupling to the process section frame, each substrate holder configured to hold at least one of the substrates. The process section frame has alignment features disposed so that, on coupling of the substrate holder assembly with the process section frame, the alignment features interface with each substrate holder of the substrate holder assembly and locate each substrate holder in repeatable alignment, at corresponding coupling of each substrate holder and the process section frame, with respect to a predetermined feature of the process section.

Abstract: A substrate processing pallet can cool a substrate. A substrate processing pallet can include a base member; an interface pad attachable to the base member, the interface pad having substantially the same coefficient of thermal expansion as the base member and adapted to facilitate cooling of the substrate; and a surface of the base member having features for aligning a substrate on the interface pad. A substrate processing pallet can also include a base member; an interface pad attachable to the base member; an electrostatic chuck for gripping the substrate during processing; an energy storage system for storing energy to sustain the electrostatic chuck at sufficient charge to sustain grip the substrate during processing; and a conduit for transporting gas to a backside of the substrate to facilitate cooling of the substrate.

Abstract: A substrate separation chuck which is adapted to separate a substrate from an adhering surface. The substrate separation chuck has a support adapted to support the adhering surface. An air bearing surface is adapted to support the substrate, the air bearing surface axially moveable relative to the support. The air bearing surface has a first position adjacent the substrate with the substrate coupled to the adhering surface. The air bearing surface is moveable from the first position to a second position separating the substrate from the adhering surface without contact between the substrate and the air bearing surface.

Abstract: Techniques disclosed herein include an electro-chemical deposition apparatus that provides an efficient circulation system, chemical management that provides reliable and uniform plating, and a configuration that provides short maintenance times and greater tool availability. Techniques include a processing tank containing an anolyte fluid, and one or more plating cells each having a catholyte fluid compartment with a circulation path that connects to a separate or remote catholyte reservoir. Thus, with such a configuration, a single pump can be used to flow catholyte (via manifolds) through one or more plating cells. Thus, with the catholyte reservoir maintained off board, instead of dumping catholyte over a weir into a reservoir, catholyte fluid—after flowing through a plating cell—is returned to the catholyte reservoir.

Abstract: A process electrolyte replenishment module adapted to replenish ions in a process electrolyte in a substrate electrochemical deposition apparatus having a first anode and a first cathode, the replenishment module having a second anode. A process electrolyte recirculation compartment is disposed in the frame configured so that the process electrolyte is recirculating between the replenishment module and the deposition apparatus. An anode compartment is coupled to the process electrolyte recirculation compartment having the second anode, that is a soluble anode, for immersion in a secondary anolyte, and having a first ion exchange membrane being a cationic member separating the secondary anolyte from the process electrolyte.

Abstract: An electrochemical deposition apparatus adapted to deposit metal onto a surface of a substrate, the apparatus has a frame configured for holding a process electrolyte. A substrate holder is removably coupled to the frame, the substrate holder supporting the substrate in the process electrolyte. An anode fluid compartment is removably coupled to the frame and containing an anolyte and having an anode facing the surface of the substrate, the anode fluid compartment further having a ion exchange membrane disposed between the anode and the surface of the substrate, the anode fluid compartment removable from the frame as a unit with the ion exchange membrane and the anode. The holder, the anode and the membrane are arranged in the frame so that ions from the anode pass through the ion exchange membrane into and primarily replenish ions in the process electrolyte depleted by ion deposition onto the surface of the substrate.

Abstract: A substrate loader adapted to load and unload a substrate to and from a moveable holder having a seal. The substrate loader has a base and a holder support frame coupled to the base, the holder support frame adapted to repeatably position the moveable holder relative to a predetermined datum. The substrate transport is coupled to the base and having a substrate chuck and adapted to move and transport the substrate relative to the holder. The substrate transport is deterministically positioned relative to the predetermined datum and is adapted to move the substrate from a first position, with the substrate captured by the moveable holder, to a second position with the substrate disengaged from the holder and the seal, the substrate transport movement of the substrate from the first to the second position effecting disengagement from the holder and the seal substantially without contacting the substrate.

Abstract: Techniques disclosed herein include a method and apparatus for stripping resist from a substrate without using high concentrations of toxic chemicals and without needing frequent bath replacement. Techniques include using a chemistry that lifts-off the resist, without substantially dissolving the resist, coupled with mechanically breaking removed resist into small particles using mechanical agitation and high fluid flow. Resist particles can then be removed from the vicinity of the wafer by a high-flow circulation out of a processing tank. Circulating flow can then be filtered to remove the resist particles from the circulating fluid and reintroduced into the processing tank. A filtering system can also remove particles from filters either during circulation or with circulation stopped.

Abstract: An electrochemical deposition system is described. The electrochemical deposition system includes one or more electrochemical deposition modules arranged on a common platform for depositing one or more metals on a substrate, and a chemical management system coupled to the one or more electrochemical deposition modules. The chemical management system is configured to supply at least one of the one or more electrochemical deposition modules with one or more metal constituents for depositing the one or more metals. The chemical management system can include at least one metal enrichment cell and at least one metal-concentrate generator cell.

Abstract: An electrochemical deposition system is described. The electrochemical deposition system includes one or more electrochemical deposition modules arranged on a common platform for depositing one or more metals on a substrate, and a chemical management system coupled to the one or more electrochemical deposition modules. The chemical management system is configured to supply at least one of the one or more electrochemical deposition modules with one or more metal constituents for depositing the one or more metals. The chemical management system can include at least one metal enrichment cell and at least one metal-concentrate generator cell.

Abstract: An electrochemical deposition system is described. The electrochemical deposition system includes one or more electrochemical deposition modules arranged on a common platform for depositing one or more metals on a substrate, and a chemical management system coupled to the one or more electrochemical deposition modules. The chemical management system is configured to supply at least one of the one or more electrochemical deposition modules with one or more metal constituents for depositing the one or more metals. The chemical management system can include at least one metal enrichment cell and at least one metal-concentrate generator cell.

Abstract: A substrate edge bevel etch module for etching a material from a peripheral edge of a substrate with an etchant is described. The substrate edge bevel etch module includes a rotatable substrate holder having a support for a substrate, and a surface tension etch applicator comprising a wetted etching surface opposing a substrate surface proximate an edge of the substrate when the surface tension etch applicator is located proximate to the edge of the substrate. The surface tension etch applicator further includes an etchant dispensing portion, proximate the wetted etching surface, which dispenses an etchant in a region between the wetted etching surface and the substrate surface and wet at least a portion of the wetted etching surface and the substrate surface. A spacing between the wetted etching surface and the substrate surface is selected to retain the etchant using surface tension forces and form a meniscus there between.

Abstract: A substrate chuck includes a frame forming a support adapted to support an adhering surface thereon, and a Bernoulli chuck surface coupled to the frame and adapted to support the substrate. The Bernoulli chuck surface is axially moveable relative to the support between first and second positions. In the first position, the substrate is coupled to the adhering surface, and the substrate is separated from the adhering surface with movement of the Bernoulli chuck from the first position to the second position, without contact between the substrate and the Bernoulli chuck surface.

Abstract: A method of fluid processing a semiconductor workpiece, including disposing a workpiece holder with a housing capable of containing a fluid, the workpiece holder retaining the workpiece, providing an agitation system connected to the housing and comprising a member disposed within the housing adjacent the workpiece holder, and agitating the fluid by moving the member substantially parallel to a surface of the workpiece with a non-uniform oscillatory motion, the non-uniform oscillatory motion being a series of substantially continuous geometrically asymmetric oscillations wherein each consecutive oscillation of the series is geometrically asymmetric having at least two substantially continuous opposing strokes wherein reversal positions of each substantially continuous stroke of the substantially continuous asymmetric oscillation are disposed asymmetrically with respect to a center point of each immediately preceding substantially continuous stroke of the oscillation.

Abstract: A method of fluid processing a semiconductor workpiece, including disposing a workpiece holder with a housing capable of containing a fluid, the workpiece holder retaining the workpiece, providing an agitation system connected to the housing and comprising a member disposed within the housing adjacent the workpiece holder, and agitating the fluid by moving the member substantially parallel to a surface of the workpiece with a non-uniform oscillatory motion, the non-uniform oscillatory motion being a series of substantially continuous geometrically asymmetric oscillations wherein each consecutive oscillation of the series is geometrically asymmetric having at least two substantially continuous opposing strokes wherein reversal positions of each substantially continuous stroke of the substantially continuous asymmetric oscillation are disposed asymmetrically with respect to a center point of each immediately preceding substantially continuous stroke of the oscillation.

Abstract: A method and apparatus for wetting the surface of a workpiece is disclosed. The apparatus includes a chamber with a vacuum port and a fluid port and a workpiece holder including a body, a ring, and a port. The body includes a surface and defines a cavity extending from the surface. The ring is adapted to retain the workpiece on the surface of body over the cavity. The ring forms a fluid seal relative to the workpiece and to the workpiece holder. The port is defined in the body and in communication with the cavity. The port affects pressure in the cavity to minimize a pressure differential between the front and back surfaces of the workpiece. The fluid port is in communication with the chamber. The fluid port delivers a fluid (e.g., a substantially degassed fluid) to wet the front surface of the workpiece during operation of the chamber at a reduced pressure relative to atmosphere.

Abstract: A substrate thermal processing system. The system has at least one substrate holding module having a housing configured for holding an isolated environment therein. A substrate heater is located in the housing and has a substrate heating surface. A substrate cooler is located in the housing and having a substrate cooling surface. A gas feed opening into the housing and feeding inert or reducing gas into the housing when the substrate is heated by the heating surface. A gas restrictor is within the housing restricting the fed gas between the substrate heating surface and a surrounding atmospheric region substantially surrounding the substrate heating surface in the housing and forming an aperture through which the fed gas communicates with the atmospheric region.