Abstract: A system, method and apparatus is capable of producing layers of various materials stacked on one another on a substrate without exposing the substrate to the pressure and contaminants of ambient air until the stack is complete. In one aspect, the stack of layers can include both an insulative layer of one or more insulative films, and a conductive metal layer of one or more conductive metal layer films. In another aspect, a bias signal of positive and negative voltage pulses may be applied to a target of a deposition chamber to facilitate deposition of the target material in a suitable fashion. In yet another aspect, one or more of the deposition chambers may have associated therewith a pump which combines a turbomolecular pump and a cryogenic pump to generate an ultra high vacuum in that chamber. Other features are described and claimed.

Abstract: The invention relates to physical vapor deposition (PVD) chambers having a rotatable substrate pedestal and at least one moveable tilted target. Embodiments of the invention facilitate deposition of highly uniform thin films.

Abstract: A system, method and apparatus is capable of producing layers of various materials stacked on one another on a substrate without exposing the substrate to the pressure and contaminants of ambient air until the stack is complete. In one aspect, the stack of layers can include both an insulative layer of one or more insulative films, and a conductive metal layer of one or more conductive metal layer films. In another aspect, a bias signal of positive and negative voltage pulses may be applied to a target of a deposition chamber to facilitate deposition of the target material in a suitable fashion. In yet another aspect, one or more of the deposition chambers may have associated therewith a pump which combines a turbomolecular pump and a cryogenic pump to generate an ultra high vacuum in that chamber. Other features are described and claimed.

Abstract: The invention relates to physical vapor deposition (PVD) chambers having a rotatable substrate pedestal. Embodiments of the invention facilitate deposition of highly uniform thin films. In further embodiments, one or more sputtering targets are movably disposed above the pedestal. The orientation of the targets relative to the pedestal may be adjusted laterally, vertically or angularly. In one embodiment, the target may be adjusted between angles of about 0 to 45 degreees relative to an axis of pedestal rotation.

Abstract: The invention relates to physical vapor deposition (PVD) chambers having a rotatable substrate pedestal and at least one moveable tilted target. Embodiments of the invention facilitate deposition of highly uniform thin films.

Abstract: Embodiments of the present invention provide a method, article of manufacture, and apparatus for processing semiconductor wafers. The method includes preheating a semiconductor wafer in two types of chambers. In one embodiment, a first preheating chamber is a load lock and a second preheating chamber is a transition chamber. Semiconductor wafer processing systems which can perform embodiments of the method are presented.

Abstract: A method and associated apparatus includes depositing metal on a plating surface of an object immersed in an electrolyte solution prior to bulk deposition on the plating surface. In one aspect, the method further includes applying a voltage between an anode and the plating surface to enhance the concentration of metal ions in the electrolyte solution that is contained in a feature on the plating surface prior to the bulk deposition on the plating surface.

Abstract: A positive pressure gradient is maintained across an open access port of an interface chamber such as a load lock chamber which provides an interface between a low pressure chamber such as a transfer or buffer chamber, and a high pressure area such as a staging area or factory interface area. When the access port of the interface chamber is open to the high-pressure area, the positive pressure gradient may be used in some applications to inhibit the flow of gasses from the high-pressure area into the interior of the interface chamber.

Abstract: A positive pressure gradient is maintained across an open access port of an interface chamber such as a load lock chamber which provides an interface between a low pressure chamber such as a transfer or buffer chamber, and a high pressure area such as a staging area or factory interface area. When the access port of the interface chamber is open to the high-pressure area, the positive pressure gradient may be used in some applications to inhibit the flow of gasses from the high-pressure area into the interior of the interface chamber.

Abstract: A method and associated apparatus of electroplating an object and filling small features. The method comprises immersing the plating surface into an electrolyte solution and mechanically enhancing the concentration of metal ions in the electrolyte solution in the features. In one embodiment, the mechanical enhancement comprises mechanically vibrating the plating surface. In another embodiment, the mechanical enhancement comprises mechanically vibrating the electrolyte solution. In a further embodiment, the mechanical enhancement comprises increasing the pressure applied to the electrolyte solution.

Abstract: An apparatus and method for processing semiconductor wafers is provided. The apparatus comprises a first buffer chamber having a first robot and a second buffer chamber having a second robot. At least one load lock is coupled to the first buffer chamber and the second buffer chamber where the first and second robots can access at least one of said load locks. A plurality of process chambers are disposed about the first and second buffer chambers.

Abstract: Embodiments of the present invention provide a method, article of manufacture, and apparatus for processing semiconductor wafers. The method includes preheating a semiconductor wafer in two types of chambers. In one embodiment, a first preheating chamber is a load lock and a second preheating chamber is a transition chamber. Semiconductor wafer processing systems which can perform embodiments of the method are presented.

Abstract: A positive pressure gradient is maintained across an open access port of an interface chamber such as a load lock chamber which provides an interface between a low pressure chamber such as a transfer or buffer chamber, and a high pressure area such as a staging area or factory interface area. When the access port of the interface chamber is open to the high-pressure area, the positive pressure gradient may be used in some applications to inhibit the flow of gasses from the high-pressure area into the interior of the interface chamber.

Abstract: The present invention relates to a method and apparatus for removing particles from substrates undergoing processing in a semiconductor processing system. In the method according to the present invention, semiconductor wafers are placed in a vacuum chamber and gas is injected over the semiconductor wafer to dislodge and remove contaminant particles. The gas is provided by a gas injector affixed to the side of the vacuum chamber opposite the entry point of a wafer. In a preferred embodiment, the gas injector is oriented in the same horizontal plane as the robot arm used to place and remove wafers from the chamber.

Abstract: A method and associated apparatus of electroplating an object and filling small features. The method comprises immersing the plating surface into an electrolyte solution and mechanically enhancing the concentration of metal ions in the electrolyte solution in the features. In one embodiment, the mechanical enhancement comprises mechanically vibrating the plating surface. In another embodiment, the mechanical enhancement comprises mechanically vibrating the electrolyte solution. In a further embodiment, the mechanical enhancement comprises increasing the pressure applied to the electrolyte solution.

Abstract: A method and apparatus are provided for reducing and eliminating the First Wafer Effect. Specifically, in a method, or system that employs a separate hot chamber for hot deposition of material that may result in the First Wafer Effect (FWE material), a cold layer of the FWE material is deposited within the hot deposition chamber prior to deposition of the hot FWE material layer.

Abstract: A method and apparatus for reflowing a material layer is provided. The inventive method introduces into a reflow chamber a material which is at least as reactive or more reactive than a material to be reflowed (i.e., a gettering material). Preferably the gettering material is sputter deposited within the reflow chamber while a shield prevents the gettering material from reaching the material layer to be reflowed. The shield may be coupled to, or integral with a clamp for clamping a wafer (containing the material layer to be reflowed) to a wafer support provided sufficient venting exists so that contaminants degassed from the wafer may flow to the region between the sputtering target and the shield where the contaminants can react with gettering material.

Abstract: A method and apparatus are provided for reducing and eliminating the First Wafer Effect. Specifically, in a method, or system that employs a separate hot chamber for hot deposition of material that may result in the First Wafer Effect (FWE material), a cold layer of the FWE material is deposited within the hot deposition chamber prior to deposition of the hot FWE material layer.

Abstract: A method and apparatus for reflowing a material layer is provided. The inventive method introduces into a reflow chamber a material which is at least as reactive or more reactive than a material to be reflowed (i.e., a gettering material). Preferably the gettering material is sputter deposited within the reflow chamber while a shield prevents the gettering material from reaching the material layer to be reflowed. The shield may be coupled to, or integral with a clamp for clamping a wafer (containing the material layer to be reflowed) to a wafer support provided sufficient venting exists so that contaminants degassed from the wafer may flow to the region between the sputtering target and the shield where the contaminants can react with gettering material.

Abstract: In a plasma generating apparatus, a coil is positioned between a target and a workpiece to inductively couple RF energy into a plasma so that the paths of a portion of the ionized deposition material are deflected from the center of the workpiece and toward the edges of the workpiece. As a consequence, it has been found that the uniformity of deposition may be improved. In the illustrated embodiment, the coil is a multi-turn coil formed in a generally planar spiral centered in the stream of deposition material.