Abstract: A method for tracking a user across multiple website domains over a computerized network, the method comprising sending a first first-party user identifier to a collector in response to a user accessing a first website; generating a first user prompt in response to the user accessing the first website; receiving a first input from the user in response to the first user prompt; redirecting the user to a centralized domain; sending a second first-party user identifier associated with the user and the centralized domain to the collector; correlating the first first-party user identifier with the second first-party user identifier to determine that the user is associated with both the first first-party user identifier and the second first-party user identifier; and displaying a webpage of the centralized domain or a landing page in response to the correlation.

Abstract: A method for tracking a user across multiple website domains over a computerized network, the method comprising sending a first first-party user identifier to a collector in response to a user accessing a first website; generating a first user prompt in response to the user accessing the first website; receiving a first input from the user in response to the first user prompt; redirecting the user to a centralized domain; sending a second first-party user identifier associated with the user and the centralized domain to the collector; correlating the first first-party user identifier with the second first-party user identifier to determine that the user is associated with both the first first-party user identifier and the second first-party user identifier; and displaying a webpage of the centralized domain or a landing page in response to the correlation.

Abstract: A method for tracking a user across multiple website domains over a computerized network, the method comprising sending a first first-party user identifier to a collector in response to a user accessing a first website; generating a first user prompt in response to the user accessing the first website; receiving a first input from the user in response to the first user prompt; redirecting the user to a centralized domain; sending a second first-party user identifier associated with the user and the centralized domain to the collector; correlating the first first-party user identifier with the second first-party user identifier to determine that the user is associated with both the first first-party user identifier and the second first-party user identifier; and displaying a webpage of the centralized domain or a landing page in response to the correlation.

Abstract: A cleaning assembly is provided. The cleaning assembly includes a plate having a front surface and a back surface and a manifold affixed to an edge of the plate. The manifold has a plurality of outlets extending therefrom. The plate further includes a plurality of cups extending through the plate. The plurality of cups have an upper body with an outlet extending from the back surface and the plurality of cups have a sealing portion coupled to the upper body and extending from the front surface of the plate. Each outlet of the upper body is coupled to one of the corresponding plurality of outlets of the manifold. The plate also includes a plurality of alignment pins extending from the front surface of the plate. The plurality of alignment pins are configured to support an edge of a substrate, wherein one of the plurality of alignment pins is slidably mounted to the plate. A plurality of guide pins extends the same distance from the back surface.

Abstract: Overlapping combinatorial processing can offer more processed regions, better particle performance and simpler process equipment. In overlapping combinatorial processing, one or more regions are processed in series with some degrees of overlapping between regions. In some embodiments, overlapping combinatorial processing can be used in conjunction with non-overlapping combinatorial processing and non-combinatorial processing to develop and investigate materials and processes for device processing and manufacturing.

Abstract: Overlapping combinatorial processing can offer more processed regions, better particle performance and simpler process equipment. In overlapping combinatorial processing, one or more regions are processed in series with some degrees of overlapping between regions. In some embodiments, overlapping combinatorial processing can be used in conjunction with non-overlapping combinatorial processing and non-combinatorial processing to develop and investigate materials and processes for device processing and manufacturing.

Abstract: A cleaning chamber is provided. The cleaning chamber includes a base portion housing a chuck and a lid affixed to the base portion. A support assembly is linked to the lid and the support assembly includes a top plate spaced apart from a bottom plate, the top plate has a plurality of openings defined therethrough and the bottom plate has a plurality of openings defined therethrough. The cleaning chamber includes a plurality of cups extending through corresponding pairs of the plurality of openings of the top plate and the bottom plate. The plurality of cups is configured to seal against a surface of a substrate, wherein each cup of the plurality of cups is independently supported by the bottom plate.

Abstract: A cleaning chamber is provided. The cleaning chamber includes a base portion housing a chuck and a lid affixed to the base portion. A support assembly is linked to the lid and the support assembly includes a top plate spaced apart from a bottom plate, the top plate has a plurality of openings defined therethrough and the bottom plate has a plurality of openings defined therethrough. The cleaning chamber includes a plurality of cups extending through corresponding pairs of the plurality of openings of the top plate and the bottom plate. The plurality of cups is configured to seal against a surface of a substrate, wherein each cup of the plurality of cups is independently supported by the bottom plate.

Abstract: Overlapping combinatorial processing can offer more processed regions, better particle performance and simpler process equipment. In overlapping combinatorial processing, one or more regions are processed in series with some degrees of overlapping between regions. In some embodiments, overlapping combinatorial processing can be used in conjunction with non-overlapping combinatorial processing and non-combinatorial processing to develop and investigate materials and processes for device processing and manufacturing.

Abstract: A system for combinatorially processing a substrate is provided. The system includes a reactor or chemical library having a plurality of chambers defined within the reactor or library, the chambers operable to mix fluids disposed therein. A drive system is disposed below a bottom surface of the reactor. The drive system is operable to rotate a plurality of support plates below the surface of the substrate. The plurality of support plates has a non-circular shape. The non-circular shape of adjacent support plates includes extensions configured to traverse overlapping regions of rotation during rotation of adjacent support plates. Each of the extensions has a magnet disposed thereon.

Abstract: A cleaning assembly is provided. The cleaning assembly includes a plate having a front surface and a back surface and a manifold affixed to an edge of the plate. The manifold has a plurality of outlets extending therefrom. The plate further includes a plurality of cups extending through the plate. The plurality of cups have an upper body with an outlet extending from the back surface and the plurality of cups have a sealing portion coupled to the upper body and extending from the front surface of the plate. Each outlet of the upper body is coupled to one of the corresponding plurality of outlets of the manifold. The plate also includes a plurality of alignment pins extending from the front surface of the plate. The plurality of alignment pins are configured to support an edge of a substrate, wherein one of the plurality of alignment pins is slidably mounted to the plate. A plurality of guide pins extends the same distance from the back surface.

Abstract: A cleaning chamber is provided. The cleaning chamber includes a base portion housing a chuck and a lid affixed to the base portion. A support assembly is linked to the lid and the support assembly includes a top plate spaced apart from a bottom plate, the top plate has a plurality of openings defined therethrough and the bottom plate has a plurality of openings defined therethrough. The cleaning chamber includes a plurality of cups extending through corresponding pairs of the plurality of openings of the top plate and the bottom plate. The plurality of cups is configured to seal against a surface of a substrate, wherein each cup of the plurality of cups is independently supported by the bottom plate.