Abstract: A nanoimprint lithography method to remove uncured pretreatment composition from an imprinted nanoimprint lithography substrate. The method includes disposing a pretreatment composition on a nanoimprint lithography substrate to form a pretreatment coating and disposing discrete portions of imprint resist on the pretreatment coating, each discrete portion of the imprint resist covering a target area of the nanoimprint lithography substrate. A composite polymerizable coating is formed on the nanoimprint lithography substrate as each discrete portion of the imprint resist spreads beyond its target area, and the composite polymerizable coating is contacted with a nanoimprint lithography template. The composite polymerizable coating is polymerized to yield a composite polymeric layer and an uncured portion of the pretreatment coating on the nanoimprint lithography substrate, and the uncured portion of the pretreatment coating is removed from the nanoimprint lithography substrate.

Abstract: In an embodiment, an imprint apparatus can include a substrate holder having a chucking region and a recessed support section; and a template holder, wherein the chucking region has more area as compared to a template region. In another embodiment, an imprint apparatus can include gas zones; and a gas controller that can be configured to adjust pressures within the gas zones to induce a convex curvature of a partial field of a workpiece used with the imprint apparatus. A method can include providing a workpiece within an imprint apparatus, wherein the workpiece includes a substrate and a formable material; and initially contacting a template with the formable material at a location spaced apart from the periphery of a partial field. In a particular embodiment, the method can further include modulating the substrate to form a convex shape contacting the template with the formable material.

Abstract: An imprint apparatus includes a substrate holder including a plurality of chucking regions for chucking a substrate, and a controller that controls chucking forces of the chucking regions. The chucking regions include a first chucking region for chucking a periphery of a first substrate having a first diameter, a second chucking region for chucking a periphery of a second substrate having a second diameter larger than the first diameter, a third chucking region group divided into a plurality of regions inside the first chucking region, and a fourth chucking region group divided into a plurality of regions between the first chucking region and the second chucking region. The controller controls the chucking forces of each of the chucking regions.

Abstract: Provided is an imprint apparatus for contacting a resin applied to a substrate with a mold to perform patterning on the substrate. The imprint apparatus includes a substrate holding unit for holding the substrate, wherein the substrate holding unit comprises a plurality of holding areas arranged in a predetermined direction, the plurality of holding areas has different width dimension in the direction respectively based on positions in the direction, a surface ratio between two holding areas of the plurality of holding areas with different width dimension respectively is within a range of 0.8 to 1.2.

Abstract: Methods of increasing etch selectivity in imprint lithography are described which employ material deposition techniques that impart a unique morphology to the multi-layer material stacks, thereby enhancing etch process window and improving etch selectivity. For example, etch selectivity of 50:1 or more between patterned resist layer and deposited metals, metalloids, or non-organic oxides can be achieved, which greatly preserves the pattern feature height prior to the etch process that transfers the pattern into the substrate, allowing for sub-20 nm pattern transfer at high fidelity.

Abstract: The present invention provides methods of reducing or enhancing T cell activation and/or B cell activation in a subject, comprising administering to a subject an effective amount of an inhibitor or enhancer, respectively, of Semaphorin 6D (Sema6D) activity on T cells and/or B cells.

Abstract: Methods of increasing etch selectivity in imprint lithography are described which employ material deposition techniques that impart a unique morphology to the multi-layer material stacks, thereby enhancing etch process window and improving etch selectivity. For example, etch selectivity of 50:1 or more between patterned resist layer and deposited metals, metalloids, or non-organic oxides can be achieved, which greatly preserves the pattern feature height prior to the etch process that transfers the pattern into the substrate, allowing for sub-20 nm pattern transfer at high fidelity.

Abstract: Imprint lithography templates having leading and trailing edge borders are provided that achieve zero-gap imprinting between adjacent fields with full-feature height features provided in the pattern exclusion zones (PEZ) located between such fields. The leading edge borders include dummy features, e.g., elongated features directionally oriented parallel to the mesa edge, while the trailing edge border includes a recess extending to the mesa edges. When used in a step-and-repeat process, the trailing edge border overlaps edge portions of an adjacent imprinted field that were previously patterned by the leading edge border of the template, producing full-feature height features in the pattern exclusion zones between such fields, and avoiding gaps or open areas between such fields that otherwise lead to non-uniformity of downstream processes such as etch processes and CMP.

Abstract: The present invention provides methods of reducing or enhancing T cell activation and/or B cell activation in a subject, comprising administering to a subject an effective amount of an inhibitor or enhancer, respectively, of Semaphorin 6D (Sema6D) activity on T cells and/or B cells.

Abstract: The present invention provides methods of reducing or enhancing T cell activation and/or B cell activation in a subject, comprising administering to a subject an effective amount of an inhibitor or enhancer, respectively, of Semaphorin 6D (Sema6D) activity on T cells and/or B cells.

Abstract: Systems and methods for adhering a substrate to a patterned layer are described. Included are in situ cleaning and conditioning of the substrate, and the application of an adhesion layer between the substrate and the patterned layer, as well as forming an intermediate layer between adhesion materials and the substrate.

Abstract: The present invention provides methods of reducing or enhancing T cell activation and/or B cell activation in a subject, comprising administering to a subject an effective amount of an inhibitor or enhancer, respectively, of Semaphorin 6D (Sema6D) activity on T cells and/or B cells.

Abstract: Described are systems and method of using a vapor delivery system for enabling delivery of an adhesion promoter material during an imprint lithography process.

Abstract: Post sputter cleaning of hard disk substrates for use in an imprint lithography processes. The cleaning removes contaminants including organic contaminants that otherwise may cause repeating void (non-fill) defects in the imprinted pattern.

Abstract: Forming an adhesive layer on a nanoimprint lithography template or a double-sided disk. Forming the adhesive layer on the double-sided disk includes immersing the double-sided disk in a liquid adhesive composition and removing the double-sided disk from the adhesive composition. The outer layer of the double-sided disk is a carbon overcoating or an intermediate layer. The adhesive composition is dried to form a first adhesion layer adhered directly to the carbon overcoating or intermediate layer on a first side of the disk and a second adhesion layer adhered directly to the carbon overcoating or intermediate layer on a second side of the disk. Forming the adhesive layer on the nanoimprint lithography template includes applying an adhesive material to the template, allowing the template to remain motionless, and rinsing a portion of the adhesive material from the template with a solvent, and drying the template.

Abstract: Systems and methods for adhering a substrate to a patterned layer are described. Included are in situ cleaning and conditioning of the substrate, and the application of an adhesion layer between the substrate and the patterned layer, as well as forming an intermediate layer between adhesion materials and the substrate.

Abstract: The present invention provides methods of reducing or enhancing T cell activation and/or B cell activation in a subject, comprising administering to a subject an effective amount of an inhibitor or enhancer, respectively, of Semaphorin 6D (Sema6D) activity on T cells and/or B cells.

Abstract: In certain embodiments, a thermoelectric device apparatus includes a plurality of laterally spaced-apart electrodes disposed upon a supporting structure, and at least one complementary pair of thermoelectric elements, each thermoelectric element coupling an electrode to a laterally adjacent electrode. Such a structure reduces the need for solder joints or other structures or mechanisms to attach multiple substrates, components, or assemblies together to form a thermoelectric device.