An imprint apparatus that molds an imprint material on a substrate with a mold, the imprint apparatus including a applying device that includes a discharge surface in which a discharge opening is formed, the applying device applying the imprint material to the substrate through the discharge opening, and a measuring device that measures the position of the discharge opening by having the measuring device measure a position of an uneven structure formed in a protruded shape or a recessed shape with respect to a direction perpendicular to the discharge surface.

A processing apparatus used in processing a workpiece having a device in each of a plurality of regions that includes a chuck table holding the workpiece, positioning means positioning the workpiece before grinding, resin coating means including a rotatable spinner table for coating the workpiece with a resin, cleaning means, a grinding unit, and a transfer unit. The transfer unit includes a first transfer unit transferring the workpiece from the positioning means to the spinner table and from the spinner table to the chuck table, a second transfer unit transferring the workpiece from the chuck table to the cleaning means, and a front/back surface inversion transfer unit taking over the workpiece from the cleaning means to the second transfer unit.

A substrate treatment method for treating a substrate, includes: (a) applying a coating solution to a front surface of the substrate by a spin coating method to form a coating film; (b) supplying a solvent for the coating solution to a projection of the coating film formed at a front surface peripheral edge of the substrate at (a); and (c) rotating the substrate in a state where the supply of the solvent is stopped, to move a top of the projection to an outside in a radial direction of the substrate. (b) and (c) are repeatedly performed. The projection is a buildup of the coating solution protruding from the coating film.

A system and/or method for coating a substrate. The system may include a chuck for holding and rotating the substrate, a dispensing subsystem for dispensing a coating material onto the substrate, and a shield member. The shield member may be movable towards and away from the substrate during the coating procedure. The shield member may have an inverted funnel shape. The shield member may include a central chamber through which a solvent vapor flows and a peripheral chamber that is fluidly separated from the central chamber through which a gas flows. During a coating procedure, the shield member may be moved very close to the substrate and the solvent vapor and gas may flow onto the substrate to create a solvent rich ambient around the substrate and prevent aerosols of the coating material from redepositing onto the substrate after being flung off due to spinning of the substrate.

A planarization system comprises a substrate chuck configured to hold a substrate, a superstrate chuck configured to hold a superstrate, a planarizing head configured to support the superstrate chuck, a positioning system configured to cause the superstrate to come into contact with formable material dispensed on the substrate to form a multilayer structure, the multilayer structure including the superstrate, a film of the formable material, and the substrate, and an annular light source disposed between an upper end of the planarizing head and the substrate chuck. The annular light source is configured to emit light onto an outer annular region of the multilayer structure without emitting the light onto an inner central region of the multilayer structure. The inner central region is located radially inward relative to the outer annular region.

A method for providing a substrate coating comprises transferring a substrate to an enclosed ink jet printing system; printing organic material in a deposition region of the substrate using the enclosed ink jet printing system, the deposition region comprising at least a portion of an active region of a light-emitting device on the substrate; loading the substrate with the organic material deposited thereon to an enclosed curing module; supporting the substrate in the enclosed curing module, the supporting the substrate comprising floating the substrate on a gas cushion established by a floatation support apparatus; and while supporting the substrate in the enclosed curing module, curing the organic material deposited on the substrate to form an organic film layer.

The apparatus includes a plurality of process chambers having treatment spaces configured to process the substrate in the treatment spaces, and an exhaust unit to exhaust gas from the treatment space. The exhaust unit includes a plurality of individual exhaust pipes directly connected to the treatment spaces in one process chamber or the plurality of process chambers, a main exhaust pipe connected to the plurality of individual exhaust pipes, a pressure reducing member installed in the main exhaust pipe to reduce pressure of the treatment space, and a damper member mounted in each of the individual exhaust pipes to adjust an amount of gas exhausted through the individual exhaust pipe. The damper member includes a first damper to adjust an amount of gas exhausted from the treatment spaces, and a second damper disposed downstream of the first damper to buffer a pressure change caused by adjusting the first damper.

A method of manufacturing a light emitting device includes: a resin layer disposition step including disposing, on a support, a resin layer in an A-stage state; a light emitting element mounting step including mounting a light emitting element on the resin layer such that a first surface faces an upper surface of the resin layer; a load application step including applying a load to the light emitting element so as to embed the semiconductor stack structure at least partly in the resin layer while a second surface of the light emitting element is exposed from the resin layer; a first heating step including heating the resin layer at a first temperature without applying the load, to lower a viscosity of the resin layer; and a second heating step including heating the resin layer at a second temperature higher than the first temperature to harden the resin layer.

A substrate processing apparatus includes a substrate support configured to support and rotate a substrate, at least one first lower cleaning nozzle configured to spray a first cleaning liquid on a lower surface of the substrate, at least one second lower cleaning nozzle configured to spray a second cleaning liquid on the lower surface of the substrate, a bowl assembly disposed around the substrate support, the bowl assembly including a cup body providing an annular shaped accommodating space and inner and outer collection portions sequentially arranged in a radial direction in a lower portion of the cup body, an annular shaped discharge guide plate disposed in the receiving space of the bowl assembly under the substrate and extending outwardly from a circumference of the substrate, and a discharge separation plate provided within the receiving space of the bowl assembly to be movable upward and downward.

An apparatus for processing a wafer comprises: a rotatable chuck adapted to receive a wafer; a heating assembly comprising an array of heating elements arranged to heat a wafer received by the rotatable chuck; an image sensor arranged to detect electromagnetic radiation from a surface of the wafer; and a controller configured to control supply of power to the array of heating elements based on a measurement output of the image sensor.