The imprint method includes changing the position of a detector that detects an alignment mark formed on a shot on a substrate; bringing a pattern formed on a mold into contact with an imprint material supplied on the shot on the substrate; and detecting the alignment mark using the detector after completion of the change in the position of the detector. Here, the contacting is started prior to completion of the change in the position of the detector.

The present invention provides an imprint apparatus which forms a pattern on an imprint material on a substrate by using a mold, including a first optical member interposed between an illumination optical system and a detection optical system, and a mold, and configured to guide a first light from the illumination optical system and a second light from the detection optical system to the mold, and a second optical member interposed between the first optical member and the detection optical system, and configured to transmit the second light which is reflected by a mark formed on the mold or a mark formed on the substrate and travels toward the detection optical system through the first optical member, and block the first light which travels toward the detection optical system through the first optical member.

An imprint apparatus cures an imprint material, while a pattern formed on a mold is kept in contact with the imprint material, thereby transferring the pattern onto the imprint material. The apparatus includes a measurement unit which performs, in parallel, alignment measurement in which a relative position between the mold and a shot region on the substrate, to which the pattern is to be transferred, is measured so as to align the mold and the shot region, and overlay measurement in which a relative position between a first pattern already formed in another shot region on the substrate using the mold, and a second pattern underlying the first patter is measured.

This disclosure provides a detection apparatus configured to detect a moire pattern generated by grid patterns having grid pitches different from each other including: an image-pickup unit configured to pick up an image of the moire pattern; an imaging optical system configured to cause the image-pickup unit to image the moire pattern; and a processing unit configured to process an image-pickup result of the moire pattern imaged by the image-pickup unit, wherein a mark including a plurality of patterns having a width not larger than the resolving power of the imaging optical system arranged in a measuring direction and changed in duty ratio between the widths and intervals of the plurality of patterns is imaged by the image-pickup unit, and the processing unit evaluates the detection apparatus by processing the image-pickup result of the mark picked up by the image-pickup unit.

The present invention provides a detection apparatus for detecting a position of a detection target, including an illumination optical system configured to perform dark-field illumination on a reference mark, and a detection optical system including a sensor configured to detect light from the reference mark and an optical system configured to guide the light from the reference mark to the sensor, and configured to detect a position of the reference mark in a first direction, wherein the reference mark includes one mark element in the first direction, and a width of the mark element in the first direction is set such that two edges of the mark element in the first direction are detected as one peak when the sensor detects the light from the reference mark.

According to the embodiments, a template in which a main pattern is placed on a pattern-formed surface of a template substrate, the main pattern being formed by a concave and convex pattern, the template substrate being transparent to an electromagnetic wave with a predetermined wavelength is provided. The template includes a first mark in which line-shaped first concave patterns and first convex patterns are alternately placed in a width direction on the pattern-formed surface. The first convex pattern includes a first light-blocking portion and a first translucent portion. The first light-blocking portion is a region including a first side surface in the width direction and being covered with a metal film. The first translucent portion is a region including a second side surface in the width direction and being not covered with the metal film.

A method for correcting an exposure pattern on a substrate includes obtaining, based on the exposure pattern, displacement adjustment parameters for adjusting displacements of a worktable supporting the substrate in each of a first direction and a second direction, a rotation angle adjustment parameter for adjusting a rotation angle of the worktable in a rotation direction, and a gap adjustment parameter for adjusting a gap between the worktable and a mask plate. The first direction and the second direction are perpendicular to each other in a horizontal plane. The rotation direction is a direction in which the worktable rotates around a central axis of a base table supporting the mask plate. The method further includes moving the worktable based on the displacement adjustment parameters, the rotation angle adjustment parameter and the gap adjustment parameter.