A configuration including a main pattern region and a measurement pattern region which are set on one surface of a substrate having flexibility, wherein the measurement pattern region has at least a region disposed inside the contour line of the main pattern region, a main pattern, in which a plurality of line-shaped main convex patterns are arrayed with desired intervals, is disposed in the main pattern region, a measurement pattern, in which a plurality of line-shaped unit convex patterns are arrayed with desired intervals, is disposed in the measurement pattern region, and the line direction of the main pattern and the line direction of the measurement pattern are the same.

A template of one embodiment includes an alignment mark. The alignment mark includes a first main pattern and a first auxiliary pattern. In the first main pattern, a first part and a second part are disposed according to a predetermined repeating pattern. The first auxiliary pattern is configured as a pattern opposite to the repeating pattern in a region outside an end of the first main pattern.

According to one embodiment, a template includes an alignment mark. The alignment mark includes first marks arranged at a first pitch in a first direction and second marks arranged at a second pitch in the first direction. At least one of the first marks includes a first region and a third region. At least one of the second marks includes a second region and the third region. The first region has first patterns arranged in a line-and-space form in the first direction. The second region has second patterns arranged in a line-and-space form in a second direction orthogonal to the first direction.

An evaluation apparatus that evaluates a composition formed on a substrate by forming processing is provided. The apparatus comprises an obtaining device that obtains an image including the composition by the forming processing, and a processing device that processes the image for the evaluation. The processing device outputs a feature of each of one or more abnormalities in the image according to an inference model, obtains information regarding a formation region on the substrate where the composition has been formed, determines the kind of each of the abnormalities based on the output feature of each of the abnormalities and a relationship between the information and a position and a size of the abnormality, and makes, based on a result of the determination, final determination as to whether the image is a normal image or an image including an abnormality.

An imprint apparatus performs an imprint process of forming a pattern on a substrate by bringing a mold into contact with an imprint material on the substrate and curing the imprint material. The apparatus includes a substrate stage mechanism having a substrate chuck configured to hold the substrate, a mold driver configured to drive the mold, and a controller configured to control, based on tilt information indicating a tilt of the substrate chuck which is caused by a force received from the mold driver, the mold driver so as to adjust a relative tilt of the mold with respect to the substrate in the imprint process.

An imprint apparatus forms a pattern on an imprint region of a substrate by bringing a mold into contact with an imprint material on the imprint region and curing the imprint material. The apparatus includes a controller for controlling an alignment operation of adjusting relative position between the mold and the imprint region in a state that the mold is in contact with the imprint material. The alignment operation includes a translation operation of performing relative translation between the imprint region and the mold, and a rotation operation of performing relative rotation between the imprint region and the mold. The rotation operation includes a first operation and a second operation, and a relative rotation direction between the imprint region and the mold in the second operation is opposite to a relative rotation direction between the imprint region and the mold in the first operation.

A system and method of imprinting a formable material on a substrate includes a feature with a template. The substrate is initially held with a first back pressure. After which the template is brought into contact with the formable material. A template strain tensor above the feature may be greater than a strain threshold. The substrate is then held with a second back pressure less than the first back pressure, after which the substrate strain below the feature increases. After which the formable material is solidified.

A detection apparatus that detects a position deviation between an original and a substrate is provided. The apparatus includes an illumination optical system configured to illuminate a first diffraction grating arranged on the original and a second diffraction grating arranged on the substrate, and a detection optical system configured to detect interference light formed by diffracted light diffracted by the first diffraction grating and diffracted light diffracted by the second diffraction grating. The illumination optical system performs dipole illumination by light including two poles in a pupil plane of the illumination optical system, and polarization directions of light beams emitted from the two poles, respectively, and incident on the substrate are orthogonal to each other.

Apparatus and methods of performing nanoimprint lithography using an anti-slip landing ring are provided. In one embodiment, a process chamber for nanoimprint lithography is provided and includes a substrate support and a ring disposed on the substrate support. The ring has a top surface opposite the substrate support, and the top surface has a grid pattern. A bottom surface facing the substrate support has a different pattern compared to the grid pattern.

Methods and apparatuses related to fiducial designs for fiducial markers on glass substrates, or other transparent or translucent substrates, are disclosed. Example fiducial designs can facilitate visual recognition by enhancing edge detection in visual perception. In example fiducial designs, optical features on glass substrates can re-direct light so as to present a bright image region. Such optical features can include surface relief patterns formed in a coating on the surface of glass substrates. An exemplary method for manufacturing the fiducial markers can involve transfers of a fiducial design across a master mold or plate, a submaster mold or plate, and a target glass substrate. A fiducial marker can facilitate the use of the substrate in a variety of applications, including machine vision systems that facilitate automated performance of manufacturing processes on input working material.