According to one embodiment, a magnetic recording medium including a substrate and a magnetic recording layer formed on the substrate and including a plurality of projections is obtained. The array of the plurality of projections includes a plurality of domains in which the projections are regularly arranged, and a boundary region between the domains, in which the projections are irregularly arranged. The boundary region is formed along a perpendicular bisector of a line connecting the barycenters of adjacent projections.

In one embodiment, a structure includes: a substrate; and a monolayer of nanoparticles positioned above the substrate, where the nanoparticles are each grafted to one or more oligomers and/or polymers, and where each of the polymers and/or oligomers includes at least a first functional group configured to bind to the nanoparticles. In another embodiment, a structure includes: a substrate; a structured layer positioned above the substrate, the structured layer comprising a plurality of nucleation regions and a plurality of non-nucleation regions; and a crystalline layer positioned above the structured layer, where the plurality of nucleation regions have a pitch in a range between about 5 nm to about 20 nm.

In one embodiment, a structure includes: a substrate; and a monolayer of nanoparticles positioned above the substrate, where the nanoparticles are each grafted to one or more oligomers and/or polymers, and where each of the polymers and/or oligomers includes at least a first functional group configured to bind to the nanoparticles. In another embodiment, a structure includes: a substrate; a structured layer positioned above the substrate, the structured layer comprising a plurality of nucleation regions and a plurality of non-nucleation regions; and a crystalline layer positioned above the structured layer, where the plurality of nucleation regions have a pitch in a range between about 5 nm to about 20 nm.

Apparatus and methods for simultaneously supporting multiple workpieces inside a processing space of a plasma processing system for simultaneous two-sided plasma processing. The apparatus may be a fixture having a carrier plate configured to be supported inside the processing space and a plurality of first openings extending through the thickness of the carrier plate. The carrier plate is configured to contact each of the workpieces over an annular region at an outer peripheral edge so that the first and second sides of each of the workpieces is exposed to the plasma through a respective one of said plurality of first openings.

Apparatus and methods for simultaneously supporting multiple workpieces inside a processing space of a plasma processing system for simultaneous two-sided plasma processing. The apparatus may be a fixture having a carrier plate configured to be supported inside the processing space and a plurality of first openings extending through the thickness of the carrier plate. The carrier plate is configured to contact each of the workpieces over an annular region at an outer peripheral edge so that the first and second sides of each of the workpieces is exposed to the plasma through a respective one of said plurality of first openings.

This disclosure relates to a memory device that includes at least one magnetic track on a substrate, wherein the at least one magnetic track comprises one or more magnetic domains. Contacts can be disposed on the at least one magnetic track according to a predetermined arrangement to form a plurality of bitcells on the at least one magnetic track, wherein each one of the plurality of bitcells is configured to store at least one magnetic domain. The device can include a timing circuit connected to the contacts, with the timing circuit being configured to apply to the contacts multiple phases of electric currents according to a predetermined timing sequence to cause the at least one magnetic domain to shift from the each one of the plurality of bitcells to an adjacent one of the plurality of bitcells on the at least one magnetic track.

This disclosure relates to a memory device that includes at least one magnetic track on a substrate, wherein the at least one magnetic track comprises one or more magnetic domains. Contacts can be disposed on the at least one magnetic track according to a predetermined arrangement to form a plurality of bitcells on the at least one magnetic track, wherein each one of the plurality of bitcells is configured to store at least one magnetic domain. The device can include a timing circuit connected to the contacts, with the timing circuit being configured to apply to the contacts multiple phases of electric currents according to a predetermined timing sequence to cause the at least one magnetic domain to shift from the each one of the plurality of bitcells to an adjacent one of the plurality of bitcells on the at least one magnetic track.

The present invention provides an imprint apparatus which performs an imprint process of transferring a pattern onto a substrate, the apparatus comprising a deforming unit configured to deform the pattern surface by applying a force to the mold, an obtaining unit configured to obtain thickness information of the mold, a calculation unit configured to calculate a force to be applied to the mold based on the thickness information of the mold obtained by the obtaining unit, so that the pattern surface has a target shape in the imprint process, and a control unit configured to control the deforming unit to apply the force calculated by the calculation unit to the mold in the imprint process.

The present invention provides an imprint apparatus which performs an imprint process of transferring a pattern onto a substrate, the apparatus comprising a deforming unit configured to deform the pattern surface by applying a force to the mold, an obtaining unit configured to obtain thickness information of the mold, a calculation unit configured to calculate a force to be applied to the mold based on the thickness information of the mold obtained by the obtaining unit, so that the pattern surface has a target shape in the imprint process, and a control unit configured to control the deforming unit to apply the force calculated by the calculation unit to the mold in the imprint process.

A magnetic recording medium includes a substrate; a lower base layer formed on the substrate; and a (001) oriented L1.sub.0 magnetic layer formed on the lower base layer and including a first magnetic layer formed on the lower base layer and having a granular structure of magnetic grains and a grain boundary portion, the grain boundary portion containing C, and a second magnetic layer formed on the first magnetic layer and having a granular structure of magnetic grains and a grain boundary portion, the grain boundary portion containing oxide or nitride, the second magnetic layer further containing one or more elements selected from a group consisting of Mg, Ni, Zn, Ge, Pd, Sn, Ag, Re, Au and Pb as an additive.