Abstract: A mold for forming a resin pattern using nanoimprint lithography according to the present invention comprises a main mold including a fine pattern of a protrusion and a depression intended to be transferred, and a spacer for forming a space between the protrusion of the fine pattern of the main mold and a transferred object during a transfer of the fine pattern, in which the spacer has a vent passage capable of flowing gas therethrough and has an elasticity against a pressing force during the transfer.

Abstract: An imprint apparatus for forming fine structure lithography comprises: a belt-like mold having a fine structure for imprint lithography formed on a surface of the belt-like mold; a cylindrical pressurizing mechanism including a pair of opposed rolls for pressurizing the belt-like mold against the surface of the imprinting object; and a supporting member for supporting the imprinting object at a position between the rolls of the cylindrical pressurizing mechanism. The belt-like mold, the imprinting object and the supporting member are configured to move to the cylindrical pressurizing mechanism in a mutually non-contact state, and then at the position between the rolls, be pressurized by the cylindrical pressurizing mechanism in a state where the imprinting object is positioned between the belt-like mold and the supporting member.

Abstract: There is provided an imprint device for transferring a fine pattern to a material to form a patterned material. The device comprises a stamper having the fine pattern thereon, and a pressure distribution mechanism. The stamper is pressed against the material, and the pressure distribution mechanism provides a nonuniform pressure distribution in a patterned region of the patterned material, while the stamper is in contact with the material. There are provided an imprint device and a microstructure transfer method, by which it is possible to sufficiently spread a resin or other material for forming a pattern layer between a stamper and a patterned material with a lower pressure so as not to damage the stamper or the patterned material, and to form a pattern formation layer having the uniform thickness on the patterned material.

Abstract: The fine pattern mold that includes a roll, a buffer tube with inner peripheral surface is in contact with an outer peripheral surface of the roll, and a stamper tube in which its inner peripheral surface is in contact with an outer peripheral surface of the buffer tube and a fine concave/convex pattern is formed on its outer peripheral surface, wherein the buffer tube has a larger coefficient of linear expansion and a smaller elastic modulus than those of the stamper tube.

Abstract: In order to allow for aligning a relative position between a transferred object and a stamper with high accuracy without providing an alignment pattern in the transferred object, there are provided: a pattern transfer method, including: when adjusting the relative position between the stamper and the transferred object, a step of detecting at least two or more edge positions of the transferred object and calculating an arbitrary point from the detected edge positions; a step of detecting a position of the stamper from an edge of the stamper or an alignment mark formed in the stamper; and a step of adjusting the relative position between the transferred object and the stamper from the arbitrary point and the position of the stamper; and an imprint device using the same.

Abstract: An imprinting stamper which can transfer a microscopic pattern to a medium bearing a convex area or local projection, with high accuracy. A convexo-concave pattern is formed on a surface of the imprinting stamper. It includes a pattern layer having the convexo-concave pattern; and a stamper backside layer arranged on a backside of the pattern layer. Young's modulus of the pattern layer is 500 MPa to 10 GPa; and Young's modulus of the stamper backside layer is smaller than Young's modulus of the pattern layer.

Abstract: There is provided an imprint device for transferring a fine pattern to a material to form a patterned material. The device comprises a stamper having the fine pattern thereon, and a pressure distribution mechanism. The stamper is pressed against the material, and the pressure distribution mechanism provides a nonuniform pressure distribution in a patterned region of the patterned material, while the stamper is in contact with the material. There are provided an imprint device and a microstructure transfer method, by which it is possible to sufficiently spread a resin or other material for forming a pattern layer between a stamper and a patterned material with a lower pressure so as not to damage the stamper or the patterned material, and to form a pattern formation layer having the uniform thickness on the patterned material.

Abstract: The present invention provides a nano-imprinting resin stamper including a micro structure layer on a transmissive support basal material, the micro structure layer being formed of a polymer of a resin composition that contains a silsesquioxane derivative as a major constituent having a plurality of polymerizable functional groups, another polymerizable resin component having a plurality of polymerizable functional groups and different from the silsesquioxane derivative, and a photopolymerizable initiator, in which the content percentage of the photopolymerizable initiator is equal to or more than 0.3 mass % and equal to or less than 3 mass % relative to a total mass of the silsesquioxane derivative and the polymerizable resin component, and the micro structure layer permits equal to or more than 80% of light to pass therethrough at a wavelength of 365 nm.

Abstract: A photopolymerizable resin composition for transferring a microstructure, which allows a thinner and uniform thin film to be formed, a transfer accuracy of extremely smaller microfine pattern to be excellent, and a curing time of the thin film to be shortened, is provided. The photopolymerizable resin composition for transferring a microstructure comprises the following component (A), component (B), component (C), component (D) and component (E) at the rate described below: (A) a 6 to 15-functional acrylate; in 0.5 to 10 mass % (B) an acrylate with a weight-average molecular weight (Mw) of 1000 to 10000; in 0.5 to 10 mass % (C) an acrylate having a benzene ring; in 0.5 to 10 mass % (D) a reactive diluent; in 80 to 98 mass % (E) a photopolymerization initiator; in 0.1 to 5 mass %.

Abstract: A nanoimprint stamper can simultaneously conform to two types of anomaly in the shape of a transfer substrate, for example warpage and surface protrusions (including foreign objects) that differ greatly in the wavelength of variation. The nanoimprint stamper is capable of performing transfer with a smaller number of defects and in a uniform way. The nanoimprint stamper includes a light-transmitting rigid substrate, a light-transmitting resilient plate, a light-trarsmitting and flexible rigid stamper base, a light-transmitting stamper buffer layer, and a light-transmitting patterned stamp layer. The stamper buffer layer has a lower Young's modulus than the patterned stamp layer.

Abstract: The fine pattern mold comprises: that includes a roll, a buffer tube with inner peripheral surface is in contact with an outer peripheral surface of the roll, and a stamper tube in which its inner peripheral surface is in contact with an outer peripheral surface of the buffer tube and a fine concave/convex pattern is formed on its outer peripheral surface, wherein the buffer tube has a larger coefficient of linear expansion and a smaller elastic modulus than those of the stamper tube.

Abstract: A stamper is used for the transfer of microscopic structures, the stamper including a base and a microscopic structure layer on a surface thereof, in which the microscopic structure layer has a surface layer including a polymer derived from a resin composition containing a polymerization initiator and a silsesquioxane derivative having two or more polymerizable functional groups, the microscopic structure layer has a modulus of elasticity of less than 2.0 GPa and has a thickness of 4 times or more the height of a microscopic structure formed on the surface of the microscopic structure layer.

Abstract: An examination reserve system receipts a reserve request for an examination using a medical imaging apparatus. The examination reserve system receives information concerning a failure from the medical imaging apparatus. When a failure occurs in the medical imaging apparatus, the system lists receipted examination reserve requests.

Abstract: An imprint apparatus has a head unit with a fine structure. The head unit includes a fine imprint pattern layer including fine concavities and convexities, a resin layer on a face of the fine imprint pattern layer opposite to a face where the concavities and convexities are formed, a first pressurizing base member on a face of the resin layer opposite to a face contacting the fine imprint pattern layer, and a second pressurizing base member on a face of the first pressurizing base member opposite to a face contacting the resin layer. The resin layer has a modulus of elasticity smaller than that of the fine imprint pattern layer, and the first pressurizing base member has a modulus of elasticity smaller than that of the resin layer. A light source or a heat source may be further provided. The head unit may be light permeable. A replacement layer may be further provided for replacement.

Abstract: Provided is a fine structure which allows the formation of a highly accurate metallic replica mold. The structure is resistant to breakage even in the presence of foreign particles or bumps and causes a smaller transfer failure region even when applied to an undulating object to be transferred. Also provided is a stamper for imprinting, which conforms to local bumps of a substrate to be transferred, causes, if any, a smaller pattern transfer failure region, and has satisfactory durability. The fine structure includes a supporting member; and a pattern layer having a fine asperity pattern formed on a surface thereof. The pattern layer is made from a resin through curing of a resin composition containing a cationic-polymerization catalyst and two or more organic components having different functional groups, and the supporting member and the pattern layer each transmit light having a wavelength of 365 nm or longer.

Abstract: A method of managing at least one maintenance work on a medical equipment installed in a medical facility, starts by collecting condition information of the medical equipment. The method continues by determining the maintenance work on the medical equipment based on the collected condition information, and making it possible to provide a maintenance staff with information of the determined maintenance work.

Abstract: A functioning substrate with a group of columnar micro pillars characterized in that a first matrix of organic polymer and a group of columnar micro pillars of organic polymer extending from this matrix are provided. This group of columnar micro pillars has an equivalent diameter of 10 nm through 500 ?m and a height of 50 nm through 5000 ?m; and the ratio (H/D) of the equivalent diameter (D) to the height (H) of the group of columnar micro pillars is 4 or more.

Abstract: An object of the present invention is to provide a cell culture vessel which is simple in structure and easy to handle, and is capable of preventing damage to the cells when separated, promoting transport of nutrients and excretion of effete matter, and elevating the culturing efficiency improving effect by the structural features. In order to attain the above object, there is provided a cell culture vessel including a culture section provided with a plurality of projections having an equivalent diameter smaller than the cells to be cultured and the culture section side walls enclosing the culture section, wherein the distance between an arbitrary position on the culture section/side wall boundary line and the nearest projection is smaller than the diameter of the cells to be cultured. The effect of the projections in the vessel given to the cultured cells is enhanced.

Abstract: A fine metal structure having its surface furnished with microprojections of high strength, high precision and large aspect ratio; and a process for producing the fine metal structure free of defects. There is provided a fine metal structure having its surface furnished with microprojections, characterized in that the microprojections have a minimum thickness or minimum diameter ranging from 10 nanometers to 10 micrometers and that the ratio between minimum thickness or minimum diameter (D) of microprojections and height of microprojections (H), H/D, is greater than 1.

Abstract: An object of the present invention is to provide a micropattern transfer method and a micropattern transfer device in which the small amount of resin is applied to a substrate, and the nonuniformity in thickness is prevented to arise on the obtained pattern forming layer. In order to achieve the above object, the present invention provides a micropattern transfer method in which a micropattern is transferred to a resin by pressing a stamper having the micropattern onto the resin applied to a substrate, including the steps of: applying the resin to a surface of the substrate discretely in order to obtain a plurality of resin islands so that a center portion of each of the resin islands forms a planar thin-film, and a peripheral portion of the resin island rises higher than the center portion.