Abstract: A server according to the present disclosure determines a vehicle dispatch schedule of a vehicle for delivery of a rental article to a user and/or for collection of a rental article rented out to a user from the user. The server includes a communication interface for acquiring, from a terminal apparatus used by the user, first information regarding the rental article, and at least one of second information regarding a rental date/time and a rental location and third information regarding a return date/time and a return location; and a controller for determining, according to the second information, a vehicle dispatch schedule for delivering the rental article indicated by the first information to the user by the vehicle, and/or for determining, according to the third information, a vehicle dispatch schedule for collecting the rental article rented out to the user from the user by the vehicle.

Abstract: The present invention relates to a device (303) for setting image acquisition conditions for charged particle beam devices or the like. An image integration unit (402) forms a plurality of images with a number of different integrations (number of integrations 2, 4 . . . N) from one image (number of integrations N) acquired in advance. A pattern matching unit (403) matches the patterns of each of the plurality of images having a number of different integrations with template images registered in advance and then finds a score that shows the degree of matching between images. A selection unit (407) selects a number of integrations such that any variation in the scores is contained within a prescribed allowable range. The selected number of integrations is stored in a recipe of the device.

Abstract: Provided is a method of manufacturing a template matching template, as well as a device for manufacturing a template, by both of which high matching accuracy can be stably ensured without being affected by factors such as process variations. As an embodiment of the above, a method of manufacturing a template matching template, as well as a relevant device, is proposed by both of which a template memorized in advance and an image acquired by a microscope are compared, thereby identifying a desired position, and by which a plurality of images at the identified location are acquired by template matching, and the aforementioned plurality of images are added and averaged, thereby manufacturing a new template.

Abstract: Provided is a method of manufacturing a template matching template, as well as a device for manufacturing a template, by both of which high matching accuracy can be stably ensured without being affected by factors such as process variations. As an embodiment of the above, a method of manufacturing a template matching template, as well as a relevant deice, is proposed by both of which a template memorized in advance and an image acquired by a microscope are compared, thereby identifying a desired position, and by which a plurality of images at the identified location are acquired by template matching, and the aforementioned plurality of images are added and averaged, thereby manufacturing a new template.

Abstract: Disclosed is a diagnosis device of a recipe used for a scanning electron microscope that quickly specifies an error causing factor of the recipe due to a process fluctuation or the like. Specifically disclosed is, a diagnosis device of a recipe to operate a scanning electron microscope is provided with a program to make a display device show shift in a score indicating the degree of pattern matching consistency, wherein a condition of the pattern matching is set in the recipe; a deviation of coordinates before and after the pattern matching; changes in information or the like on fluctuation amounts of a lens before and after the execution of automatic focuses.

Abstract: An electrophotographic photoconductor, including an electrically conductive substrate, an undercoat layer containing a filler and a binder resin and provided on the substrate, and a photoconductive layer provided on the undercoat layer and containing a binder resin. At least one compound selected from crown ethers, polyalkyleneglycol ethers, polyethyleneglycol monocarboxylic acid esters, polyethyleneglycol dicarboxylic acid esters, and hydroxy-terminated random or block copolymers containing oxypropylene and oxyethylene groups is incorporated into (a) the undercoat layer or (b) into a charge generating layer of the photoconductive layer. In the case of (a), the photoconductive layer is a dried coating of a composition containing at least one solvent selected from cyclic ethers, ketones and aromatic hydrocarbons.

Abstract: An electrophotographic photoconductor, including an electrically conductive substrate, an undercoat layer containing a filler and a binder resin and provided on the substrate, and a photoconductive layer provided on the undercoat layer and containing a binder resin. At least one compound selected from crown ethers, polyalkyleneglycol ethers, polyethyleneglycol monocarboxylic acid esters, polyethyleneglycol dicarboxylic acid esters, and hydroxy-terminated random or block copolymers containing oxypropylene and oxyethylene groups is incorporated into (a) the undercoat layer or (b) into a charge generating layer of the photoconductive layer. In the case of (a), the photoconductive layer is a dried coating of a composition containing at least one solvent selected from cyclic ethers, ketones and aromatic hydrocarbons.

Abstract: An electrophotographic photoconductor, including an electrically conductive substrate, an undercoat layer containing a filler and a binder resin and provided on the substrate, and a photoconductive layer provided on the undercoat layer and containing a binder resin. At least one compound selected from crown ethers, polyalkyleneglycol ethers, polyethyleneglycol monocarboxylic acid esters, polyethyleneglycol dicarboxylic acid esters, and hydroxy-terminated random or block copolymers containing oxypropylene and oxyethylene groups is incorporated into (a) the undercoat layer or (b) into a charge generating layer of the photoconductive layer. In the case of (a), the photoconductive layer is a dried coating of a composition containing at least one solvent selected from cyclic ethers, ketones and aromatic hydrocarbons.

Abstract: An electrophotographic photoconductor, including an electrically conductive substrate, an undercoat layer containing a filler and a binder resin and provided on the substrate, and a photoconductive layer provided on the undercoat layer and containing a binder resin. At least one compound selected from crown ethers, polyalkyleneglycol ethers, polyethyleneglycol monocarboxylic acid esters, polyethyleneglycol dicarboxylic acid esters, and hydroxy-terminated random or block copolymers containing oxypropylene and oxyethylene groups is incorporated into (a) the undercoat layer or (b) into a charge generating layer of the photoconductive layer. In the case of (a), the photoconductive layer is a dried coating of a composition containing at least one solvent selected from cyclic ethers, ketones and aromatic hydrocarbons.

Abstract: A magnetic recording medium including a lubricant which is capable of maintaining adhesiveness and a lubricating characteristic regardless of conditions for use and with which the lubricating effect can be maintained for a long time so that an excellent running characteristic and satisfactory durability are realized. The magnetic recording medium includes a non-magnetic support member on which at least a magnetic layer is formed; and a lubricant held in an outermost layer of said magnetic recording medium, wherein the lubricant contains an ester compound of perfluoropolyether having a hydroxyl group at a terminal thereof and long-chain carboxylic acid and long-chain saturated fatty acid ester or an ester compound of perfluoropolyether having a carboxylic group at a terminal thereof and long-chain alcohol and long-chain saturated fatty acid ester.

Abstract: A magnetic recording medium having at least a thin magnetic metal film and a carbon protective film formed on a non-magnetic substrate, wherein lubricating properties are afforded to a surface portion of the carbon protective film. Specifically, the carbon protective film having a lower layer exhibiting rust-proofing properties and/or an upper layer exhibiting lubricating properties is formed on the thin magnetic metal film. The magnetic recording medium has a good running performance, durability and preservability.

Abstract: A magnetic recording medium having at least a thin magnetic metal film and a carbon protective film formed on a non-magnetic substrate, wherein lubricating properties are afforded to a surface portion of the carbon protective film. Specifically, the carbon protective film having a lower layer exhibiting rust-proofing properties and/or an upper layer exhibiting lubricating properties is formed on the thin magnetic metal film. The magnetic recording medium has a good running performance, durability and preservability.

Abstract: A magnetic recording medium, comprising a nonmagnetic substrate on the surface of which is deposited a magnetic layer. In one embodiment, the magnetic layer is formed of two thin films of magnetic metal and a layer of nonmagnetic material sandwiched therebetween, the layer of nonmagnetic material having a thickness no greater than 20% of the thickness of the magnetic layer, with the magnetic layer having an energy product of at least 100 gauss.multidot.cm.multidot.Oe as the product of its residual magnetic flux density, thickness and coercive force, and a surface roughness no greater than 0.003 .mu.m in center line average height. In another embodiment, the magnetic layer, which may be a single layer of magnetic metal film or may be of the aforementioned multiple layer construction, is vacuum deposited onto the substrate at an incident angle in the range of 30.degree. to 70.degree..

Abstract: A method for magnetically recording digital video signals includes the steps of: converting input digital video signals into data segmented into blocks each composed of a plurality of pixel data; compression-coding the blocks of pixel data block-by-block; converting the compression-coded data into channel-encoded data; and supplying the channel-encoded data to magnetic heads on a rotary drum for recording by such heads on a magnetic recording medium constituted by a nonmagnetic base having thereon a magnetic layer of at least one thin magnetic metal film which has an energy product of at least 75 G.cm.Oe, with the surface roughness of said magnetic recording medium being at most 0.003 .mu.m in center line average height Ra, and with the surface roughness of said magnetic recording medium being at most 0.04 .mu.m in ten point average height Rz.

Abstract: A magnetic recording medium comprised of a nonmagnetic support; a magnetic metal thin film formed on one major surface of the nonmagnetic support; and a protective film of a corrosion-resistant metal or a multilayer protective film structure consisting of a corrosion-resistant metal film and a durable protective film of a hard material. A multilayer protective film structure is formed by sputtering a corrosion-resistant protective film and a durable protective film over the magnetic metal thin film while the nonmagnetic support travels along the circumference of a cooling cylinder by using at least one target of a corrosion-resistant metal and at least one target of a hard material, or by using a composite target composed of at least one corrosion-resistant metal and one hard material. The protective film suppresses the corrosion of the magnetic metal thin film and improves the corrosion resistance and durability of the magnetic recording medium.

Abstract: A magnetic recording medium having a magnetic metal thin film as a magnetic layer is disclosed. An oxide layer is formed on the surface of the magnetic metal thin film, and a proactive layer is further formed on the oxide layer. The oxide layer on the surface of the magnetic metal thin film has a thickness of 20 to 230 .ANG., while the protective layer has a thickness of 20 to 230 .ANG.. The combined total thickness of the oxide layer and the protective layer is 40 to 250 .ANG.. The oxide layer surface may be bombarded prior to formation of the protective layer for improving the bonding of the protective layer. A lubricant may be coated on the surface of the protective layer. The lubricant may be one of perfluoro alkyl ester of carboxylic acid, ester compounds of perfluoro polyether having carboxylic groups, and amine salt compounds. The reverse surface of a non-magnetic base film as a substrate has a centerline mean roughness R.sub.a and the maximum height R.sub.max of projections in the ranges of 0.015 .mu.

Abstract: A magnetic recording transfer method for use with the combination of a mother magnetic recording medium and a copy magnetic recording medium of a metal-deposited thin film type each. The two media are overlaid so that the column inclination of one medium will be opposite in direction to that of the other medium. This method comprises the step of externally applying a biased magnetic field to the combination of the media in such a manner that magnetized recordings on the mother medium will be transferred to the copy medium. The easy axis of the mother medium is positioned at an angle of 20.degree..+-.15.degree. with respect to the in-plane direction of the medium. The biased magnetic field is applied to the mother medium at an angle of 110.degree..+-.15.degree. with respect to the in-plane direction of the medium.