Kabushiki Kaisha Toshiba

Olympus Optical Company, Ltd.

Nissan Motor Company Limited

Mitsubishi Denki Kabushiki Kaisha

Canon Kabushiki Kaisha

Mitsubishi Denki K.k.

Fujitsu Corporation

Fujitsu Toshiba Mobile Communications Limited

Kato Hatsujo Kaisha, Ltd.

Fujifilm Corporation

Nippon Telegraph and Telephone Corporation

Toshiba Memory Corporation

Ebara Corporation

Olympus Imaging Corporation

Canon Kabushiki Kaisha & Raito Kogyo Co., Ltd.

Akira Watanabe

Kaori Kimura

Takeshi Iwasaki

Kazutaka Takizawa

Akihiko Takeo

Kazutaka Adachi

Kazunari Nakamura

Yousuke Isowaki

Hisashi Higashigawa

Tomoyuki Maeda

Masatoshi Sakurai

Yoshiyuki Kamata

Yoshiaki Kobayashi

Keiji Kunishige

Junichi Itoh

Yutaka Yunoki

Toshiaki Ishimaru

Hidetoshi Yamada

Minoru Matsuzaki

Koji Mizobuchi

Yasuo Komatsu

Kenichi Kikuchi

Kenji Matsunaka

Hiroyuki Aida

Yasuo Arisawa

Tatsuhiko Matsui

Yasushi Komine

Tsuyoshi Onitsuka

Yasunobu Otsuka

Yoshimasa Kusazaki

Satoshi Miyazaki

Satoshi Shirotori

Sumio Kawai

Shigeo Hayashi

Akira Fujimoto

Ken Ito

Atsushi Maruyama

Soichi Oikawa

Naoko Kihara

Shigeru Ishii

Etsuko Sugawa

Yasuo Asakura

Akira Kuriyama

Tatsuo Wakahara

Masahiro Takashita

Azuma Miyazawa

Takehiro Nakagawa

Takeshi Okino

Tsutomu Tominaga

Shinichiro Hattori

Masahiro Kawaguchi

Akiteru Kimura

Katsuhiko Tsunefuji

Ryosuke Yamamoto

Daisuke Nakaya

Go Sugizaki

Katsuya Sugawara

Akira Inoue

Takashi Inoue

Shinichi Dosaka

Qingquan Su

Masaki Tokui

Yoshiyuki Touge

Hiroshi Yamada

Roberto Masahiro Serikawa

Masahiro Mishima

Masaki Terakubo

Takashi Toyofuku

Hitoshi Shirai

Akira Kusumoto

Norimasa Kudo

Shigekatsu Sagi

Masatoshi Iio

Yuri Senshu

Manabu Yoshii

Sayoko Okabe

Yasuteru Yamauchi

Ikuo Tofukuji

Tetsuji Nakatani

Hideki Obuchi

Koji Suzuki

Akihiko Hachimoto

Miyoshi Masakazu

Tsuneyoshi Oohazama

Kimio Oguchi

Kazuyuki Ozawa

Masahiro Matsumoto

Kazuo Ohhashi

Minoru Itao

The object of the present invention is to reduce the storage capacity necessary to save server certificates while enabling encrypted communication, such as SSL communication, whose convenience is high in the case where a plurality of server certificates is created. The present invention is a server that creates a server certificate that is necessary for encrypted communication and has a creation unit configured to create a first server certificate including information that fluctuates in accordance with a network environment, a second server certificate including information that does not fluctuate in accordance with the network environment, and a third server certificate that puts together information on a plurality of host names of the server, which a user can change and a transmission unit configured to transmit one of the created first, second, and third server certificates to a communication device.

Server, control method of server, and storage medium

An apparatus includes: a communication unit which communicates with an external apparatus according to an HTTP; a receiving unit which receives, through the communication unit, an HTTP request for executing predetermined processing; an execution unit which executes the predetermined processing according to the HTTP request; a determination unit which determines whether the execution unit has started execution normally; and a transmitting unit which transmits an HTTP response including a processing result to the external apparatus according to the HTTP request. If the receiving unit has received a request, the transmitting unit transmits a part of an HTTP response before the execution unit finishes execution. If the determination unit has determined that the execution has been started normally, or that the execution cannot be started normally, the transmitting unit transmits an HTTP response including data obtained from the execution, or an HTTP response not including such data, respectively.

Processing apparatus, processing method and program

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.

Magnetic recording medium and method of manufacturing the same

A perpendicular magnetic recording medium according to an embodiment includes a substrate and perpendicular magnetic recording layer. The perpendicular magnetic recording layer includes a recording portion and non-recording portion. The recording portion has patterns regularly arranged in the longitudinal direction, and includes magnetic layers containing Fe or Co and Pt as main components, and at least one additive component selected from Ti, Si, Al, and W. The non-recording portion includes oxide layers formed by oxidizing the side surfaces of the magnetic layers, and nonmagnetic layers formed between the oxide layers.

Perpendicular magnetic recording medium, method of manufacturing the same, and magnetic recording/reproduction apparatus

A pattern formation method according to an embodiment includes providing a substrate in which protrusions each having a tapered shape are provided on a main surface. The method further includes supplying the main surface with spherical particles equal in diameter to make the spherical particles arrange in a triangular lattice form such that each of the protrusions is at least partially positioned within a region surrounded by the main surface and three of the spherical particles adjacent to one another.

Self-organization material and pattern formation method

According to one embodiment, there is provided a magnetic recording medium manufacturing method including forming a bonding layer on a substrate, forming a holding layer containing silicon on the bonding layer, forming a single-particle layer on the holding layer using particles containing metal fusible on the bonding layer, etching SiOin the holding layer using an etching solution containing HF and HO, filling the holding layer with the particles until the particles are brought into contact with the bonding layer, bonding the particles and the bonding layer together by heating, and forming a magnetic recording layer on the single-particle layer.

Magnetic recording medium manufacturing method

According to one embodiment, a magnetic recording medium includes a silicon oxide underlayer having a recess pattern having a plurality of recesses, a nonmagnetic underlayer having a first hole pattern having a plurality of holes corresponding to the recess pattern, and a magnetic recording layer having a second hole pattern having a plurality of holes connected with the first hole pattern. The silicon oxide underlayer, the nonmagnetic underlayer, and the magnetic recording layer are formed in order on the substrate.

Magnetic recording medium, method for manufacturing magnetic recording medium, and magnetic recording/reproduction apparatus

According to one embodiment, disclosed is a pattern forming method including preparing a second dispersion by adding a second protective group and second solvent to fine particles including a first protective group whose surface polarity is close to that of the substrate, the fine particles containing, at least on the surface thereof, a material selected from Al, Ti, V, Cr, Mn, Fe, Co, Ni, Zn, Y, Zr, Sn, Mo, Ta, W, Au, Ag, Pd, Cu, Pt, and an oxide thereof, modifying the fine particles including the first protective group with the second protective group, adding a viscosity adjustment agent to the dispersion containing the fine particles to prepare a coating solution, and applying the coating solution on the substrate to form a fine particle layer thereon.

Pattern forming method and manufacturing method of magnetic recording medium

According to one embodiment, there is provided a method for forming a pattern including forming an island-like metal underlayer comprised of a first metal, a phase-separated release layer including a first metal, a second metal, and a metal oxide, a mask layer, and a resist layer on a processed layer in this order, forming a concave-convex pattern on the resist layer, transferring the pattern to the mask layer, the phase-separated release layer, and the processed layer in this order, dissolving the phase-separated release layer using a peeling liquid for dissolving the first metal and the second metal, and removing the mask layer from the processed layer to expose the concave-convex pattern.

Method for forming pattern, method for producing magnetic recording medium using the same, magnetic recording medium, and method for producing stamper

According to one embodiment, a perpendicular magnetic recording medium is provided, which includes a non-magnetic granular underlayer formed on a substrate and containing metal grains of a first metal and a grain boundary layer surrounding the metal grains, each metal grain including a projection projecting from the boundary layer and a bottom portion embedded in the grain boundary layer, and a contact angle of the edge of the projection to the surface of the grain boundary layer being 45&#xb0; to 85&#xb0;, a non-magnetic intermediate layer formed on a surface of each projection and a magnetic recording layer having a projection pattern formed on the basis of a pattern of the projections in the non-magnetic intermediate layer via the non-magnetic intermediate layer.

Perpendicular magnetic recording medium

According to one embodiment, a magnetic recording medium includes a substrate, an auxiliary layer formed on the substrate, and at least one perpendicular magnetic recording layer formed on the auxiliary layer. The perpendicular magnetic recording layer includes a magnetic dot pattern. The perpendicular magnetic recording layer is made of an alloy material containing one element selected from iron and cobalt, and one element selected from platinum and palladium. This alloy material has the L1structure, and is (001)-oriented. The auxiliary layer includes a dot-like first region covered with the magnetic dot pattern, and a second region not covered with the magnetic dot pattern. The first region is made of a (100)-oriented nickel oxide. The second region contains nickel used in the first region as a main component.

Magnetic recording medium, method of manufacturing the same, and magnetic recording/reproduction apparatus

A patterning method includes steps of forming a first copolymer layer comprising a first diblock copolymer which has portions which are phase incompatible. The first copolymer layer is annealed to form a first phase pattern including a first phase dispersed in a second surrounding phase. The first copolymer is then etched forming a first topographic pattern that corresponds to the first phase pattern. A second copolymer layer of a second diblock copolymer is then formed over the first topographic pattern, and then annealed to generate a second phase pattern offset from the first topographic pattern. Etching is used to form a second topographic pattern corresponding to the second phase pattern. The first and second topographic patterns are then transferred to the substrate. The patterning method can be used, for example, to form patterned recording layers for magnetic storage devices.

Pattern forming method, method of manufacturing magnetic recording medium and magnetic recording medium

A manufacturing method of a magnetic recording medium includes follows: forming a magnetic recording layer on a substrate; forming an under layer and a metal release layer that forms an alloy with the under layer on the magnetic recording layer in this order and forming an alloyed release layer by alloying the under layer and the metal release layer; forming a mask layer on the alloyed release layer; forming a resist layer on the mask layer; providing a protrusion-recess pattern by patterning the resist layer; transferring the protrusion-recess pattern to the mask layer; transferring the protrusion-recess pattern to the alloyed release layer; transferring the protrusion-recess pattern to the magnetic recording layer; dissolving the alloyed release layer by using a stripping solution and removing a layer formed on the alloyed release layer from an upper side of the magnetic recording layer.

Magnetic recording medium and method of manufacturing

According to one embodiment, there is provided a magnetic recording medium which includes a base, a magnetic recording layer having convex-shaped magnetic layers, which is formed on the base, and a protective film formed on the magnetic recording layer. There are gaps in a region surrounded by the protective film, the surface of the base, and each side wall of each magnetic layer.

Magnetic recording medium and method for producing the same

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Kawasaki, Japan

Akira Watanabe