The Furukawa Electric Co., Ltd.

Other

Yokogawa Electric Corporation

Totoku Electric Co., Ltd

Hisashi Koaizawa

Toshihiro Nakamura

Nobuaki Orita

Sadayuki Toda

Kenkichi Suzuki

Keiichi Aiso

Michio Kondo

Ryuichi Sugizaki

Tsuneo Suzuki

Shinichi Arai

Jun Terada

Hiroshi Kuraseko

Takeshi Hirayama

Naoto Oyama

Katsunori Inoue

Hiroshi Ikeda

Takeshi Yagi

Junichi Tamura

Masaru Hori

Fumihiko Abe

Ken Tsukii

Satoshi Sugiyama

Satoshi Yoshitake

Ryoichi Hara

Yukio Komura

Syunji Yamamoto

Tetsuji Kubota

Yoshiyuki Sakata

Masaki Izumo

Takayuki Ando

Takashi Shigematu

Yoko Moriai

Tetsuya Kumada

Hirofumi Nakanishi

Tomio Kaise

Junichi Takeda

Yoshiyuki Sakamoto

Imei Shu

Takashi Fuyuki

Syouta Inoue

Kiyoshi Yase

A deep water drawing step of drawing deep water that exists in a deep region of the sea to a surface region of the sea with an upwelling pipe (); and a phytoplankton culturing step of culturing the phytoplankton in the upwelling pipe () are included to produce, as a basic producer of a food chain, a living marine resource, such as fishes and shellfishes, with phytoplankton produced in the phytoplankton culturing step.

Living marine resource production method and living marine resource production device

A frame has an outer frame made of microcellular foam resin, and two inner frames made of the microcellular foam resin. The two inner frames are arranged together inside the outer frame. Both of the inner frames and the outer frame include openings provided at respective upper portions and recess portions formed downwardly from the openings, respectively. An LED light source, which is arranged inside a light guide space, emits light with a light emitting face thereof directing toward the light guide space. Accordingly, light from the LED light source is uniformly emitted from a light extraction portion. Also, an LED light source arranged inside a light guide space emits light directing toward the light guide space. Accordingly, light from the LED light source is uniformly emitted from a light extraction portion.

LED lighting device, and method of extracting light using LED lighting device

The linear semiconductor substrateorof the present invention comprises at least one desired thin filmformed on a linear substratehaving a length ten or more times greater than a width, thickness, or diameter of the linear substrate itself. Adopting semiconductor as the thin filmforms a linear semiconductor thin film. The linear semiconductor substrateorof the present invention is produced by utilizing a fiber-drawing technique which is a fabricating technique of optical fibers.

Linear semiconductor substrate, and device, device array and module, using the same

An apparatus of removing coatings of a line-shaped body of the invention includes a non-equilibrium atmospheric pressure plasma source with radicals controlled, having a plasma generating gas, a microwave, a micro gap; a line-shaped body holding portion for holding the line-shaped body within a range of 2 to 3 mm from an electrode to generate a plasma jet; and a moving stage for relatively moving the line-shaped body in the longitudinal direction thereof.

Apparatus and method of removing coating of line-shaped body using plasma

A method of continuously forming a thin film includes the step of: moving a glass substrate with a thin strip shape having a constant db/2(d+b), where d is a thickness thereof and b is a width thereof in a cross section thereof, within a range from 0.015 to 0.15 through a film depositing region in which a reaction gas is supplied and a temperature is controlled to be high so that the glass substrate is rapidly heated; and moving continuously the glass substrate, immediately after the film depositing region, to pass through a cooling region in which a temperature is lower than that of the film depositing region, so that the glass substrate is rapidly cooled and the thin film formed of a component of the reaction gas is formed on the glass substrate.

Method of forming continuous thin film and linear glass substrate with thin film

The present invention provides a SOI substrate that can realize a composite device formed of a MOS integrated circuit and a passive device and can reduce a size and a manufacturing cost of a semiconductor device. There is provided a fiber SOI substratecomprising a fiberwith a polygonal cross section, and a semiconductor thin filmcrystallized after film formation on at least one surface of the fiber, and a plurality of groovesthat extend in a linear direction of the fiberand are arranged at intervals in a width direction are formed on a surface of the fiber

Fiber SOI substrate, semiconductor device using this, and manufacturing method thereof

A sheet glass that has a side surface with an average surface roughness equal to or less than 0.2 &#x3bc;m is provided. Furthermore, a method of manufacturing a sheet glass is provided that includes processing a base-material glass sheet to obtain a sheet glass that has a side surface with an average surface roughness equal to or less than 0.2 &#x3bc;m. Moreover, a method of manufacturing a sheet glass is provided that includes processing a base-material glass sheet so that an average surface roughness of a side surface becomes equal to or less than a predetermined value according to a section modulus of the sheet glass that is to be manufactured.

Sheet glass and method for manufacturing sheet glass

A display device includes a first fiber having a silicon layer or an oxide layer, on which an active element is formed on the surface of the fiber and a second fiber forming a combined one-dimensional substrate together with the first fiber by being combined with the first fiber and having light emitting layers formed on a plurality of domains of the device. The first fiber and the second fiber are respectively drawn out from take-up jigs, are cut in necessary lengths and separated into plural fibers, and these plural first or second fibers are mounted in parallel with each other on a fixing jig. In this state, at least one-side elements of active elements and passive elements are formed on the first or second fibers.

Semiconductor device and display device using a one-dimensional substrate and device fabricating method thereof

A fiber sensor comprising: an optical waveguide unit having a measurement surface formed at an end of an optical waveguide; and a channel unit through which a specimen, serving as a measurement object to be measured by contact with the measurement surface, is caused to flow in and out via a specimen channel, wherein the optical waveguide is fixed to the optical waveguide unit such that the measurement surface forms a part of a channel wall surface of the channel unit, and the optical waveguide unit is provided so as to be detachable from the channel unit.

Fiber sensor and fiber sensor device

An optical fiber for optical amplification, characterized in that a full width at half maximum of gain spectrum is 45 nm or more; and a maximum value of power conversion efficiency is 80% or more. A method for producing a rare earth element-doped glass for use in manufacturing the optical fiber, which comprises a deposition step of depositing fine silica glass particles and a co-dopant (a) to prepare an aggregate of fine silica glass particles doped with the co-dopant (a); and a immersion step of immersing the aggregate of fine silica glass particles prepared in the deposition step in a solution containing the rare earth element and the co-dopant (b) to thereby dope the aggregate of fine silica glass particles with the rare earth element component and the co-dopant (b).

Method for manufacturing a glass doped with a rare earth element and fiber for optical amplification using the same

A low-dispersion optical fiber provides both reduced chromatic dispersion in a used wavelength band and increased effective core area. The low-dispersion optical fiber is made by covering a center core ( ) with a first side core ( ), covering the first side core ( ) with a second side core ( ), and covering the second side core ( ) with a cladding ( ). When the maximum refractive index of the center core ( ) is written n1, the minimum refractive index of the first side core ( ) is written n2, the maximum refractive index of the second side core ( ) is written n3 and the refractive index of the cladding ( ) is written nc, then n1>n3>nc>n2 is satisfied. Relative refractive index differences &Dgr;1, &Dgr;2 and &Dgr;3 with respect to the cladding ( ) of the maximum refractive index of the center core ( ), the minimum refractive index of the first side core ( ) and the maximum refractive index of the second side core ( ) respectively are made 0.4%&lE;&Dgr;1&lE;0.7%, &minus;0.30%&lE;&Dgr;2&lE;&minus;0.05% and 0.2%&lE;&Dgr;3.

Low-dispersion optical fiber and optical transmission system using the low-dispersion optical fiber

A low-dispersion optical fiber provides both reduced chromatic dispersion in a used wavelength band and increased effective core area. The low-dispersion optical fiber is made by covering a center core ( ) with a first side core ( ), covering the first side core ( ) with a second side core ( ), and covering the second side core ( ) with a cladding ( ). When the maximum refractive index of the center core ( ) is written n the minimum refractive index of the first side core ( ) is written n , the maximum refractive index of the second side core ( ) is written n and the refractive index of the cladding ( ) is written nc, then n n nc>n is satisfied. Relative refractive index differences &Dgr;1, &Dgr;2 and &Dgr;3 with respect to the cladding ( ) of the maximum refractive index of the center core ( ), the minimum refractive index of the first side core ( ) and the maximum refractive index of the second side core ( ) respectively are made 0.4%&lE;&Dgr;1&gE;0.7%, &minus;0.30%&lE;&Dgr;2&lE;&minus;0.05% and 0.2%&lE;&Dgr;3.

A porous optical fiber preform dehydration and sintering apparatus capable of improving the sealing performance between an upper lid and an elevating shaft and between the upper lid and a furnace tube or a furnace body, wherein an upper opening of a furnace tube for accommodating a porous optical fiber preform is shut by the upper lid, a preform holder is provided at the bottom end of an elevating shaft passing through the upper lid to be freely elevated therethrough, the porous optical fiber preform in the furnace tube is heated by a heater provided around the outer circumference of the furnace tube, the upper lid is formed by a metal, the preform holder is formed by a quartz glass or a ceramic, a corrosion-resistant layer is provided on an inner surface of the upper lid, a seal member made of rubber or resin is provided in an elevating shaft passage of the upper lid.

Dehydration and sintering apparatus for porous optical fiber preform

Growing community of inventors

Tokyo, Japan

Hisashi Koaizawa