Sintokogio, Ltd.

Other

National Institute of Advanced Industrial Science and Technology

Sinto V-cerax, Ltd.

Watari, Koji

Hirohide Ishiguro

Masahiko Nagasaka

Jun Liu

Tomohiro Aoki

Shoji Uchimura

Hideki Morimitsu

Koji Watari

Takehiko Matsumoto

Kazuo Nakamura

Hironobu Amano

Masaya Hotta

Kazuhiro Ohta

Yasunobu Mizutani

Yukio Ishida

Syoji Uchimura

Yoshiaki Kinemuchi

Mamoru Aizawa

Manabu Takatsu

Takuya Ito

Kimiyasu Sato

Hisashi Kaga

Kazuo c/o Aist Chubu Nakamura

Yoshiaki c/o Aist Chubu Kinemuchi

Koji c/o Aist Chubu Watari

Kimiyasu c/o Aist Chubu Sato

A device for damping runout vibration of a rotating shaft system at least including a rotating shaft and a rotating body rotatably supported by the shaft. A ring () is provided outside a bearing () fitted on a rotating shaft with a clearance between the ring and an outer ring of the bearing. A vibration damping mechanism includes, in order to suppress runout vibration of a rotating shaft system from the radially outside of the ring (), a blade spring () compressed by a preload and a stopper () for setting an operation limit of the blade spring.

Device and method for damping vibration of rotating shaft system

A process for producing a ceramic sinter or inorganic film in which anisotropic particles or anisotropic crystals have been oriented; or a process for producing a bonded composite material which comprises a base sample and another material tenaciously bonded to a surface of the base. The processes are characterized by imposing a centrifugal force during buming (heating).

Production of oriented material or composite material through centrifugal burning

A method and an apparatus for sintering a compact of particulate material for a ceramic or of particles of a metal, or a ceramic precursor film, wherein the sintering is performed by heating and burning the compact or the ceramic precursor film while applying centrifugal force to the compact or the ceramic precursor film.

Sintering method and apparatus using centrifugal force

An apparatus for testing the thermal shock fracture strength of ceramics. The apparatus includes supporting means for supporting a ceramic test piece shaped as a rectangular parallelepiped at a first side surface thereof, force-detecting means for restraining a predetermined location of a second side surface of the ceramic test piece, the second side surface facing the first side surface, the force-detecting means and the supporting means restraining any deformation of the ceramic test piece when the second side surface of the ceramic test piece is heated, the force-detecting means being adapted to detect a force acting on the force-detecting means from the ceramic test piece, which tends to be deformed, but which deformation is restrained, means for moving the supporting means to press the ceramic test piece against the force-detecting means, and a heat-emissive element, which is an electric heater, for covering and heating the second side surface to cause a thermal shock in the ceramic test piece.

Method and apparatus for carrying out a thermal shock test on ceramics

A method of forming from a sintering material slurry a shaped-body to be sintered having a complicated configuration. A mold is prepared using frames, a shielding member swollen with a solvent, and a filler including a substance formed of particles, and utilizing the action of vacuum. A sintering material slurry is poured into the thus prepared mold to form a shaped-body to be sintered.

Method of forming shaped-body to be sintered

Growing community of inventors

Aichi-ken, Japan

Hirohide Ishiguro