Kawasaki Jukogyo Kabushiki Kaisha

Takeshi Hasegawa

Makoto Ryoji

Masahito Ban

Yukitaka Mori

Naoki Miyake

Ryo Morihashi

Takeshi Takagi

Masakuni Tokai

Yosuke Tsumura

Takeshi Oguri

A laminated structure has a first layer formed from a fiber reinforced plastic, a second layer formed from a fiber reinforced plastic and arranged opposed to the first layer, a first core layer formed from a first resin foam and arranged between the first layer and the second layer, and a second core layer formed from a second resin foam and arranged between the first core later and the second layer. The first resin foam has a higher flame resistance than the second resin foam. A laminated structure having flame resistance and high strength enough to endure a bird strike or the like at the same time can be manufactured at relatively low manufacturing cost.

Laminated structure and method for manufacturing the same

A rotating electrical machine according to the present invention includes a can formed in a tubular shape and made of fiber reinforced plastic. At least a part of a first end portion of the can is located on a radially outer side of an adhered portion of a first end member, and a resin-based adhesive is filled in a gap between the part of the first end portion and the adhered portion of the first end member. At least a part of a second end portion of the can is located on a radially outer side of an adhered portion of a second end member, and the resin-based adhesive is filled in a gap between the part of the second end portion and the adhered portion of the second end member.

Canned type rotating electrical machine

A plurality of extracting orifices,for extracting the electron beam from a discharge portion,into a plasma process chamber,via a compartment,are provided radially. A plurality of accelerating electrodes,are arranged in the process chamber,. The electron extracting direction from the extracting orifices,is set in substantially parallel with an object surface,. The number and the arrangement of the accelerating electrodes,are set such that a density distribution of the excited plasma has an oprimal state for processing the object. The object having a large area can be processed appropriately.

Plasma processing equipment

The present invention provides an electron-beam excited plasma generator which can effectively form samples of larger areas. The electron-beam excited plasma generator according to the present invention comprises a cathode (11) for emitting thermions; a discharge electrode (23) for gas discharge between the cathode and the same; an intermediate electrode (13) positioned coaxially with the discharge electrode in an axial direction; a discharge chamber (2) to be filled with discharge gas plasma generated by the gas discharge between the cathode and the discharge electrode; a plasma processing chamber (3) formed adjacent to the discharge chamber with a partition wall (21) disposed therebetween and positioned so that a surface-to-be-processed of a workpiece-to-be-processed (35) is positioned perpendicular to the axial direction; a plurality of orifices (22) for pulling out electrons in the discharge gas plasma in the discharge chamber into the plasma processing chamber, each being formed in the partition wall substantially perpendicular to the axial line and distributed radially with respect to the axial direction; and an accelerating electrode (31) disposed in the plasma processing chamber for pulling out and accelerating the electrons through the orifices.

Growing community of inventors

Aioi, Japan

Takeshi Hasegawa