Mitsubishi Electric Corporation

Canon Kabushiki Kaisha

Olympus Optical Company, Ltd.

Felica Networks, Inc.

Ricoh Company, Ltd.

Fuji Photo Film Company, Limited

Sony Corporation

Nippon Sheet Glass Company, Limited

Mitsubishi Denki Kabushiki Kaisha

Janome Sewing Machine Company Limited

Gc Corporation

Hitachi-high-technologies Corporation

Hitaclii High-tech Corporation

Hitachi High-tech Corporation

Shinichi Kato

Masaaki Kadoyanagi

Shotaro Hirako

Hongkue Lee

Ian Emerson Random

Hiroyuki Yaguchi

Hiroyuki Tsuji

Masakazu Kitora

Hiroyoshi Yoshida

Yushi Matsukubo

Hideto Iwamoto

Naoya Tsukamoto

Yuki Mizushi

Eiichi Nishikawa

Ken-ichi Ohta

Kenzou Sekiguchi

Naoki Ito

Naofumi Hanaki

Tsutomu Tanaka

Takanori Miyake

Shuichi Sekiya

Tsutomu Sakaue

Hiroichiro Shimano

Hiroyuki Kato

Ritsuko Otake

Kei Kasuga

Osamu Iinuma

Shimon Okada

Yutaka Takahashi

Tadayoshi Nakayama

Takeaki Nakamura

Kitahiro Kaneda

Yoichi Kashibuchi

Hidefumi Osawa

Takahiro Yamatani

Yasuhiro Endo

Susumu Takahashi

Hiroshi Tanioka

Masahide Kanno

Masahiko Sasaki

Tomotoshi Kanatsu

Reiji Misawa

Akihiro Usami

Yoshihide Terao

Tomohiro Akiba

Shinichi Nishigaki

Hirohiko Ito

Toshio Nakayama

Yoshio Shishido

Masahiro Ieda

Toyoaki Kitano

Kengo Oishi

Hiroyuki Ito

Kazunori Komatsu

Katsuyuki Saito

Yasuhiko Nara

Mikihiko Kato

Shinichiro Hattori

Takashi Tsukaya

Atsushi Miyazaki

Shigeo Komine

Tohru Ando

Tsutomu Saito

Kazumasa Matsuo

Hiroshi Ogawa

Shinji Suzuki

Hisao Yabe

Susumu Hanyu

Hiroshi Morita

Keiichi Iwamura

Kenji Kimura

Hideo Suzuki

Yasuhiro Suzuki

Hideaki Takenoya

Yoshihiro Ishida

Atsushi Matsumoto

Junichi Hayashi

Koichi Hasegawa

Hiroki Hibino

Takeshi Kongo

Takuya Aoyagi

Tadashi Fujieda

Toshio Ishida

Tetsuo Nonami

Yutaka Konomura

Shigeru Horiguchi

Hisaya Murakoshi

Akira Mizuta

Yasushi Endo

Tatsuya Miyake

Kenji Tanimoto

Takeshi Kakuta

Takami Eguchi

Takashi Naitou

Koji Takamura

Yoichi Hayashi

Kenji Maeda

Tetsuya Okuda

Hisao Ogiu

Atsushi Kidawara

Laser processing machine

Servo amplifier

A reinforcing material is disclosed that includes coated glass flakes and coated glass strands. When the total amount of a glycidyl group-including resin and aminosilane contained in the coatings of the coated glass flakes corresponds to 100% by mass, the amount of the resin is 30% to 95% by mass. When the total amount of a glycidyl group-including resin, aminosilane, and a urethane resin contained in the coatings of the coated glass strands corresponds to 100% by mass, the amount of the glycidyl group-including resin is 10% to 90% by mass, the amount of the aminosilane is 0.1% to 40% by mass, and the amount of the urethane resin is 1% to 50% by mass. Both the coated glass flakes and the coated glass strands have an ignition loss of 0.1% to 2.0% by mass measured pursuant to JIS R3420 (2013).

Reinforcing material and resin molded article

Programmable controller

Included are a bottom portion having a traveling portion, a body portion having a first pillar portion and a second pillar portion extending in a vertical direction, respectively, from one end and another end in a horizontal direction of the bottom portion, and a top portion including one end connected to an end of the first pillar portion opposite to the bottom portion and including another end connected to an end of the second pillar portion opposite to the bottom portion, an article storage portion that forms an opening with the first pillar portion, the second pillar portion, the top portion, and the bottom portion in such a way that the opening penetrates the body portion, and fixing portions provided in the first and second pillar portions to sandwich the opening and pair up with each other, for fixing an article storage auxiliary instrument.

Article carrying robot

Glass flakes of the present invention have an average particle diameter of 0.1 to 15 &#x3bc;m and an average thickness of 0.1 to 2 &#x3bc;m. The glass flakes have a particle size distribution in which the particle diameter at 99% of the cumulative volume from the smaller particle diameter is 45 &#x3bc;m or less, and the maximum particle diameter of the glass flakes is 62 &#x3bc;m or less.

Glass flakes and resin composition

A resin-reinforcing filler of the present invention includes: plate-like, spherical, or fibrous filler substrates; and a coating covering at least a portion of a surface of each of the substrates. The coating contains nanofibers having an average fiber width of 1 nm to 900 nm.

Resin-reinforcing filler and resin composition

Provided are a charged particle beam generator and a charged particle beam device that can improve insulation reliability as a result of reducing the high electric field generated around a connection section for a conductor. The charged particle beam generatorhas: a plugthat guides high voltage from outside to a charged particle source that is in a vacuum; and a sockethaving the charged particle source attached thereto. An electric field reduction ringthat electrically connects to one of a plurality of conductors that guide high voltage is embedded inside the tip of the plug. The plurality of conductors that guide the high voltage are arranged so as to penetrate the electric field reduction ring

Charged particle beam generator and charged particle beam apparatus

Growing community of inventors

Kanagawa, Japan

Shinichi Kato