Ransburg Industrial Finishing K.k.

Sony Corporation

Panasonic Corporation

Mitsubishi Heavy Industries Limited

Eiji Saito

Makoto Ito

Masatoshi Suzuki

Yuji Segawa

Kenji Sato

Nobuaki Tanaka

Yuichi Sekine

Juichi Kodera

Shinichi Kobayashi

Yasutaka Fuke

Hirone Komatsu

Takao Murakami

Minoru Tazoe

Hideo Yoda

Provided is a measuring device for measuring the hardness of a rotor blade groove. This measuring device comprises: a hardness meter for measuring hardness; an actuator that presses the hardness meter to an object to be measured; a camera for capturing an image of a measurement range in the object to be measured by the hardness meter; a movement mechanism for moving the hardness meter and the camera to a desired position within the measurement range; and a fixing member for fixing the movement mechanism to the object to be measured.

Measuring device, measuring system, measuring method, and program

An object of the invention is to provide a communication terminal capable of keeping the reception sensitivity good if the communication terminal is placed on a metal plate with the communication terminal laid on its side without the need for changing the size or the design of the main body of the communication terminal. A board () to which an antenna () is connected is provided inside a lower casing (). The board () is provided with a GND plane to which a radiating element () is connected. An auxiliary bottom board () is joined to the radiating element () in a roughly perpendicular direction thereto. The radiating element () and the auxiliary bottom board () are conductors. A high-frequency current () flows into the board (). Since a high-frequency current () of an opposite phase flows through a metal plate () because of the mirror image effect in a state in which the communication terminal is placed on the metal plate (), the high-frequency current () is canceled and the radiation of the antenna () is weakened. However, the components perpendicular to the metal plate () do not cancel each other because of the mirror image effect and thus the radiating element () forms a dipole antenna symmetrically with the metal plate ().

Communication terminal with casing conductors for reducing antenna gain degradation

An electroforming apparatus comprising a container unit for storing the plating solution, a cathode part placed in the container unit and for holding an object to-be-plated and an anode part placed in the container unit face-to-face with the cathode part, wherein a current-conductive opening of the anode part is formed to have an area larger than that of a current-conductive opening of the cathode part.

Electroforming apparatus

An electrostatic coating apparatus, comprising:

Electrostatic coating apparatus

A storetank for a powder supply is disclosed which is capable of discharging the powder particles stored therein in a constant amount without the caking and blocking of the powder particles by a method different from the conventional method. The storetank according to the present invention is comprised of a tank for storing powder particles which has a substantially cylindrical side wall and a bottom portion, a powder outlet for discharging the powder particles which is provided at the lower end portion of the side wall of the tank, a plurality of vanes disposed radially on the bottom portion of the tank and equally spaced with respect to each other about the center axis of the tank, a rotary driving mechanism for rotating the vanes about the center axis of the tank, a canopy which extends from the vicinity of the outlet toward the inside of the tank and covers the space between two of the vanes located next to each other when the space is opposite the powder outlet, and an air ejection port which is disposed within the tank and ejects air toward the space opposite the powder outlet.

Storetank for powder supply and powder coating equipment with storetank

An outer tube 5 is integrally rotated with a rotating disk 17. A powder supply passage 16 for supply of powder particles is formed between an inner tube 15 and the outer tube 5. A lower end of the inner tube 15 is secured to a sub-disk 23, and a distributing passage 25 is formed as a space between the sub-disk 23 and the rotating disk 17. Air including powder particles introduced into a separation passage 41 is separated into air and powder in the separation passage 41, and the particles are fed to the distributing passage 25 through the powder supply passage 16. The powder particles falling in the powder supply passage 16 undergo a swirling motion in accordance with the rotation of the outer tube 5, and owing to the swirling motion, the powder particles in the powder supply passage 16 are distributed uniformly in the circumferential direction.

Disk-type electrostatic powder coating method and an apparatus therefor

Growing community of inventors

Yokohama, Japan

Eiji Saito