Yushiro Chemical Industry Co., Ltd.

Amada Company, Limited

Sony Corporation

Okasa Prefecture

Tadashi Yokoyama

Keiko Nagai

Wataru Sugiura

Shigeyoshi Kouno

Hiroaki Akiyama

Kaoru Nakamura

Toru Masano

Yuichi Ueda

Naoshi Kobuya

Takuya Takahashi

Seiji Tatematsu

Tomohiro Naito

There is provided an information processing apparatus including an existing place information acquisition part and a my-spot information registration part. The existing place information acquisition part is configured to acquire existing place information which specifies an existing place. The my-spot information registration part is configured to acquire spot information related to a spot, which spot information is provided from a plurality of information provider devices, based on the existing place information; and to register spot information specified by a user as my-spot information, out of the acquired spot information.

Information processing apparatus, information processing method, program and information processing system

A tapping method for performing a tapping process in a punch press includes engaging a front end of a tap provided at a tapping tool attached to a rotating mold indexing device rotatably provided at the punch press with a prepared hole formed in a workpiece. When the front end of the tap is engaged with the prepared hole, a control motor of the rotating mold indexing device is rotated positively to rotate the tap positively. When it is detected that the control motor of the rotating mold indexing device has rotated a determined number of times, positive rotation of the control motor is stopped and the motor is rotated reversely, thereby to detach the tap from the prepared hole of the workpiece.

Tapping method, tapping device and punch press

A tapping method includes engaging a front end of a tap with a prepared hole formed in a workpiece. The tap is provided at a tapping tool attached to a rotating mold indexing device that includes a control motor M. The rotating mold indexing device is rotatably provided at a punch press. The tapping method also includes rotating the control motor M positively to rotate the tap positively when the front end of the tap is engaged with the prepared hole. The tapping method also includes stopping positive rotation of the control motor M and rotating the motor reversely, thereby to detach the tap from the prepared hole of the workpiece, when it is detected that the control motor M has rotated a determined number of times or that a predetermined time has elapsed.

Tapping method and device, and punch press

The invention provides a method of textile printing using microorganisms with less limitation to dyes with less damage on base materials, and with less blurring of color borders. The method is capable of producing a complex, fine pattern; capable of realizing colored discharge printing with brilliant colors; and capable of readily producing an ombre pattern. The invention also provides a microorganism for decolorization of azo-system dye and use in the textile printing method. In accordance with the invention, textile printing is carried out by coating a solution or paste (which may contain a dye) containing a bacterial strain Bacillus OY1-2 of genus Bacillus (Deposit Number: FERM 13118), in a desirable pattern on the cloth dyed with an azo dye (which may include a non-azo dye), subsequently proliferating or acting the bacterial strain while keeping the strain in a wet state, and to entirely or partially metabolize the azo dye to eliminate or decrease the coloring of the azo dye for textile printing. The method may be used, for example, in direct textile printing, white discharge printing, colored discharge printing or reserve printing. A non-colored base material can be combined with the solution containing the bacterial strains and azo dyes and the like as described above.

Method of textile printing by microorganism and microorganism for

The invention provides a method of textile printing using microorganisms with less limitation to dyes with less damage on base materials, and with less blurring of color borders. The method is capable of producing a complex, fine pattern; capable of realizing colored discharge printing with brilliant colors; and capable of readily producing an ombre pattern. The invention also provides a microorganism for decolorization of azo-system dye and use in the textile printing method. In accordance with the invention, textile printing is carried out by depositing a solution or paste (which may contain a dye) containing at least a bacterial strain Xanthomonas NR25-2 of genus Xanthomonas (Deposit Number: FERM 13119), in a desirable pattern on the cloth dyed with an azo dye (which may include a non-azo dye), subsequently proliferating or acting the bacterial strain while keeping the strain in a wet state, and to entirely or partially metabolize the azo dye to eliminate or decrease the coloring of the azo dye for textile printing. The method may be used, for example, in direct textile printing, white discharge printing, colored discharge printing or reserve printing. A non-colored base material can be combined with the solution containing the bacterial strains and azo dyes and the like.

The invention provides a method of textile printing using microorganisms with less limitation to dyes, with less damage on base materials, and with less blurring of color borders. The method is capable of producing a complex, fine pattern; capable of realizing colored discharge printing with brilliant colors; and capable of readily producing an ombre pattern. The invention also provides a microorganism for decolorization of azo-system dye and use in the textile printing method. In accordance with the invention, textile printing is carried out by depositing a solution or paste (which may contain a dye) containing at least a bacterial strain Achromobacter PR41-1 of genus Achromobacter (Deposit Number: FERM 13120), in a desirable pattern on the cloth dyed with an azo dye (which may include a non-azo dye), subsequently proliferating or acting the bacterial strain while keeping the strain in a wet state, and to entirely or partially metabolize the azo dye to eliminate or decrease the coloring of the azo dye for textile printing. The method may be used, for example, in direct textile printing, white discharge printing, colored discharge printing or reserve printing. A non-colored base material can be combined with the solution containing the bacterial strains and azo dyes and the like.

Growing community of inventors

Kanagawa, Japan

Tadashi Yokoyama