Toyota Jidosha Kabushiki Kaisha

Cataler Corporation

Jms Co., Ltd.

Other

Mec International Corporation

Sanmei Electric Co., Ltd.

Taiho Seiki Kk

Masahiko Takeuchi

Naoto Miyoshi

Akemi Sato

Ryota Onoe

Shingo Sakagami

Tsuyoshi Ito

Tatsuya Ohashi

Yasutaka Nomura

Tomomi Kishi

Yuta Morishita

Daisuke Ochiai

Junji Kuriyama

Hiroshi Sekine

Naoki Takahashi

Kenji Kato

Takahiko Fujiwara

Tadashi Okiyama

Keiichi Narita

Takaaki Ito

Mareo Kimura

Kazuhiro Sato

Fumio Kawahara

Keizo Hiraku

Tadashi Suzuki

Tatsuji Mizuno

Shinji Tsuji

Atsushi Tanaka

Yoshitsugu Ogura

Tetsuo Kawamura

Kiyoshi Isogai

Ichiro Kitamura

Yusuke Kawamura

Satoru Inoda

Yoshitaka Atsumi

Kanshi Nonami

Heijiro Ojima

Akemi Satou

Takayuki Furuhata

Mitsuru Tomono

Yusuke Noguchi

Naka Takita

Itsuo Koga

Hiroshi Yano

Hideo Niwa

Naoyuki Yoshitani

Makoto Okamoto

Kosuke Shiramizu

Nobuo Ohmori

Masataka Iida

Hidetoshi Kato

Nobuo Tobi

Akihito Inoue

Takeshige Kurumizawa

Yasushi Uchida

Koji Umeda

Naoki Matsuoka

Tadao Akashi

Kokichi Nakanishi

Sadao Ishihara

Takanori Matsukura

Jun Sawada

Noritoshi Kaskimura

Fumio Ikesue

Takahiro Fujiwara

A first member () and a second member () are coupled to each other in a coupling portion (). The first member includes, on the opposite side to the coupling portion, a main portion () that is connectable to a counterpart connector. The main portion and the second member are in communication with each other via a flow channel (). One of the first member and the second member includes an outer cylindrical portion (), and the other of the first member and the second member includes an inner cylindrical portion (). In the coupling portion, the inner cylindrical portion is fitted in the outer cylindrical portion. The outer cylindrical portion includes a first engagement portion () and an abutment portion (). The inner cylindrical portion includes a second engagement portion () that engages the first engagement portion, and a leading end () that is a front end of the inner cylindrical portion in a direction in which the inner cylindrical portion is fitted into the outer cylindrical portion. As a result of the first engagement portion and the second engagement portion engaging each other, the leading end of the inner cylindrical portion abuts against the abutment portion of the outer cylindrical portion along a central axis ().

Connector

Levers () are connected to a base end portion () of a male luer via a base (). Each lever includes a locking portion () and an operating portion (). A locking claw () protrudes from each locking portion toward the male luer. A lock ring () is provided opposing inner surfaces of the operating portions. The lock ring is movable between a first position at which the lock ring is located close to the base and a second position at which the lock ring is located away from the base. When the lock ring is at the first position, the levers are pivotable such that the locking claws move away from the male luer. When the lock ring is at the second position, the lock ring restricts the levers from pivoting such that the locking claws move away from the male luer.

Lever lock-type male connector and male connector assembly

An exhaust gas purification device includes: a substrate of wall-flow structure having an inlet cell, an outlet cell and a porous partition wall; an upstream catalyst layer provided inside the partition wall and disposed in an upstream portion, including an exhaust gas inflow end section, of the substrate; and a downstream catalyst layer provided inside the partition wall and disposed in a downstream portion, including an exhaust gas outflow end section, of the substrate. The downstream catalyst layer contains a carrier, and Rh supported on the carrier. The upstream catalyst layer contains a carrier, and Pd and/or Pt supported on the carrier.

Exhaust gas purification device

A drug container connector () is provided with a puncture needle () capable of puncturing a plug () that seals a mouth () of a container (); and a cover () that covers an opening, on a tip side, of a flow channel () formed in the puncture needle (). The puncture needle () is configured to penetrate the cover () and puncture the plug (). The puncture needle () is provided on a connector main body (). The cover () is held by a slider (). The slider () is movable with respect to the connector main body () in a longitudinal direction of the puncture needle (). The slider () is provided with claws () capable of engaging with a flange () at the mouth of the container ().

Drug container connector and male member cover

A male luer () is surrounded by a hood (). A lever () is connected to a base end portion () of the male luer via a base (). The lever includes a locking portion () and an operating portion (). A locking claw () protrudes from the locking portion toward the male luer. The locking portion is disposed in a cut-out () that is formed in the hood. The lever is elastically pivotable so that when an outer surface of the operating portion is pressed, the locking claw moves away from the male luer. When viewed along a central axis (), a connector main body () has a major axis () in the direction in which the male luer opposes the lever.

Lever lock male connector and male connector assembly

A vial shield () has a shield main body () and a valve element (). The shield main body () includes an annular top plate () that is to be laid on top of an upper surface of a stopper () that seals a mouth () of the vial bottle (), a plurality of legs () extending downward from the top plate (), and a plurality of claws () provided in the plurality of legs (), the claws being engageable with the mouth () of the vial bottle (). The valve element () blocks an opening at the center () of the top plate (). A cut () passing through the valve element () in a vertical direction is formed in the valve element ().

Vial shield

An adapter () has a through hole (). A first end portion () of the adapter includes a tubular portion () on which a first projection () and a second projection () are provided. The adapter can be connected to a male connector at a first position where a claw () of the male connector is engaged with the first projection () and at a second position where the claw () is engaged with the second projection (). When the adapter is connected at the first position, a flow channel () of a male member () is sealed with a cover (). When the adapter is connected at the second position, the adapter compressively deforms an outer circumferential wall () of the cover so that the flow channel of the male member is in communication with the through hole () of the adapter.

Adapter for male connector and male connector with adapter

An exhaust gas purification device of the present invention is provided with: a substrate of wall flow structure having an inlet cell, an outlet cell and a porous partition wall; an upstream catalyst layer, provided inside the partition wall and disposed in an upstream portion of the substrate including an exhaust gas inflow end section; and a downstream catalyst layer, provided inside the partition wall and disposed in a downstream portion of the substrate including an exhaust gas outflow end section. The upstream catalyst layer and the downstream catalyst layer each contain a carrier and at least one noble metal from among Pt, Pd and Rh, supported on the carrier. The noble metal in the upstream catalyst layer and the noble metal in the downstream catalyst layer are different from each other.

An exhaust gas purification catalyst having an excellent exhaust partition ability while reducing the increase in pressure loss. Exhaust gas purification catalyst includes a substrate having a wall-flow structure with partition wall, upstream coating section formed in portions of partition wall facing entrance cell, from exhaust inlet-side end in the extending direction of partition wall, and downstream coating section formed in portions of partition wall facing exit cell, from exhaust outlet-side end in the extending direction, having a length shorter than the entire length Lof the partition wall. In downstream coating section, a catalytic metal is concentrated in the surface layer in contact with exit cell.

Exhaust gas purification catalyst

A exhaust gas purification apparatus is provided with; a substrate having a wall-flow structure and including entry-side cells, exit-side cells, and a porous partition; a first catalyst region formed in small diameter pores having relatively small pore diameters among internal pores in the partition; and a second catalyst region formed in large diameter pores having relatively large pore diameters among the internal pores in the partition. The first catalyst region contains a support and any one or two species of precious metal selected from Pt, Pd, and Rh loaded on the support, while the second catalyst region contains a support and any one or two species of precious metal selected from Pt, Pd, and Rh loaded on the support and other than at least the precious metal present in the first catalyst region.

Exhaust gas purification apparatus

The exhaust gas purification device is provided with a wall flow structure substrate that has an entry-side cell, an exit-side cell and a porous partition, first catalyst parts which are formed in small pores having a relatively small pore diameter among internal pores in the partition, and second catalyst parts which are formed in large pores having a relatively large pore diameter among the internal pores in the partition. The first catalyst parts and the second catalyst parts each contain a carrier and at least one type of noble metal from among Pt, Pd and Rh supported on the carrier. The noble metal content in the first catalyst parts is smaller than the noble metal content in the second catalyst parts per 1 liter of substrate volume.

Provided is an exhaust gas purification catalyst that combines reduction of pressure loss and enhancement of purification performance. This invention provides an exhaust gas purification catalyst comprising a wall-flow-type substrate and first and second catalytic layers. The first catalytic layer is provided to the interior of a partition wall, in contact with an entrance cell, from an exhaust inlet-side end in the running direction, having a length Lless than Lw. The second catalytic layer is provided to the interior of a partition wall, in contact with an exit cell, from an exhaust outlet-side end in the running direction, having a length Lless than Lw. An internal portion of partition wall in contact with entrance cell has a substrate-exposing segment near the exhaust outlet-side end.

An exhaust gas purification catalyst having an excellent exhaust gas purification ability while reducing the increase in pressure loss. Exhaust gas purification catalyst includes entrance cell, exit cell, and a wall-flow substrate having partition wall to separate these cell, a catalytic layer formed from exhaust inlet-side ends in the extending direction in sections of the interior of partition wall facing entrance cell, and a catalytic layer formed on the surface of partition wall facing exit cell from exhaust outlet-side ends in the extending direction of partition wall, having a length shorter than the entire partition wall length.

An exhaust gas purification catalyst that has an excellent exhaust gas purification performance while suppressing pressure loss increases. The exhaust gas purification catalyst is provided with a substrate having a wall-flow structure and having a partition; a first catalyst layer formed, in a region of an interior part of the partition that is in contact with an entrance cell, along the extending direction of the partition from an exhaust gas inflow-side end for less than the total length Lof the partition; and a second catalyst layer formed, in a region of an interior part of the partition that is in contact with an exit cell, along the extending direction of the partition from the exhaust gas outflow-side end for less than the total length Lof the partition. The first catalyst layer and the second catalyst layer are configured to partially overlap with each other in the extending direction.

A wall-flow-type exhaust gas purification catalyst with an oxygen storage material that has an increased OSC and exhibits its OSC without a compromise provides an exhaust gas purification catalyst having a wall-flow-type substrate, a first catalytic layer and a second catalytic layer. The first catalytic layer is provided to an internal portion of a partition wall in contact with an entrance cell. The second catalytic layer is provided to an internal portion of a partition wall in contact with an exit cell. Each of the first and second catalytic layers has an oxygen storage material. The ratio (D/D) of the coating density Dof the first catalytic layer to the coating density Dof the second catalytic layer is 1.1 to 1.8.

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Toyota, Japan

Masahiko Takeuchi