Honda Giken Kogyo Kabushiki Kaisha

Honda Motor Co., Ltd.

Ricoh Company, Ltd.

Kabushiki Kaisha Toshiba

Tokyo Shibaura Denki Kabushiki Kaisha

Kokusai Denshin Denwa Co., Ltd.

Shin-Etsu Chemical Co., Ltd.

Nippon Telegraph and Telephone Corporation

Terumo Kabushiki Kaisha

Japan Aviation Electronics Industry, Limited

Fujirebio Inc.

Musashi Seimitsu Industry Co., Ltd.

Honda Giken Kogyo K.k. (Honda Motor Co., Ltd. in English)

Yoshihiro Yoshida

Mitsuru Saito

Tsutomu Hayashi

Kazuhiko Nakamura

Toshimasa Mitsubori

Yoshihiro Nakajima

Yasushi Fujimoto

Noboru Edagawa

Yoshiaki Hori

Hiromi Kusakabe

Takehiko Nanri

Kazuhiro Takeuchi

Takashi Ozeki

Toshiaki Iwafuchi

Takeshi Sano

Katsuhiko Ito

Seiji Hamaoka

Kazuo Koya

Yoshihisa Kanno

Tsuneko Kura

Masaie Kato

Yoshiaki Tsukada

Shu Yamamoto

Hiroyuki Sasaki

Hidenori Taga

Masaru Shinkai

Tadashi Tsunoda

Atsuo Ota

Hiroyuki Kikuchi

Eiji Kobayashi

Kazuhiro Yasuda

Hiroharu Wakabayashi

Go Morita

Shiro Ryu

Kunihiko Fukui

Hideyuki Tawara

Kiyotaka Hayashi

Yoshihiro Kimura

Tatsuo Tanaka

Kohei Matsuura

Nobuyuki Yakigaya

Kenichi Nakano

Kenji Sakakibara

Tsutomu Sakatsu

Junko Hashimoto

Hideaki Ohkura

Hirofumi Kobayashi

Minoru Taya

Kazuhito Ito

Kouichi Tsuji

Takashi Uwano

Kazushi Iwata

Satoshi Kuwazaki

Koji Kishi

Akio Kobayashi

Toshifumi Ito

Hiroyasu Yamaguchi

Hidehiko Aoki

Masato Shimamura

Ryosuke Asai

Kohei Ohzono

Naoko Kosaka

Kiyoshi Katahira

Noritaka Koga

Hideo Okuzaki

Yoshinori Namihira

Shinkichi Miyazawa

Yukihiro Ageishi

Katsumi Yamazaki

Shinya Takada

Hiroyasu Yoshizawa

Kohei Ohsono

Masaie Katoh

Kenichiro Kakemizu

Takahisa Tanaka

Atuo Hojo

Tadakatsi Shimada

Shuichi Kato

Nobuyuki Yagigaya

Teruhisa Okamoto

A server () stores a task ID of information on a task that is viewed by a client terminal () and a screen shot when the client terminal () logs out from the server () as a user activity log of the client terminal (). In addition, when the client terminal () logs into the server () once again, the server () refers to the user activity log of the client terminal () and displays a screen shot upon a previous logout. Furthermore, the server () refers to a task ID included in the user activity log of the client terminal () and displays unread tasks of the client terminal ().

Management device, management method, and management program

A management apparatus () includes: a storage unit () which stores user attribute information that associates a user who manages information related to crises and an attribute of the user with each other, correspondence information that associates the attribute and an external system of which the attribute is login-enabled with each other, and login information with respect to each external system; an external login information processing unit () which, when receiving a login request to an external system from a user, refers to the user attribute information, the correspondence information, and the login information stored in the storage unit, acquires an attribute of the user, and acquires information on an external system to which the acquired attribute is login-enabled; and an external login processing unit () which executes a login to an external system to which a login has been requested among the login-enabled external systems.

An engagement-type clutch mechanism is provided in which due to the movement of a first power transmission member, which is movably supported on a rotating shaft, toward a second power transmission member, a first and second projecting parts provided on opposing faces of a first and second power transmission members are engaged to each other, and the rotation of the second power transmission member is synchronized with the rotation of the first power transmission member, and due to the movement of a sleeve toward the synchronized second power transmission member, a first spline of the first power transmission member is linked to a second spline of the second power transmission member via a to-be-engaged spline of the sleeve, and the rotation of one of the rotating shaft and the second power transmission member is transmitted to the other of the rotating shaft and the second power transmission member.

Engagement-type clutch mechanism

A lubricating structure for a static hydraulic continuously variable transmission includes a central oil path axially formed at a center of a shaft of the transmission. A circumferential oil path is arranged at an inner circumferential part of a retainer between the retainer and an outer circumferential part of the transmission shaft. A diametrical oil path is in communication with the circumferential oil path and the central oil path of the shaft of said transmission. The diametrical oil path is provided with an orifice. A lubricant oil ejection hole is arranged at the retainer to eject lubricant oil from the circumferential oil path.

Lubricating structure for static hydraulic continuously variable transmission

A shaft member coupling structure includes first and second spool members lockably coupled in a condition wherein the spool members coaxially extend with a coupling part in the center, a fitting concave portion axially extends and is formed at the end of the first spool member and a fitting convex portion axially extends and can be fitted into the fitting concave portion and is formed at the end of the second spool member. A coupling pin is inserted into first and second coupling holes. Further, an annular holding groove concave in a circumferential direction is formed in a part in which the coupling hole is formed on the periphery of the first spool member, both ends of the coupling pin inserted into the coupling holes are covered with a ring fitted into the holding groove. Thus, the coupling pin is prevented from falling away.

Shaft member coupling structure

A hydrostatic continuously variable transmission includes a swash plate type plunger hydraulic pump and a swash plate type plunger hydraulic motor connected via a hydraulic closed circuit, an inclined angle of a swash plate of the hydraulic motor is variably controlled for continuous shift control. A lock-up mechanism closes the hydraulic closed circuit to make lockup executed when the quantity of oil that flows from the hydraulic pump into the hydraulic motor decreases according to variable control over the inclined angle of the swash plate. The input rotation of the hydraulic pump and the output rotation of the hydraulic motor are substantially synchronous. The lock-up mechanism is operated when lockup control oil pressure is applied and closes the hydraulic closed circuit. A lockup control oil passage that supplies the lockup control oil pressure is provided with an opening opened and closed according to the inclination of the swash plate.

Hydrostatic continuously variable transmission

A hydrostatic continuously variable transmission is configured by connecting a swash plate type plunger hydraulic pump P and a swash plate type plunger hydraulic motor via a hydraulic closed circuit. A continuous shift control is executed by variably controlling an inclined angle of the swash plate of the hydraulic motor. A valve spool movably arranged in a spool hole axially extends in a shaft that supports the hydraulic pump and the hydraulic motor and is configured by coupling a first spool member provided with a guide land fitted in a guide member and a second spool member provided with a central land and a left land and provided with a valve that connects and cuts off a clutch oil passage on the high pressure side and a clutch oil passage on the low pressure side according to axial movement by a coupling pin.

A clutch mechanism for a hydrostatic continuously variable transmission in which a high pressure oil path and a low pressure oil path are shortened to change-over a transmittance of power. A spring sheet is provided of which manufacturing and assembling are simple and the number of component parts is reduced. This clutch mechanism for a hydrostatic continuously variable transmission includes a cam plate member arranged at the end part of the transmission shaft, a roller engaged with the cam plate member and moved in a diametrical outward direction with a centrifugal force, a roller bearing member slid axially through an outward motion of the roller, a spring sheet member for biasing the roller bearing member toward the roller, and a spring sheet member for supporting the spring member. The spring sheet member is held by said cam plate member and said casing and is supported.

Clutch mechanism of hydrostatic continuously variable transmission

A lubricating structure for a hydrostatic continuously variable transmission. The structure includes an oil path arranged at an outer circumferential side of a clutch valve, and a lubricant oil ejection hole communicating with the outer circumferential side oil path of the clutch valve and formed in the transmission shaft toward the outer circumference of the transmission shaft. In addition, the structure includes a communicating oil path that is also formed in the transmission shaft for communicating between an oil feeding passage communicating with an lubricant oil feeding source and the outer circumferential oil path of the clutch valve. A single orifice is arranged in the communicating oil path, rather than in the lubricant oil ejection hole. This configuration provides for efficient manufacturing and a high degree of freedom in setting of the lubricant oil ejection hole.

Lubricating structure of hydrostatic continuously variable transmission

A clutch mechanism for a hydrostatic continuously variable transmission has a hydraulic circuit including a high pressure oil path for feeding working oil from a hydraulic pump to a hydraulic motor and a low pressure oil path for feeding working oil from the hydraulic motor to the hydraulic pump. The clutch mechanism is located between the hydraulic pump and the hydraulic motor. A clutch valve is arranged on the transmission shaft and is slid by a centrifugal governor to cause the oil paths to be shortened. A cam plate member is arranged on the transmission shaft. A roller is engaged with the cam plate member and is moved outwardly in a diametrical direction by a centrifugal force. A roller bearing member receives a roller pressing force through outward motion of the roller. A pressure plate and shaft of the roller bearing member are separately formed and thereafter integrally formed.

To provide a short connection hydraulic path structure with a sufficiently large diameter to adequately lower the pressure in a high-pressure hydraulic path while the clutch is off, in a static hydraulic continuously variable transmission for sliding a clutch valve installed within the transmission shaft, to change the power being transmitted and shorten the high-pressure hydraulic path and low-pressure hydraulic path. A high-pressure fluid path is provided for sending hydraulic fluid from the hydraulic pump side to the hydraulic motor side with a low-pressure fluid path for sending hydraulic fluid from the hydraulic motor side to the hydraulic pump side. A hydraulic circuit includes a switching valve for switching the plungers to the high-pressure path or the low-pressure path as a dual structure within a valve body between the hydraulic pump made from multiple plungers, and a hydraulic motor made from multiple motors.

Static hydraulic continuously variable transmission

A wiring pattern-forming apparatus, includes a transfer platefor transferring a wiring materialarranged to form a wiring pattern onto a substrate, a wiring material feederfor feeding the wiring materialonto the transfer plate, and an energy feederto feed energy to the wiring materialfed to the transfer plateby the wiring material feeder. By utilizing the energy fed from the energy feeder, the viscosity of the wiring materialwhen the materialis fed from the material feederto the transfer plateis made different from that of the wiring materialwhen the materialis transferred from the transfer plateto the substrate

Apparatus and method for formation of a wiring pattern on a substrate, and electronic devices and producing methods thereof

In a hydrostatic continuously variable transmission, a hydraulic pump is linked to a hydraulic motor by a hydraulic closed circuit to change the capacity of the hydraulic motor so as to change the speed of a motorcycle continuously. A clutch device comprising a clutch valve for connecting and disconnecting a high pressure side oil passage and a low pressure side oil passage constituting the hydraulic closed circuit. A governor mechanism for generating governor force corresponding to the input rotation speed of the hydraulic pump and applying this governor force in the closing direction of the clutch valve. A spring for giving urging force in the opening direction of the clutch valve, and a buffer mechanism having a variable oil chamber and an oil pool chamber for easing the opening and closing movements of the clutch valve activated according to the governor force and the urging force.

Clutch device for a hydrostatic continuously variable transmission

A disclosed bonded structure includes a first electric structure having a first electrode, a second electric structure having a second electrode, and a middle section for electrically and mechanically bonding the first electrode and the second electrode. The middle section consists of conductive adhesives, wherein fusion bonding of metal particles is provided to at least one of the first electrode and the second electrode. The metal particles are capable of fusion bonding at a temperature lower than a thermal hardening temperature of the conductive adhesives. The conductive adhesives contain conductive filler pieces that have a particle size at which fusion bonding does not take place at a temperature lower than the thermal hardening temperature of the conductive adhesives.

Bonded structure using conductive adhesives, and a manufacturing method thereof

A power unit includes an engine and a static hydraulic continuously variable transmission with a swash plate type hydraulic pump and a hydraulic motor, which are connected via a hydraulic pressure closing circuit. This power unit drives the hydraulic pump to rotate with the engine and performs swash plate angle control of the hydraulic motor. A crankshaft mechanism of the engine and a rotating mechanism of the static hydraulic continuously variable transmission are housed in a transmission housing. A cylinder of the engine is integrated with the transmission housing, and a swash plate control motor for swash plate angle control of the hydraulic motor is positioned at an area adjacent a root of the cylinder in the transmission housing.

Power unit

Growing community of inventors

Saitama, Japan

Yoshihiro Yoshida