Kabushiki Kaisha Toyota Chuo Kenkyusho

Toyota Jidosha Kabushiki Kaisha

Tsuchiya Co., Ltd.

Denso Corporation

Toyota Boshoku Kabushiki Kaisha

Mitsubishi Heavy Industries Limited

Shiroki Corporation

Akita University

Toyoda Gosei Co., Ltd.

Hiroaki Hayashi

Masahiro Sugiura

Hisanori Uda

Yasuo Takada

Takatoshi Suzuki

Yuji Sakakibara

Yoshiaki Fukushima

Osami Kamigaito

Kazuo Mizuno

Ryu Kimura

Haruyuki Nakanishi

Masahiro Taguchi

Akihiko Suda

Shigeaki Murata

Yoshiyuki Kago

Nobuyuki Kamihara

Naomoto Ishikawa

Hideki Horizono

Kazuhiro Fukumoto

Yukiomi Tanaka

Mikio Muraoka

Kenichirou Suzuki

Mitsumasa Horii

Toshiyuki Takayanagi

Yoshiro Hayashi

Megumi Sasaki

Ryuuichi Masuda

Masahito Hoshino

Kazuhiko Endo

Kiyomi Kozuka

Kenji Kaida

Osamu Yoshida

Kotaro Tsuji

Akira Morikawa

Hideaki Kato

Toshitaka Tanabe

Hideo Sobukawa

Shinji Inagaki

Hiroaki Wakayama

Mitsuhiro Inoue

Noriyoshi Suzuki

Toshio Kandori

Narihito Tatsuda

Tomohisa Harada

Yoshitsugu Kojima

Norihiko Setoyama

Kazuo Higuchi

Yasutomo Goto

Tsutayuki Shibata

Takashi Yoshida

Seiji Onoda

Takeshi Kogiso

Noboru Matsui

Kazuyoshi Tahashi

Nobuo Itoh

Kiyoshi Ninomiya

Takewo Chiku

Takako Kurimoto

Provided is a method of manufacturing a metal nano coil which is suitable for mass production and results in a lower manufacturing cost. The method of manufacturing a metal nano coil includes the steps of: forming, with tension applied to a core member composed of nanofiber of a polymer, a metal thin film on a surface of the core member to fabricate a metal-covered nanofiber; reducing the tension of the metal-covered nanofiber; and heating, with the tension reduced, the metal-covered nanofiber to at or above a boiling point or a thermal decomposition temperature of the polymer and at or below the melting point of the metal thin film to vaporize the core member and shrink the metal thin film into a coil form, so that a hollow metal nano coil is produced.

Method of manufacturing metal nano coil

Provided is an adhesive that can provide quick bonding between thermoplastic resins and excellent bond strength, a structure having adhesion provided by the adhesive, and an adhesion method using the adhesive. The adhesive bonds a first member () containing a thermoplastic resin or a carbon fiber reinforced thermoplastic resin and a second member () containing the thermoplastic resin or the carbon fiber reinforced thermoplastic resin. The adhesive includes a thermoplastic resin as a main component containing a metal nano material that absorbs electromagnetic waves and generates heat.

Adhesive and structure, and adhesion method

A vehicle seat including: a seat cushion; a seat lifter including a link which connects the seat cushion and a base on a vehicle body and is configured to rotate about an axis extending in a seat width direction and configured to adjust a height of the seat cushion with respect to the vehicle body by the rotation of the link; and a fixture for fixing a seat belt which is abutted and attached to a mounting surface portion of the link, the mounting surface portion being formed on an outer surface portion of the link and obliquely facing a front side.

Vehicle seat

A vehicle seat includes: a bracket; and a seat frame that is mounted on the bracket through coupling member. The bracket has main body, and upright wall extending upward from the main body and coupled to the main body. The coupling member is mounted at one end on the upright wall with fastening member. The main body is provided with interference avoiding portion that prevents interference with protruding portion of the fastening member protruding from the upright wall toward the main body.

A vehicle seat includes a side frame of a seat cushion having a side frame opposing portion extending in a front-rear direction of the seat cushion, and a bracket member disposed below the side frame having a bracket opposing portion extending in the front-rear direction and opposing the side frame opposing portion. The side frame opposing portion and the bracket opposing portion are provided such that the side frame opposing portion and the bracket opposing portion come in contact with each other in a state in which the seat cushion sinks rearward and downward when a load acted on the vehicle seat from behind is transmitted to the seat cushion from the seat back via a connection part. An arrangement interval between the bracket opposing portion and the side frame opposing portion is smaller in a front side than in a rear side in the front-rear direction.

Vehicle seat having a seatbelt anchor bracket

A seatbelt device bezel includes: a communication opening path that is in communication with a webbing pass-through portion of a bezel main body and that extends along a direction intersecting the webbing pass-through portion and opens at an outer edge of the bezel main body; a main body receiving portion that is disposed on both width direction sides of the communication opening path and that is integrally formed to the bezel main body; and a closing member that is mounted to the communication opening path and closes off the communication opening path, and that includes a clamping portion that clamps the main body receiving portion from one side and another side in the webbing pass-through direction.

Seatbelt device bezel

A cell module for a fuel cell according to embodiments of the invention includes a hollow-core electrolyte membrane; two electrodes one of which is arranged on the inner face of the hollow-core electrolyte membrane and the other of which is arranged on the outer face of the hollow-core electrolyte membrane; and first collecting members that are connected to the respective two electrodes. At least one of the two electrodes includes nano-columnar bodies on which electrode catalysts are supported. The nano-columnar bodies are formed on at least one of the first collecting members corresponding to the at least one of the electrodes that includes the nano-columnar bodies. At least part of the nano-columnar bodies are oriented toward the hollow-core electrolyte membrane.

Cell module for fuel cell, method for forming cell module, and fuel cell

A light emitting device has a light emitting element and an adhesion layer to bond the light emitting element to a mounting member. The adhesion layer is of inorganic material particles and a transparent inorganic binding layer to be formed between the neighboring inorganic material particles, and the inorganic material particles are substantially connected with each other in the adhesion layer. Another light emitting device has a light emitting element and a phosphor layer that radiates fluorescent light while being excited by light emitted from the light emitting element. The phosphor layer is of phosphor particles and transparent inorganic binding layer to be formed between the neighboring phosphor particles.

Light emitting device including adhesion layer

With a capacitor C inserted in an interstage portion of multiple stages of amplifier circuits, a high pass filter is generated by the capacitor C and an input impedance |Z| of an amplifier circuit in the next stage. Accordingly, frequency components lower than a cutoff frequency fc are cut off, and therefore are not transferred to the subsequent stage. However, radio frequency components higher than or equal to a fundamental wave component determined by an envelope of a radio frequency signal intermittently transmitted can be transferred. Consequently, transfer of DC offset potentials can be cut off, and noise, such as flicker noise, having great power in a DC or near-DC zone can be effectively cut off. Thereby, the S/N ratio, detection sensitivity, and detection accuracy can be improved.

Activation signal output circuit having multiple amplifier circuits

A membrane electrode assembly () for a tube-shaped fuel cell, which is provided with a tube-shaped solid electrolyte membrane (); an outside catalyst electrode layer () formed on an outer peripheral surface of the solid electrolyte membrane (); an inside catalyst electrode layer () formed on an inner peripheral surface of the solid electrolyte membrane (); an outside collector () arranged on an outer peripheral surface of the outside catalyst electrode layer (); and an inside collector () arranged on an inner peripheral surface of the inside catalyst electrode layer (), is characterized in that at least one of the outside collector () and the inside collector () is a coiled collector that includes a coiled conductor.

Membrane electrode assembly for a tube-shaped fuel cell and tube-shaped fuel cell

Two lines Ai(i=1 or 2) are connected to an input terminal In. The line Ais grounded via a capacitor C. The line Aand a line Bform a coupled line. One end of the line Bis connected to a positive pole of a diode Dwhich is grounded at its negative pole. Lines Band Bare connected to the other end of the line B. The other end of the line Bis connected to a capacitor Cwhich is grounded at its other end and a resistor Rwhich is connected to a voltage control terminal Vat its other end. The other end of the line Bis connected to the positive pole of a diode D. The line Band the line Aform a coupled line. One end of the line Ais connected to an output terminal Out-i, and the other end is grounded via a capacitor C. The output of the terminals Out-are switched to 5.8 GHz band, 4.8 GHz band and cut-off, by applying to Vand Vthree potentials, that is, ground potential. positive potential which causes no current flow and positive potential which causes current flow.

Filtering type frequency switching circuit

A start signal outputting circuit according to the invention has a differential RF/DC convertor partfor converting a high frequency power (RF) into a d.c. potential (DC). The RF/DC convertor partis formed by two transistors Q, Qworking as a diode, and transistors Q, Qand resistances Rfor forming high resistances at anode sides and cathode sides of these diodes, respectively. A differential amplification partdisposed at a later stage of the diode has not only amplifying effect but also low-pass filtering effect together with filtering parsof its previous and later stages. In this case, it is designed so that current flowing through the respective circuits is about 2&#x2dc;3 &#x3bc;A. As a result, even if the high frequency power of the specified frequency is weak, for example &#x2212;60&#x2dc;&#x2212;40 dBm, a start signal outputting circuitwhich outputs a d.c. potential of 0.3&#x2dc;2.4V, is suitable for integration and has a low power consumption can be obtained.

Start signal outputting circuit

A start signal output circuit having an RF/DC conversion circuit to which radio frequency power (RF) of specified frequency is inputted and from which a direct current potential (DC) is outputted, comprises a detection/amplification circuitwhich includes a voltage doubler wave-detector circuitconfigured including a sensing diode Q(Tr) for sensing the RF power, a differential amplifier including differential pair transistors Trand Tr, and a current mirror circuit. A base current of one Trof the differential pair transistors is brought into substantial agreement with a DC component of a current flowing through the sensing diode Q(Tr). A total of currents flowing through the differential pair transistors Trand Tris regulated to a substantially constant value by the current mirror circuit. Thus, the start signal output circuit which is small in size, high in sensitivity and low in power consumption can be realized.

Activation signal output circuit and determination circuit

A receiver configured to receive a plurality of signals k (k=1, 2, . . . , M) allocated in a first frequency band. The receiver includes a frequency conversion section for reallocating the signals k in a second frequency band for sampling by a single AD converter at a sampling frequency fsuch that digital data of the sampled signals k are obtained in a third frequency band extending from zero Hz to a frequency represented by f/2; and a signal extraction section for extracting a target base band signal k from the digital data obtained by the AD conversion section. The frequency conversion section performs the reallocation in such a manner that at least a frequency represented by Jf/2 (J is an integer) is located between the frequencies of at least two of the signals k and that the sampled signals do not overlap.

Receiver apparatus

An ordinary-temperature purifying catalyst includes an oxide having an oxygen defect introduced by a reduction treatment, and a noble metal loaded on the oxide. For example, the oxide can be at least one oxide selected from the group consisting of cerium oxides and zirconium oxides, at least a part of which has an oxygen defect. The catalyst can purify an environmental loading material, such as carbon monoxide, a nitrogen oxide, ethylene, formaldehyde, trimethylamine, methyl mercaptan and acetaldehyde, in air at an ordinary temperature. A method for how to use the catalyst is also disclosed.

Ordinary-temperature purifying catalyst

Growing community of inventors

Aichi, Japan

Hiroaki Hayashi