Nec Corporation

Ricoh Company, Ltd.

Dai Nippon Printing Co., Ltd.

Tohoku University

Hiroyuki Endoh

Satoru Toguchi

Takashi Manako

Akihiro Kirihara

Akira Hirano

Katsunari Obata

Kenji Nakamura

Hideaki Numata

Eiji Saitoh

Takuya Hata

Fumiyuki Nihey

Tsutomu Uezono

Noriyuki Tonouchi

Jun Zhang

Eiri Sagae

Kenichi Uchida

Toshiyuki Enomoto

Katsumi Maeda

Etsuo Hasegawa

Atsushi Yoshizawa

Koji Utsugi

Masahiko Ishida

Kohei Shimbo

Yasuo Yamanaka

Hiroshi Tada

Yutaka Kaneko

Yasunobu Nakamura

Toshiyuki Iseki

Yoshinobu Takeda

A control apparatus controls an array-type sensor. The control apparatus includes: a first selector/driver that is configured to select and drive one of a plurality of first lines; a second selector/driver that is configured to select and drive at least one of a plurality of second lines; a read/arithmetic circuit that is configured to read outputs of respective unit cells and perform a correction operation on the outputs; and a nonvolatile storage device that is configured to store reference data. The sensor outputs of the respective unit cells with respect to two or more reference inputs are stored as reference data in the nonvolatile storage device in a calibration mode, and a correction operation is performed on the sensor outputs of the respective unit cells using the stored reference data and results of the correction operation are output in a measurement mode.

Control apparatus, array-type sensor, sensor usage method, control method, and program

In order to detect a behavioral state of an evacuee in a facility and provide, for an evacuee, an evacuation instruction according to the behavioral state, the present invention provides an evacuation guidance system including: a storage means; an analysis control means for acquiring pressure data generated by at least one pressure sensor installed on an evacuation route in a facility and storing the pressure data in the storage means, and also for comparing a plurality of pieces of the pressure data generated in a verification time period, analyzing a temporal change in the pressure data, and analyzing a state of a person located on the pressure sensor; and an evacuation instruction means for generating evacuation instruction information based on an analysis result of the analysis control means.

Evacuation guidance system and evacuation guidance method

A thermoelectric conversion apparatus includes a substrate, and a power generation part formed on the substrate for generating a thermoelectric power. The power generation part includes a magnetic layer with magnetization and an electrode layer including a material exhibiting a spin-orbit interaction and formed on the magnetic layer. The substrate and the power generation part have flexibility, respectively. The thermoelectric conversion apparatus further includes a cover layer having flexibility and formed on the substrate so as to cover at least the power generation part. The magnetic layer includes magnetic layer pieces separated in a layer direction with a gap portion interposed between the magnetic layer pieces.

Thermoelectric conversion apparatus

A thermoelectric conversion apparatus has a substrate and a power generation part. The power generation part has a magnetic layer with magnetization and an electrode layer made of a material exhibiting a spin-orbit interaction and formed on the magnetic layer. The substrate and the power generation part have flexibility. This thermoelectric conversion apparatus further has a cover layer having flexibility and formed on the substrate so as to cover at least the power generation part.

A position detection device includes a thermoelectric conversion portion which includes a magnetic layer and a plurality of electrodes. The magnetic layer has magnetization. The plurality of electrodes are formed of a material having spin-orbit interaction, and are formed on the magnetic layer so as to extend in a direction which intersects with the magnetization direction of the magnetic layer. When an arbitrary location on the layer-surface of the magnetic layer is heated, the thermoelectric conversion portion modulates the effective temperature in the magnetic layer and induces a spin Seebeck effect. As a result, the thermoelectric conversion portion generates, from the plurality of electrodes, a voltage corresponding to the heated position as position information.

Position detection device

A carbon nanotube composition that exhibits an excellent printability when use is made for a printing device, especially, exhibits an excellent prevention of drying on the printing apparatus. A carbon nanotube ink composition comprises carbon nanotubes, a solvent, an imidazolidinone compound represented by chemical formula (1) and a propylene urea compound represented by chemical formula (2).

Carbon nanotube ink composition and a coating method thereof and a forming method of a thin film containing carbon nanotubes

A carbon nanotube ink composition that exhibits excellent storage stability and superior printability during printing using a printing device. The carbon nanotube ink composition includes at least carbon nanotubes, a solvent, and an acetylene glycol compound represented by general formula (1) shown below. In general formula (1), m represents an integer of 0 to 5, n represents an integer of 0 to 5, each of Rto Rrepresents a hydrogen atom or a linear or branched hydrocarbon group of 1 to 6 carbon atoms, and each of Rto Rrepresents a hydrogen atom or a methyl group. 

Carbon nanotube ink composition

A field-effect transistor includes a semiconductor layer containing carbon nanomaterials; a first electrode and a second electrode formed in contact with the semiconductor layer; a third electrode for controlling current flowing between the first electrode and the second electrode; and an insulating layer formed between the semiconductor layer and the third electrode. The insulating layer contains an aromatic polyamide comprising a substituent containing 1 to 20 carbon atoms.

Field-effect transistor and method for manufacturing the same

In a method for manufacturing an organic transistor element, an electrode is subjected to wet etching into a predetermined pattern on an organic semiconductor layer. In the process for performing wet etching on the electrode so as to obtain a predetermined pattern, an etching liquid containing a dopant of the organic semiconductor layer is used to perform wet etching on the electrode and, simultaneously, the organic semiconductor layer is doped with the dopant.

Organic transistor element, and method of manufacturing the same by concurrently doping an organic semiconductor layer and wet etching an electrode provided on the organic semiconductor layer

A switching element comprises a source electrode, a drain electrode arranged apart from the source electrode, an active layer in contact with the electrodes, and a gate electrode arranged apart from the source and drain electrodes and being in contact with the active layer with a gate insulating layer interposed therebetween. The active layer is formed of a dispersion film containing predetermined carbon nanotubes and a predetermined polyether compound.

Switching element and method for fabricating same

A problem of a switching element using for the active layer a carbon nanotube (CNT) dispersion film that can be manufactured at low temperature has been that sufficient electrical contact and thermal conductivity between the CNTs and the source and drain electrode surfaces are not obtained. The switching element of the present invention has a structure in which a mixed layer of carbon nanotubes and a metal material, and a metal layer of the metal material are laminated in this order on source and drain electrodes, and thereby, the CNT-dispersed film and the electrode surfaces can be in firm electrical, mechanical, and thermal contact with each other. Thus, a switching element exhibiting good and stable transistor characteristics is obtained with a low-temperature, convenient, and low-cost process.

Switching element including carbon nanotubes and method for manufacturing the same

Disclosed is a switching element provided with a gate dielectric film and an active layer disposed in contact with the gate dielectric film. The active layer includes carbon nanotubes, and the gate dielectric film includes non-conjugated polymer containing an aromatic ring in a side chain.

Switching element and manufacturing method thereof

In a switching element using, for the active layer, a carbon nanotube (CNT) dispersed film which can be manufactured at low temperatures, the interaction between the CNT and the surface of the gate insulating film is insufficient. For this reason, a problem of such a switching element is that the amount of CNT fixed in the channel region is insufficient, resulting in insufficient uniformity. In the switching element of the exemplary embodiment, a gate insulating film is formed of a nonconjugated polymer material containing, in the main chain, an aromatic group and a substituted or unsubstituted alkylene or alkyleneoxy group having 2 or more carbon atoms as repeating units. As a result, the interaction between the CNT and the surface of the gate insulating film is enhanced while maintaining the flexibility of the gate insulating film, and the amount of CNT fixed in the channel region can be increased. Thereby, a switching element having good and stable transistor characteristics can be obtained by a low-temperature, simple, and inexpensive process.

Switching element

An organic light-emitting transistor having a source electrode layer; a drain electrode layer facing the source electrode layer; an organic light-emitting layer formed between the source electrode layer and the drain electrode layer; a semiconductor layer formed between the organic light-emitting layer and the source electrode layer; and a gate electrode layer deposited to face through a gate insulation film to one face of the source electrode layer opposite to the other face facing the drain electrode layer. The organic light-emitting transistor further comprises: a charge-carrier suppression layer formed between the organic light-emitting layer and the source electrode layer to have an aperture; and a relay region formed between the charge-carrier suppression layer and the source electrode layer to relay charge-carriers from the source electrode layer to the aperture.

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Tokyo, Japan

Hiroyuki Endoh