Kabushiki Kaisha Toshiba

Other

Yasushi Shinjo

Hirohisa Miyamoto

Shintaro Enomoto

Tomoaki Sawabe

Akio Amano

Tomio Ono

Masahiro Hosoya

Yukitami Mizuno

Tomoko Sugizaki

Daimotsu Kato

Reiko Yoshimura

Keiji Sugi

Haruhi Oh-Oka

Mitsunaga Saito

Haruhi Oooka

Hitoshi Yagi

Atsuko Iida

Yuko Nomura

Hideki Nukada

Koichi Ishii

Toshiya Yonehara

Hayato Kakizoe

Takeshi Watanabe

Isao Takasu

Ko Yamada

Mitsuhiro Oki

Koichi Tsunemi

Takashi Sasaki

Kazuhiro Suzuki

Noriko Yamamoto

Hiroaki Kobayashi

Akiko Suzuki

Satoshi Takayama

Yutaka Nakai

Honam Kwon

Kenji Sano

Akiko Hirao

Shuzo Hirahara

Keita Sasaki

Ikuo Fujiwara

Hiroko Nakamura

Atsushi Wada

Yoshiyuki Kokojima

Isao Amemiya

Masaki Atsuta

Shuichi Uchikoga

Toshihiro Imada

Yongfang Li

Yuki Nobusa

Koji Mizuguchi

Hitomi Saito

Tatuya Saeki

Haruhi Oh-oka

According to one embodiment, a carbon dioxide adsorption-desorption device including an electrode that includes a porous composite is provided. The porous composite includes an electro-conductive component and a porous material on the electro-conductive component. The porous material has pores of an angstrom size or a nanometer size, and includes a moiety exhibiting redox activity according to electrical response.

Carbon dioxide adsorption-desorption device

A molecular sensor of an embodiment includes a sensitive film including a plurality of metal organic framework particles, and a detector configured to be capable of measuring a change in physical quantity due to adsorption of a target molecule to the sensitive film. Pores are present between the plurality of metal organic framework particles, and the pores are any of mesopores of 2 nm or more and 50 nm or less, micropores smaller than the mesopores, and macropores larger than the mesopores. A sum of areas of the micropores is defined as S, a sum of areas of the mesopores is defined as S, a sum of areas of the macropores is defined as S, and an area of an entire image analysis area is defined as S, in an image analysis area by two-dimensional image analysis on a cross section of the sensitive film in a thickness direction. Pore distribution satisfies 0.35≤S/(S+S+S), 0.01≤S+S+S)/S≤0.5.

Molecular sensor, molecular detection device, and molecular detection method

According to one embodiment, a molecular sensor contains a sensitive film in which a porous member and an ionic liquid coexist. The molecular sensor is capable of detecting a target molecule by measuring a change in physical quantity of the sensitive film due to adsorption of the target molecule to the sensitive film.

A molecular detection apparatus includes a detector. The detector includes: a vibrator having a piezoelectric member that has a first surface and a second surface, a first electrode connected to the first surface, a second electrode connected to the second surface, and a third electrode connected to the second surface and disconnected from the second electrode; a sensitive film overlapping at least one part of the second electrode and at least one part of the third electrode and configured to change a vibration frequency of the vibrator in response to an interaction with target molecules; and a detection electrode to detect the changed vibration frequency.

Molecular detection apparatus

A molecular detection apparatus of an embodiment includes: a first detector which includes a first sensor containing a MOF having a fluorescence emitting property, a light source which irradiates the MOF with light, and a light receiver which receives fluorescence from the MOF; a second detector which includes a sensor layer electrodes electrically connected with the sensor layer; and a type discrimination and concentration calculation part which discriminates a type of the molecules to be detected based on a measurement result measured by the first detector, and calculates a concentration of the molecules a measurement result measured by the second detector based on a discrimination result of a type of the molecules.

Molecular detection apparatus and molecular detection method

According to one embodiment, an information processing apparatus comprises a processor. The processor is configured to receive a first number of outputs from the first number of sensors mutually different in response to an odor, obtain a second number of indicators by using the first number of outputs from the first number of sensors, the second number being larger than the first number, obtain the second number of indicator values by using the first number of outputs and the second number of indicators, and discriminate the odor based on the second number of indicator values.

Information processing apparatus, information processing method, and storage medium

The molecule detecting apparatus of an embodiment includes a light source, a fluorescent layeremitting different fluorescence depending on the kind of a target moleculecaptured when being irradiated with light from the light source, a photodetectorconfigured to detect fluorescence, and the photodetectoris an array of avalanche photodiodes operating in Geiger mode.

Molecule detecting apparatus

A molecular detection apparatus according to an arrangement includes: a collection unit collecting a detection target gas containing a molecule to be detected; a detector including a detection cell that has an organic probe provided in a sensor unit, the organic probe capturing the collected molecule, and a discriminator discriminating the molecule by a detection signal generated by the molecule being captured by the organic probe of the detection cell. The detection cell has the organic probe including a dicyanovinyl structure or a coumarin structure.

A metal organic framework is configured to emit fluorescence and deform by interaction with a target molecule. The metal organic framework includes: a metal ion; a quadridentate ligand bonded to the metal ion; and a bidentate ligand bonded to the metal ion.

Metal organic framework, phosphor film, and molecule detecting device

An organic electroluminescent device includes first and second substrates, first and second electrodes, an insulating layer, an organic light emitting layer, and an intermediate layer. The first electrode is provided on the first substrate. The insulating layer is provided on the first electrode. The insulating layer includes first and second openings. The second electrode includes first and second conductive parts. The first conductive part covers the first opening. The second conductive part covers the second opening. The organic light emitting layer includes first and second light emitting parts. The first light emitting part is provided between the first electrode and the first conductive part. The second light emitting part is provided between the first electrode and the second conductive part. The second substrate is provided on a stacked body including above. The intermediate layer is provided between the stacked body and the second substrate.

Organic electroluminescent device, illumination apparatus, and illumination system

According to one embodiment, the organic electroluminescent device includes an anode, a cathode provided apart from the anode, and a luminous layer. The luminous layer is disposed between the anode and the cathode and contains a host material and a luminous dopant. The host material includes a polymer having a skeleton represented by Formula 1 below in a repeating unit, and a number of repetitions being 20 to 10,000. 

Organic electroluminescent device

An organic electroluminescent device includes first and second electrode and an organic light emitting layer. The first electrode has an upper face. The organic light emitting layer is provided on the first electrode. The second electrode is provided on the organic light emitting layer. The second electrode includes a plurality of conductive parts. The conductive parts extend in a first direction parallel to the upper face and are arranged in a second direction. The second direction is parallel to the upper face and intersects with the first direction. When a length of each of the conductive parts in the second direction is set to W1 (micrometer), and a pitch of each of the conductive parts is set to P1 (micrometer). The W1 and the P1 satisfy a relationship of W1&#x2267;&#x2212;647(1&#x2212;W1/P1)+511 and a relationship of W1&#x2266;&#x2212;882(1&#x2212;W1/P1)+847.

Certain embodiments provided a coating apparatus includes an applicator, material supply unit, and first, second, and third moving mechanisms. The applicator includes a meniscus pillar forming portion configured to form a meniscus pillar of the material in conjunction with a surface to be coated of the object to be coated and a recess. The material supply unit supplies the material to the applicator. The first moving mechanism moves the position of the applicator relative to the surface along the surface. The second moving mechanism moves the position of the applicator relative to the surface so that the meniscus pillar between the surface and the recess. The third moving mechanism moves the position of the applicator relatively toward and away from the surface.

Coating apparatus

In general, according to one embodiment, an illumination device includes a light emitting unit, a connection unit, a containing unit, and a second sealing unit. The light emitting unit includes a first substrate, a second substrate, an organic electroluminescent element, and a first sealing unit. The organic electroluminescent element is provided between the first substrate and the second substrate. The first sealing unit seals circumferential edge portions between the first substrate and the second substrate. The connection unit supplies power to the organic electroluminescent element. The containing unit has a space being airtight in an interior of the containing unit. The containing unit contains the light emitting unit inside the space. The second sealing unit is provided in the containing unit. The second sealing unit seals between a portion of the unit extending outside the containing unit and the containing unit.

Illumination device

According to one embodiment, a liquid container includes a tank unit and a light emitting unit. The tank unit is capable of storing a liquid in an interior of the tank unit. At least one portion of the tank unit is light-transmissive. The light emitting unit contacts the at least one portion. The light emitting unit includes a first electrode opposing an outer surface of the at least one portion, a second electrode provided between the first electrode and the at least one portion, the second electrode being light-transmissive, and an organic light emitting layer provided between the first electrode and the second electrode.

Liquid container, container illumination device, container member, and container illumination system

Growing community of inventors

Kawasaki, Japan

Yasushi Shinjo