Abstract: In an electrochemical gas sensor (10), a first sensing element (21) is stored in a first storage portion (31). A moisture permeable film (24) is disposed in a first introduction inlet (31A) of the first storage portion (31). The moisture permeable film (24) substantially prevents a to-be-detected gas from permeating therethrough. A second sensing element (22) is disposed in a space into which water vapor and the to-be-detected gas contained in a target gas flow. In such a configuration, the electrochemical gas sensor (10) is capable of detecting a to-be-detected gas having a concentration of 0 or more and 1 ppm or less.

Abstract: An example device includes at least one camera and a touchscreen user interface including thumbnail images for a plurality of stored pictures and a first button for a communication operation for sending a picture corresponding to a selected thumbnail image to another device.

Abstract: An example device includes first and second cameras and a touchscreen user interface configured to concurrently display first and second buttons and a real time image captured by the selected one of the cameras. The first button is operable for selecting between the first and second cameras, and the second button is operable for taking a picture using the selected one of the cameras.

Abstract: An example system includes at least one a first device and at least one second device. The first device includes a camera; memory for storing user-configurable name information and a picture captured by the camera; and communication circuitry for wirelessly transmitting the name information. The second device includes communication circuitry for wirelessly receiving the name information; a display controller for controlling display of a name based on the received name information; and a user interface for receiving, while the name is displayed, a user-supplied request for picture reception. The communication circuitry of the first device transmits the stored picture to the second device based on the picture reception request and the communication circuitry of the second device receives the transmitted picture.

Abstract: An example device includes first and second cameras and a touchscreen user interface configured to concurrently display first and second buttons and a real time image captured by the selected one of the cameras. The first button is operable for selecting between the first and second cameras, and the second button is operable for taking a picture using the selected one of the cameras.

Abstract: An example device includes first and second cameras and a touchscreen user interface configured to concurrently display first and second buttons and a real time image captured by the selected one of the cameras. The first button is operable for selecting between the first and second cameras, and the second button is operable for taking a picture using the selected one of the cameras.

Abstract: Problem To provide a process for producing single-walled carbon nanotubes with which highly pure, high-quality single-walled carbon nanotubes can be produced with high efficiency, and to provide a transparent conductive film using the single-walled carbon nanotubes obtained by that production method. Solution A process for producing single-walled carbon nanotubes by chemical vapor deposition (CVD), wherein particles of a nonmetallic material containing 500 ppm or lower of metallic impurities including metals and compounds thereof are used as growth nuclei; and after a growth gas is introduced into a furnace used for growing carbon nanotubes, the growth gas used in an initial stage of growth of carbon nanotubes and the growth gas used in a stage of growth of regular carbon nanotubes (stationary growth stage) thereafter are prepared to different compositions and different partial pressures.

Abstract: An example device includes first and second oppositely facing cameras and a user interface configured to concurrently display (i) a real time image captured by one of the first and second cameras and (ii) first, second and third buttons. The first button is operable for taking a picture using one of the cameras, the second button is operable for displaying a stored picture, and the third button is operable for switching between the first and second cameras.

Abstract: A hand-held imaging apparatus 10 comprises a lower housing 11, an upper housing 21, an outer camera 25, a lower LCD 12, a touch panel 13, and change means. The upper housing 21 is foldably connected to the lower housing 11. The outer camera 25 is provided in an outer surface of the upper housing 21 when folded. The lower LCD 12 has a display screen which is provided in an inner surface of the lower housing 11 when folded, and displays a live image which is currently taken by the outer camera 25. The touch panel 13 is provided on the display screen of the lower LCD 12. The change means makes a change to the live image based on an input with respect to the touch panel 13.

Abstract: An example device includes at least one camera and a touchscreen user interface including thumbnail images for a plurality of stored pictures and a first button for a communication operation for sending a picture corresponding to a selected thumbnail image to another device.

Abstract: An example system includes at least one a first device and at least one second device. The first device includes a camera; memory for storing user-configurable name information and a picture captured by the camera; and communication circuitry for wirelessly transmitting the name information. The second device includes communication circuitry for wirelessly receiving the name information; a display controller for controlling display of a name based on the received name information; and a user interface for receiving, while the name is displayed, a user-supplied request for picture reception. The communication circuitry of the first device transmits the stored picture to the second device based on the picture reception request and the communication circuitry of the second device receives the transmitted picture.

Abstract: A game device according to the present embodiment includes a camera as image pick-up means. An inner camera is accommodated in an upper housing. In addition, a microphone hole is provided in an inner surface of the upper housing so as to sense external sound through a microphone.

Abstract: A game device according to the present embodiment includes a camera as image pick-up means. An inner camera is accommodated in an upper housing. In addition, a microphone hole is provided in an inner surface of the upper housing so as to sense external sound through a microphone.

Abstract: Problem To provide a process for producing single-walled carbon nanotubes with which highly pure, high-quality single-walled carbon nanotubes can be produced with high efficiency, and to provide a transparent conductive film using the single-walled carbon nanotubes obtained by that production method. Solution A process for producing single-walled carbon nanotubes by chemical vapor deposition (CVD), wherein particles of a nonmetallic material containing 500 ppm or lower of metallic impurities including metals and compounds thereof are used as growth nuclei; and after a growth gas is introduced into a furnace used for growing carbon nanotubes, the growth gas used in an initial stage of growth of carbon nanotubes and the growth gas used in a stage of growth of regular carbon nanotubes (stationary growth stage) thereafter are prepared to different compositions and different partial pressures.

Abstract: An example device includes first and second cameras and a touchscreen user interface configured to concurrently display first and second buttons and a real time image captured by the selected one of the cameras. The first button is operable for selecting between the first and second cameras, and the second button is operable for taking a picture using the selected one of the cameras.

Abstract: An example device includes at least one camera, a memory, a processing system, and a user interface. The user interface includes concurrently displayed first and second buttons, the first button operable for taking a picture using the camera and the second button operable for launching a picture editing application.

Abstract: An example device includes first and second oppositely facing cameras and a user interface configured to concurrently display (i) a real time image captured by one of the first and second cameras and (ii) first, second and third buttons. The first button is operable for taking a picture using one of the cameras, the second button is operable for displaying a stored picture, and the third button is operable for switching between the first and second cameras.

Abstract: An example device includes at least one camera, a touchscreen and a display controller. The display controller is configured to concurrently display on the touchscreen (i) a first button operable for taking a picture using the camera, and (ii) a real time image captured by the camera, wherein the first button overlaps the real time image.

Abstract: Disclosed is a photoelectric conversion element which comprises: a first conductive supporting body that has a semiconductor-containing layer; a second conductive supporting body that has a counter electrode which is arranged at a position where the counter electrode faces the semiconductor-containing layer at a predetermined distance; a charge transfer layer that is held in a space between the first and second conductive supporting bodies; and a sealing agent that is provided in the peripheral portions of the first and second conductive supporting bodies so as to seal the charge transfer layer. The photoelectric conversion element is characterized in that the sealing agent is a thermosetting sealing agent for a photoelectric conversion element, said thermosetting sealing agent containing (a) an epoxy resin and (b) at least one heat curing agent that is selected from the group consisting of aromatic hydrazides and aliphatic hydrazides having 6 or more carbon atoms.

Abstract: Identification information of another image communication apparatus is received, as transmitter information indicating a transmitter, from the another image communication apparatus, and display is performed so as to indicate the transmitter on display means in accordance with the transmitter information having been received, and a user is allowed to select whether or not an image is to be received from the another image communication apparatus having transmitted the transmitter information. Next, its own identification information is transmitted, as destination information indicating a destination, to the another image communication apparatus which is selected as the transmitter from which an image is to be received. An image is received from the another image communication apparatus to which the destination information is transmitted, and the received image is stored in storage means.