Abstract: A system including a view creation unit for creating a view for displaying schedule data on at least one of a weekly basis, a monthly basis, and a yearly basis and a view for displaying schedule data on a daily basis; and a display control unit for displaying, on a display unit, a weekly, monthly, or yearly first view created by the view creation unit, displaying, in a position corresponding to a predetermined date in the displayed first view, a daily second view corresponding to the date, and displaying schedule data with respect to the second view in a manner that a display position and displayed time periods are associated with each other.

Abstract: A bio-information measuring apparatus is provided, which suppresses pressure on a capillary vessel of body, stabilizes a measuring result of bio-information, and obtains a good S/N ratio. In an bio-information measuring apparatus 1 in which a self-emission-type sensor device 10 for optically measuring bio-information of specimen 4 is attached to an attaching member 2, the attaching member 2 is composed of elastic material, and the attaching member 2 is arranged to be brought into contact with the specimen 4 at the time of measuring the bio-information.

Abstract: A method includes performing an approximate partially coherent imaging operation for elements of a first basis generated from a model image having no noise and no blur, and generating based upon the first basis a second basis that is blurred, the approximate partially coherent imaging operation being expressed by a convolution integral on an eigenfunction corresponding to a maximum eigenvalue of a Kernel matrix and each element of the first basis, generating an intermediate image in which each pixel value of the observed image that has been denoised is replaced with its square root, and obtaining a restored image by approximating each of a plurality of patches that are set to entirely cover the intermediate image, using a linear combination of elements of the first basis and linear combination coefficients obtained when each patch is approximated by a linear combination of elements of the second basis.

Abstract: A light-emitting sensor device is provided with a substrate (110); an irradiating part (120), disposed on the substrate, for applying light to a specimen; a light receiving part (150), disposed on the substrate, for detecting light from the specimen caused by the applied light; a light scattering part, disposed at least one of between the irradiating part and the specimen and between the specimen and the light receiving part, for scattering at least one of light emitted from the irradiating part and the light from the specimen. The sensor device stably detects a predetermined type of information, such as a blood flow velocity, on the specimen.

Abstract: A light detecting apparatus includes: a first photoelectric conversion element unit (110) and a second photoelectric conversion element unit(120) each of which converts input light to an electric current and output it; an optical current transducer unit (100) for outputting, as a detected current, a differential current between an electric current outputted by the first photoelectric conversion element unit and an electric current outputted by the second photoelectric conversion element unit; and a first current/voltage converting unit (200) for amplifying the detected current outputted from the optical current transducer unit, converting it to a voltage signal, and outputting the voltage signal.

Abstract: There is provided a biological information measuring apparatus, which permits to release constriction of capillary vessels a human body to provide stable measurement results of biological information and a proper S/N ratio. The biological information measuring apparatus 1 includes a beam-emitting type sensor device 10 provided on a mounting unit 2 to optically measure biological information of a subject 4. The beam-emitting type sensor device 10 is placed in a position so as to be in a non-contact state relative to the subject 4 when measuring the biological information.

Abstract: An object is to provide a multi-wavelength integrated semiconductor laser device which can reduce variations in emission point distance, can be formed by simplified manufacturing processes, and can provide improve electric characteristics. A first semiconductor laser element 100 having an active layer AL1 for emitting a laser beam of a first wavelength from its light-emitting point X1 and a second semiconductor laser element 200 having an active layer AL2 for emitting a laser beam of a second wavelength from its light-emitting point X2 are bonded to each other via an adhesive layer MC made of metal. At least either one of the semiconductor laser elements has a ridge waveguide made of an n-type semiconductor. The semiconductor laser elements 100 and 200 are bonded via the metal adhesive layer MC at the sides of their respective p-type semiconductors. A submount SUB is bonded to the first semiconductor laser element 100 via metal at a side where its ridge waveguide is formed.

Abstract: An RFID system according to the present invention includes an RFID antenna system including: a first antenna that can communicate with an external reader/writer; an antenna selector for connecting with the first antenna; and a plurality of second antennas that can connect with the first antenna in order via the antenna selector, each of the second antennas can communicate with an IC tag that is attached to an article placed in a region defined by the second antenna.

Abstract: A light-emitting sensor device is provided with: a substrate (110); an irradiating part (120), disposed on the substrate, for applying light to a specimen; a light receiving part (150), disposed on the substrate, for detecting light from the specimen caused by the applied light; a front plate (190) disposed to face the substrate, on a front surface side of the substrate in which the irradiating part is disposed; and an adhesive part (180) which is formed to surround each of the irradiating part and the light receiving part viewed in a two-dimensional manner on the substrate, which includes a light shielding adhesive, and which bonds the substrate and the front plate to each other. By this, the light-emitting sensor device is suitable for mass production, and it is possible to detect a predetermined type of information, such as a blood flow velocity, on a specimen, highly accurately.

Abstract: Disclosed herein is a biological information measurement apparatus for rendering laser light incident on an examinee and measuring a state of internal tissue of the examinee based on light scattered within the examinee.

Abstract: A light-emitting sensor device is provided with: a substrate (110); an irradiating part (120), disposed on the substrate, for applying light to a specimen; a light receiving part (150), disposed on the substrate, for detecting light from the specimen caused by the applied light; a light scattering part, disposed at least one of between the irradiating part and the specimen and between the specimen and the light receiving part, for scattering at least one of light emitted from the irradiating part and the light from the specimen. By this, it is possible to stably detect a predetermined type of information, such as a blood flow velocity, on the specimen.

Abstract: A light-emitting sensor device includes: a substrate (110); and disposed thereon an irradiating part (120) for applying light to a specimen; a light receiving part (160) for detecting light from the specimen caused by the applied light; and a cap, which has (i) a main body for accommodating at least one of the irradiating part and the light receiving part and (ii) a reflective light shielding film (252) which is one portion of a surface of the main body, which is formed on an inclined surface inclined to a surface of the substrate, which reflects the light emitted from the irradiating part to go to the specimen, and which blocks incidence of the light emitted from the irradiating part to the light receiving part. The light-emitting sensor device is suitable for mass production, and enables highly accurate detection of a predetermined type of information on a specimen.

Abstract: There is provided a biological information measuring apparatus, which permits to release constriction of capillary vessels a human body to provide stable measurement results of biological information and a proper S/N ratio. The biological information measuring apparatus 1 includes a beam-emitting type sensor device 10 provided on a mounting unit 2 to optically measure biological information of a subject 4. The beam-emitting type sensor device 10 is placed in a position so as to be in a non-contact state relative to the subject 4 when measuring the biological information.

Abstract: A bio-information measuring apparatus is provided, which suppresses pressure on a capillary vessel of body, stabilizes a measuring result of bio-information, and obtains a good S/N ratio. In an bio-information measuring apparatus 1 in which a self-emission-type sensor device 10 for optically measuring bio-information of specimen 4 is attached to an attaching member 2, the attaching member 2 is composed of elastic material, and the attaching member 2 is arranged to be brought into contact with the specimen 4 at the time of measuring the bio-information.

Abstract: An emission sensor device includes a base (110), a light applying section (120) disposed on the base and adapted for applying light beams having different wavelengths to a subject in such a way that the light beams at least overlap with one another, and a light receiving section (150) disposed on the base and adapted for detecting light from the subject attributed to the applied light beams for each wavelength. The device has a small size and can collect predetermined types of information on the subject such as bioinformation with high accuracy.

Abstract: An object is to provide a multi-wavelength integrated semiconductor laser device which can reduce variations in emission point distance, can be formed by simplified manufacturing processes, and can provide improve electric characteristics. A first semiconductor laser element 100 having an active layer AL1 for emitting a laser beam of a first wavelength from its light-emitting point X1 and a second semiconductor laser element 200 having an active layer AL2 for emitting a laser beam of a second wavelength from its light-emitting point X2 are bonded to each other via an adhesive layer MC made of metal. At least either one of the semiconductor laser elements has a ridge waveguide made of an n-type semiconductor. The semiconductor laser elements 100 and 200 are bonded via the metal adhesive layer MC at the sides of their respective p-type semiconductors. A submount SUB is bonded to the first semiconductor laser element 100 via metal at a side where its ridge waveguide is formed.

Abstract: A system including a view creation unit for creating a view for displaying schedule data on at least one of a weekly basis, a monthly basis, and a yearly basis and a view for displaying schedule data on a daily basis; and a display control unit for displaying, on a display unit, a weekly, monthly, or yearly first view created by the view creation unit, displaying, in a position corresponding to a predetermined date in the displayed first view, a daily second view corresponding to the date, and displaying schedule data with respect to the second view in a manner that a display position and displayed time periods are associated with each other.

Abstract: An RFID system according to the present invention includes an RFID antenna system including: a first antenna that can communicate with an external reader/writer; an antenna selector for connecting with the first antenna; and a plurality of second antennas that can connect with the first antenna in order via the antenna selector, each of the second antennas can communicate with an IC tag that is attached to an article placed in a region defined by the second antenna.

Abstract: This invention provides a semiconductor laser device and method of manufacture with a small interval between light emitting points of laser lights. A first light emitting element having a semiconductor substrate and a laser oscillation section, and a second light emitting element having a laser oscillation section, are brought together with a ridged waveguide of the laser oscillation section facing the ridged waveguide of the laser oscillation section, and then bonded together by virtue of SOGs having a small thickness. A conductive wiring layer electrically connected with an ohmic electrode layer on the ridged waveguide, and a wiring layer electrically connected with an ohmic electrode layer on the ridged waveguide, are arranged to extend until the insulating layer on the semiconductor substrate. Further, the ohmic electrodes and are formed on the bottom surface of the semiconductor substrate and the top surface of the laser oscillation section, respectively.

Abstract: An underlying layer ALY of GaN is formed on a sapphire substrate SSB; a transfer layer TLY of GaN with a bump and dip shaped surface is formed on the underlying layer ALY; a light absorption layer BLY is formed on the bump and dip shaped surface of the transfer layer TLY; and a grown layer 4 of a planarization layer CLY and a structured light-emitting layer DLY having at least an active layer are formed on the light absorption layer BLY. A support substrate 2 is provided on the grown layer 4. The backside of the sapphire substrate SSB is irradiated with light of the second harmonic of YAG laser (wavelength 532 nm) to decompose the light absorption layer BLY and delaminate the sapphire substrate SSB, thereby allowing the planarization layer CLY of a bump and dip shaped surface to be exposed as a light extraction face.