Abstract: A semi-hard magnetic steel component including C: 0.60% by mass or more and 1.50% by mass or less, Si: more than 0% by mass and 0.75% by mass or less, Mn: more than 0% by mass and 1.00% by mass or less, P: more than 0% by mass and 0.050% by mass or less, S: more than 0% by mass and 0.050% by mass or less, Cu: more than 0% by mass and 0.30% by mass or less, Ni: more than 0% by mass and 0.30% by mass or less, Mo: more than 0% by mass and less than 0.30% by mass, Cr: 0.85% by mass or more and 2.00% by mass or less, Al: more than 0% by mass and 0.100% by mass or less, and N: more than 0% by mass and 0.0100% by mass or less, the balance being iron and inevitable impurities, wherein 80% by area or more of a tempered martensite phase is included, a half width of an X-ray diffraction peak from a (211) plane is 3.1° or less, an area ratio of carbides is 4.00% or more, and a Vickers hardness is 470 or less.

Abstract: This interior magnet rotary electric machine (1) is provided with a rotor (2) that has a rotor core (11) having two sets of permanent magnets (12, 13) embedded therein, and with a stator (3) that is disposed facing the rotor (2). The two sets of permanent magnets (12, 13) each comprise a pair of magnets (12a, 12b, 13a, 13b) of like polarity disposed adjacently along the circumferential direction of the rotor 2. In the rotor core (11), magnet embedding holes (11b), which accommodate the magnets (12a, 12b, 13a, 13b) of like polarity, are formed for each of the magnets of like polarity. The thickness (a), in the rotor (2) circumferential direction, of the portions (18) of the rotor core (11) between like poles is less than the thickness (b) of the portions (19) of the rotor core (11) between unlike poles.

Abstract: This interior magnet rotary electric machine (1) is provided with: a rotor (2) that has a rotor core (11) having permanent magnets (12, 13) embedded therein; a stator (3) that is disposed facing the rotor (2); and a fiber-reinforced plastic tube (4) that is fitted over and fixed to the rotor core (11).

Abstract: An axial gap type dynamo-electric machine (1) comprises: a stator (2) provided with a magnetic core (21) and an exciting coil (22); a rotor (3) provided with a plurality of permanent magnets (4) circumferentially arranged around a rotation center axis (AX), the rotor (3) being also provided with a disk-shaped base material (31) for supporting the permanent magnets, the rotor (3) being disposed at an axial distance from the stator (2); and affixation members (5) for affixing the permanent magnets (4) to the base material (31). The permanent magnets (4) are provided with front surfaces facing the stator (2), rear surfaces facing the base material, and engagement-receiving sections (412, 422, 432) formed at peripheral edges of the permanent magnets (4). The affixation members (5) include: engagement sections (512) engaging the engagement-receiving sections; and affixation sections (511) forming mechanical affixation structures relative to the base material.

Abstract: An axial gap type dynamo-electric machine (1) comprises: a stator (2) provided with a magnetic core (21) and an exciting coil (22); a rotor (3) provided with a plurality of permanent magnets (4) circumferentially arranged around a rotation center axis (AX), the rotor (3) being also provided with a disk-shaped base material (31) for supporting the permanent magnets, the rotor (3) being disposed at an axial distance from the stator (2); and affixation members (5) for affixing the permanent magnets (4) to the base material (31). The permanent magnets (4) are provided with front surfaces facing the stator (2), rear surfaces facing the base material, and engagement-receiving sections (412, 422, 432) formed at peripheral edges of the permanent magnets (4). The affixation members (5) include: engagement sections (512) engaging the engagement-receiving sections; and affixation sections (511) forming mechanical affixation structures relative to the base material.

Abstract: This interior magnet rotary electric machine (1) is provided with a rotor (2) that has a rotor core (11) having two sets of permanent magnets (12, 13) embedded therein, and with a stator (3) that is disposed facing the rotor (2). The two sets of permanent magnets (12, 13) each comprise a pair of magnets (12a, 12b, 13a, 13b) of like polarity disposed adjacently along the circumferential direction of the rotor 2. In the rotor core (11), magnet embedding holes (11b), which accommodate the magnets (12a, 12b, 13a, 13b) of like polarity, are formed for each of the magnets of like polarity. The thickness (a), in the rotor (2) circumferential direction, of the portions (18) of the rotor core (11) between like poles is less than the thickness (b) of the portions (19) of the rotor core (11) between unlike poles.

Abstract: This interior magnet rotary electric machine (1) is provided with: a rotor (2) that has a rotor core (11) having permanent magnets (12, 13) embedded therein; a stator (3) that is disposed facing the rotor (2); and a fiber-reinforced plastic tube (4) that is fitted over and fixed to the rotor core (11).

Abstract: According to one embodiment, a measuring system using an optical waveguide is provided. The measuring system has an optical waveguide, magnetic fine particles, a magnetic field applying unit, a light source and a light receiving element. The optical waveguide has a sensing area to which first substances having a property of specifically bonding to subject substances to be measured are fixed. Second substances having a property of specifically bonding to the subject substances are fixed to the magnetic fine particle. The magnetic field applying unit generates a magnetic field for moving the magnetic fine particles. The light source inputs a light into the optical waveguide. The light receiving element receives the light output from the optical waveguide.

Abstract: The invention is characterized in: forming a magnetic field inside a flow channel tube, the tube wall of which is formed from a material that is nonmagnetic and which, when the pressure outside the flow channel tube is lower than the pressure inside the flow channel tube, passes a portion of the air flowing inside the tube through the tube wall and discharges same to the outside thereof; supplying air to the flow channel tube so that at least a region of laminar flow is formed inside the flow channel tube; and reducing the pressure outside the flow channel tube to a prescribed pressure.

Abstract: An optical-waveguide sensor chip includes an optical waveguide having a first substance immobilized on the surface thereof, the first substance being specifically reactive with an analyte substance, and fine particles dispersed on the optical waveguide and having a second substance immobilized on the surface thereof, the second substance being specifically reactive with the analyte substance.

Abstract: According to one embodiment, a measurement system which includes an optical waveguide, magnetic fine particles, a first magnetic field application unit, a second magnetic field application unit and a controller is provided. A first material specifically bonding with a target substance is immobilized on a surface of the optical waveguide. A second material specifically bonding with the target substance is immobilized on a surface of the magnetic fine particle. The first magnetic field application unit generates a magnetic field that moves the magnetic fine particles in a direction away from the optical waveguide. The second magnetic field application unit generates a magnetic field that moves the magnetic fine particles in a direction of approaching the optical waveguide. The controller controls the first magnetic field application unit to apply the magnetic field intermittently in a state where the second magnetic field application unit applies the magnetic field.

Abstract: A rotor (1) for an induction torque motor according to the present invention comprises an axial body (1a) and a cylindrical body (1b) which is coupled to the axial body (1a) coaxially with the core of the axial body (1a) and is formed with a soft magnetic material wherein the specific electric resistivity is 0.4 [[mu]ohmsm] or less and the specific magnetic permeability is 1000 to 50000. An induction torque motor (TM) according to the present invention comprises the rotor (1) for an induction torque motor. Therefore, the rotor (1) for an induction torque motor and the induction torque motor (TM) according to the present invention can further improve performance.

Abstract: An optical-waveguide sensor chip includes an optical waveguide having a first substance immobilized on the surface thereof, the first substance being specifically reactive with an analyte substance, and fine particles dispersed on the optical waveguide and having a second substance immobilized on the surface thereof, the second substance being specifically reactive with the analyte substance.

Abstract: An optical-waveguide sensor chip includes an optical waveguide having a first substance immobilized on the surface thereof, the first substance being specifically reactive with an analyte substance, and fine particles dispersed on the optical waveguide and having a second substance immobilized on the surface thereof, the second substance being specifically reactive with the analyte substance.

Abstract: The invention is characterized in: forming a magnetic field inside a flow channel tube, the tube wall of which is formed from a material that is nonmagnetic and which, when the pressure outside the flow channel tube is lower than the pressure inside the flow channel tube, passes a portion of the air flowing inside the tube through the tube wall and discharges same to the outside thereof; supplying air to the flow channel tube so that at least a region of laminar flow is formed inside the flow channel tube; and reducing the pressure outside the flow channel tube to a prescribed pressure.

Abstract: According to one embodiment, a test element includes a base, a pair of optical element units, an optical waveguide unit, a detection unit and a holding unit. The base has transparency. The pair of optical element units are arranged away from each other on a major surface of the base. The optical waveguide unit is provided on the major surface of the base. The detection unit is provided on a major surface of the optical waveguide unit of between the optical element units. The major surface of the optical waveguide unit is an opposite side which touches the base. The holding unit is in a frame shape, and one end of the holding unit being is provided to protrude from a major surface of the detection unit. The detection unit includes a color former and a film-formed body holding the color former.

Abstract: According one embodiment, an optical waveguide measurement system includes a first optical waveguide immobilizing a first substance, the first substance being able to be specifically bound to glycated hemoglobin; a plurality of first magnetic microparticles immobilizing a second substance immobilized, the second substance being able to be specifically bound to the glycated hemoglobin at a first site different from a second site, and the first substance can be specifically bound to the glycated hemoglobin at the second site; a first magnetic field applying section provided above the first optical waveguide and being able to move at least one of the plurality of first magnetic microparticles by magnetic force; a first light source being able to inject light into the first optical waveguide; and a first light receiving element being able to receive light ejected from the first optical waveguide.

Abstract: According to one embodiment, a measuring system using an optical waveguide is provided. The measuring system has an optical waveguide, magnetic fine particles, a magnetic field applying unit, a light source and a light receiving element. The optical waveguide has a sensing area to which first substances having a property of specifically bonding to subject substances to be measured are fixed. Second substances having a property of specifically bonding to the subject substances are fixed to the magnetic fine particle. The magnetic field applying unit generates a magnetic field for moving the magnetic fine particles. The light source inputs a light into the optical waveguide. The light receiving element receives the light output from the optical waveguide.

Abstract: An optical-waveguide sensor chip includes an optical waveguide having a first substance immobilized on the surface thereof, the first substance being specifically reactive with an analyte substance, and fine particles dispersed on the optical waveguide and having a second substance immobilized on the surface thereof, the second substance being specifically reactive with the analyte substance.

Abstract: According to one embodiment, a test element includes a base, a pair of optical element units, an optical waveguide unit, a detection unit and a holding unit. The base has transparency. The pair of optical element units are arranged away from each other on a major surface of the base. The optical waveguide unit is provided on the major surface of the base. The detection unit is provided on a major surface of the optical waveguide unit of between the optical element units. The major surface of the optical waveguide unit is an opposite side which touches the base. The holding unit is in a frame shape, and one end of the holding unit being is provided to protrude from a major surface of the detection unit. The detection unit includes a color former and a film-formed body holding the color former.