Abstract: An ultrasound diagnostic apparatus includes a transmitter which transmits, to an ultrasound probe including a plurality of transducers which are arranged in a plurality of regions in a short axis direction and arranged in a long axis direction in each of the regions and can transmit and receive ultrasound independently in the plurality of regions in the short axis direction, a driving signal in each of the regions, a receiver which receives a receiving signal in each of the regions from the ultrasound probe, and a hardware processor which generates ultrasound image data from the received receiving signal in the region, extracts an image of a puncture needle inserted into a subject from the generated ultrasound image data in the region, and calculates a shift angle of the puncture needle to the ultrasound probe using boundary position information of the extracted image of the puncture needle in the region.

Abstract: A thermally conductive material according to the present invention is prepared by allowing silicon carbide having an average particle size of 10 ?m or more and less than 50 ?m, aluminum hydroxide having an average particle size of 1 ?m or more and less than 10 ?m, and magnesium hydroxide having an average particle size of 0.5 ?m or more and less than 1 ?m to be contained in a polymer obtained by polymerizing a monomer containing acrylic acid ester.

Abstract: A thermally conductive sheet including: an acrylic polymer; a high-soda alumina in an amount of 70 to 75% by volume; and a magnesium hydroxide having a particle size smaller than a particle size of the high-soda alumina in an amount of 2.7 to 5.3% by volume, the magnesium hydroxide is coated with a higher fatty acid. The thermally conductive sheet has a compressive force required in a deformation with a compressibility of 20% or less of 200 N or less, and has a thermal resistance of 0.45°C./W or less.

Abstract: An ultrasound probe includes the following. A plurality of transducers transmit and receive ultrasound arranged in a plurality of rows in a long axis direction, and the rows are aligned in a short axis direction. The ultrasound passes through an acoustic lens. A switching element switches on and off of input of a driving signal to each row of the transducers and output of a receiving signal. The acoustic lens has a shape which guides a plurality of ultrasound beams transmitted and received with each row of transducers to be excluded from one another up to a first predetermined depth.

Abstract: A magnetic resonance signal detection module includes an insulator block having a coil mounting section including a through hole serving as a detection hole into which a sample container is inserted. A low-frequency coil is provided on an inner surface of the through hole. A high-frequency primary resonator is embedded in the coil mounting section so as to surround the low-frequency coil.

Abstract: The heat conduction member comprises a laminate formed by laminating a resin layer and a metal layer. The resin layer is formed from a thermally conductive resin material. The thickness of the laminate is smaller at the peripheral edge of the laminate than in the center portion of the laminate, and the thickness of the laminate is greater in the intermediate portion of the laminate than in the center portion of the laminate. An inclined surface is formed on the laminate so as to form a falling gradient from the intermediate portion toward the peripheral edge.

Abstract: An inner container including a tube body is provided in an outer container. With this structure, the inside of the outer container is separated into a primary airtight chamber and a sub airtight chamber (upper airtight chamber and lower airtight chamber). A detection circuit is placed in the primary airtight chamber. The detection circuit is a tuning and matching circuit having a transmission and reception coil serving as an NMR detection element and a variable capacitor. An additional member including an additional element such as a capacitor is inserted into the upper airtight chamber, and the additional member is set on a top terminal mounting member and a bottom terminal mounting member. With this structure, the additional element is electrically connected to the detection circuit and a characteristic of the detection circuit is changed.

Abstract: A specially shaped coil assembly for accurate adjustment of the magic angle is provided to permit accurate adjustment of an angle made between the direction of a static magnetic field and the axis of sample spinning without impairing the resolution of NMR signals. The sample is placed within the external static magnetic field B0. The coil assembly is for use in a solid-state NMR apparatus that performs NMR detection while spinning the sample about an axis tilted at the magic angle relative to the external static magnetic field B0. The coil assembly comprises a pair of arcuate conductor lines and a pair of straight conductor lines. Each of the arcuate lines has a diameter of 2a. Each of the straight lines has a length of 2L. The diameter 2a and the length 2L are so selected as to satisfy the relationship: 1.91?2L/2a?2.15.

Abstract: A thermally conductive material is provided. The thermally conductive material includes: a polymer containing a thermally conductive filler and an antioxidant; the polymer being a polymer of a monomer containing an acrylic ester, a hindered phenol-based antioxidant being contained as the antioxidant, a thermal conductivity being 3.2 W/m·K or greater, and an initial Asker C hardness at ambient temperature being 22 or less.

Abstract: In its many embodiments, the present invention provides a novel class of benzamide compounds represented by Formula (I) or pharmaceutically acceptable salts or solvates thereof, or pharmaceutical compositions comprising one or more said compounds or pharmaceutically acceptable salts or solvates thereof, and methods for using said compounds or pharmaceutically acceptable salts or solvates thereof for treating or preventing a thromboses, embolisms, hypercoagulability or fibrotic changes.

Abstract: A thermal conductive electromagnetic wave absorbing sheet to be provided includes: a polymer including acrylate ester as a monomer; a metal magnetic oxide; and flame retardant filler subjected to surface treatment. The metal magnetic oxide includes a small-diameter metal magnetic oxide with an average particle diameter of 1 to 10 ?m and a large-diameter metal magnetic oxide with an average particle diameter of 50 to 100 ?m. A mixing ratio between the small-diameter metal magnetic oxide and the large-diameter metal magnetic oxide is in a range of 9:13 to 15:7 in volume ratio. The small-diameter metal magnetic oxide and the large-diameter metal magnetic oxide are contained by 55 to 60 vol % in total in the entire thermal conductive electromagnetic wave absorbing sheet. The flame retardant filler subjected to the surface treatment is contained by 8 to 10 vol % in the entire thermal conductive electromagnetic wave absorbing sheet.

Abstract: A thermally conductive material is provided. The thermally conductive material includes: a polymer containing a thermally conductive filler and an antioxidant; the polymer being a polymer of a monomer containing an acrylic ester, a hindered phenol-based antioxidant being contained as the antioxidant, a thermal conductivity being 3.2 W/m·K or greater, and an initial Asker C hardness at ambient temperature being 22 or less.

Abstract: In its many embodiments, the present invention provides a novel class of benzamide compounds represented by Formula (I) or pharmaceutically acceptable salts or solvates thereof, or pharmaceutical compositions comprising one or more said compounds or pharmaceutically acceptable salts or solvates thereof, and methods for using said compounds or pharmaceutically acceptable salts or solvates thereof for treating or preventing a thromboses, embolisms, hypercoagulability or fibrotic changes.

Abstract: The heat conduction member comprises a laminate formed by laminating a resin layer and a metal layer. The resin layer is formed from a thermally conductive resin material. The thickness of the laminate is smaller at the peripheral edge of the laminate than in the center portion of the laminate, and the thickness of the laminate is greater in the intermediate portion of the laminate than in the center portion of the laminate. An inclined surface is formed on the laminate so as to form a falling gradient from the intermediate portion toward the peripheral edge.

Abstract: In its many embodiments, the present invention provides a novel class of benzamide compounds represented by Formula (I) or pharmaceutically acceptable salts or solvates thereof, or pharmaceutical compositions comprising one or more said compounds or pharmaceutically acceptable salts or solvates thereof, and methods for using said compounds or pharmaceutically acceptable salts or solvates thereof for treating or preventing a thromboses, embolisms, hypercoagulability or fibrotic changes.

Abstract: In its many embodiments, the present invention provides a novel class of benzamide compounds represented by Formula (I) or pharmaceutically acceptable salts or solvates thereof, or pharmaceutical compositions comprising one or more said compounds or pharmaceutically acceptable salts or solvates thereof, and methods for using said compounds or pharmaceutically acceptable salts or solvates thereof for treating or preventing a thromboses, embolisms, hypercoagulability or fibrotic changes.

Abstract: A specially shaped coil assembly for accurate adjustment of the magic angle is provided to permit accurate adjustment of an angle made between the direction of a static magnetic field and the axis of sample spinning without impairing the resolution of NMR signals. The sample is placed within the external static magnetic field B0. The coil assembly is for use in a solid-state NMR apparatus that performs NMR detection while spinning the sample about an axis tilted at the magic angle relative to the external static magnetic field B0. The coil assembly comprises a pair of arcuate conductor lines and a pair of straight conductor lines. Each of the arcuate lines has a diameter of 2a. Each of the straight lines has a length of 2L. The diameter 2a and the length 2L are so selected as to satisfy the relationship: 1.91?2L/2a?2.15.

Abstract: An inner container including a tube body is provided in an outer container. With this structure, the inside of the outer container is separated into a primary airtight chamber and a sub airtight chamber (upper airtight chamber and lower airtight chamber). A detection circuit is placed in the primary airtight chamber. The detection circuit is a tuning and matching circuit having a transmission and reception coil serving as an NMR detection element and a variable capacitor. An additional member including an additional element such as a capacitor is inserted into the upper airtight chamber, and the additional member is set on a top terminal mounting member and a bottom terminal mounting member. With this structure, the additional element is electrically connected to the detection circuit and a characteristic of the detection circuit is changed.

Abstract: An NMR (nuclear magnetic resonance) detection module (such as an NMR probe) mounted in a vacuum vessel permits a transmit/receive coil to be cooled efficiently and to be placed closer to a sample container. The NMR detection module includes a core module (detection module) (54) consisting of a refrigerant block (118) and a transmit/receive coil formed on the inner surface of a detection hole (130). A sleeve (cylindrical partition wall) (122) forming a part of the vacuum vessel is inserted in the detection hole (130). A sample tube (56) is inserted in the sleeve (122). The refrigerant block (118) is connected to a heat exchanger via a support member (82). Since it is not necessary to form a bobbin inside the transmit/receive coil, the distance between the coil and the sample can be set small. The coil is entirely surrounded by the refrigerant block.

Abstract: An imaging apparatus includes a shooting rate setting unit configured to set a shooting rate, a shooting unit configured to shoot a moving image at the shooting rate set by the shooting rate setting unit, an acquisition unit configured to acquire a shooting duration time from a start of shooting, a calculation unit configured to calculate a playback time based on a playback rate in a case of playing back the moving image shot by the shooting unit, and a display control unit configured to display the shooting duration time acquired by the acquisition unit and the playback time calculated by the calculation unit together on a display unit while the shooting is conducted by the shooting unit.