Abstract: A wireless module has a multilayer substrate, an element installation section formed in one region in a substrate plane of the multilayer substrate, and an antenna. The antenna includes a conductor unit formed in another region in the substrate plane of the multilayer substrate. The conductor unit has a first end and a second end that extend along an outer periphery of the other region and that are separated from each other in a direction of the extension, and is formed in a loop as seen from a direction perpendicular to a substrate surface of the multilayer substrate. A feed unit connected to the first end of the conductor unit receives input of an AC signal of a prescribed frequency. A short-circuit line has a first end connected to a ground and a second end connected to the conductor unit through the feed unit.

Abstract: A passive radio frequency identification (RFID) tag includes: a rectifier circuit that rectifies a signal obtained from an antenna and outputs the rectified signal as a DC voltage. A capacitor is connected to an output line of the rectifier circuit. A first regulator circuit generates a first regulator voltage by stabilizing the output DC voltage from the rectifier circuit. A control circuit starts operating when the first regulator voltage is applied, and the control circuit generates a control signal upon receipt of the modulation signal section of the wireless signal. A second regulator circuit generates a second regulator voltage by stabilizing the output DC voltage from the rectifier circuit in response to the control signal and outputs the second regulator voltage to the outside.

Abstract: A shield case for covering an electronic component includes a top panel portion made of a metal plate, a plurality of terminal leg portions formed to project in a direction intersecting with the top panel portion from a peripheral edge portion thereof, and a side plate portion formed to project in the direction intersecting with the top panel portion from a peripheral edge portion of the top panel portion other than the plurality of terminal leg portions. Each of the plurality of terminal leg portions includes a leg portion that stretches from the top panel portion, a joint portion that extends in a direction intersecting with the leg portion from a distal end of the leg portion, and a terminal portion with a ring-shaped cross-sectional surface that has a projecting support abutting on the leg portion from a distal end of the joint portion.

Abstract: A wireless module has a multilayer substrate, an element installation section formed in one region in a substrate plane of the multilayer substrate, and an antenna. The antenna includes a conductor unit formed in another region in the substrate plane of the multilayer substrate. The conductor unit has a first end and a second end that extend along an outer periphery of the other region and that are separated from each other in a direction of the extension, and is formed in a loop as seen from a direction perpendicular to a substrate surface of the multilayer substrate. A feed unit connected to the first end of the conductor unit receives input of an AC signal of a prescribed frequency. A short-circuit line has a first end connected to a ground and a second end connected to the conductor unit through the feed unit.

Abstract: A multilayer substrate includes a first dielectric layer, a first conductive layer, and a conductor portion. The first dielectric layer has a first region. The first conductive layer is laminated on the first dielectric layer, excluding the first region. The conductor portion has one or more auxiliary conductors disposed at a distance from the first conductive layer, and one or more connecting conductors that connect said one or more auxiliary conductors to the first conductive layer.

Abstract: A shield case for covering an electronic component includes a top panel portion made of a metal plate, a plurality of terminal leg portions formed to project in a direction intersecting with the top panel portion from a peripheral edge portion thereof, and a side plate portion formed to project in the direction intersecting with the top panel portion from a peripheral edge portion of the top panel portion other than the plurality of terminal leg portions. Each of the plurality of terminal leg portions includes a leg portion that stretches from the top panel portion, a joint portion that extends in a direction intersecting with the leg portion from a distal end of the leg portion, and a terminal portion with a ring-shaped cross-sectional surface that has a projecting support abutting on the leg portion from a distal end of the joint portion.

Abstract: An antenna including: a first conductor portion including a power supply point at which one of a pair of differential signals is input; a second conductor portion including a power supply point at which another one of the pair of differential signals is input, the second conductor portion being separated by a gap from the first conductor portion; and a third conductor portion that connects the first conductor portion with the second conductor portion, wherein the gap includes a portion having a width that becomes progressively wider in a direction moving away from the third conductor portion.

Abstract: A passive radio frequency identification (RFID) tag includes: a rectifier circuit that rectifies a signal obtained from an antenna and outputs the rectified signal as a DC voltage. A capacitor is connected to an output line of the rectifier circuit. A first regulator circuit generates a first regulator voltage by stabilizing the output DC voltage from the rectifier circuit. A control circuit starts operating when the first regulator voltage is applied, and the control circuit generates a control signal upon receipt of the modulation signal section of the wireless signal. A second regulator circuit generates a second regulator voltage by stabilizing the output DC voltage from the rectifier circuit in response to the control signal and outputs the second regulator voltage to the outside.

Abstract: A passive radio frequency identification (RFID) tag includes: a rectifier circuit that rectifies a signal obtained from an antenna and outputs the rectified signal as a DC voltage. A capacitor is connected to an output line of the rectifier circuit. A first regulator circuit generates a first regulator voltage by stabilizing the output DC voltage from the rectifier circuit. A control circuit starts operating when the first regulator voltage is applied, and the control circuit generates a control signal upon receipt of the modulation signal section of the wireless signal. A second regulator circuit generates a second regulator voltage by stabilizing the output DC voltage from the rectifier circuit in response to the control signal and outputs the second regulator voltage to the outside.

Abstract: A passive radio frequency identification (RFID) tag includes: a rectifier circuit that rectifies a signal obtained from an antenna and outputs the rectified signal as a DC voltage. A capacitor is connected to an output line of the rectifier circuit. A first regulator circuit generates a first regulator voltage by stabilizing the output DC voltage from the rectifier circuit. A control circuit starts operating when the first regulator voltage is applied, and the control circuit generates a control signal upon receipt of the modulation signal section of the wireless signal. A second regulator circuit generates a second regulator voltage by stabilizing the output DC voltage from the rectifier circuit in response to the control signal and outputs the second regulator voltage to the outside.

Abstract: An antenna including: a first conductor portion including a power supply point at which one of a pair of differential signals is input; a second conductor portion including a power supply point at which another one of the pair of differential signals is input, the second conductor portion being separated by a gap from the first conductor portion; and a third conductor portion that connects the first conductor portion with the second conductor portion, wherein the gap includes a portion having a width that becomes progressively wider in a direction moving away from the third conductor portion.

Abstract: Provided is a pharmaceutical composition and a method for the treatment and/or prophylaxis of arthritis, inter alia, rheumatoid arthritis. The pharmaceutical composition comprises human mesenchymal stem cells, and the method comprises administering an effective amount human mesenchymal stem cells to a patient.

Abstract: A novel type of therapeutic agent, human mesenchymal stem cells, and a composition containing the same for the treatment of atopic dermatitis is disclosed. A method for the treatment of atopic dermatitis in patient is also disclosed.

Abstract: The present invention provides an analog signal generator capable of simultaneously improving both items of the influence of noise on a peripheral circuit and the settling time for a desired voltage level. A D/A converter to which the analog signal generator is applied, is configured as follows. A controller supplies a fixed value to data generation units, which respectively generate data according to clock signals and output the same to a buffer unit. The buffer unit temporarily holds the data therein. Control signals generated from the controller are supplied to a selection unit or selector, which decodes the control signals and thereby generates selection signals to turn ON/OFF the output of the data held in the buffer unit in response to the selection signals, after which the corresponding data is supplied to a filter unit, where an analog signal is generated based on the data supplied to the filter unit.

Abstract: The modem has an RF section developing an RSSI signal and a baseband signal converted from a received signal. A reference voltage output section feeds a reference voltage to a comparator. The comparator outputs, when the RSSI signal is higher in level than the reference voltage, a control signal to the RF section, an A/D converter and a demodulator of a receiver modem. The modem thus provides a data receiver capable of reducing power consumption in the entire system, while maintaining a reliable detection of received signals.

Abstract: A novel type of therapeutic agent, human mesenchymal stem cells, and a composition containing the same for the treatment of atopic dermatitis is disclosed. A method for the treatment of atopic dermatitis in patient is also disclosed.

Abstract: The present invention provides an analog signal generator capable of simultaneously improving both items of the influence of noise on a peripheral circuit and the settling time for a desired voltage level. A D/A converter to which the analog signal generator is applied, is configured as follows. A controller supplies a fixed value to data generation units, which respectively generate data according to clock signals and output the same to a buffer unit. The buffer unit temporarily holds the data therein. Control signals generated from the controller are supplied to a selection unit or selector, which decodes the control signals and thereby generates selection signals to turn ON/OFF the output of the data held in the buffer unit in response to the selection signals, after which the corresponding data is supplied to a filter unit, where an analog signal is generated based on the data supplied to the filter unit.

Abstract: An AGC circuit controls LNA and VGA amplifiers such that a received signal is converted at a high speed with tracking errors prevented according to each modulation scheme. The AGC circuit generates LNA and VGA control signals controlling the LNA and VGA amplifiers, respectively. A digital signal, converted from the received signal, is calculated for a power value, on which scaling is performed by a scaling section to then be provided through an adder and a register to a control signal generator for generating the LNA and VGA control signals. The scaling section compares the power value with a target value to perform scaling with a scaling coefficient according to the sign of the comparison value so that an increase of the tracking error is avoided, thus preventing phenomena where the AGC control oscillates without convergence, thereby making it possible to attain the optimum automatic gain control.