Abstract: An object of the present invention is to provide a protein having dipeptide synthesizing activity with improved substrate specificity, and a method in which the protein or a microorganism having ability to produce the protein is used to efficiently produce a target dipeptide while reducing a by-product dipeptide produced in addition to the target dipeptide. According to the present invention, a protein consisting of an amino acid sequence obtained by substituting, with other amino acid residues, amino acid residues corresponding to one or more amino acid residues selected from the group consisting of amino acid residues at positions 107, 108, and 110 in an amino acid sequence set forth in SEQ ID NO: 2, or a mutant protein or a homologous protein of a protein consisting of the amino acid sequence set forth in SEQ ID NO: 2 is provided, and a microorganism producing the protein can be used to efficiently produce a dipeptide.

Abstract: A method for manufacturing a novel display apparatus is provided. The method includes a first step of forming a first electrode, a second electrode, and a first gap over an insulating film, a second step of forming a first film over the second electrode; a third step of forming a first layer overlapping with the first electrode, a fourth step of removing the first film by an etching method to form a first unit overlapping with the first electrode, a fifth step of removing a surface of the second electrode, a sixth step of forming a second film over the first layer and the second electrode, a seventh step of forming a second layer overlapping with the second electrode, and an eighth step of removing the second film by an etching method using the second layer to form a second unit overlapping with the second electrode and a second gap.

Abstract: Manufacturing equipment for a light-emitting device with which steps from formation to sealing of a light-emitting element can be successively performed is provided. With the manufacturing equipment for a light-emitting device, a deposition step, a lithography step, and an etching step for forming an organic EL element and a sealing step by formation of a protective layer can be successively performed. Accordingly, a downscaled organic EL element with high luminance and high reliability can be formed. Moreover, the manufacturing equipment can have an in-line system where apparatuses are arranged in the order of process steps for the light-emitting device, resulting in high throughput manufacturing.

Abstract: An organic light-emitting device containing both a compound represented by the following general formula (1) and a compound represented by the following general formula (2) has a high light emission efficiency. The rings a to c each are a benzene ring that can be optionally condensed, R1 and R2 each represent a substituted or unsubstituted aryl group, etc., four of R31 to R35 each are a substituted or unsubstituted carbazol-9-yl group, but all of these four are not the same, and the remaining one is a hydrogen atom, a cyano group, etc.

Abstract: An ultrasonic probe includes a transducer; a pulser; an amplifier; a wireless transmitter; temperature detectors at two or more locations from among a location of the pulser, a location of the amplifier, and a location of the wireless transmitter; and a processor comparing temperatures detected by the temperature detectors with first temperature thresholds set for the temperature detectors, and, when one or more temperature detectors detect temperatures that exceed corresponding first temperature thresholds, selecting any one of low power consumption operating modes based on which temperature detectors are the one or more temperature detectors detecting the temperatures that exceed corresponding first temperature thresholds, and switching an operating mode of each of one or more from among the pulser, the amplifier, and the wireless transmitter from a normal operating mode to the selected low power consumption operating mode.

Abstract: An ultrasonic device includes: oscillation elements to generate ultrasonic waves toward a subject, and generate voltages according to ultrasonic waves reflected by the subject; a switch to select voltages generated by a predetermined number of oscillation elements, from among the generated voltages; and semiconductor devices. Each semiconductor device includes: a first terminal to receive a second predetermined number of voltages different from voltages received by other semiconductor devices, among the selected voltages; a first adder to add data based on the second predetermined number of voltages; a second terminal to receive an addition result of data by the first adder of each of the other semiconductor devices; a second adder to add the addition results of the data received by the first adder and the data received by the second terminal; and an image generator to generate image data based on the addition result of the second adder.

Abstract: An ultrasonic device includes: a plurality of oscillation elements to generate ultrasonic waves toward a subject, and generate voltages according to ultrasonic waves reflected by the subject; a data generator to generate a predetermined number of sets of time-series data, each of the sets indicating change in time in a plurality of voltages generated by a predetermined number of oscillation elements, among the voltages generated by the plurality of oscillation elements; a data accumulator to accumulate the sets of time-series data generated by the data generator; a selector to select time-series data from among those generated by the data generator or those accumulated in the data accumulator; a data processor to generate image data by processing a predetermined number of sets of the selected time-series data; and a controller to cause the data generator to stop generating time-series data while the selector selects the accumulated time-series data.

Abstract: An ultrasonic diagnostic device includes a probe configured to transmit an ultrasonic wave to a subject and to receive the ultrasonic wave reflected by the subject; an image processor configured to convert ultrasonic image data based on the ultrasonic wave received by the probe, into digital data; a main body configured to output the digital data output from the image processor; and a connector configured to electrically connect and disconnect the image processor with respect to the main body.

Abstract: An ultrasonic diagnostic apparatus includes a probe configured to transmit ultrasonic waves to a living body and receive ultrasonic waves reflected by the living body; and a processor configured to, in a moving image mode, cause ultrasonic image data based on ultrasonic waves received by a first subset of the total number of oscillators that the probe has to be output, and, in a static image mode, cause ultrasonic image data based on ultrasonic waves received by a second subset of the total number of oscillators that the probe has to be output, wherein the number of oscillators used in the second subset is greater than the number of oscillators used in the first subset.

Abstract: An ultrasonic probe includes a probe configured to receive an ultrasonic wave, a plurality of wireless communication devices, and processing circuitry configured to assign identification information to ultrasonic image data generated based on the ultrasonic wave, for identifying the ultrasonic image data; and cause each of the plurality of wireless communication devices to transmit in parallel the ultrasonic image data having the identification information assigned, to a terminal device.

Abstract: An ultrasonic probe includes a wireless transmitter-receiver configured to perform communication through a wireless network having a plurality of channels and obtain identification information of apparatuses connected to the wireless network from the apparatuses; a memory configured to store identification information for identifying other ultrasonic probes from among the apparatuses; and a processor configured to count other ultrasonic probes connected with the wireless network on a per channel basis with respect to the plurality of channels based on the identification information obtained by the wireless transmitter-receiver and the identification information stored in the memory, and determine to connect to a channel at which the number of the other ultrasonic probes counted by the processor is smallest.

Abstract: An ultrasonic probe includes a transducer; a pulser; an amplifier; a wireless transmitter; temperature detectors at two or more locations from among a location of the pulser, a location of the amplifier, and a location of the wireless transmitter; and a processor comparing temperatures detected by the temperature detectors with first temperature thresholds set for the temperature detectors, and, when one or more temperature detectors detect temperatures that exceed corresponding first temperature thresholds, selecting any one of low power consumption operating modes based on which temperature detectors are the one or more temperature detectors detecting the temperatures that exceed corresponding first temperature thresholds, and switching an operating mode of each of one or more from among the pulser, the amplifier, and the wireless transmitter from a normal operating mode to the selected low power consumption operating mode.

Abstract: A processor of a general-purpose terminal acquires position information indicating whether a biological body is punctured from a first side of an ultrasonic probe apparatus or a second side opposite to the first side and angle information indicating a puncture angle, where these items of information are entered on a touch panel of a display, transmits these items of information to the probe apparatus via a wireless communication circuit, acquires, via the communication circuit, image information generated and transmitted by the probe apparatus based on reflected waves obtained by transmitting ultrasonic waves into the biological body from the probe apparatus at a first angle based on the above information, superimposes a puncture guide indicating a puncture path based on the above information on an ultrasonic image of the biological body or a puncture needle based on the image information, and displays a result of the superimposing on the display.

Abstract: An ultrasonic imaging apparatus includes a plurality of transducers aligned in a line, a select circuit configured to cause transducers selected from the plurality of transducers to transmit an ultrasonic pulse and receive a plurality of received signals, respectively, and a digital signal processing circuit configured to align in time and add up the plurality of received signals weighted by a plurality of respective weighting factors, wherein the digital signal processing circuit changes the plurality of weighting factors according to a time position on the plurality of received signals such that ratios between the plurality of weighting factors change.

Abstract: An ultrasonic diagnostic apparatus includes a probe configured to transmit ultrasonic waves to a living body and receive ultrasonic waves reflected by the living body; and a processor configured to, in a moving image mode, cause ultrasonic image data based on ultrasonic waves received by a first subset of the total number of oscillators that the probe has to be output, and, in a static image mode, cause ultrasonic image data based on ultrasonic waves received by a second subset of the total number of oscillators that the probe has to be output, wherein the number of oscillators used in the second subset is greater than the number of oscillators used in the first subset.

Abstract: An ultrasonic diagnostic device includes a probe configured to transmit an ultrasonic wave to a subject and to receive the ultrasonic wave reflected by the subject; an image processor configured to convert ultrasonic image data based on the ultrasonic wave received by the probe, into digital data; a main body configured to output the digital data output from the image processor; and a connector configured to electrically connect and disconnect the image processor with respect to the main body.

Abstract: An ultrasonic imaging apparatus includes a plurality of transducers aligned in an array, a select circuit configured to cause transducers selected from the plurality of transducers to transmit an ultrasonic pulse and receive received signals, respectively, and a digital signal processing circuit configured to perform a first operation of adding up an odd number of the received signals, arranged in an order corresponding to the aligned array, with delays that are symmetrical between two sides across a center that is a centrally located signal, and to perform a second operation of adding up an even number of the received signals, arranged in an order corresponding to the aligned array, with delays that are symmetrical between two sides across a center that is situated between two centrally located signals.

Abstract: An ultrasound diagnostic system includes: an ultrasonic probe having a plurality of transducers and configured to obtain a plurality of pieces of ultrasound image data of a subject, the transducers being arranged in a first direction and configured to transmit ultrasonic waves toward the subject and receive ultrasonic waves reflected from the subject; a moving mechanism configured to move the ultrasonic probe in the first direction and in a second direction; and a controller including a processor configured to perform a process including, causing the moving mechanism to move the ultrasonic probe based on a position of a blood vessel in an ultrasound image, and generating blood vessel map data indicating information related to the blood vessel by referring to an image data storage in which the plurality of pieces of ultrasound image data are stored in association with respective amounts of movement in the first and second direction.

Abstract: A processor of a general-purpose terminal acquires position information indicating whether a biological body is punctured from a first side of an ultrasonic probe apparatus or a second side opposite to the first side and angle information indicating a puncture angle, where these items of information are entered on a touch panel of a display, transmits these items of information to the probe apparatus via a wireless communication circuit, acquires, via the communication circuit, image information generated and transmitted by the probe apparatus based on reflected waves obtained by transmitting ultrasonic waves into the biological body from the probe apparatus at a first angle based on the above information, superimposes a puncture guide indicating a puncture path based on the above information on an ultrasonic image of the biological body or a puncture needle based on the image information, and displays a result of the superimposing on the display.

Abstract: An ultrasonic image generation system has a probe having an ultrasonic transducer configured to transmit and receive an ultrasonic signal, a processor configured to generate an ultrasonic image signal by processing a received signal of the ultrasonic transducer as well as to generate a drive signal that is supplied to the ultrasonic transducer, and a probe-side wireless communicator; and a terminal having a terminal-side wireless communicator configured to wirelessly communicate with the probe-side wireless communicator, a display configured to display an ultrasonic image based on the ultrasonic image signal, and an operation panel configured to input general measurement information, wherein the probe has a controller configured to determine control information necessary for generation of the drive signal and processing of the received signal from the general measurement information transmitted from the terminal.