Abstract: A belt and electrocardiographic measurement device, the belt including a belt body windable around an upper arm in a circumferential direction of the upper arm, and an electrode array including a plurality of electrodes fixed to an inner surface of the belt body and arranged side by side in a direction, which is a longitudinal direction of the belt body, the plurality of electrodes being more than N+2 in number, where N is a number of electrodes required for obtaining electrocardiographic information, the electrodes, counted from a first electrode located at a first end in the direction (X) by counting including the first electrode, to the (N+1)th electrode in the direction (X) being arranged at equal intervals that are predetermined intervals, and intervals between each of the (N+1)th and subsequent electrodes being greater than the predetermined interval.

Abstract: A biological information measurement device adapted to be attached on an upper arm of a human body and used thereon includes a belt portion adapted to be wound around the upper arm, electrocardiographic measurement means including a plurality of electrodes for detecting an electrocardiographic signal of the human body, pulse wave measurement means including a pulse wave sensor for detecting a pulse wave of the human body, heartbeat vibration measurement means including a vibration sensor for detecting vibration caused by beating of a heart of the human body, and an analysis processing unit configured to calculate a pre-ejection time and a pulse transit time of the heart based on time series data of the electrocardiographic signal, time series data of the pulse wave, and time series data of the vibration caused by the beating of the heart.

Abstract: A biological information measurement device includes a sensor unit that detects predetermined biological information related to an organ of a living body, an A/D conversion unit that converts a measurement signal output from the sensor unit into a digital signal, a storage unit that stores information including a digital signal related to the measurement signal output from the A/D conversion unit, an analysis processing unit that determines presence or absence of a suspicion of an abnormality in the organ by analyzing the digital signal, and a measurement control unit that changes a sampling frequency related to A/D conversion of the measurement signal under a predetermined condition when the analysis processing unit has determined that a suspicion of an abnormality is present in the organ.

Abstract: A semiconductor memory device includes a substrate including a first region and a second region arranged in a first direction, a first wiring extending in the first direction across the first region and the second region, a second wiring disposed in the first region and extending in a second direction that intersects with the first region, a first semiconductor layer disposed in the first region, electrically connected to the second wiring, and opposed to the first wiring, a memory unit electrically connected to the first semiconductor layer, and a contact electrode extending in a third direction intersecting with a surface of the substrate, and connected to the first wiring. The contact electrode includes a first part that overlaps with the first wiring viewing from the third direction, and a second part that does not overlap with the first wiring viewing from the third direction.

Abstract: A semiconductor memory device includes a substrate including a first region and a second region arranged in a first direction, and first electrodes arranged in a second direction. The first electrodes each include a pair of first parts disposed in the first region and arranged in a third direction, and a second part disposed in the second region and electrically connected to the first parts. The device includes first wirings arranged along one of the first parts, first semiconductor layers opposed to the one of the first parts and connected to the first wirings, first memory portions electrically connected to the first wirings via the first semiconductor layers, second wirings arranged along the other of the first parts, second semiconductor layers opposed to the other of the first parts and connected to the second wirings, and second memory portions electrically connected to the second wirings via the second semiconductor layers.

Abstract: To provide an improved ?-fructofuranosidase which is capable of efficiently producing kestose while inhibiting the production of nystose. This improved ?-fructofuranosidase comprises either: an amino acid sequence (a) obtained by introducing, into the amino acid sequence represented by SEQ ID NO: 2, an amino acid mutation i) in which the 85th glycine (G) from the N-terminal is substituted for a protein-constituting amino acid other than glycine (G), and/or an amino acid mutation ii) in which the 310th histidine (H) from the N-terminal is substituted for lysine (K), arginine (R), or tyrosine (Y); or an amino acid sequence (b) which exhibits ?-fructofuranosidase activity, and which comprises an amino acid sequence obtained by deleting, substituting, inserting, or adding one or more amino acids in (a) other than the amino acid into which the amino acid mutation has been introduced.

Abstract: To provide an improved ?-fructofuranosidase which is capable of efficiently producing kestose while inhibiting the production of nystose. This improved ?-fructofuranosidase comprises either: an amino acid sequence (a) obtained by introducing, into the amino acid sequence represented by SEQ ID NO: 2, an amino acid mutation i) in which the 85th glycine (G) from the N-terminal is substituted for a protein-constituting amino acid other than glycine (G), and/or an amino acid mutation ii) in which the 310th histidine (H) from the N-terminal is substituted for lysine (K), arginine (R), or tyrosine (Y); or an amino acid sequence (b) which exhibits ?-fructofuranosidase activity, and which comprises an amino acid sequence obtained by deleting, substituting, inserting, or adding one or more amino acids in (a) other than the amino acid into which the amino acid mutation has been introduced.

Abstract: [Problem] To provide a production method capable of simply and efficiently producing a fructose-added carbohydrate using ?-fructofuranosidase. [Solution] A method for producing a fructose-added carbohydrate, said method having a step in which a receptor substrate and a hydrate containing terminal fructose residue are brought into contact with: Escherichia coli expressing an anchor protein for expression on a cell surface and ?-fructofuranosidase as one polypeptide, a composition including dead cells of the expressing Escherichia coli, or a polypeptide obtained from the expressing Escherichia coli and including an amino acid sequence of ?-fructofuranosidase.

Abstract: [Problem] To provide a production method capable of simply and efficiently producing a fructose-added carbohydrate using ?-fructofuranosidase. [Solution] A method for producing a fructose-added carbohydrate, said method having a step in which a receptor substrate and a hydrate containing terminal fructose residue are brought into contact with: Escherichia coli expressing an anchor protein for expression on a cell surface and ?-fructofuranosidase as one polypeptide, a composition including dead cells of the expressing Escherichia coli, or a polypeptide obtained from the expressing Escherichia coli and including an amino acid sequence of ?-fructofuranosidase.

Abstract: To provide a technology capable of maintaining the consistency of a managed object even when an existing operation program is used for manipulation without modifying the existing operation program when the managed object itself on an execution base is expanded.

Abstract: To provide a technology capable of maintaining the consistency of a managed object even when an existing operation program is used for manipulation without modifying the existing operation program when the managed object itself on an execution base is expanded.

Abstract: In an information processing system that has a computer communicable with a terminal for sending a predetermined request and equipped with not less than two virtual computer for processing the request received from the terminal, and an operation management apparatus communicable with the virtual computers and for performing a reset processing instruction to the virtual computers: the computer control method of the present invention is for opening a memory area of the virtual computers, wherein the operation management apparatus includes a memory unit for managing the virtual computers within the computer, sequentially performs the reset processing one by one with respect to the virtual computers managed by the memory unit, and wherein when the virtual computers receive the reset processing instruction from the operation management apparatus, the virtual computers perform own reset processing.