Abstract: A power converter includes a capacitor and a substrate on which a plurality of switching elements for power conversion are mounted. The power converter includes a cooler for cooling the plurality of switching elements and a housing that accommodates the capacitor, the substrate, and the cooler. The power converter includes a power connector exposed from the housing and an output connector exposed from the housing. The power converter includes a plurality of lines that include a plurality of power lines each electrically connected to the capacitor, given switching elements, and the power connector. The plurality of lines include a plurality of output lines each electrically connected to given switching elements and the output connector. At least one among the plurality of lines is a line that includes a conductive pattern formed on the substrate.

Abstract: A power converter includes a positive busbar electrically connected to a positive terminal and the first capacitor electrode, and includes a negative busbar electrically connected to a negative terminal and the second capacitor electrode. The power converter includes output busbars each electrically connected to a given output terminal among multiple output terminals, a given high-side switching element among a plurality of high-side switching elements, and a given low-side switching element among a plurality of low-side switching elements. The power converter includes a cooler that cools the high-side switching elements and the low-side switching elements. The power converter includes a housing that accommodates a supply tube and a discharge tube. The positive terminal, the negative terminal, the output terminals, the inlet port, and the outlet port are exposed on the housing. The inlet port, the outlet port, the supply tube, and the discharge tube are separate members from the housing.

Abstract: An image reading device includes a reading unit that reads an image on a surface of a medium; and a calibrating unit that is disposed to face the reading unit with the medium disposed therebetween and that calibrates the reading unit. The calibrating unit is supported such that the calibrating unit is movable about a rotating shaft between a closing position at which the calibrating unit faces the reading unit and an opening position at which the calibrating unit is separated from the reading unit. The calibrating unit is positioned with respect to the reading unit when the calibrating unit is moved to the closing position.

Abstract: The present technique relates to a signal processing device and a learning device capable of improving playback quality. The signal processing device generates a packet by packetizing encoded data encoded in monaural and separated for channels; transmits, by wireless communication, the packet generated; and controls a number of retransmissions of the packet and a bitrate in accordance with a fluctuation value of a first parameter for estimating a radio wave state, the first parameter being obtained from a receiving device. The present technique can be applied in an audio playback system that plays back audio data.

Abstract: A biological data measurement device has patches. A patch to be mounted on the human body basically includes first and second heat insulators, first and second temperature measurement circuits, and a belt-shaped wiring film (bus wire). Therefore, the configuration is simple. For example, a thickness can be approximately several mm, and a weight can be approximately several grams. The patch is easily mounted on the human body, and is inexpensive. The patch is equipped with a selection circuit, and selectively outputs a temperature signal of a first thermometer and a temperature signal of a second thermometer at a predetermined timing. Accordingly, even in a case where the patches are mounted on a plurality of locations of the human body, the number of wires is settled by the number required for one patch. The number of wires can be significantly reduced, compared to the number of wires in the related art.

Abstract: The present technology relates to a signal processing apparatus, an encoding method, and a signal processing system that allow reproduction quality to be improved. A signal processing apparatus receives packets that are separated for respective channels and each additionally include identification information, stores the packets in a buffer in reference to the identification information, and decodes those of the packets which are directed to the signal processing apparatus. The present technology can be applied to an audio reproduction system that reproduces audio data for two channels.

Abstract: A biological data measurement device in which a living organism having a first thermal resistance Rth1 from a core to a surface is a measuring object, includes a heat insulating layer which is disposed on a body surface of the measuring object and has a second thermal resistance Rth2; a measurement device for measuring a first and a second temperatures, which is segregated by the heat insulating layer; and an adding device for adding a predetermined delay time to the second temperature in order to correct a response delay of the first temperature as compared with the second temperature. The first temperature is a bottom side temperature of a bottom surface of the heat insulating layer, which is in contact with the body surface, and the second temperature is a top side temperature of a top surface of the heat insulating layer.

Abstract: A secondary battery built in a bio-signal measuring instrument (a wearable biosensor) is charged without using a dedicated charging terminal. A bio-signal measuring device includes: a battery as an internal power source and a charging circuit for the battery; electrodes which are brought into contact with the skin surface of the human body at the time of bio-signal measurement and are connected to a predetermined power feeder at the time of charging of the battery; a bio-signal processing circuit which processes bio-signals detected at the electrodes in a predetermined manner; and a bio-signal and feed power distribution device, in which the bio-signal processing circuit and the charging circuit are switchably connected to the electrodes through the bio-signal and feed power distribution device, and at the time of the charging of the battery, the electrodes are used as charging terminals.

Abstract: A decoding apparatus according to an embodiment of the present technology includes: a reception unit; a first storage unit; a second storage unit; and a decoding unit. The reception unit receives a plurality of pieces of encoded data generated by encoding a plurality of pieces of frame data to be wirelessly transmitted, identification information being assigned to each of the plurality of pieces of frame data. The first storage unit stores each of the received plurality of pieces of encoded data in a predetermined storage area. The second storage unit stores, on a basis of the identification information corresponding to each of the plurality of pieces of encoded data, an address of the storage area of the first storage unit in which each of the plurality of pieces of encoded data is stored. The decoding unit reads the encoded data from the first storage unit on a basis of the address stored in the second storage unit on a basis of the identification information, and decodes the read encoded data.

Abstract: A biological data measurement device includes a substrate disposed at a position spaced a predetermined distance from a body surface of a living organism as a measuring object via a support member so that an air layer is formed between the substrate and the body surface. The substrate is provided with a temperature measurement device including an infrared thermometer for measuring a body surface temperature Tsk of the body surface and a substrate thermometer for measuring a substrate temperature Tsub of the substrate. The temperature measurement device measures the body surface temperature Tsk and the substrate temperature Tsub in the same place at least twice of a first timing A and a second timing B.

Abstract: An embodiment of the present invention relates to amino acid-containing granules containing an amino acid as a main component, the amino acid-containing granules having an average particle diameter of 150 ?m to 500 ?m and a homogeneity U of 0.70 or less, in which the average particle diameter and the homogeneity U are determined by the following measurement method.

Abstract: A biological data measurement device according to the present invention includes a substrate disposed at a position spaced a predetermined distance from a body surface BS of a living organism as a measuring object via a support member so that an air layer is formed between the substrate and the body surface, in which the substrate is provided with a thermometer including an infrared thermometer for measuring a body surface temperature and a substrate thermometer for measuring a substrate temperature, thereby measuring a deep body temperature with higher accuracy.

Abstract: A biological data measurement device in which a living organism having a first thermal resistance Rth1 from a core to a surface is a measuring object, includes a heat insulating layer which is disposed on a body surface of the measuring object and has a second thermal resistance Rth2; a measurement device for measuring a first and a second temperatures, which is segregated by the heat insulating layer; and an adding device for adding a predetermined delay time to the second temperature in order to correct a response delay of the first temperature as compared with the second temperature. The first temperature is a bottom side temperature of a bottom surface of the heat insulating layer, which is in contact with the body surface, and the second temperature is a top side temperature of a top surface of the heat insulating layer.

Abstract: A biological data measurement device includes a substrate disposed at a position spaced a predetermined distance from a body surface of a living organism as a measuring object via a support member so that an air layer is formed between the substrate and the body surface. The substrate is provided with a temperature measurement device including an infrared thermometer for measuring a body surface temperature Tsk of the body surface and a substrate thermometer for measuring a substrate temperature Tsub of the substrate. The temperature measurement device measures the body surface temperature Tsk and the substrate temperature Tsub in the same place at least twice of a first timing A and a second timing B.

Abstract: A biological data measurement device has patches. A patch to be mounted on the human body basically includes first and second heat insulators, first and second temperature measurement circuits, and a belt-shaped wiring film (bus wire). Therefore, the configuration is simple. For example, a thickness can be approximately several mm, and a weight can be approximately several grams. The patch is easily mounted on the human body, and is inexpensive. The patch is equipped with a selection circuit, and selectively outputs a temperature signal of a first thermometer and a temperature signal of a second thermometer at a predetermined timing. Accordingly, even in a case where the patches are mounted on a plurality of locations of the human body, the number of wires is settled by the number required for one patch. The number of wires can be significantly reduced, compared to the number of wires in the related art.

Abstract: A secondary battery built in a bio-signal measuring instrument (a wearable biosensor) is charged without using a dedicated charging terminal. A bio-signal measuring device includes: a battery as an internal power source and a charging circuit for the battery; electrodes which are brought into contact with the skin surface of the human body at the time of bio-signal measurement and are connected to a predetermined power feeder at the time of charging of the battery; a bio-signal processing circuit which processes bio-signals detected at the electrodes in a predetermined manner; and a bio-signal and feed power distribution device, in which the bio-signal processing circuit and the charging circuit are switchably connected to the electrodes through the bio-signal and feed power distribution device, and at the time of the charging of the battery, the electrodes are used as charging terminals.

Abstract: A biological data measurement device according to the present invention includes a substrate disposed at a position spaced a predetermined distance from a body surface BS of a living organism as a measuring object via a support member so that an air layer is formed between the substrate and the body surface, in which the substrate is provided with a thermometer including an infrared thermometer for measuring a body surface temperature and a substrate thermometer for measuring a substrate temperature, thereby measuring a deep body temperature with higher accuracy.

Abstract: [Object] An object of the present invention is to provide a sliding seal member having the characteristics of silicon carbide, such as hardness and low wear, and further having preferable sealing property and lubricating property. [Solving Means] There is provided a sliding seal member having a sliding surface which is slidable with other sliding member so as to seal a fluid by the sliding surface, comprising carbon fibers which are oriented substantially parallel to the sliding surface in a longitudinal direction of the carbon fibers and silicon carbide existing between the carbon fibers.

Abstract: The present invention provides a heterocyclic compound of the following general formula (I): wherein X and Y are different from each other and represent a halogen atom selected from among a chlorine atom, bromine atom and iodine atom, or CF3SO3?, CH3SO3?, C6H5SO3? or CH3C6H4SO3?; R1 represents an optionally substituted monovalent aliphatic hydrocarbon group having two or more carbon atoms; one of A1 and A2 represents —S—, —O—, —Se— or Te—, while the other represents —N?, —P? or —Si(R2)?, wherein R2 represents a hydrogen atom, an optionally substituted monovalent hydrocarbon group, a halogen atom, an amino group or a carbonyl group; and one of two linkages each represented by a solid line and a dashed line is a single bond, while the other is a double bond.

Abstract: A near-field wireless communication circuit 10 included in a terminal 1A can perform switching between a normal mode and a near mode which has a relatively short communicable distance and a relatively high transmission rate as compared with those in the normal mode. Further, a controller 13 executes preliminary processing for starting data transmission and reception in the near mode to/from a terminal 1B serving as a communication destination between the terminals 1A and 1B by using the near-field wireless communication circuit 10 which is set to the normal mode. Further, the controller 13 determines the availability of the data transmission and reception in the near mode to/from the terminal 1B by using a measured value of communication quality which has a correlation with a communication distance to the terminal 1B as a measure of the determination.