Abstract: There is provided an optical waveguide device including: a substrate; an optical waveguide formed on the substrate; and a working electrode that controls a light wave propagating through the optical waveguide, in which the working electrode includes a first base layer made of a first material, a first conductive layer on the first base layer, a second base layer made of a second material different from the first material, which is on the first conductive layer, and a second conductive layer on the second base layer, and an edge of the second base layer is covered with the second conductive layer, in a cross-section perpendicular to an extending direction of the optical waveguide.

Abstract: An internal device (1) is implanted in a living body (300). A control section (6) causes a communication section (5) to wirelessly transmit data corresponding to electroencephalogram signals of the living body (300) which are detected through a group of N (N is 2 or more) electrodes, to an external device (200). When the communication section (5) receives a designation signal designating a group of M electrode(s) (2a), M being smaller than N, the communication section (5) is caused to transmit data corresponding to electroencephalogram signals of the living body (300) which are detected through the group of M electrode(s) (2a), to the external device (200) in real time.

Abstract: A mattress 100 includes a movable part 1 and a mattress body 2 including a first mattress part 21 disposed above the movable part 1, and a second mattress part 22 provided separately from the first mattress part 21 and disposed to surround the first mattress part in a plan view. The first mattress part 21 is configured to rotate upward about the predetermined rotation axis by the movable part 1.

Abstract: A dipole group quantification method includes quantitating a dipole group that are sources of signals based on positions of dipoles.

Abstract: A waveform generation identification method includes: comparing individual waveform data obtained by a plurality of sensors, with at least one piece of characteristic waveform information; determining appearance probability of characteristic waveform information in at least a certain section of the waveform data, based on a degree of correlation between a peak section of the waveform data and the characteristic waveform information; and identifying a time when a section matching with the characteristic waveform information appears and a concerned sensor, based on the appearance probability.

Abstract: A resistance device (100) includes a field-effect transistor (TN) and a voltage applying circuit (1). The voltage applying circuit (1) applies a control voltage (Vgs) between the gate and source of the field-effect transistor (TN) according to a temperature (T) to control a resistance value (R) between the drain and source of the field-effect transistor (TN). The control voltage (Vgs) is a voltage obtained by adding a correction voltage (Vc) to a reference voltage (Vgs0). The correction voltage (Vc) depends on the temperature (T) and is set to be zero at a first temperature (T1).

Abstract: An acoustic arrangement shelf is configured to be capable of facilitating adjustment of acoustic properties and be capable of enhancing aesthetic appeal of a space for which the acoustic properties are to be adjusted. The acoustic arrangement shelf includes: a shelf frame including a plurality of segments; and an acoustic adjustment member configured to be removably placed in at least one of the segments and change a property of input sound.

Abstract: A dipole group quantification method includes quantitating a dipole group that are sources of signals based on positions of dipoles.

Abstract: A waveform generation identification method includes: comparing individual waveform data obtained by a plurality of sensors, with at least one piece of characteristic waveform information; determining appearance probability of characteristic waveform information in at least a certain section of the waveform data, based on a degree of correlation between a peak section of the waveform data and the characteristic waveform information; and identifying a time when a section matching with the characteristic waveform information appears and a concerned sensor, based on the appearance probability.

Abstract: A slot machine 1 is provided with a memory 20 that stores data and a processor 30 that performs processing. The processor 30 includes an RS number determination unit 31 that determines a natural number in a predetermined range as the number of reel strips via a selection; an assigning unit 32 that extracts reel strips with the determined number from the stored reel strips to assign the extracted reel strips to each of the reel windows; a acceptance/refusal determination unit 33 that determines acceptance/refusal of winning combination via a selection in a slot game, using the extracted reel strips; and a display control unit 34 that variably displays the reel strips in response to the reel strips with the determined number, the assignment of the reel strips to the each of the reel windows, and the acceptance/refusal of the slot game combination.

Abstract: A mattress 100 includes a movable part 1 and a mattress body 2 including a first mattress part 21 disposed above the movable part 1, and a second mattress part 22 provided separately from the first mattress part 21 and disposed to surround the first mattress part in a plan view. The first mattress part 21 is configured to rotate upward about the predetermined rotation axis by the movable part 1.

Abstract: A weight of an excretion of an animal is easily measured. A pet toilet (1) includes a supporting table (12) onto which the animal is to step, an excretion tray (13) configured to receive urine of the animal which urine falls from the supporting table (12), a first weight scale (1) configured to measure a weight of the excretion tray (13) including a weight of the urine, and a carrier member (16) configured to carry the excretion tray (13). The excretion tray (13) and the carrier member (16) are provided to be attachable together by insertion between the first weight scale (21) and the supporting table (12). A weight of the carrier member (16) is supported by the main container (10) and the first weight scale (21) supports the excretion tray (13), in a state where the excretion tray (13) is attached by insertion.

Abstract: To allow an implantable device including an electronic circuit to be implanted in the head in a more preferable manner in terms of appearance and safely. This implantable device is used for a brain-machine interface or the like. A casing of an implantable device configured to be implanted in a human head has an outer convexity surface matching an external shape of a resected skull related to at least a craniotomy site of the artificial bone designed in accordance with a skull shape of each person in order to fill the craniotomy site. That is, the outer convexity surface of the artificial bone is provided with two functions: the original function of filling the craniotomy site as the artificial bone and a function of serving as the casing of the implantable device.

Abstract: An internal device of a brain-machine interface system includes: an electrode group including N electrodes, N being 2 or more; an amplification element group including N amplification elements; a communicator communicating with an external device; and a controller selectively executing one of: a normal operation mode in which electroencephalogram signals acquired through the N electrodes are supplied to the amplification element group in a manner that each of the N electrodes corresponds to a respective one of the N amplification elements, and N amplified electroencephalogram signals are transmitted; and a noise-reduction operation mode in which an electroencephalogram signal acquired through an M electrode of the electrode group is supplied to the amplification element group in a manner that each M electrode corresponds to respective plural ones of the amplification elements, and an M amplified electroencephalogram signal is transmitted, M being smaller than N.

Abstract: An internal device (1) is implanted in a living body (300). A control section (6) causes a communication section (5) to wirelessly transmit data corresponding to electroencephalogram signals of the living body (300) which are detected through a group of N (N is 2 or more) electrodes, to an external device (200). When the communication section (5) receives a designation signal designating a group of M electrode(s) (2a), M being smaller than N, the communication section (5) is caused to transmit data corresponding to electroencephalogram signals of the living body (300) which are detected through the group of M electrode(s) (2a), to the external device (200) in real time.

Abstract: A tube pump and a fluid delivery method, the tube pump including a plurality of pressing portions and a tube that delivers fluid. The pressing portions is spaced apart from each other in a rotational direction and provided for a rotation body turned by a drive unit and the tube is provided on an outer circumferential side of the rotation body. The tube pump includes a control unit that turns the rotation body opposite to a delivery direction until the rotation body reaches a predetermined angle so as to restore an area of the tube, pressed by the pressing portion on a most upstream side in the delivery direction, by an increase in pressure within the tube accompanied with a movement opposite to the delivery direction of the pressing portion adjacent to a downstream side in the delivery direction.

Abstract: Provided is a coating layer including a reaction product of a diisocyanate compound (a) selected from the group consisting of aromatic diisocyanates, aliphatic diisocyanates, and alicyclic diisocyanates, a polyol (b), and a copolymer (c) having a functional group selected from the group consisting of carboxylic acid groups, carboxylic acid ester groups, and carboxylic acid anhydride groups. The coating layer exhibits sufficient lubricity in wet conditions and has excellent durability.

Abstract: A weight of an excretion of an animal is easily measured. A pet toilet (1) includes a supporting table (12) onto which the animal is to step, an excretion tray (13) configured to receive urine of the animal which urine falls from the supporting table (12), a first weight scale (1) configured to measure a weight of the excretion tray (13) including a weight of the urine, and a carrier member (16) configured to carry the excretion tray (13). The excretion tray (13) and the carrier member (16) are provided to be attachable together by insertion between the first weight scale (21) and the supporting table (12). A weight of the carrier member (16) is supported by the main container (10) and the first weight scale (21) supports the excretion tray (13), in a state where the excretion tray (13) is attached by insertion.

Abstract: A weight measuring device which allows an accurate measurement of a weight of a pet is realized. A pet toilet (1) includes a first weight scale (21) configured to measure a weight of an excretion of an animal and a second weight scale (22) configured to measure a weight of the animal.

Abstract: An internal device of a brain-machine interface system includes: an electrode group including N electrodes, N being 2 or more; an amplification element group including N amplification elements; a communicator communicating with an external device; and a controller selectively executing one of: a normal operation mode in which electroencephalogram signals acquired through the N electrodes are supplied to the amplification element group in a manner that each of the N electrodes corresponds to a respective one of the N amplification elements, and N amplified electroencephalogram signals are transmitted; and a noise-reduction operation mode in which an electroencephalogram signal acquired through an M electrode of the electrode group is supplied to the amplification element group in a manner that each M electrode corresponds to respective plural ones of the amplification elements, and an M amplified electroencephalogram signal is transmitted, M being smaller than N.