Abstract: An image processing device comprises: an image acquisition unit that acquires an image; a person region detection unit that detects, from the image, a person region presumed to be a person; a parameter acquisition unit that acquires an imaging environment parameter when the image was imaged by an imaging device; a first masking unit that masks at least a portion of the region if the imaging environment parameter satisfies a prescribed condition; and a second masking unit that masks a range resulting from at least partially expanding the person region, if the imaging environment parameter does not satisfy the prescribed condition.

Abstract: A method for producing lithium hydroxide including mixing a solid raw material containing lithium carbonate, and a calcium compound, in a medium, so as to provide a calcium carbonate-containing liquid, subjecting the calcium carbonate-containing liquid to solid-liquid separation, so as to remove a solid matter containing calcium carbonate, recovering lithium ion from a lithium ion aqueous solution obtained through the solid-liquid separation, to a recovery liquid, with an electrochemical apparatus including a lithium permselective membrane, and obtaining lithium hydroxide from the recovery liquid, the lithium ion aqueous solution having a concentration of lithium ion of 3,000 ppm by mass or more.

Abstract: The purpose of the present disclosure is to provide a moving body detection device capable of accurately detecting a moving body. A moving body detection device (100) comprises an acquisition unit (110) that acquires a captured video, a first setting unit (120) that sets moving body detection conditions on the basis of related information containing information related to the video, and a detection unit (130) that detects a moving body from frames constituting the video on the basis of the moving body detection conditions. The moving body detection device (100) adjusts the moving body detection conditions on the basis of the related information, and thus can accurately detect a moving body.

Abstract: A mobile object detection device comprises: an acquisition unit for acquiring video including a plurality of frames captured; a detection unit for detecting a mobile object from each of the plurality of frames on the basis of a threshold value of a prescribed mobile object detection score; and an adjustment unit that, if a mobile object is detected from at least one frame among the plurality of frames, causes the detection unit to detect the mobile object in at least one frame of a frame before and a frame after the frame where the mobile object was detected, in a state where the threshold value for the mobile object detection score in a region corresponding to a region where the mobile object was detected has been lowered below the threshold value of the prescribed mobile object detection score, in the at least one frame.

Abstract: A person detection device comprises: an acquisition unit that acquires a captured video image; an object detection unit that detects a prescribed object to be detected from the video image on the basis of a threshold value of a prescribed object detection score; an adjustment unit that lowers a threshold value of a person detection score in a region of a prescribed range which includes the object to be detected in the video image to a value lower than threshold values of person detection scores in other regions; and a person detection unit that detects a person from the video image on the basis of the threshold value of the person detection score.

Abstract: According to the embodiment, a rotor comprises: a rotor shaft; permanent magnets located inside the rotor core and arranged symmetrically with respect to an M-axis, and a rotor core. The rotor core has the electromagnetic steel plates stacked such that the M axes overlap axially, wherein magnetic poles are arranged evenly circumferentially and each magnetic pole includes a flux-barrier band formed substantially convexly toward the rotation center axis and connects one and other of the outer peripheral surface, accommodating the permanent magnets, non-magnetic regions, and bridges. The rotor core has non-magnetic region connecting the outer peripheral surface and permanent magnet. As for the first and second flux barriers, circumferential angle ?q1 is larger than ?q2. when ?d1 is larger than ?d2. An adjacent magnetic pole has a shape about the M-axis of the specified magnetic pole.

Abstract: According to an embodiment, an interior magnet rotor includes a rotor shaft extending in a rotation axis direction, a rotor core, and a plurality of permanent magnets. The rotor core has at least one magnet housing hole formed in each magnetic pole and sandwiched by a first wall and a second wall, and is attached to the rotor shaft. The plurality of permanent magnets are housed in the magnet housing hole and are arranged in a row in one direction in a cross section of the magnet housing hole. The permanent magnets each have a substantially rectangular parallelepiped outer shape and have slopes formed over a longitudinal direction on two corners opposite to each other.

Abstract: A photographing apparatus includes a first photographing part configured to photograph a photographing target from a first side of a direction perpendicular to a first direction, a second photographing part configured to photograph the photographing target from a second side opposite to the first side, a first illumination part located between the first photographing part and the photographing target and configured to illuminate the photographing target from the first side when the first photographing part photographs the photographing target and when the second photographing part photographs the photographing target, and a second illumination part located between the second photographing part and the photographing target and configured to illuminate the photographing target from the second side when the first photographing part photographs the photographing target and when the second photographing part photographs the photographing target.

Abstract: A polysulfide resin in which structural units containing an adamantane structure are linked in a linear chain via sulfide bonds.

Abstract: A secondary battery is provided and including a positive electrode that includes a sulfur-containing material; a negative electrode that includes a magnesium-containing material; and an electrolytic solution, wherein the sulfur-containing material includes trimagnesium disulfide (Mg3S2) in a discharged state.

Abstract: According to the embodiment, an interior permanent magnet rotor comprises: a rotor shaft; a rotor core mounted to an outer circumference of the rotor shaft; and permanent magnets located inside the rotor core and arranged to form one pair or a plurality of pairs with each other in a circumferential direction in each magnetic pole part. The rotor core includes an inner core mounted to the outer circumference of the rotor shaft, an outer core having a fan shape located in each of the magnetic pole parts, a filling member filled between the inner and outer cores, and a positioning member configured to maintain a relative position between the inner core and each of the outer cores. The inner core and the outer cores are formed so that the inner core and the outer cores engage each other via the filling member.

Abstract: According to the embodiment, a foamed adhesive flat wire comprises: a rectangular conductor having a substantially rectangular cross section; an enamel layer located at an outer surface of the rectangular conductor; and a foamed adhesive layer located at an outer surface of the enamel layer, the foamed adhesive layer being foamable and adhesive at or above a prescribed temperature. When the foamed adhesive layer is not adjacent to another member compared to side surfaces of the foamed adhesive flat wire, the foamed adhesive layer side surface may have a reduced thickness or a thickness of zero as compared with a case in which the foamed adhesive flat wire is adjacent to another member.

Abstract: An electrolytic solution is provided and includes an electrolytic solution for an electrochemical device including a magnesium electrode as a negative electrode and a positive electrode, the electrolytic solution containing: a solvent; and a first magnesium salt having a disilazide structure represented by General Formula (1): wherein R is an aliphatic hydrocarbon group having 1 or more and 10 or less carbon atoms, and each R may be the same as or different from each other, the electrolytic solution substantially comprising no halogen.

Abstract: A method of adjusting a substrate transfer position is provided in a substrate processing system including: a batch processing section; a single-substrate processing section; and a substrate standby section configured to cause a substrate to be transferred from the batch processing section to the single-substrate processing section to wait. The substrate standby section includes: a delivery table; and a first transfer robot including a first holding section. The single-substrate processing section includes a second transfer robot including a second holding section. The method includes: acquiring, by the second holding section, the substrate from the delivery table; detecting a shift amount of the substrate with respect to a reference position while the second holding section holds the substrate acquired from the delivery table; and correcting a horizontal position when the first holding section mounts the substrate on the delivery table, based on the detected shift amount.

Abstract: Provided is an electrochemical device including a negative electrode, a positive electrode, and a separator disposed between the negative electrode and the positive electrode. In the electrochemical device, the negative electrode is an electrode containing magnesium, and is in contact with a fullerene analogue-containing layer containing a fullerene analogue. The electrolytic solution of the electrochemical device includes a solvent and a magnesium salt contained in the solvent.

Abstract: A sensor bracket (1) for mounting a sensor (2) to a vehicle body, comprising: a base wall (10) opposing a back surface of the sensor; a pair of first positioning portions (25) projecting from the base wall and abutting a side edge of the sensor from a first direction extending along the base wall; a pair of first pressing portions (26) projecting from the base wall and pressing the sensor against the first positioning portion in the first direction; and a first engaging portion (27) projecting from the base wall and engaging the sensor against a movement thereof away from the base wall, the first engaging portion being positioned between the first positioning portions and the first pressing portions along the first direction.

Abstract: Provided is a secondary battery that makes it possible to achieve a superior battery characteristic. The secondary battery includes a positive electrode, a negative electrode, and an electrolytic solution. The positive electrode includes a sulfur-containing polymer compound. The negative electrode includes a magnesium-containing material. The electrolytic solution includes an electrolyte salt. The sulfur-containing polymer compound includes carbon, nitrogen, and sulfur as constituent elements, and includes a carbon-nitrogen bond and a carbon-sulfur bond. The electrolyte salt includes a magnesium ion and a lithium ion as cations, and includes a halogen ion as an anion.

Abstract: A secondary battery includes a positive electrode, a negative electrode, and an electrolytic solution. The electrolytic solution includes a magnesium salt and a cyclic unsaturated hydrocarbon compound. The cyclic unsaturated hydrocarbon compound includes a monocyclic ring including multiple carbon atoms or a bicyclic fused ring including multiple carbon atoms. The monocyclic ring or the bicyclic fused ring includes two or more carbon-carbon double bonds. The bicyclic fused ring includes no benzene ring. The number of the carbon-carbon double bonds when the number of the carbon atoms included in the monocyclic ring is 7 or less is an even number. The number of the carbon-carbon double bonds when the number of the carbon atoms included in the monocyclic ring is 8 or more is an odd number or an even number. The number of the carbon-carbon double bonds in the bicyclic fused ring is an odd number or an even number.

Abstract: A secondary battery includes a positive electrode, a negative electrode including a magnesium-containing material, and an electrolytic solution including anthracene and 9,10-dihydroanthracene. A ratio of a content of 9,10-dihydroanthracene in the electrolytic solution to a content of anthracene in the electrolytic solution is 0.03 or less. An overvoltage represented by Expression (1) is 0.22 V or less. E = E ? 1 - E ? 2 ( 1 ) where: E is the overvoltage (V) to be measured using a secondary battery for testing including the negative electrode as a test electrode and a nickel plate as a counter electrode; E1 is an open-circuit voltage (V) when the secondary battery for testing is discharged at a current density of 0.1 mA/cm2 until a voltage reaches ?2.0 V; and E2 is a voltage (V) when the secondary battery for testing is charged at a current density of 0.1 mA/cm2 until the voltage reaches 2.5 V.

Abstract: [Problem] To provide a multi-layer sheet for mold underfill encapsulation, which exhibits good infiltrability between electrodes. [Solution] In order to solve the aforementioned problem, the present invention provides a multi-layer sheet for mold underfill encapsulation, which is characterized by having provided as an outermost layer thereof an (A) layer that comprises a resin composition having a local maximum loss tangent (tan ?) value of 3 or more at a measurement temperature of 125° C. for a measurement time of 0-100 seconds.