Abstract: A compound represented by the following formula (1): One of R1 and R2 is a methyl group, and the other is an unsubstituted phenyl group, and R1 and R2 are not bonded to each other and therefore do not form a ring structure. One of R3 and R4 is a methyl group, and the other is an unsubstituted phenyl group, and R3 and R4 are not bonded to each other and therefore do not form a ring structure. R11 to R18, and R21 to R28 are hydrogen atoms, provided that, one selected from R11 to R18 is a single bond bonded to *a, and one selected from R21 to R28 is a single bond bonded to *b. L1 and L2 are each independently a single bond, or a substituted or unsubstituted phenylene group.

Abstract: A separation method includes the steps of: mixing a member that includes an active material and a solid electrolyte with a solvent to obtain a mixture; and subjecting the mixture to solid-liquid separation to obtain a solid component and a separated liquid. The solid electrolyte contains a lithium (Li) element, a sulfur (S) element, and a phosphorous (P) element. The solid electrolyte is dissolved in the solvent. It is preferable that the separation method further includes a step of recovering a compound that contains at least one of the Li element, the S element, and the P element from the separated liquid. It is also preferable that the separation method further includes a step of acid-dissolving the solid component to recover a carbon component.

Abstract: A solid electrolyte contains: a lithium (Li) element; a phosphorus (P) element; a sulfur (S) element; and an X element, where X represents at least one halogen element. The solid electrolyte has a peak P1 and a peak P2 when, in an X-ray diffraction pattern obtained by measuring the solid electrolyte with an X-ray diffractometer (XRD) using CuK?1 rays and CuK?2 rays, a diffraction pattern in at least any one of a range of 2?=25.6±0.8°, a range of 2?=30.2±0.8°, and a range of 2?=31.6±0.8° is subjected to peak separation. The peak P1 and the peak P2 are derived from different phases.

Abstract: A solid electrolyte contains Li, P, S, halogen, and M elements (M represents at least one of silicon (Si), tin (Sn), antimony (Sb), germanium (Ge), and boron (B)), and has a crystalline phase with an argyrodite-type crystal structure. A molar ratio S/(P+M) of the S to the total of the P and M elements satisfies 3.5<S/(P+M)<4.2. A molar ratio M/P of the M element to the P satisfies 0<M/P<1. A molar ratio X/(P+M) of the halogen (X) element to the total of the P and M elements satisfies 0.7<X/(P+M)<3.0.

Abstract: The present disclosure provides a sensor for tires capable of measuring a physical quantity including a temperature of a tire. An aspect of the present disclosure is a sensor for tires including: a base portion 5 fixed to an inside of a tire T and in contact with the tire T, and a sensor chip 7 including a tire temperature detection unit that detects the temperature of the tire T through the base portion 5.

Abstract: An object of the present invention is to provide a strain amount detection device capable of accurately detecting deformations, in multiple directions, of a tire by one strain measuring element. A strain amount detection device according to the present invention includes a disk-shaped base member that holds a strain measuring element, in which the base member acts as a strain body by transmitting strain of a tire to the strain measuring element.

Abstract: An object of the present invention is to mitigate an influence of a physical quantity other than strain of a tire on a measurement result of a strain sensor and to improve measurement accuracy of the strain sensor. A strain amount detection device according to the present invention calculates an estimation value of a load applied to a tire by using data describing a relationship among an actually measured strain amount, a tire air pressure, a vehicle speed, a tire temperature, and a tire load.

Abstract: A sulfide-based solid electrolyte particle having a crystal phase of a cubic argyrodite-type crystal structure composed of Li, P, S and a halogen (Ha. The proposed sulfide-based solid electrolyte particle has a feature such that the ratio (ZHa2/ZHa1) of an element ratio ZHa2 of the halogen (Ha) at the position of 5 nm in depth from the particle surface to an element ratio ZHa1 of the halogen (Ha) at the position of 100 nm in depth from the particle surface is 0.5 or lower, as measured by XPS; and the ratio (ZO2/ZA2) of an element ratio ZO2 of oxygen to the total ZA2 of element ratios of phosphorus (P), sulfur (S), oxygen (O) and the halogen (Ha) at the position of 5 nm in depth from the particle surface is 0.5 or higher, as measured by XPS.

Abstract: A curcumin-containing composition has improved oral absorbability. An oral ingestion composition contains: (A) solid curcumin containing an amorphous body and/or an analog thereof; and (B) a solid water-soluble polymer which becomes viscous in an aqueous medium having a pH of 5 or more.

Abstract: Provided is a sulfide-based solid electrolyte comprising lithium, phosphorus, sulfur, and a halogen, as a novel solid electrolyte capable of suppressing generation of hydrogen sulfide and securing ionic conductivity. The solid electrolyte is characterized by comprising Li7?aPS6?aHaa (wherein Ha represents a halogen, and “a” satisfies 0.2<a?1.8) having an argyrodite-type crystal structure, and Li3PS4, wherein, in an X-ray diffraction (XRD) pattern obtained through measurement by an X-ray diffraction method, the ratio of the peak intensity of a peak appearing at a position in a range of diffraction angle 2?=26.0° to 28.8° derived from Li3PS4, relative to the peak intensity of a peak appearing at a position in a range of diffraction angle 2?=24.9° to 26.3° derived from the argyrodite-type crystal structure, is 0.04 to 0.3.

Abstract: A sulfide solid electrolyte is provided having peak A at 2?=20.7°±0.5° in an X-ray diffraction pattern obtained by performing X-ray diffraction measurement using CuK?1 radiation. It is preferable that the sulfide solid electrolyte has peak B at 2?=25.4°±1.0° in the X-ray diffraction pattern obtained by performing X-ray diffraction measurement using CuK?1 radiation. It is also preferable that the value of the ratio of IA to IB, IA/IB, is more than 0 and 0.7 or less, where IA is the intensity of peak A and IB is the intensity of peak B. It is also preferable that the sulfide solid electrolyte has peak C at 2?=22.0°±0.5° in the X-ray diffraction pattern obtained by performing X-ray diffraction measurement using CuK?1 radiation.

Abstract: A distance measurement system according to the invention includes a processor, a distance measurement device, and a heat detection device. In the distance measurement system, the distance measurement device can measure a distance to a subject and can generate a distance image related to the subject whose distance has been measured. The heat detection device can measure the temperature of the subject and can generate a temperature image related to the subject whose temperature has been measured. The processor can associate the distance image and the temperature image acquired from the same point of view and determine whether or not the subject is an object on the basis of a distance value and a temperature value at the same position in the images.

Abstract: There is provided a sulfide solid electrolyte containing elemental lithium (Li), elemental phosphorus (P), elemental sulfur (S), and an elemental halogen (X). The mole ratio of the elemental lithium (Li) to the elemental phosphorus (P), Li/P, satisfies 3.7<Li/P<5.4. The mole ratio of the elemental sulfur (S) to the elemental phosphorus (P), S/P, satisfies 3.9<S/P<4.1. The mole ratio of the elemental halogen (X) to the elemental phosphorus (P), X/P, satisfies 0.7<X/P<2.4. The sulfide solid electrolyte includes a crystalline phase having an argyrodite-type crystal structure.

Abstract: An object of the present invention is to provide a sulfide solid electrolyte having a reduced specific surface area; an electrode composite material, a slurry and a solid battery, in each of which the sulfide solid electrolyte is used; and a method of producing the sulfide solid electrolyte, and the present invention provides a sulfide solid electrolyte containing lithium (Li), phosphorus (P) and sulfur (S) elements, and also containing a crystal phase having peaks at positions of 2?=23.2°±1.00° and 29.2°±0.500° in an X-ray diffraction pattern measured with CuK?1 radiation.

Abstract: A sulfide solid electrolyte that can suppress the generation of hydrogen sulfide gas while maintaining the lithium ion conductivity; and an electrode composite material, a slurry and a battery, in each of which the sulfide solid electrolyte is used, are provided. The sulfide solid electrolyte contains lithium (Li), phosphorus (P) and sulfur (S) elements; at least one halogen (X) element; and at least one metal (M) element having a first ionization energy of more than 520.2 KJ/mol and less than 1007.3 KJ/mol, wherein, in an X-ray diffraction pattern measured with CuK?1 radiation, peaks are present at positions of 2?=25.19°±1.00° and 29.62°±1.00°.

Abstract: Provided are a sulfide solid electrolyte having a small particle size and a low specific surface area; an electrode composite material, a slurry and a battery in each of which the sulfide solid electrolyte is used; and a method of producing the sulfide solid electrolyte. The sulfide solid electrolyte contains lithium (Li), phosphorus (P) and sulfur (S) elements and has: a median diameter D50 of 0.10 ?m or more and 2.0 ?m or less; and a value of the formula: (A×B)/C, wherein A represents a BET specific surface area (m2/g), B represents a true density (g/cm3), and C represents a CS value (m2/cm3), of 1.0 or more and 2.5 or less.

Abstract: A sulfur-containing compound containing a lithium (Li) element, a phosphorus (P) element, a sulfur (S) element, and a halogen (X) element, which can be suitably used as a solid electrolyte, and is able to suppress the generation of a hydrogen sulfide gas even when exposed to moisture in the atmosphere. The sulfur-containing compound has a peak at each position of 2?=21.3°±1.0°, 27.8°±1.0°, and 30.8°±0.5° in an X-ray diffraction pattern measured by an X-ray diffraction apparatus (XRD) using CuK?1 rays.

Abstract: A sulfide solid electrolyte is provided having peak A at 2?=20.7°±0.5° in an X-ray diffraction pattern obtained by performing X-ray diffraction measurement using CuK?1 radiation. It is preferable that the sulfide solid electrolyte has peak B at 2?=25.4°±1.0° in the X-ray diffraction pattern obtained by performing X-ray diffraction measurement using CuK?1 radiation. It is also preferable that the value of the ratio of IA to IB, IA/IB, is more than 0 and 0.7 or less, where IA is the intensity of peak A and IB is the intensity of peak B. It is also preferable that the sulfide solid electrolyte has peak C at 2?=22.0°±0.5° in the X-ray diffraction pattern obtained by performing X-ray diffraction measurement using CuK?1 radiation.