mhurhangee/ep-ind-claims huggingface dataset:
A phosphor comprising: an inorganic compound comprising: a crystal represented by Li 1 Ba 2 Al 1 Si 7 N 12, an inorganic crystal having a same crystal structure as a crystal structure of a crystal represented by Li 1 Ba 2 Al 1 Si 7 N 12, or a solid solution crystal of these crystals, which comprises at least a Li element, an A element, a D element, an E element, and an X element (here, A is one or two or more kinds of elements selected from a group consisting of Mg, Ca, Sr, Ba, Sc, Y, and La; D is one or two or more kinds of elements selected from a group consisting of Si, Ge, Sn, Ti, Zr, and Hf; E is one or two or more kinds of elements selected from a group consisting of B, Al, Ga, and In; X is one or two or more kinds of elements selected from a group consisting of O, N, and F), into which an M element is solid-solved (here, M is one or two or more kinds of elements selected from a group consisting of Mn, Ce, Pr, Nd, Sm, Eu, Tb, Dy, and Yb). an inorganic compound comprising: a crystal represented by Li 1 Ba 2 Al 1 Si 7 N 12, an inorganic crystal having a same crystal structure as a crystal structure of a crystal represented by Li 1 Ba 2 Al 1 Si 7 N 12, or a solid solution crystal of these crystals, which comprises at least a Li element, an A element, a D element, an E element, and an X element (here, A is one or two or more kinds of elements selected from a group consisting of Mg, Ca, Sr, Ba, Sc, Y, and La; D is one or two or more kinds of elements selected from a group consisting of Si, Ge, Sn, Ti, Zr, and Hf; E is one or two or more kinds of elements selected from a group consisting of B, Al, Ga, and In; X is one or two or more kinds of elements selected from a group consisting of O, N, and F), into which an M element is solid-solved (here, M is one or two or more kinds of elements selected from a group consisting of Mn, Ce, Pr, Nd, Sm, Eu, Tb, Dy, and Yb). a crystal represented by Li 1 Ba 2 Al 1 Si 7 N 12, an inorganic crystal having a same crystal structure as a crystal structure of a crystal represented by Li 1 Ba 2 Al 1 Si 7 N 12, or a solid solution crystal of these crystals, which comprises at least a Li element, an A element, a D element, an E element, and an X element (here, A is one or two or more kinds of elements selected from a group consisting of Mg, Ca, Sr, Ba, Sc, Y, and La; D is one or two or more kinds of elements selected from a group consisting of Si, Ge, Sn, Ti, Zr, and Hf; E is one or two or more kinds of elements selected from a group consisting of B, Al, Ga, and In; X is one or two or more kinds of elements selected from a group consisting of O, N, and F), into which an M element is solid-solved (here, M is one or two or more kinds of elements selected from a group consisting of Mn, Ce, Pr, Nd, Sm, Eu, Tb, Dy, and Yb).
A test device for testing the insulation of an electrical line, particularly a cable or a cable harness, preferably for detecting flaws in the insulation of the electrical line, characterized in that the test device has a chamber for completely accommodating the electrical line to be tested, wherein the chamber can be closed and evacuated in a sealed manner, so a vacuum, but at least an underpressure, can be generated in the interior of the chamber, and wherein at least one electrical connection point, preferably in the form of a connector part, is arranged in the interior of the chamber for connecting the electrical line to be tested, and an electrical bushing leads out of the chamber from the connection point.
Method for forming at least one local contact area of a substrate of an electrical component for contacting the contact area with a connector, wherein the substrate is directly provided on the contact side with a sintered, porous layer consisting of aluminium or containing aluminium, characterized in that the sintered, porous layer in the contact area that is to be formed is compacted and/or removed using concentrated electromagnetic radiation, wherein a) the sintered, porous layer is partially removed and partially compacted, or b) the sintered, porous layer is compacted in at least one area in such a way that areas of different thickness result, or c) the sintered, porous layer is compacted in such a way that a density gradient results, or d) the sintered, porous layer is compacted in at least one area in such a way that at least two layers of different thickness result, or e) the sintered, porous layer in the contact area that is to be formed is first removed on the outside and the remaining area is then compacted. a) the sintered, porous layer is partially removed and partially compacted, or b) the sintered, porous layer is compacted in at least one area in such a way that areas of different thickness result, or c) the sintered, porous layer is compacted in such a way that a density gradient results, or d) the sintered, porous layer is compacted in at least one area in such a way that at least two layers of different thickness result, or e) the sintered, porous layer in the contact area that is to be formed is first removed on the outside and the remaining area is then compacted.
Device for light signaling of a motor vehicle, said device comprising a mounting support, at least a first light source and a second light source mounted on said mounting support, said light signaling device being open, the mounting support comprising a channeling system adapted to guide and evacuate at least one object arriving on the light signaling device, said mounting support comprising at least one wall for guiding the air arriving on the device from outside the vehicle and in a so-called forward direction, each light source (20, 30) comprising a wall (21, 31) protective front, the guide wall is adapted to guide the air to the front walls (21, 31) of the light sources (20, 30), and the channeling system comprising at least one gutter for guiding at least one object arriving at the light signaling device, said mounting support comprising a protective bar mounted in front of the light sources (20, 30) characterized in that, the pipe system includes two drain holes (13, 13') located at a lower part of the mounting bracket, one of the two holes being placed at one end front of the gutter, at a front part of the mounting bracket, and the other of the two holes being placed at a rear end of the gutter, at the level with a rear part of the mounting bracket.
Process for the separation of C5 hydrocarbons present, in a quantity ranging from 0.2 to 20% by weight, in hydrocarbon streams prevalently containing C4 products used for the production of high-octane hydrocarbon compounds, by the selective dimerization of isobutene, characterized in that the dimerization reaction is carried out in the presence of linear alcohols and alkyl ethers and branched alcohols, which form azeotropic mixtures with the C5 hydrocarbons, in such a quantity as to have a molar ratio alcohols + alkyl ethers/isobutene in the feeding higher than 0.01 and in that the separation of the formed C5/branched alcohol azeotropic mixtures is carried out using traditional fractionation columns in which said formed C5/branched alcohols azeotropic mixtures can be recovered at the head, bottom or as side cut.
An information reporting method, comprising: receiving, from a base station by a user equipment, at least two resource groups and first channel state information, CSI, configuration information corresponding to each of the resource groups, wherein each of the resource groups comprises a subframe set and a carrier, and the first CSI configuration information is used to indicate a first CSI candidate set, wherein the first CSI candidate set is a preset CSI table of a plurality of preset CSI tables, and at least one of the at least two preset CSI tables comprises 256 quadrature amplitude modulation, QAM; and determining, by the user equipment, the first CSI candidate set according to the first CSI configuration information that is corresponding to each of the resource groups; and performing, by the user equipment, CSI measurement on the resource group by using the first CSI candidate set; and reporting, by the user equipment, CSI obtained by measurement to the base station. receiving, from a base station by a user equipment, at least two resource groups and first channel state information, CSI, configuration information corresponding to each of the resource groups, wherein each of the resource groups comprises a subframe set and a carrier, and the first CSI configuration information is used to indicate a first CSI candidate set, wherein the first CSI candidate set is a preset CSI table of a plurality of preset CSI tables, and at least one of the at least two preset CSI tables comprises 256 quadrature amplitude modulation, QAM; and determining, by the user equipment, the first CSI candidate set according to the first CSI configuration information that is corresponding to each of the resource groups; and performing, by the user equipment, CSI measurement on the resource group by using the first CSI candidate set; and reporting, by the user equipment, CSI obtained by measurement to the base station.
An anti-reflective coating film, comprising: a substrate; a first layer having a high index of refraction that includes a binder and silica nanoparticles, the first layer being infiltrated into the substrate; and a second layer having a low index of refraction that includes a binder and 2 to 5 hollow particle layers located at the outermost surface of the second layer, each of the hollow particle layers includes sequentially connected hollow particles and the hollow particle layers are adjacent to each other, and said second layer covers the first layer. a substrate; a first layer having a high index of refraction that includes a binder and silica nanoparticles, the first layer being infiltrated into the substrate; and a second layer having a low index of refraction that includes a binder and 2 to 5 hollow particle layers located at the outermost surface of the second layer, each of the hollow particle layers includes sequentially connected hollow particles and the hollow particle layers are adjacent to each other, and said second layer covers the first layer.
A metal coordination complex of a biologically active moiety and a metal, wherein the biologically active moiety is triiodothyronine, and the metal is selected from the group consisting of aluminum, bismuth, calcium, iron, magnesium, silicon, and zinc.
Filter device having a filter head, a filter element and a filter bowl for receiving the replaceable filter element, wherein a compensation device is provided which acts between the filter head and the filter element, characterised in that the compensation device is a component of the filter element and has a gimbal bearing for establishing a fluid-conducting connection to the filter head.
Process for preparing refrigerated products, in an apparatus comprising a containment tank suitable to contain the product to be prepared; a mixing device arranged inside said tank and suitable to determine the continuous circulation of the product inside the same tank, to convey the product towards a front zone of said tank; a cooling device arranged inside said tank to cool said product; a dispensing device of the product, placed at said front zone of the containment tank, characterized in that it provides the steps of a. introducing a dosed quantity of milk into said tank; b. activating by means of said cooling device a pasteurization cycle of the milk introduced in said tank, setting the value of ideal pasteurization temperature (Tp) and the permanence time at said pasteurization temperature (Tp); c. controlling by means of sensor means the milk temperature in pasteurization step inside said tank; d. upon reaching said pasteurization temperature (Tp) and said permanence time at the pasteurization temperature (Tp), activating the inversion of the refrigerant cycle for cooling the pasteurized milk, setting the value of ideal temperature (Tad) for adding the additional ingredients; e. controlling through said sensor means the temperature of the product in cooling step; f. upon reaching said temperature (Tad) for adding the additional ingredients, adding a dosed quantity of additional ingredients; g. continuing the cooling of the so obtained preparation to a prefixed cooling temperature (Tc) to complete the preparation of the cooled product. a. introducing a dosed quantity of milk into said tank; b. activating by means of said cooling device a pasteurization cycle of the milk introduced in said tank, setting the value of ideal pasteurization temperature (Tp) and the permanence time at said pasteurization temperature (Tp); c. controlling by means of sensor means the milk temperature in pasteurization step inside said tank; d. upon reaching said pasteurization temperature (Tp) and said permanence time at the pasteurization temperature (Tp), activating the inversion of the refrigerant cycle for cooling the pasteurized milk, setting the value of ideal temperature (Tad) for adding the additional ingredients; e. controlling through said sensor means the temperature of the product in cooling step; f. upon reaching said temperature (Tad) for adding the additional ingredients, adding a dosed quantity of additional ingredients; g. continuing the cooling of the so obtained preparation to a prefixed cooling temperature (Tc) to complete the preparation of the cooled product.
A method of preparing a vinyl chloride-based resin, comprising preparing a slurry through suspension polymerization by mixing a monomer, an oil soluble initiator, a dispersant, and an additive, wherein the additive includes an emulsifier, a water-soluble initiator, or a combination of the emulsifier and the water-soluble initiator, wherein the monomer includes vinyl chloride, an unsaturated carboxylic acid-based compound, and an ethylenic unsaturated compound that is copolymerizable therewith, the emulsifier includes a non-ionic emulsifier, or a combination of the non-ionic emulsifier and an anionic emulsifier, wherein the non-ionic emulsifier is a C6 to C20 alcohol, and wherein the additive comprises the emulsifier, and when the emulsifier comprises the anionic emulsifier and the non-ionic emulsifier, the anionic emulsifier and the non-ionic emulsifier are included in a weight ratio of 1:0.5 to 1:200.
A method for improving information security in a network, performed by a terminal device, wherein the method comprises: acquiring (101, 201), by the terminal device, a key, an identity of the terminal device, and identification information of one or more applications on the terminal device, wherein identification information of different applications on the terminal device is different from each other, and the identity of the terminal device comprises: an international mobile equipment identity, IMEI, and/or an international mobile subscriber identity, IMSI; generating (102, 202), by the terminal device, one or more encryption results corresponding to the one or more applications generated by a preset encryption algorithm with an input of the key, the identity of the terminal device, and the identification information corresponding to the one or more applications, wherein the one or more encryption results are used for identification and authentication of the terminal device for network access; and accessing (103, 204), by the terminal device, the network by transmitting the one or more encryption results corresponding to the one or more applications to a network device when the one or more applications run on the terminal device. acquiring (101, 201), by the terminal device, a key, an identity of the terminal device, and identification information of one or more applications on the terminal device, wherein identification information of different applications on the terminal device is different from each other, and the identity of the terminal device comprises: an international mobile equipment identity, IMEI, and/or an international mobile subscriber identity, IMSI; generating (102, 202), by the terminal device, one or more encryption results corresponding to the one or more applications generated by a preset encryption algorithm with an input of the key, the identity of the terminal device, and the identification information corresponding to the one or more applications, wherein the one or more encryption results are used for identification and authentication of the terminal device for network access; and accessing (103, 204), by the terminal device, the network by transmitting the one or more encryption results corresponding to the one or more applications to a network device when the one or more applications run on the terminal device.
A logging tool for use in a wellbore, comprising: a mother tool having an upper end connected to a conveyance element; a sensor assembly (28 1) selectively coupled to and decoupled from the mother tool; and a communication system in communication between the sensor assembly (28 1) and mother tool; characterised by the tool further comprising: additional sensor assemblies (28 2, 28 3) that are selectively coupled and decoupled from the mother tool or an adjacent sensor assembly (28 1, 28 2, 28 3) with latching assemblies (37 1) of each of the sensor assemblies. a mother tool having an upper end connected to a conveyance element; a sensor assembly (28 1) selectively coupled to and decoupled from the mother tool; and a communication system in communication between the sensor assembly (28 1) and mother tool; characterised by the tool further comprising: additional sensor assemblies (28 2, 28 3) that are selectively coupled and decoupled from the mother tool or an adjacent sensor assembly (28 1, 28 2, 28 3) with latching assemblies (37 1) of each of the sensor assemblies.
A laser welding method for welding a weld portion by using a laser beam, the method comprising: emitting, to the weld portion, the laser beam and a measurement beam coaxially aligned with the laser beam, the measurement beam having a wavelength different from a wavelength of the laser beam; and measuring a penetration depth of the weld portion in accordance with the measurement beam reflected on the weld portion during the laser welding; the method being characterized by performing laser welding while moving an irradiation position of the laser beam and an irradiation position of the measurement beam in at least a first direction, a second direction opposite to the first direction, a third direction crossing the first direction, and a fourth direction opposite to the third direction; determining an optical axis deviation direction in which an optical axis of the measurement beam deviates from the laser beam, by relatively comparing a plurality of penetration depth values measured; and adding a predetermined correction value to the penetration depth values measured during the laser welding in the optical axis deviation direction, wherein in the determining of the optical axis deviation direction, the plurality of penetration depth values measured are compared with a predetermined reference value, and a direction in which a value smaller than the reference value is measured is determined to be the optical axis deviation direction. emitting, to the weld portion, the laser beam and a measurement beam coaxially aligned with the laser beam, the measurement beam having a wavelength different from a wavelength of the laser beam; and measuring a penetration depth of the weld portion in accordance with the measurement beam reflected on the weld portion during the laser welding; the method being characterized by performing laser welding while moving an irradiation position of the laser beam and an irradiation position of the measurement beam in at least a first direction, a second direction opposite to the first direction, a third direction crossing the first direction, and a fourth direction opposite to the third direction; determining an optical axis deviation direction in which an optical axis of the measurement beam deviates from the laser beam, by relatively comparing a plurality of penetration depth values measured; and adding a predetermined correction value to the penetration depth values measured during the laser welding in the optical axis deviation direction, wherein in the determining of the optical axis deviation direction, the plurality of penetration depth values measured are compared with a predetermined reference value, and a direction in which a value smaller than the reference value is measured is determined to be the optical axis deviation direction.
A mechanical interlock pin assembly for a two-shot mold, comprising: a shaft having a first end and a second end; a set of helical spline elements disposed at the first end of the shaft, the set of helical spline elements extending along a longitudinal axis of the shaft; and a bearing rotatably coupled to the second end of the shaft, the bearing configured to allow rotation of the shaft between a first rotational position and a second rotational position relative to a mold cavity; wherein the set of helical spline elements extend from a shoulder portion disposed at the first end of the shaft; where an outer diameter of the set of helical spline elements is less than an outer diameter of the shoulder portion; and wherein each spline element of the set of helical spline elements is disposed at a pitch of between about 2° and 30° relative to the longitudinal axis of the shaft. a shaft having a first end and a second end; a set of helical spline elements disposed at the first end of the shaft, the set of helical spline elements extending along a longitudinal axis of the shaft; and a bearing rotatably coupled to the second end of the shaft, the bearing configured to allow rotation of the shaft between a first rotational position and a second rotational position relative to a mold cavity; wherein the set of helical spline elements extend from a shoulder portion disposed at the first end of the shaft; where an outer diameter of the set of helical spline elements is less than an outer diameter of the shoulder portion; and wherein each spline element of the set of helical spline elements is disposed at a pitch of between about 2° and 30° relative to the longitudinal axis of the shaft.
A camera lens system for an endoscope comprising at least three lenses, wherein the first lens (14, 28, 36), when starting from the object side, is a negative lens, all following lenses moving toward the image side are positive lenses, characterized in that the system comprises the following features: a) 45 < V1d < 75; b) | V1d - V2d | < 10; c) | V1d - V3d | < 10; d) | V2d - V3d | < 10; e) 1,45 < n1d < 1,75; f) | n1d - n2d | < 0,1; g) | n1d - n3d | < 0,1; h) | n2d - n3d | < 0,1; i) 0,4 mm < f < 0,7 mm; j) -3 < f1/f < -2; k) 1,1 < f2/f < 1,3; l) 2,5 < f3/f < 3,5, wherein V1d, V2d and V3d are the Abbe numbers of the first, second and third lens respectively, n1d, n2d and n3d are the refractive indices of the first, second and third lens respectively, f is the focal length of the objective of the system, f1, f2 and f3 are the focal lengths in mm of the first, second and third lens respectively. a) 45 < V1d < 75; b) | V1d - V2d | < 10; c) | V1d - V3d | < 10; d) | V2d - V3d | < 10; e) 1,45 < n1d < 1,75; f) | n1d - n2d | < 0,1; g) | n1d - n3d | < 0,1; h) | n2d - n3d | < 0,1; i) 0,4 mm < f < 0,7 mm; j) -3 < f1/f < -2; k) 1,1 < f2/f < 1,3; l) 2,5 < f3/f < 3,5,