mhurhangee/ep-ind-claims huggingface dataset:
A method for generating MR images (10, 20) of an object, said object executing motion comprising a plurality of moving phases within a period of time, the method comprising the steps of: - acquiring a first dataset by using a plurality of receiver coils pertaining to one of the moving phases of the object using a SENSE undersampling scheme; - reconstructing a first image of a region of interest from the first dataset by means of SENSE reconstruction; - identifying a dynamic region and a static region inside the first image, wherein said regions (12, 14) are predominantly dynamic or static respectively within the period of time; - editing the first image by masking out the dynamic region; - weighing the edited first image by coil senstivities of the multiple receive coils; - performing an inverse Fourier transformation of the edited and weighed first image showing the remaining static region; - acquiring a second dataset pertaining to one of the moving phases of the object by using the plurality of receiver coils, wherein the second dataset is provided by means of undersampling during acquisition, using the same SENSE undersampling scheme as for the acquisition of the first dataset; - subtracting the inverse Fourier transformation of the edited first image with the remaining static region from the second dataset; - performing a Fourier transformation on the subtracted second dataset; and - generating a second image of a reduced region of interest with respect to the region of interest of the first image, which reduced region of interest includes the dynamic region. - acquiring a first dataset by using a plurality of receiver coils pertaining to one of the moving phases of the object using a SENSE undersampling scheme; - reconstructing a first image of a region of interest from the first dataset by means of SENSE reconstruction; - identifying a dynamic region and a static region inside the first image, wherein said regions (12, 14) are predominantly dynamic or static respectively within the period of time; - editing the first image by masking out the dynamic region; - weighing the edited first image by coil senstivities of the multiple receive coils; - performing an inverse Fourier transformation of the edited and weighed first image showing the remaining static region; - acquiring a second dataset pertaining to one of the moving phases of the object by using the plurality of receiver coils, wherein the second dataset is provided by means of undersampling during acquisition, using the same SENSE undersampling scheme as for the acquisition of the first dataset; - subtracting the inverse Fourier transformation of the edited first image with the remaining static region from the second dataset; - performing a Fourier transformation on the subtracted second dataset; and - generating a second image of a reduced region of interest with respect to the region of interest of the first image, which reduced region of interest includes the dynamic region.
A data transmission method, comprising: selecting, according to Quality of Service (QoS) requirement of a downlink upper-layer data stream, a lower-layer bearer from a bearer set established for the upper-layer data stream, the bearer set comprising at least two lower-layer bearers; mapping the upper-layer data stream onto the selected lower-layer bearer for transmission; characterized in that the method further comprises: establishing at least two lower-layer bearers for the upper-layer data stream at a lower layer according to QoS models; and utilizing the established at least two lower-layer bearers to form the bearer set, wherein each of the lower-layer bearers corresponds to one or more of the QoS models. selecting, according to Quality of Service (QoS) requirement of a downlink upper-layer data stream, a lower-layer bearer from a bearer set established for the upper-layer data stream, the bearer set comprising at least two lower-layer bearers; mapping the upper-layer data stream onto the selected lower-layer bearer for transmission; characterized in that the method further comprises: establishing at least two lower-layer bearers for the upper-layer data stream at a lower layer according to QoS models; and utilizing the established at least two lower-layer bearers to form the bearer set, wherein each of the lower-layer bearers corresponds to one or more of the QoS models. establishing at least two lower-layer bearers for the upper-layer data stream at a lower layer according to QoS models; and utilizing the established at least two lower-layer bearers to form the bearer set, wherein each of the lower-layer bearers corresponds to one or more of the QoS models.
A slim spotlight comprising a surface cover, a glass plate, a rubber ring, a reflector cover, a light expansion hood, a waterproof ring, a bolt, a seal ring, a nut, a mounting bracket and a body, characterizing in that a LED circuit without power supply is set between the light expansion hood and the body, a rear side of the body has a plurality of screw holes, the screw holes pass through the body, the surface cover is provided with a plurality of hidden holes which match up with the screw holes; the output port of the LED circuit comprises a rectifier bridge, a safety capacitor, a piezoresistor and a filter capacitor, the safety capacitor is connected in series between a firing line and a null line; the piezoresistor is connected in series between the firing line and the null line; an input port of the rectifier bridge connects with the firing line and the null line; an output of the rectifier bridge connects a positive lead of the filtering capacitor; a negative lead of the filtering capacitor connects the ground; the output of the rectifier bridge directly connects the output port of the LED circuit; an input port of the LED circuit connects a number of high-voltage LED lamp beads (D1-D8) in series.
A light distributing device for a vehicle comprising: a focusing lens that concentrates light input to a rear surface thereof to form an image point on a front side thereof; a shield that is arranged at the image point and has an opening (110, 120) through which a portion of the light, which passes through the image point, passes; a mirror that reflects at least a portion of the light that passed through the opening to the front side of the focusing lens; and a projection lens that is arranged on the front side of the focusing lens, wherein the focusing lens, the shield, the mirror, and the projection lens are arranged in a sequence of the focusing lens, the shield, the mirror, and the projection lens along a direction in which the light input to the rear surface of the focusing lens is output. a focusing lens that concentrates light input to a rear surface thereof to form an image point on a front side thereof; a shield that is arranged at the image point and has an opening (110, 120) through which a portion of the light, which passes through the image point, passes; a mirror that reflects at least a portion of the light that passed through the opening to the front side of the focusing lens; and a projection lens that is arranged on the front side of the focusing lens, wherein the focusing lens, the shield, the mirror, and the projection lens are arranged in a sequence of the focusing lens, the shield, the mirror, and the projection lens along a direction in which the light input to the rear surface of the focusing lens is output.
A mobile station provided with a radio link control unit for outputting or inputting data which are transmitted to or received from a base station via a radio channel to or from a higher-level protocol layer, a media access control unit for outputting or inputting said data via a logical channel (LOGch) to or from said radio link control unit, a physical layer control unit for outputting or inputting said data via a transport channel (TRch) to or from said media access control unit, and for controlling radio communications with said base station, and a radio resource control unit for outputting or inputting control data to or from said radio link control unit, said media access control unit, and said physical layer control unit, characterized in that said media access control unit multiplexes data amount information to be transmitted to the base station into a channel (E-DCH), which transmits packet data, so as to transmit the data amount information to the base station, wherein the data amount information is indicative of the amount of data yet-to-be-transmitted to the base station.
Device for load monitoring, having at least one panel on which a load can be positioned, wherein the panel has a plurality of sensors and wherein the sensors of the panel are electrically connected to a transmission unit in such a way that the sensor measurement data can be transmitted from the sensors to the transmission unit, wherein the measurement data from the sensors can be transmitted to at least one evaluation unit with the aid of the transmission unit, and wherein the panel has a flexible layer in and/or on which at least one of the sensors is arranged, characterized in that the panel consists of at least three layers, wherein an inner layer is designed as the flexible layer and the two outer layers are made of wood.
A structure comprising: a first member made of metal having a tubular shape, and having a through-insertion hole; a second member made of resin, and joined to the first member; and a third member made of metal having a tubular shape, and inserted through the through-insertion hole of the first member, wherein the third member is tube-expanded toward the first member and joined to the first member by press-fitting, wherein bulging portions are formed on both sides in a tube axis direction of the third member with respect to the first member. a first member made of metal having a tubular shape, and having a through-insertion hole; a second member made of resin, and joined to the first member; and a third member made of metal having a tubular shape, and inserted through the through-insertion hole of the first member, wherein the third member is tube-expanded toward the first member and joined to the first member by press-fitting, wherein bulging portions are formed on both sides in a tube axis direction of the third member with respect to the first member.
A leak detection method for detecting a leak past a dynamic seal in aircraft landing gear comprising at least: • a strut; • a rod slidably mounted in the strut; and • a bearing fitted to an end of the strut to guide the rod, said bearing including at least one bushing having at least one dynamic seal arranged to rub against the rod in order to provide sealing between the strut and the rod, thereby defining a chamber filled with hydraulic fluid between the strut and the rod, and a stop nut for preventing the bushing from moving in translation relative to the strut and provided with at least one wiper seal arranged to wipe hydraulic fluid on the rod; the method being characterized in that it includes a step of installing a test nut without a wiper seal in the place of the stop nut, the step of putting the hydraulic fluid in the landing gear under pressure, and the step of verifying the existence of a leak, if any, of hydraulic fluid on the outside surface of the rod. • a strut; • a rod slidably mounted in the strut; and • a bearing fitted to an end of the strut to guide the rod, said bearing including at least one bushing having at least one dynamic seal arranged to rub against the rod in order to provide sealing between the strut and the rod, thereby defining a chamber filled with hydraulic fluid between the strut and the rod, and a stop nut for preventing the bushing from moving in translation relative to the strut and provided with at least one wiper seal arranged to wipe hydraulic fluid on the rod;
A nutritional composition comprising protein, lipids, digestible carbohydrates and non digestible oligosaccharides, wherein the protein is present in an amount of from 5 to 20 wt.% based on dry weight of the nutritional composition, and in an amount of 1.6 to 4.0 g per 100 kcal, wherein the lipids are present in an amount of 3 to 7 g per 100 kcal, wherein the digestible carbohydrates are present in an amount of 5 to 20 g per 100 kcal, wherein the non digestible oligosaccharides are present in an amount of 0.5 to 20 wt.% based on dry weight of the nutritional composition, further characterized in that said nutritional composition comprises at least 10 wt.% based on dry weight of the nutritional composition of a protein comprising composition fermented by lactic acid bacteria, and characterized in that the nutritional composition comprises from 0.10 to 1.5 wt.% of the sum of lactate and lactic acid based on dry weight of the nutritional composition and wherein the sum of L-lactic acid and L-lactate is more than 50 wt.% based on the sum of total lactic acid and lactate, wherein the nutritional composition comprises 0.3 - 4 U beta-galactosidase activity per gram dry weight of the nutritional composition and wherein the composition does not comprise any of locust bean gum, tara gum, gum tragacanth, guar gum, and fenugreek gum.
A porphyrin of formula: wherein R 1, R 1', R 2 and R 2' independently represent H, OH, F, N + R 7 R 8 R 9, C 1 -C 4 alkyl or C 1 -C 4 -alcohol, R 3, R 3', R 6 and R 6' are independently selected from the group consisting of H, OH, F and C 1 -C 4 -alcohol, R 4, R 4', R 5, R 5' are independently selected from the group consisting of H, OH, F, C 1 -C 4 alkyl, C 1 -C 4 -alcohol, or N + R 7 R 8 R 9, X and X' independently represent CH, CF, CN + R 7 R 8 R 9, or N + R 7, Y and Y "independently represent CH, CF, CN + R 7 R 8 R 9, or N + R 7, R 7, R 8 and R 9 independently of each other represent H or a C 1 -C 4 alkyl group, provided that at least one of X, X', Y and Y' represents CF, CN + R 7 R 8 R 9, or N + R 7, or at least one of R 3, R 3', R 6 and R 6' represents F or at least one of R 1, R 1', R 2, R 2', R 4, R 4', R 5, and R 5' represents F or N + R 7 R 8 R 9, and salts thereof. R 1, R 1', R 2 and R 2' independently represent H, OH, F, N + R 7 R 8 R 9, C 1 -C 4 alkyl or C 1 -C 4 -alcohol, R 3, R 3', R 6 and R 6' are independently selected from the group consisting of H, OH, F and C 1 -C 4 -alcohol, R 4, R 4', R 5, R 5' are independently selected from the group consisting of H, OH, F, C 1 -C 4 alkyl, C 1 -C 4 -alcohol, or N + R 7 R 8 R 9, X and X' independently represent CH, CF, CN + R 7 R 8 R 9, or N + R 7, Y and Y "independently represent CH, CF, CN + R 7 R 8 R 9, or N + R 7, R 7, R 8 and R 9 independently of each other represent H or a C 1 -C 4 alkyl group, provided that at least one of X, X', Y and Y' represents CF, CN + R 7 R 8 R 9, or N + R 7, or at least one of R 3, R 3', R 6 and R 6' represents F or at least one of R 1, R 1', R 2, R 2', R 4, R 4', R 5, and R 5' represents F or N + R 7 R 8 R 9, and salts thereof.
A fluid pump comprising: a stator; a rotor rotationally operable with respect to the stator; a drive shaft that extends from the rotor to a pump assembly that delivers a fluid from an inlet to an outlet; a pump housing that includes an interior cavity that contains the stator, the rotor and the pump assembly; a pump cover that is disposed at an end of the pump housing, wherein the pump cover defines an end of the interior cavity; and a spring assembly that biases the pump cover in an axial direction toward the pump assembly, characterized in that the pump housing is overmolded around the stator to define the interior cavity. a stator; a rotor rotationally operable with respect to the stator; a drive shaft that extends from the rotor to a pump assembly that delivers a fluid from an inlet to an outlet; a pump housing that includes an interior cavity that contains the stator, the rotor and the pump assembly; a pump cover that is disposed at an end of the pump housing, wherein the pump cover defines an end of the interior cavity; and a spring assembly that biases the pump cover in an axial direction toward the pump assembly, characterized in that the pump housing is overmolded around the stator to define the interior cavity.
Arrangement to assess the status of an electronic unit used for lighting purposes, wherein the arrangement is designed to a) detect a plurality of physical parameters representing the current status of the electronic unit, b) compare the detected physical parameter in accordance with mathematical evaluation or analysis alone, or in combination with predetermined reference values or reference framework (I, II), c) create descriptive information based on the comparison of a status of the electronic unit being assessed, characterized in that, the reference values or reference framework (I, II) used for the comparison are at least partially graded. a) detect a plurality of physical parameters representing the current status of the electronic unit, b) compare the detected physical parameter in accordance with mathematical evaluation or analysis alone, or in combination with predetermined reference values or reference framework (I, II), c) create descriptive information based on the comparison of a status of the electronic unit being assessed,
A control device comprising: a button having an indicia that is able to be illuminated; a light source that is configured to illuminate the indicia of the button; a light detector circuit that is configured to measure a light level of ambient light that is external relative to the control device; a control circuit that is configured to, responsive to an actuation of the button, cause the light source to illuminate the indicia of the button in accordance with the measured light level; a faceplate that defines an opening that extends therethrough and that is configured to at least partially receive the button; an adapter (108, 200) that is configured to be mounted to a structure, the adapter (108, 200) including an outer wall that defines an aperture through which the light detector circuit receives the ambient light; and an enclosure that houses the light detector circuit, the enclosure including an integral reflector that is configured to direct the ambient light that is received through the aperture to the light detector circuit, wherein the adapter (108, 200) and the faceplate are configured such that the faceplate is removably attachable to the adapter. a button having an indicia that is able to be illuminated; a light source that is configured to illuminate the indicia of the button; a light detector circuit that is configured to measure a light level of ambient light that is external relative to the control device; a control circuit that is configured to, responsive to an actuation of the button, cause the light source to illuminate the indicia of the button in accordance with the measured light level; a faceplate that defines an opening that extends therethrough and that is configured to at least partially receive the button; an adapter (108, 200) that is configured to be mounted to a structure, the adapter (108, 200) including an outer wall that defines an aperture through which the light detector circuit receives the ambient light; and an enclosure that houses the light detector circuit, the enclosure including an integral reflector that is configured to direct the ambient light that is received through the aperture to the light detector circuit, wherein the adapter (108, 200) and the faceplate are configured such that the faceplate is removably attachable to the adapter.
External mirror with a turning indicator light with a first lighting area for generating diffuse light and a second lighting area for meeting statutory requirements, wherein the turning indicator light comprises a housing element, a number of light-emitting means (3, 4, 5), first and second light guides (6, 7) and a lens, wherein the lens comprises a transparent area, and wherein the first lighting area is produced by at least one light-emitting means, preferably an LED and a first light guide, which has an elongate extent and has a coupling-in section and a coupling-out section, and the lens, wherein the coupling-in section is formed at an end area of the light guide and the coupling-out section comprises coupling-out structures that are formed on an outer surface of the light guide located in the longitudinal extent of the former, and wherein the second lighting area is produced by a light-emitting means, preferably an LED and a second light guide, which has a coupling-in section and a coupling-out section and has an elongate extent, wherein the light-emitting means is arranged such that the light emitted by the light-emitting means is coupled into the coupling-in section, guided through the entire light guide in the longitudinal direction and output at the coupling-out section counter to the driving direction in an angular range of 5 to 60 degrees, characterized in that the first lighting area furthermore comprises a reflector, and wherein the coupling-out structures are embodied such that the light coupled into the light guide via the coupling-in section is guided at the coupling-out structure in the direction of the reflector arranged in the housing element, and wherein the lens is arranged in the beam path such that the light beams reflected by the reflector are guided through the lens to the outside in the driving direction, and in that the lens comprises a non-transparent area, and in that the transparent area is formed by the second light guide and wherein the first light guide is arranged in the housing element downstream of the non-transparent area.
A method of manufacturing an elastomeric product with a low hysteresis, the method comprising the steps of: a) providing an elastomeric material composition, comprising an elastomeric material, sulfur and a peroxide; and b) selecting a reaction temperature that is within the range of 140°C to 165°C; c) vulcanizing the composition at the selected reaction temperature, wherein the elastomeric material composition further comprises a curing agent for the peroxide initiated vulcanization reaction, wherein the ratio of the peroxide to the curing agent ranges from 1 part by weight of peroxide to 1.2 - 1.3 parts by weight of curing agent. a) providing an elastomeric material composition, comprising an elastomeric material, sulfur and a peroxide; and b) selecting a reaction temperature that is within the range of 140°C to 165°C; c) vulcanizing the composition at the selected reaction temperature, wherein the elastomeric material composition further comprises a curing agent for the peroxide initiated vulcanization reaction, wherein the ratio of the peroxide to the curing agent ranges from 1 part by weight of peroxide to 1.2 - 1.3 parts by weight of curing agent.
A method to produce an iron core comprising a laminate, the method comprising the steps of: - laminating a plurality of amorphous alloy thin strips without using an adhesive; - fastening the laminate on a metal board with a fastener comprising bolt and fastener penetrating the laminate; - subjecting the laminate to heat treatment to obtain a laminate in which a plurality of nanocrystal thin strips is laminated and in which at least one of upper and lower surfaces of the laminate has a colored oxide film and an uncolored oxide film; wherein the amorphous thin strips before heat treatment are made of iron alloy having a plate thickness of 10 μm to 60 μm and containing at least one of boron and silicon. - laminating a plurality of amorphous alloy thin strips without using an adhesive; - fastening the laminate on a metal board with a fastener comprising bolt and fastener penetrating the laminate; - subjecting the laminate to heat treatment to obtain a laminate in which a plurality of nanocrystal thin strips is laminated and in which at least one of upper and lower surfaces of the laminate has a colored oxide film and an uncolored oxide film;