mhurhangee/patent-ind-claim-en huggingface dataset:
A flexible thermoelectric module comprising: a flexible substrate having a thickness between 20 and 200 micrometers with a first surface and an opposing second surface ; a first patterned conductive layer on the first surface of the flexible substrate , wherein the pattern of the first conductive layer forms a first array of connectors and each connector has two ends; a plurality of vias in the flexible substrate , wherein at least some of the vias are positioned corresponding to ends of the first array of connectors ; at least some of the vias filled with a thermoelectric material ; a second patterned conductive layer on the second surface of the flexible substrate , wherein the pattern of the second conductive layer forms a second array of connectors and each connector has two ends, and wherein at least some of the ends of the second array of connectors are positioned corresponding to at least some of the vias . a flexible substrate having a thickness between 20 and 200 micrometers with a first surface and an opposing second surface ; a first patterned conductive layer on the first surface of the flexible substrate , wherein the pattern of the first conductive layer forms a first array of connectors and each connector has two ends; a plurality of vias in the flexible substrate , wherein at least some of the vias are positioned corresponding to ends of the first array of connectors ; at least some of the vias filled with a thermoelectric material ; a second patterned conductive layer on the second surface of the flexible substrate , wherein the pattern of the second conductive layer forms a second array of connectors and each connector has two ends, and wherein at least some of the ends of the second array of connectors are positioned corresponding to at least some of the vias .
Cathode element suitable for use in a Hall-Heroult electrolysis cell, comprising - a cathode block comprising a carbonaceous material, - at least one metallic connection bar made in copper or copper alloys, wherein said metallic connection bar is inserted into a groove or bore in direct contact with a carbonaceous material, wherein said metallic connection bars extend from both extremities towards the centre length of the cathode block, leaving a gap in the centre of the cathode block, and wherein said carbonaceous material can be the carbonaceous material of said cathode block, or an intermediate carbonaceous material that is in direct contact with the carbonaceous material of said cathode block. - a cathode block comprising a carbonaceous material, - at least one metallic connection bar made in copper or copper alloys,
A remote radio unit, RRU, positioning method, comprising: sending , by a first RRU , a second reference signal to a second RRU in a guard period, GP, wherein the first RRU is a to-be-positioned RRU, and the second RRU is an RRU at a known location; receiving , by the first RRU , a first reference signal from the second RRU ; determining , by the first RRU , a first delay value based on the first reference signal; reporting , by the first RRU , the first delay value to an upper-layer network element ; and performing , by the upper-layer network element , location resolving processing based on the first delay value, to obtain the location information of the first RRU ; characterized in that before the receiving , by the first RRU , the first reference signal from the second RRU , the method further comprises: calculating , by the second RRU , a second delay value based on the second reference signal, and adding, by the second RRU , the second delay value to the first reference signal; or calculating , by the second RRU , sequence detection strength and a second delay value based on the second reference signal, and selecting, by the second RRU , a cell in which the detection strength is greater than a threshold to send the first reference signal to the first RRU , wherein the first reference signal carries the second delay value. sending , by a first RRU , a second reference signal to a second RRU in a guard period, GP, wherein the first RRU is a to-be-positioned RRU, and the second RRU is an RRU at a known location; receiving , by the first RRU , a first reference signal from the second RRU ; determining , by the first RRU , a first delay value based on the first reference signal; reporting , by the first RRU , the first delay value to an upper-layer network element ; and performing , by the upper-layer network element , location resolving processing based on the first delay value, to obtain the location information of the first RRU ; characterized in that before the receiving , by the first RRU , the first reference signal from the second RRU , the method further comprises: calculating , by the second RRU , a second delay value based on the second reference signal, and adding, by the second RRU , the second delay value to the first reference signal; or calculating , by the second RRU , sequence detection strength and a second delay value based on the second reference signal, and selecting, by the second RRU , a cell in which the detection strength is greater than a threshold to send the first reference signal to the first RRU , wherein the first reference signal carries the second delay value. calculating , by the second RRU , a second delay value based on the second reference signal, and adding, by the second RRU , the second delay value to the first reference signal; or calculating , by the second RRU , sequence detection strength and a second delay value based on the second reference signal, and selecting, by the second RRU , a cell in which the detection strength is greater than a threshold to send the first reference signal to the first RRU , wherein the first reference signal carries the second delay value.
A welding accessory, wherein the welding accessory is a wire feeder or pendant , comprising: a weld input comprising one or more terminals configured to receive first welding-type power; and being characterized by : power conversion circuitry comprising: first power conversion circuitry configured to convert a first portion of the first welding-type power to a second welding-type power and output the second welding-type power to a weld circuit; and second power conversion circuitry configured to convert a second portion of the first welding-type power to preheating power and output the preheating power to a preheater. first power conversion circuitry configured to convert a first portion of the first welding-type power to a second welding-type power and output the second welding-type power to a weld circuit; and second power conversion circuitry configured to convert a second portion of the first welding-type power to preheating power and output the preheating power to a preheater.
A burst-resistant tire with tubular embedded open-structure, comprising an outer ring and an inner ring ; the outer ring is divided into a left outer ring and a right outer ring symmetrically arranged through a radial plane of a tire center, wherein a left rim ring is provided between the left outer ring and the inner ring , a right rim ring is arranged between the right outer ring and the inner ring , the left rim ring and the right rim ring are connected at the radial plane of the tire center; the left rim ring comprises a plurality of rims evenly distributed around an axis of the inner ring and two adjacent rims are mutually connected to form a closed loop, and each rim of the left rim ring is in contact with the left outer ring and the inner ring ; the right rim ring comprises a plurality of rims evenly distributed around an axis of the inner ring and two adjacent rims are mutually connected to form a closed loop, and each rim of the right rim ring is in contact with the right outer ring and the inner ring ; each rim is parallel to the axis of the inner ring and is a tubular structure with a circular, an oval or a polygonal shape; wherein the left rim ring and the right rim ring are symmetrically arranged, and characterised in that a tubular structure of the left rim ring and the tubular structure of the right rim ring are longitudinally penetrated. the left rim ring comprises a plurality of rims evenly distributed around an axis of the inner ring and two adjacent rims are mutually connected to form a closed loop, and each rim of the left rim ring is in contact with the left outer ring and the inner ring ; the right rim ring comprises a plurality of rims evenly distributed around an axis of the inner ring and two adjacent rims are mutually connected to form a closed loop, and each rim of the right rim ring is in contact with the right outer ring and the inner ring ; each rim is parallel to the axis of the inner ring and is a tubular structure with a circular, an oval or a polygonal shape; wherein the left rim ring and the right rim ring are symmetrically arranged, and characterised in that a tubular structure of the left rim ring and the tubular structure of the right rim ring are longitudinally penetrated.
A plasticizer composition, comprising: an ester-based material, which comprises an isophthalate-based material including a compound represented by Formula 1 below and a terephthalate-based material including a compound represented by Formula 2 below; and epoxidized oil, wherein a weight ratio of the isophthalate-based material to the terephthalate-based material is 99:1 to 1:99: where each of R 1 and R 2 are the same or different, and each independently a C1 to C12 alkyl group; and where R 1 and R 2 are the same or different, and each independently a C1 to C12 alkyl group, and wherein the epoxidized oil is contained at 10 to 100 parts by weight with respect to 100 parts by weight of the ester-based material. an ester-based material, which comprises an isophthalate-based material including a compound represented by Formula 1 below and a terephthalate-based material including a compound represented by Formula 2 below; and epoxidized oil, wherein a weight ratio of the isophthalate-based material to the terephthalate-based material is 99:1 to 1:99: where each of R 1 and R 2 are the same or different, and each independently a C1 to C12 alkyl group; and where R 1 and R 2 are the same or different, and each independently a C1 to C12 alkyl group, and wherein the epoxidized oil is contained at 10 to 100 parts by weight with respect to 100 parts by weight of the ester-based material. where R 1 and R 2 are the same or different, and each independently a C1 to C12 alkyl group, and wherein the epoxidized oil is contained at 10 to 100 parts by weight with respect to 100 parts by weight of the ester-based material.
3D printing device having: a printing substrate ; a movable printing head which is configured for additively producing from a modelling material a component on the printing substrate ; a flexible printing space cover which, proceeding from the printing head , spans the printing substrate in such a manner that a closed printing space is formed between the printing head and the printing substrate , wherein a printing nozzle of the printing head for applying the modelling material protrudes into the printing space ; characterized by a support structure which comprises flexible support rods which run from the printing head to the printing substrate and which hold the printing space cover above the printing substrate . a printing substrate ; a movable printing head which is configured for additively producing from a modelling material a component on the printing substrate ; a flexible printing space cover which, proceeding from the printing head , spans the printing substrate in such a manner that a closed printing space is formed between the printing head and the printing substrate , wherein a printing nozzle of the printing head for applying the modelling material protrudes into the printing space ; characterized by a support structure which comprises flexible support rods which run from the printing head to the printing substrate and which hold the printing space cover above the printing substrate .
A small volume oral transmucosal drug delivery dissolvable dosage form for oral transmucosal administration to a subject, comprising: from 0.25 to 200 micrograms (mcg) of sufentanil and said dosage form has a volume of less than 20 μl or a mass of less than 20 mg, wherein the dosage form is a tablet.
A method for wireless communications at a user equipment , comprising: identifying , at the UE, pending data, wherein pending data includes data of at least one of a first data type or a second data type; transmitting a scheduling request for a grant of resources associated with the pending data, wherein resources associated with the first data type and resources associated with the second data type have transmission time intervals, TTIs, of different durations; receiving , in response to the scheduling request, an uplink grant indicating a set of resources associated with the pending data; and transmitting , using the set of resources indicated by the uplink grant at least one of the identified data of the first data type, or a buffer status report, BSR; the method further comprising, after the receiving of the uplink grant, identifying additional data of the first type or the second type; and transmitting, using the set of resources indicated by the uplink grant, the additional data of the first data type or the second data type, wherein transmitting comprises prioritizing the identified data of the first data type and a buffer status report corresponding to additional data of the first data type or the second data type, wherein the identified data of the first data type and the additional data of the first data type or the second data type are transmitted using the set of resources indicated by the uplink grant based at least in part on the prioritizing. identifying , at the UE, pending data, wherein pending data includes data of at least one of a first data type or a second data type; transmitting a scheduling request for a grant of resources associated with the pending data, wherein resources associated with the first data type and resources associated with the second data type have transmission time intervals, TTIs, of different durations; receiving , in response to the scheduling request, an uplink grant indicating a set of resources associated with the pending data; and transmitting , using the set of resources indicated by the uplink grant at least one of the identified data of the first data type, or a buffer status report, BSR; the method further comprising, after the receiving of the uplink grant, identifying additional data of the first type or the second type; and transmitting, using the set of resources indicated by the uplink grant, the additional data of the first data type or the second data type, wherein transmitting comprises prioritizing the identified data of the first data type and a buffer status report corresponding to additional data of the first data type or the second data type, wherein the identified data of the first data type and the additional data of the first data type or the second data type are transmitted using the set of resources indicated by the uplink grant based at least in part on the prioritizing.
A method for determining a flight path of an unmanned aerial vehicle , characterized in that , the method comprises: acquiring an initial flight path configured by an unmanned aerial vehicle management platform for the unmanned aerial vehicle ; determining a first group of accessible base stations for the unmanned aerial vehicle on the initial flight path; acquiring a second group of accessible base stations capable of providing continuous cellular network services for the unmanned aerial vehicle when the first group of accessible base stations are unable to provide the continuous cellular network services for the unmanned aerial vehicle ; determining a flight path corresponding to the second group of accessible base stations as a target flight path; acquiring a coverage area and load information of each of base stations in the first group of accessible base stations; determining serviceable base stations capable of serving the unmanned aerial vehicle based on the load information for each of the base stations; and determining that the first group of accessible base stations are unable to provide the continuous cellular network services for the unmanned aerial vehicle when the coverage areas of all of the serviceable base stations in the first group of accessible base stations do not fully cover the initial flight path. acquiring an initial flight path configured by an unmanned aerial vehicle management platform for the unmanned aerial vehicle ; determining a first group of accessible base stations for the unmanned aerial vehicle on the initial flight path; acquiring a second group of accessible base stations capable of providing continuous cellular network services for the unmanned aerial vehicle when the first group of accessible base stations are unable to provide the continuous cellular network services for the unmanned aerial vehicle ; determining a flight path corresponding to the second group of accessible base stations as a target flight path; acquiring a coverage area and load information of each of base stations in the first group of accessible base stations; determining serviceable base stations capable of serving the unmanned aerial vehicle based on the load information for each of the base stations; and determining that the first group of accessible base stations are unable to provide the continuous cellular network services for the unmanned aerial vehicle when the coverage areas of all of the serviceable base stations in the first group of accessible base stations do not fully cover the initial flight path.
Method for evaluating environment data which are at least partially derived from sensor data of at least one environment sensor , in a control device of a motor vehicle , wherein at least one evaluation step uses an environment data set as input data, wherein the environment data set is broken down into temporally and logically independent segment data sets which are evaluated in the evaluation step at least partially in temporally parallelised sub-steps (6, S3) by using a parallel processing architecture which in particular permits more than 100 temporally parallel computations, wherein one of the at least one evaluation step is a prediction with several hypotheses based on the current driving situation described by the sensor data, wherein different hypotheses described by segment data sets are calculated temporally in parallel as sub-steps (6, S3) with associated segment data sets , wherein the hypotheses comprise combinations of potential trajectories of dynamic objects described by the sensor data and are a portion of an environment model of the environment data set which additionally comprises an environment description.
Test needle for measuring an electrical contact or bonding wire for electrically contacting a chip, wherein the test needle or the bonding wire comprises a film, the film having a thickness of at most 100 μm, and the film having a layered composite made up of Cu layers of copper and/or a copper-based alloy with at least 90 wt.% copper, and refractory metal layers of a refractory metal from the group of niobium and tantalum, or refractory metal layers of a refractory metal-based alloy with at least 90 wt.% of at least one refractory metal from the group of niobium, tantalum, vanadium, tungsten, molybdenum, and chromium, wherein the layered composite comprises at least 125 Cu layers and 125 refractory metal layers per 10 μm thickness; and wherein the test needle has a thickness of between 2 μm and 100 μm, or the bonding wire has a cross-section of between 2 μm and 100 μm. wherein the layered composite comprises at least 125 Cu layers and 125 refractory metal layers per 10 μm thickness; and wherein the test needle has a thickness of between 2 μm and 100 μm, or the bonding wire has a cross-section of between 2 μm and 100 μm.
A method of determining phase offsets of multiple beams of a coherent beam combination device impinging on a target (T), the beams having associated adjustable phase modulators , the method comprising: (a) for each of said beams, actuating the corresponding phase modulator to modulate a current phase of the transmitted beam between at least three phase states; (b) while each phase modulator is actuated, monitoring an intensity parameter that varies as a function of an intensity of the radiation impinging on the target (T); (c) identifying variations in the intensity parameter resulting from the modulation of the current phase of each transmitted beam relative to the sum of all the other beams; and (d) calculating based on said variations a phase offset of the current phase of each beam relative to a representative phase of the sum of all the other beams, characterized in that the current phase of each transmitted beam is modulated at a modulation frequency ω, and wherein said identifying comprises identifying variations in the reflected intensity occurring at a first harmonic frequency ω that equals the modulation frequency and a second harmonic frequency 2ω that is twice said modulation frequency. (a) for each of said beams, actuating the corresponding phase modulator to modulate a current phase of the transmitted beam between at least three phase states; (b) while each phase modulator is actuated, monitoring an intensity parameter that varies as a function of an intensity of the radiation impinging on the target (T); (c) identifying variations in the intensity parameter resulting from the modulation of the current phase of each transmitted beam relative to the sum of all the other beams; and (d) calculating based on said variations a phase offset of the current phase of each beam relative to a representative phase of the sum of all the other beams,