mhurhangee/ep-ind-claims huggingface dataset:
Opto-electronic device, being adapted for processing optical and electric pulses, including - a photoconductor device including a sensor section which is made of a band gap material and which has electrical sensor contacts (12, 13), wherein the sensor section is arranged for an irradiation with ultra-short driving laser pulses being generated with a pulse source device and having a photon energy smaller than the energy band gap of the band gap material, and - a signal processing device which is connected with the sensor contacts (12, 13), wherein - the sensor section of the photoconductor device is adapted to create a pulse-shaped photocurrent between the sensor contacts (12, 13) in response to the irradiation of the sensor section with the driving laser pulses, characterized in that - the sensor section is adapted to create the photocurrent in response to the irradiation of the sensor section with the driving laser pulses, which have a few cycle electromagnetic waveform and a non-zero electric field component oriented parallel with a straight line perpendicular to edges of the electrical sensor contacts (12, 13) and which cause a charge carrier displacement in the band gap material, - the signal processing device comprises an amplifier circuit for amplifying and converting the photocurrent and generating an electric output signal being characteristic of the carrier-envelope phase (CE phase) of the driving laser pulses, and - the signal processing device is configured for an output of the electric output signal. - a photoconductor device including a sensor section which is made of a band gap material and which has electrical sensor contacts (12, 13), wherein the sensor section is arranged for an irradiation with ultra-short driving laser pulses being generated with a pulse source device and having a photon energy smaller than the energy band gap of the band gap material, and - a signal processing device which is connected with the sensor contacts (12, 13), wherein - the sensor section of the photoconductor device is adapted to create a pulse-shaped photocurrent between the sensor contacts (12, 13) in response to the irradiation of the sensor section with the driving laser pulses, - the sensor section is adapted to create the photocurrent in response to the irradiation of the sensor section with the driving laser pulses, which have a few cycle electromagnetic waveform and a non-zero electric field component oriented parallel with a straight line perpendicular to edges of the electrical sensor contacts (12, 13) and which cause a charge carrier displacement in the band gap material, - the signal processing device comprises an amplifier circuit for amplifying and converting the photocurrent and generating an electric output signal being characteristic of the carrier-envelope phase (CE phase) of the driving laser pulses, and - the signal processing device is configured for an output of the electric output signal.
A method for cross-subframe scheduling at a LTE-A user equipment supporting carrier aggregation and operating in TDD mode comprising: receiving, at the user equipment, an indication for scheduling a subframe, wherein the receiving comprises detecting a Downlink Control Information, DCI, for the user equipment and determining a starting Control Channel Element, CCE, index of a search space in which the DCI was detected, and wherein the indication comprises a cross-subframe scheduling index determined from the starting CCE index of the search space in which the DCI to the user equipment is detected; mapping the starting CCE index to the subframe, wherein mapping includes using the cross-subframe scheduling index to determine a total number of subsequent downlink subframes and subsequent special subframes after a current subframe during which the user equipment should detect the subframe; and detecting, based on the mapping, the subframe on a frequency at a time associated with the subframe. receiving, at the user equipment, an indication for scheduling a subframe, wherein the receiving comprises detecting a Downlink Control Information, DCI, for the user equipment and determining a starting Control Channel Element, CCE, index of a search space in which the DCI was detected, and wherein the indication comprises a cross-subframe scheduling index determined from the starting CCE index of the search space in which the DCI to the user equipment is detected; mapping the starting CCE index to the subframe, wherein mapping includes using the cross-subframe scheduling index to determine a total number of subsequent downlink subframes and subsequent special subframes after a current subframe during which the user equipment should detect the subframe; and detecting, based on the mapping, the subframe on a frequency at a time associated with the subframe.
A method in a coin-counting machine for providing a voucher said voucher having a value related to a plurality of randonly received coins total value, received by said machine and configured to assist in distinguishing unauthorized duplicate or counterfeit vouchers, the method comprising: providing a substrate with a thermally responsive first indicia defined in thermo-chromic ink on the substrate and having a visual appearance at a first temperature and a non-visible appearance at a second temperature greater that the first temperature; and printing on the substrate at the coin-counting machine at least a second indicia, the second indicia containing at least an indication of said value of the voucher. providing a substrate with a thermally responsive first indicia defined in thermo-chromic ink on the substrate and having a visual appearance at a first temperature and a non-visible appearance at a second temperature greater that the first temperature; and printing on the substrate at the coin-counting machine at least a second indicia, the second indicia containing at least an indication of said value of the voucher.
Clamp for holding a container by a neck in a container handling machine, said clamp comprising a body for mounting the clamp on a rotary support, a pair of resilient arms protruding sidewise from the body and each provided with a gripping jaw, wherein each resilient arm comprises: - an inner section extending along the body and connected thereto at a first back end junction; - an intermediate section extending substantially parallel to the inner section and connected thereto at a front end junction; - an outer section, provided, at a front end, witch a gripping jaw, and extending substantially parallel to the intermediate section and connected thereto at a second back end junction, and wherein the front end junction is loop-shaped, the front end junction partly projecting inwardly with respect of the inner section. - an inner section extending along the body and connected thereto at a first back end junction; - an intermediate section extending substantially parallel to the inner section and connected thereto at a front end junction; - an outer section, provided, at a front end, witch a gripping jaw, and extending substantially parallel to the intermediate section and connected thereto at a second back end junction,
Process for preparing a polyurethane polymer, comprising the step of: I) mixing a first reactant component comprising a polyisocyanate with a second reactant component comprising a compound having Zerewitinoff-active hydrogen atoms in a mixing vessel to obtain a reaction mixture, characterized in that the first reactant component and/or the second reactant component are contacted with a catalyst bed before they are mixed in the mixing vessel and/or the reaction mixture is contacted with a catalyst bed, wherein the catalyst bed contains a catalyst reversibly sorbed on a substrate, the catalyst catalyses the reaction of isocyanate groups with themselves or with Zerewitinoff-active compounds and the catalyst is released into the first component, second component or reaction mixture that is in contact with the catalyst bed, such that a reaction mixture containing the catalyst is obtained. I) mixing a first reactant component comprising a polyisocyanate with a second reactant component comprising a compound having Zerewitinoff-active hydrogen atoms in a mixing vessel to obtain a reaction mixture, the first reactant component and/or the second reactant component are contacted with a catalyst bed before they are mixed in the mixing vessel and/or the reaction mixture is contacted with a catalyst bed, wherein the catalyst bed contains a catalyst reversibly sorbed on a substrate, the catalyst catalyses the reaction of isocyanate groups with themselves or with Zerewitinoff-active compounds and the catalyst is released into the first component, second component or reaction mixture that is in contact with the catalyst bed, such that a reaction mixture containing the catalyst is obtained.
A biomaterial, in particular for tissue regeneration, comprising an openly porous, bioabsorbable first material fraction and a second material fraction that is stiffer than the first material fraction and forms a load-bearing support structure, wherein the volume fraction of the stiffer material is less than 30 % of the total volume of the biomaterial, wherein the total volume consists of the volume of the biomaterial and the volume of voids enclosed by the biomaterial, the structural stiffness of the second material fraction is at least 10 times higher than that of the first material fraction, and the second material fraction is an integral part of the biomaterial surrounded by the first material fraction, as in an endoskeleton, such that the first material fraction is structurally integrated into the second material fraction in a form-fitting manner.
A pre-stressed curved plate comprising: a curved ceramic plate having at least one concave surface; and reinforcing fibers, that are wound around the ceramic plate, characterized in that the curved ceramic plate is enveloped with the reinforcing fibers, and the reinforcing fibers are under tension and adhesively bonded to the at least one concave surface, whereby the curved ceramic plate is maintained under compression stress. a curved ceramic plate having at least one concave surface; and reinforcing fibers, that are wound around the ceramic plate, characterized in that the curved ceramic plate is enveloped with the reinforcing fibers, and the reinforcing fibers are under tension and adhesively bonded to the at least one concave surface, whereby the curved ceramic plate is maintained under compression stress.
A hollow member (11, 12, 13) having a hollow body made of steel, wherein: the body is constituted by a single member at least in the lengthwise direction, the body has a non-equidimensional cross section having at least a portion with a maximum outer dimension and a portion with an outer dimension shorter than the maximum outer dimension, the body has a twisted portion, the angle of intersection between an imaginary plane including a portion having the maximum outer dimension in a first portion present on one side adjacent to the twisted portion in the lengthwise direction of the body and an imaginary plane including a portion with the maximum outer dimension in a second portion present on the other side adjacent to the twisted portion in the lengthwise direction of the body is non-zero, the twisted portion has a tensile strength of at least 780 MPa, characterised in that the ratio of the maximum outer dimension divided by the shorter outer dimension is at least 1.2, and angle (θ) of intersection is at least 4 degrees, and in that the body is formed by twisting in a hot state in a portion of its length. the body is constituted by a single member at least in the lengthwise direction, the body has a non-equidimensional cross section having at least a portion with a maximum outer dimension and a portion with an outer dimension shorter than the maximum outer dimension, the body has a twisted portion, the angle of intersection between an imaginary plane including a portion having the maximum outer dimension in a first portion present on one side adjacent to the twisted portion in the lengthwise direction of the body and an imaginary plane including a portion with the maximum outer dimension in a second portion present on the other side adjacent to the twisted portion in the lengthwise direction of the body is non-zero, the twisted portion has a tensile strength of at least 780 MPa, characterised in that the ratio of the maximum outer dimension divided by the shorter outer dimension is at least 1.2, and angle (θ) of intersection is at least 4 degrees, and in that the body is formed by twisting in a hot state in a portion of its length.
Impeller of a centrifugal turbo-compressor, wherein said impeller comprises a base element of a base material comprising blades being arranged along a circumferential direction of a rotational axis, wherein said blades comprise a leading edge and a trailing edge, wherein said leading edge and said trailing edge belong to a surface treatment zone, wherein at least part of said surface treatment zone is a layer system comprising a base material of a base element, wherein said layer system extends in a border area of said base element up to an outer surface, wherein said layer system comprises at least one layer of cladding material (LCM1-LCMn) provided onto the base material, characterized in that at least the outermost layer of cladding material (LCMn) at least partly belongs to a compressive residual stress layer (CRSL), wherein said compressive residual stress layer (CRSL) extends from said outer surface at least into the outermost layer of cladding material (LCMn).
A subframe configuration method, comprising: determining a configuration of second type subframes according to a configuration of first type subframes and a bitmap sequence of subframe configuration of a resource pool, wherein the second type subframes are reserved subframes, and mapping of the bitmap sequence is not performed on the reserved subframes; and mapping the bitmap sequence of the subframe configuration of the resource pool according to the configuration of the first type subframes and the configuration of the second type subframes; characterized in that the determining the configuration of the second type subframes according to the configuration of the first type subframes and the bitmap sequence of the subframe configuration of the resource pool comprises: determining a quantity Nr of the second type subframes according to a quantity No of the first type subframes and a length L of the bitmap sequence; wherein Nr is equal to a modulo calculation result of a quantity Ns of basic subframes by the length L of the bitmap sequence, wherein the basic subframes are remaining subframes obtained by excluding the first type subframes from all system subframes within a range of system subframe sequence numbers, No and Nr are non-negative integers, and L is a positive integer. determining a configuration of second type subframes according to a configuration of first type subframes and a bitmap sequence of subframe configuration of a resource pool, wherein the second type subframes are reserved subframes, and mapping of the bitmap sequence is not performed on the reserved subframes; and mapping the bitmap sequence of the subframe configuration of the resource pool according to the configuration of the first type subframes and the configuration of the second type subframes; characterized in that the determining the configuration of the second type subframes according to the configuration of the first type subframes and the bitmap sequence of the subframe configuration of the resource pool comprises: determining a quantity Nr of the second type subframes according to a quantity No of the first type subframes and a length L of the bitmap sequence; wherein Nr is equal to a modulo calculation result of a quantity Ns of basic subframes by the length L of the bitmap sequence, wherein the basic subframes are remaining subframes obtained by excluding the first type subframes from all system subframes within a range of system subframe sequence numbers, No and Nr are non-negative integers, and L is a positive integer. determining a quantity Nr of the second type subframes according to a quantity No of the first type subframes and a length L of the bitmap sequence; wherein Nr is equal to a modulo calculation result of a quantity Ns of basic subframes by the length L of the bitmap sequence, wherein the basic subframes are remaining subframes obtained by excluding the first type subframes from all system subframes within a range of system subframe sequence numbers, No and Nr are non-negative integers, and L is a positive integer.
A work vehicle comprising: - a vehicle body; - front wheels with a front wheel shaft; - rear wheels with a rear wheel shaft; - an obstacle detection module configured to detect presence or absence of an obstacle; - a travel regulation control unit configured to control travel of the vehicle body upon the obstacle detection module detecting an obstacle; and - an electronic control system comprising the obstacle detection module and the travel regulation control unit and configured for automated driving that automatically drives the vehicle body, wherein the obstacle detection module includes an obstacle detector that is configured to detect an obstacle present in a Z r planar J Z detection-target area Z located on a front side and a lateral side of a main part of the vehicle body; and wherein the obstacle detector is located - between, in at least one of a right direction and a left direction, an outer end of a hood and an outermost position of a rearview mirror, and - between the front wheel shaft of the front wheels and the rear wheel shaft of the rear wheels in a front-rear direction of the work vehicle; characterized in that the obstacle detector is, in an up-down direction, located between an upper end portion of the hood and an upper end portion of the front wheel, and the planar detection-target area is inclined downward toward the front of the vehicle body and downward from a laterally inner side of the vehicle body to a laterally outer side of the vehicle body. - a vehicle body; - front wheels with a front wheel shaft; - rear wheels with a rear wheel shaft; - an obstacle detection module configured to detect presence or absence of an obstacle; - a travel regulation control unit configured to control travel of the vehicle body upon the obstacle detection module detecting an obstacle; and - an electronic control system comprising the obstacle detection module and the travel regulation control unit and configured for automated driving that automatically drives the vehicle body, wherein the obstacle detection module includes an obstacle detector that is configured to detect an obstacle present in a Z r planar J Z detection-target area Z located on a front side and a lateral side of a main part of the vehicle body; and wherein the obstacle detector is located wherein the obstacle detection module includes an obstacle detector that is configured to detect an obstacle present in a Z r planar J Z detection-target area Z located on a front side and a lateral side of a main part of the vehicle body; and wherein the obstacle detector is located - between, in at least one of a right direction and a left direction, an outer end of a hood and an outermost position of a rearview mirror, and - between the front wheel shaft of the front wheels and the rear wheel shaft of the rear wheels in a front-rear direction of the work vehicle;
Exterior aircraft light (2, 202, 302) comprising: a housing configured to be mounted to an exterior portion of an aircraft, at least one light source mounted to the housing, a lens cover, cooperating with the housing for forming an inner space of the exterior aircraft light, such that light from the at least one light source can leave the exterior aircraft light (2, 202, 302) through the lens cover into an outside environment of the aircraft, and a gasket arranged between the housing and the lens cover, characterized in that the gasket has at least one flap portion forming at least one check valve for fluid discharge from the inner space of the exterior aircraft light towards the outside environment of the aircraft. a housing configured to be mounted to an exterior portion of an aircraft, at least one light source mounted to the housing, a lens cover, cooperating with the housing for forming an inner space of the exterior aircraft light, such that light from the at least one light source can leave the exterior aircraft light (2, 202, 302) through the lens cover into an outside environment of the aircraft, and a gasket arranged between the housing and the lens cover, characterized in that the gasket has at least one flap portion forming at least one check valve for fluid discharge from the inner space of the exterior aircraft light towards the outside environment of the aircraft.
A preparation method of a battery composite material, comprising steps of: (a) providing phosphoric acid, manganese carbonate, water and a first reactant, wherein the formula of the phosphoric acid is written by H 3 PO 4, the first reactant is lithium carbonate, and the formula of the lithium carbonate is written by Li 2 CO 3; (b) processing a reaction of the phosphoric acid, the manganese carbonate and the water to produce a first product; (c) calcining the first product to produce a precursor, wherein the formula of the precursor is written by Mn 2 P 2 O 7; and (d) processing a reaction of the precursor and at least the first reactant to obtain a reaction mixture, and then calcining the reaction mixture to produce the battery composite material, wherein the step (d) further comprises steps of: mixing the precursor and at least the first reactant; adding water or solvent for grinding and drying to remove the water or the solvent; performing a high-temperature calcination, wherein the high-temperature calcination is performed at a temperature between 550°C and 750°C for at least 8 to 12 hours in nitrogen atmosphere; and producing the battery composite material. (a) providing phosphoric acid, manganese carbonate, water and a first reactant, wherein the formula of the phosphoric acid is written by H 3 PO 4, the first reactant is lithium carbonate, and the formula of the lithium carbonate is written by Li 2 CO 3; (b) processing a reaction of the phosphoric acid, the manganese carbonate and the water to produce a first product; (c) calcining the first product to produce a precursor, wherein the formula of the precursor is written by Mn 2 P 2 O 7; and (d) processing a reaction of the precursor and at least the first reactant to obtain a reaction mixture, and then calcining the reaction mixture to produce the battery composite material, wherein the step (d) further comprises steps of: mixing the precursor and at least the first reactant; adding water or solvent for grinding and drying to remove the water or the solvent; performing a high-temperature calcination, wherein the high-temperature calcination is performed at a temperature between 550°C and 750°C for at least 8 to 12 hours in nitrogen atmosphere; and producing the battery composite material. mixing the precursor and at least the first reactant; adding water or solvent for grinding and drying to remove the water or the solvent; performing a high-temperature calcination, wherein the high-temperature calcination is performed at a temperature between 550°C and 750°C for at least 8 to 12 hours in nitrogen atmosphere; and producing the battery composite material.