mhurhangee/ep-ind-claims huggingface dataset:
Electrical radiator comprising a support frame into which an electrical heating body is inserted, the front face of the said frame being provided with a front wall, the inner face of which absorbs the radiant energy generated by the said heating body and the outer face of which releases all or part of the said absorbed energy, the said inner face having radiant energy transfer regions with different emissivities, which affect the radiant energy released by the said outer face and the temperature of the said front wall, the inner face having regions covered with a coating and regions not covered by the said coating, the said coating having an emissivity different from that of the said inner face, characterized in that the uncovered regions are regions cut out from or bored into the coating, which regions have an emissivity corresponding to the initial emissivity of the inner face.
A method for sensing a respective position of the installation location (F1,..., Fi) of slave units (SE1,..., SEi) in a respective operating region (A1,..., Ai) of a system, comprising a number i of adjacent operating regions (A1,..., Ai) each having a slave unit (SE1,..., SEi), wherein each operating region (A1,..., Ai) during operation of the installation should have a respective predetermined physical state, for the purpose of which the individual slave units (SE1,..., SEi) have an operating function for achieving or changing the physical state in the operating region (A1,..., Ai) in question of the system, and wherein a respective sensor (S1,..., Si), in order to sense a measurement variable proportional to the physical state, and an evaluation device is provided in the operating region (A1,..., Ai) in question, having the following steps: a. allocation or determining of a network address (Ni) of a slave unit (SE1,..., SEi) by means of an auto-addressing method by means of the evaluation device; b. activating or changing of the operating function of this respective slave unit in order to reach or change the physical state in the operating region (A1,..., Ai) in question; c. sensing of a detectable state change in the operating units (A1,..., Ai) by measuring the respective measurement variables as a function of time by means of the sensors (S1,..., Si); d. associating of the installation location (F1,..., Fi) in the operating region (A1,..., Ai) with the greatest measured change of the measurement variable with the network address (Ni) of the respective slave unit by means of the evaluation device. a. allocation or determining of a network address (Ni) of a slave unit (SE1,..., SEi) by means of an auto-addressing method by means of the evaluation device; b. activating or changing of the operating function of this respective slave unit in order to reach or change the physical state in the operating region (A1,..., Ai) in question; c. sensing of a detectable state change in the operating units (A1,..., Ai) by measuring the respective measurement variables as a function of time by means of the sensors (S1,..., Si); d. associating of the installation location (F1,..., Fi) in the operating region (A1,..., Ai) with the greatest measured change of the measurement variable with the network address (Ni) of the respective slave unit by means of the evaluation device.
A mounting device (10, 10') for an anti-fouling system of a vessel, the mounting device (10, 10') comprising: a securing means (14, 14') for securing the mounting device (10, 10') to an inlet (22a, 22a') or outlet of a cooling system of the vessel; and a transducer plate (12, 12') operatively coupled to the securing means (14, 14') for vibrationally coupling an ultrasonic transducer to the cooling system of the vessel; characterised in that: the securing means comprises a collar (14, 14') configured to be mounted about a standpipe of the inlet (22a, 22a') or outlet of the cooling system of the vessel. a securing means (14, 14') for securing the mounting device (10, 10') to an inlet (22a, 22a') or outlet of a cooling system of the vessel; and a transducer plate (12, 12') operatively coupled to the securing means (14, 14') for vibrationally coupling an ultrasonic transducer to the cooling system of the vessel; characterised in that: the securing means comprises a collar (14, 14') configured to be mounted about a standpipe of the inlet (22a, 22a') or outlet of the cooling system of the vessel.
Method for determining appropriate products adapted for healing a wound, comprising steps of: Determining values (p 1, p 2...p N) for physical properties of said wound, visually or by measurements, and entering said values into an automatic classification system through a communication terminal; Determining by said automatic classification system a class for said wound corresponding to said values, by forming a vector with said values which identifies a unique class; Inputting said class into an automatic matching system for determining an identification (Id) of a kit corresponding to said class according to a database associating classes for wounds and identifications of kits, each of said kit comprising at least one product adapted for healing said wound; Providing said identification (Id), wherein the method further comprises the steps of: Evaluating by a prediction system at least a future state for said wound and determining subsequent classes corresponding to said at least a future state on the basis of the determined class of the wound; Inputting said subsequent classes into the automatic matching system; Determining and providing subsequent identifications (Id 1,..., Id M) of kits corresponding to said at least a future state. Determining values (p 1, p 2...p N) for physical properties of said wound, visually or by measurements, and entering said values into an automatic classification system through a communication terminal; Determining by said automatic classification system a class for said wound corresponding to said values, by forming a vector with said values which identifies a unique class; Inputting said class into an automatic matching system for determining an identification (Id) of a kit corresponding to said class according to a database associating classes for wounds and identifications of kits, each of said kit comprising at least one product adapted for healing said wound; Providing said identification (Id), Evaluating by a prediction system at least a future state for said wound and determining subsequent classes corresponding to said at least a future state on the basis of the determined class of the wound; Inputting said subsequent classes into the automatic matching system; Determining and providing subsequent identifications (Id 1,..., Id M) of kits corresponding to said at least a future state.
A high-strength steel wire rod excellent in raw drawability comprising in mass%: C: 0.70 to 1.10%, Si: 0.1 to 1.5%, Mn: 0.1 to 1.0% Al: 0.01% or less, Ti: 0.01% or less, N: 10 to 60 mass ppm, B: not less than (0.77 x N (mass ppm) - 17.4) mass ppm or 5 mass ppm, whichever is greater, and not greater than 52 mass ppm, optionally one or more members selected from the group consisting of: Cr: 0.03 to 0.5%, Ni: 0.5% or less, but not including 0%, Co: 0.5% or less, but not including 0%, V: 0.03 to 0.5%, Cu: 0.2% or less, but not including 0%, Mo: 0.2% or less, but not including 0%, W: 0.2% or less, but not including 0%, and Nb: 0.1% or less, but not including 0%, and the balance of Fe and unavoidable impurities, the wire rod comprising a pearlite structure of an area ratio of 97% or greater and a balance of non-pearlite structures including bainite, degenerate-pearlite and pro-eutectoid ferrite and having a pearlite block size of not less than 20 μm and not greater than 45 μm. C: 0.70 to 1.10%, Si: 0.1 to 1.5%, Mn: 0.1 to 1.0% Al: 0.01% or less, Ti: 0.01% or less, N: 10 to 60 mass ppm, B: not less than (0.77 x N (mass ppm) - 17.4) mass ppm or 5 mass ppm, whichever is greater, and not greater than 52 mass ppm, optionally one or more members selected from the group consisting of: Cr: 0.03 to 0.5%, Ni: 0.5% or less, but not including 0%, Co: 0.5% or less, but not including 0%, V: 0.03 to 0.5%, Cu: 0.2% or less, but not including 0%, Mo: 0.2% or less, but not including 0%, W: 0.2% or less, but not including 0%, and Nb: 0.1% or less, but not including 0%, and Cr: 0.03 to 0.5%, Ni: 0.5% or less, but not including 0%, Co: 0.5% or less, but not including 0%, V: 0.03 to 0.5%, Cu: 0.2% or less, but not including 0%, Mo: 0.2% or less, but not including 0%, W: 0.2% or less, but not including 0%, and Nb: 0.1% or less, but not including 0%, and
A nucleic acid molecule for inducing an immune response against HCV comprising a coding sequence encoding one or more proteins selected from the group consisting of: SEQ ID NO:2; a protein that is 99% identical to SEQ ID NO:2; and an immunogenic fragment of SEQ ID NO:2, wherein the immunogenic fragment comprises at least 270 amino acids of SEQ ID NO:2. SEQ ID NO:2; a protein that is 99% identical to SEQ ID NO:2; and an immunogenic fragment of SEQ ID NO:2, wherein the immunogenic fragment comprises at least 270 amino acids of SEQ ID NO:2.
A method of forming a front contact for use in a thin film photovoltaic device, the method comprising: forming a transparent conductive oxide layer on a transparent substrate; forming an oxygen getter layer (13, 15) on the transparent substrate; characterized in that the method further comprises: annealing the transparent conductive oxide layer and the oxygen getter layer (13, 15) together such that oxygen atoms move from the transparent conductive oxide layer into the oxygen getter layer (13, 15). forming a transparent conductive oxide layer on a transparent substrate; forming an oxygen getter layer (13, 15) on the transparent substrate; annealing the transparent conductive oxide layer and the oxygen getter layer (13, 15) together such that oxygen atoms move from the transparent conductive oxide layer into the oxygen getter layer (13, 15).
A composition obtained from a spray-drying process comprising (i) one or more active agents selected from the group consisting of butyl resorcinol, pentyl resorcinol, hexyl resorcinol, heptyl resorcinol, octyl resorcinol, nonyl resorcinol, decylresorcinol, phenylethyl resorcinol, phenylpropyl resorcinol, phenylbutyl resorcinol, phenylhexyl resorcinol, toluoylethyl resorcinol, toluoylpropyl resorcinol, toluoylbutyl resorcinol, toluoylhexyl resorcinol, methoxytoluoylethyl resorcinol, methoxytoluoylpropyl resorcinol, methoxytoluoylbutyl resorcinol, methoxyltoluoylhexyl resorcinol, dimethoxytoluoylethyl resorcinol, dimethoxytoluoylpropyl resorcinol, dimethoxytoluoylbutyl resorcinol, dimethoxytoluoylhexyl resorcinol or mixtures thereof, and (ii) one or more carrier materials which are selected from the group consisting of maltodextrin and/or caprylic/capric triglyceride or a mixture thereof. (i) one or more active agents selected from the group consisting of butyl resorcinol, pentyl resorcinol, hexyl resorcinol, heptyl resorcinol, octyl resorcinol, nonyl resorcinol, decylresorcinol, phenylethyl resorcinol, phenylpropyl resorcinol, phenylbutyl resorcinol, phenylhexyl resorcinol, toluoylethyl resorcinol, toluoylpropyl resorcinol, toluoylbutyl resorcinol, toluoylhexyl resorcinol, methoxytoluoylethyl resorcinol, methoxytoluoylpropyl resorcinol, methoxytoluoylbutyl resorcinol, methoxyltoluoylhexyl resorcinol, dimethoxytoluoylethyl resorcinol, dimethoxytoluoylpropyl resorcinol, dimethoxytoluoylbutyl resorcinol, dimethoxytoluoylhexyl resorcinol or mixtures thereof, and (ii) one or more carrier materials which are selected from the group consisting of maltodextrin and/or caprylic/capric triglyceride or a mixture thereof.
A nanocomposite comprising: - a polymer composition, comprising at least one polymer; and - at least 0.001 % by weight of carbon nanotubes, relative to the total weight of the nanocomposite; wherein the carbon nanotubes are functionalized with a silane and the Si/C ratio of the carbon nanotubes is at most 0.01 or wherein the carbon nanotubes are functionalized with a modified polyolefin substituted by one or more substituents each independently selected from the group comprising C 2-6 alkenyl, oxiranyl or hydroxyl; wherein the silane has the general formula: R 1 -Si(R 2)(R 3)(R 4) wherein R1 is selected from the group comprising C 3-8 alkyl, C 3-8 alkenyl and C 3-8 hydroxyalkyl, optionally substituted by vinyl, oxiranyl, hydroxyl, NR 5 R 6, halogen, C 1-8 alkyl, C 1-8 alkenyl and C 1-8 hydroxyalkyl; and R 2, R 3 and R 4 are each independently selected from hydrogen, hydroxyl, C 1-8 alkyl, C 1-8 alkoxy or C 1-8 alkenyloxy, at least one of R 2, R 3 or R 4 being hydrogen; and R 5 and R 6 are each independently selected from hydrogen or C 1-8 alkyl. - a polymer composition, comprising at least one polymer; and - at least 0.001 % by weight of carbon nanotubes, relative to the total weight of the nanocomposite;
A gear shift indication device (67, 68) applied to a vehicle provided with a driving force transfer system capable of transfer of a driving force from a driving force source to drive wheels (6a, 6b) and also capable of manual gear selection, said indication device (67, 68) prompting a driver to shift gears, the driving force transfer system being capable of shifting gears in an automatic gear shift mode and manual gear shift mode, characterised by the driving force transfer system including a continuously variable transmission mechanism capable of continuously variable gear ratio, the continuously variable transmission mechanism allowing for switching between multiple gear ratios in the manual gear shift mode, the driving force source having a minimum rotational speed specified for each gear such that the specified minimum rotational speed increases as the gear ratio increases, and if the driving force source has a rotational speed having decreased to the minimum rotational speed, or having so decreased that a deviation of the rotational speed from the minimum rotational speed is less than or equal to a predetermined value, said indication device (67, 68) being configured to prompt the driver to upshift to a gear which allows for a minimum rotational speed lower than a current minimum rotational speed.
A communications device (100, 200, 300) for improving frequency band support, comprising: a radio frequency signal processing device arranged to process a plurality of radio frequency signals to generate a plurality of baseband signals; a baseband signal processing device (110, 210, 310) arranged to process the baseband signals; a memory device (140, 240, 340); and a processor (130, 230, 330) arranged to execute program codes stored in the memory device, to improve frequency band support, said processor being arranged to: determine whether the communications device (100, 200, 300) supports at least one frequency band of a first type of communication service supported by a network when the communications device (100, 200, 300) is camped on a cell using a second type of communication service; characterized in that said processor is further arranged to: perform a scanning procedure according to a priority when the communications device (100, 200, 300) does not support the at least one frequency band, wherein the first type of communication service has a higher priority than the second type of communication service; wherein the scanning procedure includes scanning all frequency bands of the first type of communication service supported by the communications device (100, 200, 300). a radio frequency signal processing device arranged to process a plurality of radio frequency signals to generate a plurality of baseband signals; a baseband signal processing device (110, 210, 310) arranged to process the baseband signals; a memory device (140, 240, 340); and a processor (130, 230, 330) arranged to execute program codes stored in the memory device, to improve frequency band support, said processor being arranged to: determine whether the communications device (100, 200, 300) supports at least one frequency band of a first type of communication service supported by a network when the communications device (100, 200, 300) is camped on a cell using a second type of communication service; characterized in that said processor is further arranged to: perform a scanning procedure according to a priority when the communications device (100, 200, 300) does not support the at least one frequency band, wherein the first type of communication service has a higher priority than the second type of communication service; wherein the scanning procedure includes scanning all frequency bands of the first type of communication service supported by the communications device (100, 200, 300). perform a scanning procedure according to a priority when the communications device (100, 200, 300) does not support the at least one frequency band, wherein the first type of communication service has a higher priority than the second type of communication service; wherein the scanning procedure includes scanning all frequency bands of the first type of communication service supported by the communications device (100, 200, 300).
A method of generating a whitelist of clean files for use in malware scanning, the whitelist indicating one or more files that should be scanned using a data verification operation in preference to a malware scanning operation, the method being characterised by: receiving, for each respective one of a plurality of files determined not to contain malware, data associated with the file, and determining whether said data indicates that a time associated with processing the file according to said malware scanning operation exceeds a predetermined time; and for each file for which it is determined that a time associated with processing that file according to said malware scanning operation exceeds a predetermined time, including the file in the whitelist and generating stored data that includes identification data used to identify the file and hash data to be used to perform a data verification operation. receiving, for each respective one of a plurality of files determined not to contain malware, data associated with the file, and determining whether said data indicates that a time associated with processing the file according to said malware scanning operation exceeds a predetermined time; and for each file for which it is determined that a time associated with processing that file according to said malware scanning operation exceeds a predetermined time, including the file in the whitelist and generating stored data that includes identification data used to identify the file and hash data to be used to perform a data verification operation.
A method for determining phase connections of grid components (110, 112, 113; GC1~GCn) in a power grid, the method comprising: assessing a relative similarity of time series of measured voltage data of the grid components (110, 112, 113; GC1~GCn) by clustering the time series of measured voltage data of the grid components (110, 112, 113; GC1~GCn); grouping the grid components (110, 112, 113; GC1~GCn) into a plurality of clusters based on the assessing a relative similarity; and assessing a phase connection of the grid components (110, 112, 113; GC1~GCn) in each cluster of the plurality of clusters, characterised in that: the assessing a phase connection is based on determining a majority of a reference phase connection of the grid components (110, 112, 113; GC1~GCn) in at least one cluster of the plurality of clusters and assessing the phase connection of the majority to be the phase connection of the grid components (110, 112, 113; GC1~GCn) in the at least one cluster. assessing a relative similarity of time series of measured voltage data of the grid components (110, 112, 113; GC1~GCn) by clustering the time series of measured voltage data of the grid components (110, 112, 113; GC1~GCn); grouping the grid components (110, 112, 113; GC1~GCn) into a plurality of clusters based on the assessing a relative similarity; and assessing a phase connection of the grid components (110, 112, 113; GC1~GCn) in each cluster of the plurality of clusters, characterised in that: the assessing a phase connection is based on determining a majority of a reference phase connection of the grid components (110, 112, 113; GC1~GCn) in at least one cluster of the plurality of clusters and assessing the phase connection of the majority to be the phase connection of the grid components (110, 112, 113; GC1~GCn) in the at least one cluster.
An apparatus for communicating data, comprising a cell site element associated with a base transceiver station, wherein the cell site is operable to: receive a plurality of bits associated with a communications flow; position unique samples that are included in the flow in a frame to be communicated to a next destination; determine whether one or more samples included in the flow should be suppressed by evaluating bit positions of a current sample of a current frame and comparing those with the same bit positions of the respective sample of a previous frame to determine whether to perform a suppression operation associated with the flow; suppress a selected one or more of the samples; transmit a sample if the sample has changed in comparison to the respective sample in the previous frame; and retransmit certain samples when a given sample has stopped changing, in comparison to a previously received sample, for a configured time interval. receive a plurality of bits associated with a communications flow; position unique samples that are included in the flow in a frame to be communicated to a next destination; determine whether one or more samples included in the flow should be suppressed by evaluating bit positions of a current sample of a current frame and comparing those with the same bit positions of the respective sample of a previous frame to determine whether to perform a suppression operation associated with the flow; suppress a selected one or more of the samples; transmit a sample if the sample has changed in comparison to the respective sample in the previous frame; and retransmit certain samples when a given sample has stopped changing, in comparison to a previously received sample, for a configured time interval.