mhurhangee/ep-ind-claims huggingface dataset:
A method for adjusting photography parameters of a photographic device, the method comprising the steps of: determining a pupil size of a photographer by using the photographic device; determining a status of a subject to be photographed, the status comprising a motion status and a motionless status; adjusting the photography parameters of the photographic device according to the pupil size, the photography parameters comprising an aperture size, a shutter speed, and an ISO value; and adjusting the shutter speed or the ISO value according to the status of the subject; wherein the step of determining a status of a subject comprises the steps of: obtaining an image of the subject; identifying the subject and a background from the image of the subject; and determining the status of the subject according to a motion property of the subject and a characteristic of the background; or, obtaining at least two images of the subject in time order; and determining the status of the subject according to a motion characteristic of the subject in the at least two images of the subject. determining a pupil size of a photographer by using the photographic device; determining a status of a subject to be photographed, the status comprising a motion status and a motionless status; adjusting the photography parameters of the photographic device according to the pupil size, the photography parameters comprising an aperture size, a shutter speed, and an ISO value; and adjusting the shutter speed or the ISO value according to the status of the subject; wherein the step of determining a status of a subject comprises the steps of: obtaining an image of the subject; identifying the subject and a background from the image of the subject; and determining the status of the subject according to a motion property of the subject and a characteristic of the background; or, obtaining an image of the subject; identifying the subject and a background from the image of the subject; and determining the status of the subject according to a motion property of the subject and a characteristic of the background; obtaining at least two images of the subject in time order; and determining the status of the subject according to a motion characteristic of the subject in the at least two images of the subject.
A method for calibrating a multiport amplifier comprising a plurality of input ports (PE1 - PE4), a plurality of power amplifiers (PA1 - PA4) connected to said input ports by means of a signal distribution matrix and a plurality of output ports (PS1 - PS4) connected to said power amplifiers by means of a signal recombination matrix, said signal distribution and recombination matrices being adapted to distribute a signal present on one of said input ports between a plurality of said power amplifiers and to recombine said amplified signal on one of said output ports, a signal weighting element (EP1 - EP4) being associated with each of said power amplifiers, said method being characterised in that it comprises the following steps: a) determining a mean normalised intercorrelation between an output signal present on one of said output ports, taken as reference, and the signals present on said other output ports; and b) iteratively adjusting the weights of said weighting elements so as to minimise said mean normalised intercorrelation or render it lower than a predetermined threshold. a) determining a mean normalised intercorrelation between an output signal present on one of said output ports, taken as reference, and the signals present on said other output ports; and b) iteratively adjusting the weights of said weighting elements so as to minimise said mean normalised intercorrelation or render it lower than a predetermined threshold.
An apparatus comprising: decoder circuitry to decode a single instruction to generate a decoded instruction, the decoded instruction including one or more fields to identify a source/destination operand which as a source provides an identity challenge for a physically unclonable function, PUF, circuit to generate a wrapping/unwrapping key and as a destination to store an operation status after execution, one or more fields to identify a first source operand which is to provide an indication of a signature algorithm to use, one or more fields to identify a second source operand which is to store or encode a location of an input data structure to hold the wrapping/unwrapping key to use during execution and data to be decrypted, and one or more fields to identify a destination operand that is to store or encode a location of where a signed response generated during execution is to be placed, wherein an opcode is to indicate that execution circuitry is to at least decrypt secret information from the input data structure of the second source operand with the PUF generated wrapping/unwrapping key, generate a signed response of the decrypted secret information using the identity challenge of the source/destination operand according to the signature algorithm indicated by the first source operand, store the signed response in an identified destination, and store operational status of execution in the identified source/destination operand; and execution circuitry to execute the decoded instruction according to the opcode. decoder circuitry to decode a single instruction to generate a decoded instruction, the decoded instruction including one or more fields to identify a source/destination operand which as a source provides an identity challenge for a physically unclonable function, PUF, circuit to generate a wrapping/unwrapping key and as a destination to store an operation status after execution, one or more fields to identify a first source operand which is to provide an indication of a signature algorithm to use, one or more fields to identify a second source operand which is to store or encode a location of an input data structure to hold the wrapping/unwrapping key to use during execution and data to be decrypted, and one or more fields to identify a destination operand that is to store or encode a location of where a signed response generated during execution is to be placed, wherein an opcode is to indicate that execution circuitry is to at least decrypt secret information from the input data structure of the second source operand with the PUF generated wrapping/unwrapping key, generate a signed response of the decrypted secret information using the identity challenge of the source/destination operand according to the signature algorithm indicated by the first source operand, store the signed response in an identified destination, and store operational status of execution in the identified source/destination operand; and execution circuitry to execute the decoded instruction according to the opcode.
A light source assembly, comprising: a radiator and an LED light source; the radiator is a radiator of semicircular column, wherein the LED light source is attached on the horizontal end face of the radiator characterized in that the LED light source is attached on the horizontal end face of the radiator through a graphene-containing heat-conducting silicone grease, wherein the semicircular entire outer surface of the semicircular column of the radiator is sprayed with a graphene-containing fluororesin material, wherein the semicircular surface of the radiator is shaped into a hollow grille. wherein the LED light source is attached on the horizontal end face of the radiator characterized in that the LED light source is attached on the horizontal end face of the radiator through a graphene-containing heat-conducting silicone grease, wherein the semicircular entire outer surface of the semicircular column of the radiator is sprayed with a graphene-containing fluororesin material, wherein the semicircular surface of the radiator is shaped into a hollow grille.
A resonator apparatus (10, 10') comprising: an electrically conductive case (12, 12') and a dual-mode dielectric resonator provided in the electrically conductive case (12, 12'); wherein the dual-mode dielectric resonator is a hybrid electric-field dual-mode dielectric resonator; wherein the dual-mode dielectric resonator comprises a first dielectric block having a shape of a columnar body whose cross section is a cruciform; wherein a mode coupling structure for coupling two resonant modes of the dual-mode dielectric resonator is provided in the columnar body; wherein a bottom face of the columnar body is supported by an inner face of the electrically conductive case (12, 12') or by a supporting member of the resonator apparatus (10, 10') provided on the inner face of the electrically conductive case (12, 12'); and wherein in at least one extending direction of a first extending direction and a second extending direction of the cruciform which are perpendicular to each other, lateral end faces of the columnar body are spaced apart from inner faces of the electrically conductive case (12, 12'). an electrically conductive case (12, 12') and a dual-mode dielectric resonator provided in the electrically conductive case (12, 12'); wherein the dual-mode dielectric resonator is a hybrid electric-field dual-mode dielectric resonator; wherein the dual-mode dielectric resonator comprises a first dielectric block having a shape of a columnar body whose cross section is a cruciform; wherein a mode coupling structure for coupling two resonant modes of the dual-mode dielectric resonator is provided in the columnar body; wherein a bottom face of the columnar body is supported by an inner face of the electrically conductive case (12, 12') or by a supporting member of the resonator apparatus (10, 10') provided on the inner face of the electrically conductive case (12, 12'); and wherein in at least one extending direction of a first extending direction and a second extending direction of the cruciform which are perpendicular to each other, lateral end faces of the columnar body are spaced apart from inner faces of the electrically conductive case (12, 12').
Process to produce containers out of preforms, whereby the preform is inserted in a form-filling station, molded and filled in that station, wherein gas, which remains in the head space after the end of the filling process, is replaced by a purge gas, wherein a nozzle at a stretching rod used to mold the container introduces the purge gas, characterized in that the stretching rod, for introducing the purge gas, is moved so much into the filled container that it does not touch the fluid level and, when the nozzle is positioned this way in the head space of the container, the purge gas is blown out of the nozzle in order to displace the remaining gas.
A method for providing non-guaranteed channels in a switched digital video network to a subscriber station, the method comprising: receiving a request from the subscriber station for a non-guaranteed channel; modeling a bandwidth pipe corresponding to each edge quadrature amplitude modulator device operative to support non-guaranteed channels by taking into account adding the requested non-guaranteed channel in order to determine which edge QAM devices (122-1 to 122-M) can accommodate the requested non-guaranteed channel; computing a crowding metric for all edge QAM devices capable of accommodating the requested non-guaranteed channel and selecting a particular edge QAM with a lowest crowding metric value; adjusting bitrates of multicast adaptive bitrate (MABR) streams of existing channels of the particular edge QAM device to accommodate a particular MABR stream having a select bitrate of the requested non-guaranteed channel; effectuating Internet Group Management Protocol (IGMP) Join operations, if necessary, to join MABR streams of the existing channels and the requested non-guaranteed channel to correct IGMP groups in order to facilitate streaming of the channels via the particular edge QAM device; and sending a channel change response message including one or more channel frequencies to the requesting subscriber station. receiving a request from the subscriber station for a non-guaranteed channel; modeling a bandwidth pipe corresponding to each edge quadrature amplitude modulator device operative to support non-guaranteed channels by taking into account adding the requested non-guaranteed channel in order to determine which edge QAM devices (122-1 to 122-M) can accommodate the requested non-guaranteed channel; computing a crowding metric for all edge QAM devices capable of accommodating the requested non-guaranteed channel and selecting a particular edge QAM with a lowest crowding metric value; adjusting bitrates of multicast adaptive bitrate (MABR) streams of existing channels of the particular edge QAM device to accommodate a particular MABR stream having a select bitrate of the requested non-guaranteed channel; effectuating Internet Group Management Protocol (IGMP) Join operations, if necessary, to join MABR streams of the existing channels and the requested non-guaranteed channel to correct IGMP groups in order to facilitate streaming of the channels via the particular edge QAM device; and sending a channel change response message including one or more channel frequencies to the requesting subscriber station.
A method of performing initial beam alignment during a random access procedure, by a user equipment, UE, the method comprising: transmitting (202b, 504), on a serving cell, a measurement report message associated with a target cell in response to a measurement reporting event triggered; receiving (204b, 508), on the serving cell, a handover command message including resource configuration of channel state information reference signals, CSI-RSs, for the target cell; performing (206b, 514) downlink, DL, synchronization with the target cell based on synchronization signal, SS, blocks; and transmitting (208b, 516), on the target cell, a random access preamble corresponding to a CSI-RS which is selected from the CSI-RSs by measuring a subset of the CSI-RSs. transmitting (202b, 504), on a serving cell, a measurement report message associated with a target cell in response to a measurement reporting event triggered; receiving (204b, 508), on the serving cell, a handover command message including resource configuration of channel state information reference signals, CSI-RSs, for the target cell; performing (206b, 514) downlink, DL, synchronization with the target cell based on synchronization signal, SS, blocks; and transmitting (208b, 516), on the target cell, a random access preamble corresponding to a CSI-RS which is selected from the CSI-RSs by measuring a subset of the CSI-RSs.
A conductive composite formulation, comprising: a polymer matrix; conductive particles being blended within the polymer matrix; and a colorant blended with the polymer matrix; wherein the conductive composite formulation has a compound resistivity of between 0.0005 ohm·cm and 0.2 ohm·cm; characterised by: the conductive particles having copper-containing material and tin-containing material. a polymer matrix; conductive particles being blended within the polymer matrix; and a colorant blended with the polymer matrix; wherein the conductive composite formulation has a compound resistivity of between 0.0005 ohm·cm and 0.2 ohm·cm; characterised by: the conductive particles having copper-containing material and tin-containing material.
A sustained release intraocular drug delivery device, comprising: an elongate body comprising two ends, and an eyelet fixedly connected with at least one end of the elongate body; wherein said elongate body further comprises a substantially elongate polymeric matrix core into which at least one therapeutic agent is mixed, and a mantle completely surrounding said matrix core, said mantle comprising, and preferably being, a polymeric coating; wherein said eyelet is adapted to assist in the withdrawal of said device and wherein said eyelet is essentially free of therapeutic agent, and wherein the eyelet comprises a gripping portion and a linking portion, said linking portion connecting the gripping portion to at least one end, preferably both ends, of the body. wherein said elongate body further comprises a substantially elongate polymeric matrix core into which at least one therapeutic agent is mixed, and a mantle completely surrounding said matrix core, said mantle comprising, and preferably being, a polymeric coating; wherein said eyelet is adapted to assist in the withdrawal of said device and wherein said eyelet is essentially free of therapeutic agent, and wherein the eyelet comprises a gripping portion and a linking portion, said linking portion connecting the gripping portion to at least one end, preferably both ends, of the body.
A valve comprising: a housing; a valve body having a fluid inlet and a fluid outlet, the valve body comprising a first valve element and a second valve element arranged in said housing; a gap being formed between the valve elements (3, 4); - the first valve element is conformed as a sleeve with an inner surface that tapers at least in sections towards the fluid outlet, - the second valve element is conformed as a cone mounted in the sleeve, with the same inclination as the inner surface of the sleeve so as to form the gap, said cone having a central, axially extending channel open to the fluid inlet; - an annular space open to the fluid outlet is formed between the sleeve and the inner surface of the housing, - the sleeve has through holes towards the annular space and the cone has through openings towards the fluid inlet, - the sleeve and the cone are axially adjustable relative to one another, characterized in that the fluid outlet is provided concentrically and separately from the channel in the cone. a housing; a valve body having a fluid inlet and a fluid outlet, the valve body comprising a first valve element and a second valve element arranged in said housing; a gap being formed between the valve elements (3, 4); - the first valve element is conformed as a sleeve with an inner surface that tapers at least in sections towards the fluid outlet, - the second valve element is conformed as a cone mounted in the sleeve, with the same inclination as the inner surface of the sleeve so as to form the gap, said cone having a central, axially extending channel open to the fluid inlet; - an annular space open to the fluid outlet is formed between the sleeve and the inner surface of the housing, - the sleeve has through holes towards the annular space and the cone has through openings towards the fluid inlet, - the sleeve and the cone are axially adjustable relative to one another, - the first valve element is conformed as a sleeve with an inner surface that tapers at least in sections towards the fluid outlet, - the second valve element is conformed as a cone mounted in the sleeve, with the same inclination as the inner surface of the sleeve so as to form the gap, said cone having a central, axially extending channel open to the fluid inlet; - an annular space open to the fluid outlet is formed between the sleeve and the inner surface of the housing, - the sleeve has through holes towards the annular space and the cone has through openings towards the fluid inlet, - the sleeve and the cone are axially adjustable relative to one another, characterized in that the fluid outlet is provided concentrically and separately from the channel in the cone.
A method for producing an α-allylated cycloalkanone represented by General Formula (III-1), comprising: a step 1: reacting a compound represented by General Formula (I-1) and alcohol having 1 or more and 4 or less of carbon atoms in the presence of a first acid catalyst and optionally a dehydrating agent; and a step 2: reacting a crude product obtained in the step 1 and a compound represented by General Formula (II-1) in the presence of a second acid catalyst to produce an α-allylated cycloalkanone represented by General Formula (III-1), wherein the step 1 and the step 2 are consecutively performed, and wherein the second acid catalyst includes the first acid catalyst: where R 4 in General Formula (II-1) is an alkyl group having 1 carbon atom. a step 1: reacting a compound represented by General Formula (I-1) and alcohol having 1 or more and 4 or less of carbon atoms in the presence of a first acid catalyst and optionally a dehydrating agent; and a step 2: reacting a crude product obtained in the step 1 and a compound represented by General Formula (II-1) in the presence of a second acid catalyst to produce an α-allylated cycloalkanone represented by General Formula (III-1), wherein the step 1 and the step 2 are consecutively performed, and wherein the second acid catalyst includes the first acid catalyst: where R 4 in General Formula (II-1) is an alkyl group having 1 carbon atom.
A high contrast grating polariser, comprising: a substrate; and a high contrast grating on the substrate and a plasmonic metal antenna structure interleaved with the high contrast grating, wherein the high contrast grating comprises a semiconductor grating or a dielectric grating; and the high contrast grating is configured to transmit light of a first polarization direction, the plasmonic metal antennastructure is configured to reflect light of a second polarization direction, and the first polarization direction is opposite, or perpendicular, to the second polarization direction; wherein the plasmonic metal antenna structure is located in at least one of the bottom, left sidewall and right sidewall of a high contrast grating gap; wherein a first adhesive layer is further provided between the substrate and the high contrast grating, and/or between the substrate and the plasmonic metal antenna structure. a substrate; and a high contrast grating on the substrate and a plasmonic metal antenna structure interleaved with the high contrast grating, wherein the high contrast grating comprises a semiconductor grating or a dielectric grating; and the high contrast grating is configured to transmit light of a first polarization direction, the plasmonic metal antennastructure is configured to reflect light of a second polarization direction, and the first polarization direction is opposite, or perpendicular, to the second polarization direction; wherein the plasmonic metal antenna structure is located in at least one of the bottom, left sidewall and right sidewall of a high contrast grating gap; wherein a first adhesive layer is further provided between the substrate and the high contrast grating, and/or between the substrate and the plasmonic metal antenna structure.
A structural support member for a harness for breathing apparatus, the structural support member being generally elongate and arranged in use to support a cylinder of breathable gas and one or more components operatively associated with the breathing apparatus, characterised in that the structural support member comprises first and second parts (20, 30) defining therebetween a housing within a lower portion of the structural support member arranged to protectively retain a reducer valve for the cylinder to which the cylinder can be attached, wherein the first and second parts (20, 30) are arranged to be assembled around the reducer valve.