mhurhangee/ep-ind-claims huggingface dataset:
A fluid dispenser device comprising a body provided with a dispenser orifice, said device further comprising: an elongate flexible strip supporting a plurality of reservoirs each containing a dose of fluid; reservoir-opening means for opening a respective reservoir on each actuation; first displacement means for causing said flexible strip to advance before and/or during and/or after each actuation, so as to bring a full reservoir into register with said reservoir-opening means; and second displacement means for displacing a full reservoir against said opening means each time the device is actuated, said device including positioning means that are adapted to position the full reservoir accurately relative to the reservoir-opening means when it is displaced thereagainst, so as to guarantee that opening is predetermined and reproducible on each actuation, said positioning means comprising a projection that is secured to the opening means, characterized in that said projection is frustoconical and is adapted to co-operate with complementary notches, which are formed on said first displacement means.
A process for the production of a non-fibrous drawn polymer tape, said process comprising the steps: a) compacting a polymer powder in a press to form a compacted polymer bed; b) calendering said compacted polymer bed to form an oriented polymer tape; and c) drawing said oriented polymer tape to form a highly oriented polymer tape; wherein the polymer powder comprises ultra-high molecular weight polyethylene (UHMWPE); characterized in that step a) comprises compacting the polymer powder at a temperature and pressure such that from 1 to 20 wt.% of the polymer powder as measured by DSC is melted. a) compacting a polymer powder in a press to form a compacted polymer bed; b) calendering said compacted polymer bed to form an oriented polymer tape; and c) drawing said oriented polymer tape to form a highly oriented polymer tape;
A method for transmitting an aperiodic sounding reference signal, SRS, at a user equipment in a wireless communication system, the method comprising: configuring parameters for the aperiodic SRS by a radio resource control, RRC, layer; receiving downlink control information from a base station; checking carrier indication field, CIF, information of a downlink control information, DCI, format included in the downlink control information; and transmitting the aperiodic SRS to the base station according to the CIF information, wherein the CIF information includes a triggering message of the aperiodic SRS, wherein the CIF information includes an indicator to indicate whether the parameters for the aperiodic SRS are reconfigured or not, wherein the DCI includes information on the reconfigured parameters for the aperiodic SRS if the indicator indicates that the parameters for the aperiodic SRS are reconfigured. configuring parameters for the aperiodic SRS by a radio resource control, RRC, layer; receiving downlink control information from a base station; checking carrier indication field, CIF, information of a downlink control information, DCI, format included in the downlink control information; and transmitting the aperiodic SRS to the base station according to the CIF information, wherein the CIF information includes a triggering message of the aperiodic SRS, wherein the CIF information includes an indicator to indicate whether the parameters for the aperiodic SRS are reconfigured or not, wherein the DCI includes information on the reconfigured parameters for the aperiodic SRS if the indicator indicates that the parameters for the aperiodic SRS are reconfigured.
An alloy material, comprising the following elements in weight percentages given: magnesium: less than 3%; selenium:0.05%-0.3%; strontium: 0.001%-0.5%; zinc: the remainder. magnesium: less than 3%; selenium:0.05%-0.3%; strontium: 0.001%-0.5%; zinc: the remainder.
A PCI Express apparatus, comprising: a device having a downstream port and characterized in that the downstream port in response to undergoing a link training and equalization procedure, is configured to receive a first ordered set from an upstream port of an endpoint device; wherein the first ordered set is configured to include a full swing value and a low frequency value; and wherein the downstream port comprises at least one configuration register configured to store a first set of coefficients to be applied to transmitter or receiver settings and configured to achieve communication capability with minimal data loss to be generated based on the full swing value and the low frequency. a device having a downstream port and characterized in that the downstream port in response to undergoing a link training and equalization procedure, is configured to receive a first ordered set from an upstream port of an endpoint device; wherein the first ordered set is configured to include a full swing value and a low frequency value; and wherein the downstream port comprises at least one configuration register configured to store a first set of coefficients to be applied to transmitter or receiver settings and configured to achieve communication capability with minimal data loss to be generated based on the full swing value and the low frequency.
Cell connector for making electrically conductive contact with a plurality of battery cell terminals, wherein the cell connector has a plurality of sections (5, 6, 7) arranged next to one another and a first number of first sections (5, 6) is composed of an electrically conductive metal material, wherein a second number of second sections is composed of an electrically insulating plastic, wherein at least one second section is arranged in each case between at least two first sections (5, 6), characterized in that the at least one second section is in each case connected by means of a nano-moulding process to the at least two first sections (5, 6).
A hardware countermeasure against side-channel attacks for a cryptographic hardware module of a computing device, the hardware countermeasure comprising: a noise-sample generator, wherein the noise-sample generator is operable to accept as input data samples to be processed by the cryptographic hardware module and to generate as output a noise-sample for each of the input data samples, and wherein the noise-sample is associated with a power level; and, a distributed buffer network co-located with the cryptographic module, wherein the distributed buffer network is operable to accept as input the noise-samples and to emit, for each of the noise-samples, a noise output proportional in power to the power level associated with that noise-sample, by activating a number of buffers of the distributed buffer network corresponding to the power level. a noise-sample generator, wherein the noise-sample generator is operable to accept as input data samples to be processed by the cryptographic hardware module and to generate as output a noise-sample for each of the input data samples, and wherein the noise-sample is associated with a power level; and, a distributed buffer network co-located with the cryptographic module, wherein the distributed buffer network is operable to accept as input the noise-samples and to emit, for each of the noise-samples, a noise output proportional in power to the power level associated with that noise-sample, by activating a number of buffers of the distributed buffer network corresponding to the power level.
A coated object comprising a chromium-based coating comprising at least one layer rich in crystalline phase or phases of nickel (Ni) and/or Ni compounds, and at least one layer rich in crystalline phase or phases of chromium (Cr) and/or Cr compounds, Cr being electroplated from a trivalent chromium bath, characterized in that the coating further comprises one or more crystalline phases of chromium-nickel-phosphorus (CrNiP), which CrNiP phase has been produced by heat treating a coating comprising at least one layer of nickel-phosphorus (NiP) and at least one layer of Cr, wherein none of the layers rich in crystalline phase or phases of Ni and/or Ni compounds comprises a crystalline Ni 3 P phase, and the hardness of the coating is at least 1, 500 HV 0.005 on a Vickers microhardness scale.
An isolated multimeric antimicrobial peptide complex comprising an antimicrobial peptide polymer and a cell surface anchoring motif linked to the polymer, wherein the antimicrobial peptide polymer comprises monomers of the following formula 1 or 2: N − terminus − antimicrobial peptide − amino acid linker digested by pepsin − C − terminus, N − terminus − amino acid linker digested by pepsin − antimicrobial peptide − C − terminus, wherein the antimicrobial peptide does not comprise the amino acids used in the linker; the amino acid linker digested by pepsin comprises one or more amino acids selected from the group consisting of leucine, phenylalanine and tyrosine; and the cell surface anchoring motif is an outer membrane protein. wherein the antimicrobial peptide does not comprise the amino acids used in the linker; the amino acid linker digested by pepsin comprises one or more amino acids selected from the group consisting of leucine, phenylalanine and tyrosine; and the cell surface anchoring motif is an outer membrane protein.
A solid-state imaging device (2, 20, 30, 40) comprising: a taking lens; a solid-state imaging element disposed and used on an exit surface side of the taking lens; an IR cut filter (10, 22, 32, 42); and a support plate for supporting the IR cut filter, wherein the IR cut filter (10, 22, 32, 42) disposed on a light receiving surface side of the solid-state imaging element (2, 20, 30, 40) comprising: a filter body for cutting IR light of subject light traveling toward the light receiving surface; and a light-shielding layer (11, 31, 41) formed over an edge portion of an incident surface of the filter body and blocking visible light, wherein a length L1 from a side end of the incident surface to a side end of the solid-state imaging element (2, 20, 30, 40) in an orthogonal direction orthogonal to an optical axis direction and a length L2 from a side end of the filter body to an inner end of the light-shielding layer (11, 31, 41) in the orthogonal direction satisfy L2≤L1. a taking lens; a solid-state imaging element disposed and used on an exit surface side of the taking lens; an IR cut filter (10, 22, 32, 42); and a support plate for supporting the IR cut filter, wherein the IR cut filter (10, 22, 32, 42) disposed on a light receiving surface side of the solid-state imaging element (2, 20, 30, 40) comprising: a filter body for cutting IR light of subject light traveling toward the light receiving surface; and a light-shielding layer (11, 31, 41) formed over an edge portion of an incident surface of the filter body and blocking visible light, wherein a length L1 from a side end of the incident surface to a side end of the solid-state imaging element (2, 20, 30, 40) in an orthogonal direction orthogonal to an optical axis direction and a length L2 from a side end of the filter body to an inner end of the light-shielding layer (11, 31, 41) in the orthogonal direction satisfy L2≤L1.
A collision avoidance system, comprising: an alerting system able to alert at least one ground or airborne vehicle in the event of a threat of a collision, characterized in comprising: an air and ground vehicle sensor able to: detect the at least one ground or airborne vehicle in the vicinity of a predetermined area, and generate target data relating to the at least one ground or airborne vehicle; and an awareness engine able to: receive the target data from the sensor, and evaluate the target data for a threat of a collision with another ground or airborne vehicle, or an obstruction; the alerting system being activated by the awareness engine. an alerting system able to alert at least one ground or airborne vehicle in the event of a threat of a collision, characterized in comprising: an air and ground vehicle sensor able to: detect the at least one ground or airborne vehicle in the vicinity of a predetermined area, and generate target data relating to the at least one ground or airborne vehicle; and an awareness engine able to: receive the target data from the sensor, and evaluate the target data for a threat of a collision with another ground or airborne vehicle, or an obstruction; the alerting system being activated by the awareness engine. an air and ground vehicle sensor able to: detect the at least one ground or airborne vehicle in the vicinity of a predetermined area, and generate target data relating to the at least one ground or airborne vehicle; and an awareness engine able to: receive the target data from the sensor, and evaluate the target data for a threat of a collision with another ground or airborne vehicle, or an obstruction; detect the at least one ground or airborne vehicle in the vicinity of a predetermined area, and generate target data relating to the at least one ground or airborne vehicle; and an awareness engine able to: receive the target data from the sensor, and evaluate the target data for a threat of a collision with another ground or airborne vehicle, or an obstruction; receive the target data from the sensor, and evaluate the target data for a threat of a collision with another ground or airborne vehicle, or an obstruction; the alerting system being activated by the awareness engine.
An ultrasonic emitter apparatus configured to use a reflected signal measurement to gate the operation of an emitter, the apparatus comprising a housing including: the ultrasonic emitter, the ultrasonic emitter being operable to periodically transmit an ultrasonic pulse of a predefined frequency; a microphone circuit disposed in the housing, the microphone circuit operable to receive a reflected ultrasonic signal derived from the transmitted ultrasonic pulse; and a controller coupled to the emitter and the microphone circuit, the controller being operable to gate the operation of the emitter to an OFF state based on a Doppler measurement of the reflected ultrasonic signal exceeding a threshold to determine whether an object or person is approaching and a distance measurement of the reflected ultrasonic signal being less than a reference distance. the ultrasonic emitter, the ultrasonic emitter being operable to periodically transmit an ultrasonic pulse of a predefined frequency; a microphone circuit disposed in the housing, the microphone circuit operable to receive a reflected ultrasonic signal derived from the transmitted ultrasonic pulse; and a controller coupled to the emitter and the microphone circuit, the controller being operable to gate the operation of the emitter to an OFF state based on a Doppler measurement of the reflected ultrasonic signal exceeding a threshold to determine whether an object or person is approaching and a distance measurement of the reflected ultrasonic signal being less than a reference distance.
A device comprising: circuitry configured to select a transmission weight for each of a plurality of signal points, by which the respective signal point is to be multiplied, based on an index of a power layer, from among a plurality of quasi-statically selected transmission weights; multiply signals corresponding to each of the plurality of signal points by the transmission weight selected for the respective signal point; multiplex the multiplied signals corresponding to each of the plurality of signal points on a same frequency and time resource; and modify a selection rule for selecting the transmission weight, by which each of the plurality of signal points is to be multiplied, by switching the selection rule, wherein a selection rule of the transmission weight, by which a signal point with a power level less than a predetermined value is to be multiplied, is switched. select a transmission weight for each of a plurality of signal points, by which the respective signal point is to be multiplied, based on an index of a power layer, from among a plurality of quasi-statically selected transmission weights; multiply signals corresponding to each of the plurality of signal points by the transmission weight selected for the respective signal point; multiplex the multiplied signals corresponding to each of the plurality of signal points on a same frequency and time resource; and modify a selection rule for selecting the transmission weight, by which each of the plurality of signal points is to be multiplied, by switching the selection rule, wherein a selection rule of the transmission weight, by which a signal point with a power level less than a predetermined value is to be multiplied, is switched.
Process for the production of a diacyl peroxide comprising the following steps: a) producing a mixture comprising a diacyl peroxide and a carboxylic acid by reacting an anhydride with the formula R 1 -C(=O)-O-C(=O)-R 2 with a peroxyacid of the formula R 3 -C(=O)-OOH, wherein R 1 and R 3 are independently selected from linear and branched alkyl, cycloalkyl, aryl, and arylalkyl groups with 1-17 carbon atoms, optionally substituted with oxygen- and/or halogen-containing substituents, and R 2 is selected from linear and branched alkyl, cycloalkyl, aryl, and arylalkyl groups with 2-17 carbon atoms, optionally substituted with oxygen- and/or halogen-containing substituents, b) extracting or separating the carboxylic acid from the mixture in the form of its carboxylic acid salt or adduct, c) liberating the carboxylic acid from the salt or adduct, d) optionally producing an additional amount of carboxylic acid by reacting an aldehyde of the formula R 2 -C(=O)H with oxygen, e) reacting the carboxylic acid obtained in step c) and optionally an additional amount of carboxylic acid of the formula R 2 -C(=O)OH - said additional amount of carboxylic acid being obtained from step d) and/or obtained in another way - with an acid anhydride or a ketene of the formula C(R 4) 2 =C=O, each R 4 being independently selected from H and CH 3, preferably with acetic anhydride, to form an anhydride with the formula R 1 -C(=O)-O-C(=O)-R 2, and f) recycling at least part of the anhydride formed in step e) to step a). a) producing a mixture comprising a diacyl peroxide and a carboxylic acid by reacting an anhydride with the formula R 1 -C(=O)-O-C(=O)-R 2 with a peroxyacid of the formula R 3 -C(=O)-OOH, wherein R 1 and R 3 are independently selected from linear and branched alkyl, cycloalkyl, aryl, and arylalkyl groups with 1-17 carbon atoms, optionally substituted with oxygen- and/or halogen-containing substituents, and R 2 is selected from linear and branched alkyl, cycloalkyl, aryl, and arylalkyl groups with 2-17 carbon atoms, optionally substituted with oxygen- and/or halogen-containing substituents, b) extracting or separating the carboxylic acid from the mixture in the form of its carboxylic acid salt or adduct, c) liberating the carboxylic acid from the salt or adduct, d) optionally producing an additional amount of carboxylic acid by reacting an aldehyde of the formula R 2 -C(=O)H with oxygen, e) reacting the carboxylic acid obtained in step c) and optionally an additional amount of carboxylic acid of the formula R 2 -C(=O)OH - said additional amount of carboxylic acid being obtained from step d) and/or obtained in another way - with an acid anhydride or a ketene of the formula C(R 4) 2 =C=O, each R 4 being independently selected from H and CH 3, preferably with acetic anhydride, to form an anhydride with the formula R 1 -C(=O)-O-C(=O)-R 2, and f) recycling at least part of the anhydride formed in step e) to step a).
Intervertebral implant with two opposing contact surfaces (25, 33) provided for at least partial contact with vertebral bodies, which are spaced apart from one another along a vertical axis and are each arranged on support elements (11, 13) adjustable relative to one another, characterised in that the support elements (11, 13) are oriented perpendicularly to the vertical axis along a circular arc contour having a constant radius of curvature and are adjustably guided relative to one another in such a way that by adjusting the two supporting elements (11, 13) relative to one another along the circular arc contour, a distance between the two contact surfaces (25, 33) relative to the vertical axis and/or an angular position of the two contact surfaces (25, 33) relative to one another can be specified and/or changed.
Plate for a heat exchanger for heat exchange between a first and a second medium, wherein the plate has a rectangular shape with two opposing long sides (1a and 1b) and two opposing short sides (1c and 1d), wherein the plate is configured with at least one inlet porthole and at least one outlet porthole for the first medium and at least one inlet porthole and at least one outlet porthole for the second medium, wherein the plate is configured with the inlet porthole for the first medium located in or close to a corner between one of the two long sides (1a or 1b) and one of the two short sides (1c or 1d) and the outlet porthole for the first medium located in or close to a corner between the same or the other long side (1a or 1b) and the other of said two short sides (1d or 1c), wherein the plate is configured with the inlet porthole for the second medium located substantially centrally between the two long sides (1a, 1b) and close to one of the two short sides (1c or 1d) and the outlet porthole for the second medium located substantially centrally between the two long sides (1a, 1b) and close to the other of said two short sides (1d or 1c), wherein the plate has a first heat transferring surface for the first medium and an opposing second heat transferring surface for the second medium, wherein the first heat transferring surface of said plate is configured with at least one barrier forming part of a guide for the flow of the first medium during passage thereof between said inlet and outlet portholes (2a and 2b) therefor, wherein the plate is configured with the inlet and outlet portholes (2a, 2b and 3a, 3b) for the first and second medium respectively, and with the barrier forming part of a guide for the flow of said first medium located relative to each other on the first heat transferring surface of the plate such that they permit formation of a substantially U-shaped or sinusoidal through-flow duct for the first medium which will permit passage of the flow of said first medium around said inlet porthole or said inlet and outlet portholes (3a and 3b) for said second medium during passage of said first medium between said inlet and outlet portholes (2a, 2b) therefor, characterized in that the plate is configured with dimples around the inlet and outlet portholes (3a, 3b) for the second medium on the first heat transferring surface of the plate located at a larger distance from each other on those parts of the circumferences of the portholes which face each other than on those parts which face away from each other, and wherein the plate is configured with dimples around the inlet and outlet portholes (3a, 3b) for the second medium on the second heat transferring surface of the plate located at a larger distance from each other on those parts of the circumferences of the portholes which face away from each other than on those parts which face each other.