mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing a device with a secure integrated circuit chip, the device having an insulating substrate (14, 24, 24R), electrically conductive surfaces (23, 33, 43, 53, 63) on the insulating substrate connected or coupled to the electronic chip, the electrically conductive surfaces being produced by a step of depositing or transferring conductive material, the step of depositing or transferring conductive material being carried out by a technique of directly depositing polymer- or solvent-free metal microparticles onto the insulating substrate, the deposit being obtained by coalescence of the metal microparticles forming at least one or several uniform cohesive layer(s)that rest(s) directly in contact with the insulating substrate, characterized in that the method implements a continuous movement of a substrate ribbon receiving conductive material and a continuous masking ribbon for masking the receiving substrate. surfaces (23, 33, 43, 53, 63) on the insulating substrate connected or coupled to the electronic chip, the electrically conductive surfaces being produced by a step of depositing or transferring conductive material, the step of depositing or transferring conductive material being carried out by a technique of directly depositing polymer- or solvent-free metal microparticles onto the insulating substrate, the deposit being obtained by coalescence of the metal microparticles forming at least one or several uniform cohesive layer(s)that rest(s) directly in contact with the insulating substrate, characterized in that the method implements a continuous movement of a substrate ribbon receiving conductive material and a continuous masking ribbon for masking the receiving substrate.
A method for analyzing a frequency response of an electromagnetic cooking device comprising a resonant cavity (20, 222) comprising: controlling a plurality of RF signals comprising a first RF signal and a second RF signal within an operating range of the cooking device at a plurality of phase shifts between the first RF signal and the second RF signal; measuring a plurality of efficiencies of at least one reflection signal in the resonant cavity (20, 222) in response to a plurality of RF feeds (26A, 26B, 26C, 26D, 226A, 226B) generated from the RF signals for the plurality of phase shifts; modeling the frequency response of the resonant cavity (20, 222) with a numeric model; calculating a plurality of unknown interpolation parameters as coefficients for the numeric model based on the plurality of measured efficiencies of the RF feeds (26A, 26B, 26C, 26D, 226A, 226B) in response to the plurality of phase shifts; and estimating efficiency results of the cavity (20, 222) for the operating range of the cooking device based on the numeric model with the plurality of interpolation parameters, wherein the efficiency results comprise additional phase shifts for the operating range of the cooking device that are different from the plurality of phase shifts. controlling a plurality of RF signals comprising a first RF signal and a second RF signal within an operating range of the cooking device at a plurality of phase shifts between the first RF signal and the second RF signal; measuring a plurality of efficiencies of at least one reflection signal in the resonant cavity (20, 222) in response to a plurality of RF feeds (26A, 26B, 26C, 26D, 226A, 226B) generated from the RF signals for the plurality of phase shifts; modeling the frequency response of the resonant cavity (20, 222) with a numeric model; calculating a plurality of unknown interpolation parameters as coefficients for the numeric model based on the plurality of measured efficiencies of the RF feeds (26A, 26B, 26C, 26D, 226A, 226B) in response to the plurality of phase shifts; and estimating efficiency results of the cavity (20, 222) for the operating range of the cooking device based on the numeric model with the plurality of interpolation parameters, wherein the efficiency results comprise additional phase shifts for the operating range of the cooking device that are different from the plurality of phase shifts.
A composition, comprising: silybin A; isosilybin A; and sulfoalkyl ether cyclodextrin; wherein the molar ratio between silybin A and isosilybin A is in the range of (0.4-0.6): (0.5-0.9). silybin A; isosilybin A; and sulfoalkyl ether cyclodextrin; wherein the molar ratio between silybin A and isosilybin A is in the range of (0.4-0.6): (0.5-0.9).
A nonwoven fabric, comprising a multilayer structure that comprises: i) at least one melt blown layer comprising melt blown fibers comprising a first propylene polymer having: a) an amount of 2,1-regiodefects, as determined by 13 C-NMR spectroscopic analysis, in the range from 0.0 to 0.1 mol-%; and b) a melting temperature T m, determined by differential scanning calorimetry, in the range from 155 to 170 °C, ii) at least one spunbonded layer comprising spunbonded fibers comprising a second propylene polymer having: a) an amount of 2,1-regiodefects, as determined by 13 C-NMR spectroscopic analysis, in the range from 0.45 to 1.5 mol-%; and b) a melting temperature T m, determined by differential scanning calorimetry, in the range from 145 to 160 °C. wherein the melting temperature of the first polypropylene polymer T m is at least 5.0 °C higher than that of the second first polypropylene polymer T m. i) at least one melt blown layer comprising melt blown fibers comprising a first propylene polymer having: a) an amount of 2,1-regiodefects, as determined by 13 C-NMR spectroscopic analysis, in the range from 0.0 to 0.1 mol-%; and b) a melting temperature T m, determined by differential scanning calorimetry, in the range from 155 to 170 °C, a) an amount of 2,1-regiodefects, as determined by 13 C-NMR spectroscopic analysis, in the range from 0.0 to 0.1 mol-%; and b) a melting temperature T m, determined by differential scanning calorimetry, in the range from 155 to 170 °C, ii) at least one spunbonded layer comprising spunbonded fibers comprising a second propylene polymer having: a) an amount of 2,1-regiodefects, as determined by 13 C-NMR spectroscopic analysis, in the range from 0.45 to 1.5 mol-%; and b) a melting temperature T m, determined by differential scanning calorimetry, in the range from 145 to 160 °C. a) an amount of 2,1-regiodefects, as determined by 13 C-NMR spectroscopic analysis, in the range from 0.45 to 1.5 mol-%; and b) a melting temperature T m, determined by differential scanning calorimetry, in the range from 145 to 160 °C.
Assembly for a turbomachine extending along an axis and comprising: - a shroud configured to delimit a fan flow path of a gas flow of said turbomachine, - a fan casing, radially surrounding the shroud and delimiting with the shroud the fan flow path, and - outlet guide vanes comprising a plurality of vanes configured to straighten a secondary flow circulating in the fan flow path, wherein the plurality of vanes comprises a first vane and a second vane adjacent to the first vane delimiting between them a flow channel configured to straighten the flow, characterized in that the flow channel is convergent and configured to accelerate the flow by means of an inlet section lying in a plane that is not perpendicular to the axis of the turbomachine and an outlet section lying in a plane that is perpendicular to the axis of the turbomachine, the first vane and the second vane each having a downstream, unshrouded part forming a trailing edge. - a shroud configured to delimit a fan flow path of a gas flow of said turbomachine, - a fan casing, radially surrounding the shroud and delimiting with the shroud the fan flow path, and - outlet guide vanes comprising a plurality of vanes configured to straighten a secondary flow circulating in the fan flow path, wherein the plurality of vanes comprises a first vane and a second vane adjacent to the first vane delimiting between them a flow channel configured to straighten the flow,
An engine control device having a variable valve timing mechanism capable of changing a phase of an intake valve and/or an exhaust valve, wherein an angular difference between a current real phase of the intake/exhaust valve (21;22) and a target phase set based on an engine load equivalent amount such as an intake air amount is obtained; a ratio between a current real intake air amount and a theoretical calculated intake air amount is calculated using an intake manifold internal pressure (PMMHG) when a phase of the intake/exhaust valve (21; 22) has reached the target phase; and a compensation coefficient (VVTCRG) is obtained; wherein the compensation coefficient (VVTCRG) is used to perform a transient compensation of an ignition timing, wherein the compensation coefficient (VVTCRG) is obtained by calculating a target value (VVTETA_target) of the intake air amount ratio using the intake/exhaust valve target phase, an engine speed and the intake manifold pressure (PMMHG) and calculating a current value VVTETA_real of the intake air amount ratio using the intake/exhaust valve real phase, the engine speed and the intake manifold pressure (PMMHG) and dividing the current value of the intake air amount ratio (VVTETA_real) by the target value (VVTETA_target).
A hearing assistive system comprising a hearing assistive device and a remote-control unit for controlling the hearing assistive device by sending a control signal with instructions as an acoustic signal, the remote-control unit having a processor, an input transducer, an output transducer, and a memory, the processor is adapted for controlling a calibration process during which: - the remote-control unit is adapted for outputting tones applied by the control signal via the output transducer, - the hearing assistive device is adapted for receiving the tones, characterized in that the hearing assistive device is further adapted for evaluating tone level of the received tones and wherein the hearing assistive device is adapted for responding to the reception of the tones output by the remote-control unit by sending the evaluation to the remote-control unit as a further control signal with instructions as acoustic signals, - the processor is further adapted for: • adjusting relative volumes of the tones applied by the control signal in dependence of the evaluation, and • storing the adjusted relative volumes of the tones for use when sending the control signal with instructions as an acoustic signal. - the remote-control unit is adapted for outputting tones applied by the control signal via the output transducer, - the hearing assistive device is adapted for receiving the tones, characterized in that the hearing assistive device is further adapted for evaluating tone level of the received tones and wherein the hearing assistive device is adapted for responding to the reception of the tones output by the remote-control unit by sending the evaluation to the remote-control unit as a further control signal with instructions as acoustic signals, - the processor is further adapted for: • adjusting relative volumes of the tones applied by the control signal in dependence of the evaluation, and • storing the adjusted relative volumes of the tones for use when sending the control signal with instructions as an acoustic signal. • adjusting relative volumes of the tones applied by the control signal in dependence of the evaluation, and • storing the adjusted relative volumes of the tones for use when sending the control signal with instructions as an acoustic signal.
A gel polymer composite electrolyte, formed by swelling after a polymer membrane absorbs an electrolyte, wherein the polymer membrane is formed by thermocuring and self-crosslinking a polymer mixture comprising a self-crosslinkable acrylic emulsion, water and ammonia water, and the acrylic emulsion has a glass transition temperature ranging from -30 °C to 50 °C, characterized in that a volumetric ratio of the acrylic emulsion to the water is 100:5 to 100:50, and the amount of ammonia water ranges from 0.001 wt % to 10 wt %, based on the total weight of the acrylic emulsion and the water.
Safety female adapter device (301; 302) for fiber optic connections, configured to house a SC male optical connector, said device (301; 302) comprising a substantially box-shaped casing having a longitudinal reference slot on a wall of said casing at an insertion portion of the male connector, said slot being dimensioned to allow a reference protuberance of the SC male connector sliding inside the slot and guiding a coaxial insertion of the SC male connector into the safety female adapter device, said safety female adapter device (301; 302) being characterized in that it comprises controlled-release locking means (201; 202) configured to constrain a longitudinal sliding of the male connector with respect to the safety female adapter device (301; 302), when the connector is inserted into the safety female adapter device to establish the optical connection, and release the longitudinal sliding of the connector with respect to the adapter device (301; 302), during the insertion or removal of the male connector into/from the safety female adapter device, wherein said locking means (201; 202) comprises a locking lever element (51; 52), wherein said locking lever element (51; 52) is comprised between two substantially longitudinal notches running along said slot, said locking lever element (51; 52) having a closing stop (11; 12) at a terminal end of said slot, said terminal end facing towards a front opening of said casing, said closing stop (11; 12) being able to be moved from a lowered position to a raised position to allow the insertion of the reference protuberance of the male connector into said slot and from a raised position to a lowered position to provide a blockage of an exit of the male connector from said safety female adapter device (301; 302).
Starter for an internal combustion engine, - having a housing, - having a drive shaft which has a coupling member for coupling to the internal combustion engine and which is axially adjustable between a retracted passive position, in which the coupling member is decoupled from the internal combustion engine, and an extended active position for starting the internal combustion engine, in which the coupling member is coupled to the internal combustion engine, - having an actuating drive for axially adjusting the drive shaft, said actuating drive having a drive lever, which is mounted in the housing so as to be pivotable about a pivot axis extending transversely to the longitudinal centre axis of the drive shaft, and a drive ring, which coaxially encloses the drive shaft, which is connected in terms of drive to the drive lever, which is axially supported on an annular push face in order to drive the drive shaft into the active position, and which is axially supported on an annular pull face in order to drive the drive shaft into the passive position, - wherein the push face is formed directly on a shaft flange separate from the drive shaft, said shaft flange coaxially enclosing the drive shaft and being arranged in an axially fixed manner thereon, - wherein the pull face is formed directly on a cover ring which coaxially encloses the drive shaft, - wherein said shaft flange is arranged on said drive shaft so as to rotate therewith, - characterised in that said cover ring is arranged on said shaft flange so as to rotate therewith. - having a housing, - having a drive shaft which has a coupling member for coupling to the internal combustion engine and which is axially adjustable between a retracted passive position, in which the coupling member is decoupled from the internal combustion engine, and an extended active position for starting the internal combustion engine, in which the coupling member is coupled to the internal combustion engine, - having an actuating drive for axially adjusting the drive shaft, said actuating drive having a drive lever, which is mounted in the housing so as to be pivotable about a pivot axis extending transversely to the longitudinal centre axis of the drive shaft, and a drive ring, which coaxially encloses the drive shaft, which is connected in terms of drive to the drive lever, which is axially supported on an annular push face in order to drive the drive shaft into the active position, and which is axially supported on an annular pull face in order to drive the drive shaft into the passive position, - wherein the push face is formed directly on a shaft flange separate from the drive shaft, said shaft flange coaxially enclosing the drive shaft and being arranged in an axially fixed manner thereon, - wherein the pull face is formed directly on a cover ring which coaxially encloses the drive shaft, - wherein said shaft flange is arranged on said drive shaft so as to rotate therewith, - characterised in that said cover ring is arranged on said shaft flange so as to rotate therewith.
A bicycle carry rack securing device comprising: a reception portion and a connection portion, the reception portion adapted to be mounted to a vehicle hitch, the connection portion connected to the reception portion and adapted to be connected with a bicycle carry rack, the reception portion including a clamping unit extending therefrom, the clamping unit having an adjustable portion and a hole defined through the clamping unit; a fastener extending through the hole of the clamping unit and connected with a washer and a nut, the nut being threadedly connected to the fastener to secure or release the clamping unit; characterized in that it further comprises: a T-shaped adjustment member connected to the adjustable portion; and an assistance wrench connected to the clamping unit and including a driving portion, an accommodation portion and a lever, the driving portion located in the accommodation portion and detachably mounted to the nut, the lever extending from the accommodation portion, a recovery unit partially received in the accommodation portion and including a collar, a spring and a tubular member, the spring biased between the collar and the tubular member to maintain the assistance wrench to be mounted to the nut. a reception portion and a connection portion, the reception portion adapted to be mounted to a vehicle hitch, the connection portion connected to the reception portion and adapted to be connected with a bicycle carry rack, the reception portion including a clamping unit extending therefrom, the clamping unit having an adjustable portion and a hole defined through the clamping unit; a fastener extending through the hole of the clamping unit and connected with a washer and a nut, the nut being threadedly connected to the fastener to secure or release the clamping unit; characterized in that it further comprises: a T-shaped adjustment member connected to the adjustable portion; and an assistance wrench connected to the clamping unit and including a driving portion, an accommodation portion and a lever, the driving portion located in the accommodation portion and detachably mounted to the nut, the lever extending from the accommodation portion, a recovery unit partially received in the accommodation portion and including a collar, a spring and a tubular member, the spring biased between the collar and the tubular member to maintain the assistance wrench to be mounted to the nut. a T-shaped adjustment member connected to the adjustable portion; and an assistance wrench connected to the clamping unit and including a driving portion, an accommodation portion and a lever, the driving portion located in the accommodation portion and detachably mounted to the nut, the lever extending from the accommodation portion, a recovery unit partially received in the accommodation portion and including a collar, a spring and a tubular member, the spring biased between the collar and the tubular member to maintain the assistance wrench to be mounted to the nut.
An optically variable security element for security papers, value documents and other data carriers, having - a single or multilayer central body having opposing first and second main surfaces (22, 24), - an arrangement, arranged on the first main surface of the central body, of microlenses of the same kind whose refractive effect defines a focal plane, - a laser-sensitive recording layer arranged on the second main surface of the central body, - a mask layer that is arranged between the arrangement of microlenses and the laser-sensitive recording layer and outside of the focal plane of the microlenses, and - a plurality of micromarks produced in the laser-sensitive recording layer by the action of laser radiation, each micromark being associated with a microlens and being visible when the security element is viewed through the associated microlens, - the mask layer comprising a macroscopic gap region that is in register with the plurality of micromarks. - a single or multilayer central body having opposing first and second main surfaces (22, 24), - an arrangement, arranged on the first main surface of the central body, of microlenses of the same kind whose refractive effect defines a focal plane, - a laser-sensitive recording layer arranged on the second main surface of the central body, - a mask layer that is arranged between the arrangement of microlenses and the laser-sensitive recording layer and outside of the focal plane of the microlenses, and - a plurality of micromarks produced in the laser-sensitive recording layer by the action of laser radiation, each micromark being associated with a microlens and being visible when the security element is viewed through the associated microlens, - the mask layer comprising a macroscopic gap region that is in register with the plurality of micromarks.
A method of improving data availability, comprising: detecting a restoration event, wherein the restoration event comprises a failure at a local or a remote storage system; in response to detecting the restoration event, determining whether a sufficient number of a plurality of shares of data are available to a client device to reconstruct a data set based on the available shares of data wherein each of the plurality of shares contains a distribution of data from the data set; in response to determining an insufficient number of shares are available, transmitting at least one read instruction to at least one remote storage system in a journaling message, the at least one read instruction requesting an additional share of data; receiving the requested additional share of data; storing the additional share of data in a storage local to the client device; and reconstructing the data set based at least in part on the stored additional share of data. detecting a restoration event, wherein the restoration event comprises a failure at a local or a remote storage system; in response to detecting the restoration event, determining whether a sufficient number of a plurality of shares of data are available to a client device to reconstruct a data set based on the available shares of data wherein each of the plurality of shares contains a distribution of data from the data set; in response to determining an insufficient number of shares are available, transmitting at least one read instruction to at least one remote storage system in a journaling message, the at least one read instruction requesting an additional share of data; receiving the requested additional share of data; storing the additional share of data in a storage local to the client device; and reconstructing the data set based at least in part on the stored additional share of data.