mhurhangee/ep-ind-claims huggingface dataset:
Low-voltage circuit breaker device comprising at least one outer conductor path from an outer conductor supply connection of the low-voltage circuit breaker device to an outer conductor load connection of said low-voltage circuit breaker device, and a neutral conductor path from a neutral conductor connection of the low-voltage circuit breaker device to a neutral conductor load connection of said low-voltage circuit breaker device, wherein a mechanical bypass switch is arranged in said outer conductor path, wherein a first semiconductor circuit arrangement of the low-voltage circuit breaker device is connected in parallel to the bypass switch, wherein a current measuring arrangement is arranged in said outer conductor path, which is connected to an electronic control unit of said circuit breaker device, wherein the electronic control unit is designed to actuate the bypass switch and the first semiconductor circuit arrangement upon detection of a pre-definable overload current, in particular a short-circuit current, by the current measuring arrangement, characterised in that a first mechanical disconnector is arranged in series with the first semiconductor circuit arrangement and in parallel to the bypass switch, that a second semiconductor circuit arrangement is arranged in the outer conductor path in terms of circuitry in series with the bypass switch and in parallel to the first semiconductor circuit arrangement, and that the electronic control unit is designed to switch on the first semiconductor circuit arrangement only upon detection of a short-circuit current and/or overload current by the current measuring arrangement, then to block the second semiconductor circuit arrangement, then to open the bypass switch, then to control the first semiconductor circuit arrangement into the non-conductive state, and then is to open the first mechanical disconnector.
A method of cutting molded cores wherein a main body and a segment are obtained from each molded core including an annular magnetic body made of a magnetic material and an insulating resin covering part that covers the magnetic body, each molded core being cut at a first cutting part and a second cutting part that transect an outer peripheral surface and an inner peripheral surface and approach each other toward the inner peripheral surface of the molded core, the main body having a main body-side first end face formed by the cutting at the first cutting part and a main body-side second end face formed by the cutting at the second cutting part, and the segment having a segment-side first end face formed by the cutting at the first cutting part and a segment-side second end face formed by the cutting at the second cutting part, wherein the plurality of molded cores are arranged to be coupled such that respective side faces are opposing each other, and wherein the plurality of coupled molded cores are collectively cut at the first cutting part and the second cutting part to transect the outer peripheral surface and the inner peripheral surface of the respective molded cores.
A method for making a polymer composite, the method comprising: combining a plurality of carbon nanostructures and a polymer matrix, the carbon nanostructures each being free of an adhered growth substrate and comprising a plurality of carbon nanotubes that are branched, crosslinked, and share common walls with one another; and dispersing the carbon nanostructures in the polymer matrix under applied shear; wherein the applied shear breaks crosslinks between the carbon nanotubes to form a plurality of fractured carbon nanotubes that are dispersed as individuals in the polymer matrix; wherein the plurality of fractured carbon nanotubes comprises carbon nanotubes that are branched and share common walls with one another. combining a plurality of carbon nanostructures and a polymer matrix, the carbon nanostructures each being free of an adhered growth substrate and comprising a plurality of carbon nanotubes that are branched, crosslinked, and share common walls with one another; and dispersing the carbon nanostructures in the polymer matrix under applied shear; wherein the applied shear breaks crosslinks between the carbon nanotubes to form a plurality of fractured carbon nanotubes that are dispersed as individuals in the polymer matrix; wherein the plurality of fractured carbon nanotubes comprises carbon nanotubes that are branched and share common walls with one another. wherein the applied shear breaks crosslinks between the carbon nanotubes to form a plurality of fractured carbon nanotubes that are dispersed as individuals in the polymer matrix; wherein the plurality of fractured carbon nanotubes comprises carbon nanotubes that are branched and share common walls with one another.
A light emitting module comprising: a light emitting element configured to emit a light having a main wavelength within a certain range; a light wavelength conversion member configured to convert the wavelength of the light emitted by the light emitting element then emit the light; and an optical filter configured to transmit a light with the main wavelength emitted by the light emitting element and reflect light with a main wavelength which has been converted by the light wavelength conversion member, wherein the light wavelength conversion member is formed into a plate shape, and wherein the optical filter is provided on the surface of the light wavelength conversion member, characterized in that the optical filter has a higher transmittance than a reflectance with respect to the light having wavelength within an overlapping wavelength range where the wavelength range of the light emitted by the light emitting element and that of the wavelength converted light converted by the light wavelength conversion member are overlapped with each other. a light emitting element configured to emit a light having a main wavelength within a certain range; a light wavelength conversion member configured to convert the wavelength of the light emitted by the light emitting element then emit the light; and an optical filter configured to transmit a light with the main wavelength emitted by the light emitting element and reflect light with a main wavelength which has been converted by the light wavelength conversion member, wherein the light wavelength conversion member is formed into a plate shape, and wherein the optical filter is provided on the surface of the light wavelength conversion member,
A method for performing handover for a user equipment, UE, between a source access point, AP, and a target AP in an AP network, said AP network comprising access points including said source AP and target AP and an access gateway, AG, connecting the APs to a core network and implementing agent functions of a radio network controller, RNC, wherein a RNC identity, RNC-ID is allocated to the AG and all APs connected through the AG to the core network use the RNC-ID of the AG, wherein the handover is invisible to the core network, characterized in that the method comprises: receiving (S401, S501), by the AG, a handover request from the source AP, and sending (S402, S502) the handover request to the target AP, wherein the handover request comprises a PS context or a CS context of the UE; sending (S405, S505), by the AG, a handover command to the source AP, after the target AP sends a handover request ACK to the AG; and adjusting, by the AG, uplink and downlink tunnels with the source AP to uplink and downlink tunnels with the target AP after the UE performs reconfiguration and synchronizes (S407, S507) with the target AP and the target AP sends (S408,S508) a handover detect command to the AG. receiving (S401, S501), by the AG, a handover request from the source AP, and sending (S402, S502) the handover request to the target AP, wherein the handover request comprises a PS context or a CS context of the UE; sending (S405, S505), by the AG, a handover command to the source AP, after the target AP sends a handover request ACK to the AG; and adjusting, by the AG, uplink and downlink tunnels with the source AP to uplink and downlink tunnels with the target AP after the UE performs reconfiguration and synchronizes (S407, S507) with the target AP and the target AP sends (S408,S508) a handover detect command to the AG.
Process for the regeneration of an adsorber comprising the steps a) to e): a) converting a stream comprising at least one alkane from liquid phase into gaseous phase, b) regenerating the adsorber by contact with gaseous stream in a range of 230 to 270 °C, c) cooling the adsorber by contact with gaseous stream obtained in step a) to a temperature in a range of 90 to 150 °C, d) optionally cooling the adsorber to a temperature below 80 °C by contact with liquid stream without prior conversion into gaseous phase, e) recycling of the outflow (S2*) of the adsorber as obtained in step c) and/or optionally in step d), wherein the outflow (S2*) is at least partially recycled to at least one of the steps a) to d), wherein the process comprises a further step f): f) hydrogenation of a stream comprising at least one alkane and at least one olefin, carried out prior to step a), to obtain a liquid stream comprising at least one alkane and a reduced amount of at least one olefin compared to the amount of stream, wherein in step f), the stream comprises at least 96 wt-% butane and not more than 4 wt-% butene and wherein the stream comprises at least 99 wt-% butane and not more than 1000 wt-ppm butene. a) converting a stream comprising at least one alkane from liquid phase into gaseous phase, b) regenerating the adsorber by contact with gaseous stream in a range of 230 to 270 °C, c) cooling the adsorber by contact with gaseous stream obtained in step a) to a temperature in a range of 90 to 150 °C, d) optionally cooling the adsorber to a temperature below 80 °C by contact with liquid stream without prior conversion into gaseous phase, e) recycling of the outflow (S2*) of the adsorber as obtained in step c) and/or optionally in step d), wherein the outflow (S2*) is at least partially recycled to at least one of the steps a) to d),
A method of forming a decorative layer of a building panel, wherein the method comprises: • heating a substrate to a temperature of at least about 80 °C; • printing a digital image with a print head by applying drops of a water-based ink on the heated substrate; and • applying a transparent wear resistant layer on the digital image, wherein the water-based ink is adapted for digital printing on a substrate of a panel that after printing is pressed and heated to above 100 °C, wherein the water-based ink comprises a colorant comprising an aqueous pigment dispersion, a binder comprising an acrylic resin dispersion, and a liquid viscosity increasing substance comprising glycol or glycerine, wherein the boiling point of the water-based ink is above 100 °C and below 130 °C, and wherein the viscosity of the water-based ink is above 2 cps and below 15 cps at 25 °C. • heating a substrate to a temperature of at least about 80 °C; • printing a digital image with a print head by applying drops of a water-based ink on the heated substrate; and • applying a transparent wear resistant layer on the digital image, wherein the water-based ink is adapted for digital printing on a substrate of a panel that after printing is pressed and heated to above 100 °C, wherein the water-based ink comprises a colorant comprising an aqueous pigment dispersion, a binder comprising an acrylic resin dispersion, and a liquid viscosity increasing substance comprising glycol or glycerine, wherein the boiling point of the water-based ink is above 100 °C and below 130 °C, and wherein the viscosity of the water-based ink is above 2 cps and below 15 cps at 25 °C.
An image forming device comprising: determination means (1, S106) configured, when, in accordance with a user instruction, a code image formed of a unit code image is to be repeatedly combined over the entire surface of document information of a scanned image including a first QR code image, to determine whether or not a second QR code image is to be generated because of identifying that the first QR code image cannot be read because an appearance of the first QR code image has been affected by the combination of the code image formed of the unit code image over the scanned image including a first QR code image; generation means (1, S111) configured, to decode the first QR code image, when the determination means determines that the second QR code image is to be generated, wherein the generation means (1, S111) is also configured, when the determination means determines that the second QR code image is to be generated, to generate the second QR code image comprising information based on information acquired from the first QR code image; and combination means (S110, S112) configured to combine the code image formed of the unit code image which is to be repeatedly combined over the entire surface of the document information of the scanned image with the scanned image and to combine the second QR code image with the combination of the code image formed of the unit code image which is to be repeatedly combined over the entire surface of the document information of the scanned image and the scanned image. determination means (1, S106) configured, when, in accordance with a user instruction, a code image formed of a unit code image is to be repeatedly combined over the entire surface of document information of a scanned image including a first QR code image, to determine whether or not a second QR code image is to be generated because of identifying that the first QR code image cannot be read because an appearance of the first QR code image has been affected by the combination of the code image formed of the unit code image over the scanned image including a first QR code image; generation means (1, S111) configured, to decode the first QR code image, when the determination means determines that the second QR code image is to be generated, wherein the generation means (1, S111) is also configured, when the determination means determines that the second QR code image is to be generated, to generate the second QR code image comprising information based on information acquired from the first QR code image; and combination means (S110, S112) configured to combine the code image formed of the unit code image which is to be repeatedly combined over the entire surface of the document information of the scanned image with the scanned image and to combine the second QR code image with the combination of the code image formed of the unit code image which is to be repeatedly combined over the entire surface of the document information of the scanned image and the scanned image.
A hydrodynamic torque generator for test benches having at least one inlet valve and at least one outlet valve, and having at least one control device for valve positioning coupled to these valves to control the torque of the hydrodynamic torque generator, wherein a control which consists of an open-loop feed-forward controller and a closed-loop feedback controller is implemented in the control device, characterized in that the open-loop feed-forward controller is based on an inversion of a known static, non-linear characteristic map of the torque generator which describes the relationship between the valve positions, the speed and the resulting torque.
An engineered single-guide nucleic acid-targeting nucleic acid capable of forming a complex with a Type II CRISPR Cas9 protein, the engineered single-guide nucleic acid-targeting nucleic acid comprising: a spacer sequence, comprising a sequence that can hybridize to the target nucleic acid sequence; a duplex comprising a region of hybridization between a minimum CRISPR repeat sequence and a minimum tracr sequence, wherein the spacer sequence is 5' of the duplex, and a bulge region that is not followed by a first stem, wherein the bulge region comprises a region of unpaired nucleotides, and wherein the bulge region comprises an unpaired purine on the minimum CRISPR repeat sequence side of the bulge region; a single guide connector sequence connecting the ends of the duplex to form a hairpin structure; and a 3' tracr sequence. a spacer sequence, comprising a sequence that can hybridize to the target nucleic acid sequence; a duplex comprising a region of hybridization between a minimum CRISPR repeat sequence and a minimum tracr sequence, wherein the spacer sequence is 5' of the duplex, and a bulge region that is not followed by a first stem, wherein the bulge region comprises a region of unpaired nucleotides, and wherein the bulge region comprises an unpaired purine on the minimum CRISPR repeat sequence side of the bulge region; a region of hybridization between a minimum CRISPR repeat sequence and a minimum tracr sequence, wherein the spacer sequence is 5' of the duplex, and a bulge region that is not followed by a first stem, wherein the bulge region comprises a region of unpaired nucleotides, and wherein the bulge region comprises an unpaired purine on the minimum CRISPR repeat sequence side of the bulge region; a single guide connector sequence connecting the ends of the duplex to form a hairpin structure; and a 3' tracr sequence.
A management system, comprising: a measurement device configured to be operably coupled with an energy storage device for measuring two or more operating parameters of the energy storage device; and a controller configured to determine discharge effectiveness indicators of the energy storage device from the measured operating parameters at a designated frequency, wherein the discharge effective indicator is determined as a function of incremental energy by tracking a peak in delivered incremental energy and using that as an indication of diminishing discharge effectiveness; wherein the controller is further configured to assess at least one of relative slopes or absolute values of the discharge effectiveness indicators for instantaneous detection of a deviation in one of the relative slopes or absolute values representing a threshold limit of a state-of-charge of the energy storage device, and at least one of signal an end of a discharge operation for the energy storage device or terminate the discharge operation responsive to the detection. a measurement device configured to be operably coupled with an energy storage device for measuring two or more operating parameters of the energy storage device; and a controller configured to determine discharge effectiveness indicators of the energy storage device from the measured operating parameters at a designated frequency, wherein the discharge effective indicator is determined as a function of incremental energy by tracking a peak in delivered incremental energy and using that as an indication of diminishing discharge effectiveness; wherein the controller is further configured to assess at least one of relative slopes or absolute values of the discharge effectiveness indicators for instantaneous detection of a deviation in one of the relative slopes or absolute values representing a threshold limit of a state-of-charge of the energy storage device, and at least one of signal an end of a discharge operation for the energy storage device or terminate the discharge operation responsive to the detection.
An electric power steering device comprising: a steering force assist device that applies an assist force to a steering system by using a motor as a drive source; a rotation body that constitutes a part of the motor or the steering system and rotates as the motor rotates; a rotation sensor that outputs a sensor signal based on the rotation of the rotation body; a control means that controls operation of the steering force assist device to generate the assist force based on the sensor signal; and an abnormality detecting means that detects an abnormality in the sensor signal, characterized in that the control means controls the operation of the steering force assist device to apply, in addition to an ordinary control amount, instantaneous motor torque to the steering system, and the abnormality detecting means detects an abnormality in the sensor signal if the application of instantaneous motor torque is not reflected in the sensor signal. a steering force assist device that applies an assist force to a steering system by using a motor as a drive source; a rotation body that constitutes a part of the motor or the steering system and rotates as the motor rotates; a rotation sensor that outputs a sensor signal based on the rotation of the rotation body; a control means that controls operation of the steering force assist device to generate the assist force based on the sensor signal; and an abnormality detecting means that detects an abnormality in the sensor signal, characterized in that the control means controls the operation of the steering force assist device to apply, in addition to an ordinary control amount, instantaneous motor torque to the steering system, and the abnormality detecting means detects an abnormality in the sensor signal if the application of instantaneous motor torque is not reflected in the sensor signal.
A display, comprising: a layer with an active area that contains an array of light-emitting elements and an inactive area that includes bent edge portions of the layer, and wherein the inactive area includes circuitry that does not emit light, characterised in that: the layer comprises corner regions each having a hole, wherein the corner regions are formed from the bent edge portions of the layer, and wherein the holes are completely surrounded by portions of the layer. a layer with an active area that contains an array of light-emitting elements and an inactive area that includes bent edge portions of the layer, and wherein the inactive area includes circuitry that does not emit light, characterised in that: the layer comprises corner regions each having a hole, wherein the corner regions are formed from the bent edge portions of the layer, and wherein the holes are completely surrounded by portions of the layer. the layer comprises corner regions each having a hole, wherein the corner regions are formed from the bent edge portions of the layer, and wherein the holes are completely surrounded by portions of the layer.