mhurhangee/patent-ind-claim-en huggingface dataset:
Tank installation for a motor vehicle, comprising a tank, a vent inlet line connected to the tank, a filler pipe for refuelling the tank, a vent outlet line connected to a fuel vapour filter, and a separation nipple for separating liquid from the vent inlet line into the filler pipe , the separation nipple comprising an inlet, which can be connected to the vent inlet line , an outlet, which can be connected to the vent outlet line , an opening , which can be connected to the interior of the filler pipe , and a flap , wherein the opening can be closed by means of the flap , wherein the inlet of the separation nipple is connected to the vent inlet line , the outlet of the separation nipple is connected to the vent outlet line , wherein the opening of the separation nipple is connected to the interior of the filler pipe , wherein the flap comprises a main surface and a reflector surface , which slopes relative to the main surface , wherein the opening is closed by the main surface when the flap is closed, and the reflector surface forms a reflector together with the main surface when the flap is open, which reflector deflects liquid passing through the opening in the direction of the tank end of the filler pipe , characterized in that the reflector surface blocks a flow path to the outlet for liquid passing through the opening when the flap is open.
A method for managing power quality events in an electrical system, the method comprising: processing electrical measurement data from or derived from energy-related signals captured by at least one intelligent electronic device "IED" to identify at least one power quality event associated with one or more loads monitored by the at least one IED, wherein the at least one IED and the one or more loads are installed at respective locations in the electrical system; determining at least one means for mitigating or eliminating an impact of the at least one identified power quality event on the electrical system; and applying one or more of the at least one means for mitigating or eliminating the impact to selected portions or zones of the electrical system; characterized in that said determining is based, at least in part, on an evaluation of a dynamic tolerance curve associated with one or more loads in the electrical system, wherein the dynamic tolerance curve characterizes response of the one or more loads to the at least one identified power quality event, and the impact of the at least one identified power quality event on the electrical system. processing electrical measurement data from or derived from energy-related signals captured by at least one intelligent electronic device "IED" to identify at least one power quality event associated with one or more loads monitored by the at least one IED, wherein the at least one IED and the one or more loads are installed at respective locations in the electrical system; determining at least one means for mitigating or eliminating an impact of the at least one identified power quality event on the electrical system; and applying one or more of the at least one means for mitigating or eliminating the impact to selected portions or zones of the electrical system; characterized in that said determining is based, at least in part, on an evaluation of a dynamic tolerance curve associated with one or more loads in the electrical system, wherein the dynamic tolerance curve characterizes response of the one or more loads to the at least one identified power quality event, and the impact of the at least one identified power quality event on the electrical system.
A polishing method, comprising: rotating a substrate (W); performing a first polishing process of pressing a polishing tape downwardly against an edge portion of the substrate by a pressing member , characterised by a portion of the polishing tape projecting from the pressing member inwardly in a radial direction of the substrate, to polish the edge portion of the substrate and bend the portion of the polishing tape along the pressing member, thereby forming a vertical surface and a horizontal surface in the edge portion of the substrate; and performing a second polishing process of pressing the bent portion of the polishing tape inwardly in the radial direction of the substrate against the vertical surface by the pressing member to further polish the edge portion of the substrate. rotating a substrate (W); performing a first polishing process of pressing a polishing tape downwardly against an edge portion of the substrate by a pressing member , characterised by a portion of the polishing tape projecting from the pressing member inwardly in a radial direction of the substrate, to polish the edge portion of the substrate and bend the portion of the polishing tape along the pressing member, thereby forming a vertical surface and a horizontal surface in the edge portion of the substrate; and performing a second polishing process of pressing the bent portion of the polishing tape inwardly in the radial direction of the substrate against the vertical surface by the pressing member to further polish the edge portion of the substrate.
A composite tube comprising: a body comprising a longitudinal centerline axis; and at least one end portion , wherein the at least one end portion comprises a plurality of segments that are angled relative to the longitudinal centerline axis and are circumferentially separated from each other by a plurality of slits; and characterized by the plurality of segments being flared radially outwards relative to the longitudinal centerline axis. a body comprising a longitudinal centerline axis; and at least one end portion , wherein the at least one end portion comprises a plurality of segments that are angled relative to the longitudinal centerline axis and are circumferentially separated from each other by a plurality of slits; and characterized by the plurality of segments being flared radially outwards relative to the longitudinal centerline axis.
A polyamide resin powder comprising a polyamide resin and an ultraviolet scattering agent, the polyamide resin powder being in a plate-like form and having an average thickness of not more than 2 μm determined from an electron micrograph and a ratio of an average thickness and an average diameter in the former/the latter of 1/5 to 1/200 determined from an electron micrograph, wherein the polyamide resin comprises an aliphatic homo- or co-polyamide having a C 8-16 alkylene chain, wherein the ultraviolet scattering agent comprises metal oxide particles, and wherein the ratio of the ultraviolet scattering agent is 50 to 150 parts by weight relative to 100 parts by weight of the polyamide resin.
First communication device configured to communicate with a second communication device via at least two links, the first communication device comprising circuitry configured to - switch between a full operation mode and a partial operation mode, wherein in the full operation mode a first link of the at least two links is disabled and a second link of the at least two links commonly uses bandwidths and/or spatial streams of the at least two links for the communication with the second communication device and wherein in the partial operation mode each link uses a respective subset of the spatial streams and/or bandwidths of the at least two links for the communication with the second communication device; and - control the moment of switching between the full operation mode and the partial operation mode and/or the moment of accessing the second link in the full operation mode under consideration of a switching delay indicating a delay between the initiation of switching between the full operation mode and the partial operation mode and the completion of the switching. - switch between a full operation mode and a partial operation mode, wherein in the full operation mode a first link of the at least two links is disabled and a second link of the at least two links commonly uses bandwidths and/or spatial streams of the at least two links for the communication with the second communication device and wherein in the partial operation mode each link uses a respective subset of the spatial streams and/or bandwidths of the at least two links for the communication with the second communication device; and wherein in the full operation mode a first link of the at least two links is disabled and a second link of the at least two links commonly uses bandwidths and/or spatial streams of the at least two links for the communication with the second communication device and wherein in the partial operation mode each link uses a respective subset of the spatial streams and/or bandwidths of the at least two links for the communication with the second communication device; and - control the moment of switching between the full operation mode and the partial operation mode and/or the moment of accessing the second link in the full operation mode under consideration of a switching delay indicating a delay between the initiation of switching between the full operation mode and the partial operation mode and the completion of the switching.
A loading mechanism , including a first roller assembly comprising at least one roller having a longitudinal axis (Y); a second roller assembly comprising at least one roller having a longitudinal axis (Y); at least one mounting configured to pivotally engage with the first roller assembly and second roller assembly so as to allow the orientation of the longitudinal axis (Y) of said at least one roller of the first roller assembly to change and to allow the orientation of the longitudinal axis (Y) of said at least one roller of the second roller assembly to change; and, a drive mechanism, wherein the drive mechanism comprises: a hydraulic drive motor connected to the at least one roller of the first roller assembly , and a second hydraulic drive motor connected to at least one roller of the second roller assembly a hydraulic pump connected to the hydraulic drive motors , wherein operation of the hydraulic pump causes the drive motors to rotate and thereby rotate the rollers of the first and second roller assemblies about their longitudinal axis (Y) to move an object, wherein as the weight of the object applies pressure to the roller of at least one of the first and second roller assemblies the at least one mounting allows said rollers to move so as to change the angle between the longitudinal axis (Y) of the rollers of the first and second roller assemblies . a hydraulic drive motor connected to the at least one roller of the first roller assembly , and a second hydraulic drive motor connected to at least one roller of the second roller assembly a hydraulic pump connected to the hydraulic drive motors , wherein operation of the hydraulic pump causes the drive motors to rotate and thereby rotate the rollers of the first and second roller assemblies about their longitudinal axis (Y) to move an object, wherein as the weight of the object applies pressure to the roller of at least one of the first and second roller assemblies the at least one mounting allows said rollers to move so as to change the angle between the longitudinal axis (Y) of the rollers of the first and second roller assemblies .
A method of transmitting a Medium Access Control, MAC, Protocol Data Unit, PDU, in a transmitting device , the method comprising the steps of: generating the MAC PDU comprising a MAC header, an extended header group, and a payload; and transmitting the MAC PDU to a receiving device , wherein the MAC header comprises an extended header, EH, field, and the extended header group comprises extended headers, a MAC PDU length extension field, an extended header length indicator field indicating whether the extended header group is of a short length or a long length, and an extended header length field, wherein a length field of the MAC header in conjunction with the MAC PDU length extension field indicate a length of the MAC PDU, wherein the EH field indicates presence of the extended header group and the extended header length field indicates a length of the extended header group, and wherein if the extended header length indicator field is set to '0', the extended header group is of a short length and the length of the extended header group is equal to a sum of the length of the extended headers plus one. generating the MAC PDU comprising a MAC header, an extended header group, and a payload; and transmitting the MAC PDU to a receiving device , wherein the MAC header comprises an extended header, EH, field, and the extended header group comprises extended headers, a MAC PDU length extension field, an extended header length indicator field indicating whether the extended header group is of a short length or a long length, and an extended header length field, wherein a length field of the MAC header in conjunction with the MAC PDU length extension field indicate a length of the MAC PDU, wherein the EH field indicates presence of the extended header group and the extended header length field indicates a length of the extended header group, and wherein if the extended header length indicator field is set to '0', the extended header group is of a short length and the length of the extended header group is equal to a sum of the length of the extended headers plus one.
A patch assembly for iontophoretic transdermal delivery of a therapeutic agent to a patient, the assembly comprising: a patch for iontophoretic transdermal delivery of the therapeutic agent, the patch having a tissue contacting side, a non-tissue contacting side, a therapeutic agent reservoir and a first and second electrode, at least one of the electrodes electrically coupled to the therapeutic agent reservoir; a current source coupled to the patch and electrically coupled to the first and second electrode; and a controller coupled to the patch for controlling the iontophoretic transdermal delivery of the therapeutic agent; the controller configured to deliver a dose of therapeutic agent from the patch into the skin during a first period using a first current having a polarity and magnitude to repel the therapeutic agent out of the patch; and retain the therapeutic agent in the patch during a second period using holding current having a polarity and magnitude to retain the therapeutic agent in the patch such that delivery of the therapeutic agent into the skin during the second period is minimized, wherein the first period comprises a delivery period and the second period comprises a non-delivery period which together comprise a delivery cycle, characterised in that the controller is coupled to a sensor to determine a concentration of the therapeutic agent within the therapeutic agent reservoir, the first current and the holding current being adjustable relative to the determined concentration of the therapeutic agent within the therapeutic agent reservoir. a patch for iontophoretic transdermal delivery of the therapeutic agent, the patch having a tissue contacting side, a non-tissue contacting side, a therapeutic agent reservoir and a first and second electrode, at least one of the electrodes electrically coupled to the therapeutic agent reservoir; a current source coupled to the patch and electrically coupled to the first and second electrode; and a controller coupled to the patch for controlling the iontophoretic transdermal delivery of the therapeutic agent; the controller configured to deliver a dose of therapeutic agent from the patch into the skin during a first period using a first current having a polarity and magnitude to repel the therapeutic agent out of the patch; and retain the therapeutic agent in the patch during a second period using holding current having a polarity and magnitude to retain the therapeutic agent in the patch such that delivery of the therapeutic agent into the skin during the second period is minimized, wherein the first period comprises a delivery period and the second period comprises a non-delivery period which together comprise a delivery cycle, characterised in that the controller is coupled to a sensor to determine a concentration of the therapeutic agent within the therapeutic agent reservoir, the first current and the holding current being adjustable relative to the determined concentration of the therapeutic agent within the therapeutic agent reservoir.
An oven comprising: a case ; a cooking chamber formed inside the case ; and a door installed at one side of the case to open and close the cooking chamber , wherein the door includes: an outer plate forming appearance; an inner plate spaced apart from the outer plate by a predetermined distance and being in contact with the cooking chamber ; and a door display module disposed between the outer plate and the inner plate to display predetermined information on the outer plate , characterized in that the door display module is provided as a projection module for projecting a predetermined image having the predetermined information on the outer plate . a case ; a cooking chamber formed inside the case ; and a door installed at one side of the case to open and close the cooking chamber , wherein the door includes: an outer plate forming appearance; an inner plate spaced apart from the outer plate by a predetermined distance and being in contact with the cooking chamber ; and a door display module disposed between the outer plate and the inner plate to display predetermined information on the outer plate , characterized in that the door display module is provided as a projection module for projecting a predetermined image having the predetermined information on the outer plate . an outer plate forming appearance; an inner plate spaced apart from the outer plate by a predetermined distance and being in contact with the cooking chamber ; and a door display module disposed between the outer plate and the inner plate to display predetermined information on the outer plate , characterized in that the door display module is provided as a projection module for projecting a predetermined image having the predetermined information on the outer plate .
A composition comprising: (i) a blend of fibrinogen and thrombin, wherein the blend is in the form of a plurality of particles, and (ii) a hydrophobic dispersant, wherein the composition is in the form of a paste at at-least one temperature in the range of 10 °C to 37 °C.
A utilisation of an insert sheet in a toilet rim block cage , said toilet rim block cage having a first and a second cage wall, with a cleaning agent being disposed between the first and second cage walls and the outward-facing visible surface of the first cage wall pointing toward the interior of the toilet bowl once the cage has been fastened to said toilet bowl, the insert sheet being provided between the cleaning agent and the first and/or second cage wall(s), with the insert sheet being water-insoluble, characterised in that the visible surface includes visible information to be viewed by a user, said information being provided in the form of images, illustrations, colours, texts, comic strips, or holograms, and in that the insert sheet is designed to convey an appealing appearance to the toilet rim block cage throughout the lifetime of the cleaning agent .
A sensor arrangement , comprising a sensor chip comprising - a sensor sensitive to a variable to be measured, and providing a sensor signal (x), - a stress sensor sensitive to stress in the sensor chip , and providing a stress signal (y), and - an integrated circuitry, wherein the integrated circuitry includes a compensator , the compensator configured to determine a stress compensated sensor signal (z) dependent on the sensor signal (x) and the stress signal (y), wherein the sensor chip comprises electrical contacts for contacting the sensor chip from the outside, and wherein the stress sensor is arranged at a location exposed to a mechanical stress induced or transmitted via the electrical contacts or another mechanical connection. - a sensor sensitive to a variable to be measured, and providing a sensor signal (x), - a stress sensor sensitive to stress in the sensor chip , and providing a stress signal (y), and - an integrated circuitry, wherein the integrated circuitry includes a compensator , the compensator configured to determine a stress compensated sensor signal (z) dependent on the sensor signal (x) and the stress signal (y),
An isolated nucleic acid molecule encoding a modified glucose-6-phosphatase-a (G6Pase-a), wherein the amino acid sequence of the modified G6Pase-a is set forth as SEQ ID NO: 2 and comprises a serine to cysteine substitution at amino acid 298.
A method of providing a communication service to user terminals distributed over a user coverage area via a relay provided on a satellite , the relay comprising multiple forward receive/transmit signal paths , the method comprising: obtaining multiple forward beam signals comprising forward user data streams for transmission to a plurality of the user terminals grouped by multiple forward user beam coverage areas ; generating a forward beam weight matrix for beamforming of transmissions from a plurality of access nodes at geographically distributed locations to the multiple forward user beam coverage areas via the relay, wherein the forward beam weight matrix accounts for wireless signal uplink paths up to the relay, the multiple forward receive/transmit signal paths through the relay, and wireless signal downlink paths down from the relay; generating respective access node-specific forward signals for transmission by the plurality of access nodes, each of the respective access node-specific forward signals comprising a composite of respective forward beam signals weighted by respective forward beamforming weights of the forward beam weight matrix; and transmitting respective forward uplink signals from the plurality of access nodes based on the respective access node-specific forward signals, wherein the respective forward uplink signals are pre-corrected to compensate for respective path delays and phase shifts between the plurality of access nodes and the relay, wherein the forward uplink signals are configured to superpose to create composite input forward signals to be received by a plurality of transponders on the relay via receive antenna elements on the relay. obtaining multiple forward beam signals comprising forward user data streams for transmission to a plurality of the user terminals grouped by multiple forward user beam coverage areas ; generating a forward beam weight matrix for beamforming of transmissions from a plurality of access nodes at geographically distributed locations to the multiple forward user beam coverage areas via the relay, wherein the forward beam weight matrix accounts for wireless signal uplink paths up to the relay, the multiple forward receive/transmit signal paths through the relay, and wireless signal downlink paths down from the relay; generating respective access node-specific forward signals for transmission by the plurality of access nodes, each of the respective access node-specific forward signals comprising a composite of respective forward beam signals weighted by respective forward beamforming weights of the forward beam weight matrix; and transmitting respective forward uplink signals from the plurality of access nodes based on the respective access node-specific forward signals, wherein the respective forward uplink signals are pre-corrected to compensate for respective path delays and phase shifts between the plurality of access nodes and the relay, wherein the forward uplink signals are configured to superpose to create composite input forward signals to be received by a plurality of transponders on the relay via receive antenna elements on the relay.