mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving , by a user device from a base station, information indicating that support for a receive limited user device is enabled based on a presence of a threshold number of receive limited user devices within a range of a cell of the base station, wherein the receive limited user device supports only a limited set of communication capabilities that is less than a full set of communication capabilities, and wherein the receive limited user device is unable to receive a transmission that was transmitted based on one or more communication capabilities of the full set of communication capabilities that are not part of the limited set of communication capabilities; selecting , by the user device in response to the receiving, one or more communication capabilities to support the receive limited user device; and transmitting , by the user device, information using the selected one or more communication capabilities. receiving , by a user device from a base station, information indicating that support for a receive limited user device is enabled based on a presence of a threshold number of receive limited user devices within a range of a cell of the base station, wherein the receive limited user device supports only a limited set of communication capabilities that is less than a full set of communication capabilities, and wherein the receive limited user device is unable to receive a transmission that was transmitted based on one or more communication capabilities of the full set of communication capabilities that are not part of the limited set of communication capabilities; selecting , by the user device in response to the receiving, one or more communication capabilities to support the receive limited user device; and transmitting , by the user device, information using the selected one or more communication capabilities.
System comprising: a processor with a plurality of cores having the same instruction set architecture, at least one memory connected to the processor, a plurality of virtualization systems adapted to run respectively each on one core , the plurality of virtualization systems including a first virtualization system adapted to run on a first core and a second virtualization system adapted to run on a second core , wherein the first virtualization system has a first characteristic with a first parameter and the second virtualization system has a second characteristic with a second parameter, wherein the parameter of the first characteristic and the parameter of the second characteristic are incompatible when implemented in a single virtualization system; and communication module for enabling the plurality of virtualization systems to communicate with each other. a processor with a plurality of cores having the same instruction set architecture, at least one memory connected to the processor, a plurality of virtualization systems adapted to run respectively each on one core , the plurality of virtualization systems including a first virtualization system adapted to run on a first core and a second virtualization system adapted to run on a second core , wherein the first virtualization system has a first characteristic with a first parameter and the second virtualization system has a second characteristic with a second parameter, wherein the parameter of the first characteristic and the parameter of the second characteristic are incompatible when implemented in a single virtualization system; and communication module for enabling the plurality of virtualization systems to communicate with each other.
A method, comprising: Receiving (105; 410), by a device, historical data that relates to user access rights associated with multiple cloud applications, wherein the historical data includes features that relate to permissions and attributes associated with multiple users within the multiple cloud applications; using (110; 420), by the device, an unsupervised machine learning technique to cluster the historical data based on the features that relate to the permissions and the attributes associated with the multiple users within the multiple cloud applications; using (115; 430), by the device, a supervised machine learning technique to train an access rights data model based on the clustered historical data; performing (130; 440), by the device, one or more actions that relate to current access rights assigned to at least one user within one or more of the multiple cloud applications based on a score representing a probability that an access level assigned to the at least one user within the one or more of the multiple cloud applications is correct, wherein the score is determined based on the access rights data model and a set of features that relate to the at least one user; and applying (140; 450), by the device, a reinforcement learning technique to update the access rights data model based on data providing feedback on the one or more actions. Receiving (105; 410), by a device, historical data that relates to user access rights associated with multiple cloud applications, wherein the historical data includes features that relate to permissions and attributes associated with multiple users within the multiple cloud applications; using (110; 420), by the device, an unsupervised machine learning technique to cluster the historical data based on the features that relate to the permissions and the attributes associated with the multiple users within the multiple cloud applications; using (115; 430), by the device, a supervised machine learning technique to train an access rights data model based on the clustered historical data; performing (130; 440), by the device, one or more actions that relate to current access rights assigned to at least one user within one or more of the multiple cloud applications based on a score representing a probability that an access level assigned to the at least one user within the one or more of the multiple cloud applications is correct, wherein the score is determined based on the access rights data model and a set of features that relate to the at least one user; and applying (140; 450), by the device, a reinforcement learning technique to update the access rights data model based on data providing feedback on the one or more actions.
A semiconductor device comprising: a semiconductor substrate containing a circuit region (CR) and a chip outer peripheral region (PR) provided adjacent to the circuit region; a first interlayer-insulating film provided on the semiconductor substrate; a second interlayer-insulating film provided on the first interlayer-insulating film; a first step (ST1) provided in a boundary portion between the semiconductor substrate and the first interlayer-insulating film so that a surface of the chip outer peripheral region side is lower than a surface of the circuit region side in the chip outer peripheral region; and a second step (ST2) located on the circuit region side relative to the first step and provided in the second interlayer-insulating film in the chip outer peripheral region. a semiconductor substrate containing a circuit region (CR) and a chip outer peripheral region (PR) provided adjacent to the circuit region; a first interlayer-insulating film provided on the semiconductor substrate; a second interlayer-insulating film provided on the first interlayer-insulating film; a first step (ST1) provided in a boundary portion between the semiconductor substrate and the first interlayer-insulating film so that a surface of the chip outer peripheral region side is lower than a surface of the circuit region side in the chip outer peripheral region; and a second step (ST2) located on the circuit region side relative to the first step and provided in the second interlayer-insulating film in the chip outer peripheral region.
Material comprising at least one first polymeric sound insulating or sound proofing element and at least one second metallic element , wherein: - said first polymeric element has a density higher than 1.3, said first element being filled by means of fillers, said fillers being preferably present in a percentage from 5 to 95%, said fillers being selected from the group consisting of calcium carbonate, kaolin, barium sulphate, talc, dolomite, metal oxides, silica and silicates, slate, metallic powders, mica, graphite, aluminum hydroxide hydrate, magnesium hydroxide hydrate, zinc borate, titanium dioxide, carbon black, bitumen; - said second metallic element is reticulated; and - the material further comprises at least one third sound insulating or sound proofing element , said third element being selected from the group consisting of non-woven fabric, felt, natural cloth or fibers, synthetic cloths or fibers, metallic fibers or films, mineral fibers, glass wool, mineral wool, expanded or closed or open cell foamed polyurethane, expanded or closed or open cell foamed melamine, closed or open cell expanded reticulated polyethylene, plasterboard; - said first element being intimately connected to said second element , namely said second element is embedded in said first element or said second element is superficially coupled to said first element . - said first polymeric element has a density higher than 1.3, said first element being filled by means of fillers, said fillers being preferably present in a percentage from 5 to 95%, said fillers being selected from the group consisting of calcium carbonate, kaolin, barium sulphate, talc, dolomite, metal oxides, silica and silicates, slate, metallic powders, mica, graphite, aluminum hydroxide hydrate, magnesium hydroxide hydrate, zinc borate, titanium dioxide, carbon black, bitumen; - said second metallic element is reticulated; and - the material further comprises at least one third sound insulating or sound proofing element , said third element being selected from the group consisting of non-woven fabric, felt, natural cloth or fibers, synthetic cloths or fibers, metallic fibers or films, mineral fibers, glass wool, mineral wool, expanded or closed or open cell foamed polyurethane, expanded or closed or open cell foamed melamine, closed or open cell expanded reticulated polyethylene, plasterboard; - said first element being intimately connected to said second element , namely said second element is embedded in said first element or said second element is superficially coupled to said first element .
A stator vane comprising: - a vane root , - a vane tip , - a leading edge extending between the root and the tip , the leading edge having a serrated profile having a succession of teeth and of troughs each having an amplitude and a thickness, characterized in that a series of at least three teeth and three troughs that are consecutive starting from the vane root and/or from the vane tip have a growing amplitude and/or thickness. - a vane root , - a vane tip , - a leading edge extending between the root and the tip , the leading edge having a serrated profile having a succession of teeth and of troughs each having an amplitude and a thickness,
A method of monitoring an impeller pump used in a blood treatment apparatus by analysis of structure-borne noise comprising the following steps: - measuring the structure-borne noise arising in the impeller pump; - comparing the measured structure-borne noise of the impeller pump with a first reference curve and/or with a first limit value; - inferring a fault in the operation of the impeller pump when the measured structure-borne noise of the impeller pump deviates from the reference curve and/or exceeds the limit value; - outputting a signal as an indicator of a fault in the operation of the impeller pump. - measuring the structure-borne noise arising in the impeller pump; - comparing the measured structure-borne noise of the impeller pump with a first reference curve and/or with a first limit value; - inferring a fault in the operation of the impeller pump when the measured structure-borne noise of the impeller pump deviates from the reference curve and/or exceeds the limit value; - outputting a signal as an indicator of a fault in the operation of the impeller pump.
A multimode launch system to be connected to an Optical Time-Domain Reflectometer (OTDR) for use in performing at least one OTDR measurement on a multimode multi-fiber array Device Under Test (DUT) , the multimode launch system comprising: an optical switch having an input multimode optical fiber and a plurality of output multimode optical fibers , the optical switch being configured to receive test light from the OTDR into the input multimode optical fiber and to selectively transmit the received test light into one of the plurality of output multimode optical fibers during use, characterized in that the multimode launch system further comprises a launch array device having an end being connected to the plurality of output multimode optical fibers of the optical switch and another end being connected to the multi-fiber array DUT during use, the launch array device having a plurality of multimode launch optical fibers each having at least one first guidance parameter being smaller than a corresponding one of at least one second guidance parameter of at least one of the input multimode optical fiber and the plurality of output multimode optical fibers of the optical switch , the first and second guidance parameters referring to a fiber core diameter and/or a numerical aperture; and a multi-fiber mode conditioner along the launch array device , for the multi-fiber mode conditioner being configured to induce a preferential attenuation of higher-order optical modes of test light propagated into the multi-fiber array DUT during use. an optical switch having an input multimode optical fiber and a plurality of output multimode optical fibers , the optical switch being configured to receive test light from the OTDR into the input multimode optical fiber and to selectively transmit the received test light into one of the plurality of output multimode optical fibers during use, characterized in that the multimode launch system further comprises a launch array device having an end being connected to the plurality of output multimode optical fibers of the optical switch and another end being connected to the multi-fiber array DUT during use, the launch array device having a plurality of multimode launch optical fibers each having at least one first guidance parameter being smaller than a corresponding one of at least one second guidance parameter of at least one of the input multimode optical fiber and the plurality of output multimode optical fibers of the optical switch , the first and second guidance parameters referring to a fiber core diameter and/or a numerical aperture; and a multi-fiber mode conditioner along the launch array device , for the multi-fiber mode conditioner being configured to induce a preferential attenuation of higher-order optical modes of test light propagated into the multi-fiber array DUT during use.
A combustor for a gas turbine engine, the combustor having a combustion chamber and a heat shield, the heat shield comprising: a first surface and a second surface , wherein the first surface is configured to face the combustion chamber, and the second surface is opposite the first surface; a plurality of channels located on the second surface of the heat shield; and a turbulator included in a channel , the channel included in the plurality of channels ; wherein the heat shield is a combustor dome heat shield and comprises a fuel nozzle opening ; wherein the turbulator is located on the second surface of the heat shield ; characterized in that the channels are positioned in an offset radial arrangement, and a longitudinal axis of each of the channels is tangent to a circle on a plane parallel with the second surface ; and in that an aperture passes through the heat shield , wherein the aperture is positioned between an outlet of the channel and a fuel nozzle opening in the heat shield . a first surface and a second surface , wherein the first surface is configured to face the combustion chamber, and the second surface is opposite the first surface; a plurality of channels located on the second surface of the heat shield; and a turbulator included in a channel , the channel included in the plurality of channels ; wherein the heat shield is a combustor dome heat shield and comprises a fuel nozzle opening ; wherein the turbulator is located on the second surface of the heat shield ; characterized in that the channels are positioned in an offset radial arrangement, and a longitudinal axis of each of the channels is tangent to a circle on a plane parallel with the second surface ; and in that an aperture passes through the heat shield , wherein the aperture is positioned between an outlet of the channel and a fuel nozzle opening in the heat shield .
Citrus squeezer for squeezing a whole citrus, comprising a squeezing cone and a squeezing dome arranged along an axis , as well as blades arranged between the squeezing cone and the squeezing dome , and an ejecting member arranged under the squeezing cone , the blades extending radially in relation to the axis , the squeezing dome being mobile in relation to the blades and to the squeezing cone , the squeezing cone and the ejecting member being driven in rotation, characterised in that the ejecting member is driven in rotation in the direction of rotation opposite the direction of rotation of the squeezing cone .
Method for providing verified information about a traffic sign, comprising: receiving information about the traffic sign from an electronic traffic signboard following a change in the traffic sign displayed by the electronic traffic signboard; checking whether the electronic traffic signboard is an authorized information source; storing the information about the traffic sign in a blockchain database, only if the electronic traffic signboard is an authorized source of information; and allowing read access to the blockchain database. receiving information about the traffic sign from an electronic traffic signboard following a change in the traffic sign displayed by the electronic traffic signboard; checking whether the electronic traffic signboard is an authorized information source; storing the information about the traffic sign in a blockchain database, only if the electronic traffic signboard is an authorized source of information; and allowing read access to the blockchain database.
Monofilament string for a racket , comprising a core consisting of a single filament and a sheath extending around the core and in contact with the core , wherein: - the core is made of a first material comprising at least a polyamide, - the sheath is made of a second material comprising at least a polyamide, wherein the second material comprises graphene or graphane nanoparticles with a concentration ranging from 0.1% to 5% in weight, preferably from 0.1% to 2% in weight, and more preferably from 0.1% to 1% in weight of the weight of the sheath. - the core is made of a first material comprising at least a polyamide, - the sheath is made of a second material comprising at least a polyamide,
A zoom lens system, comprising, in order from an object side to an image side: a first lens group (G1) having positive power; a second lens group (G2) having negative power; a third lens group (G3) having positive power; a fourth lens group (G4) having negative power; a fifth lens group (G5) having positive power; and characterized by a sixth lens group (G6) having negative power, wherein during zooming from a wide angle extremity to a telephoto extremity, distances between lens groups change, the fifth lens group (G5) includes at most two lens elements, at least one of which is a convex meniscus lens having a concave surface on the object side, and the following condition is satisfied: 10.2 < fT / fW where: fT denotes a focal length at the telephoto extremity; and fW denotes a focal length at the wide angle extremity, wherein the following condition is satisfied: 3.8 < β 2 T / β 2 W < 7.0 where: β2T denotes a lateral magnification of the second lens group (G2) at the telephoto extremity; and β2W denotes a lateral magnification of the second lens group (G2) at the wide angle extremity. a first lens group (G1) having positive power; a second lens group (G2) having negative power; a third lens group (G3) having positive power; a fourth lens group (G4) having negative power; a fifth lens group (G5) having positive power; and characterized by a sixth lens group (G6) having negative power, wherein during zooming from a wide angle extremity to a telephoto extremity, distances between lens groups change, the fifth lens group (G5) includes at most two lens elements, at least one of which is a convex meniscus lens having a concave surface on the object side, and the following condition is satisfied: 10.2 < fT / fW where: fT denotes a focal length at the telephoto extremity; and fW denotes a focal length at the wide angle extremity, fT denotes a focal length at the telephoto extremity; and fW denotes a focal length at the wide angle extremity, wherein the following condition is satisfied: 3.8 < β 2 T / β 2 W < 7.0 where: β2T denotes a lateral magnification of the second lens group (G2) at the telephoto extremity; and β2W denotes a lateral magnification of the second lens group (G2) at the wide angle extremity. β2T denotes a lateral magnification of the second lens group (G2) at the telephoto extremity; and β2W denotes a lateral magnification of the second lens group (G2) at the wide angle extremity.
A brushless synchronous power generation apparatus, comprising: a synchronous generator ; an AC exciter directly connected to a rotor of the synchronous generator ; a rotary rectifier attached to an armature of the AC exciter ; and short-circuiting means which is configured to three-phase short-circuit armature windings of the AC exciter , wherein the armature windings of the AC exciter are three-phase short-circuited, causing the AC exciter to operate as an induction motor, thus rotating a rotor shaft of the synchronous generator , characterised in that the short-circuiting means is of a short-circuiting switch and a radio signal reception / switch control device , which are provided in the rotor shaft of the synchronous generator between the armature windings of the AC exciter and the rotary rectifier , and wherein the radio signal reception / switch control device is configured to receive a turning operation control signal and to connect the short-circuiting switch , thereby carrying out a three-phase short circuit. a synchronous generator ; an AC exciter directly connected to a rotor of the synchronous generator ; a rotary rectifier attached to an armature of the AC exciter ; and short-circuiting means which is configured to three-phase short-circuit armature windings of the AC exciter , wherein the armature windings of the AC exciter are three-phase short-circuited, causing the AC exciter to operate as an induction motor, thus rotating a rotor shaft of the synchronous generator , characterised in that the short-circuiting means is of a short-circuiting switch and a radio signal reception / switch control device , which are provided in the rotor shaft of the synchronous generator between the armature windings of the AC exciter and the rotary rectifier , and wherein the radio signal reception / switch control device is configured to receive a turning operation control signal and to connect the short-circuiting switch , thereby carrying out a three-phase short circuit.