mhurhangee/patent-ind-claim-en huggingface dataset:
A capsule for the preparation of a beverage comprising a chamber containing at least one substance, said chamber having an outlet portion formed by a membrane rupturing under internal pressure in the chamber to form an outlet opening , and wherein the membrane is provided with at least one weakening line for defining the outlet opening, wherein the membrane is a composite foil comprising at least one metal foil and at least one plastic foil and wherein the weakening line is arranged only in the plastic foil , wherein the outlet portion is circular, characterized in that the weakening line forms an uninterrupted line traversing the outlet portion , or the weakening line surrounds a supporting structure arranged on the side facing away from the chamber in a freely stretched region between the supporting structure and an outer periphery of the outlet portion .
A method, comprising: receiving , by a user equipment, UE, or an apparatus which is used for the UE, first downlink control information, DCI that schedules first data communication for the UE, the first DCI being in a first format which is a DCI format 0_0 for a physical uplink shared channel, PUSCH and the first DCI being in a UE specific search space with cyclic redundancy check, CRC, scrambled by a UE identifier, ID, of the UE; and sending , by the UE or the apparatus, first data according to the first DCI, the first data being scrambled by a first sequence, the first sequence being initialized with a configurable parameter. receiving , by a user equipment, UE, or an apparatus which is used for the UE, first downlink control information, DCI that schedules first data communication for the UE, the first DCI being in a first format which is a DCI format 0_0 for a physical uplink shared channel, PUSCH and the first DCI being in a UE specific search space with cyclic redundancy check, CRC, scrambled by a UE identifier, ID, of the UE; and sending , by the UE or the apparatus, first data according to the first DCI, the first data being scrambled by a first sequence, the first sequence being initialized with a configurable parameter.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station , configuration information including a multicast broadcast single frequency network, MBSFN, area identifier that specifies an area for measurement logging, and frequency information that specifies a frequency for measurement logging; identifying an MBSFN area based on the MBSFN area identifier and the frequency information; performing multimedia broadcast multicast service, MBMS, measurement logging for the identified MBSFN area; and transmitting, to the base station, logged MBMS measurement information, wherein the logged MBMS measurement information includes a reference signal received power, RSRP, and a reference signal received quality, RSRQ, and wherein the logged MBMS measurement information includes a block error rate, BLER, result per multicast channel, MCH, on subframes using a modulation coding scheme, MCS, for data in case that the BLER result is available. receiving, from a base station , configuration information including a multicast broadcast single frequency network, MBSFN, area identifier that specifies an area for measurement logging, and frequency information that specifies a frequency for measurement logging; identifying an MBSFN area based on the MBSFN area identifier and the frequency information; performing multimedia broadcast multicast service, MBMS, measurement logging for the identified MBSFN area; and transmitting, to the base station, logged MBMS measurement information, wherein the logged MBMS measurement information includes a reference signal received power, RSRP, and a reference signal received quality, RSRQ, and wherein the logged MBMS measurement information includes a block error rate, BLER, result per multicast channel, MCH, on subframes using a modulation coding scheme, MCS, for data in case that the BLER result is available.
A method for removing an installed main shaft and attached main bearing assembly of a wind turbine from a bedplate in the field, wherein a rotor has been removed from an upwind end of the main shaft, a downwind end of the main shaft has been disconnected from a gearbox , and the gearbox has been removed from the bedplate, the method comprising: connecting a rigging system to the upwind end of the main shaft, the rigging system suspended from a crane ; pushing the downwind end of the main shaft partway through the bedplate, wherein the main shaft at the downwind end is supported by a bearing unit fixed in the bedplate and the main shaft at the upwind end is supported by the rigging system; pushing the main shaft through the bedplate until a location on the main shaft corresponding to a center of gravity of the main shaft and main bearing assembly are free of an upwind end of the bedplate; attaching a leveling leg of the rigging system to the main shaft at a location such that the center of gravity is located between the leveling leg and the rigging at the upwind end of the main shaft; with the crane, supporting the main shaft to unload the bearing unit and slide the main shaft until the downwind end is free of the bearing unit; with the crane fully supporting the main shaft, horizontally sliding the main shaft out from the bedplate. connecting a rigging system to the upwind end of the main shaft, the rigging system suspended from a crane ; pushing the downwind end of the main shaft partway through the bedplate, wherein the main shaft at the downwind end is supported by a bearing unit fixed in the bedplate and the main shaft at the upwind end is supported by the rigging system; pushing the main shaft through the bedplate until a location on the main shaft corresponding to a center of gravity of the main shaft and main bearing assembly are free of an upwind end of the bedplate; attaching a leveling leg of the rigging system to the main shaft at a location such that the center of gravity is located between the leveling leg and the rigging at the upwind end of the main shaft; with the crane, supporting the main shaft to unload the bearing unit and slide the main shaft until the downwind end is free of the bearing unit; with the crane fully supporting the main shaft, horizontally sliding the main shaft out from the bedplate.
A method for cooling a transducer of a probe for generating ultrasonic waves, the transducer exhibiting, at the front, a face for emitting ultrasonic waves with an axis of acoustic propagation (A), and at the rear, a rear face , at least the emitting face partially delimiting a cooling chamber wherein a cooling liquid is supplied through a tubular duct extending upstream from an inlet , with a determined length along a longitudinal axis of extension (X) to channel the cooling liquid with a velocity vector, the cooling liquid circulating between at least the inlet and at least an outlet , the inlet being located at the periphery of the emitting face whereas the outlet is located in the central part of said emitting face, characterised in that it consists in orienting the tubular duct in such a way that its longitudinal axis of extension (X) and the velocity vector which it carries have a tangential component established along a tangential direction substantially orthogonal to a plane (P) containing the acoustic propagation axis (A) and the inlet , and such that the ratio of the tangential component of the velocity vector on the centripetal component of the velocity vector is greater than 1, creating between the inlet and the outlet , a circulation of the cooling fluid according to a swirling inside the cooling chamber around the axis of acoustic propagation (A) of the emitting face of the transducer.
An isolated Streptococcus pyogenes Cas9 (SpCas9) protein with mutations Q695A and Q926A in SEQ ID NO:1, wherein the SpCas9 protein is at least 95% identical to the amino acid sequence of SEQ ID NO: 1; and optionally one or more of a nuclear localization sequence, cell penetrating peptide sequence, and/or affinity tag.
A method performed by a wireless device in a wireless communication system, the method comprising: configuring (S1202, S1204) a split bearer for both a master cell group, MCG, transmission and a secondary cell group, SCG, transmission; upon detecting (S1206) a Radio Link Failure, RLF, on a MCG while an SCG is not suspended: suspending (S1208) the MCG transmission of the split bearer; indicating selection of the SCG to a Packet Data Convergence Protocol, PDCP, entity for the split bearer; and transmitting a first radio resource control, RRC, message on the SCG of the split bearer; upon receiving a second RRC message on the SCG of the split bearer for recovery from MCG failure: resuming (S1212) MCG transmission of the split bearer for a cell selected for MCG. configuring (S1202, S1204) a split bearer for both a master cell group, MCG, transmission and a secondary cell group, SCG, transmission; upon detecting (S1206) a Radio Link Failure, RLF, on a MCG while an SCG is not suspended: suspending (S1208) the MCG transmission of the split bearer; indicating selection of the SCG to a Packet Data Convergence Protocol, PDCP, entity for the split bearer; and transmitting a first radio resource control, RRC, message on the SCG of the split bearer; suspending (S1208) the MCG transmission of the split bearer; indicating selection of the SCG to a Packet Data Convergence Protocol, PDCP, entity for the split bearer; and transmitting a first radio resource control, RRC, message on the SCG of the split bearer; upon receiving a second RRC message on the SCG of the split bearer for recovery from MCG failure: resuming (S1212) MCG transmission of the split bearer for a cell selected for MCG.
Electric machine, comprising a rotor and a stator , the rotor comprising: o p pairs of magnetic poles each having a magnetic pole axis, ∘ an air gap defining a space between the rotor and the stator , said air gap having a nonconstant radial thickness, characterized in that said air gap has a thickness e 0 (θ m ) defined by the following formula: e 0 θm = e 0 , average + Δ e 2 cos p ∗ θm ∗ h + Δ θ wherein: ∘ θ m : is the mechanical position of said air gap measured in degrees and varying between 0° and 360°, ∘ e 0, average : is the average thickness of said air gap measured in mm and determined as the average value integrated over all the mechanical positions θ m between 0° and 360°, ∘ Δ e : is the maximum variation of said air gap , measured in mm and determined as the difference between the smallest thickness of the air gap , in a mechanical position θ m the stator and the rotor are closest together and the greatest thickness, in another mechanical position θ m the stator and the rotor are furthest apart from one another, ∘ p : is the number of pairs of poles, ∘ h : is an integer representing a predetermined harmonic rank, ∘ Δθ : is the initial radial phase shift between the axis of a magnetic pole and the point of the maximum amplitude of the sinusoidal function. o p pairs of magnetic poles each having a magnetic pole axis, ∘ an air gap defining a space between the rotor and the stator , said air gap having a nonconstant radial thickness, ∘ θ m : is the mechanical position of said air gap measured in degrees and varying between 0° and 360°, ∘ e 0, average : is the average thickness of said air gap measured in mm and determined as the average value integrated over all the mechanical positions θ m between 0° and 360°, ∘ Δ e : is the maximum variation of said air gap , measured in mm and determined as the difference between the smallest thickness of the air gap , in a mechanical position θ m the stator and the rotor are closest together and the greatest thickness, in another mechanical position θ m the stator and the rotor are furthest apart from one another, ∘ p : is the number of pairs of poles, ∘ h : is an integer representing a predetermined harmonic rank, ∘ Δθ : is the initial radial phase shift between the axis of a magnetic pole and the point of the maximum amplitude of the sinusoidal function.
A channel retainer for use with a surgical device, wherein the channel retainer is positionable between a handle and an end effector of the surgical device, and wherein the channel retainer comprises: a proximal end; a distal end; a plastic body extending from the proximal end to the distal end; a first metal substrate positioned within the plastic body; and a second metal substrate positioned within the plastic body, characterised in that the first metal substrate comprises a lateral flange ; and the second metal substrate comprises an opening , and wherein the lateral flange is positioned within the opening to operably connect the first metal substrate and the second metal substrate within the plastic body. a proximal end; a distal end; a plastic body extending from the proximal end to the distal end; a first metal substrate positioned within the plastic body; and a second metal substrate positioned within the plastic body, characterised in that the first metal substrate comprises a lateral flange ; and the second metal substrate comprises an opening , and wherein the lateral flange is positioned within the opening to operably connect the first metal substrate and the second metal substrate within the plastic body.
A method for configuring a disinfection apparatus, the disinfection apparatus secured to a fixed surface within a room or an interior of a vehicle, the disinfection apparatus comprising a UV emitter , the method comprising: a) selecting a first object within the room or vehicle interior for disinfection; b) positioning a first UV sensor proximate the first object ; c) turning the UV emitter on to cause the emission of UV light within the room or vehicle interior; d) measuring a time that is taken for the first UV sensor to detect a UV dose equal to a threshold dose; e) creating a disinfection program by storing the time taken in a memory in association with an identifier for the first object ; and f) completing the configuration by removing the first UV sensor from the room or vehicle interior. a) selecting a first object within the room or vehicle interior for disinfection; b) positioning a first UV sensor proximate the first object ; c) turning the UV emitter on to cause the emission of UV light within the room or vehicle interior; d) measuring a time that is taken for the first UV sensor to detect a UV dose equal to a threshold dose; e) creating a disinfection program by storing the time taken in a memory in association with an identifier for the first object ; and f) completing the configuration by removing the first UV sensor from the room or vehicle interior.
A direct current (DC) charging station for electric vehicles , said DC charging station comprising: a multi-winding step-down transformer configured to be coupled to a three-phase alternating current (AC) power source , said multi-winding step-down transformer configured to generate a first three-phase AC voltage; a neutral-point clamped (NPC) rectifier coupled to said multi-winding step-down transformer and configured to convert the first three-phase AC voltage to a first DC voltage at a rectifier output stage; a DC distribution bus coupled to said rectifier output stage; a first plurality of DC/DC buck converters , each DC/DC buck converter of the first plurality of DC/DC buck converters comprising a first DC stage coupled to said DC distribution bus , and a second DC stage configured to be coupled to a respective electric vehicle , said second DC stage further configured to convert the first DC voltage to a respective second DC voltage to be supplied to the respective electric vehicle ; and a central storage battery coupled to said DC distribution bus through a battery power converter , said battery power converter configured to charge said central storage battery from said DC distribution bus during a low-demand period of time, and supply current from said central storage battery to said DC distribution bus during a peak-demand period of time. a multi-winding step-down transformer configured to be coupled to a three-phase alternating current (AC) power source , said multi-winding step-down transformer configured to generate a first three-phase AC voltage; a neutral-point clamped (NPC) rectifier coupled to said multi-winding step-down transformer and configured to convert the first three-phase AC voltage to a first DC voltage at a rectifier output stage; a DC distribution bus coupled to said rectifier output stage; a first plurality of DC/DC buck converters , each DC/DC buck converter of the first plurality of DC/DC buck converters comprising a first DC stage coupled to said DC distribution bus , and a second DC stage configured to be coupled to a respective electric vehicle , said second DC stage further configured to convert the first DC voltage to a respective second DC voltage to be supplied to the respective electric vehicle ; and a central storage battery coupled to said DC distribution bus through a battery power converter , said battery power converter configured to charge said central storage battery from said DC distribution bus during a low-demand period of time, and supply current from said central storage battery to said DC distribution bus during a peak-demand period of time.
Device for portioning a dough mass, comprising: - a receiving chamber for holding said dough mass comprising a discharge opening , - a pair of opposing rotary cutters provided at the discharge opening and arranged for rotation in mutually opposite directions, wherein each cutter comprises at least one blade rotatable around a rotary axis , which blade cooperates with the blade of the other cutter for cutting the dough mass into separate portions, and - a release agent delivery system f for applying a release agent onto the blades of the rotary cutters , wherein the release agent delivery system is configured for applying the release agent on opposing sides of each of the blades , characterized in that at least the blade tips are supplied with a layer of release agent. - a receiving chamber for holding said dough mass comprising a discharge opening , - a pair of opposing rotary cutters provided at the discharge opening and arranged for rotation in mutually opposite directions, wherein each cutter comprises at least one blade rotatable around a rotary axis , which blade cooperates with the blade of the other cutter for cutting the dough mass into separate portions, and - a release agent delivery system f for applying a release agent onto the blades of the rotary cutters , wherein the release agent delivery system is configured for applying the release agent on opposing sides of each of the blades , characterized in that at least the blade tips are supplied with a layer of release agent.
An aircraft engine thermal management system comprising: a body having a first coolant passage in thermal communication with an electronic device and fluidically connected to a first coolant circuit; a first heat exchanger fluidically connected to the first coolant circuit and fluidically connected to fuel and air fluid streams, the first heat exchanger being adapted and configured to receive coolant from the first coolant circuit and to transfer heat energy from the first coolant circuit to either the fuel fluid stream prior to aircraft engine start up or the air fluid stream after the engine start up; a generator fluidically connected to a second coolant circuit; and a second heat exchanger fluidically connected to the second coolant circuit and to the air fluid stream via the first heat exchanger , the second heat exchanger being adapted and configured to receive coolant from the second coolant circuit and to transfer heat energy from the second coolant circuit to the air fluid stream. a body having a first coolant passage in thermal communication with an electronic device and fluidically connected to a first coolant circuit; a first heat exchanger fluidically connected to the first coolant circuit and fluidically connected to fuel and air fluid streams, the first heat exchanger being adapted and configured to receive coolant from the first coolant circuit and to transfer heat energy from the first coolant circuit to either the fuel fluid stream prior to aircraft engine start up or the air fluid stream after the engine start up; a generator fluidically connected to a second coolant circuit; and a second heat exchanger fluidically connected to the second coolant circuit and to the air fluid stream via the first heat exchanger , the second heat exchanger being adapted and configured to receive coolant from the second coolant circuit and to transfer heat energy from the second coolant circuit to the air fluid stream.
A multi-functional medical instrument comprising: a shaft; a wrist coupled to the shaft, wherein the wrist is movable in at least two degrees of freedom; and an end effector comprising a first jaw and a second jaw , wherein at least one of the first jaw and the second jaw comprises a conductive member comprising a conductive line or coil, wherein the conductive member is coated with a ferromagnetic coating such that the end effector is configured to generate heat at the ferromagnetic coating resistively or by magnetic induction to perform sealing and cutting. a shaft; a wrist coupled to the shaft, wherein the wrist is movable in at least two degrees of freedom; and an end effector comprising a first jaw and a second jaw , wherein at least one of the first jaw and the second jaw comprises a conductive member comprising a conductive line or coil, wherein the conductive member is coated with a ferromagnetic coating such that the end effector is configured to generate heat at the ferromagnetic coating resistively or by magnetic induction to perform sealing and cutting.