mhurhangee/ep-ind-claims huggingface dataset:
A method implemented in a New Radio, NR, wireless device, comprising: determining configuration data representing a set of configurations, the configuration data indicating a plurality of reference signals admissible in each configuration, and selecting a configuration from the set of configurations; selecting at least one reference signal from the plurality of reference signals admissible in the selected configuration and receiving the at least one reference signal from a transmission point; measuring a propagation-related quantity on the basis of the at least one reference signal; and deriving an uplink power setting on the basis of the measured propagation-related quantity; wherein the configuration is related to uplink power control and is specific to an uplink channel or signal or a group thereof, and wherein the set of configurations includes configurations for beam specific power control and configurations for power control that is not beam specific. determining configuration data representing a set of configurations, the configuration data indicating a plurality of reference signals admissible in each configuration, and selecting a configuration from the set of configurations; selecting at least one reference signal from the plurality of reference signals admissible in the selected configuration and receiving the at least one reference signal from a transmission point; measuring a propagation-related quantity on the basis of the at least one reference signal; and deriving an uplink power setting on the basis of the measured propagation-related quantity; wherein the configuration is related to uplink power control and is specific to an uplink channel or signal or a group thereof, and wherein the set of configurations includes configurations for beam specific power control and configurations for power control that is not beam specific.
A cryogenic turbopump feed line (20, 120, 220, 320) comprising: a main channel (21, 121, 221, 321) able to transport a cryogenic fluid, a plurality of secondary channels (22, 122, 222, 322) parallel to and disposed on the periphery of an external perimeter of the main channel (21, 121, 221, 321) and which are discontinuous. a main channel (21, 121, 221, 321) able to transport a cryogenic fluid, a plurality of secondary channels (22, 122, 222, 322) parallel to and disposed on the periphery of an external perimeter of the main channel (21, 121, 221, 321) and which are discontinuous.
A filter holding device (1; 41; 75; 81) arranged for providing at least one filter (7; 43a, 43b; 85) inside a flexible bag (3; 71), said filter holding device comprising attaching means (19a-d, 21a-d; 79; 83) for attaching the filter holding device to an inner surface of the flexible bag, with a distancing means (31; 47a, 47b) provided on at least one side of the filter holding device to which side the at least one filter (7; 43a, 43b; 85) should be attached and arranged to provide the at least one filter held by the filter holding device at a distance from the inner surface of the flexible bag, wherein said filter holding device further comprises at least two flow deflector areas (23a, 23b; 53a, 53b) provided on opposite ends of the filter holding device, said flow deflector areas being angled in relation to the rest of the filter holding device such that they are pointing away from the surface of the flexible bag to which the filter holding device is attached when the filter holding device (1; 41; 75; 81) is provided in a flexible bag (3; 71).
A mounting structure for connecting automobile rear fixed window and decorative panel, which is adapted to be fixed to a car body side panel by a connecting member, the mounting structure comprising - a first connecting part; and - a second connecting part which is positioned below the first connecting part and overlapped, at least partially, with the first connecting part, wherein the first connecting part has an angled part, one end of which is provided with a first extending part which extends away from the car body side panel and a second extending part which extends from the first extending part to the car body side panel, characterized in that the first extending part and the angled part form a locking groove for engaging the decorative panel; the second extending part is configured to be coupled with a sealing lip of the automobile rear fixed window and a bottom surface of the second extending part abuts against an outer surface of the car body side panel; and an end of the second connecting part away from the first connecting part is configured to be fixedly connected to the car body side panel by the connecting member. - a first connecting part; and - a second connecting part which is positioned below the first connecting part and overlapped, at least partially, with the first connecting part,
A bodywork element of a motor vehicle comprising a lining defining an inner volume to be closed by an outer skin, the lining being composed of electrically non-conductive material and the bodywork element comprising at least two internal structural elements arranged in the inner volume, between which a conductive surface of electrically conductive material is extended at a distance from the lining, so as to allow the dissipation of electrical energy.
An apparatus for a defibrillator including an energy storage device configured to store an electrical charge and a defibrillator processor, comprising: a utility module (455, 700) configured to be carried with the defibrillator to a location of a patient to be used in combination with the defibrillator, and characterized by the utility module (455,700) adapted to receive the defibrillator and to provide power and data that includes a parameter of the patient to the defibrillator when the defibrillator is connected to the utility module (455, 700), and the utility module (455, 700) including a parameter module configured to detect the parameter of the patient.
Radial tyre for an agricultural-type vehicle, which tyre is IF or VF according to the 2020 ETRTO standard, which has an authorized inflation pressure during use on loose ground of less than or equal to 1 bar, which has a speed index at least equal to D for a maximum speed at least equal to 65 km/h, and which has a load index at least equal to 158, which tyre is intended to be mounted on a rim with a diameter at least equal to 24 inches, comprising: - a tread intended to come into contact with the ground via a tread surface, which tread has an axial width LT and comprises a central portion with an axial width LT/2 and two axially outer portions, each with an axial width LT/4, - the two axially outer portions comprising tread pattern blocks with a radial height h at least equal to 45 mm, these blocks covering at least 80% of the axial width LT/4 of the axially outer portions of the tread and having a circumferential thickness ep at least equal to 65 mm, - a crown reinforcement radially on the inside of the tread, comprising at most 4 working layers, each working layer (31, 32, 33, 34) comprising mutually parallel textile reinforcing elements which are coated in a rubber material and form angles at least equal to 15° and at most equal to 45° with the circumferential direction, - the said textile reinforcing elements comprising at least one strand consisting of an assembly of at least two textile fibres, - characterized in that the textile reinforcing elements of the working layers (31, 32, 33, 34) have a tensile breaking force at least equal to 32 daN measured according to the standard denoted D885/D885M - 10A and comprise an aromatic polyamide (aramid) strand and a polyethylene terephthalate or aliphatic polyamide strand, the aramid strand having a tensile breaking force at least equal to 30 daN. - a tread intended to come into contact with the ground via a tread surface, which tread has an axial width LT and comprises a central portion with an axial width LT/2 and two axially outer portions, each with an axial width LT/4, - the two axially outer portions comprising tread pattern blocks with a radial height h at least equal to 45 mm, these blocks covering at least 80% of the axial width LT/4 of the axially outer portions of the tread and having a circumferential thickness ep at least equal to 65 mm, - a crown reinforcement radially on the inside of the tread, comprising at most 4 working layers, each working layer (31, 32, 33, 34) comprising mutually parallel textile reinforcing elements which are coated in a rubber material and form angles at least equal to 15° and at most equal to 45° with the circumferential direction, - the said textile reinforcing elements comprising at least one strand consisting of an assembly of at least two textile fibres, - characterized in that the textile reinforcing elements of the working layers (31, 32, 33, 34) have a tensile breaking force at least equal to 32 daN measured according to the standard denoted D885/D885M - 10A and comprise an aromatic polyamide (aramid) strand and a polyethylene terephthalate or aliphatic polyamide strand, the aramid strand having a tensile breaking force at least equal to 30 daN.
A connector assembly for connection between buoyancy compensating elements on a flexible pipe, characterised in that the connector assembly comprises: a body portion for locating over a flexible pipe and arranged to be connectible to or formed integrally with one or more buoyancy compensating element, and one or more protrusion extending from the body portion and arranged to reduce or interrupt vortex induced vibrations in water surrounding the flexible pipe in use. a body portion for locating over a flexible pipe and arranged to be connectible to or formed integrally with one or more buoyancy compensating element, and one or more protrusion extending from the body portion and arranged to reduce or interrupt vortex induced vibrations in water surrounding the flexible pipe in use.
A method, implemented by computer means, for estimating a production of a photovoltaic plant (INST) by measuring a magnetic field resulting from a multi-conductor cable at the output of an inverter of the photovoltaic plant (INST) by means of a Hall effect type sensor (CAPT), the method comprising: - a calibration including: o determining a useful voltage signal (U(t=t 0)) at the output of the photovoltaic plant (INST) from the measurement of the resulting magnetic field at a given time point (t 0), ∘ obtaining a reference current production (P(t 0)) of the photovoltaic plant at the same given time point (t 0), ∘ determining a scaling coefficient (k) relating the useful voltage signal (U(t=t 0)) and the reference production (P(t 0)) of the photovoltaic plant (INST), the scaling coefficient (k) being stored in a memory, - then, the estimation, at each time point (t), of a current production (P(t)) of the photovoltaic plant (INST) from the useful voltage signal (U(t)) at the output of the photovoltaic plant (INST) determined at each time point (t), and from the scaling coefficient (k) stored in memory. - a calibration including: o determining a useful voltage signal (U(t=t 0)) at the output of the photovoltaic plant (INST) from the measurement of the resulting magnetic field at a given time point (t 0), ∘ obtaining a reference current production (P(t 0)) of the photovoltaic plant at the same given time point (t 0), ∘ determining a scaling coefficient (k) relating the useful voltage signal (U(t=t 0)) and the reference production (P(t 0)) of the photovoltaic plant (INST), the scaling coefficient (k) being stored in a memory, o determining a useful voltage signal (U(t=t 0)) at the output of the photovoltaic plant (INST) from the measurement of the resulting magnetic field at a given time point (t 0), ∘ obtaining a reference current production (P(t 0)) of the photovoltaic plant at the same given time point (t 0), ∘ determining a scaling coefficient (k) relating the useful voltage signal (U(t=t 0)) and the reference production (P(t 0)) of the photovoltaic plant (INST), the scaling coefficient (k) being stored in a memory, - then, the estimation, at each time point (t), of a current production (P(t)) of the photovoltaic plant (INST) from the useful voltage signal (U(t)) at the output of the photovoltaic plant (INST) determined at each time point (t), and from the scaling coefficient (k) stored in memory.
A method for vertebrae identification implemented by a computing device including at least one processor, the method comprising: acquiring a plurality of image slices related to a vertebral column of an object, the vertebral column including a plurality of vertebrae, the plurality of image slices being a plurality of transverse plane images acquired in a transverse plane of the object; identifying, by the at least one processor, one or more vertebral foramina in the plurality of image slices using a classifier; determining, by the at least one processor, the plurality of vertebrae in the plurality of image slices based on the one or more vertebral foramina; and reconstructing, by the at least one processor, a sagittal plane image of the vertebral column of the object based on the plurality of vertebrae in the plurality of image slices, wherein reconstructing the sagittal plane image comprises: segmenting a spinal cord based on the plurality of vertebrae in the plurality of image slices; determining a boundary of the spinal cord, wherein the boundary ranges from a first coordinate to a second coordinate along an aixs in the transverse plane of the object; and reconstructing the sagittal plane image within the boundary. acquiring a plurality of image slices related to a vertebral column of an object, the vertebral column including a plurality of vertebrae, the plurality of image slices being a plurality of transverse plane images acquired in a transverse plane of the object; identifying, by the at least one processor, one or more vertebral foramina in the plurality of image slices using a classifier; determining, by the at least one processor, the plurality of vertebrae in the plurality of image slices based on the one or more vertebral foramina; and reconstructing, by the at least one processor, a sagittal plane image of the vertebral column of the object based on the plurality of vertebrae in the plurality of image slices, wherein reconstructing the sagittal plane image comprises: segmenting a spinal cord based on the plurality of vertebrae in the plurality of image slices; determining a boundary of the spinal cord, wherein the boundary ranges from a first coordinate to a second coordinate along an aixs in the transverse plane of the object; and reconstructing the sagittal plane image within the boundary. segmenting a spinal cord based on the plurality of vertebrae in the plurality of image slices; determining a boundary of the spinal cord, wherein the boundary ranges from a first coordinate to a second coordinate along an aixs in the transverse plane of the object; and reconstructing the sagittal plane image within the boundary.
A manufacturing method comprising: providing a substrate with an outer surface and at least one interior space; selectively depositing a coating on at least a portion of the substrate to define one or more grooves in the coating wherein each groove extends at least partially along the coating; processing at least a portion of a surface of the coating so as to plastically deform the coating at least in a vicinity of the top of a respective groove, such that a gap across a top of the groove is reduced; and applying one or more additional coatings over at least a portion of the surface of the coating, wherein the substrate, the coating and the additional coating define one or more channels for cooling a component, wherein selectively depositing a coating on at least a portion of the substrate includes selectively depositing the coating using one of a screen and a mask having defined therein a pattern and positioned between the substrate and a source of the coating. providing a substrate with an outer surface and at least one interior space; selectively depositing a coating on at least a portion of the substrate to define one or more grooves in the coating wherein each groove extends at least partially along the coating; processing at least a portion of a surface of the coating so as to plastically deform the coating at least in a vicinity of the top of a respective groove, such that a gap across a top of the groove is reduced; and applying one or more additional coatings over at least a portion of the surface of the coating, wherein the substrate, the coating and the additional coating define one or more channels for cooling a component, wherein selectively depositing a coating on at least a portion of the substrate includes selectively depositing the coating using one of a screen and a mask having defined therein a pattern and positioned between the substrate and a source of the coating.
A control unit for an aerosol generating device, comprising: a sensor that outputs a value related to a temperature of a lithium-ion secondary battery that is a power source capable of being charged and discharged to a load for atomizing an aerosol source; and a controller configured to execute one or more functions of operating the power source when an output value of the sensor is within a first range having a first upper limit and a first lower limit, wherein the first upper limit is smaller than a second upper limit of a second range having the second upper limit and a second lower limit, and the first lower limit is equal to or larger than the second lower limit, wherein the second range is a range of a value related to a temperature of the power source at which the one or more functions can be executed, a range of a value related to a temperature of the power source at which deterioration of the power source is suppressed, a range of a value related to a temperature of the power source at which the power source deteriorates due only to a factor that is the same as at normal temperature, or a range corresponding to an operating temperature of the power source, characterized in that at least one of an absolute value of a difference between the second upper limit and the first upper limit and an absolute value of a difference between the second lower limit and the first lower limit is equal to or larger than a maximum error value of an output value of the sensor with respect to an input value of the sensor. a sensor that outputs a value related to a temperature of a lithium-ion secondary battery that is a power source capable of being charged and discharged to a load for atomizing an aerosol source; and a controller configured to execute one or more functions of operating the power source when an output value of the sensor is within a first range having a first upper limit and a first lower limit, wherein the first upper limit is smaller than a second upper limit of a second range having the second upper limit and a second lower limit, and the first lower limit is equal to or larger than the second lower limit, wherein the second range is a range of a value related to a temperature of the power source at which the one or more functions can be executed, a range of a value related to a temperature of the power source at which deterioration of the power source is suppressed, a range of a value related to a temperature of the power source at which the power source deteriorates due only to a factor that is the same as at normal temperature, or a range corresponding to an operating temperature of the power source, characterized in that at least one of an absolute value of a difference between the second upper limit and the first upper limit and an absolute value of a difference between the second lower limit and the first lower limit is equal to or larger than a maximum error value of an output value of the sensor with respect to an input value of the sensor.
Medical vacuum aspiration apparatus comprising: a vacuum cylinder substantially closed or closable at a first end by a valve, and closed at a second end by a plunger moveable along the cylinder, said valve being formed from a flexible nozzle and a releasable nozzle clamp, the nozzle having also an aperture in fluid communication with the cylinder, characterised in that said aperture is stepped in diameter or tapered in size to accept cannulae of different sizes in use. a vacuum cylinder substantially closed or closable at a first end by a valve, and closed at a second end by a plunger moveable along the cylinder, said valve being formed from a flexible nozzle and a releasable nozzle clamp, the nozzle having also an aperture in fluid communication with the cylinder, characterised in that said aperture is stepped in diameter or tapered in size to accept cannulae of different sizes in use.
An apparatus, comprising: a computer readable memory; an XMSS operations logic to manage XMSS functions; a chain function controller to manage chain function algorithms; a secure hash algorithm-2, SHA2, accelerator; a secure hash algorithm-3, SHA3, accelerator; and a register bank shared between the SHA2 accelerator and the SHA3 accelerator; wherein the SHA3 accelerator is configurable to perform a SHAKE-128 function and comprises: a 1600 bit state register configured to receive a first set of inputs for each Winternitz One-Time Signature, WOTS, chain function, a second set of inputs for hashes involved in an L-Tree computation, and a third set of inputs for a Merkle tree root node computation; and logic configured to: receive a 256 bit message input; perform a set of 24 SHA3 rounds; and generate a 128 bit output. a computer readable memory; an XMSS operations logic to manage XMSS functions; a chain function controller to manage chain function algorithms; a secure hash algorithm-2, SHA2, accelerator; a secure hash algorithm-3, SHA3, accelerator; and a register bank shared between the SHA2 accelerator and the SHA3 accelerator; wherein the SHA3 accelerator is configurable to perform a SHAKE-128 function and comprises: a 1600 bit state register configured to receive a first set of inputs for each Winternitz One-Time Signature, WOTS, chain function, a second set of inputs for hashes involved in an L-Tree computation, and a third set of inputs for a Merkle tree root node computation; and logic configured to: receive a 256 bit message input; perform a set of 24 SHA3 rounds; and generate a 128 bit output. a 1600 bit state register configured to receive a first set of inputs for each Winternitz One-Time Signature, WOTS, chain function, a second set of inputs for hashes involved in an L-Tree computation, and a third set of inputs for a Merkle tree root node computation; and logic configured to: receive a 256 bit message input; perform a set of 24 SHA3 rounds; and generate a 128 bit output. receive a 256 bit message input; perform a set of 24 SHA3 rounds; and generate a 128 bit output.
A method for producing glycolide by depolymerizing a glycolic acid oligomer, the method comprising the following steps to: step: a step in which a glycolic acid oligomer composition is supplied into a reactor and heated to a temperature of 180 to 320°C at which a depolymerization reaction of the glycolic acid oligomer occurs at normal pressure or reduced pressure; step: a step in which heating is continued and the depolymerization reaction of the glycolic acid oligomer occurs, thereby producing glycolide; step: a step in which the produced glycolide is distilled out of the reactor; step: a step in which the distillate is introduced into a rectifier and is rectified by means of gas-liquid countercurrent contact; and Step: a step in which glycolide is recovered. step: a step in which a glycolic acid oligomer composition is supplied into a reactor and heated to a temperature of 180 to 320°C at which a depolymerization reaction of the glycolic acid oligomer occurs at normal pressure or reduced pressure; step: a step in which heating is continued and the depolymerization reaction of the glycolic acid oligomer occurs, thereby producing glycolide; step: a step in which the produced glycolide is distilled out of the reactor; step: a step in which the distillate is introduced into a rectifier and is rectified by means of gas-liquid countercurrent contact; and Step: a step in which glycolide is recovered.