mhurhangee/patent-ind-claim-en huggingface dataset:
A method for joining a first steel blank and a second steel blank, at least one of the first and second blanks comprising a layer of aluminum or of an aluminum alloy, the method being characterised by - providing a support for each steel blank, the supports being made of a magnetic material and being arranged distanced apart by a central space provided between them, - providing a coil winding around one or more supports, - arranging the first blank on one support and the second blank on the other support, such that a butt end of the first blank that is facing the second blank is brought into contact with a butt end of the second blank that is facing the first blank defining a contacting area that closes a path for magnetic flux between the supports and through the first and second blanks when in use, - providing a laser system, wherein the laser system comprises one or more optical elements and a laser source for generating a laser beam; applying a laser beam onto the contacting area using the laser system, while - applying an alternating current to the coil winding such that an alternating magnetic field is created across the contacting area in a direction substantially from one blank to the other. - providing a support for each steel blank, the supports being made of a magnetic material and being arranged distanced apart by a central space provided between them, - providing a coil winding around one or more supports, - arranging the first blank on one support and the second blank on the other support, such that a butt end of the first blank that is facing the second blank is brought into contact with a butt end of the second blank that is facing the first blank defining a contacting area that closes a path for magnetic flux between the supports and through the first and second blanks when in use, - providing a laser system, wherein the laser system comprises one or more optical elements and a laser source for generating a laser beam; - applying an alternating current to the coil winding such that an alternating magnetic field is created across the contacting area in a direction substantially from one blank to the other.
Process for the preparation of a mixture of protein factors from bovine colostrum comprising the following steps: a) dilution of bovine colostrum, skimming and precipitation of casein at pH between 4 and 6; b) centrifugation to remove the lipid and casein components; c) concentration and diafiltration on polymer membrane with a molecular cut between 1000 to 20000 Da to reduce the lactose content in the retentate; d) adjusting the pH around neutrality and centrifugation; e) filtration; f) drum filling and freezing; wherein the step c) is repeated to obtain a retentate having a lactose content ≤1% calculated with respect to dry weight. a) dilution of bovine colostrum, skimming and precipitation of casein at pH between 4 and 6; b) centrifugation to remove the lipid and casein components; c) concentration and diafiltration on polymer membrane with a molecular cut between 1000 to 20000 Da to reduce the lactose content in the retentate; d) adjusting the pH around neutrality and centrifugation; e) filtration; f) drum filling and freezing;
An arrangement for storing data pertaining to network data traffic flowing through a network , comprising: a set of network cluster arrangements (230-234), wherein each network cluster arrangement of said set of network cluster arrangements includes a plurality of network devices configured for receiving and sending said network data traffic, and a set of monitoring network appliances such as network taps configured for monitoring at least a portion of said network data traffic flowing between said plurality of network devices, for transmitting said data pertaining to said network data traffic to a set of network data collection arrangements , and for copying said network data traffic and forwarding at least a portion of said network data traffic to one or more monitoring tools of a set of monitoring tools ; and wherein the set of network data collection arrangements is configured for at least receiving said data pertaining to said network data traffic from the set of monitoring network appliances and storing said data pertaining to said network data traffic. a plurality of network devices configured for receiving and sending said network data traffic, and a set of monitoring network appliances such as network taps configured for monitoring at least a portion of said network data traffic flowing between said plurality of network devices, for transmitting said data pertaining to said network data traffic to a set of network data collection arrangements , and for copying said network data traffic and forwarding at least a portion of said network data traffic to one or more monitoring tools of a set of monitoring tools ; and wherein the set of network data collection arrangements is configured for at least receiving said data pertaining to said network data traffic from the set of monitoring network appliances and storing said data pertaining to said network data traffic.
A method by a user equipment, UE (102; 1102), comprising: receiving a Radio Resource Control, RRC, message including a first parameter related to a maximum number of scheduling request transmissions for a secondary cell, in order to allow the UE to perform a scheduling request procedure; and transmitting a scheduling request on a Physical Uplink Control Channel, PUCCH, on the secondary cell, wherein the RRC message further includes a second parameter related to a maximum number of scheduling request transmissions for a primary cell and the scheduling request procedure is performed based on the first parameter or the second parameter. receiving a Radio Resource Control, RRC, message including a first parameter related to a maximum number of scheduling request transmissions for a secondary cell, in order to allow the UE to perform a scheduling request procedure; and transmitting a scheduling request on a Physical Uplink Control Channel, PUCCH, on the secondary cell, wherein the RRC message further includes a second parameter related to a maximum number of scheduling request transmissions for a primary cell and the scheduling request procedure is performed based on the first parameter or the second parameter.
A transport container for helium (He), having an inner container for receiving the helium (He), an insulation element provided on the outside of the inner container , a coolant container for receiving a cryogenic liquid (N2), an outer container in which the inner container and the coolant container are received, and a thermal shield that can be actively cooled with the assistance of the cryogenic liquid (N 2 ) and in which the inner container is received, wherein a circumferential gap is provided between the insulation element and the thermal shield , wherein the insulation element has a copper layer facing toward the thermal shield , characterized in that the insulation element has a multi-layer insulation layer arranged between the inner container and the copper layer .
A method comprising: establishing a data radio bearer, DRB, with a base station (150; 702; 802) by a user equipment (130; 701; 801), UE, in a wireless network; receiving access category, AC, information from the network for determining an AC value based on the AC information; and performing a channel contention procedure using the AC value and transmitting a data packet to an access point (703; 803), AP, upon winning the channel contention; characterized by receiving LTE-WLAN aggregation, LWA, configuration from the base station (150; 702; 802), wherein the UE (130; 801) is connected with both the base station (150; 702; 802) and the AP being an LWA-enabled AP; and wherein the DRB corresponds to an evolved packet system, EPS, bearer associated with a QoS Class Identifier, QCI; and wherein the UE (130; 701) receives the AC information via radio resource control, RRC, signaling from the base station (150; 702), and the AC information comprises a specific AC value per DRB per UE (130; 701), or wherein the UE (130; 801) receives the AC information from the base station (150; 802), the AC information comprises the QCI, and the UE (130; 801) maps the QCI to the AC value based on AC mapping information. establishing a data radio bearer, DRB, with a base station (150; 702; 802) by a user equipment (130; 701; 801), UE, in a wireless network; receiving access category, AC, information from the network for determining an AC value based on the AC information; and performing a channel contention procedure using the AC value and transmitting a data packet to an access point (703; 803), AP, upon winning the channel contention; characterized by receiving LTE-WLAN aggregation, LWA, configuration from the base station (150; 702; 802), wherein the UE (130; 801) is connected with both the base station (150; 702; 802) and the AP being an LWA-enabled AP; and wherein the DRB corresponds to an evolved packet system, EPS, bearer associated with a QoS Class Identifier, QCI; and wherein the UE (130; 701) receives the AC information via radio resource control, RRC, signaling from the base station (150; 702), and the AC information comprises a specific AC value per DRB per UE (130; 701), or wherein the UE (130; 801) receives the AC information from the base station (150; 802), the AC information comprises the QCI, and the UE (130; 801) maps the QCI to the AC value based on AC mapping information.
A computing-implemented method to operate an autonomous vehicle , the method comprising: responsive to receiving , by a vehicle interface module from an autonomy computing system of the autonomous vehicle, a time-based trajectory for the autonomous vehicle, verifying that execution of the time-based trajectory is within parameters of the autonomous vehicle; and responsive to verifying that execution of the time-based trajectory is within the parameters of the autonomous vehicle: converting the time-based trajectory into a spatial path for the autonomous vehicle: and interfacing with one or more controls of the autonomous vehicle such that the autonomous vehicle tracks the spatial path; characterized by communicating , to the autonomy computing system of the autonomous vehicle, a change in conditions of the autonomous vehicle, wherein the change in conditions results in a change in a friction ellipsoid associated with the autonomous vehicle, the friction ellipsoid representing the authority available to the autonomous vehicle, wherein communicating the change in conditions comprises communicating one or more constraints within the friction ellipsoid, thereby reserving a portion of the authority represented by friction ellipsoid for use by the vehicle interface module. responsive to receiving , by a vehicle interface module from an autonomy computing system of the autonomous vehicle, a time-based trajectory for the autonomous vehicle, verifying that execution of the time-based trajectory is within parameters of the autonomous vehicle; and responsive to verifying that execution of the time-based trajectory is within the parameters of the autonomous vehicle: converting the time-based trajectory into a spatial path for the autonomous vehicle: and interfacing with one or more controls of the autonomous vehicle such that the autonomous vehicle tracks the spatial path; converting the time-based trajectory into a spatial path for the autonomous vehicle: and interfacing with one or more controls of the autonomous vehicle such that the autonomous vehicle tracks the spatial path; characterized by communicating , to the autonomy computing system of the autonomous vehicle, a change in conditions of the autonomous vehicle, wherein the change in conditions results in a change in a friction ellipsoid associated with the autonomous vehicle, the friction ellipsoid representing the authority available to the autonomous vehicle, wherein communicating the change in conditions comprises communicating one or more constraints within the friction ellipsoid, thereby reserving a portion of the authority represented by friction ellipsoid for use by the vehicle interface module.
A terminal capable of receiving an incoming optical fiber and making a signal present thereon available to an output receptacle, the terminal including one or more output receptacles (1410A-H) arranged in first row and a second row , the first row being associated with a first face and the second row being associated with a second face , the first face and second face meeting along a common interface at an angle, the terminal including a housing designed to sealably mate with a base to form a weather tight seal along a junction of the housing and the base, the output receptacles (1410A-H) being fitted with dummy plug to prevent dirt and moisture from contacting optical fibers within the output receptacles (1410A-H), the dummy plug may be removed when an output connector is mated to the output receptacles (1410A-H).
A turboprop engine system for an aircraft comprising: an engine ; a propeller ; a geartrain coupled to and configured to provide power from the engine to the propeller at a predetermined gear reduction; a gearbox that houses at least part of the geartrain, the gearbox including a gearbox flow structure ; and an inlet flow structure that is removably attached to the gearbox, the inlet flow structure and the gearbox flow structure cooperating to define an inlet flow passage to the engine, characterised by : the inlet flow passage having an upstream end that is cooperatively defined by the inlet flow structure and the gearbox flow structure and a downstream end that is cooperatively defined by the inlet flow structure and the gearbox flow structure, the upstream end configured to receive an airstream that is directed along the inlet flow passage to the downstream end and toward the engine. an engine ; a propeller ; a geartrain coupled to and configured to provide power from the engine to the propeller at a predetermined gear reduction; a gearbox that houses at least part of the geartrain, the gearbox including a gearbox flow structure ; and an inlet flow structure that is removably attached to the gearbox, the inlet flow structure and the gearbox flow structure cooperating to define an inlet flow passage to the engine, characterised by : the inlet flow passage having an upstream end that is cooperatively defined by the inlet flow structure and the gearbox flow structure and a downstream end that is cooperatively defined by the inlet flow structure and the gearbox flow structure, the upstream end configured to receive an airstream that is directed along the inlet flow passage to the downstream end and toward the engine.
A power transmission arrangement for a vehicle, comprising, a transmission assembly comprising a first input shaft , a second input shaft and a common output shaft , a first drive means (EM1) drivingly connected to the first input shaft for driving the first input shaft, and a second drive means (EM2) drivingly connected to the second input shaft for driving the second input shaft, wherein the transmission assembly further comprises, a first input shaft first gearwheel and a first input shaft second gearwheel arranged axially offset with respect to each other on the first input shaft , a second input shaft first gear wheel and a second input shaft second gear wheel arranged axially offset with respect to each other on the second input shaft , an output shaft first gear wheel and an output shaft second gear wheel arranged axially offset with respect to each other on the common output shaft , wherein each one of the first input shaft first gear wheel and the second input shaft first gear wheel is meshing with the output shaft first gear wheel , and wherein each one of the first input shaft second gear wheel and the second input shaft second gear wheel is meshing with the output shaft second gear wheel , wherein, the first input shaft first gear wheel is arranged freely rotatable with respect to the first input shaft , characterized in that, the output shaft first gearwheel is arranged freely rotatable with respect to the common output shaft . a transmission assembly comprising a first input shaft , a second input shaft and a common output shaft , a first drive means (EM1) drivingly connected to the first input shaft for driving the first input shaft, and a second drive means (EM2) drivingly connected to the second input shaft for driving the second input shaft, wherein the transmission assembly further comprises, a first input shaft first gearwheel and a first input shaft second gearwheel arranged axially offset with respect to each other on the first input shaft , a second input shaft first gear wheel and a second input shaft second gear wheel arranged axially offset with respect to each other on the second input shaft , an output shaft first gear wheel and an output shaft second gear wheel arranged axially offset with respect to each other on the common output shaft , wherein each one of the first input shaft first gear wheel and the second input shaft first gear wheel is meshing with the output shaft first gear wheel , and wherein each one of the first input shaft second gear wheel and the second input shaft second gear wheel is meshing with the output shaft second gear wheel , wherein, the first input shaft first gear wheel is arranged freely rotatable with respect to the first input shaft , characterized in that, the output shaft first gearwheel is arranged freely rotatable with respect to the common output shaft .
O-(5-amino-2-phenylbenzoxazol-7-yl)methyl-3,5-dichloro-L-tyrosine or a pharmacologically acceptable salt thereof for use in treating solid cancer, wherein O-(5-amino-2-phenylbenzoxazol-7-yl)methyl-3,5-dichloro-L-tyrosine is administered at 1 mg/m 2 to 60 mg/m 2 at a time to a patient, and wherein the patient is refractory or intolerant to standard therapy, and the patient is preferably in advanced stage of the solid cancer..
A signal processing device comprising: a plurality of resistance type sensors (31-1...) configured to detect predetermined physical quantities, and having resistances varying depending on the physical quantities; a detection circuit forming unit configured to select two or more predetermined resistance type sensors (31-1...) different for each time period from the plurality of resistance type sensors (31-1...), and to form a predetermined resistance detection circuit including the two or more resistance type sensors (31-1...) that have been selected; a measuring unit configured to sequentially receive output signals from the detection circuit forming unit ; a computing unit configured to receive output signals output sequentially from the measuring unit , and to compute the physical quantities by carrying out an operation of linearly combining the output signals sequentially output from the measuring unit ; wherein the detection circuit forming unit is configured to form said detection circuit configured to convert output signals of the two or more predetermined resistance type sensors (31-1...) that have been selected into voltage signals (V1...V4), wherein the two or more resistance type sensors (31-1...) that have been selected are sensors that simultaneously detect either physical quantities of two or more axes orthogonal to each other or two or more types of physical quantities and change resistances depending on detected values. a plurality of resistance type sensors (31-1...) configured to detect predetermined physical quantities, and having resistances varying depending on the physical quantities; a detection circuit forming unit configured to select two or more predetermined resistance type sensors (31-1...) different for each time period from the plurality of resistance type sensors (31-1...), and to form a predetermined resistance detection circuit including the two or more resistance type sensors (31-1...) that have been selected; a measuring unit configured to sequentially receive output signals from the detection circuit forming unit ; a computing unit configured to receive output signals output sequentially from the measuring unit , and to compute the physical quantities by carrying out an operation of linearly combining the output signals sequentially output from the measuring unit ; wherein the detection circuit forming unit is configured to form said detection circuit configured to convert output signals of the two or more predetermined resistance type sensors (31-1...) that have been selected into voltage signals (V1...V4), wherein the two or more resistance type sensors (31-1...) that have been selected are sensors that simultaneously detect either physical quantities of two or more axes orthogonal to each other or two or more types of physical quantities and change resistances depending on detected values.
A semiconductor device comprising : - a first diffusion region of a first type with embedded therein a second and a third diffusion region of a second type different from said first type, said second and said third diffusion region more doped than said first region, said second and third diffusion region each connected to a respective contact , - a dielectric layer covering at least an edge of said second and third diffusion region and the region in between said second and third diffusion region, - a piezoelectric layer disposed on, over, adjacent to or in contact with said dielectric layer , - a first structure and a second structure each in a soft ferromagnetic material and arranged to perform mechanical stress on said piezoelectric layer in response to a magnetic field, said first and second structure being separated by a gap. - a first diffusion region of a first type with embedded therein a second and a third diffusion region of a second type different from said first type, said second and said third diffusion region more doped than said first region, said second and third diffusion region each connected to a respective contact , - a dielectric layer covering at least an edge of said second and third diffusion region and the region in between said second and third diffusion region, - a piezoelectric layer disposed on, over, adjacent to or in contact with said dielectric layer , - a first structure and a second structure each in a soft ferromagnetic material and arranged to perform mechanical stress on said piezoelectric layer in response to a magnetic field, said first and second structure being separated by a gap.