mhurhangee/patent-ind-claim-en huggingface dataset:
Method for performing a software update in a control device of a motor vehicle , wherein during driving operation of the motor vehicle , while the motor vehicle is rolling and/or an engine of the motor vehicle is in operation, for a predetermined future time interval , in which the control device is operated to generate control data , a rest time interval , in which the generation of the control data of at least one software module of the control device is interrupted during the driving operation at least for a predetermined minimum time period due to a then present vehicle condition, is predicated by a first analysis device of the motor vehicle and at the beginning of the rest time interval the software update is started, wherein for identification of the rest time interval , it is determined with reference to the operating data which control tasks are conveyed to the control device and/or which other vehicle components the at least one software module of the control device requests, and the first analysis device determines the rest period interval on the basis of a machine learning method and/or a predictive analytics method, in that at least one driving operation pattern of the motor vehicle is determined with reference to historical operating data of the motor vehicle and the at least one driving operation pattern is recognised in order to identify the rest time interval , and at a start of the rest time interval , a software update of a new software module is carried out in the control device , by which the software module is replaced, and thereafter control data are then generated again by the newly installed software module , the driving operation of the motor vehicle not being interrupted for the software update.
An artificial turf filament formed from a formulation comprising: an ethylene-based polymer having a density 0.900 g/cc to 0.955 g/cc and a melt index (I 2 ) of 0.1 g/10 min to 20 g/10 min as measured according to ASTM D1238 (at 190 °C, 2.16 kg), and one or more polydimethylsiloxane (PDMS) components having a number average molecular weight (Mn) of from 10,000 g/mol to 500,000 g/mol, wherein the M n is measured by Gel Permeation Chromatography (GPC). an ethylene-based polymer having a density 0.900 g/cc to 0.955 g/cc and a melt index (I 2 ) of 0.1 g/10 min to 20 g/10 min as measured according to ASTM D1238 (at 190 °C, 2.16 kg), and one or more polydimethylsiloxane (PDMS) components having a number average molecular weight (Mn) of from 10,000 g/mol to 500,000 g/mol, wherein the M n is measured by Gel Permeation Chromatography (GPC).
A mobile communication device for avoiding location exposure on insecure communications, comprising: a wireless transceiver , configured to perform wireless transmission and reception to and from a service network ; and a controller , configured to determine whether a Radio Resource Control, RRC, security has been activated between the mobile communication device and the service network when receiving measurement configuration from the service network via the wireless transceiver, and characterized in that : the controller is further configured to: in response to the RRC security not having been activated, not send a measurement report, to the service network via the wireless transceiver to avoid exposing location information of the mobile communication device present in the measurement report, and send the measurement report after the RRC security has been activated. a wireless transceiver , configured to perform wireless transmission and reception to and from a service network ; and a controller , configured to determine whether a Radio Resource Control, RRC, security has been activated between the mobile communication device and the service network when receiving measurement configuration from the service network via the wireless transceiver, and
A three-dimensional implant for tissue reconstruction or tissue augmentation for insertion into a patient, the implant comprising: a plurality of planar layers, wherein a first group of sublayers comprises a plurality of strands oriented in first direction, wherein a second group of sublayers comprises a plurality of strands oriented in a second direction, the sublayers of the first group of sublayers and the sublayers of the second group of sublayers are arranged alternatingly in a third direction, the plurality of layers forming a three-dimensional structure comprising a plurality of hollow channels extending in the third direction, wherein the implant is compressible at least along the third direction; wherein each hollow channel comprises a first sidewall extending in the third direction and comprises a plurality of strand segments oriented in a first direction and a plurality of gaps arranged alternatingly, and a second sidewall extending in the third direction and comprising a plurality of strand segments oriented in the second direction and a plurality of gaps arranged alternatingly, wherein at least one of the first sidewall and the second sidewall of the hollow channel is an undulating sidewall, wherein the plurality of strand segments of the undulating sidewall belong to different layers of the implant, wherein adjacent strand segments of the undulating sidewall are separated by a gap , wherein the adjacent strand segments have a lateral offset with respect to each other to create a pattern of a plurality of peaks and a plurality of troughs of the undulating sidewall . a plurality of planar layers, wherein a first group of sublayers comprises a plurality of strands oriented in first direction, wherein a second group of sublayers comprises a plurality of strands oriented in a second direction, the sublayers of the first group of sublayers and the sublayers of the second group of sublayers are arranged alternatingly in a third direction, the plurality of layers forming a three-dimensional structure comprising a plurality of hollow channels extending in the third direction, wherein the implant is compressible at least along the third direction; wherein each hollow channel comprises a first sidewall extending in the third direction and comprises a plurality of strand segments oriented in a first direction and a plurality of gaps arranged alternatingly, and a second sidewall extending in the third direction and comprising a plurality of strand segments oriented in the second direction and a plurality of gaps arranged alternatingly, wherein at least one of the first sidewall and the second sidewall of the hollow channel is an undulating sidewall, wherein the plurality of strand segments of the undulating sidewall belong to different layers of the implant, wherein adjacent strand segments of the undulating sidewall are separated by a gap , wherein the adjacent strand segments have a lateral offset with respect to each other to create a pattern of a plurality of peaks and a plurality of troughs of the undulating sidewall .
Twin-screw extruder for thermoplastic materials with a first and a second extruder screw, the extruder screws featuring an inlet end, an outlet end and a core each, screw flights which are helically wound around the core being arranged from the inlet end to the outlet end, thus creating crowns and valleys around the perimeter, the crowns of the first screw being included in the valleys of the second screw and vice versa and the screw flights featuring a geometry that is staircase-shaped when looked at in a cross-section , the stairs being designed in such a way that the course of the steps of the crowns of the first screw are congruent to the course of the steps of the valleys of the second screw and a gap is formed between the first screw and the second screw , characterized in that the gap on the flanks (sf) of the screw flights differing from the gap at the back (sw) of the screw flights .
Robotized transmission comprising a hub rigidly connected to a shaft, a sliding gear comprising teeth , a dog ring comprising teeth , an idler pinion and an actuator, said sliding gear being capable of sliding over said hub by means of a fork fitted with a position sensor and translated by a finger of said actuator, and the teeth of said sliding gear being capable of interlocking with the teeth of said ring rigidly connected to said idler pinion , characterized in that elastic tabs acting as springs are borne by the dog ring and are arranged thereon in such a way as to push back the sliding gear when the latter must return to a neutral position when a gear ratio is being disengaged, so as to guarantee said position.
Process for the production of methyl acrylate wherein methyl lactate is contacted with a ZSM-5 catalyst in the presence of methanol.
Hair removal device, such as an electric shaver or epilator, comprising a hair cutting unit , a motor for driving the hair cutting unit , a measurement unit for measuring motor current and/or induced voltage and a cutting activity determinator for determining cutting activity from the signal of said measurement unit , characterized in that a wear determination unit is provided for determining wear of the hair cutting unit from the cutting activity signal of said cutting activity determinator .
Dishwasher having a washing compartment and having a device for conveying moist air from the washing compartment to a drying device , wherein the drying device has at least one sorption unit , wherein the drying device comprises at least one heat exchanger for transferring heat from the sorption unit to washing water and/or fresh water, characterized in that the heat exchanger is arranged at least partially in the sorption unit .
Apparatus for heating smokable material to volatilise at least one component of the smokable material, the apparatus comprising: a heating zone for receiving an article, the article comprising smokable material and heating material that is heatable by penetration with a varying magnetic field to heat the smokable material, wherein the heating zone is elongate along a longitudinal axis (A-A); and a magnetic field generator for generating a varying magnetic field that penetrates the heating zone, the magnetic field generator comprising a magnetically permeable core and a coil ; wherein the core comprises a magnetically permeable first portion and magnetically permeable first and second arms extending from the first portion, wherein the coil is wound around the first portion of the core; characterised in that wherein the first and second arms of the core are on opposite sides of the heating zone; and each of the first and second arms of the core have respective free ends on opposite sides of the heating zone wherein the free ends of each of the first and second arms of the core are elongate in a direction parallel to the longitudinal axis of the heating zone. a heating zone for receiving an article, the article comprising smokable material and heating material that is heatable by penetration with a varying magnetic field to heat the smokable material, wherein the heating zone is elongate along a longitudinal axis (A-A); and a magnetic field generator for generating a varying magnetic field that penetrates the heating zone, the magnetic field generator comprising a magnetically permeable core and a coil ; wherein the core comprises a magnetically permeable first portion and magnetically permeable first and second arms extending from the first portion, wherein the coil is wound around the first portion of the core; characterised in that wherein the first and second arms of the core are on opposite sides of the heating zone; and each of the first and second arms of the core have respective free ends on opposite sides of the heating zone wherein the free ends of each of the first and second arms of the core are elongate in a direction parallel to the longitudinal axis of the heating zone.
A compound with neural protective effect, which has a general structure of formula (V): or a pharmaceutically acceptable salt thereof, wherein: X and Y are both CH; R 2 and R 3 are each independently hydrogen, alkyl, ester group, urethane group, nitronyl group or propargyl amino group; R 5 is amino, alkyl, aryl or heteroaryl group, wherein the amino is -NR 6 R 7 with R 6 and R 7 being each independently hydrogen or akyl; and R 8 and R 9 are each independently hydrogen, methyl, ethyl or propargyl group, wherein R 8 can also be linked with R 2 , or R 3 to form a ring structure. X and Y are both CH; R 2 and R 3 are each independently hydrogen, alkyl, ester group, urethane group, nitronyl group or propargyl amino group; R 5 is amino, alkyl, aryl or heteroaryl group, wherein the amino is -NR 6 R 7 with R 6 and R 7 being each independently hydrogen or akyl; and R 8 and R 9 are each independently hydrogen, methyl, ethyl or propargyl group, wherein R 8 can also be linked with R 2 , or R 3 to form a ring structure.
A supporting structure comprising: - a load-receiving part , designed for receiving a load to be transported or assisted during moving; - two pairs of legs , each leg pair being arranged from one lateral side of the load-receiving part which is opposite another lateral side of said load-receiving part dedicated to the other leg pair, all legs extending from the load-receiving part towards ground when the supporting structure is in use condition on horizontal ground, and being adapted for maintaining the load-receiving part above ground; and - four wheels with respective rotation axes oriented horizontally when the supporting structure is in the use condition on horizontal ground, each leg being provided with one of said wheels at a lower end of said leg which is opposite a connection of said leg to the load-receiving part ; whereby each leg comprises an upper segment and a lower segment , wherein for each leg an upper end of the upper segment is rotationally connected to the load-receiving part with a first rotation axis (A1), and a lower end of the upper segment is rotationally connected to an upper end of the lower segment with a second rotation axis (A2), and a lower end of the lower segment forming the lower leg end opposite the connection of said leg to the load-receiving part, first and second rotation axes of all legs being parallel and horizontal when the supporting structure is in the use condition on horizontal ground, characterized in that the supporting structure is adapted for producing a reference crossed leg position in the use condition on horizontal ground with the wheels all located on the ground, in which both legs on each lateral side of the load-receiving part extend downwards while crossing each other in projection into a sagittal plane of the supporting structure, and the supporting structure is further adapted for performing a lowering of the load-receiving part towards ground from the reference crossed leg position, by bending each leg upwardly about the second axis (A2) of said leg so as to reduce an angle (α) between the upper and lower segments of said leg at the second axis, simultaneously for all four legs, thus increasing a first distance (d1) between both wheels on each lateral side of the load-receiving part, while both legs on each lateral side keep crossing each other in projection into the sagittal plane. - a load-receiving part , designed for receiving a load to be transported or assisted during moving; - two pairs of legs , each leg pair being arranged from one lateral side of the load-receiving part which is opposite another lateral side of said load-receiving part dedicated to the other leg pair, all legs extending from the load-receiving part towards ground when the supporting structure is in use condition on horizontal ground, and being adapted for maintaining the load-receiving part above ground; and - four wheels with respective rotation axes oriented horizontally when the supporting structure is in the use condition on horizontal ground, each leg being provided with one of said wheels at a lower end of said leg which is opposite a connection of said leg to the load-receiving part ;
An ultrasound apparatus , comprising: an ultrasound sensor (102a - 102n); a variable current trans-impedance amplifier, TIA, (112a; 300) coupled to the ultrasound sensor (102a - 102n) and configured to receive and amplify an output signal from the ultrasound sensor (102a - 102n), the variable current TIA (112a; 300) having a variable current source, the variable current TIA being a two-stage operational amplifier having a first stage (202; 306) and a second stage (204; 308), wherein the variable current source (112a; 300)includes a first variable current source (203; 321) coupled to the first stage (202; 306) and a second variable current source (205; 325) coupled to the second stage (204; 308); wherein the first stage (202; 306) is arranged to receive the output signal from the ultrasound sensor (102a - 102n) and the second stage (204; 308) is arranged to provide an output signal of the variable current TIA (112a; 300); and wherein the first variable current source (203; 321) comprises two or more current sources connected in parallel and at least one of the two or more current sources is coupled to the first stage (202; 306) through a switch. an ultrasound sensor (102a - 102n); a variable current trans-impedance amplifier, TIA, (112a; 300) coupled to the ultrasound sensor (102a - 102n) and configured to receive and amplify an output signal from the ultrasound sensor (102a - 102n), the variable current TIA (112a; 300) having a variable current source, the variable current TIA being a two-stage operational amplifier having a first stage (202; 306) and a second stage (204; 308), wherein the variable current source (112a; 300)includes a first variable current source (203; 321) coupled to the first stage (202; 306) and a second variable current source (205; 325) coupled to the second stage (204; 308); wherein the first stage (202; 306) is arranged to receive the output signal from the ultrasound sensor (102a - 102n) and the second stage (204; 308) is arranged to provide an output signal of the variable current TIA (112a; 300); and wherein the first variable current source (203; 321) comprises two or more current sources connected in parallel and at least one of the two or more current sources is coupled to the first stage (202; 306) through a switch.
A method for determining conductivity of a non-homogenous fluid product in a continuous process in a conduit, comprising: providing a product into a first end of a conduit so that the product flows toward a second end of the conduit, wherein the conduit comprises a pipe having an interior cavity, a first pair of probes which oppose each other and are attached at a first location and orientated radially about the pipe at a first radial position and a second pair of probes which oppose each other at a second location and orientated radially about the pipe at a second radial position, wherein the first radial position is different from the second radial position, the first and second locations being separate from each other and being between the first and second ends; monitoring the conductivity of the product flowing in the conduit at the first location using current measured between the first pair of probes ; monitoring the conductivity of the product flowing in the conduit at the second location using current measured between the second pair of probes ; introducing a marker material into an entry port , the marker material comprising a conductivity that is substantially different than the conductivity of the product; and detecting a conductivity of material located at the first location and the second location with the first pair of probes and the second pair of probes . providing a product into a first end of a conduit so that the product flows toward a second end of the conduit, wherein the conduit comprises a pipe having an interior cavity, a first pair of probes which oppose each other and are attached at a first location and orientated radially about the pipe at a first radial position and a second pair of probes which oppose each other at a second location and orientated radially about the pipe at a second radial position, wherein the first radial position is different from the second radial position, the first and second locations being separate from each other and being between the first and second ends; monitoring the conductivity of the product flowing in the conduit at the first location using current measured between the first pair of probes ; monitoring the conductivity of the product flowing in the conduit at the second location using current measured between the second pair of probes ; introducing a marker material into an entry port , the marker material comprising a conductivity that is substantially different than the conductivity of the product; and detecting a conductivity of material located at the first location and the second location with the first pair of probes and the second pair of probes .
A method for lifting a component of a multirotor wind turbine from an initial position to an operating position, the multirotor wind turbine comprising a tower structure and at least one load carrying structure being arranged for carrying at least one energy generating unit and for being connected to the tower structure , the at least one load carrying structure extending away from the tower structure from a connecting point between the tower structure and the load carrying structure to a free end of the load carrying structure , the method comprising the step of: - positioning the component at the initial position near a base of the tower structure , and characterized by further comprising the steps of: - providing a first hoisting mechanism at or near the connecting point between the tower structure and the at least one load carrying structure , - providing a second hoisting mechanism at or near the operating position for the component , said operating position being arranged on the at least one load carrying structure at a distance from the tower structure along a horizontal direction, - operating the first hoisting mechanism and the second hoisting mechanism in such a manner that the component is moved from the initial position to the operating position along a predetermined path, and - mounting the component on the at least one load carrying structure at the operating position. - positioning the component at the initial position near a base of the tower structure , and characterized by further comprising the steps of: - providing a first hoisting mechanism at or near the connecting point between the tower structure and the at least one load carrying structure , - providing a second hoisting mechanism at or near the operating position for the component , said operating position being arranged on the at least one load carrying structure at a distance from the tower structure along a horizontal direction, - operating the first hoisting mechanism and the second hoisting mechanism in such a manner that the component is moved from the initial position to the operating position along a predetermined path, and - mounting the component on the at least one load carrying structure at the operating position.