mhurhangee/patent-ind-claim-en huggingface dataset:
Method for processing a predetermined computing task by means of a distributed, vehicle-based computing system , wherein through a server device the computing task is divided into several data packets with respective computing data for a respective part of the computing task , wherein • for several motor vehicles it is determined in each case whether the vehicle currently is in a predetermined ready state , which comprises that the motor vehicle is coupled to an electrical energy supply device that is external to the vehicle, and • the server device respectively transmits the data packets to one of the motor vehicles , wherein the respective data packet in each case is transmitted only to such a motor vehicle which is in the ready state , and • the respective motor vehicle processes the respective computing data of this data packet transmitted to same and hereby generates a respective computing result related to the transmitted data packet and transmits the respective computing result to the server device and • the server device composes an overall result from each transmitted computing result related to the computing task , and • a prospective remaining duration of the ready state , in particular a prospective remaining charging time of the motor vehicle , is determined and the ready state comprises that the remaining duration is larger than a predetermined minimum value. • for several motor vehicles it is determined in each case whether the vehicle currently is in a predetermined ready state , which comprises that the motor vehicle is coupled to an electrical energy supply device that is external to the vehicle, and • the server device respectively transmits the data packets to one of the motor vehicles , wherein the respective data packet in each case is transmitted only to such a motor vehicle which is in the ready state , and • the respective motor vehicle processes the respective computing data of this data packet transmitted to same and hereby generates a respective computing result related to the transmitted data packet and transmits the respective computing result to the server device and • the server device composes an overall result from each transmitted computing result related to the computing task , and • a prospective remaining duration of the ready state , in particular a prospective remaining charging time of the motor vehicle , is determined and the ready state comprises that the remaining duration is larger than a predetermined minimum value.
A wound treatment system, comprising: a body structured and arranged to surround a wound area, said body having an opening above the wound area; a cover attached to the body and covering the opening, said cover suspended above the wound area; said opening and said cover forming an enclosed and empty wound treatment compartment; an autonomous heating element incorporated into the body or into the cover; and a medically useful agent evaporating or sublimating at an accelerated speed at a temperature from about 40 to about 80°C, said medically useful agent in fluid communication with the compartment. a body structured and arranged to surround a wound area, said body having an opening above the wound area; a cover attached to the body and covering the opening, said cover suspended above the wound area; said opening and said cover forming an enclosed and empty wound treatment compartment; an autonomous heating element incorporated into the body or into the cover; and a medically useful agent evaporating or sublimating at an accelerated speed at a temperature from about 40 to about 80°C, said medically useful agent in fluid communication with the compartment.
A method, comprising: receiving, from an access point, in the following also referred to as AP, by a station, in the following also referred to as STA, associated with the AP, an indication of an enhanced distributed channel access, in the following also referred to as EDCA, parameter set ; and updating, by the STA, one or more parameters of the EDCA parameter set with respect to a triggered transmission opportunity, in the following also referred to as TXOP, sharing, in the following also referred to as TXS, operation, wherein the EDCA parameter set is used to control the use of EDCA for channel contention by associated STAs following the triggered TXS operation and the associated STAs include the STA , characterized in that the updating the one or more parameters of the EDCA parameter set is performed at an end of an immediate acknowledgement received by the STA from the AP in response to transmission of a frame by the STA. receiving, from an access point, in the following also referred to as AP, by a station, in the following also referred to as STA, associated with the AP, an indication of an enhanced distributed channel access, in the following also referred to as EDCA, parameter set ; and updating, by the STA, one or more parameters of the EDCA parameter set with respect to a triggered transmission opportunity, in the following also referred to as TXOP, sharing, in the following also referred to as TXS, operation, wherein the EDCA parameter set is used to control the use of EDCA for channel contention by associated STAs following the triggered TXS operation and the associated STAs include the STA , characterized in that the updating the one or more parameters of the EDCA parameter set is performed at an end of an immediate acknowledgement received by the STA from the AP in response to transmission of a frame by the STA.
Method for quality control in industrial manufacturing for one or more production process/es for producing at least one workpiece and/or product, comprising: - creating (S10) a learning model for at least one production process for the workpiece and/or product; - training and initializing (S20) the learning model using a meta-learning algorithm ; - calibrating (S30) the learning model using normalized data of the at least one production process for the at least one workpiece and/or product; - forwarding (S40) currently generated data of the at least one production process for at least one currently produced workpiece/product to the learning model , the data being generated by sensors; - the learning model comparing (S50) the currently generated data with the normalized data and finding deviations; - the learning model scaling (S60) the deviations between the currently generated data and the normalized data; and - the learning model communicating (S70) the presence of an anomaly for the currently produced workpiece/product. - creating (S10) a learning model for at least one production process for the workpiece and/or product; - training and initializing (S20) the learning model using a meta-learning algorithm ; - calibrating (S30) the learning model using normalized data of the at least one production process for the at least one workpiece and/or product; - forwarding (S40) currently generated data of the at least one production process for at least one currently produced workpiece/product to the learning model , the data being generated by sensors; - the learning model comparing (S50) the currently generated data with the normalized data and finding deviations; - the learning model scaling (S60) the deviations between the currently generated data and the normalized data; and - the learning model communicating (S70) the presence of an anomaly for the currently produced workpiece/product.
A method performed by an Access and Mobility Function, AMF, server of managing mobility of a user equipment between a Wireless Local Area Network, WLAN, and a cellular network including the AMF server, the method comprising: sending a measurement report request to the user equipment , the measurement report request including parameters for measurements to be made by the user equipment of link quality of the cellular network, the WLAN or both; receiving one or more measurement reports from the user equipment ; determining , based on the one or more measurement reports, to initiate a handoff of the user equipment from a first network slice in the cellular network to a second network slice in the WLAN , the second network slice being connected to the AMF server ; and sending a handoff message to the user equipment and a base station that communicates with the user equipment in the cellular network, the sending being effective to cause the handoff of the user equipment from the first network slice to the second network slice. sending a measurement report request to the user equipment , the measurement report request including parameters for measurements to be made by the user equipment of link quality of the cellular network, the WLAN or both; receiving one or more measurement reports from the user equipment ; determining , based on the one or more measurement reports, to initiate a handoff of the user equipment from a first network slice in the cellular network to a second network slice in the WLAN , the second network slice being connected to the AMF server ; and sending a handoff message to the user equipment and a base station that communicates with the user equipment in the cellular network, the sending being effective to cause the handoff of the user equipment from the first network slice to the second network slice.
A process of producing a foil with a functional coating containing an active material and a meltable polymer, wherein the foil having a functional coating is for use as an electrode foil, an electrolyte in solid-state batteries, or a separator for electrochemical storage, the process comprising the steps of: (a) providing a dry powder mixture comprising (i) particles of an active material and (ii) particles of a meltable polymer, (b) scattering the dry powder mixture on a foil to form a powder-covered foil, wherein the dry powder mixture does not adhere to the foil after being scattered onto the foil in step (b) and before melting in step (c) and rests on the foil only by the action of gravity, (c) melting the powder of the powder-covered foil to form a foil covered with molten powder, wherein step (c) is carried out before step (d), (d) calendering the foil covered with molten powder to form a calendered structure; and (e) cooling the calendered structure to form the foil with a functional coating. (a) providing a dry powder mixture comprising (i) particles of an active material and (ii) particles of a meltable polymer, (b) scattering the dry powder mixture on a foil to form a powder-covered foil, wherein the dry powder mixture does not adhere to the foil after being scattered onto the foil in step (b) and before melting in step (c) and rests on the foil only by the action of gravity, (c) melting the powder of the powder-covered foil to form a foil covered with molten powder, wherein step (c) is carried out before step (d), (d) calendering the foil covered with molten powder to form a calendered structure; and (e) cooling the calendered structure to form the foil with a functional coating.
Use of scale barriers in a roller hearth furnace, particularly a tunnel furnace of a thin slab plant, wherein the roller hearth furnace comprises: a plurality of cooled furnace rollers , which are arranged at a spacing from one another in transport direction (T), for the transport of a strip or a slab; and scale funnels arranged below the furnace rollers , wherein the furnace rollers comprise a number of support rings on a rotatably mounted axle and are constructed axially adjacent to at least one of the support rings with an insulation of a highly insulating fibrous material, wherein the scale barriers are provided in the free spaces between each two furnace rollers successive in transport direction (T) and wherein the scale barriers like the furnace rollers extend transversely to the transport direction (T), wherein the scale flying around or the scale particles are caught by the scale barriers and conducted away into the respective scale funnels lying thereunder. a plurality of cooled furnace rollers , which are arranged at a spacing from one another in transport direction (T), for the transport of a strip or a slab; and scale funnels arranged below the furnace rollers , wherein the furnace rollers comprise a number of support rings on a rotatably mounted axle and are constructed axially adjacent to at least one of the support rings with an insulation of a highly insulating fibrous material, wherein the scale barriers are provided in the free spaces between each two furnace rollers successive in transport direction (T) and wherein the scale barriers like the furnace rollers extend transversely to the transport direction (T), wherein the scale flying around or the scale particles are caught by the scale barriers and conducted away into the respective scale funnels lying thereunder.
A thermal system comprising: a heater ; the thermal system further including: a power converter including a power switch , wherein the power converter is electrically coupled to the heater and is configured to apply an adjustable output voltage to the heater ; and a controller configured to determine the output voltage to the heater based on an input parameter and a desired setpoint, and to operate the power switch of the power converter to apply the determined output voltage to the heater , the thermal system being characterized in that : the input parameter includes a temperature of the heater , and the desired setpoint is based on an operational state of the heater . a heater ; the thermal system further including: a power converter including a power switch , wherein the power converter is electrically coupled to the heater and is configured to apply an adjustable output voltage to the heater ; and a controller configured to determine the output voltage to the heater based on an input parameter and a desired setpoint, and to operate the power switch of the power converter to apply the determined output voltage to the heater , the thermal system being characterized in that : the input parameter includes a temperature of the heater , and the desired setpoint is based on an operational state of the heater .
A tire, comprising a tire component at least partially comprising a rubber composition, having a hardness that reversibly changes with water and satisfying the following relationships and : Hardness when dry − Hardness when water − wet ≥ 1 wherein each of the hardness when dry and the hardness when water-wet is measured according to the method defined in the description, and wherein each hardness represents a JIS-A hardness of the rubber composition measured at 25°C using a type A durometer in accordance with JIS K6253-3 "Rubber, vulcanized or thermoplastic -Determination of hardness-Part 3: Durometer method"; and tan δ at 70 ° C when dry ≥ 0.18 wherein the tan δ at 70°C represents a loss tangent measured at 70°C, an initial strain of 10%, a dynamic strain of 2%, and a frequency of 10 Hz, according to the method defined in the description, wherein the tire component is a tread, and the tread has a thickness of 4 mm or more and a land ratio of 30% or higher, the land ratio being measured as defined in the description. wherein each of the hardness when dry and the hardness when water-wet is measured according to the method defined in the description, and wherein each hardness represents a JIS-A hardness of the rubber composition measured at 25°C using a type A durometer in accordance with JIS K6253-3 "Rubber, vulcanized or thermoplastic -Determination of hardness-Part 3: Durometer method"; and tan δ at 70 ° C when dry ≥ 0.18 wherein the tan δ at 70°C represents a loss tangent measured at 70°C, an initial strain of 10%, a dynamic strain of 2%, and a frequency of 10 Hz, according to the method defined in the description,
Ball joint head having a convex articulation surface , which is provided for spherical sliding articulation with a concave articulation surface of a ball joint socket of a ball joint endoprosthesis , wherein the convex articulation surface has a plurality of adjacently arranged and radially flattened flat surfaces (7a to 71), as a result of which the convex articulation surface is designed in the form of a modified spherical surface (K), which - compared to an imaginary non-modified spherical surface (K') - has a surface, reduced by the flat surfaces (7a to 71), for articulation with the concave articulation surface , characterized in that the modified spherical surface (K) has, compared to the imaginary non-modified spherical surface (K'), a surface reduced by 25% to 50%, preferably by 40%, for articulation with the concave articulation surface , wherein the flat surfaces (7a to 71) each extend in a planar manner in a first direction of extent and extend in a curved manner in a second direction of extent oriented perpendicular to the first direction of extent.
An extraction sheet having a multi-layered structure comprising: a layer (layer M) including a meltblown nonwoven fabric that is formed from fibers of a polylactic acid-based resin having a crystallinity as defined in the description of 9.0 % or lower and a fiber diameter as defined in the description of 15.0 μm or smaller and that has a basis weight in accordance with JIS L-1906 of 2.0 to 30.0 g/m 2 , and a layer (layer S) including a spunbonded nonwoven fabric that is formed from fibers of a polylactic acid-based resin having a crystallinity as defined in the description of 30.0 to 60.0 % and a fiber diameter as defined in the description of 35.0 μm or smaller and that has a basis weight in accordance with JIS L-1906 of 5.0 to 30.0 g/m 2 , wherein the fibers constituting the meltblown nonwoven fabric and the fibers constituting the spunbonded nonwoven fabric each have a fiber diameter as defined herein of 0.5 μm or larger, wherein the resin forming the meltblown nonwoven fabric has a softening point as defined in the description of 60 to 120°C, and the softening point is at least 30°C lower than a softening point of the resin forming the spunbonded nonwoven fabric, and wherein the extraction sheet has a bending hysteresis as defined in the description of 5.0×10 -3 to 14.5×10 -3 gf·cm/cm. a layer (layer M) including a meltblown nonwoven fabric that is formed from fibers of a polylactic acid-based resin having a crystallinity as defined in the description of 9.0 % or lower and a fiber diameter as defined in the description of 15.0 μm or smaller and that has a basis weight in accordance with JIS L-1906 of 2.0 to 30.0 g/m 2 , and a layer (layer S) including a spunbonded nonwoven fabric that is formed from fibers of a polylactic acid-based resin having a crystallinity as defined in the description of 30.0 to 60.0 % and a fiber diameter as defined in the description of 35.0 μm or smaller and that has a basis weight in accordance with JIS L-1906 of 5.0 to 30.0 g/m 2 , wherein the fibers constituting the meltblown nonwoven fabric and the fibers constituting the spunbonded nonwoven fabric each have a fiber diameter as defined herein of 0.5 μm or larger, wherein the resin forming the meltblown nonwoven fabric has a softening point as defined in the description of 60 to 120°C, and the softening point is at least 30°C lower than a softening point of the resin forming the spunbonded nonwoven fabric, and wherein the extraction sheet has a bending hysteresis as defined in the description of 5.0×10 -3 to 14.5×10 -3 gf·cm/cm.
Apparatus for inserting inserts into dies of a tablet press, said apparatus having a feed device with a transfer wheel which is provided with pockets for receiving singled-out inserts , having an insert unit for taking over inserts from the transfer wheel and transferring the taken-over inserts into the dies of the tablet press, as well as having means for transferring inserts to the pockets of the transfer wheel, characterized by at least one strip-shaped supply ribbon for supplying the inserts to the apparatus , with the means for transferring inserts to the transfer wheel comprise at least two grippers which are movable by pivoting their gripper arms back and forth between a take-over position at the supply ribbon and a transfer position at a pocket of the transfer wheel , and with which, in a synchronous or alternating manner, the inserts are takeable over from the supply ribbon and transferable by pivoting their gripper arms into different pockets on the transfer wheel .
A deployable table assembly comprising: - a deployable table , and - a support arm , wherein the deployable table is moveably mounted to the support arm and is moveable in relation to the support arm between a stowed position and a deployed position , wherein the support arm comprises a coverable region that is: - covered by the deployable table when the deployable table is in the stowed position, and - not covered by the deployable table when the deployable table is in the deployed position, wherein the deployable table assembly further comprises: - a holder for a personal electronic device mounted at least partially over the coverable region of the support arm such that the holder is: - at least partially covered by the deployable table element when the deployable table is in the stowed position , and - at least partially exposed when the deployable table is in the deployed position , wherein the holder comprises a pivotable arm that is rotatably mounted by a first end to the support arm and wherein a second, opposite end of the pivotable arm provides a first support surface for the electronic device, wherein there is also provided a second support surface for the electronic device, characterised in that the second support surface is provided by a retaining edge mounted on the support arm , and wherein there are a plurality of retaining edges mounted on the support arm at different positions along the support arm . - a deployable table , and - a support arm , - covered by the deployable table when the deployable table is in the stowed position, and - not covered by the deployable table when the deployable table is in the deployed position, - a holder for a personal electronic device mounted at least partially over the coverable region of the support arm such that the holder is: - at least partially covered by the deployable table element when the deployable table is in the stowed position , and - at least partially exposed when the deployable table is in the deployed position , - at least partially covered by the deployable table element when the deployable table is in the stowed position , and - at least partially exposed when the deployable table is in the deployed position ,