mhurhangee/patent-ind-claim-en huggingface dataset:
A User Equipment, UE, comprising: a transmission and reception unit configured for: in a Protocol Data Unit, PDU, session establishment procedure, transmitting a PDU session establishment request message, to a core network ; and receiving a PDU session establishment accept message including at least a PDU session type, from the core network ; and a controller configured for: in a case that the PDU session type is IPv6 or IPv4v6, and the PDU session establishment request message includes information indicating support of Multi-homed PDU session using IPv6, establishing a PDU session supported to use multiple IPv6 prefixes during the PDU session establishment procedure. a transmission and reception unit configured for: in a Protocol Data Unit, PDU, session establishment procedure, transmitting a PDU session establishment request message, to a core network ; and receiving a PDU session establishment accept message including at least a PDU session type, from the core network ; and transmitting a PDU session establishment request message, to a core network ; and receiving a PDU session establishment accept message including at least a PDU session type, from the core network ; and a controller configured for: in a case that the PDU session type is IPv6 or IPv4v6, and the PDU session establishment request message includes information indicating support of Multi-homed PDU session using IPv6, establishing a PDU session supported to use multiple IPv6 prefixes during the PDU session establishment procedure.
Drive for an HVAC installation , wherein the drive comprises a housing and a motor for moving an actuating element of the HVAC installation , characterized by : a passive NFC transponder that comprises a plurality of differently arranged transponder antennas and is configured, before a power supply of the drive is switched on, to communicate a unique identifier to a mobile service device and also to receive from the mobile service device , and to store, one or more drive parameters, and a control module configured, after a power supply of the drive has been switched on, to effect the control of the motor taking account of the one or more stored drive parameters. a passive NFC transponder that comprises a plurality of differently arranged transponder antennas and is configured, before a power supply of the drive is switched on, to communicate a unique identifier to a mobile service device and also to receive from the mobile service device , and to store, one or more drive parameters, and a control module configured, after a power supply of the drive has been switched on, to effect the control of the motor taking account of the one or more stored drive parameters.
Drive unit for a vehicle, having an electric machine with a rotor shaft and a transmission with a transmission shaft , wherein the transmission shaft is rotatably mounted in a first housing portion by means of a first rolling bearing and the rotor shaft is rotatably mounted in a second housing portion by means of a second rolling bearing , wherein the transmission shaft and the rotor shaft are coupled to one another for conjoint rotation, wherein a third rolling bearing , which has a bearing inner ring , is arranged at the transition between the transmission shaft and rotor shaft , wherein the bearing inner ring bears, by way of its inner face , on the rotor shaft and on the transmission shaft , characterized in that the third rolling bearing sits on the transmission shaft , wherein the bearing inner ring bears, on the side facing away from the rotor shaft , on a radial protrusion , wherein the protrusion is designed as a radially projecting shaft shoulder of the transmission shaft.
A low-toxicity sophorolipid-containing composition containing at least a coloring component, an acidic sophorolipid, a fatty acid, and a hydroxy fatty acid that are derived from an SL-producing yeast culture, the following components being in the following proportions, in terms of dry weight, based on the total amount of the acidic sophorolipid, a lactonic sophorolipid, the fatty acid, and the hydroxy fatty acid in the composition taken as 100 mass%: acidic sophorolipid: 94 to 99.99 mass%, lactonic sophorolipid: more than 0 mass% but not more than 2 mass%, fatty acid and hydroxy fatty acid in total: 0.01 to 4 mass%. acidic sophorolipid: 94 to 99.99 mass%, lactonic sophorolipid: more than 0 mass% but not more than 2 mass%, fatty acid and hydroxy fatty acid in total: 0.01 to 4 mass%.
A method of capturing a target nucleic acid, comprising: applying a nucleic acid capture probe to a capture zone of a cellulose substrate, wherein the nucleic acid capture probe having a first molecular weight comprises at least a sequence that is complimentary to at least a portion of the target nucleic acid sequence and the nucleic acid capture probe is substantially immobilized at the capture zone of the substrate; applying a sample comprising the target nucleic acid having a second molecular weight less than the nucleic acid capture probe to a sample application zone of the substrate; wherein the sample comprising the target nucleic acid flows across a length of the substrate from the sample application zone to the capture zone by lateral flow, and the target nucleic acid is captured by the nucleic acid capture probes by hybridization at the capture zone, wherein the nucleic acid capture probe is a rolling circle amplification (RCA) product, wherein the molecular weight of the nucleic acid capture probe is high enough for it to be immobilized on the substrate by entanglement with the substrate applying a nucleic acid capture probe to a capture zone of a cellulose substrate, wherein the nucleic acid capture probe having a first molecular weight comprises at least a sequence that is complimentary to at least a portion of the target nucleic acid sequence and the nucleic acid capture probe is substantially immobilized at the capture zone of the substrate; applying a sample comprising the target nucleic acid having a second molecular weight less than the nucleic acid capture probe to a sample application zone of the substrate; wherein the sample comprising the target nucleic acid flows across a length of the substrate from the sample application zone to the capture zone by lateral flow, and the target nucleic acid is captured by the nucleic acid capture probes by hybridization at the capture zone, wherein the nucleic acid capture probe is a rolling circle amplification (RCA) product, wherein the molecular weight of the nucleic acid capture probe is high enough for it to be immobilized on the substrate by entanglement with the substrate
Hearing aid device with a hearing aid housing , with an antenna assembly and with a signal processing assembly , which has a transmitting and receiving assembly for generating and detecting electromagnetic waves, wherein the antenna assembly is designed to receive and transmit electromagnetic waves with a predetermined wavelength lambda, wherein the antenna assembly has a frame mounted in the hearing aid housing for receiving structural components of the hearing aid device , wherein the frame is made of a non-conductive material and has an electrically conductive structure , wherein the transmitting and receiving assembly is electrically connected to the electrically conductive structure for transmitting and receiving electro-magnetic waves, and wherein the electrically conductive structure is an integral part of the frame , wherein the electrically conductive structure has a first arm and a second arm , wherein the first arm extends in a first direction and the second arm extends in a second direction from a base point , where the first arm and the second arm are in electrical connection, and the first direction and the second direction include a substantially right angle, wherein the second arm is at least twice as long as the first arm , characterized in that the first arm has a coupling point spaced from the base point , said coupling point being coupled to the transmitting and receiving assembly , wherein the base point has a direct electrical connection to an electrical ground of the transmitting and receiving assembly . wherein the antenna assembly has a frame mounted in the hearing aid housing for receiving structural components of the hearing aid device , wherein the frame is made of a non-conductive material and has an electrically conductive structure , wherein the transmitting and receiving assembly is electrically connected to the electrically conductive structure for transmitting and receiving electro-magnetic waves, and wherein the electrically conductive structure is an integral part of the frame , wherein the electrically conductive structure has a first arm and a second arm , wherein the first arm extends in a first direction and the second arm extends in a second direction from a base point , where the first arm and the second arm are in electrical connection, and the first direction and the second direction include a substantially right angle, wherein the second arm is at least twice as long as the first arm , characterized in that the first arm has a coupling point spaced from the base point , said coupling point being coupled to the transmitting and receiving assembly , wherein the base point has a direct electrical connection to an electrical ground of the transmitting and receiving assembly .
Ring elevator for lifting root crops in a root crop harvester , the elevator comprising: - a first pair of endless carrying strips , belts, chains, arranged in parallel, which are drivable over a first closed path; - a second pair of endless carrying strips , belts, chains, arranged in parallel, which are drivable over a second closed path; - first parallel transverse elements attached between and to the first strips , belts, chains; - second parallel transverse elements attached between and to the second strips , belts, chains; - flexible support elements , each attached to a first transverse element and to a second transverse element ; the first strips , belts, chains being arranged around the second strips , belts, chains at a distance, which, when in use, varies along the paths between a minimum distance (d min ) and a maximum distance (d max ), and in an ascending part of the paths equals a carrier distance (c), such that the flexible support elements form baskets for receiving the root crops, wherein in the second path, the second strips , belts, chains begin to rise towards the ascending part in an ascending point of the second path; characterized in that in said ascending part the useful volume (V u ) in the baskets for receiving the root crops takes up at least 50% of the total volume (Vt) delimited by the baskets which for a given basket is defined by a plane through the transverse elements to which said basket is attached, a plane through the transverse elements to which the basket hanging just below it is attached, a plane through the first transverse elements to which both these baskets are attached and a plane through the second transverse elements to which both these baskets are attached. - a first pair of endless carrying strips , belts, chains, arranged in parallel, which are drivable over a first closed path; - a second pair of endless carrying strips , belts, chains, arranged in parallel, which are drivable over a second closed path; - first parallel transverse elements attached between and to the first strips , belts, chains; - second parallel transverse elements attached between and to the second strips , belts, chains; - flexible support elements , each attached to a first transverse element and to a second transverse element ;
Method of measuring a movable object , comprising the following steps: - activating at least one light source for emitting parallel light rays covering a three-dimensional region; - moving the object , by at least one movement component transverse to the direction of the light rays, into the three-dimensional region covered by the light rays so that individual ones of the emitted light rays are influenced by the object on their path to a receiving device ; - receiving the light rays, which have been influenced and/or not influenced by the object, with the help of a sensor field of the receiving device , wherein the resolution of the sensor field in at least one spatial direction transverse to the direction of the light rays is known; and - generating an image of the sensor field by the positions of the sensors , which are associated with light rays not influenced by the object, of the sensor field and by the positions of the sensors , which are associated with the emitted light rays influenced by the moved-in object , of the sensor field, wherein spacings (d i d j ) between the individual positions of the sensors are similarly known by virtue of the known resolution of the sensor field; characterised in that the object is a lateral guide at a transport path for a slab in a casting or rolling plant; the light source is installed in such a way that the light rays run perpendicularly to the direction of movement of the lateral guide ; and the image is evaluated with respect to the depth (s) of penetration of the lateral guide into the three-dimensional region covered by the light rays. - activating at least one light source for emitting parallel light rays covering a three-dimensional region; - moving the object , by at least one movement component transverse to the direction of the light rays, into the three-dimensional region covered by the light rays so that individual ones of the emitted light rays are influenced by the object on their path to a receiving device ; - receiving the light rays, which have been influenced and/or not influenced by the object, with the help of a sensor field of the receiving device , wherein the resolution of the sensor field in at least one spatial direction transverse to the direction of the light rays is known; and - generating an image of the sensor field by the positions of the sensors , which are associated with light rays not influenced by the object, of the sensor field and by the positions of the sensors , which are associated with the emitted light rays influenced by the moved-in object , of the sensor field, wherein spacings (d i d j ) between the individual positions of the sensors are similarly known by virtue of the known resolution of the sensor field;
Thermoplastic polymer powder P comprising (A) from 10 to 89.9% by weight, based on the entire polymer powder P, of at least one semicrystalline polymer A; (B) from 10 to 89.9% by weight, based on the entire polymer powder P, of at least one amorphous polymer B, where the amorphous polymer B is at least one polymer selected from styrene-butadiene block copolymers, acrylonitrile-butadiene-styrene copolymers, styrene-acrylonitrile copolymers, α(alpha)-methylstyrene-acrylonitrile copolymers, acrylate-styrene-acrylonitrile copolymers, methyl methacrylate-acrylonitrile-butadiene-styrene copolymers, methyl methacrylate-butadiene-styrene copolymers, styrene-methyl methacrylate copolymers, amorphous polystyrene and impact-modified polystyrene; (C) from 0.1 to 15% by weight, based on the entire polymer powder P, of at least one compatibilizer C, selected from the group consisting of styrene-acrylonitrile-maleic anhydride terpolymers, styrene-N-phenylmaleimide-maleic anhydride terpolymers and methyl methacrylate-maleic anhydride copolymers; (D) optionally from 0 to 5% by weight, based on the entire polymer powder P, of at least one additive and/or auxiliary; where the sum of the % by weight values of components A, B, C and optionally D is 100% by weight; where the semicrystalline polymer A, the amorphous polymer B and the compatibilizer C are present in the form of a polymer blend; and where the D 50 median particle diameter of the thermoplastic powder P is in the range from 5 to 200 μm. (A) from 10 to 89.9% by weight, based on the entire polymer powder P, of at least one semicrystalline polymer A; (B) from 10 to 89.9% by weight, based on the entire polymer powder P, of at least one amorphous polymer B, where the amorphous polymer B is at least one polymer selected from styrene-butadiene block copolymers, acrylonitrile-butadiene-styrene copolymers, styrene-acrylonitrile copolymers, α(alpha)-methylstyrene-acrylonitrile copolymers, acrylate-styrene-acrylonitrile copolymers, methyl methacrylate-acrylonitrile-butadiene-styrene copolymers, methyl methacrylate-butadiene-styrene copolymers, styrene-methyl methacrylate copolymers, amorphous polystyrene and impact-modified polystyrene; (C) from 0.1 to 15% by weight, based on the entire polymer powder P, of at least one compatibilizer C, selected from the group consisting of styrene-acrylonitrile-maleic anhydride terpolymers, styrene-N-phenylmaleimide-maleic anhydride terpolymers and methyl methacrylate-maleic anhydride copolymers; (D) optionally from 0 to 5% by weight, based on the entire polymer powder P, of at least one additive and/or auxiliary;
A fabric comprising: one side (A) mainly configured by first warps and first wefts made of fibers capable of being dyed within color coordinates and in a luminance factor defined in ISO 20471; and another side (B) mainly configured by blended spinning second warps and second wefts made of flame-retardant fibers having a self-extinguishing property and non-melting fibers, wherein the fabric is a double sided woven fabric in which the two sides are connected with a part of the first warps or the second wefts as knot points, and the number of the knot points in the double sided woven fabric is one knot point for 2 to 8 warps or wefts. one side (A) mainly configured by first warps and first wefts made of fibers capable of being dyed within color coordinates and in a luminance factor defined in ISO 20471; and another side (B) mainly configured by blended spinning second warps and second wefts made of flame-retardant fibers having a self-extinguishing property and non-melting fibers, wherein the fabric is a double sided woven fabric in which the two sides are connected with a part of the first warps or the second wefts as knot points, and the number of the knot points in the double sided woven fabric is one knot point for 2 to 8 warps or wefts.
A setting system comprising: a portable medium having recorded therein at least one of first setting information and second setting information generated by a management apparatus that manages a wireless network (Nl) via an external network and necessary for a wireless device to enter the wireless network (Nl) and setting instruction information for defining which of the first setting information or the second information is set; and a setting apparatus comprising an acquisition unit configured to acquire the first setting information or the second setting information from the portable medium and a short distance communication unit configured to set the first setting information or the second setting information acquired by the acquisition unit in the wireless device according to the setting instruction information to allow the wireless device to communicate with the management apparatus via the wireless network (Nl) and the external network ; wherein the first setting information is information generated for each management apparatus and commonly set in the wireless device which is caused to enter the wireless network (Nl) managed by the management apparatus ; and wherein the second setting information is information generated for each wireless device and individually set for each wireless device which is caused to enter the wireless network (Nl) managed by the management apparatus . a portable medium having recorded therein at least one of first setting information and second setting information generated by a management apparatus that manages a wireless network (Nl) via an external network and necessary for a wireless device to enter the wireless network (Nl) and setting instruction information for defining which of the first setting information or the second information is set; and a setting apparatus comprising an acquisition unit configured to acquire the first setting information or the second setting information from the portable medium and a short distance communication unit configured to set the first setting information or the second setting information acquired by the acquisition unit in the wireless device according to the setting instruction information to allow the wireless device to communicate with the management apparatus via the wireless network (Nl) and the external network ; wherein the first setting information is information generated for each management apparatus and commonly set in the wireless device which is caused to enter the wireless network (Nl) managed by the management apparatus ; and wherein the second setting information is information generated for each wireless device and individually set for each wireless device which is caused to enter the wireless network (Nl) managed by the management apparatus .
A power conversion device comprising: a plurality of power semiconductors arranged in a casing and constituting upper and lower arms of phases of a power conversion circuit; a heat radiating plate arranged in the casing and having both surfaces on which the plurality of power semiconductors are installed; a plurality of smoothing capacitors arranged in the casing and electrically connected to the plurality of power semiconductors ; and a plurality of gate drive boards arranged in the casing and configured to receive and output a control signal from and to the plurality of power semiconductors ; wherein the plurality of smoothing capacitors are arranged on both sides of the heat radiating plate , characterized in that : the gate drive boards are arranged under the power semiconductors , the heat radiating plate , and the smoothing capacitors , and the gate drive boards are divided into high-potential portions and low-potential portions, the high-potential portions are arranged on a side closer to the power semiconductors , and the low-potential portions are arranged on a side farther away from the power semiconductors . a plurality of power semiconductors arranged in a casing and constituting upper and lower arms of phases of a power conversion circuit; a heat radiating plate arranged in the casing and having both surfaces on which the plurality of power semiconductors are installed; a plurality of smoothing capacitors arranged in the casing and electrically connected to the plurality of power semiconductors ; and a plurality of gate drive boards arranged in the casing and configured to receive and output a control signal from and to the plurality of power semiconductors ; wherein the plurality of smoothing capacitors are arranged on both sides of the heat radiating plate , characterized in that : the gate drive boards are arranged under the power semiconductors , the heat radiating plate , and the smoothing capacitors , and the gate drive boards are divided into high-potential portions and low-potential portions, the high-potential portions are arranged on a side closer to the power semiconductors , and the low-potential portions are arranged on a side farther away from the power semiconductors . the gate drive boards are arranged under the power semiconductors , the heat radiating plate , and the smoothing capacitors , and the gate drive boards are divided into high-potential portions and low-potential portions, the high-potential portions are arranged on a side closer to the power semiconductors , and the low-potential portions are arranged on a side farther away from the power semiconductors .