mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing an ultra high strength member having a chemical composition consisting of C: 0.1 mass % to 0.5 mass % (inclusive of 0.1 mass % and 0.5 mass %), and optionally further at least one element selected from: Si: 3.0 mass % or less; Mn: 0.5 mass % to 3.0 mass % (inclusive of 0.5 mass % and 3.0 mass %); P: 0.1 mass % or less; S: 0.01 mass % or less; Al: 0.01 mass % to 0.1 mass % (inclusive of 0.01 mass % and 0.1 mass %); N: 0.02 mass % or less; Ti: 0.1 mass % or less; Nb: 0.1 mass % or less; V: 0.5 mass % or less; Mo: 0.5 mass % or less; Cr: 1 mass % or less; B: 0.005 mass % or less; Cu: 0.5 mass % or less; Ni: 0.5 mass % or less; and the balance as incidental impurities and Fe; the method comprising: heating a steel sheet at first heating temperature within a temperature range of 700 to 1000°C, characterized in that the method further comprises: forming the steel sheet into a shape of a member at the first heating temperature and simultaneously cooling the steel sheet to a finish cooling temperature of 150°C or less; and, after completion of the cooling, shear punching the steel sheet into a desired shape to obtain an ultra high strength member, after the shear punching, subjecting the ultra high strength member to first heat treatment including heating the ultra high strength member at second heating temperature within a temperature range of 100°C or higher but lower than 300°C and retaining the member at the second heating temperature for 1 second to 60 minutes, wherein the resulting ultra high strength member has a tensile strength of 1180 MPa or more. Si: 3.0 mass % or less; Mn: 0.5 mass % to 3.0 mass % (inclusive of 0.5 mass % and 3.0 mass %); P: 0.1 mass % or less; S: 0.01 mass % or less; Al: 0.01 mass % to 0.1 mass % (inclusive of 0.01 mass % and 0.1 mass %); N: 0.02 mass % or less; Ti: 0.1 mass % or less; Nb: 0.1 mass % or less; V: 0.5 mass % or less; Mo: 0.5 mass % or less; Cr: 1 mass % or less; B: 0.005 mass % or less; Cu: 0.5 mass % or less; Ni: 0.5 mass % or less; and the balance as incidental impurities and Fe; forming the steel sheet into a shape of a member at the first heating temperature and simultaneously cooling the steel sheet to a finish cooling temperature of 150°C or less; and, after completion of the cooling, shear punching the steel sheet into a desired shape to obtain an ultra high strength member, after the shear punching, subjecting the ultra high strength member to first heat treatment including heating the ultra high strength member at second heating temperature within a temperature range of 100°C or higher but lower than 300°C and retaining the member at the second heating temperature for 1 second to 60 minutes, wherein the resulting ultra high strength member has a tensile strength of 1180 MPa or more.
An apparatus for providing data communication and power to a device located in a room, the room having a power outlet, the apparatus comprising a cable (12, 58) extendable from the device (16, 60) and having at one end thereof a plug (10, 56) comprising a plug body, a plurality of prongs (18, 54) extending from the plug body and configured to couple to the power outlet to receive power, a first near field communication antenna (24, 126) carried by the plug body, first circuitry comprising associated near field communication circuitry (32,134), the associated near field communication circuitry (32, 134) being carryable by the device (16, 60) and coupled to the first near field communication antenna (24, 126) via at least one conductor (36, 136) routed along the cable (12, 58), and a communication module comprising a second near field communication antenna (26, 124), the communication module being locatable in the room in proximity to the plug and being operable to transmit to a computer network data received by the communication module from the near field communication circuitry (32, 134) via the first near field communication antenna (24, 126) and the second near field communication antenna (26, 124), at least one of the first near field communication antenna (24, 126) and the second near field communication antenna (26, 124) communicating data wirelessly to the other of the first near field communication antenna and the second near field communication antenna, wherein the first near field communication antenna (24, 126) is included in a label that sticks to the plug body.
A system for delivering radiofrequency ablation energy to a volume of tissue, the system characterised by comprising: a wrap, wherein a stiffening element surrounds an opening in the wrap, wherein the stiffening element transfers radial compression to the volume of tissue, wherein the radial compression increases stability of the volume of tissue; and a radiofrequency ablation probe having an active electrode, wherein the radiofrequency ablation probe is connected to a radiofrequency generator via a lead. a wrap, wherein a stiffening element surrounds an opening in the wrap, wherein the stiffening element transfers radial compression to the volume of tissue, wherein the radial compression increases stability of the volume of tissue; and a radiofrequency ablation probe having an active electrode, wherein the radiofrequency ablation probe is connected to a radiofrequency generator via a lead.
A method for load control in uplink interference cancellation systems with soft decision, comprising: determining whether interference is to be cancelled from a received signal based on a packet size of the received signal, and if the signal is to be cancelled: determining a maximal correlation factor between an interfering portion and a useful portion of the received signal based on a transport block size of the received signal; determining a reduced target load for a base station based on the maximal correlation factor; and adjusting uplink transmit power for one or more wireless communication devices based on the reduced target load. determining whether interference is to be cancelled from a received signal based on a packet size of the received signal, and if the signal is to be cancelled: determining a maximal correlation factor between an interfering portion and a useful portion of the received signal based on a transport block size of the received signal; determining a reduced target load for a base station based on the maximal correlation factor; and adjusting uplink transmit power for one or more wireless communication devices based on the reduced target load. determining a maximal correlation factor between an interfering portion and a useful portion of the received signal based on a transport block size of the received signal; determining a reduced target load for a base station based on the maximal correlation factor; and adjusting uplink transmit power for one or more wireless communication devices based on the reduced target load.
A sound processing system suitable for use in a vehicle having a plurality of microphones and a plurality of loudspeakers distributed in multiple acoustic zones, the system comprising: a plurality of microphone In-Car Communication (Mic-ICC) instances coupled to corresponding ones of the plurality of microphones; a plurality of loudspeaker In-Car Communication (Ls-ICC) instances coupled to corresponding ones of the plurality of loudspeakers; a dynamic audio routing matrix comprising: a controller coupled to the plurality of Mic-ICC instances; a mixer coupled to the plurality of Mic-ICC instances; a number of computed equalizers, wherein the number of equalizers is N-1, where N defines a number of the plurality of loudspeakers; and a distributor coupled to the plurality of Ls-ICC instances. a plurality of microphone In-Car Communication (Mic-ICC) instances coupled to corresponding ones of the plurality of microphones; a plurality of loudspeaker In-Car Communication (Ls-ICC) instances coupled to corresponding ones of the plurality of loudspeakers; a dynamic audio routing matrix comprising: a controller coupled to the plurality of Mic-ICC instances; a mixer coupled to the plurality of Mic-ICC instances; a number of computed equalizers, wherein the number of equalizers is N-1, where N defines a number of the plurality of loudspeakers; and a distributor coupled to the plurality of Ls-ICC instances. a controller coupled to the plurality of Mic-ICC instances; a mixer coupled to the plurality of Mic-ICC instances; a number of computed equalizers, wherein the number of equalizers is N-1, where N defines a number of the plurality of loudspeakers; and a distributor coupled to the plurality of Ls-ICC instances.
A positioning method, wherein the method is performed by a mobility management network element, and the method comprises: sending a first message to a location management network element when learning that a terminal device, on which positioning measurement is performed, needs to be handed over from a first access network device to a second access network device, wherein the first message indicates to suspend positioning measurement on the terminal device; and sending a second message to the location management network element when learning that the terminal device has been handed over to the second access network device, so as to enable the location management network element to send a first positioning request for requesting to perform positioning measurement on the terminal device, wherein the method further comprises: sending a third message to a gateway mobile location center when learning that the terminal device needs to be handed over from the first access network device to the second access network device, wherein the third message enables the gateway mobile location center to stop a timer for waiting for a location response message, enables the gateway mobile location center to send a message requesting a location service client to defer returning location information, and enables the gateway mobile location center to enter a state of asynchronously waiting for the location information. sending a first message to a location management network element when learning that a terminal device, on which positioning measurement is performed, needs to be handed over from a first access network device to a second access network device, wherein the first message indicates to suspend positioning measurement on the terminal device; and sending a second message to the location management network element when learning that the terminal device has been handed over to the second access network device, so as to enable the location management network element to send a first positioning request for requesting to perform positioning measurement on the terminal device, wherein the method further comprises: sending a third message to a gateway mobile location center when learning that the terminal device needs to be handed over from the first access network device to the second access network device, wherein the third message enables the gateway mobile location center to stop a timer for waiting for a location response message, enables the gateway mobile location center to send a message requesting a location service client to defer returning location information, and enables the gateway mobile location center to enter a state of asynchronously waiting for the location information.
An angle adjustment device for an electric seat, comprising an inner toothed plate and an outer toothed plate engaging with each other, an eccentric cavity being formed between the inner toothed plate and the outer toothed plate, an eccentric ring filling a forward eccentric zone of the eccentric cavity being arranged in the eccentric cavity, the eccentric ring being provided with a first accommodating zone and a second accommodating zone in a circumferential direction, and the angle adjustment device for an electric seat further comprising a driving member for driving the eccentric ring to rotate; a damping member being arranged in the first accommodating zone and/or the second accommodating zone, and the damping member being in a compressed state during working of the driving member; a wedge-shaped block being arranged in the first accommodating zone, and the driving member being configured to drive the wedge-shaped block or the eccentric ring to drive the eccentric ring to rotate; and the angle adjustment device further comprising an elastic member for compressing the eccentric ring and the wedge-shaped block, the angle adjustment device for an electric seat being characterized in that, the driving member comprises a first driving block extending into the first accommodating zone and a second driving block extending into the second accommodating zone, and each of the first driving block and the second driving block has a driving working surface and a non-driving working surface; and the damping member comprises a first damping element arranged in the first accommodating zone and a second damping element arranged in the second accommodating zone, one end of each of the first damping element and the second damping abuts against the non-driving working surface of a relative driving block, and another end of each of the first damping element and the second damping element abuts against a side wall of a relative accommodating zone. a wedge-shaped block being arranged in the first accommodating zone, and the driving member being configured to drive the wedge-shaped block or the eccentric ring to drive the eccentric ring to rotate; and the angle adjustment device further comprising an elastic member for compressing the eccentric ring and the wedge-shaped block, the angle adjustment device for an electric seat being characterized in that, the driving member comprises a first driving block extending into the first accommodating zone and a second driving block extending into the second accommodating zone, and each of the first driving block and the second driving block has a driving working surface and a non-driving working surface; and the damping member comprises a first damping element arranged in the first accommodating zone and a second damping element arranged in the second accommodating zone, one end of each of the first damping element and the second damping abuts against the non-driving working surface of a relative driving block, and another end of each of the first damping element and the second damping element abuts against a side wall of a relative accommodating zone.
Device for the ready-to-eat preparation of a pineapple in brick-and-mortar retail, comprising: - a receiving device for receiving a pineapple in the device, - a drive having a dog for moving a pineapple, which is to be prepared, in a conveyance direction from the receiving apparatus to a cutting apparatus, and - a cutting apparatus for separating the peel and the stalk from edible flesh of the pineapple, wherein - the device comprises an apparatus for determining the diameter of the pineapple in order to minimize waste in the form of peel and stalk in the cutting apparatus and to increase the yield of flesh, - characterized in that - the apparatus for determining the diameter of the pineapple comprises a force-actuated brace element to which a force acting counter to the conveyance direction is applied. - a receiving device for receiving a pineapple in the device, - a drive having a dog for moving a pineapple, which is to be prepared, in a conveyance direction from the receiving apparatus to a cutting apparatus, and - a cutting apparatus for separating the peel and the stalk from edible flesh of the pineapple, wherein - the device comprises an apparatus for determining the diameter of the pineapple in order to minimize waste in the form of peel and stalk in the cutting apparatus and to increase the yield of flesh, - characterized in that - the apparatus for determining the diameter of the pineapple comprises a force-actuated brace element to which a force acting counter to the conveyance direction is applied.
A heating system comprising a cooking plate comprising a bottom surface, heating means (20, 30, 40) positioned under the cooking plate facing the bottom surface, the heating means comprising a thermal diffuser bearing on the bottom surface of the cooking plate and extending facing the latter in a complementary manner, characterized in that the heating means comprise a series of heating elements distributed and bearing on a bottom face of the thermal diffuser and extending facing a part of the bottom face of the thermal diffuser.
A cylindrical reactor having a vertical longitudinal axis, - having a multiplicity of Field tubes which are oriented parallel to the longitudinal axis of the reactor and affixed to the upper end of the reactor, - having a tube insert open at both ends which envelops the Field tubes and at its lower end projects beyond said tubes, - having an inlet nozzle or a plurality of inlet nozzles at the bottom of the reactor for injecting a reactant mixture comprising at least one gaseous component and at least one liquid component, wherein - the Field tubes are configured in terms of their number and their dimensions such that - the total heat transfer area of said tubes per unit internal volume of the reactor is in the range from 1 m 2 /m 3 to 12 m 2 /m 3 and - the cross sectional area occupied by the Field tubes per unit cross sectional area of the tube insert is in the range from 0.03 m 2 /m 2 to 0.30 m 2 /m 2. - having a multiplicity of Field tubes which are oriented parallel to the longitudinal axis of the reactor and affixed to the upper end of the reactor, - having a tube insert open at both ends which envelops the Field tubes and at its lower end projects beyond said tubes, - having an inlet nozzle or a plurality of inlet nozzles at the bottom of the reactor for injecting a reactant mixture comprising at least one gaseous component and at least one liquid component, wherein - the Field tubes are configured in terms of their number and their dimensions such that - the total heat transfer area of said tubes per unit internal volume of the reactor is in the range from 1 m 2 /m 3 to 12 m 2 /m 3 and - the cross sectional area occupied by the Field tubes per unit cross sectional area of the tube insert is in the range from 0.03 m 2 /m 2 to 0.30 m 2 /m 2. - the total heat transfer area of said tubes per unit internal volume of the reactor is in the range from 1 m 2 /m 3 to 12 m 2 /m 3 and - the cross sectional area occupied by the Field tubes per unit cross sectional area of the tube insert is in the range from 0.03 m 2 /m 2 to 0.30 m 2 /m 2.
System comprising a connection element (12, 24), a wellhead (14, 28) and a connector, the connector comprising a jaw (10, 26) having a plurality of teeth (18, 22, 34, 36, 46, 48, 50, 52) for connecting the connection element (12, 24) to the wellhead (14, 28), wherein the connection element (12, 24) comprises one tooth forming a first angle (α) or a plurality of teeth forming first equal angles, and the wellhead (14, 28) comprises one tooth forming a second angle (β) or a plurality of teeth forming second equal angles, wherein a face of each tooth (18, 22, 34, 36, 46, 48, 50, 52) of the jaw (10, 26) forms an angle (α-δ, β-δ) which is different from a corresponding angle (α, β) formed by a face of a tooth (16, 20, 30, 32, 38, 40, 42, 44) of the connection element (12, 24) or of the wellhead (14, 28), which faces said face of a tooth of the jaw (10, 26) in a position of connection of the connection element (12, 24) and the wellhead (14, 28); and the teeth of the jaw (10, 26) are configured such that at least one spacing (d1-d4) is present in an axial direction defined by the system and between two opposite faces of a tooth of the jaw (10, 26) and a tooth of the connection element (12, 24) or of the wellhead (14, 28) when two other opposite faces of a tooth of the jaw (10, 26) and a tooth of the connection element (12, 24) or of the wellhead (14, 28) come into contact. wherein the connection element (12, 24) comprises one tooth forming a first angle (α) or a plurality of teeth forming first equal angles, and the wellhead (14, 28) comprises one tooth forming a second angle (β) or a plurality of teeth forming second equal angles, wherein a face of each tooth (18, 22, 34, 36, 46, 48, 50, 52) of the jaw (10, 26) forms an angle (α-δ, β-δ) which is different from a corresponding angle (α, β) formed by a face of a tooth (16, 20, 30, 32, 38, 40, 42, 44) of the connection element (12, 24) or of the wellhead (14, 28), which faces said face of a tooth of the jaw (10, 26) in a position of connection of the connection element (12, 24) and the wellhead (14, 28); and the teeth of the jaw (10, 26) are configured such that at least one spacing (d1-d4) is present in an axial direction defined by the system and between two opposite faces of a tooth of the jaw (10, 26) and a tooth of the connection element (12, 24) or of the wellhead (14, 28) when two other opposite faces of a tooth of the jaw (10, 26) and a tooth of the connection element (12, 24) or of the wellhead (14, 28) come into contact.
Modified Slmyc2 gene, comprising at least one modification, wherein the modification comprises an SNP on or before position 1477 of SEQ ID NO. 6 that results in the presence of a premature stop codon within the coding sequence or a shift in reading frame or comprises a mutation in the coding sequence that codes for a different amino acid, and which modification leads to the reduction or absence of S1MYC2 protein activity, wherein the modified Slmyc2 gene is located on chromosome 8 and capable of conferring an aberrant glandular hair phenotype to a Solanum lycopersicum plant.
A method for machine learning to determine severity of motion artifacts on volumetric images generated by a magnetic resonance system, the method comprising: generating, by the magnetic resonance system, a first three-dimensional representation of a patient; reorienting the three-dimensional representation over time based on a model of motion of the patient; simulating magnetic resonance scanning of the patient from the reoriented three-dimensional representation over time, the simulating of the magnetic resonance scanning including a k-space readout line acquisition order for k-space measurements where the k-space measurements at different times are simulated from the reoriented three-dimensional representation at different orientations; reconstructing a second three-dimensional representation from the k-space measurements of the simulated scanning of the three-dimensional representation as reoriented over time; training, by a machine using deep learning, a network to indicate a level of motion artifact based on a difference between the first and second three-dimensional representations; and storing the machine-learned network, characterized in that simulating and reconstructing are repeated for different k-space readout line acquisition orders, and wherein training comprises training based on results from the repetitions. generating, by the magnetic resonance system, a first three-dimensional representation of a patient; reorienting the three-dimensional representation over time based on a model of motion of the patient; simulating magnetic resonance scanning of the patient from the reoriented three-dimensional representation over time, the simulating of the magnetic resonance scanning including a k-space readout line acquisition order for k-space measurements where the k-space measurements at different times are simulated from the reoriented three-dimensional representation at different orientations; reconstructing a second three-dimensional representation from the k-space measurements of the simulated scanning of the three-dimensional representation as reoriented over time; training, by a machine using deep learning, a network to indicate a level of motion artifact based on a difference between the first and second three-dimensional representations; and storing the machine-learned network, characterized in that simulating and reconstructing are repeated for different k-space readout line acquisition orders, and wherein training comprises training based on results from the repetitions.