mhurhangee/patent-ind-claim-en huggingface dataset:
A data scheduling method for data transmission based on a control plane, CP, transmission solution, comprising: obtaining (S301), by a base station, capability information of user equipment, UE; allocating (S302), by the base station, a data scheduling resource to the UE according to the capability information of the UE; sending, by the base station, a radio resource control, RRC, connection establishment signaling to the UE, wherein the RRC connection establishment signaling carries the data scheduling resource allocated by the base station to the UE; and receiving, by the base station, a RRC connection establishment complete signaling that is sent by the UE to the base station, wherein a moment of the obtaining step is prior to that of the receiving step; wherein according to the data scheduling resource allocated by the base station to the UE, data that needs to be reported to a network by the UE is carried in a non-access stratum, NAS, message that is carried in the RRC connection establishment complete signaling sent by the UE to the base station. obtaining (S301), by a base station, capability information of user equipment, UE; allocating (S302), by the base station, a data scheduling resource to the UE according to the capability information of the UE; sending, by the base station, a radio resource control, RRC, connection establishment signaling to the UE, wherein the RRC connection establishment signaling carries the data scheduling resource allocated by the base station to the UE; and receiving, by the base station, a RRC connection establishment complete signaling that is sent by the UE to the base station, wherein a moment of the obtaining step is prior to that of the receiving step; wherein according to the data scheduling resource allocated by the base station to the UE, data that needs to be reported to a network by the UE is carried in a non-access stratum, NAS, message that is carried in the RRC connection establishment complete signaling sent by the UE to the base station.
A profiled element for terraces and balconies, which comprises a substantially flat wing for anchoring the profiled element to the floor, a front portion for protecting an outer edge of a floor paving and protruding outward with respect thereto, and a drip lip which is constituted by a contoured element that extends downward from said wing in the mounted state, in a region to be arranged at an edge of a terrace , whereby said drip lip comprises, at a lower end, at least one first protrusion and at least one second protrusion , lower than the first protrusion in the mounted state, characterized in that both said first and second protrusions protrude outward with respect to said front portion .
A content sending method for playing a video ring back tone, wherein the method is applied to a server, and wherein the method comprises: obtaining , by the server, video media content and additional information content; indicating , by the server, a calling terminal to complete resource reservation for transmitting the video media content and the additional information content; and transmitting , by the server, the video media content to a first port set of the calling terminal, and transmitting the additional information content to a second port set of the calling terminal, wherein the method further comprises: receiving, by the server from the calling terminal, information about an interaction operation, wherein the information about an interaction operation comprises duration during which a calling terminal displays additional information corresponding to the additional information content or an interaction operation performed on the additional information. obtaining , by the server, video media content and additional information content; indicating , by the server, a calling terminal to complete resource reservation for transmitting the video media content and the additional information content; and transmitting , by the server, the video media content to a first port set of the calling terminal, and transmitting the additional information content to a second port set of the calling terminal, wherein the method further comprises: receiving, by the server from the calling terminal, information about an interaction operation, wherein the information about an interaction operation comprises duration during which a calling terminal displays additional information corresponding to the additional information content or an interaction operation performed on the additional information.
A method for managing a number of control surfaces for an aircraft , the method comprising: identifying a current configuration for the number of control surfaces for the aircraft during flight of the aircraft ; identifying a selected point in time at which the current configuration for the number of control surfaces is to be changed to a new configuration for the number of control surfaces ; and identifying a portion of time relative to the selected point in time during which the current configuration for the number of control surfaces is to be changed to the new configuration based on a difference between a current amount of energy for the aircraft and an expected amount of energy for the aircraft . identifying a current configuration for the number of control surfaces for the aircraft during flight of the aircraft ; identifying a selected point in time at which the current configuration for the number of control surfaces is to be changed to a new configuration for the number of control surfaces ; and identifying a portion of time relative to the selected point in time during which the current configuration for the number of control surfaces is to be changed to the new configuration based on a difference between a current amount of energy for the aircraft and an expected amount of energy for the aircraft .
A microneedle device comprising: a substrate; a microneedle disposed on the substrate; and a coating layer formed on the microneedle; wherein the coating layer comprises a recombinant follicle-stimulating hormone, arginine, and glycerin, wherein, in the coating layer, the mass of arginine is 0.07 to 0.75-fold of the mass of the recombinant follicle-stimulating hormone and the mass of glycerin is 0.1 to 2.75-fold of the mass of the recombinant follicle-stimulating hormone. a substrate; a microneedle disposed on the substrate; and a coating layer formed on the microneedle; wherein the coating layer comprises a recombinant follicle-stimulating hormone, arginine, and glycerin, wherein, in the coating layer, the mass of arginine is 0.07 to 0.75-fold of the mass of the recombinant follicle-stimulating hormone and the mass of glycerin is 0.1 to 2.75-fold of the mass of the recombinant follicle-stimulating hormone.
A system for energy recovery for zootechnical plants, which comprises - a first circuit of water to be cooled, which has a duct for drawing well water at a first temperature and a duct for discharging said well water at a temperature that is lower than said first temperature in a first accumulation vat for the water that arrives from said discharge duct - a duct for conveying milk from a milking plant to a low-temperature milk storage tank , there being, along said milk conveyance duct , at least one first exchanger that uses, for cooling said milk, the water stored in said first accumulation vat for the water that arrives from said discharge duct characterized in that the system further comprises: - a geothermal heat pump - a second circuit of water to be heated in order to be stored in at least one first hot water accumulation tank , said geothermal heat pump being provided with a device for heat exchange between said said first circuit and said second circuit , - a milk refrigeration unit - a second exchanger connected functionally to said milk refrigeration unit , said second exchanger being provided along said milk conveyance duct , said milk refrigeration unit comprising a chilled water accumulation vat connected, by way of a cooling circuit , to said second exchanger said milk refrigeration unit being connected functionally to a second hot water accumulation tank , which is connected to the first hot water accumulation tank by way of an exchanger circuit . - a first circuit of water to be cooled, which has a duct for drawing well water at a first temperature and a duct for discharging said well water at a temperature that is lower than said first temperature in a first accumulation vat for the water that arrives from said discharge duct - a duct for conveying milk from a milking plant to a low-temperature milk storage tank , there being, along said milk conveyance duct , at least one first exchanger that uses, for cooling said milk, the water stored in said first accumulation vat for the water that arrives from said discharge duct - a geothermal heat pump - a second circuit of water to be heated in order to be stored in at least one first hot water accumulation tank , said geothermal heat pump being provided with a device for heat exchange between said said first circuit and said second circuit , - a milk refrigeration unit - a second exchanger connected functionally to said milk refrigeration unit , said second exchanger being provided along said milk conveyance duct ,
Cutter for severing a contact from a contact carrier strip , having: a) a first and a second side ; b) a contact carrier strip guide which extends along the first side and in which a contact carrier strip can be guided, wherein the first side can form a separating plane (T) between the contact and the contact carrier strip ; c) a conduit in which a line which has at least one first sub-region and one second sub-region is able to be disposed, wherein the conduit extends between the first and the second side ; d) a stop which is aligned transversely to the conduit and has at least one opening , wherein the first sub-region of the line can extend through the opening , and the second sub-region of the line can rest on the stop ; and the cutter is characterized in that e) the stop forms a sub-region of the first side in such a way that a plane between the first and the second sub-region of the line can lie in the separating plane (T) between the contact and the contact carrier strip . a) a first and a second side ; b) a contact carrier strip guide which extends along the first side and in which a contact carrier strip can be guided, wherein the first side can form a separating plane (T) between the contact and the contact carrier strip ; c) a conduit in which a line which has at least one first sub-region and one second sub-region is able to be disposed, wherein the conduit extends between the first and the second side ; d) a stop which is aligned transversely to the conduit and has at least one opening , wherein the first sub-region of the line can extend through the opening , and the second sub-region of the line can rest on the stop ; and the cutter is characterized in that e) the stop forms a sub-region of the first side in such a way that a plane between the first and the second sub-region of the line can lie in the separating plane (T) between the contact and the contact carrier strip .
A method, comprising the following steps being performed by a processor: receiving (i) multiple electrophysiological (EP) signals acquired by multiple electrodes of a multi-electrode catheter that are in contact with tissue in a region of a cardiac chamber, and (ii) respective tissue locations at which the electrodes acquired the EP signals; selecting, among the multiple electrodes, first electrodes positioned at first respective tissue locations of a first section of the region, and second electrodes positioned at second respective tissue locations of a second section of the region; based on the EP signals acquired by the selected electrodes, calculating (i) local activation time (LAT) values for the first and second respective tissue locations, (ii) a first average LAT value for the first section, and (iii) a second average LAT value for the second section, and comparing between the first and second average LAT values; determining a first representative location within the first section, and a second representative location within the second section; producing, between the first and second representative locations and based on the comparison between the first and second average LAT values, a propagation vector indicative of a propagation of an EP wave that has generated the EP signals; and presenting the propagation vector to a user. receiving (i) multiple electrophysiological (EP) signals acquired by multiple electrodes of a multi-electrode catheter that are in contact with tissue in a region of a cardiac chamber, and (ii) respective tissue locations at which the electrodes acquired the EP signals; selecting, among the multiple electrodes, first electrodes positioned at first respective tissue locations of a first section of the region, and second electrodes positioned at second respective tissue locations of a second section of the region; based on the EP signals acquired by the selected electrodes, calculating (i) local activation time (LAT) values for the first and second respective tissue locations, (ii) a first average LAT value for the first section, and (iii) a second average LAT value for the second section, and comparing between the first and second average LAT values; determining a first representative location within the first section, and a second representative location within the second section; producing, between the first and second representative locations and based on the comparison between the first and second average LAT values, a propagation vector indicative of a propagation of an EP wave that has generated the EP signals; and presenting the propagation vector to a user.
A wireless communication method, comprising: monitoring , by a terminal device , a physical downlink control channel, PDCCH, in a discontinuous reception, DRX, period, wherein the PDCCH carries an uplink grant, and the uplink grant indicates an asynchronous hybrid automatic repeat request, HARQ, process used for transmitting a physical uplink shared channel, PUSCH; and starting , by the terminal device (120; 400), an uplink HARQ round trip time, RTT, timer for the asynchronous HARQ process at a first moment after detecting the PDCCH, wherein the method further comprises: receiving, by the terminal device , a repetition termination message fed back by a network device when the PUSCH is transmitted for the n th time, wherein n is a positive integer less than or equal to k, k is a maximum repetition number, and k is a positive integer greater than or equal to 1; and wherein the starting the uplink HARQ RTT timer at the first moment comprises: starting, by the terminal device (120; 400), the uplink HARQ RTT timer for the asynchronous HARQ process when receiving the repetition termination message. monitoring , by a terminal device , a physical downlink control channel, PDCCH, in a discontinuous reception, DRX, period, wherein the PDCCH carries an uplink grant, and the uplink grant indicates an asynchronous hybrid automatic repeat request, HARQ, process used for transmitting a physical uplink shared channel, PUSCH; and starting , by the terminal device (120; 400), an uplink HARQ round trip time, RTT, timer for the asynchronous HARQ process at a first moment after detecting the PDCCH, wherein the method further comprises: receiving, by the terminal device , a repetition termination message fed back by a network device when the PUSCH is transmitted for the n th time, wherein n is a positive integer less than or equal to k, k is a maximum repetition number, and k is a positive integer greater than or equal to 1; and receiving, by the terminal device , a repetition termination message fed back by a network device when the PUSCH is transmitted for the n th time, wherein n is a positive integer less than or equal to k, k is a maximum repetition number, and k is a positive integer greater than or equal to 1; and wherein the starting the uplink HARQ RTT timer at the first moment comprises: starting, by the terminal device (120; 400), the uplink HARQ RTT timer for the asynchronous HARQ process when receiving the repetition termination message.
A contacting component comprising a molded article made from a thermoplastic resin composition (X) containing a vinyl graft polymer (A), a vinyl non-graft polymer (B) and a matting agent (C), wherein: the vinyl graft polymer (A) contains a vinyl graft polymer (A1) containing an ethylene-α-olefin rubber polymer (a1) and a vinyl graft polymer (A2) containing a diene rubber polymer (a2), a graft ratio and an intrinsic viscosity [η] (measured at 30°C in methyl ethyl ketone) of the vinyl graft polymer (A2) is 10 to 150% and 0.15 to 1.0 dl/g, respectively, a mass ratio (a1) : (a2) of the ethylene-α-olefin rubber polymer (a1) and the diene rubber polymer (a2) is 5 to 80 : 95 to 20, the vinyl graft polymer (A2) contains a structural unit derived from an a,β-unsaturated glycidyl ester compound and an amount of the structural unit is 0.01 to 5 % by mass based on 100 % by mass of the total amount of the vinyl graft polymer (A), the vinyl non-graft polymer (B) and the matting agent (C), the matting agent (C) is a resin composition (C2) which contains a copolymer resin (c1) of acrylonitrile and styrene or α-methylstyrene and an ingredient (c2) containing an unsaturated nitrile-conjugated diene copolymer rubber and the copolymer rubber is crosslinked, and an amount of the matting agent (C) is 1 to 30 % by mass based on 100 % by mass of the total amount of the vinyl graft polymer (A), the vinyl non-graft polymer (B) and the matting agent (C). the vinyl graft polymer (A) contains a vinyl graft polymer (A1) containing an ethylene-α-olefin rubber polymer (a1) and a vinyl graft polymer (A2) containing a diene rubber polymer (a2), a graft ratio and an intrinsic viscosity [η] (measured at 30°C in methyl ethyl ketone) of the vinyl graft polymer (A2) is 10 to 150% and 0.15 to 1.0 dl/g, respectively, a mass ratio (a1) : (a2) of the ethylene-α-olefin rubber polymer (a1) and the diene rubber polymer (a2) is 5 to 80 : 95 to 20, the vinyl graft polymer (A2) contains a structural unit derived from an a,β-unsaturated glycidyl ester compound and an amount of the structural unit is 0.01 to 5 % by mass based on 100 % by mass of the total amount of the vinyl graft polymer (A), the vinyl non-graft polymer (B) and the matting agent (C), the matting agent (C) is a resin composition (C2) which contains a copolymer resin (c1) of acrylonitrile and styrene or α-methylstyrene and an ingredient (c2) containing an unsaturated nitrile-conjugated diene copolymer rubber and the copolymer rubber is crosslinked, and an amount of the matting agent (C) is 1 to 30 % by mass based on 100 % by mass of the total amount of the vinyl graft polymer (A), the vinyl non-graft polymer (B) and the matting agent (C).
A wheel bearing apparatus with a generator comprising: a wheel bearing including a fixed wheel and a rotating wheel having a hub flange , the rotating wheel being rotatably supported by the fixed wheel via rolling elements and attached with a vehicle wheel and a brake rotor at the hub flange ; a generator including a stator attached to the fixed wheel and a motor rotor attached to the rotating wheel, the generator being of an outer-rotor type in which the stator is located on an outer periphery of the wheel bearing , and the motor rotor is located radially outside of the stator ; and at least one conducting unit (26, 26A-26F) configured to conduct a current between the fixed wheel and the rotating wheel; wherein a first conducting unit of the at least one conducting unit (26, 26A-26F) is a conductive covering member that covers the inboard-side end of the fixed wheel, and the covering member is in contact with the rotating wheel at a center of a rotation axis. a wheel bearing including a fixed wheel and a rotating wheel having a hub flange , the rotating wheel being rotatably supported by the fixed wheel via rolling elements and attached with a vehicle wheel and a brake rotor at the hub flange ; a generator including a stator attached to the fixed wheel and a motor rotor attached to the rotating wheel, the generator being of an outer-rotor type in which the stator is located on an outer periphery of the wheel bearing , and the motor rotor is located radially outside of the stator ; and at least one conducting unit (26, 26A-26F) configured to conduct a current between the fixed wheel and the rotating wheel; wherein
An automotive safety electronic control system, comprising: a processor including a processor clock , wherein the processor is configured to output a cyclic test clock signal representative of the processor clock; a reference clock source configured to output a cyclic reference clock signal, and; a test device ; wherein the test device is configured to: include a test counter , the test counter configured to count a number of cycles of the test clock signal, and to store a test count value representing a number of test count cycles; include a reference counter , the reference counter configured to count a number of cycles of the reference clock signal, and to store a reference count value representing a number of reference count cycles, and; modify the test count value upon receipt by the test device of each cycle of the test clock signal; modify the reference count value upon receipt by the test device of each cycle of the reference clock signal, and; calculate a difference between the test count value and the reference count value. a processor including a processor clock , wherein the processor is configured to output a cyclic test clock signal representative of the processor clock; a reference clock source configured to output a cyclic reference clock signal, and; a test device ; wherein the test device is configured to: include a test counter , the test counter configured to count a number of cycles of the test clock signal, and to store a test count value representing a number of test count cycles; include a reference counter , the reference counter configured to count a number of cycles of the reference clock signal, and to store a reference count value representing a number of reference count cycles, and; modify the test count value upon receipt by the test device of each cycle of the test clock signal; modify the reference count value upon receipt by the test device of each cycle of the reference clock signal, and; calculate a difference between the test count value and the reference count value. include a test counter , the test counter configured to count a number of cycles of the test clock signal, and to store a test count value representing a number of test count cycles; include a reference counter , the reference counter configured to count a number of cycles of the reference clock signal, and to store a reference count value representing a number of reference count cycles, and; modify the test count value upon receipt by the test device of each cycle of the test clock signal; modify the reference count value upon receipt by the test device of each cycle of the reference clock signal, and; calculate a difference between the test count value and the reference count value.