mhurhangee/patent-ind-claim-en huggingface dataset:
A signal transmission method, the method being performed at a wireless communication system, the method characterized by comprising: generating (S501), by a first user equipment , a first signal; and sending (S502), by the first user equipment , the first signal on a first resource (F0), wherein a transmit power of the first signal is non-zero, the first signal is superimposed on a third signal sent on the first resource (F0), wherein the first user equipment sends no signal on a second resource (F1); measuring (S503), by a second user equipment , the third signal on the first resource (F0), to obtain a first interference power (X); and measuring (S504), by the second user equipment , a fourth signal on the second resource (F1), to obtain a second interference power (Y), wherein the second user equipment uses the first interference power (X) and the second interference power (Y) to obtain an interference power of the first user equipment on the second user equipment . generating (S501), by a first user equipment , a first signal; and sending (S502), by the first user equipment , the first signal on a first resource (F0), wherein a transmit power of the first signal is non-zero, the first signal is superimposed on a third signal sent on the first resource (F0), wherein the first user equipment sends no signal on a second resource (F1); measuring (S503), by a second user equipment , the third signal on the first resource (F0), to obtain a first interference power (X); and measuring (S504), by the second user equipment , a fourth signal on the second resource (F1), to obtain a second interference power (Y), wherein the second user equipment uses the first interference power (X) and the second interference power (Y) to obtain an interference power of the first user equipment on the second user equipment .
A compound of formula I in which Ar represents R 1 represents hydrogen, fluoro, methyl; R 2 and R 3 independently represent hydrogen, fluoro, methyl, -OCH 3 ; R 4 represents hydrogen; R 5 represents bromo or -CF 3 ; wherein at least two of the substituents R 1 , R 2 , R 3 and R 4 represent hydrogen; or a salt thereof, particularly a physiologically acceptable salt thereof. Ar represents R 1 represents hydrogen, fluoro, methyl; R 2 and R 3 independently represent hydrogen, fluoro, methyl, -OCH 3 ; R 4 represents hydrogen; R 5 represents bromo or -CF 3 ;
A method for adjusting a soft stop position on a force-feel characteristic of a pilot control to move an aircraft, the method comprising: step (a): subtracting an actual aircraft variable from an aircraft limit parameter to find a difference ; step (b): multiplying the difference by a gain factor to generate a soft stop position ; step (c): outputting the soft stop position for adjustment on the pilot control. step (a): subtracting an actual aircraft variable from an aircraft limit parameter to find a difference ; step (b): multiplying the difference by a gain factor to generate a soft stop position ; step (c): outputting the soft stop position for adjustment on the pilot control.
Drive and deceleration unit , having a mechanical brake , and an e-drive , wherein the mechanical brake and the e-drive are provided as a unit for acting on a single wheel connection characterised in that rotor of the e-drive is designed as a component of the mechanical brake . a mechanical brake , and an e-drive , wherein the mechanical brake and the e-drive are provided as a unit for acting on a single wheel connection characterised in that rotor of the e-drive is designed as a component of the mechanical brake .
A scroll pump comprising a shaft supported for rotation by a bearing carried by a bearing carrier , said bearing carrier having a generally outer radial portion which is fixed relative to a pump housing and a generally inner radial portion which is fixed relative to the bearing, wherein the carrier is stiff in a radial direction between said inner and outer portions to restrain radial movement of the bearing to maintain radial alignment between an orbiting scroll and a fixed scroll of the pump and flexible in an axial direction to allow axial movement of the bearing.
An air conditioning indoor unit as a wall-hung air conditioning indoor unit including an airflow direction adjusting blade configured to vertically adjust an airflow direction of blow-out air, wherein the airflow direction adjusting blade has at least one through hole provided at a longitudinal end and allowing part of the blow-out air to pass in a thickness direction; the through hole is inclined to extend downward toward a tip of the airflow direction adjusting blade ; the through hole is positioned between a downstream end and a center in a flow direction of the blow-out air, in the airflow direction adjusting blade ; and the air conditioning indoor unit being characterised by further comprising: a perpendicular blade having a vertical plane swung laterally to laterally adjust an airflow direction of air flowing toward the airflow direction adjusting blade , wherein the through hole is at least partially located in a section from a region where a virtual plane including the vertical plane of the perpendicular blade located at a farthest end opposite to a swing direction of the perpendicular blade located at a maximum swung position crosses the airflow direction adjusting blade to a closest end, to the region, of the airflow direction adjusting blade . the airflow direction adjusting blade has at least one through hole provided at a longitudinal end and allowing part of the blow-out air to pass in a thickness direction; the through hole is inclined to extend downward toward a tip of the airflow direction adjusting blade ; the through hole is positioned between a downstream end and a center in a flow direction of the blow-out air, in the airflow direction adjusting blade ; and the air conditioning indoor unit being characterised by further comprising: a perpendicular blade having a vertical plane swung laterally to laterally adjust an airflow direction of air flowing toward the airflow direction adjusting blade , wherein the through hole is at least partially located in a section from a region where a virtual plane including the vertical plane of the perpendicular blade located at a farthest end opposite to a swing direction of the perpendicular blade located at a maximum swung position crosses the airflow direction adjusting blade to a closest end, to the region, of the airflow direction adjusting blade . a perpendicular blade having a vertical plane swung laterally to laterally adjust an airflow direction of air flowing toward the airflow direction adjusting blade , wherein the through hole is at least partially located in a section from a region where a virtual plane including the vertical plane of the perpendicular blade located at a farthest end opposite to a swing direction of the perpendicular blade located at a maximum swung position crosses the airflow direction adjusting blade to a closest end, to the region, of the airflow direction adjusting blade .
A method for carrying out a combined operation of a bioethanol production unit and a biogas unit, characterized in that : a) corn meal from a dry milling step is mashed with at least 0.1 t of dry matter, i.e., TS, in the form of whole stillage and at least 0.1 m 3 of outflow from the biogas unit per tonne of corn meal, b) the mash from step a) is fed to a cooking stage with mash temperatures below the gelatinization temperature of the starch in the corn meal, followed by an ethanol-forming fermentation step and then feeding the fermented mash to a distillation step, and c) the whole stillage from step b) is fed to the mashing step in step a) and to the biogas unit. a) corn meal from a dry milling step is mashed with at least 0.1 t of dry matter, i.e., TS, in the form of whole stillage and at least 0.1 m 3 of outflow from the biogas unit per tonne of corn meal, b) the mash from step a) is fed to a cooking stage with mash temperatures below the gelatinization temperature of the starch in the corn meal, followed by an ethanol-forming fermentation step and then feeding the fermented mash to a distillation step, and c) the whole stillage from step b) is fed to the mashing step in step a) and to the biogas unit.
An open roof assembly for use in a roof of a vehicle, wherein the roof is provided with an opening and the open roof assembly comprises a moveable closure member , the opening having an opening front edge , the closure member being moveable between a closed position for closing the opening and an open position for at least partly exposing the opening and the closure member having a member front edge and having an exterior surface and an opposing interior surface , wherein the interior surface is arranged at an interior side of the vehicle, wherein a first rib structure projects from the interior surface, the first rib structure being arranged close to the opening front edge, when the closure member is in the closed position, wherein a second rib structure projects from the interior surface, the second rib structure being arranged in a longitudinal direction of the vehicle between the first rib structure and the member front edge for deflecting at least part of an airflow (A) through a gap between a roof structure and the closure member generated when the closure member is moving from the closed position to an open position, the second rib structure has a rib edge , wherein the rib edge is arranged opposite to the interior surface of the closure member, characterized in a distance between the interior surface and the rib edge varying over a length of the rib edge, in particular the rib edge being notched, castellated or toothed. the opening having an opening front edge , the closure member being moveable between a closed position for closing the opening and an open position for at least partly exposing the opening and the closure member having a member front edge and having an exterior surface and an opposing interior surface , wherein the interior surface is arranged at an interior side of the vehicle, wherein a first rib structure projects from the interior surface, the first rib structure being arranged close to the opening front edge, when the closure member is in the closed position, wherein a second rib structure projects from the interior surface, the second rib structure being arranged in a longitudinal direction of the vehicle between the first rib structure and the member front edge for deflecting at least part of an airflow (A) through a gap between a roof structure and the closure member generated when the closure member is moving from the closed position to an open position, the second rib structure has a rib edge , wherein the rib edge is arranged opposite to the interior surface of the closure member, characterized in a distance between the interior surface and the rib edge varying over a length of the rib edge, in particular the rib edge being notched, castellated or toothed.
- A machine for processing components of wood or the like, the machine comprising at least two longitudinal, guiding, side members ; at least two cross members arranged on the side members and positionable along the side members ; at least one support block mounted on each cross member for holding at least one component , each support block comprising a bottom slide slidingly coupled to the corresponding cross member and a top plate , which is limited by a flat top face defining a support plane (P) for at least one component , and is mounted on the bottom slide to move between a lowered position and a raised position; a first pneumatic circuit for connecting the top face to a pneumatic suction device, the first pneumatic circuit comprising a first section made through the bottom slide , a second section made through the top plate and connected with the top face , and a third section for connecting said first and second sections to each other; and at least one operating head for machining the components ; and being characterized in that the third section of the first pneumatic circuit comprises a flexible first feed line , which is coupled to the bottom slide and to the top plate , and is housed inside a cable-holder chain designed to guide the first feed line during the displacements of the top plate between said lowered and raised positions.
A method for location determination in beamformed communication, comprising: receiving a first beamformed reference signal as a positioning reference signal, PRS, wherein the PRS is received over a subset of beams directed towards the UE, and receiving the PRS further comprises receiving the PRS for each of multiple carriers that share a same beam by sharing a same antenna panel and by being aligned in time; transmitting by a user equipment, UE, to a base station, a first measurement report, the first measurement report indicating a measurement parameter associated with the first beamformed reference signal; and transmitting by the UE to the base station, additional measurement reports for additional base stations, the additional measurement reports each indicating measurement parameters associated with additional beamformed reference signals that are transmitted at different times in accordance to a coordinated time offset schedule by the additional base stations, the additional beamformed reference signals being according to beam sweep cycles of neighboring base stations coordinated to minimize collision between the beams using the coordinated time offset schedule; wherein the first measurement report and the additional measurement reports are configured to allow the base station to identify a location of the UE; and wherein transmitting the first measurement report further comprises: transmitting, by the UE, a single first measurement report indicating measurement parameters associated with each of the multiple carriers. receiving a first beamformed reference signal as a positioning reference signal, PRS, wherein the PRS is received over a subset of beams directed towards the UE, and receiving the PRS further comprises receiving the PRS for each of multiple carriers that share a same beam by sharing a same antenna panel and by being aligned in time; transmitting by a user equipment, UE, to a base station, a first measurement report, the first measurement report indicating a measurement parameter associated with the first beamformed reference signal; and transmitting by the UE to the base station, additional measurement reports for additional base stations, the additional measurement reports each indicating measurement parameters associated with additional beamformed reference signals that are transmitted at different times in accordance to a coordinated time offset schedule by the additional base stations, the additional beamformed reference signals being according to beam sweep cycles of neighboring base stations coordinated to minimize collision between the beams using the coordinated time offset schedule; wherein the first measurement report and the additional measurement reports are configured to allow the base station to identify a location of the UE; and wherein transmitting the first measurement report further comprises: transmitting, by the UE, a single first measurement report indicating measurement parameters associated with each of the multiple carriers.
A method of assessing quality of a meat product , the method comprising: receiving data representative of autofluorescent light emitted from the meat product upon application of incident laser light from a probe inserted into the meat product ; analysing the data to determine one or more parameters indicative of quality of the meat product ; and assessing the quality of the meat product on the basis of the one or more parameters. receiving data representative of autofluorescent light emitted from the meat product upon application of incident laser light from a probe inserted into the meat product ; analysing the data to determine one or more parameters indicative of quality of the meat product ; and assessing the quality of the meat product on the basis of the one or more parameters.
Use of a glass plate for a mobile body in a display device being a head-up display device , in a windshield, in a dashboard, or in a cover glass for a vehicular display device, wherein the glass plate has a bent portion and is to be installed in the mobile body, wherein the glass plate has an arithmetic mean roughness Ra 1 (nm) of a first main surface of the glass plate and an arithmetic mean roughness Ra 2 (nm) of a second main surface of the glass plate that satisfy the Relation shown below, and Ra 1 is 5 nm or smaller and Ra 2 is larger than 5 nm: Ra 2 − Ra 1 > 0.5 nm
A method for transmitting information in a wireless communication system, comprising: receiving first information transmitted by a communication peer end at a first time-domain transmission unit; and transmitting second information to the communication peer end at a second time-domain transmission unit; wherein each time-domain transmission unit corresponds to uplink, UL, or downlink, DL, transmission resources, the UL and DL transmission resources possess different numerologies, wherein the method is characterized in that timing between the first and second time-domain transmission units is represented by a granularity, which corresponds to a reference numerology; wherein the numerology of the UL transmission resources and the numerology of the DL transmission resources possess different symbol lengths, the same quantity of symbols, and different subcarrier spacing; wherein the timing comprises an offset value of the second time-domain transmission unit compared with the first time-domain transmission unit, and the offset value is represented by the granularity which corresponds to the reference numerology; and the granularity which corresponds to the reference numerology is a time-domain transmission unit corresponding to the numerology of the UL transmission resources. receiving first information transmitted by a communication peer end at a first time-domain transmission unit; and transmitting second information to the communication peer end at a second time-domain transmission unit; wherein each time-domain transmission unit corresponds to uplink, UL, or downlink, DL, transmission resources, the UL and DL transmission resources possess different numerologies, wherein the method is characterized in that timing between the first and second time-domain transmission units is represented by a granularity, which corresponds to a reference numerology; wherein the numerology of the UL transmission resources and the numerology of the DL transmission resources possess different symbol lengths, the same quantity of symbols, and different subcarrier spacing; wherein the timing comprises an offset value of the second time-domain transmission unit compared with the first time-domain transmission unit, and the offset value is represented by the granularity which corresponds to the reference numerology; and the granularity which corresponds to the reference numerology is a time-domain transmission unit corresponding to the numerology of the UL transmission resources.
A nonwoven fiber web material having a pattern comprising at least two groups of areas hydroembossed onto the nonwoven web, having different machine readable optical properties, said areas arranged to encode optically readable information.
The use as fragrance ingredient of 4-methylene-2-(2-methylprop-1-enyl)-tetrahydropyran in combination with nerol oxide at a weight ratio from 9 : 1 to 4 : 1.
Use of a polypropylene composition comprising (A) a heterophasic polypropylene having a xylene cold soluble fraction (XCS) of ≥ 10.0 wt% and an intrinsic viscosity (IV) of the xylene cold soluble (XCS) fraction of > 2.0 dl/g and (C) a filler with the polypropylene composition having an intrinsic viscosity (IV) of (XCS) of ≥ 3.0 dl/g and a ratio of intrinsic viscosity (IV) of (XCS) / xylene cold soluble fraction (XCS) of ≥ 0.113 dl/(g*wt%) for the production of at least partially painted articles. (A) a heterophasic polypropylene having a xylene cold soluble fraction (XCS) of ≥ 10.0 wt% and an intrinsic viscosity (IV) of the xylene cold soluble (XCS) fraction of > 2.0 dl/g and (C) a filler with the polypropylene composition having an intrinsic viscosity (IV) of (XCS) of ≥ 3.0 dl/g and a ratio of intrinsic viscosity (IV) of (XCS) / xylene cold soluble fraction (XCS) of ≥ 0.113 dl/(g*wt%) for the production of at least partially painted articles.
An embedded system comprising: a processing circuit comprising at least one processor configured to support an exponential computation of N-bit input data; and a plurality of look-up tables, LUTs , where the LUTs are of a size less than 2^N and contain a plurality of exponential values; wherein the processing circuit is configured to: receive the N-bit input data; parse the N-bit input data into a plurality of subsets of data; extract respective exponential values from the plurality of LUTs associated with the respective data subsets; and multiply the plurality (m) of extracted exponential values to produce an exponential computation of the N-bit input data , wherein the embedded system is characterised in that the plurality of LUTs are of unequal size, such that the N-bit input data is parsed into a plurality of unequal bit-length subsets of data by using an interleaved number sequence and the processing circuit multiplies the plurality (m) of extracted unequal bit-length exponential values. a processing circuit comprising at least one processor configured to support an exponential computation of N-bit input data; and a plurality of look-up tables, LUTs , where the LUTs are of a size less than 2^N and contain a plurality of exponential values; receive the N-bit input data; parse the N-bit input data into a plurality of subsets of data; extract respective exponential values from the plurality of LUTs associated with the respective data subsets; and multiply the plurality (m) of extracted exponential values to produce an exponential computation of the N-bit input data , wherein the embedded system is characterised in that the plurality of LUTs are of unequal size, such that the N-bit input data is parsed into a plurality of unequal bit-length subsets of data by using an interleaved number sequence and the processing circuit multiplies the plurality (m) of extracted unequal bit-length exponential values.