mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a transmission device in a wireless communication system, the method comprising: monitoring a packet delivery rate from the transmission device to a reception device; if the packet delivery rate is smaller than a threshold value, determining a reception queue level of the reception device; determining a time interval until there is no data pending in a buffer of the reception device based on the reception queue level; determining whether a beam training interval spent for performing a beam training is within the time interval; if the beam training interval is within the time interval, performing the beam training; and if the beam training interval is not within the time interval, decreasing the threshold value and a window size in which the packet delivery rate is calculated. monitoring a packet delivery rate from the transmission device to a reception device; if the packet delivery rate is smaller than a threshold value, determining a reception queue level of the reception device; determining a time interval until there is no data pending in a buffer of the reception device based on the reception queue level; determining whether a beam training interval spent for performing a beam training is within the time interval; if the beam training interval is within the time interval, performing the beam training; and if the beam training interval is not within the time interval, decreasing the threshold value and a window size in which the packet delivery rate is calculated.
A falling-water muffling device for an atomizer, comprising: a falling-water receiving structure, wherein the falling-water receiving structure includes: a sidewall; a water mist flow hole formed by the sidewall, wherein an internal side of the sidewall forms a receiving surface configured to receive water droplets passing through the water mist flow hole, wherein an angle between the receiving surface and a horizontal plane is α, and 0°<α<90°; characterized in that, the falling-water receiving structure comprises a first air inlet disposed on the sidewall; and the falling-water muffling device comprises a lower water shielding structure connected to a bottom of the sidewall of the falling-water receiving structure, wherein the lower water shielding structure has a first through hole communicated with the water mist flow hole of the falling-water receiving structure. a falling-water receiving structure, wherein the falling-water receiving structure includes: a sidewall; a water mist flow hole formed by the sidewall, wherein an internal side of the sidewall forms a receiving surface configured to receive water droplets passing through the water mist flow hole, wherein an angle between the receiving surface and a horizontal plane is α, and 0°<α<90°; a sidewall; a water mist flow hole formed by the sidewall, wherein an internal side of the sidewall forms a receiving surface configured to receive water droplets passing through the water mist flow hole, wherein an angle between the receiving surface and a horizontal plane is α, and 0°<α<90°; characterized in that, the falling-water receiving structure comprises a first air inlet disposed on the sidewall; and the falling-water muffling device comprises a lower water shielding structure connected to a bottom of the sidewall of the falling-water receiving structure, wherein the lower water shielding structure has a first through hole communicated with the water mist flow hole of the falling-water receiving structure. the falling-water receiving structure comprises a first air inlet disposed on the sidewall; and the falling-water muffling device comprises a lower water shielding structure connected to a bottom of the sidewall of the falling-water receiving structure, wherein the lower water shielding structure has a first through hole communicated with the water mist flow hole of the falling-water receiving structure.
An electric appliance for personal care, in particular electric shaver, comprising a magnetic linear drive unit having first and second drive components (6, 7) connected to each other by a first spring device for substantially linear oscillation relative to each other and adapted to magnetically interact with each other, and a second spring device for movably linking the drive unit to a structural element of the electric appliance, wherein the first and the second spring devices are formed as leaf springs, characterized in that said first spring device includes one or more spring elements made from plastics, whereas the second spring device includes one or more spring elements made from metal, wherein the first spring device includes a higher number of spring elements than the second spring device.
A carrier for administering biologically active compounds comprising: (i) one or more C 1-4 alcohols in an amount of 5 to 40 % (w/w); (ii) water in an amount of 50 to 90 % (w/w); and (iii) a combination of a di-tocopheryl phosphate derivative and a mono-tocopheryl phosphate derivative in an amount of up to 3 % (w/w), wherein the phosphate derivatives are in the acid form; and wherein the carrier is in the form of vesicles. (i) one or more C 1-4 alcohols in an amount of 5 to 40 % (w/w); (ii) water in an amount of 50 to 90 % (w/w); and (iii) a combination of a di-tocopheryl phosphate derivative and a mono-tocopheryl phosphate derivative in an amount of up to 3 % (w/w), wherein the phosphate derivatives are in the acid form; and
A method of crimping a transcatheter heart valve (142, 150) having a first end and a second end and comprising a valve frame and a plurality of valve leaflets, the method comprising: crimping the heart valve (142, 150) to a first position where the first end of the heart valve (142, 150) is crimped from a first width to a second width smaller than the first width, while the second end of the heart valve remains at the first width; and packaging the heart valve (142, 150) when the heart valve is in the first position. crimping the heart valve (142, 150) to a first position where the first end of the heart valve (142, 150) is crimped from a first width to a second width smaller than the first width, while the second end of the heart valve remains at the first width; and packaging the heart valve (142, 150) when the heart valve is in the first position.
A control system for a medical device the system comprising: a memory; and a processor coupled to the memory, the processor being configured to: determine, using one or more sensors, whether an operator is in contact with an input control of an input control console coupled to the system; receive an input representing a commanded motion of the device at the input control; execute the commanded motion; when the processor determines that the operator is in contact with the input control, apply a safety limit to the commanded motion; and when the processor determines that the operator is not in contact with the input control, affect the commanded motion by placing the device in a lock mode. a memory; and a processor coupled to the memory, the processor being configured to: determine, using one or more sensors, whether an operator is in contact with an input control of an input control console coupled to the system; receive an input representing a commanded motion of the device at the input control; execute the commanded motion; when the processor determines that the operator is in contact with the input control, apply a safety limit to the commanded motion; and when the processor determines that the operator is not in contact with the input control, affect the commanded motion by placing the device in a lock mode. determine, using one or more sensors, whether an operator is in contact with an input control of an input control console coupled to the system; receive an input representing a commanded motion of the device at the input control; execute the commanded motion; when the processor determines that the operator is in contact with the input control, apply a safety limit to the commanded motion; and when the processor determines that the operator is not in contact with the input control, affect the commanded motion by placing the device in a lock mode.
A heavy-metal removal method, wherein in a neutralization tank provided with a vertical-type cylindrical reaction vessel, stirring blades arranged in the reaction vessel, and an annular aeration tube having a large number of air outlets and being arranged to a bottom part of the reaction vessel, aeration is performed by introducing air as gas for oxidation from a large number of air outlets of the aeration tube while stirring an aqueous solution containing at least one kind of ion of a divalent ferrous ion and a divalent manganese ion as a heavy metal element by rotation of the stirring blades, and a neutralization treatment in which the aqueous solution containing the heavy metal ion is neutralized with a neutralizing agent is performed to solidify and remove the heavy metal as a hydroxide, wherein the annular aeration tube has a diameter size of 60 to 85% of that of the reaction vessel, the air outlets are circular and have a diameter size of 18 to 22 mm, and three air outlets are made to be a set, wherein one outlet is arranged directly under the annular aeration tube and each of the other outlets is arranged at each of both positions at an angle of 45° to both sides from the one outlet arranged directly under the annular aeration tube and wherein the sets are arranged to the annular aeration tube at equal intervals.
A hepatitis B virus specific epitope selected from the group consisting of RFLWE (SEQ ID NO: 4), KFLWE (SEQ ID NO: 5), FARFLWEWASVRFSW (SEQ ID NO: 6) and FGKFLWEWASARFSW (SEQ ID NO: 7).
A starter air valve for an air turbine starter system comprising: a valve member and an actuator for said valve member; a rotary spool valve to be connected to a source of pressurized air, said rotary spool valve having a rotatable valve body and an outer housing; an actuator control for said actuator; said rotatable valve body and said outer housing selectively providing three modes of operation for the starter air valve; in a first mode of operation the rotatable valve body connects pressurized air through said rotatable valve body to communicate with said actuator control, and receives pressurized air back from said actuator control, and then communicates the air to said actuator; in a second mode the rotatable valve body blocks communication between said actuator control and said actuator, and delivers air through a variable area port in an outer wall of said rotatable valve body to bypass said valve member; and in a third mode the rotatable valve body blocks communication between said actuator and said actuator control, and connects pressurized air to said actuator without having passed to said actuator control. a valve member and an actuator for said valve member; a rotary spool valve to be connected to a source of pressurized air, said rotary spool valve having a rotatable valve body and an outer housing; an actuator control for said actuator; said rotatable valve body and said outer housing selectively providing three modes of operation for the starter air valve; in a first mode of operation the rotatable valve body connects pressurized air through said rotatable valve body to communicate with said actuator control, and receives pressurized air back from said actuator control, and then communicates the air to said actuator; in a second mode the rotatable valve body blocks communication between said actuator control and said actuator, and delivers air through a variable area port in an outer wall of said rotatable valve body to bypass said valve member; and in a third mode the rotatable valve body blocks communication between said actuator and said actuator control, and connects pressurized air to said actuator without having passed to said actuator control.
A method for manufacturing a reconstituted wafer that comprises selected chips having connection pads on a face of the chip, called front face, said method comprising the following steps: - positioning selected chips on an adhesive support, with the front face on the support; - depositing a resin onto the support in order to encapsulate the chips; - curing the resin, characterised in that: - before the step of depositing resin, it comprises a step of adhering, on the rear faces of the chips, a support wafer for positioning the chips, said support wafer being in the form of a grid comprising parts disposed on a rear face of the chips; - after the curing step, it comprises a step of fully or partially removing the support wafer. - positioning selected chips on an adhesive support, with the front face on the support; - depositing a resin onto the support in order to encapsulate the chips; - curing the resin, - before the step of depositing resin, it comprises a step of adhering, on the rear faces of the chips, a support wafer for positioning the chips, said support wafer being in the form of a grid comprising parts disposed on a rear face of the chips; - after the curing step, it comprises a step of fully or partially removing the support wafer.
Propulsion assembly for an aircraft, having: - a propulsion system having a core enclosed in a casing and having a combustion chamber, and - at least one supply pipe intended to convey dihydrogen to the combustion chamber wherein said at least one supply pipe meanders outside the casing before dropping into the combustion chamber through the casing via at least one injector, the propulsion assembly being characterized in that it further comprises a housing (184, 484) fastened to the casing in a sealed manner around the latter, wherein said at least one supply pipe has an upstream part and a downstream part that are fluidically connected to one another through a wall of the housing (184, 484), wherein the upstream part is intended to be fluidically connected to a tank and fastened in a sealed manner to said wall of the housing (184, 484) and wherein the downstream part is housed inside the housing (184, 484) and fastened in a sealed manner to said wall of the housing (184, 484) and wherein the at least one injector is also housed inside the housing (184, 484). - a propulsion system having a core enclosed in a casing and having a combustion chamber, and - at least one supply pipe intended to convey dihydrogen to the combustion chamber wherein said at least one supply pipe meanders outside the casing before dropping into the combustion chamber through the casing via at least one injector,
A method for the manufacture of composite structures comprising peat moss, characterized in that the method is a continuous foam-laid method comprising the steps of: - forming at least one foamed dispersion by dispersing fibers comprising 0.1 - 10% by weight of peat moss in a foamable liquid consisting of water, 0.005 - 10% by weight of one or more binders and 0.005 - 5% by weight of at least one foaming agent selected from anionic surfactants and polyvinyl alcohols, - conveying the foamed dispersion or foamed dispersions to a foraminous support and draining liquid through the foraminous support to form a sheet or web, and - drying the sheet or web. - forming at least one foamed dispersion by dispersing fibers comprising 0.1 - 10% by weight of peat moss in a foamable liquid consisting of water, 0.005 - 10% by weight of one or more binders and 0.005 - 5% by weight of at least one foaming agent selected from anionic surfactants and polyvinyl alcohols, - conveying the foamed dispersion or foamed dispersions to a foraminous support and draining liquid through the foraminous support to form a sheet or web, and - drying the sheet or web.
A carrier (105; 305) for holding at least one container, the carrier comprising: a plurality of panels extending at least partially around an interior of the carrier, the plurality of panels comprising a front panel, a back panel, at least one central panel, at least one side panel (129a, 129b, 133a, 133b), and at least one bottom panel; at least one divider flap (151, 165, 183, 187) foldably connected to one of the front panel and the back panel, the at least one divider flap folded away from the one of the front panel and the back panel to form at least one opening (119, 121) in the one of the front panel and the back panel, the at least one divider flap extends through the interior of the carrier to the at least one central panel, at least one of the front panel and the back panel comprises at least one notch (127, 132, 134) at an upper edge (126, 128) thereof, the at least one notch provides an access path (P1, P2, P3) to a portion of the at least one central panel aligned with the at least one notch. a plurality of panels extending at least partially around an interior of the carrier, the plurality of panels comprising a front panel, a back panel, at least one central panel, at least one side panel (129a, 129b, 133a, 133b), and at least one bottom panel; at least one divider flap (151, 165, 183, 187) foldably connected to one of the front panel and the back panel, the at least one divider flap folded away from the one of the front panel and the back panel to form at least one opening (119, 121) in the one of the front panel and the back panel, the at least one divider flap extends through the interior of the carrier to the at least one central panel, at least one of the front panel and the back panel comprises at least one notch (127, 132, 134) at an upper edge (126, 128) thereof, the at least one notch provides an access path (P1, P2, P3) to a portion of the at least one central panel aligned with the at least one notch.
A method for operating a blast furnace in which an inflammable reducing agent and a solid reducing agent are injected through a lance and a tuyere, the method comprising and being characterized by: injecting the inflammable reducing agent and the solid reducing agent through a double tube lance, a flow velocity at an exit of an outer tube of the double tube lance being from 20 m/sec to 120 m/sec and an oxygen excess ratio of air blown to the tuyere being from 0.7 to 1.3, wherein the oxygen excess ratio = (the amount of oxygen which is contained in air, pure oxygen and the solid reducing agent which are blown through tuyeres and lances) / (the amount of oxygen which is necessary to burn carbon, hydrogen and sulfur which are contained in the solid reducing agent into CO 2, H 2 O and SO 2), and wherein a) the solid reducing agent is injected through an inner tube of the double tube lance and the inflammable reducing agent is injected through the outer tube of the double tube lance; or b) the inflammable reducing agent is injected through an inner tube of the double tube lance and the solid reducing agent is injected through the outer tube of the double tube lance. injecting the inflammable reducing agent and the solid reducing agent through a double tube lance, a flow velocity at an exit of an outer tube of the double tube lance being from 20 m/sec to 120 m/sec and an oxygen excess ratio of air blown to the tuyere being from 0.7 to 1.3, wherein the oxygen excess ratio = (the amount of oxygen which is contained in air, pure oxygen and the solid reducing agent which are blown through tuyeres and lances) / (the amount of oxygen which is necessary to burn carbon, hydrogen and sulfur which are contained in the solid reducing agent into CO 2, H 2 O and SO 2), and wherein a) the solid reducing agent is injected through an inner tube of the double tube lance and the inflammable reducing agent is injected through the outer tube of the double tube lance; or b) the inflammable reducing agent is injected through an inner tube of the double tube lance and the solid reducing agent is injected through the outer tube of the double tube lance. a) the solid reducing agent is injected through an inner tube of the double tube lance and the inflammable reducing agent is injected through the outer tube of the double tube lance; or b) the inflammable reducing agent is injected through an inner tube of the double tube lance and the solid reducing agent is injected through the outer tube of the double tube lance.
A method for estimating the bulk density of at least one target object comprising: i. performing a scan of two or more reference objects with known bulk density and three or more calibration objects with known bulk density and effective atomic number, ii. obtaining a functional relationship between bulk density error and effective atomic number using scan values from the reference objects and the calibration objects, iii. performing a scan of the target object and the calibration objects, iv. obtaining uncorrected density and effective atomic number for the target object, v. obtaining bulk density corrections using the functional relationship between bulk density error and effective atomic number from the reference objects, and the effective atomic number for the target object, and vi. obtaining the corrected bulk density using the bulk density corrections, wherein steps i. and iii. can be performed in any order. i. performing a scan of two or more reference objects with known bulk density and three or more calibration objects with known bulk density and effective atomic number, ii. obtaining a functional relationship between bulk density error and effective atomic number using scan values from the reference objects and the calibration objects, iii. performing a scan of the target object and the calibration objects, iv. obtaining uncorrected density and effective atomic number for the target object, v. obtaining bulk density corrections using the functional relationship between bulk density error and effective atomic number from the reference objects, and the effective atomic number for the target object, and vi. obtaining the corrected bulk density using the bulk density corrections, wherein steps i. and iii. can be performed in any order.
A transgenic, oil-producing plant of the genus Brassica, wherein the plant, under control of seed-specific promoters or promoters active in plant embryo or endosperm, exhibits a) a delta-6 desaturase, b) a delta-6 elongase, c) a delta-5 desaturase, d) a delta-12 desaturase, and e) a delta-5 elongase activity, the plant producing oil with DHA and/or EPA in the seeds. a) a delta-6 desaturase, b) a delta-6 elongase, c) a delta-5 desaturase, d) a delta-12 desaturase, and e) a delta-5 elongase
A cutting unit for chopper pumps, having a rotor which is to be mounted on a pump shaft and has radially running cutting edges, and having a stator to be mounted in the intake region of the pump, the stator forming passages for the medium to be pumped and having, at the edges of these passages, counteracting cutting edges for the cutting edges of the rotor, characterized in that the cutting edges and the counteracting cutting edges are each divided into segments that are formed on separate, juxtaposed cutting inserts (20, 38).