mhurhangee/ep-ind-claims huggingface dataset:
A method of transmitting secondary cell, SCell, beam failure recovery request, BFRQ, information in a beam failure recovery, BFR, procedure for a user equipment, UE, the method comprising: receiving, from a base station, BS, at least one scheduling request, SR, resource configuration and at least one SR configuration; triggering a first type of SR transmission for requesting a first uplink, UL, resource for transmitting beam failure recovery request, BFRQ, information according to a first of the at least one SR configuration, wherein one of the at least one SR resource configuration indicates a first physical uplink control channel, PUCCH, resource for the first type of SR transmission; and in a case that the first PUCCH resource for the first type of SR transmission overlaps a second PUCCH resource for a second type of SR transmission for requesting a second UL resource for transmitting non-BFRQ information according to a second of the at least one SR configuration, transmitting, to the BS, first uplink control information, UCI, on the first PUCCH resource; wherein the first type of SR transmission is prioritized over the second type of SR transmission, and a payload of the first UCI includes a first indication associated with the first type of SR transmission. receiving, from a base station, BS, at least one scheduling request, SR, resource configuration and at least one SR configuration; triggering a first type of SR transmission for requesting a first uplink, UL, resource for transmitting beam failure recovery request, BFRQ, information according to a first of the at least one SR configuration, wherein one of the at least one SR resource configuration indicates a first physical uplink control channel, PUCCH, resource for the first type of SR transmission; and in a case that the first PUCCH resource for the first type of SR transmission overlaps a second PUCCH resource for a second type of SR transmission for requesting a second UL resource for transmitting non-BFRQ information according to a second of the at least one SR configuration, transmitting, to the BS, first uplink control information, UCI, on the first PUCCH resource; wherein the first type of SR transmission is prioritized over the second type of SR transmission, and a payload of the first UCI includes a first indication associated with the first type of SR transmission.
A hot-rolled steel strip product comprising a composition consisting of, in terms of weight percentages (wt. %): C 0.17 - 0.38, preferably 0.21 - 0.35, more preferably 0.22 - 0.28 Si 0.01 - 0.5, more preferably 0.03 - 0.25 Mn 0.1 - 0.4, preferably 0.15 - 0.3 Al 0.015 - 0.15 Cu 0.1 - 0.6, preferably 0.1 - 0.5, more preferably 0.1 - 0.35 Ni 0.2-0.8 Cr 0.1 - 1, preferably 0.3 - 1, more preferably 0.35 - 1, even more preferably 0.35 - 0.8 Mo 0.01 - 0.3, preferably 0.03 - 0.3, more preferably 0.05 - 0.3 Nb 0 - 0.005 Ti 0 - 0.05, preferably 0 - 0.035, more preferably 0 - 0.02 V 0-0.06 B 0.0005 - 0.005, preferably 0.0008 - 0.005 P 0 - 0.025, preferably 0.001 - 0.025, more preferably 0.001 - 0.012 S 0 - 0.008, preferably 0 - 0.005, more preferably 0 - 0.002 N 0 - 0.01, preferably 0 - 0.005, more preferably 0 - 0.004 Ca 0.0008 - 0.003 remainder Fe and inevitable impurities, wherein the steel product has a Brinell hardness in the range of 420 - 580 HBW, and a corrosion index (ASTM G101-04) of at least 5, and wherein the steel product has a microstructure consisting of, in terms of volume percentages (vol. %), martensite ≥ 90, residual austenite 0-1, remainder bainite, ferrite and/or pearlite, and wherein, the steel strip product has a thickness of 10 mm or less, and the amount of Ti is in the range of 0 - 0.005 wt. % when the amount of N is in the range of 0 - 0.003 wt. %, the amount of Ti is more than 0.005 wt. % and not more than 0.05 wt. % when the amount of N is more than 0.003 wt. % and not more than 0.01 wt. %, and wherein the steel product has a Charpy-V impact toughness of at least 34 J/cm 2 at a temperature of - 20 °C or -40 °C in transversal and/or longitudinal direction. remainder Fe and inevitable impurities, wherein the steel product has a Brinell hardness in the range of 420 - 580 HBW, and a corrosion index (ASTM G101-04) of at least 5, and wherein the steel product has a microstructure consisting of, in terms of volume percentages (vol. %), martensite ≥ 90, residual austenite 0-1, remainder bainite, ferrite and/or pearlite, and wherein, the steel strip product has a thickness of 10 mm or less, and the amount of Ti is in the range of 0 - 0.005 wt. % when the amount of N is in the range of 0 - 0.003 wt. %, the amount of Ti is more than 0.005 wt. % and not more than 0.05 wt. % when the amount of N is more than 0.003 wt. % and not more than 0.01 wt. %, and wherein the steel product has a Charpy-V impact toughness of at least 34 J/cm 2 at a temperature of - 20 °C or -40 °C in transversal and/or longitudinal direction.
A device for cutting a material web strip for the tobacco processing industry, in particular a tipping paper strip, into material web sections with a cutting roller and a suction roller interacting with the cutting roller, wherein the material web strip is or will be guided between the cutting roller and the suction roller, and wherein the cutting roller has cutting blades in the circumferential direction, wherein the suction roller has grooves for receiving cutting blades of the cutting roller in the circumferential direction, wherein during the simultaneous rotation of the cutting roller and the suction roller in opposite directions, the cutting blades of the cutting roller are each inserted into a groove of the suction roller and can be or are brought into contact with a groove flank of the groove, forming a paper cut, wherein exclusively one suction roller driver, which preferably directly drives the suction roller and is position-controlled or speed-controlled, is provided for the rotation of the suction roller, and wherein exclusively one torque-controlled cutting roller drive, which preferably drives the cutting roller, is provided for the rotation of the cutting roller.
A method for wireless communication operable at a user equipment, UE, comprising: establishing a packet switched, PS, connection between the UE and a base station, wherein the PS connection comprises a Fractional Dedicated Physical Channel, F-DPCH; configuring an in-sync threshold, Q in, and an out-of-sync threshold, Q out, for the F-DPCH, wherein values of the Q in and Q out are set higher than those of corresponding Q in and Q out of a Dedicated Physical Channel, DPCH; estimating a downlink, DL, Signal to Interference Ratio, SIR, based on one or more transmit power control, TPC, commands of the F-DPCH; and determining whether to release the PS connection based on a comparison of the estimated SIR and Q out of the F-DPCH. establishing a packet switched, PS, connection between the UE and a base station, wherein the PS connection comprises a Fractional Dedicated Physical Channel, F-DPCH; configuring an in-sync threshold, Q in, and an out-of-sync threshold, Q out, for the F-DPCH, wherein values of the Q in and Q out are set higher than those of corresponding Q in and Q out of a Dedicated Physical Channel, DPCH; estimating a downlink, DL, Signal to Interference Ratio, SIR, based on one or more transmit power control, TPC, commands of the F-DPCH; and determining whether to release the PS connection based on a comparison of the estimated SIR and Q out of the F-DPCH.
A combination of an inner coffin and an outer coffin with a connection system for mutually coupling the inner coffin and the outer coffin, said inner coffin comprising a bottom and side walls (3, 4, 5, 6) extending from the bottom, wherein said outer coffin comprises a load bearing frame construction near the bottom of the inner coffin, the load bearing frame construction comprising movable support pins embodied for insertion in openings (7, 8) that are provided in the inner coffin's wall (3; 4; 5; 6) near the bottom thereof, for carrying the inner coffin, characterized in that the outer coffin comprises carrying handles that are connected to the frame construction for carrying the outer coffin by persons, and wherein the carrying handles are connected to the frame construction by means of connection means and wherein the support pins are embodied with said connection means.
Stop or lashing shackle having a loop-like or hook-like suspension portion for suspending a stop, lashing or lifting means, and having at least one axle stub (14, 16) for attaching the stop or lashing shackle to a mounting base, wherein the axle stub is retractable in order to lock the stop or lashing shackle to the mounting base, wherein the at least one retractable axle stub, in an operating position, protrudes from the stop or lashing shackle and, in an assembly position, is pushed into the stop or lashing shackle counter to a spring force.
A frame (102; 202; 302; 402; 502; 602; 702) for a prosthetic heart valve, the frame (102; 202; 302; 402; 502; 602; 702) being formed of stainless steel and/or a cobalt-chromium alloy or a nickel-cobalt-chromium alloy or a nickel-cobalt-chromium-molybdenum alloy, and comprising: - an inflow end (103; 203) and an outflow end (105; 205), - an upper row with outflow cells formed by a total of eight struts, the upper row being arranged at the outflow end (105; 205) and comprising: - a first row of angled struts and a second row of angled struts that each are arranged along a circumference of the frame (102; 202; 302; 402; 502; 602; 702), and - axial frame members (130, 132; 230, 232; 330, 332; 430, 432; 530, 532; 630, 632; 730, 732) bridging the first row of angled struts and the second row of angled struts and extending only between the first row of angled struts and the second row of angled struts. - an inflow end (103; 203) and an outflow end (105; 205), - an upper row with outflow cells formed by a total of eight struts, the upper row being arranged at the outflow end (105; 205) and comprising: - a first row of angled struts and a second row of angled struts that each are arranged along a circumference of the frame (102; 202; 302; 402; 502; 602; 702), and - axial frame members (130, 132; 230, 232; 330, 332; 430, 432; 530, 532; 630, 632; 730, 732) bridging the first row of angled struts and the second row of angled struts and extending only between the first row of angled struts and the second row of angled struts. - a first row of angled struts and a second row of angled struts that each are arranged along a circumference of the frame (102; 202; 302; 402; 502; 602; 702), and - axial frame members (130, 132; 230, 232; 330, 332; 430, 432; 530, 532; 630, 632; 730, 732) bridging the first row of angled struts and the second row of angled struts and extending only between the first row of angled struts and the second row of angled struts.
A data processing apparatus for a collision check with respect to a plurality of rays, the data processing apparatus comprising: a control unit configured to generate a plurality of packets with respect to a plurality of rays associated with a first node in a spatial data structure and to group the plurality of rays into the generated packets, wherein plural rays are grouped into each generated packet; a processor configured to sequentially receive the plurality of packets and simultaneously determine which child node of the first node is associated with each of the plurality of rays, grouped in the received packet, associated with the first node; characterised in that the data processing apparatus further comprises: a first buffer memory, which stores the plurality of packets; a second buffer memory, which stores the plurality of rays whose child node is determined and the second buffer memory includes at least two memory structures and the rays having the same child node from among the plurality of rays whose child node is determined is stored in a same memory structure. a control unit configured to generate a plurality of packets with respect to a plurality of rays associated with a first node in a spatial data structure and to group the plurality of rays into the generated packets, wherein plural rays are grouped into each generated packet; a processor configured to sequentially receive the plurality of packets and simultaneously determine which child node of the first node is associated with each of the plurality of rays, grouped in the received packet, associated with the first node; characterised in that the data processing apparatus further comprises: a first buffer memory, which stores the plurality of packets; a second buffer memory, which stores the plurality of rays whose child node is determined and the second buffer memory includes at least two memory structures and the rays having the same child node from among the plurality of rays whose child node is determined is stored in a same memory structure. a first buffer memory, which stores the plurality of packets; a second buffer memory, which stores the plurality of rays whose child node is determined and the second buffer memory includes at least two memory structures and the rays having the same child node from among the plurality of rays whose child node is determined is stored in a same memory structure.
A polyimide film, which has a refractive index of 1.60 or less and a birefringence of 0.10 or less when measured using a prism coupler, an average transmittance of 85% or more at 380 to 780 nm when measured using a UV spectrophotometer for a film thickness of 25 to 100 μ m, and a 50% cut-off wavelength of 400 nm or less when measured using a UV spectrophotometer, wherein the polyimide film is obtained by polymerizing 2,2'-bis(trifluoromethyl)-4,4'-diaminobiphenyl (2,2'-TFDB) and 4,4'-(4,4'-isopropylidenediphenoxy)bis(phthalic anhydride) (HBDA)in presence of a first solvent, thus obtaining a polyamic acid solution, imidizing the polyamic acid solution, adding the imidized solution to a second solvent, performing filtration and drying, thus obtaining a solid polyimide resin, dissolving the solid polyimide resin in the first solvent, thus preparing a polyimide solution, which is then subjected to a film forming process.
A medical device comprising: a capsule endoscope in which a fin portion mounting a magnet having a magnetization direction in an axial direction is provided at a rear end in the axial direction of an endoscope main body, and which can be self-propelled through the inside of a body; and a capsule controller that controls self-propulsion of the capsule endoscope from the outside of the body by generating a static magnetic field whose direction is controlled three-dimensionally and an alternating magnetic field, characterized in that the alternating magnetic field is orthogonal to the static magnetic field and the capsule endoscope is configured such that the capsule endoscope rotates upon receiving the static magnetic field so that the magnetization direction of the magnet is parallel to the direction of the static magnetic field so as to be aligned in a direction identical to the target moving direction and the fin portion vibrates by bending with movement of the magnet in response to the alternating magnetic field being generated simultaneously with and combined with the static magnetic field, whereby propulsive power in the axial direction is generated. a capsule endoscope in which a fin portion mounting a magnet having a magnetization direction in an axial direction is provided at a rear end in the axial direction of an endoscope main body, and which can be self-propelled through the inside of a body; and a capsule controller that controls self-propulsion of the capsule endoscope from the outside of the body by generating a static magnetic field whose direction is controlled three-dimensionally and an alternating magnetic field, characterized in that the alternating magnetic field is orthogonal to the static magnetic field and the capsule endoscope is configured such that the capsule endoscope rotates upon receiving the static magnetic field so that the magnetization direction of the magnet is parallel to the direction of the static magnetic field so as to be aligned in a direction identical to the target moving direction and the fin portion vibrates by bending with movement of the magnet in response to the alternating magnetic field being generated simultaneously with and combined with the static magnetic field, whereby propulsive power in the axial direction is generated.
No-frost refrigeration device, particularly a no-frost domestic refrigeration device having at least one storage chamber (1, 2) for items to be cooled and an evaporator chamber, comprising an evaporator and a ventilator for driving air circulation running through the storage chamber (1; 2) and the evaporator chamber, wherein the evaporator chamber comprises a housing having at least two parts (9, 15), characterised in that the first housing part has, at least locally, a flexible surface, and that a rib formed on the second housing part is pressed in a sealing manner into the flexible surface.
Boundary element for traffic areas, particularly bridges, having a device for connecting the boundary element to a ground, the boundary element comprising a base body, consisting substantially of concrete, with a longitudinal axis in the direction of travel and a supporting surface, the device for connection to the ground having a connection element connected to the base body, a profile element with a longitudinal direction and an anchoring element, the anchoring element, which is used for connection to the ground, being connected to the profile element, and the connection between the profile element and the anchoring element having a spacing from the supporting surface, characterized in that the profile element is connected to the connection element and arranged in such a manner that it is deformed in the event of a collision, so that it is able to absorb a considerable proportion of the energy arising in the event of a collision as deformation energy, for which reason, the longitudinal direction of the profile element extends at an angle (β) of greater than 45° to the longitudinal axis of the base body, and that the profile element is a profile rail with a U- or I-shaped cross section which is open at the bottom in the direction to the ground.
An expansion machine comprising: an expansion mechanism for extracting a power from a working fluid heated by a heater; an electric power generator connected to the expansion mechanism; a sealed container containing the expansion mechanism and the electric power generator; a first inlet for supplying the working fluid to the expansion mechanism; a first outlet for draining the working fluid from the expansion mechanism to an outside of the sealed container; characterized by a second inlet for supplying, to an inside of the sealed container, the working fluid in a gaseous phase state having a lower temperature than that of the working fluid at the first outlet; and a second outlet for draining, to the outside of the sealed container, the working fluid supplied from the second inlet, wherein the working fluid in the gaseous phase state flows from the second inlet through the electric power generator to the second outlet. an expansion mechanism for extracting a power from a working fluid heated by a heater; an electric power generator connected to the expansion mechanism; a sealed container containing the expansion mechanism and the electric power generator; a first inlet for supplying the working fluid to the expansion mechanism; a first outlet for draining the working fluid from the expansion mechanism to an outside of the sealed container; characterized by a second inlet for supplying, to an inside of the sealed container, the working fluid in a gaseous phase state having a lower temperature than that of the working fluid at the first outlet; and a second outlet for draining, to the outside of the sealed container, the working fluid supplied from the second inlet, wherein the working fluid in the gaseous phase state flows from the second inlet through the electric power generator to the second outlet.
Method of coating and embossing in a printing machine wherein - in a first step, a printing material is coated with a first fluid, - in a second step, a relief is embossed into the first fluid on the printing material by means of an embossing die, - in a third step, the first fluid on the printing material is polymerized by UV irradiation to cure the relief, characterized in that a fluid of a viscosity ranging between 40 and 100 pascal-seconds is used as the first fluid. - in a first step, a printing material is coated with a first fluid, - in a second step, a relief is embossed into the first fluid on the printing material by means of an embossing die, - in a third step, the first fluid on the printing material is polymerized by UV irradiation to cure the relief,
A computing device, comprising: a housing for enclosing various internal components associated with the operation of the computing device, the housing including: a clear outer bezel; and an inner bezel, wherein the inner bezel cooperates with the clear outer bezel to form the housing, the inner bezel having a thicker portion being opaque and a light receiving recess that forms a reduced thickness portion in a wall of the housing, the reduced thickness portion being translucent; and an indicator assembly for indicating events associated with the computing device, wherein the indicator assembly includes a light source disposed behind the housing, the light source being configured to illuminate the reduced thickness portion in order to form an indicator image at the outer surface of the inner bezel, the shape of the recess producing an indicator image of similar shape on the outer surface of the inner bezel, the indicator assembly being configured to produce the indicator image at an outer surface of the housing when activated, and to eliminate the indicator image from the outer surface of the housing when deactivated; and an illuminable plug (842, 862) that is positioned within the recess, the illuminable plug (842, 862) directing the light from the light source to the reduced thickness portion. a clear outer bezel; and an inner bezel, wherein the inner bezel cooperates with the clear outer bezel to form the housing, the inner bezel having a thicker portion being opaque and a light receiving recess that forms a reduced thickness portion in a wall of the housing, the reduced thickness portion being translucent; and an indicator assembly for indicating events associated with the computing device, wherein the indicator assembly includes a light source disposed behind the housing, the light source being configured to illuminate the reduced thickness portion in order to form an indicator image at the outer surface of the inner bezel, the shape of the recess producing an indicator image of similar shape on the outer surface of the inner bezel, the indicator assembly being configured to produce the indicator image at an outer surface of the housing when activated, and to eliminate the indicator image from the outer surface of the housing when deactivated; and an illuminable plug (842, 862) that is positioned within the recess, the illuminable plug (842, 862) directing the light from the light source to the reduced thickness portion.