mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication, comprising: receiving , by a user equipment, UE, control signals including at least a transmission priority used by a serving base station to secure a current transmission opportunity, TxOP, of the serving base station; identifying , by the UE, uplink data having at least the transmission priority indicated in the control signals; and autonomously transmitting , by the UE, the uplink data within a configured autonomous uplink, AUL, resource of the current TxOP. receiving , by a user equipment, UE, control signals including at least a transmission priority used by a serving base station to secure a current transmission opportunity, TxOP, of the serving base station; identifying , by the UE, uplink data having at least the transmission priority indicated in the control signals; and autonomously transmitting , by the UE, the uplink data within a configured autonomous uplink, AUL, resource of the current TxOP.
Method for treatment a medical device made from a NiTi alloy, such as stent or the like, comprising: • Mounting said device made from NiTi alloys into a reaction chamber; • Evacuating said reaction chamber to achieve pressure below atmospheric pressure, preferably in a range between about 0.1 Pa to about 1 Pa; • Leaking hydrogen gas into said reaction chamber during continuous pumping of said reaction chamber so that the pressure in the said reaction chamber is between 1 and 100 000 Pa, preferably between 10 and 1000 Pa; • Establishing an electrical discharge in the said reaction chamber filled with said hydrogen; • Reacting said device made from NiTi alloys with gaseous particles created in hydrogen upon excitation of said hydrogen molecules by said electrical discharge until the native oxide is eliminated; • Introducing neutral oxygen atoms into said reaction chamber; • Simultaneously reacting said device made from NiTi alloys with said neutral oxygen atoms in said reaction chamber and with gaseous particles created in hydrogen upon excitation of said hydrogen by said electrical discharge until a titanium oxide film is established on the surface of said device made from NiTi alloys; and • Turning off said electrical discharge in said treatment chamber, closing inlet of said gases and venting said treatment chamber with essentially dry air. • Mounting said device made from NiTi alloys into a reaction chamber; • Evacuating said reaction chamber to achieve pressure below atmospheric pressure, preferably in a range between about 0.1 Pa to about 1 Pa; • Leaking hydrogen gas into said reaction chamber during continuous pumping of said reaction chamber so that the pressure in the said reaction chamber is between 1 and 100 000 Pa, preferably between 10 and 1000 Pa; • Establishing an electrical discharge in the said reaction chamber filled with said hydrogen; • Reacting said device made from NiTi alloys with gaseous particles created in hydrogen upon excitation of said hydrogen molecules by said electrical discharge until the native oxide is eliminated; • Introducing neutral oxygen atoms into said reaction chamber; • Simultaneously reacting said device made from NiTi alloys with said neutral oxygen atoms in said reaction chamber and with gaseous particles created in hydrogen upon excitation of said hydrogen by said electrical discharge until a titanium oxide film is established on the surface of said device made from NiTi alloys; and • Turning off said electrical discharge in said treatment chamber, closing inlet of said gases and venting said treatment chamber with essentially dry air.
Apparatus comprising: a signal processor or processing module being configured at least to: receive signaling containing information about a sensed differential pressure (dP) across a valve in an open position and system characteristics calibration data plotted as a discrete distribution function of a valve flow rate with respect to a differential pressure across the valve at a given open position; and determine corresponding signaling containing information to open and close the valve and control a discrete valve flow rate (Q) of the valve , based upon the signaling received and wherein the signal processor or processing module is configured in, or forms part of, a 3-dimensional discrete valve flow rate converter that responds to associated signaling containing information about both a given sensed differential pressure (dP) across the valve and a given valve open position (d) of the valve , and provides the discrete valve flow rate (Q) by utilizing the discrete distribution function to reconstruct the discrete value flow rate (Q) in terms of the differential pressure (dP) and the given valve open position (d), based upon the system characteristic calibration data and numerical interpolations using the Equation: g Q dP d = 0 , where (g) is the discrete distribution function of the discrete valve flow rate (Q) with respect to the differential pressure (dP) across the valve with the given open position (d). receive signaling containing information about a sensed differential pressure (dP) across a valve in an open position and system characteristics calibration data plotted as a discrete distribution function of a valve flow rate with respect to a differential pressure across the valve at a given open position; and determine corresponding signaling containing information to open and close the valve and control a discrete valve flow rate (Q) of the valve , based upon the signaling received and wherein the signal processor or processing module is configured in, or forms part of, a 3-dimensional discrete valve flow rate converter that responds to associated signaling containing information about both a given sensed differential pressure (dP) across the valve and a given valve open position (d) of the valve , and provides the discrete valve flow rate (Q) by utilizing the discrete distribution function to reconstruct the discrete value flow rate (Q) in terms of the differential pressure (dP) and the given valve open position (d), based upon the system characteristic calibration data and numerical interpolations using the Equation: g Q dP d = 0 , where (g) is the discrete distribution function of the discrete valve flow rate (Q) with respect to the differential pressure (dP) across the valve with the given open position (d).
An arrangement for conditioning moist exhaust air, characterized in that the arrangement comprises a heat exchanger unit , a washing unit and an air mixing chamber , the heat exchanger unit configured to transfer heat between the moist exhaust air and a supplementary air comprises an inlet and an outlet for the moist exhaust air and an inlet and outlet for the supplementary air, the outlet for the moist exhaust air is connected to the washing unit configured to clean the moist exhaust air , the washing unit comprises an outlet for the washed moist exhaust air connected to an inlet of the air mixing chamber , the air mixing chamber comprises at least two compartments (13a-e) connected to the inlet of the air mixing chamber , and the compartments (13a-e) comprise inlets (14a-e) connected to the outlet of the supplementary air , and the compartments (13a-e) comprise outlets (15a-e) for the mixture of the washed moist exhaust air and the supplementary air (16a-e), the arrangement being configured such that the mixing ratio of the washed moist exhaust air and the supplementary air differs in adjacent compartments (13a-e), and the arrangement comprises a control system comprising humidity measuring devices and temperature measuring devices , and the control system is configured to control a fan configured to pressurize the supplementary air based on measurement results obtained from the humidity measuring devices and the temperature measuring devices located at the outlets of the compartments (15a-e).
C 2 C 3 random copolymer composition comprising (A) 70.0 to 99.9 wt% of a C 2 C 3 random copolymer having (a) an ethylene content in the range of from 2.0 to 4.5 wt%; (b) a melt flow rate MFR 2 (230°C/2.16kg) measured according to ISO 1133 in the range of from 4.0 to 12.0 g/10min; (c) a melting temperature Tm as determined by DSC according to ISO 11357 of from 120 to 135°C; (d) a xylene cold soluble (XCS) fraction in the range of from 1.5 to 8.0 wt% (B) 0.0 to 30.0 wt% of an ethylene-α-olefin plastomer having a density in the range of from 860 to 900 kg/m 3 and an MFR 2 (190°C/2.16kg) measured according to ISO 1133 in the range of 0.5 to 50.0 g/10min and (C) one or more additives in a total amount of from 0.1 up to 5.0 wt%, based on the composition, selected from the group comprising slip agents, anti-block agents, UV stabilizers, antistatic agents, alpha-nucleating agents and antioxidants. (A) 70.0 to 99.9 wt% of a C 2 C 3 random copolymer having (a) an ethylene content in the range of from 2.0 to 4.5 wt%; (b) a melt flow rate MFR 2 (230°C/2.16kg) measured according to ISO 1133 in the range of from 4.0 to 12.0 g/10min; (c) a melting temperature Tm as determined by DSC according to ISO 11357 of from 120 to 135°C; (d) a xylene cold soluble (XCS) fraction in the range of from 1.5 to 8.0 wt% (a) an ethylene content in the range of from 2.0 to 4.5 wt%; (b) a melt flow rate MFR 2 (230°C/2.16kg) measured according to ISO 1133 in the range of from 4.0 to 12.0 g/10min; (c) a melting temperature Tm as determined by DSC according to ISO 11357 of from 120 to 135°C; (d) a xylene cold soluble (XCS) fraction in the range of from 1.5 to 8.0 wt% (B) 0.0 to 30.0 wt% of an ethylene-α-olefin plastomer having a density in the range of from 860 to 900 kg/m 3 and an MFR 2 (190°C/2.16kg) measured according to ISO 1133 in the range of 0.5 to 50.0 g/10min and (C) one or more additives in a total amount of from 0.1 up to 5.0 wt%, based on the composition, selected from the group comprising slip agents, anti-block agents, UV stabilizers, antistatic agents, alpha-nucleating agents and antioxidants.
A hammer assembly comprising: a hammer housing ; a work tool movably supported in the hammer housing; a gas chamber defined in the hammer housing and containing a compressible gas; an accumulator assembly including an interior space , a barrier dividing the interior space into a first interior portion containing a compressible gas and a second interior portion configured to receive a pressurized fluid, the barrier being configured to be movable in response to changing the amount of pressurized fluid in the second interior portion and such that movement of the barrier varies the volume of the first interior portion, the first interior portion being in communication with the gas chamber ; a control valve assembly configured for selectively placing the second interior portion of the accumulator assembly in communication with a pressurized fluid source; and a piston movably disposed in the housing, the piston being movable in a first direction away from the work tool to thereby compress the compressible gas in the gas chamber and in the first interior portion of the accumulator assembly producing a biasing force on the piston acting in a second direction towards the work tool , the piston being movable in the second direction, at least in part, in response to the biasing force wherein the control valve assembly is configured for selectively placing the second interior portion of the accumulator assembly in communication with a low pressure source . a hammer housing ; a work tool movably supported in the hammer housing; a gas chamber defined in the hammer housing and containing a compressible gas; an accumulator assembly including an interior space , a barrier dividing the interior space into a first interior portion containing a compressible gas and a second interior portion configured to receive a pressurized fluid, the barrier being configured to be movable in response to changing the amount of pressurized fluid in the second interior portion and such that movement of the barrier varies the volume of the first interior portion, the first interior portion being in communication with the gas chamber ; a control valve assembly configured for selectively placing the second interior portion of the accumulator assembly in communication with a pressurized fluid source; and a piston movably disposed in the housing, the piston being movable in a first direction away from the work tool to thereby compress the compressible gas in the gas chamber and in the first interior portion of the accumulator assembly producing a biasing force on the piston acting in a second direction towards the work tool , the piston being movable in the second direction, at least in part, in response to the biasing force wherein the control valve assembly is configured for selectively placing the second interior portion of the accumulator assembly in communication with a low pressure source .
A cutting system for cutting around undesired objects within food products while the food products are conveyed by a conveyor means , comprising: • an arc-shaped system , • a cutting means adapted to be connected to said arc-shaped system, said arc-shaped system being adapted to be positioned above the conveyor surface on which said food products are resting during said cutting such that the center of said arc-shaped system is substantially at or around said conveyor surface, and • a control unit for operating the position of said cutting means within said arc-shaped system based on image data , a moving mechanism connected to said arc-shaped system for moving said arc-shaped system across said conveyor and perpendicular to the conveying direction of said food products wherein said image data is further utilized in operating the position of said arc-shaped system during cutting. • an arc-shaped system , • a cutting means adapted to be connected to said arc-shaped system, said arc-shaped system being adapted to be positioned above the conveyor surface on which said food products are resting during said cutting such that the center of said arc-shaped system is substantially at or around said conveyor surface, and • a control unit for operating the position of said cutting means within said arc-shaped system based on image data ,
A grinding apparatus for performing a grinding process on an inner circumferential surface of a workpiece , which is a ring-shaped member, the grinding apparatus comprising: a grinding stone disposable at an inner diameter side of the workpiece , wherein an outer circumferential surface thereof is configured to be pressed against the inner circumferential surface of the workpiece while being rotated and driven; and a fluid injection apparatus that is configured for injecting a fluid with respect to the outer circumferential surface of the grinding stone , wherein the fluid injection apparatus has a fluid injection nozzle including a plurality of injection ports that are formed in a state separated with each other in an axial direction of the workpiece , and each of the injection ports are arranged so as to face the outer circumferential surface of the grinding stone in a state capable of injecting the fluid to a position which is at an opposite side in a radial direction of the grinding stone with respect to a processing point which is an abutting section of the grinding stone and the work piece , among the outer circumferential surface of the grinding stone , characterized by a supply apparatus that is configured to supply a grinding oil to the processing point and that includes a supply nozzle separate from the fluid injection nozzle .
Bullet for a firearm comprising a solid body extended along a longitudinal axis (X) and made of copper or an alloy thereof or of tin or an alloy thereof, the body comprising a tapered front section and a guide section connected to the tapered front section , the guide section having a plurality of circumferential projections which are alternated with circumferential grooves , said projections having a front portion and a rear portion which have both a curved profile and are both bevelled, characterized in that said curved-profile front portion has a radius of curvature (R1) which is greater than the radius of curvature (R2) of said curved-profile rear portion .
A peptide of 23 or less amino acids comprising the amino acid sequence LHRLKRLRKRLK (SEQ ID NO: 9) for use in immunostimulation in a mammal.
A bioresorbable implant for supplementing or replacing hard tissue and/or soft tissue, comprising at least one reinforcing fiber which is made from a first material component and which, after being mixed with a second material component, is embedded in a matrix , wherein the material of the first material component contains at least one of the elements of the group consisting of silk, chitosan, collagen, polycaprolactone, poly(D,L-lactide), poly(lactide-co-glycolide), polyglycolide, polyurethane and polypropylene, characterized in that the second material component is present in granular or powdery form at the point in time at which the material component is mixed with the at least one reinforcing fiber , wherein the entirety of fibers contains at least two of the elements of the group consisting of silk, chitosan, collagen, polycaprolactone, poly(D,L-lactide), poly(lactide-co-glycolide), polyglycolide, polyurethane and polypropylene.
A biostimulator transport system , comprising: an outer catheter having a distal catheter end and an inner lumen ; a torque shaft extending through the inner lumen to a distal shaft end located distal to the distal catheter end ; a docking cap mounted on the distal shaft end ; and a bearing , characterized by : a bearing housing mounted on the distal catheter end , wherein the bearing housing includes an outer bearing retainer , wherein the docking cap includes an inner bearing retainer ; and the bearing is radially between the bearing housing and the docking cap , wherein the bearing includes an outer wall located proximal to the outer bearing retainer and an inner wall located distal to the inner bearing retainer . an outer catheter having a distal catheter end and an inner lumen ; a torque shaft extending through the inner lumen to a distal shaft end located distal to the distal catheter end ; a docking cap mounted on the distal shaft end ; and a bearing , characterized by : a bearing housing mounted on the distal catheter end , wherein the bearing housing includes an outer bearing retainer , wherein the docking cap includes an inner bearing retainer ; and the bearing is radially between the bearing housing and the docking cap , wherein the bearing includes an outer wall located proximal to the outer bearing retainer and an inner wall located distal to the inner bearing retainer . a bearing housing mounted on the distal catheter end , wherein the bearing housing includes an outer bearing retainer , wherein the docking cap includes an inner bearing retainer ; and the bearing is radially between the bearing housing and the docking cap , wherein the bearing includes an outer wall located proximal to the outer bearing retainer and an inner wall located distal to the inner bearing retainer .
Combustion chamber assembly unit for a fuel-operated vehicle heater, comprising a combustion chamber housing elongated in the direction of a housing longitudinal axis (L) with a combustion chamber circumferential wall defining a combustion chamber radially outwards and with a combustion chamber bottom axially defining the combustion chamber as well as a combustion air feed volume open to the combustion chamber via a plurality of passage openings , wherein the combustion chamber bottom comprises a porous evaporator medium and a fuel feed line guiding liquid fuel to the porous evaporator medium , characterized in that the combustion chamber assembly further comprises a cooling medium feed device adapted for feeding liquid cooling medium to the combustion air feed volume for introducing the liquid cooling medium into the combustion air guided to the combustion chamber .
Tool for a machine tool , in particular for a press, which has an upper frame part and a lower frame part , which can be arranged in the machine tool relatively movable to each other, wherein on the upper frame part a upper module part and on the lower frame part a lower module part of the tool is attached releasably, wherein the tool has at least one centering device (50; 50a-50f), wherein the centering device (50; 50a-50f) comprises a first centering unit and a third centering unit , so that by means of the first centering unit the lower module part can be positioned relative to the lower frame part and by means of the third centering unit the module upper part can be positioned relative to the upper frame part , and wherein the first centering unit comprises a first centering element , which is provided in the lower frame part , and a second centering element (51a"), which is provided in the lower module part , and wherein the third centering unit comprises a first centering element , which is provided in the upper frame part , and a second centering element (51c"), which is provided in the upper module part , characterized in that the centering device comprises a second centering unit , that by means of the second centering unit the lower module part can be positioned relative to the upper module part and that said second centering unit comprises a first centering element , which can be arranged in the lower module part , and a second centering element (51 b"), which can be arranged in the upper module part , and a third centering element (51b"'), which can be arranged between the two aforesaid centering elements (51b', 51b").
A method, performed by a terminal (1h-01) in a wireless communication system, the method comprising: transmitting (1h-10), to a first cell (1h-02), capability information of the terminal comprising information on whether the terminal supports a plurality of cell reselection priorities, CRPs,; receiving (1h-15), from the first cell, a radio resource control, RRC, connection release message comprising an alternativeCRPindication parameter indicating to apply CRP broadcast in system information; transitioning to an RRC idle mode or an RRC inactive mode based on the RRC connection release message, and camping on a second cell; receiving (1h-25), from the second cell, system information including a first CRP and a second CRP; and based on the altemativeCRPindication parameter and the system information, applying (1h-30) the second CRP for evolved universal mobile telecommunications system, UMTS, terrestrial radio access network, EUTRAN, frequency. transmitting (1h-10), to a first cell (1h-02), capability information of the terminal comprising information on whether the terminal supports a plurality of cell reselection priorities, CRPs,; receiving (1h-15), from the first cell, a radio resource control, RRC, connection release message comprising an alternativeCRPindication parameter indicating to apply CRP broadcast in system information; transitioning to an RRC idle mode or an RRC inactive mode based on the RRC connection release message, and camping on a second cell; receiving (1h-25), from the second cell, system information including a first CRP and a second CRP; and based on the altemativeCRPindication parameter and the system information, applying (1h-30) the second CRP for evolved universal mobile telecommunications system, UMTS, terrestrial radio access network, EUTRAN, frequency.