mhurhangee/ep-ind-claims huggingface dataset:
A method of a User Equipment, in the following also referred to as UE, for performing sidelink transmission, comprising: transmitting a first Packet Data Convergence Protocol, in the following also referred to as PDCP, Protocol Data Unit, in the following also referred to as PDU, corresponding to a first PDCP Service Data Unit, in the following also referred to as SDU, and a duplicate of the first PDCP PDU if sidelink packet duplication is configured or enabled for a Sidelink Radio Bearer, in the following also referred to as SLRB, wherein a first PDCP Sequence Number, in the following also referred to as SN, of the first PDCP PDU is set based upon one or more state variables used for sidelink transmission on the SLRB; and transmitting a second PDCP PDU corresponding to a second PDCP SDU if the sidelink packet duplication is de-configured or disabled for the SLRB, wherein a second PDCP SN of the second PDCP PDU is set based upon the one or more state variables used for sidelink transmission on the SLRB and no duplicate of the second PDCP PDU is transmitted, characterized by further comprising: maintaining the one or more state variables used for sidelink transmission on the SLRB if the sidelink packet duplication is de-configured or disabled for the SLRB. transmitting a first Packet Data Convergence Protocol, in the following also referred to as PDCP, Protocol Data Unit, in the following also referred to as PDU, corresponding to a first PDCP Service Data Unit, in the following also referred to as SDU, and a duplicate of the first PDCP PDU if sidelink packet duplication is configured or enabled for a Sidelink Radio Bearer, in the following also referred to as SLRB, wherein a first PDCP Sequence Number, in the following also referred to as SN, of the first PDCP PDU is set based upon one or more state variables used for sidelink transmission on the SLRB; and transmitting a second PDCP PDU corresponding to a second PDCP SDU if the sidelink packet duplication is de-configured or disabled for the SLRB, wherein a second PDCP SN of the second PDCP PDU is set based upon the one or more state variables used for sidelink transmission on the SLRB and no duplicate of the second PDCP PDU is transmitted, characterized by further comprising: maintaining the one or more state variables used for sidelink transmission on the SLRB if the sidelink packet duplication is de-configured or disabled for the SLRB.
A method comprising: providing a treatment fluid comprising a fracturing fluid comprising: an aqueous base fluid, a first surfactant having a charge, a second surfactant having an opposite charge, and a compatibilizer comprising a non-ionic surfactant or an amphoteric surfactant; and introducing the treatment fluid into at least a portion of the subterranean formation, wherein the fracturing fluid is introduced into at least a portion of a subterranean formation at a rate and pressure sufficient to create or enhance at least one or more fractures in the subterranean formation. providing a treatment fluid comprising a fracturing fluid comprising: an aqueous base fluid, a first surfactant having a charge, a second surfactant having an opposite charge, and a compatibilizer comprising a non-ionic surfactant or an amphoteric surfactant; and an aqueous base fluid, a first surfactant having a charge, a second surfactant having an opposite charge, and a compatibilizer comprising a non-ionic surfactant or an amphoteric surfactant; and introducing the treatment fluid into at least a portion of the subterranean formation, wherein the fracturing fluid is introduced into at least a portion of a subterranean formation at a rate and pressure sufficient to create or enhance at least one or more fractures in the subterranean formation.
A method for making pasta filata cheese comprising (a) manipulating cheese curd to create a uniform heating profile, wherein the manipulating of the cheese curd comprises using an auger; (b) heating said cheese curd of step (a) with electromagnetic energy; characterized by applying the electromagnetic energy so that the amount of water removed from the cheese curd during heating is less than 5%, and using a 3D sensor to determine if the cheese curd has a uniform heating profile prior to heating. (a) manipulating cheese curd to create a uniform heating profile, wherein the manipulating of the cheese curd comprises using an auger; (b) heating said cheese curd of step (a) with electromagnetic energy; applying the electromagnetic energy so that the amount of water removed from the cheese curd during heating is less than 5%, and using a 3D sensor to determine if the cheese curd has a uniform heating profile prior to heating.
A system for stimulating a dorsal root ganglion comprising: a lead having a lead body configured for advancement to the dorsal root ganglion using an antegrade or retrograde epidural approach and a plurality of electrodes disposed along the lead body; and a coiled retention feature disposed along the lead body proximal to the electrodes, the coiled retention feature being configured to assist in atraumatically anchoring the lead to tissue near a dorsal root ganglion by frictional forces when the lead is positioned along the spinal column and the electrodes are positioned near the dorsal root ganglion, wherein the coiled retention feature comprises an unexpandable coil wrapped around a section of the lead body that is passable through a needle; and wherein the coiled retention feature is configured to promote tissue in-growth. a lead having a lead body configured for advancement to the dorsal root ganglion using an antegrade or retrograde epidural approach and a plurality of electrodes disposed along the lead body; and a coiled retention feature disposed along the lead body proximal to the electrodes, the coiled retention feature being configured to assist in atraumatically anchoring the lead to tissue near a dorsal root ganglion by frictional forces when the lead is positioned along the spinal column and the electrodes are positioned near the dorsal root ganglion, wherein the coiled retention feature comprises an unexpandable coil wrapped around a section of the lead body that is passable through a needle; and wherein the coiled retention feature is configured to promote tissue in-growth.
An adhesive applicator, wherein the adhesive is a curable liquid adhesive composition, the applicator comprising: a receiver body for holding the curable liquid adhesive composition during use, a discharge tip having a longitudinal axis and further having a distal end remote from the receiver body from which the curable liquid adhesive composition is discharged during use, and a discharge mechanism for transferring curable liquid adhesive composition held by the applicator to the tip for discharge of the composition during use, wherein: the tip comprises an outlet section having a plurality of groove formations extending along the tip to the distal end thereof; the plurality of groove formations have a longitudinal axis parallel to the longitudinal axis of the tip; and said groove formations have their longitudinal axis equiangularly spaced around the longitudinal axis of the tip; characterised in that the plurality of groove formations are arcuate in transverse cross-section and are formed in an interior wall of a bore extending through the tip to the distal end thereof. a receiver body for holding the curable liquid adhesive composition during use, a discharge tip having a longitudinal axis and further having a distal end remote from the receiver body from which the curable liquid adhesive composition is discharged during use, and a discharge mechanism for transferring curable liquid adhesive composition held by the applicator to the tip for discharge of the composition during use, wherein: the tip comprises an outlet section having a plurality of groove formations extending along the tip to the distal end thereof; the plurality of groove formations have a longitudinal axis parallel to the longitudinal axis of the tip; and said groove formations have their longitudinal axis equiangularly spaced around the longitudinal axis of the tip; characterised in that the plurality of groove formations are arcuate in transverse cross-section and are formed in an interior wall of a bore extending through the tip to the distal end thereof. the tip comprises an outlet section having a plurality of groove formations extending along the tip to the distal end thereof; the plurality of groove formations have a longitudinal axis parallel to the longitudinal axis of the tip; and said groove formations have their longitudinal axis equiangularly spaced around the longitudinal axis of the tip; characterised in that the plurality of groove formations are arcuate in transverse cross-section and are formed in an interior wall of a bore extending through the tip to the distal end thereof.
Method for disengaging a fastening magnet of a detachable sidewall unit from a casting bed by a side robot, the sidewall unit comprising a fastening magnet and a structure surrounding the fastening magnet in which method the magnet operating means extending from the top surface of the structure surrounding the fastening magnet are gripped by the grip means (3, 4; 3', 4') of the grip unit (2; 2'), characterized in that in the method, the grip unit (2; 2') of the side robot is supported against the structure surrounding the fastening magnet, whereafter the grip means (3, 4; 3', 4') of the grip unit are moved in relation to the grip unit in order to disengage the fastening magnet from the casting bed.
Electronic device comprising anode, cathode, and at least one emitting layer, where the emitting layer comprises at least one dopant D, at least one matrix material M1 and at least one matrix material M2, where D, M1 and M2 are selected differently and where M1 is selected from monotriarylamines and M2 is selected from compounds containing at least one anthracene unit or from compounds containing at least one pyrene unit, and where M1 does not contain a condensed aryl group having more than 10 aromatic ring atoms.
A system for transmitting broadcast and multicast content, comprising: a destination station comprising a decoder; a first source of a particular content that transmits first outer blocks (95A, 95B) over a common channel for receipt by the destination station using a first data transfer mode, wherein the first outer blocks include information blocks and parity blocks that can be used to reconstruct the information blocks, wherein the first source further comprises means for generating parity blocks in a protocol layer above a radio link control layer, and a second source of the particular content that transmits second outer blocks comprising the information blocks over a dedicated channel for receipt by the destination station using a second data transfer mode when the destination station undergoes a transition from the first data transfer mode to the second data transfer mode, wherein the second outer blocks are time-shifted with respect to the first outer blocks, and wherein the decoder is configured to reconstruct any information blocks lost during the transition using the parity blocks. a destination station comprising a decoder; a first source of a particular content that transmits first outer blocks (95A, 95B) over a common channel for receipt by the destination station using a first data transfer mode, wherein the first outer blocks include information blocks and parity blocks that can be used to reconstruct the information blocks, wherein the first source further comprises means for generating parity blocks in a protocol layer above a radio link control layer, and a second source of the particular content that transmits second outer blocks comprising the information blocks over a dedicated channel for receipt by the destination station using a second data transfer mode when the destination station undergoes a transition from the first data transfer mode to the second data transfer mode, wherein the second outer blocks are time-shifted with respect to the first outer blocks, and wherein the decoder is configured to reconstruct any information blocks lost during the transition using the parity blocks.
A process for producing a high molecular-weight aromatic polycarbonate resin, the process comprising: mixing a dialcohol compound represented by the following Formula with a first catalyst to obtain a catalyst composition; mixing the obtained catalyst composition with an aromatic polycarbonate prepolymer to obtain a prepolymer mixture; and obtaining a high molecular-weight aromatic polycarbonate by subjecting the obtained prepolymer mixture to heating treatment under reduced pressure conditions: wherein, in Formula, R 1 to R 4 each independently represent a hydrogen atom, a halogen atom, or a linear or branched alkyl group having 1 to 5 carbon atoms; and Q represents a divalent group comprising at least one member selected from the group consisting of an aliphatic hydrocarbon group, an aromatic hydrocarbon group, an oxygen atom, a sulfur atom, a sulfonic group, a sulfoxide group, a carbonyl group, a dialkylsilyl group, and a diarylsilyl group and optionally having a substituent, or a single bond, wherein the catalyst composition has been subjected to dehydration treatment or devolatilization treatment and wherein the weight average molecular weight (Mw) of the high molecular-weight aromatic polycarbonate resin, determined as indicated in the description, is 35,000 to 100,000. mixing a dialcohol compound represented by the following Formula with a first catalyst to obtain a catalyst composition; mixing the obtained catalyst composition with an aromatic polycarbonate prepolymer to obtain a prepolymer mixture; and obtaining a high molecular-weight aromatic polycarbonate by subjecting the obtained prepolymer mixture to heating treatment under reduced pressure conditions: wherein, in Formula, R 1 to R 4 each independently represent a hydrogen atom, a halogen atom, or a linear or branched alkyl group having 1 to 5 carbon atoms; and Q represents a divalent group comprising at least one member selected from the group consisting of an aliphatic hydrocarbon group, an aromatic hydrocarbon group, an oxygen atom, a sulfur atom, a sulfonic group, a sulfoxide group, a carbonyl group, a dialkylsilyl group, and a diarylsilyl group and optionally having a substituent, or a single bond, wherein the catalyst composition has been subjected to dehydration treatment or devolatilization treatment and wherein the weight average molecular weight (Mw) of the high molecular-weight aromatic polycarbonate resin, determined as indicated in the description, is 35,000 to 100,000.
A thermoplastic resin composition consisting essentially of: 100 parts by weight of a polycarbonate resin; 4 parts by weight to 20 parts by weight of a core-shell structured rubber-modified vinyl graft copolymer; 4 parts by weight to 25 parts by weight of zinc borate; 3 parts by weight to 25 parts by weight of bisphenol-A bis(diphenyl phosphate); 2 parts by weight to 20 parts by weight of biphenol bis(diphenyl phosphate); and 10 parts by weight to 42 parts by weight of flake-shaped inorganic fillers, wherein the thermoplastic resin composition has a maximum average rate of heat emission (MARHE) of 30 kW/m 2 to 95 kW/m 2, as measured on a specimen having a size of 100 mm x 100 mm x 2 to 4 mm at a heat quantity of 50 kW/m 2 in accordance with ISO 5660-1. 100 parts by weight of a polycarbonate resin; 4 parts by weight to 20 parts by weight of a core-shell structured rubber-modified vinyl graft copolymer; 4 parts by weight to 25 parts by weight of zinc borate; 3 parts by weight to 25 parts by weight of bisphenol-A bis(diphenyl phosphate); 2 parts by weight to 20 parts by weight of biphenol bis(diphenyl phosphate); and 10 parts by weight to 42 parts by weight of flake-shaped inorganic fillers, wherein the thermoplastic resin composition has a maximum average rate of heat emission (MARHE) of 30 kW/m 2 to 95 kW/m 2, as measured on a specimen having a size of 100 mm x 100 mm x 2 to 4 mm at a heat quantity of 50 kW/m 2 in accordance with ISO 5660-1.
A method of synthesizing 2-(3-{1-carboxy-5-[(6-[ 18 F]fluoro-pyridine-3-carbonyl)-amino]-pentyl}-ureido)-pentanedioic acid ([ 18 F]DCFPyL), the method comprising: (i) radiofluorinating a DCFPyL precursor comprising ester moiety protecting groups to form a radiofluorinated DCPFPyL precursor, wherein the precursor is (compound); (ii) deprotecting the ester moiety protecting groups of the radiofluorinated DCPFPyL precursor of step (i) with phosphoric acid to form [ 18 F]DCFPyL in a reaction mixture, wherein steps (i) and (ii) are optionally performed in one reactor; and (iii) purifying the [ 18 F]DCFPyL from the reaction mixture of step (ii) to provide [ 18 F]DCFPyL. (i) radiofluorinating a DCFPyL precursor comprising ester moiety protecting groups to form a radiofluorinated DCPFPyL precursor, wherein the precursor is (compound); (ii) deprotecting the ester moiety protecting groups of the radiofluorinated DCPFPyL precursor of step (i) with phosphoric acid to form [ 18 F]DCFPyL in a reaction mixture, wherein steps (i) and (ii) are optionally performed in one reactor; and (iii) purifying the [ 18 F]DCFPyL from the reaction mixture of step (ii) to provide [ 18 F]DCFPyL.
Vehicle body (1, 1') for a rail vehicle comprising a control panel, in particular an auxiliary control panel, for controlling the rail vehicle, and a control panel receptacle, wherein the control panel comprises an arrangement of control elements, wherein the control panel is repositionable from a rest position into an operating position, the control panel being arranged in the control panel receptacle in a rest position and being arranged at least partly outside the control panel receptacle in the operating position in such a way that the control elements are accessible for operation, characterized in that the control panel receptacle is arranged in a side wall of an end wall paneling of the carriage body (1, 1') of the rail vehicle, and the control panel is arranged outside a clearance of a passageway (12, 12') for people in the rest position and in particular is pivotable from the operating position out of the clearance into the rest position. wherein the control panel is repositionable from a rest position into an operating position, the control panel being arranged in the control panel receptacle in a rest position and being arranged at least partly outside the control panel receptacle in the operating position in such a way that the control elements are accessible for operation, characterized in that
A membrane-based air separation module comprising: an inlet configured to receive supply air; a first hollow fiber membrane configured to be permeable to oxygen and to substantially remove water from the supply air to form an anhydrous air stream; a permeate port configured to exhaust the water and oxygen removed by the first hollow fiber membrane from the air separation module; a second hollow fiber membrane positioned downstream of the first hollow fiber membrane configured to receive the anhydrous air stream and substantially remove oxygen from the anhydrous air stream; an oxygen-enriched air outlet configured to exhaust the oxygen removed by the second hollow fiber membrane from the air separation module; and a nitrogen-enriched air outlet configured to supply a stream of nitrogen-enriched air to a fuel tank of an aircraft; and a series of flow control valves positioned between the inlet and the first hollow fiber membrane and between the first hollow fiber membrane and the second hollow fiber membrane to divert supply air directly to the second hollow fiber membrane while the aircraft is in flight, and further comprising a plurality of flow lines configured to direct supply air through the first hollow fiber membrane and the second hollow fiber membrane in parallel when demand for nitrogen-enriched air is high. an inlet configured to receive supply air; a first hollow fiber membrane configured to be permeable to oxygen and to substantially remove water from the supply air to form an anhydrous air stream; a permeate port configured to exhaust the water and oxygen removed by the first hollow fiber membrane from the air separation module; a second hollow fiber membrane positioned downstream of the first hollow fiber membrane configured to receive the anhydrous air stream and substantially remove oxygen from the anhydrous air stream; an oxygen-enriched air outlet configured to exhaust the oxygen removed by the second hollow fiber membrane from the air separation module; and a nitrogen-enriched air outlet configured to supply a stream of nitrogen-enriched air to a fuel tank of an aircraft; and a series of flow control valves positioned between the inlet and the first hollow fiber membrane and between the first hollow fiber membrane and the second hollow fiber membrane to divert supply air directly to the second hollow fiber membrane while the aircraft is in flight, and further comprising a plurality of flow lines configured to direct supply air through the first hollow fiber membrane and the second hollow fiber membrane in parallel when demand for nitrogen-enriched air is high.
A bipolar sphincterotome configured to perform an electrosurgical procedure at a treatment site within a patient, the sphincterotome comprising: an elongate tubular member longitudinally extending from a proximal portion to a distal portion, the tubular member comprising: a body; a cutting wire lumen longitudinally extending in the body; and a recess extending in the body at the distal portion; an active path configured for delivery of electrical current generated from a power source to the distal portion, wherein the active path comprises an exposed active portion disposed outside of the tubular member to contact tissue at the treatment site; and a return path for return of the electrical current from the distal portion to the power source, wherein the return path comprises a return electrode disposed in the recess at the distal portion; wherein the active path comprises a cutting wire movably disposed and longitudinally extending in the cutting wire lumen, and wherein the exposed active portion comprises a cutting edge disposed outside of and longitudinally extending along the body of the tubular member at the distal portion wherein the tubular member has a central longitudinal axis; the cutting edge is distally secured to the body of the tubular member at an anchor point, said anchor point being positioned at a first circumferential position about the central longitudinal axis; a midpoint of the return electrode is disposed at a second circumferential position about the central longitudinal axis, said second circumferential position being offset from a circumferential position that is 180-degrees from said first circumferential position by a predetermined non-zero number of degrees (θ) about the central longitudinal axis. an elongate tubular member longitudinally extending from a proximal portion to a distal portion, the tubular member comprising: a body; a cutting wire lumen longitudinally extending in the body; and a recess extending in the body at the distal portion; a body; a cutting wire lumen longitudinally extending in the body; and a recess extending in the body at the distal portion; an active path configured for delivery of electrical current generated from a power source to the distal portion, wherein the active path comprises an exposed active portion disposed outside of the tubular member to contact tissue at the treatment site; and a return path for return of the electrical current from the distal portion to the power source, wherein the return path comprises a return electrode disposed in the recess at the distal portion; wherein the active path comprises a cutting wire movably disposed and longitudinally extending in the cutting wire lumen, and wherein the exposed active portion comprises a cutting edge disposed outside of and longitudinally extending along the body of the tubular member at the distal portion wherein