mhurhangee/ep-ind-claims huggingface dataset:
A method for determining, by a user equipment, UE, priorities of buffer status reports, BSRs, in a wireless communication system, the method comprising: generating, by the UE, a BSR for uplink transmission to a network and a proximity-based services, ProSe, BSR for device-to-device, D2D, transmission between UEs; triggering, by the UE, at least one first scheduling request, SR, for the BSR and at least one second SR for the ProSe BSR; prioritizing, by the UE, the BSR for uplink transmission over the ProSe BSR by accommodating the BSR for uplink transmission in a media access control, MAC, protocol data unit, PDU; and canceling all pending SRs among the at least one first SR, while not canceling all pending SRs among the at least one second SR. generating, by the UE, a BSR for uplink transmission to a network and a proximity-based services, ProSe, BSR for device-to-device, D2D, transmission between UEs; triggering, by the UE, at least one first scheduling request, SR, for the BSR and at least one second SR for the ProSe BSR; prioritizing, by the UE, the BSR for uplink transmission over the ProSe BSR by accommodating the BSR for uplink transmission in a media access control, MAC, protocol data unit, PDU; and canceling all pending SRs among the at least one first SR, while not canceling all pending SRs among the at least one second SR.
A neuromuscular electrical stimulation system comprising a lead system having electrodes coupled to an implantable, programmable pulse generator (10, 20, 22), and a fixation anchor suitable for anchoring to or along boney structure of a vertebra, characterized in that said lead system having electrodes is configured to be implanted in or adjacent to tissue associated with local segmental control of the lumbar spine, and said pulse generator (10, 20, 22) is programmed with a pulse frequency, magnitude and duration to deliver electrical stimulation to said electrodes to induce contraction of the multifidus and thereby improve muscle strength, or endurance of the multifidus to alleviate pain.
A recombinant Escherichia coli strain 1 having increased enzymatic activity of α-ketoglutarate dehydrogenase relative to the starting E. coli strain, wherein the original regulatory element of α-ketoglutarate dehydrogenase gene, sucAB, of E. coli is replaced with any one of regulatory elements M1-46, M1-37 and M1-93; wherein the artificial regulatory element M1-46 has the nucleotide sequence of SEQ ID NO: 14; wherein the artificial regulatory element M1-37 has the nucleotide sequence of SEQ ID NO: 10; the artificial regulatory element M1-93 has the nucleotide sequence of SEQ ID NO: 11; and wherein the original regulatory element of α-ketoglutarate dehydrogenase gene is SEQ ID NO: 15.
A method performed by a wireless transmit/receive unit, WTRU, the method comprising: receiving, by the WTRU: 1) information associated with transmitting compressed hybrid automatic repeat request acknowledgement, HARQ-ACK, feedback information associated with a plurality of transport blocks, TBs, each including a plurality of code block groups, CBGs, and 2) one or more TBs of the plurality of TBs; determining, by the WTRU, a countdown downlink assignment index, CD_DAI, associated with the plurality of TBs; generating, by the WTRU, the compressed HARQ-ACK feedback information by compressing HARQ-ACK feedback bits associated with the plurality of TBs; and transmitting the compressed HARQ-ACK feedback information, wherein a respective TB, of the plurality of TBs, is valid if at least one CBG of the respective TB is correctly received, and wherein the compressed HARQ-ACK feedback information includes: 1) a CBG HARQ-ACK bitmap that is determined by performing a logic AND operation across all valid TBs per CBG, and 2) a TB HARQ-ACK bitmap that is determined by performing a logic AND operation across all CBGs of each of the plurality of TBs and 3) a TB valid bitmap for the plurality of TBs. receiving, by the WTRU: 1) information associated with transmitting compressed hybrid automatic repeat request acknowledgement, HARQ-ACK, feedback information associated with a plurality of transport blocks, TBs, each including a plurality of code block groups, CBGs, and 2) one or more TBs of the plurality of TBs; determining, by the WTRU, a countdown downlink assignment index, CD_DAI, associated with the plurality of TBs; generating, by the WTRU, the compressed HARQ-ACK feedback information by compressing HARQ-ACK feedback bits associated with the plurality of TBs; and transmitting the compressed HARQ-ACK feedback information, wherein a respective TB, of the plurality of TBs, is valid if at least one CBG of the respective TB is correctly received, and wherein the compressed HARQ-ACK feedback information includes: 1) a CBG HARQ-ACK bitmap that is determined by performing a logic AND operation across all valid TBs per CBG, and 2) a TB HARQ-ACK bitmap that is determined by performing a logic AND operation across all CBGs of each of the plurality of TBs and 3) a TB valid bitmap for the plurality of TBs.
(amended): A polyester fiber-reinforced composite resin composition comprising (a) 65 to 90% by weight of a polyolefin resin (provided that an acid-modified polyolefin resin is excluded) and (b) 35 to 10% by weight (provided that (a)+(b)=100% by weight) of a polyester fiber to which a polar resin (provided that an acid-modified polyolefin resin is excluded) is attached, wherein the polar resin constituting (b) is an epoxy resin.
An airfoil comprising: an airfoil body; a recessed portion of a first depth in a first side of the airfoil body, the recessed portion including: a plurality of pockets of a second depth located within the recessed portion; and ribs of the first depth located between the pockets; a cover configured to fit into the recessed portion such that an interior surface of the cover engages the ribs and an exterior surface of the cover is about flush with an exterior surface of the first side of the airfoil body; and a first high energy beam weld configuration (134; 134'; 156; 160; 170) extending through the cover and into the ribs and positioned to attach the cover to the ribs, characterised in that the airfoil further comprises a second high energy beam weld configuration extending into the cover and a portion of the airfoil body adjacent the cover, wherein the second high energy beam weld configuration extends into a cavity in the recessed portion that extends around a periphery of the recessed portion. an airfoil body; a recessed portion of a first depth in a first side of the airfoil body, the recessed portion including: a plurality of pockets of a second depth located within the recessed portion; and ribs of the first depth located between the pockets; a plurality of pockets of a second depth located within the recessed portion; and ribs of the first depth located between the pockets; a cover configured to fit into the recessed portion such that an interior surface of the cover engages the ribs and an exterior surface of the cover is about flush with an exterior surface of the first side of the airfoil body; and a first high energy beam weld configuration (134; 134'; 156; 160; 170) extending through the cover and into the ribs and positioned to attach the cover to the ribs, characterised in that the airfoil further comprises a second high energy beam weld configuration extending into the cover and a portion of the airfoil body adjacent the cover, wherein the second high energy beam weld configuration extends into a cavity in the recessed portion that extends around a periphery of the recessed portion.
An antenna comprising: an insulating substrate (1080, 305); a plurality of conductive patches (1010, 310) provided on a top surface of the insulating substrate; a variable dielectric constant, VDC, plate provided below the insulating substrate (1080, 305); a plurality of conductive delay lines provided over the VDC plate, each of the delay lines coupling an RF signal to one of the plurality of conductive patches (1010, 310); a ground plane provided below the VDC plate, the ground plane comprising at least one DC break (157, 353) sized to form a short for ground path of the RF signal. an insulating substrate (1080, 305); a plurality of conductive patches (1010, 310) provided on a top surface of the insulating substrate; a variable dielectric constant, VDC, plate provided below the insulating substrate (1080, 305); a plurality of conductive delay lines provided over the VDC plate, each of the delay lines coupling an RF signal to one of the plurality of conductive patches (1010, 310); a ground plane provided below the VDC plate, the ground plane comprising at least one DC break (157, 353) sized to form a short for ground path of the RF signal.
Ventilation device, particularly for use in a motor vehicle, comprising an air-guiding housing having - at least one air inlet opening (11, 31, 32), - an air outlet device communicating with the air inlet opening (11, 31, 32) and - a blower, arrangeable such as to transport air from the air inlet opening (11, 31, 32) to the air outlet device, wherein - the ventilation device is adapted to be mounted at or to be integrated in a seat, particularly a vehicle seat, wherein the air outlet device is adapted to be mounted at or to be integrated in the backrest of the seat, and - the air outlet device comprises an elongated slit-shaped air outlet opening, characterized in that - the air outlet opening is adapted to be aligned to the margin (6, 7) of the backrest and/or to be arranged above the upper margin of the backrest for blowing out air backwardly, and - the slit-shaped air outlet opening is provided within the air outlet device such as to facilitate an overflowing of the air outlet device downstream of the air outlet opening. - at least one air inlet opening (11, 31, 32), - an air outlet device communicating with the air inlet opening (11, 31, 32) and - a blower, arrangeable such as to transport air from the air inlet opening (11, 31, 32) to the air outlet device, wherein - the ventilation device is adapted to be mounted at or to be integrated in a seat, particularly a vehicle seat, wherein the air outlet device is adapted to be mounted at or to be integrated in the backrest of the seat, and - the air outlet device comprises an elongated slit-shaped air outlet opening, characterized in that - the air outlet opening is adapted to be aligned to the margin (6, 7) of the backrest and/or to be arranged above the upper margin of the backrest for blowing out air backwardly, and - the slit-shaped air outlet opening is provided within the air outlet device such as to facilitate an overflowing of the air outlet device downstream of the air outlet opening.
A control valve comprising: a valve body having an inlet and outlet with a valve member disposed between said inlet and outlet; and an actuator operably connected to said valve, wherein said actuator includes an armature and a magnetic portion for asserting a magnetic force on said armature and causing said armature to move; and characterised in that a moveable rigid pressure balancing component is operably connected to said armature of said actuator, said moveable rigid pressure balancing component extending radially outwardly from said armature to define one or more chambers around the armature, and in that the pressure balancing component has the same diameter as the valve member so that pressure acting on the area of the valve member is countered by pressure acting on the area of the pressure balancing component. a valve body having an inlet and outlet with a valve member disposed between said inlet and outlet; and an actuator operably connected to said valve, wherein said actuator includes an armature and a magnetic portion for asserting a magnetic force on said armature and causing said armature to move; and characterised in that a moveable rigid pressure balancing component is operably connected to said armature of said actuator, said moveable rigid pressure balancing component extending radially outwardly from said armature to define one or more chambers around the armature, and in that the pressure balancing component has the same diameter as the valve member so that pressure acting on the area of the valve member is countered by pressure acting on the area of the pressure balancing component.
A thin-film light emitting device having a vertical structure, comprising: a support layer; a first electrode on the support layer; a GaN-based semiconductor structure having a first surface on the first electrode, the semiconductor structure comprising a p-type semiconductor layer on the first electrode, an active layer on the p-type semiconductor layer, and an n-type semiconductor layer on the active layer; a metal layer in contact with the n-type semiconductor layer at a second surface of the semiconductor structure, wherein the second surface is opposite the first surface; a transparent conductive oxide layer in contact with the metal layer; and a second electrode on the transparent conductive oxide layer; wherein the metal layer is arranged between the n-type semiconductor layer and the transparent conductive oxide layer, wherein the metal layer has a nitrogen gettering characteristic so as to improve ohmic characteristics of the transparent conductive oxide layer. a support layer; a first electrode on the support layer; a GaN-based semiconductor structure having a first surface on the first electrode, the semiconductor structure comprising a p-type semiconductor layer on the first electrode, an active layer on the p-type semiconductor layer, and an n-type semiconductor layer on the active layer; a metal layer in contact with the n-type semiconductor layer at a second surface of the semiconductor structure, wherein the second surface is opposite the first surface; a transparent conductive oxide layer in contact with the metal layer; and a second electrode on the transparent conductive oxide layer; wherein the metal layer is arranged between the n-type semiconductor layer and the transparent conductive oxide layer, wherein the metal layer has a nitrogen gettering characteristic so as to improve ohmic characteristics of the transparent conductive oxide layer.
A housing for an optoelectronic component having - a housing body, which comprises a first side face, which is arranged at an angle to a front and a back of the housing body, and - first and second electrical terminal strips (11, 12) for supplying an optoelectronic semiconductor chip with electricity, which strips extend in part inside the housing body, are guided out of the housing body at the first side face and are bent outside the housing body in such a way that they comprise a first portion (11c, 12c), which extends at an angle to the first side face, and a second portion (11d, 12d), which extends with a spacing greater than zero along the first side face, characterized in that, the housing comprises supporting elements which are connected to the housing body and project out of the plane of the first side face, wherein the supporting elements have an elongate shape and extend from the front to the back of the housing body and wherein the supporting elements form a tunnel-like cavity, in which the terminal strips (11, 12) are located, wherein the terminal strips (11, 12) are arranged between the supporting elements, and the supporting elements extend parallel to the second portions (11d, 12d) of the terminal strips (11, 12). - a housing body, which comprises a first side face, which is arranged at an angle to a front and a back of the housing body, and - first and second electrical terminal strips (11, 12) for supplying an optoelectronic semiconductor chip with electricity, which strips extend in part inside the housing body, are guided out of the housing body at the first side face and are bent outside the housing body in such a way that they comprise a first portion (11c, 12c), which extends at an angle to the first side face, and a second portion (11d, 12d), which extends with a spacing greater than zero along the first side face,
An implantable device, comprising: - a barrel, the barrel having a first portion and a second portion, - a first plate having multiple projections extending from one side of the first plate, the first plate configured to movably couple to the first portion of the barrel; and - a second plate having multiple projections extending from one side of the second plate, the second plate configured to movably couple to the second portion of the barrel, - wherein the barrel is configured to transition from a collapsed form having a first height to an expanded form having a second height and wherein the second height is greater than the first height, characterized in that - the barrel comprises a frame, a first endplate, a second endplate, a first actuator having a split ramp inserted into the frame, a second actuator having a split ramp inserted into the frame, a central screw inserted through the first actuator and the second actuator, and the first actuator and the second actuator are configured to act on the first endplate and the second endplate in response to a rotation of the central screw. - a barrel, the barrel having a first portion and a second portion, - a first plate having multiple projections extending from one side of the first plate, the first plate configured to movably couple to the first portion of the barrel; and - a second plate having multiple projections extending from one side of the second plate, the second plate configured to movably couple to the second portion of the barrel, - wherein the barrel is configured to transition from a collapsed form having a first height to an expanded form having a second height and wherein the second height is greater than the first height, characterized in that - the barrel comprises a frame, a first endplate, a second endplate, a first actuator having a split ramp inserted into the frame, a second actuator having a split ramp inserted into the frame, a central screw inserted through the first actuator and the second actuator, and the first actuator and the second actuator are configured to act on the first endplate and the second endplate in response to a rotation of the central screw.
A method for the production of an alkene by the dehydrogenation of a corresponding alkane, comprising the steps of: (i) providing a hydrocarbon source comprising at least one alkane; (ii) subjecting, in a first reactor system, the hydrocarbon source to a first dehydrogenation reaction in the presence of a dehydrogenation catalyst, so as to form a first reaction mixture comprising hydrogen, unreacted alkane, and an initial yield of the alkene corresponding to said at least one alkane; (iii) in a first separation step, subjecting the reaction mixture to membrane separation so as to obtain a permeate comprising hydrogen and a retentate comprising an alkene-enriched reaction mixture; (iv) feeding said alkene enriched reaction mixture to a second reactor system, wherein unreacted alkane comprised in said reaction mixture is subjected to a second dehydrogenation reaction in the presence of a dehydrogenation catalyst so as to form a second reaction mixture comprising hydrogen and a further yield of the alkene corresponding to said at least one alkane; (v) in a second separation step subjecting the second reaction mixture to membrane separation so as to remove hydrogen, thereby producing a further alkene-enriched reaction mixture; wherein the first dehydrogenation reaction and the first separation step are conducted in separate reaction and separation units, and the second dehydrogenation reaction and the second separation step are conducted in at least one integrated reaction and separation unit. (i) providing a hydrocarbon source comprising at least one alkane; (ii) subjecting, in a first reactor system, the hydrocarbon source to a first dehydrogenation reaction in the presence of a dehydrogenation catalyst, so as to form a first reaction mixture comprising hydrogen, unreacted alkane, and an initial yield of the alkene corresponding to said at least one alkane; (iii) in a first separation step, subjecting the reaction mixture to membrane separation so as to obtain a permeate comprising hydrogen and a retentate comprising an alkene-enriched reaction mixture; (iv) feeding said alkene enriched reaction mixture to a second reactor system, wherein unreacted alkane comprised in said reaction mixture is subjected to a second dehydrogenation reaction in the presence of a dehydrogenation catalyst so as to form a second reaction mixture comprising hydrogen and a further yield of the alkene corresponding to said at least one alkane; (v) in a second separation step subjecting the second reaction mixture to membrane separation so as to remove hydrogen, thereby producing a further alkene-enriched reaction mixture;
A materials handling vehicle comprising: a power unit supported on wheels; a mast assembly supported on the power unit, the mast assembly including plural telescoping sections (22, 24, 26, 28) defined by pairs of laterally spaced rails (22A, 22B, 24A, 24B, 26A, 28A, 28B); an operator compartment supported on the mast assembly for vertical movement; a dash located forward of the operator compartment and including a substantially horizontal support surface for packages; characterised in that the vehicle includes a transparent window defining a portion of the horizontal support surface and providing the operator with a view of a floor surface when the operator compartment is in an elevated position such that the operator does not need to move his head outside the perimeter of the vehicle when looking down; and the vehicle including at least one control device associated with the dash for operation by an operator positioned standing on the operator compartment. a power unit supported on wheels; a mast assembly supported on the power unit, the mast assembly including plural telescoping sections (22, 24, 26, 28) defined by pairs of laterally spaced rails (22A, 22B, 24A, 24B, 26A, 28A, 28B); an operator compartment supported on the mast assembly for vertical movement; a dash located forward of the operator compartment and including a substantially horizontal support surface for packages; characterised in that the vehicle includes a transparent window defining a portion of the horizontal support surface and providing the operator with a view of a floor surface when the operator compartment is in an elevated position such that the operator does not need to move his head outside the perimeter of the vehicle when looking down; and the vehicle including at least one control device associated with the dash for operation by an operator positioned standing on the operator compartment.