mhurhangee/ep-ind-claims huggingface dataset:
An arrangement of vortex generators VGs for use on an airfoil profile, said airfoil profile having a leading edge and a trailing edge, said VGs provided as an array of pairs of VGs, said VGs comprising substantially triangular VG vanes projecting from a surface of said airfoil profile, each of said pairs comprising a first VG and a second VG, wherein said VGs comprise: a first end (102a, 104a) provided towards said leading edge; a second end (102b, 104b) provided towards said trailing edge; a base extending between said first end and said second end adjacent the surface of the airfoil profile; and a tip provided at a distal end of said triangular VG vane, wherein said VGs are skewed relative to a main flow direction of the airfoil profile, wherein the first ends of the adjacent VGs form a narrow, relatively convergent end of the VG pair, and that the second ends of the adjacent VGs form a wider, divergent end of the VG pair, and wherein l is the length of the base of the VGs; s is the distance between the respective second ends of first and second VGs in a VG pair; h is the height from said surface to said tip of a VG in a VG pair; z is the distance between nominal centre lines defined between the first and second VGs of adjacent VG pairs in the array; and β is the angle of skew of the VGs relative to the main flow direction of the airfoil profile, characterized in that: l / h is between 1-5, s / h is between 6-15; z / h is between 7-20; and β is between 6-16 degrees. a first end (102a, 104a) provided towards said leading edge; a second end (102b, 104b) provided towards said trailing edge; a base extending between said first end and said second end adjacent the surface of the airfoil profile; and a tip provided at a distal end of said triangular VG vane, wherein said VGs are skewed relative to a main flow direction of the airfoil profile, wherein the first ends of the adjacent VGs form a narrow, relatively convergent end of the VG pair, and that the second ends of the adjacent VGs form a wider, divergent end of the VG pair, and wherein l is the length of the base of the VGs; s is the distance between the respective second ends of first and second VGs in a VG pair; h is the height from said surface to said tip of a VG in a VG pair; z is the distance between nominal centre lines defined between the first and second VGs of adjacent VG pairs in the array; and β is the angle of skew of the VGs relative to the main flow direction of the airfoil profile, l / h is between 1-5, s / h is between 6-15; z / h is between 7-20; and β is between 6-16 degrees.
A separator including a polyolefin base film, and a coating layer of an organic and inorganic mixture formed on one or both sides of the base film, wherein the coating layer has a density of 1.2 g/m 3 to 2 g/m 3 and contains a polyvinylidene fluoride homopolymer has a weight average molecular weight of 1,000,000 g/mol or more, an organic binder of a polyvinylidene fluoride-hexafluoropropylene copolymer having a weight average molecular weight of 800,000 g/mol or less, and inorganic particles having an average particle size of 1 nm to 700 nm.
A method for coupling a first compound having the formula: wherein: each R 1 and R 2 is independently selected from the group consisting of hydrogen, halogen, CH 3, COOH, NO 2, CH 2 OH, H 2 PO 4, HSO 3, CN, C(=O)NH 2 and CHO; n = 2, 3 or 4; each X is independently selected and is NH or S, provided that at least one X is NH; each Z is an optional spacing group which, when present, is independently selected from the group consisting of optionally substituted C 1 -C 10 alkyl, optionally substituted aryl and optionally substituted heterocycle; and each Y is independently selected from the group consisting of hydrogen, halogen, hydroxyl, nitro, optionally substituted amino, optionally substituted alkyl, optionally substituted aryl, optionally substituted aralkyl, optionally substituted heterocycle, isothiocyanate, cyano, -NH-COCH 2 Br, -COOR' and-NH-CO-CH=CH-COOR', wherein R' is hydrogen, an optionally substituted alkyl, or an optionally substituted aryl, provided that at least one Y is or contains a primary amine; with a second compound that contains a carbonyl group, the method comprising the steps of: (i) dissolving the compound having the formula in a solvent comprising at least some water, to form a solution, said solution having a pH between about 3 and 6.5,whereby substantially all coupling will occur at the primary amine; and (ii) causing the second compound that contains a carbonyl group to react with and couple to the compound having the formula by way of a Schiff's base condensation. each R 1 and R 2 is independently selected from the group consisting of hydrogen, halogen, CH 3, COOH, NO 2, CH 2 OH, H 2 PO 4, HSO 3, CN, C(=O)NH 2 and CHO; n = 2, 3 or 4; each X is independently selected and is NH or S, provided that at least one X is NH; each Z is an optional spacing group which, when present, is independently selected from the group consisting of optionally substituted C 1 -C 10 alkyl, optionally substituted aryl and optionally substituted heterocycle; and each Y is independently selected from the group consisting of hydrogen, halogen, hydroxyl, nitro, optionally substituted amino, optionally substituted alkyl, optionally substituted aryl, optionally substituted aralkyl, optionally substituted heterocycle, isothiocyanate, cyano, -NH-COCH 2 Br, -COOR' and-NH-CO-CH=CH-COOR', wherein R' is hydrogen, an optionally substituted alkyl, or an optionally substituted aryl, provided that at least one Y is or contains a primary amine; (i) dissolving the compound having the formula in a solvent comprising at least some water, to form a solution, said solution having a pH between about 3 and 6.5,whereby substantially all coupling will occur at the primary amine; and (ii) causing the second compound that contains a carbonyl group to react with and couple to the compound having the formula by way of a Schiff's base condensation.
Modified organic pigments obtainable by reacting the pigments during the pigment synthesis with at least one interface-active compound, where the interface-active compounds are selected such that they are within a three-dimensional Hansen space, where the Hansen space is determined by three coordinates, called the Hansen solubility parameters (HSPs), D = 18.21, P = 8.44, H = 13.16 with a radius of 6.7 units about the centre, preferably D = 18.21, P = 8.44, H = 13.16 with a radius of 5.5 units about the centre, more preferably D = 18.21, P = 8.44, H = 13.16 with a radius of 5.0 units about the centre, with the aid of the HSPiP software, version 5.0.0.4.
An electronic device, comprising: a processor; and a communication circuit configured to communicate with a base station via a licensed band and an unlicensed band, wherein the processor is configured to transmit, using the communication circuit, a first transport block to the base station through the licensed band and transmit a second transport block to the base station through the unlicensed band, wherein in a first transmission mode, the electronic device is adapted to include in the the first transport block first transmission data and to include in the second transport block second transmission data different from the first transmission data, and wherein in a second transmission mode, the electronic device is adapted to include in the first transport block third transmission data with a first redundancy version and to include in the second transport block the third transmission data with a second redundancy version different from the first redundancy version. a processor; and a communication circuit configured to communicate with a base station via a licensed band and an unlicensed band, wherein the processor is configured to transmit, using the communication circuit, a first transport block to the base station through the licensed band and transmit a second transport block to the base station through the unlicensed band, wherein in a first transmission mode, the electronic device is adapted to include in the the first transport block first transmission data and to include in the second transport block second transmission data different from the first transmission data, and wherein in a second transmission mode, the electronic device is adapted to include in the first transport block third transmission data with a first redundancy version and to include in the second transport block the third transmission data with a second redundancy version different from the first redundancy version.
A motorcycle tire for running on rough terrain comprising a tread portion provided with a plurality of blocks defining a block pattern, the blocks including center blocks whose centroids of their top surfaces are disposed within a center region (Cr) of the tread portion defined as being centered on the tire equator and having a developed width of 25 % of a developed tread width (Twe), wherein the top surface of each of the center blocks is provided with an axially extending edge which extends straight and parallel with the tire axial direction, and a pair of arc edges which are curved toward the centroid of the top surface and disposed on both sides of the axially extending edge in the tire axial direction, characterized in that the axial length (L1a) of the axially extending edge is 26 to 46 % of the maximum axial width of the top surface, and the arc edges each have a radius of curvature which is 22 to 42 % of the maximum circumferential length of the top surface.
A fuel cell assembly for a solid polymer electrolyte fuel cell stack comprising: a catalyst coated membrane having first and second surfaces and comprising a solid polymer electrolyte membrane electrolyte coated with cathode catalyst on a cathode side and with anode catalyst on an anode side; a cathode gas diffusion layer adjacent the cathode catalyst; an anode gas diffusion layer adjacent the anode catalyst; an oxidant flow field plate adjacent the cathode gas diffusion layer, the oxidant flow field plate comprising an oxidant flow field on the side adjacent the cathode gas diffusion layer; a fuel flow field plate adjacent the anode gas diffusion layer, the fuel flow field plate comprising a fuel flow field on the side adjacent the anode gas diffusion layer; a seal for sealing an oxidant flow field plate to a fuel flow field plate at an edge seal location; and a plastic film frame having an inner edge and an outer edge and coated on at least one side with adhesive and framing the catalyst coated membrane wherein the adhesive side of the inner edge of the plastic film frame is laminated to the first surface of the catalyst coated membrane, and wherein the adhesive side of the outer edge of the plastic film frame is laminated to that one of the oxidant and fuel flow field plates facing the second surface of the catalyst coated membrane at the edge seal location. a catalyst coated membrane having first and second surfaces and comprising a solid polymer electrolyte membrane electrolyte coated with cathode catalyst on a cathode side and with anode catalyst on an anode side; a cathode gas diffusion layer adjacent the cathode catalyst; an anode gas diffusion layer adjacent the anode catalyst; an oxidant flow field plate adjacent the cathode gas diffusion layer, the oxidant flow field plate comprising an oxidant flow field on the side adjacent the cathode gas diffusion layer; a fuel flow field plate adjacent the anode gas diffusion layer, the fuel flow field plate comprising a fuel flow field on the side adjacent the anode gas diffusion layer; a seal for sealing an oxidant flow field plate to a fuel flow field plate at an edge seal location; and a plastic film frame having an inner edge and an outer edge and coated on at least one side with adhesive and framing the catalyst coated membrane wherein the adhesive side of the inner edge of the plastic film frame is laminated to the first surface of the catalyst coated membrane, and wherein the adhesive side of the outer edge of the plastic film frame is laminated to that one of the oxidant and fuel flow field plates facing the second surface of the catalyst coated membrane at the edge seal location.
A method for a wireless transmit/receive unit, WTRU, operating in a downlink multiple-input multiple-output, MIMO, mode, the method comprising: generating channel quality indicator, CQI, bits; encoding the CQI bits; determining a quantized amplitude ratio based on a value ΔCQI signaled by a higher layer using a predetermined table, wherein the determining is further based on a CQI type; deriving a transmission power based on the quantized amplitude ratio; and applying the transmission power to a signal conveying encoded CQI bits. generating channel quality indicator, CQI, bits; encoding the CQI bits; determining a quantized amplitude ratio based on a value ΔCQI signaled by a higher layer using a predetermined table, wherein the determining is further based on a CQI type; deriving a transmission power based on the quantized amplitude ratio; and applying the transmission power to a signal conveying encoded CQI bits.
A flame retardant material comprising: - a polymer; and - at least two high purity, fine precipitated Al 3 flame retardant fillers, characterised by a first Al 3 filler subjected to a vinyl silane treatment, and a second Al 3 filler not being subjected to vinyl silane treatment, wherein the ratio of the first to the second Al 3 filler is between 1:1.27 and 1:1.67 and wherein the specific surface area of the second Al 3 filler is at least 130% that of the first Al 3 filler. - a polymer; and - at least two high purity, fine precipitated Al 3 flame retardant fillers, characterised by a first Al 3 filler subjected to a vinyl silane treatment, and a second Al 3 filler not being subjected to vinyl silane treatment, wherein the ratio of the first to the second Al 3 filler is between 1:1.27 and 1:1.67 and wherein the specific surface area of the second Al 3 filler is at least 130% that of the first Al 3 filler.
A method for fabricating a semiconductor structure comprising a semiconductor device (201A, 201B) and a mesa portion (470A, 470B), comprising the steps of: - dividing a semiconductor wafer comprising one or more epitaxial layers (410, 411, 412) on a substrate into a plurality of semiconductor devices (201A, 201B) and streets, wherein a street comprises the area between semiconductor devices (201A, 201B); - forming a first slot and a second slot on either side of a street to define a mesa between slots (421A, 421B), wherein a "W" shaped cross section is created by forming the two slots (421A, 421B), and wherein the step of forming the slots (421A, 421B) includes penetrating a portion of the epitaxial layers (410, 411, 412); - applying a protective layer over the entire semiconductor wafer; and - using a laser beam to separate the semiconductor structures by dividing the wafer in the center of each mesa to create a kerf by vaporizing epitaxial layers (410, 411, 412) and the substrate, which kerf divides mesa into two portions (470A, 470B). - dividing a semiconductor wafer comprising one or more epitaxial layers (410, 411, 412) on a substrate into a plurality of semiconductor devices (201A, 201B) and streets, wherein a street comprises the area between semiconductor devices (201A, 201B); - forming a first slot and a second slot on either side of a street to define a mesa between slots (421A, 421B), wherein a "W" shaped cross section is created by forming the two slots (421A, 421B), and wherein the step of forming the slots (421A, 421B) includes penetrating a portion of the epitaxial layers (410, 411, 412); - applying a protective layer over the entire semiconductor wafer; and - using a laser beam to separate the semiconductor structures by dividing the wafer in the center of each mesa to create a kerf by vaporizing epitaxial layers (410, 411, 412) and the substrate, which kerf divides mesa into two portions (470A, 470B).
A LED lamp assembly (100, 200) comprising: a heat sink (101, 201) having a centre (108, 208) and an outer circumference part (102, 202), said circumference part (102, 202) supporting a plurality of LEDS (103, 203), and said circumference part (102, 202) further supporting a plurality of cooling fins (107, 207) extending inwards towards the centre (108, 208) from the outer circumference part (102,202), wherein the material thickness of the cooling fins (107, 207) decreases inwards from the outer circumference part (102, 202) towards the centre (108, 208) of the heat sink (101, 201), characterised in that at least part of or all of the cooling fins (107, 207) are tilted or partly tilted relatively to a centre axis of the heat sink (101, 201). a heat sink (101, 201) having a centre (108, 208) and an outer circumference part (102, 202), said circumference part (102, 202) supporting a plurality of LEDS (103, 203), and said circumference part (102, 202) further supporting a plurality of cooling fins (107, 207) extending inwards towards the centre (108, 208) from the outer circumference part (102,202), wherein the material thickness of the cooling fins (107, 207) decreases inwards from the outer circumference part (102, 202) towards the centre (108, 208) of the heat sink (101, 201), characterised in that at least part of or all of the cooling fins (107, 207) are tilted or partly tilted relatively to a centre axis of the heat sink (101, 201).
A sole structure for an article of footwear, comprising: a base portion; a bulging portion (320, 322) extending distally from the base portion; the bulging portion (320, 322) comprising a peripheral portion (330, 334) and a central portion (332, 336) bounded by the peripheral portion (330, 334); wherein the central portion (332, 336) is recessed with respect to the peripheral portion (330, 334); and the bulging portion (320, 322) further comprising a first and a second tapered portions extending along an outer peripheral edge of the sole structure; the tapered portions (370, 372) including a first end portion and a second end portion; wherein the width (W3, W4) of the tapered portions (370, 372) decreases substantially gradually from the first end portion to the second end portion and the depth (D1, D2) of the tapered portions (370, 372) decreases substantially gradually from the first end portion to the second end portion. a base portion; a bulging portion (320, 322) extending distally from the base portion; the bulging portion (320, 322) comprising a peripheral portion (330, 334) and a central portion (332, 336) bounded by the peripheral portion (330, 334); wherein the central portion (332, 336) is recessed with respect to the peripheral portion (330, 334); and the bulging portion (320, 322) further comprising a first and a second tapered portions extending along an outer peripheral edge of the sole structure; the tapered portions (370, 372) including a first end portion and a second end portion; wherein the width (W3, W4) of the tapered portions (370, 372) decreases substantially gradually from the first end portion to the second end portion and the depth (D1, D2) of the tapered portions (370, 372) decreases substantially gradually from the first end portion to the second end portion.
An epitaxial oxide film with a <100> orientation having at least a tetragonal crystal structure, the epitaxial oxide film being composed of a perovskite composite oxide represented by a general formula ABO 3, the epitaxial oxide film comprising at least a first domain, a second domain, a third domain, and a fourth domain having a crystal orientation deviation with respect to one another, wherein: each of the first domain and the second domain has a orientation and each of the third domain and the fourth domain has a orientation; the first domain and the third domain have at least a mirror image relation of a twin crystal, and a twin crystal plane of the twin crystal is; and the second domain and the fourth domain have at least a mirror image relation of a twin crystal, and a twin crystal plane of the twin crystal is. each of the first domain and the second domain has a orientation and each of the third domain and the fourth domain has a orientation; the first domain and the third domain have at least a mirror image relation of a twin crystal, and a twin crystal plane of the twin crystal is; and the second domain and the fourth domain have at least a mirror image relation of a twin crystal, and a twin crystal plane of the twin crystal is.
A method of preparing bio-p-xylene comprising: deriving bio-glucose from at least one biomass source; converting bio-glucose to bio-ethanol; converting a first portion of bio-ethanol to bio-2-butene; converting a second portion of bio-ethanol to bio-1,3-butadiene; reacting bio-2-butene and bio-1,3-butadiene under Diels-Alder cycloaddition conditions to form bio-4,5-dimethylcyclohex-1-ene; dehydrocyclizing bio-4,5-diemethylcyclohex-1-ene to bio-o-xylene; and isomerizing bio-o-xylene to bio-p-xylene deriving bio-glucose from at least one biomass source; converting bio-glucose to bio-ethanol; converting a first portion of bio-ethanol to bio-2-butene; converting a second portion of bio-ethanol to bio-1,3-butadiene; reacting bio-2-butene and bio-1,3-butadiene under Diels-Alder cycloaddition conditions to form bio-4,5-dimethylcyclohex-1-ene; dehydrocyclizing bio-4,5-diemethylcyclohex-1-ene to bio-o-xylene; and isomerizing bio-o-xylene to bio-p-xylene
A method for a Device-to-device, D2D, User Equipment, UE, operating in a wireless communication system, the method comprising: receiving, from an eNB, a resource pool configuration for selecting a sidelink grant; and characterized by selecting (S1407; S1509b) the sidelink grant from a resource pool configured by the resource pool configuration when a predefined condition is satisfied, wherein the predefined condition comprises more sidelink data is available in a sidelink traffic channel, STCH, than can be transmitted in a current sidelink control, SC, period, and wherein the sidelink grant is for a next period after the current SC period, and wherein the next period is a first available SC period which starts at least 4 subframes after a subframe in which the sidelink grant was selected. receiving, from an eNB, a resource pool configuration for selecting a sidelink grant; and characterized by selecting (S1407; S1509b) the sidelink grant from a resource pool configured by the resource pool configuration when a predefined condition is satisfied, wherein the predefined condition comprises more sidelink data is available in a sidelink traffic channel, STCH, than can be transmitted in a current sidelink control, SC, period, and wherein the sidelink grant is for a next period after the current SC period, and wherein the next period is a first available SC period which starts at least 4 subframes after a subframe in which the sidelink grant was selected.
A method, comprising: by a network functions virtualization orchestrator,NFVO,: receiving, via a network service,NS, update request from an operations support system/business support system,OSS/BSS, a request including a NSInstanceId parameter and an updateType parameter; and removing a physical network function,PNF, part from an NS instance with the updateType parameter in the NS update request set to RemovePnf; or adding a new PNF part to the NS instance with the updateType parameter in the NS update request set to AddPnf. receiving, via a network service,NS, update request from an operations support system/business support system,OSS/BSS, a request including a NSInstanceId parameter and an updateType parameter; and removing a physical network function,PNF, part from an NS instance with the updateType parameter in the NS update request set to RemovePnf; or adding a new PNF part to the NS instance with the updateType parameter in the NS update request set to AddPnf.