mhurhangee/ep-ind-claims huggingface dataset:
A method for selecting spreading sequences with variable spreading factors, the method comprising: generating circular shift equivalent sets of spreading sequences by circularly shifting base sequences with elements {1, 0} and having at least one said variable spreading factor; determining whether each said spreading sequence in said circular shift equivalent set meets a pre-defined spreading sequence criteria, wherein said spreading sequence criteria comprises a balanced criteria, a non- repetition criteria, a non-circular criteria, and a conjugate criteria, wherein said balanced criteria indicates that a number of zeros in said spreading sequence is equal to a number of non-zeros in said spreading sequence, said non-repetition criteria indicates that said spreading sequence cannot be divided into two equal halves with identical elements in each half, said non-circular criteria indicates that said spreading sequence cannot be fully comprised of a periodic repetition of other sequences, and said conjugate criteria indicates that two equal halves of said spreading sequence is complementary to each other; and selecting said spreading sequence from a set of sequences that is formed using at least one said spreading sequence of said circular shift equivalent sets in response to determining that said spreading sequences in said circular shift equivalent sets meets said pre-defined spreading sequence criteria. generating circular shift equivalent sets of spreading sequences by circularly shifting base sequences with elements {1, 0} and having at least one said variable spreading factor; determining whether each said spreading sequence in said circular shift equivalent set meets a pre-defined spreading sequence criteria, wherein said spreading sequence criteria comprises a balanced criteria, a non- repetition criteria, a non-circular criteria, and a conjugate criteria, wherein said balanced criteria indicates that a number of zeros in said spreading sequence is equal to a number of non-zeros in said spreading sequence, said non-repetition criteria indicates that said spreading sequence cannot be divided into two equal halves with identical elements in each half, said non-circular criteria indicates that said spreading sequence cannot be fully comprised of a periodic repetition of other sequences, and said conjugate criteria indicates that two equal halves of said spreading sequence is complementary to each other; and selecting said spreading sequence from a set of sequences that is formed using at least one said spreading sequence of said circular shift equivalent sets in response to determining that said spreading sequences in said circular shift equivalent sets meets said pre-defined spreading sequence criteria.
A method for wireless communications, comprising: generating a frame having one or more bits that indicate both a minimum bandwidth and a maximum bandwidth for communicating in a network; and outputting the frame for transmission in the network; wherein different values of the one or more bits map to different combinations of minimum and maximum bandwidths; and wherein at least one of the different values maps to at least two different combinations of minimum and maximum bandwidths. generating a frame having one or more bits that indicate both a minimum bandwidth and a maximum bandwidth for communicating in a network; and outputting the frame for transmission in the network; wherein different values of the one or more bits map to different combinations of minimum and maximum bandwidths; and wherein at least one of the different values maps to at least two different combinations of minimum and maximum bandwidths.
Porous electrode substrate in web form comprising a structure made of carbon fibres and a carbon matrix, wherein the carbon matrix contains activated carbon which has a high specific surface, the BET measurement value of which is more than 1000 m 2 /g, carbonised or graphitised residue of a binder which can be carbonised or graphitised, and carbon particles, wherein the specific surface, porosity and pore distribution are determined by the carbon matrix.
A mounting configuration of a thermocouple temperature detector for detachably mounting the thermocouple temperature detector on a kneader for high viscosity kneading material, in which the thermocouple temperature detector that measures a temperature of a high viscosity kneading material which is kneaded by rotation of a kneading rotor (8a, 8b) in a kneading tank (1, 2) of a closed pressure type kneader is configured such that a thermocouple element which is made up of two types of metal wires (12a, 12b) that generate a thermoelectromotive force is housed in a protective tube, each one of ends of the two types of metal wires (12a, 12b) being welded in a small hole formed at a tip of a protective inner tube in the protective tube so as to form a heat sensing section, and the other of ends of the two types of metal wires (12a, 12b) being led to a terminal board provided on the other end of the protective tube and housed in the protective tube, so that the heat sensing section is located in a flow area of the kneading material that flows along an inner surface of the kneading tank (1, 2) of the kneader, wherein the protective tube is configured such that the heat sensing section of a hemispherical shape formed at a distal end of the protective inner tube protrudes from a center on a distal end of a short tubular shaped protective chip which has a shoulder at a distal end which protrudes in a flow area of the kneading material in the kneading tank (1, 2), characterized in that a protrusion proximal end of the protective chip which protrudes in the kneading tank (1, 2) has an outer diameter which is 2 to 3 times as large as that of the protective inner tube, a protruding length which protrudes from the protrusion proximal end into the kneading tank (1, 2) has the same length as the difference between a radius of the protrusion proximal end of the protective chip and a radius of the protective inner tube, an outer peripheral surface of the shoulder of the protective chip which extends from the protrusion proximal end of the protective chip to a position in the protruding length which is in contact with the outer periphery of the protective inner tube is formed in a convex curvature surface having a radius which corresponds to a difference between the radius of the protrusion proximal end of the protective chip and the radius of the protective inner tube, and the thermocouple temperature detector is mounted on the kneading tank (1, 2) such that the protrusion proximal end of the protective chip is located at a position along an inner surface of the kneading tank (1, 2), the shoulder of the protective chip protrudes in the flow area of the kneading material so that a flow of the kneading material which flows along the inner surface of the kneading tank (1, 2) toward the temperature detection end is directed to a direction bypassing the protective chip, and a portion of the flow which flows toward the temperature detection end is directed to flow along the top of the heat sensing section which protrudes from the protective chip.
A monoclonal antibody comprising an antigen binding domain, said antibody capable of binding an epitope of an RGM molecule, said antigen binding domain comprising a heavy chain variable domain having at least three complementary determining regions and a light chain variable domain having at least three complementary determining regions, wherein the complementary determining regions of the heavy chain variable domain have the amino acid sequence of SEQ ID NO:63, SEQ ID NO:64 and SEQ ID NO:65 and wherein the complementary determining regions of the light chain variable domain have the amino acid sequence of SEQ ID NO:66, SEQ ID NO:67 and SEQ ID NO:68.
A method for reporting flight path information, applied to an unmanned aerial vehicle, UAV, characterized by, comprising: determining (S101, S301) content of the flight path information of the UAV, wherein the content comprises at least: a path positioning point of the UAV and a reporting time of the flight path information of the UAV; reporting (S102, S302) the flight path information of the UAV to a base station by UE information response field of radio resource control signalling, wherein the flight path information is planned flight path information, and the path positioning point of the UAV is a location of a planned fight path of the UAV. determining (S101, S301) content of the flight path information of the UAV, wherein the content comprises at least: a path positioning point of the UAV and a reporting time of the flight path information of the UAV; reporting (S102, S302) the flight path information of the UAV to a base station by UE information response field of radio resource control signalling, wherein the flight path information is planned flight path information, and the path positioning point of the UAV is a location of a planned fight path of the UAV.
A high-pressure cleaning appliance, comprising a heat exchanger being heatable by fuel for heating a liquid that is dischargeable by the high-pressure cleaning appliance, a motor having a drive shaft that defines a drive axis, a pump unit for increasing the liquid pressure, a blower wheel for generating a combustion air flow, and a fuel pump for delivering a fuel for the heat exchanger, wherein the pump unit, the blower wheel and the fuel pump are disposed along the drive axis and are drivable by the drive shaft and form an assembly together with the motor, characterized in that the assembly is disposed below the heat exchanger, with regard to a height direction of the high-pressure cleaning appliance, as well as the positioning thereof on a set-down surface, with the heat exchanger standing in an upright position and having an axis that is aligned in the height direction.
A liquid chondrogenic differentiation medium comprising: - at least one chondrogenic growth factor selected from the group consisting of transforming growth factors β, bone morphogenetic proteins, and mixtures thereof, and - a low-molecular-weight sulfated polysaccharide prepared from a marine native exopolysaccharide excreted by a mesophilic marine bacterium from a deep-sea hydrothermal environment, wherein said low molecular-weight sulphated EPS is obtainable by a process comprising the following steps: (a) a step consisting of free-radical depolymerization of said native EPS so as to obtain a depolymerized EPS having a molecular weight of 5,000 to 100,000 g/mol, (b) a subsequent step consisting of sulfation of the depolymerized EPS, comprising adding to the depolymerized EPS at least one sulfation agent in an amount sufficient to obtain a sulfated polysaccharide having a degree of sulfate-group substitution of between 10% and 45% by weight relative to the total weight of the sulfated polysaccharide. - at least one chondrogenic growth factor selected from the group consisting of transforming growth factors β, bone morphogenetic proteins, and mixtures thereof, and - a low-molecular-weight sulfated polysaccharide prepared from a marine native exopolysaccharide excreted by a mesophilic marine bacterium from a deep-sea hydrothermal environment, (a) a step consisting of free-radical depolymerization of said native EPS so as to obtain a depolymerized EPS having a molecular weight of 5,000 to 100,000 g/mol, (b) a subsequent step consisting of sulfation of the depolymerized EPS, comprising adding to the depolymerized EPS at least one sulfation agent in an amount sufficient to obtain a sulfated polysaccharide having a degree of sulfate-group substitution of between 10% and 45% by weight relative to the total weight of the sulfated polysaccharide.
Connector, comprising a support plate and at least two contact pins fastened to the support plate, wherein the contact pins each have a free end and a terminal end, wherein the terminal ends of the contact pins are connectable to electrical conductors of a cable, wherein an installation part is fastened to the support plate, wherein the installation part has at least one thermal bridge, wherein a first end of the at least one thermal bridge has a receptacle and a second end, which is opposite the first end, of the thermal bridge makes contact with one of the terminal ends, wherein a temperature sensor is arranged in the at least one receptacle, characterized in that the installation part has a partition wall, and in that the at least one thermal bridge extends through at least one opening of the partition wall.
An apparatus comprising: (a) a first jaw, wherein the first jaw includes a first generally flat region, a first sloped transition region, a second generally flat region; (b) a second jaw pivotally coupled with the first jaw, wherein the second jaw includes a third generally flat region, a second sloped transition region, a fourth generally flat region, wherein the first jaw and the second jaw are configured to grasp tissue; (c) a first handle in communication with the first jaw; and (d) a second handle in communication with the second jaw, wherein the first and second handles are operable to drive the jaws to a closed position to grasp tissue; wherein, when seen in cross section, the jaws define a clamping region therebetween having a stepped profile; wherein at least the second generally flat region and the third generally flat region act as discrete, bipolar electrode surfaces; wherein when the jaws are closed the first generally flat region, first sloped transition region, and second generally flat region nest with the third generally flat region, the second sloped transition region, and the fourth generally flat region, respectively, and the second generally flat region and the third generally flat region are laterally and vertically offset from each other. (a) a first jaw, wherein the first jaw includes a first generally flat region, a first sloped transition region, a second generally flat region; (b) a second jaw pivotally coupled with the first jaw, wherein the second jaw includes a third generally flat region, a second sloped transition region, a fourth generally flat region, wherein the first jaw and the second jaw are configured to grasp tissue; (c) a first handle in communication with the first jaw; and (d) a second handle in communication with the second jaw, wherein the first and second handles are operable to drive the jaws to a closed position to grasp tissue;
A molding apparatus, comprising: a fixture having a first member and a second member extending from a base, the first member having a groove and the second member having a fixture pin; and a mandrel having a first portion and a second portion, each of the first and second portions (302, 304) having a dovetail mating surface (314, 316; 414, 416), characterised in that the mandrel has first and second locking pins, wherein the mandrel is secured to the fixture by the groove at the first member and by the fixture pin at the second member a fixture having a first member and a second member extending from a base, the first member having a groove and the second member having a fixture pin; and a mandrel having a first portion and a second portion, each of the first and second portions (302, 304) having a dovetail mating surface (314, 316; 414, 416), characterised in that the mandrel has first and second locking pins, wherein the mandrel is secured to the fixture by the groove at the first member and by the fixture pin at the second member
Filter medium of a filter element for filtration of a fluid, in particular of a liquid fuel, water, engine/motor oil, or air, in particular of a combustion engine of a motor vehicle, comprising at least one non-woven filter layer of synthetic individual fibers, wherein the filter layer has an increasing filter fineness for the particles to be filtered out along a flow direction of the fluid through the filter layer, and wherein the filter layer has a decreasing porosity along the flow direction, characterized in that a second cellulose-containing and/or glass fiber-containing layer flatly joins the filter layer on the outflow side, the porosity of which filter layer continuously decreases in the flow direction of the fluid through the filter layer and that the filter layer, the porosity of which decreases along the flow direction, consists of a mixture of individual fibers with diameters of between approximately 50nm and approximately 8μm, with an average diameter of approximately 1μm to approximately 2μm.
A bone cement injection puncture needle (10, 10b) comprising: an outer needle of hollow constitution having a proximal end side hole formed in a side surface near a proximal end portion thereof; an outer needle hub (14, 14b) fixed to the proximal end portion of the outer needle and having a first port held in fluid communication with a proximal end opening of the outer needle; an inner needle having a needle point on a distal end thereof and which is insertable in the outer needle and the first port; an inner needle hub (18, 18a) fixed to a proximal end portion of the inner needle and which is removably mountable on the outer needle hub (14, 14b); an inner tube insertable in the outer needle and the first port; and an inner tube hub fixed to a proximal end portion of the inner tube and which is removably mountable on the outer needle hub (14, 14b), the inner tube hub having a second port held in fluid communication with a proximal end opening of the inner tube, wherein when the inner tube is inserted in the outer needle, a depressurization passage, which provides fluid communication between a distal end side hole formed in a side surface near a distal end portion of the outer needle and the proximal end side hole, is formed between the outer needle and the inner tube. an outer needle of hollow constitution having a proximal end side hole formed in a side surface near a proximal end portion thereof; an outer needle hub (14, 14b) fixed to the proximal end portion of the outer needle and having a first port held in fluid communication with a proximal end opening of the outer needle; an inner needle having a needle point on a distal end thereof and which is insertable in the outer needle and the first port; an inner needle hub (18, 18a) fixed to a proximal end portion of the inner needle and which is removably mountable on the outer needle hub (14, 14b); an inner tube insertable in the outer needle and the first port; and an inner tube hub fixed to a proximal end portion of the inner tube and which is removably mountable on the outer needle hub (14, 14b), the inner tube hub having a second port held in fluid communication with a proximal end opening of the inner tube, wherein when the inner tube is inserted in the outer needle, a depressurization passage, which provides fluid communication between a distal end side hole formed in a side surface near a distal end portion of the outer needle and the proximal end side hole, is formed between the outer needle and the inner tube.
Method for producing a balancing shaft from a die-forged shaft blank, which balancing shaft has a shaft section with a centre of mass which runs eccentrically with respect to the rotational axis of the balancing shaft and defines an unbalance plane with the rotational axis, which unbalance plane runs substantially orthogonally with respect to the die partition, the shaft section having a main body and a rib which emanates from the latter and extends with regard to the rotational axis in that direction of the unbalance plane which faces away from the centre of mass at a height H, characterized by the following method step: • severing of the flashes which are formed in the die (9, 10) by way of cutting of the forged shaft blank to produce that shape of the main body which is close to the final contour at cutting points which run on both sides of the rib in the cross section of the shaft blank and the spacing S2 of which from one another is substantially smaller than the spacing S1 of the flashes from one another before the severing operation. • severing of the flashes which are formed in the die (9, 10) by way of cutting of the forged shaft blank to produce that shape of the main body which is close to the final contour at cutting points which run on both sides of the rib in the cross section of the shaft blank and the spacing S2 of which from one another is substantially smaller than the spacing S1 of the flashes from one another before the severing operation.
A pyrolysis oil treatment system for treating pyrolysis oil for being used as a fuel of an internal combustion engine, the pyrolysis oil treatment system comprising: at least one pyrolysis oil tank; at least one cleaning medium tank (1222, 1224, 1226); at least one treated pyrolysis oil tank; at least one reusable pyrolysis oil/cleaning medium mixture tank; and at least one pyrolysis oil treatment unit, wherein the at least one pyrolysis oil treatment unit is fluidly connected via a first flushing valve to the at least one pyrolysis oil tank and the at least one cleaning medium tank (1222, 1224, 1226) to receive pyrolysis oil and cleaning medium respectively therefrom, and the at least one pyrolysis oil treatment unit is further fluidly connected via a second flushing valve to the at least one treated pyrolysis oil tank and to the at least one reusable pyrolysis oil/cleaning medium mixture tank. at least one pyrolysis oil tank; at least one cleaning medium tank (1222, 1224, 1226); at least one treated pyrolysis oil tank; at least one reusable pyrolysis oil/cleaning medium mixture tank; and at least one pyrolysis oil treatment unit, wherein the at least one pyrolysis oil treatment unit is fluidly connected via a first flushing valve to the at least one pyrolysis oil tank and the at least one cleaning medium tank (1222, 1224, 1226) to receive pyrolysis oil and cleaning medium respectively therefrom, and the at least one pyrolysis oil treatment unit is further fluidly connected via a second flushing valve to the at least one treated pyrolysis oil tank and to the at least one reusable pyrolysis oil/cleaning medium mixture tank.
A gas turbine engine comprising: a compressor; a first combustor, fluidly downstream of the compressor; a first turbine, fluidly downstream of the first combustor; a second combustor, fluidly downstream of the first turbine, having a hot gas path, a second turbine fluidly downstream of the second combustor; and a blow-off line, with a first end in fluid communication with the compressor, and a second end in fluid communication with the second combustor, wherein the blow-off line is located and configured to enable a blow-off flow from the compressor into said hot gas path, and wherein the gas turbine engine further comprises a control valve, in the blow-off line, for modulating a gas flow through the blow-off line, and wherein the second combustor has a cooling system, characterized in that the blow-off line is configured and arranged to bypass the cooling system so as to enable ejection of blow-off flow into the second combustor hot gas path independently of the cooling system. a compressor; a first combustor, fluidly downstream of the compressor; a first turbine, fluidly downstream of the first combustor; a second combustor, fluidly downstream of the first turbine, having a hot gas path, a second turbine fluidly downstream of the second combustor; and a blow-off line, with a first end in fluid communication with the compressor, and a second end in fluid communication with the second combustor, wherein the blow-off line is located and configured to enable a blow-off flow from the compressor into said hot gas path, and wherein the gas turbine engine further comprises a control valve, in the blow-off line, for modulating a gas flow through the blow-off line, and wherein the second combustor has a cooling system, characterized in that the blow-off line is configured and arranged to bypass the cooling system so as to enable ejection of blow-off flow into the second combustor hot gas path independently of the cooling system.