mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: N amplifiers, wherein N is greater than one, and wherein each amplifier of the N amplifiers is configured to receive one of N phase shifted radio frequency signals, and the N amplifiers are further configured to amplify the N phase shifted RF signals to produce N amplified, phase shifted RF signals; a power combiner network having N input ports and N output ports, wherein each of the N input ports is coupled to an output of one of the N amplifiers, and wherein the power combiner network is configured to combine the N amplified, phase shifted RF signals to produce N output RF signals at the N output ports, wherein relative power levels of the N output RF signals are dependent upon phase differences between the N amplified, phase shifted RF signals, and wherein the power combiner network is configured to produce, at any given time, one output RF signal having a relatively high power level at one of the N output ports and to produce N -1 output RF signals having relatively low power levels at remaining N -1 output ports; and up to N radiation devices coupled to the N output ports of the power combiner network, wherein each of the radiation devices is coupled to one of up to N cylinders of an internal combustion engine, and wherein each of the radiation devices is configured to receive an output RF signal of the N output RF signals, and each of the radiation devices is configured to produce a plasma discharge in the cylinder to which the radiation device is coupled when the radiation device receives an output RF signal with the relatively high power level. N amplifiers, wherein N is greater than one, and wherein each amplifier of the N amplifiers is configured to receive one of N phase shifted radio frequency signals, and the N amplifiers are further configured to amplify the N phase shifted RF signals to produce N amplified, phase shifted RF signals; a power combiner network having N input ports and N output ports, wherein each of the N input ports is coupled to an output of one of the N amplifiers, and wherein the power combiner network is configured to combine the N amplified, phase shifted RF signals to produce N output RF signals at the N output ports, wherein relative power levels of the N output RF signals are dependent upon phase differences between the N amplified, phase shifted RF signals, and wherein the power combiner network is configured to produce, at any given time, one output RF signal having a relatively high power level at one of the N output ports and to produce N -1 output RF signals having relatively low power levels at remaining N -1 output ports; and up to N radiation devices coupled to the N output ports of the power combiner network, wherein each of the radiation devices is coupled to one of up to N cylinders of an internal combustion engine, and wherein each of the radiation devices is configured to receive an output RF signal of the N output RF signals, and each of the radiation devices is configured to produce a plasma discharge in the cylinder to which the radiation device is coupled when the radiation device receives an output RF signal with the relatively high power level.
A method for purifying a target molecule whereby the target molecule is a protein with a molecular weight of 10000 or more and is separated from leachables and/or extractables by contacting a liquid comprising the target molecule with spherical activated carbon having a mean particle size from 2 to 550 μm obtained by pyrolysis of a spherical organic polymeric material selected from polystyrene, polyamide, polycarbonate, polymethylpentene, polyethylene, polyesters, polyvinyls or polypropylene, said leachables and/or extractables resulting from the contact of disposable equipment employed in the target molecule production and/or purification process with the target molecule or with a liquid comprising the target molecule and said disposable equipment being made of materials including elastomeric or plastic components, whereby the leachables and/or extractables are one or more of the following components: Acetaldehyde, Toluene, 2-Hexanone, Acetone, 2-Butanone, Ethyl Acetate, Bisphenol A, Benzyl alcohol, Trimethyl Silanol, Formaldehyde, Bis (2-ethylhexyl) phthalate, 1-Methylethyl ester acetic acid, 2,4-di-t-butyl Phenol, 2-Octanone, 2-Pentanone, 3,3-dimethyl-2- Butanone, 3-ethoxy-Propane, 3-Hexanone, 3-Methoxy-1-butanol, Butanal, Cyclohexanone, Ethanol, formic acid, Heptaethylene glycol, Hexanal, Methyl isobutyl ketone, Pentanal, t-Butanol, Tetrahydrofuran, Methyl formate and whereby the mean particle size is determined by means of EDANA recommended test method No. WSP 220.2-05 "Particle Size Distribution", where the proportions by mass of the screen fractions are plotted in cumulated form and the mean particle size is determined graphically so that the mean particle size is the value of the mesh size which gives rise to a cumulative 50% by weight.
A communication method performed by a terminal, wherein the method comprises obtaining signal quality of each beam in a cell; and characterized in that: in a case that there is one or more beams whose signal quality is higher than a preset threshold, determining (S402b) a signal quality of the cell based on an average value of the signal quality of the one or more beams; and in a case that there is no beam whose signal quality is higher than the preset threshold, determining (S402c) the signal quality of the cell as a signal quality of a beam who has the highest signal quality, wherein the beam who has the highest signal quality is the beam whose signal quality has a smallest difference from the preset threshold. in a case that there is one or more beams whose signal quality is higher than a preset threshold, determining (S402b) a signal quality of the cell based on an average value of the signal quality of the one or more beams; and in a case that there is no beam whose signal quality is higher than the preset threshold, determining (S402c) the signal quality of the cell as a signal quality of a beam who has the highest signal quality, wherein the beam who has the highest signal quality is the beam whose signal quality has a smallest difference from the preset threshold.
A method comprising, receiving location information from each of a plurality of nodes (110, 112, 114, 210, 220, 230, 240, 245) in a network, the plurality of nodes including at least one node that is moving relative to another node of the network; converting the received location information for each node into a corresponding network address, the corresponding network address being based on a hierarchical cell-based partitioning scheme; identifying, by one or more processors of a network controller, a target region for a given node of the network based on a plurality of routing paths, the target region encompassing two or more nodes in the network that are next hops for the given node and that have a common segment in the corresponding network addresses, wherein the two or more nodes in the target region includes a moving node; and sending, by the one or more processors of the network controller, one or more forwarding rules to one or more nodes in the network, the one or more forwarding rules including the common segment to identify the next hops for the given node; receiving new location information for the moving node; determining a new network address for the moving node based on the new location information; and when the new network address does not have the common segment, sending, by the one or more processors of the network controller, the new network address to the moving node. receiving location information from each of a plurality of nodes (110, 112, 114, 210, 220, 230, 240, 245) in a network, the plurality of nodes including at least one node that is moving relative to another node of the network; converting the received location information for each node into a corresponding network address, the corresponding network address being based on a hierarchical cell-based partitioning scheme; identifying, by one or more processors of a network controller, a target region for a given node of the network based on a plurality of routing paths, the target region encompassing two or more nodes in the network that are next hops for the given node and that have a common segment in the corresponding network addresses, wherein the two or more nodes in the target region includes a moving node; and sending, by the one or more processors of the network controller, one or more forwarding rules to one or more nodes in the network, the one or more forwarding rules including the common segment to identify the next hops for the given node; receiving new location information for the moving node; determining a new network address for the moving node based on the new location information; and when the new network address does not have the common segment, sending, by the one or more processors of the network controller, the new network address to the moving node.
A method for determining by mass spectrometry the amount of an analyte in a sample, said analyte comprising at least one selected from the group consisting of pregnenolone and 17-hydroxypregnenolone (17-OH pregnenolone), the method comprising: subjecting the sample to an ionization source to ionize the analyte to produce one or more ions detectable by mass spectrometry, wherein the one or more ions from pregnenolone or 17-OH pregnenolone comprise one or more fragment ions with a mass to charge ratio of 105.6 ± 0.5 or 91.1 ± 0.5; determining the amounts of one or more ions by tandem mass spectrometry; and using the amounts of the one or more ions to determine the amount of said analyte in the sample. subjecting the sample to an ionization source to ionize the analyte to produce one or more ions detectable by mass spectrometry, wherein the one or more ions from pregnenolone or 17-OH pregnenolone comprise one or more fragment ions with a mass to charge ratio of 105.6 ± 0.5 or 91.1 ± 0.5; determining the amounts of one or more ions by tandem mass spectrometry; and using the amounts of the one or more ions to determine the amount of said analyte in the sample.
A method for guiding of a trailer truck motor vehicle on the basis of image data, toward a docking station by a docking controller (15, 30) coupled to a steering system, comprising: identifying, by the docking controller (15, 30) the vehicle's current position, characterized in that the method further comprises: planning a collision free path; and maneuvering the vehicle by said docking controller (15, 30) according to said free path by orienting the trailer through control of an articulation angle defining a relative angle between a trailer and a truck, wherein the vehicle's current position is identified by means of an off board vehicle scanner (10, 20) that is mounted in a fixed position relative to the docking station; wherein said vehicle scanner (10, 20) produces scan data signifying a set that are analyzed to identify a reference point of the vehicle and a vehicle's orientation; wherein said reference point and vehicle orientation are transmitted to the docking controller (15, 30) to update the vehicle's current position, and feeding the docking controller (15, 30) with the reference point location and vehicle orientation.
A lamp unit configured to be mounted in a vehicle, comprising: a light source; a light source mounting portion on which the light source is mounted; and a projection lens having a front surface with a convex shape and configured to project light from the light source to the front of the lamp unit, wherein an outline of the front surface of the projection lens which bounds a cross section which is parallel to a plane which contains a full circumference of a rear end portion of the front surface, takes a substantially circular shape in a position which lies close to a front end portion of the front surface and a substantially non-circular shape at the rear end portion of the front surface, the outline changing gradually its shape from the substantially circular shape to the substantially non-circular shape as it changes its position from the position towards the rear end portion, characterized in that the substantially non-circular shape is a polygonal shape, and in that the front surface of the projection lens has ridges in the region defined from the rear end portion of the front surface to the position which lies close to the front end portion of the front surface and has no ridge in the region defined from the position which lies close to the front end portion of the front surface to the front end portion of the front surface. a light source; a light source mounting portion on which the light source is mounted; and a projection lens having a front surface with a convex shape and configured to project light from the light source to the front of the lamp unit, wherein an outline of the front surface of the projection lens which bounds a cross section which is parallel to a plane which contains a full circumference of a rear end portion of the front surface, takes a substantially circular shape in a position which lies close to a front end portion of the front surface and a substantially non-circular shape at the rear end portion of the front surface, the outline changing gradually its shape from the substantially circular shape to the substantially non-circular shape as it changes its position from the position towards the rear end portion, characterized in that the substantially non-circular shape is a polygonal shape, and in that the front surface of the projection lens has ridges in the region defined from the rear end portion of the front surface to the position which lies close to the front end portion of the front surface and has no ridge in the region defined from the position which lies close to the front end portion of the front surface to the front end portion of the front surface.
A method of enhancing growth of a plant comprising administering a liquid composition treatment comprising a culture of Chlorella to soil of the plant, the composition comprising whole pasteurized Chlorella cells, wherein the composition is administered in a concentration in the range of 0.003-0.080% solids by weight.
A bill processor comprising: a stacking unit where bills are stacked, and which has an upper space and a top wall that forms an upper edge of the upper space; a delivery unit that substantially horizontally delivers bills one by one to the upper space of the stacking unit; a striking and dropping unit (52, 53) that strikes and drops the trailing edge of a delivered bill in its delivery direction; a regulating member (70, 80A, 80B) that engages the bill delivered to the upper space of the stacking unit at the leading edge of the bill in its delivery direction; and a position changing mechanism (71, 81, 84)) that changes the position of the regulating member (70, 80A, 80B) in the delivery direction according to the length of the bill in the delivery direction, characterized in that the top wall is formed in a upwardly inclined posture that ascends from an end of the top wall at a striking and dropping unit (52, 53) side towards the front side in the delivery direction of the bill, and the bill is delivered along the top wall from the delivery unit. a stacking unit where bills are stacked, and which has an upper space and a top wall that forms an upper edge of the upper space; a delivery unit that substantially horizontally delivers bills one by one to the upper space of the stacking unit; a striking and dropping unit (52, 53) that strikes and drops the trailing edge of a delivered bill in its delivery direction; a regulating member (70, 80A, 80B) that engages the bill delivered to the upper space of the stacking unit at the leading edge of the bill in its delivery direction; and a position changing mechanism (71, 81, 84)) that changes the position of the regulating member (70, 80A, 80B) in the delivery direction according to the length of the bill in the delivery direction, characterized in that the top wall is formed in a upwardly inclined posture that ascends from an end of the top wall at a striking and dropping unit (52, 53) side towards the front side in the delivery direction of the bill, and the bill is delivered along the top wall from the delivery unit.
Air-cooled welding or cutting torch, in particular manual welding torch and/or protective gas welding torch, comprising a conveying device, in particular a fan or a compressor, which conveys ambient air as cooling air through at least one cooling channel of the welding or cutting torch, characterized in that the conveying device is at least in part arranged at and/or in a handle of the welding or cutting torch.
A communication system comprising: a first unit; and a second unit communicatively coupled to the first unit; wherein the first unit is operable to receive a first original radio frequency signal from an upstream device (101A, 101B) via a first interface (116A, 116B) and the second unit is operable to receive a second original radio frequency signal from a downstream device via a second interface (661A, 661B), the second interface configured as a time-division duplex interface for time-division duplex communication between the second unit and the downstream device; wherein the second unit is operable to output a first reproduced radio frequency signal via the second interface, the first reproduced radio frequency signal being derived from the first original radio frequency signal; wherein the first unit is operable to output a second reproduced radio frequency signal via one of the first interface and a third interface, the second reproduced radio frequency signal being derived from the second original radio frequency signal; wherein the first interface is operable as a simplex interface when the second reproduced radio frequency signal is output via the third interface (117A, 117B) and as a time-division duplex interface when the second reproduced radio frequency signal is output via the first interface. a first unit; and a second unit communicatively coupled to the first unit; wherein the first unit is operable to receive a first original radio frequency signal from an upstream device (101A, 101B) via a first interface (116A, 116B) and the second unit is operable to receive a second original radio frequency signal from a downstream device via a second interface (661A, 661B), the second interface configured as a time-division duplex interface for time-division duplex communication between the second unit and the downstream device; wherein the second unit is operable to output a first reproduced radio frequency signal via the second interface, the first reproduced radio frequency signal being derived from the first original radio frequency signal; wherein the first unit is operable to output a second reproduced radio frequency signal via one of the first interface and a third interface, the second reproduced radio frequency signal being derived from the second original radio frequency signal; wherein the first interface is operable as a simplex interface when the second reproduced radio frequency signal is output via the third interface (117A, 117B) and as a time-division duplex interface when the second reproduced radio frequency signal is output via the first interface.
A method of manufacturing a structural component, comprising the steps of: applying an infrared-absorbent coating having an emissivity coefficient ranging from 0.8 ε to 0.98 ε to a surface of a substrate formed of a metal material, wherein the metal material of the substrate is selected from a ferrous-based material, aluminum-based material, magnesium-based material, and fiber reinforced composite material; heating the coated substrate with an infrared heat source; and forming the heated and coated substrate between a pair of dies, wherein the infrared-absorbent coating includes iron oxide (Fe 3 O 4) decorated multiwall carbon nanotubes. applying an infrared-absorbent coating having an emissivity coefficient ranging from 0.8 ε to 0.98 ε to a surface of a substrate formed of a metal material, wherein the metal material of the substrate is selected from a ferrous-based material, aluminum-based material, magnesium-based material, and fiber reinforced composite material; heating the coated substrate with an infrared heat source; and forming the heated and coated substrate between a pair of dies, wherein the infrared-absorbent coating includes iron oxide (Fe 3 O 4) decorated multiwall carbon nanotubes.
A method of manufacturing a folded camera, comprising: providing an optical path folding element OPFE section with an OPFE for folding an optical path from a first direction to a second direction, the OPFE section having an OPFE height H P in the first direction; providing a lens section between the OPFE and an image sensor, the lens section having a lens section height H L in the first direction, providing a back focal length BFL section between the lens section and the image sensor, the BFL section having a BFL section height H BFL in the first direction; and characterized in that a bottom external surface of the OPFE section, the lens section and the BFL section are substantially coplanar such that the folded camera has H BFL < H L and such that a top external surface of the lens section and a top external surface of the BFL section are not coplanar. providing an optical path folding element OPFE section with an OPFE for folding an optical path from a first direction to a second direction, the OPFE section having an OPFE height H P in the first direction; providing a lens section between the OPFE and an image sensor, the lens section having a lens section height H L in the first direction, providing a back focal length BFL section between the lens section and the image sensor, the BFL section having a BFL section height H BFL in the first direction; and characterized in that a bottom external surface of the OPFE section, the lens section and the BFL section are substantially coplanar such that the folded camera has H BFL < H L and such that a top external surface of the lens section and a top external surface of the BFL section are not coplanar.