mhurhangee/ep-ind-claims huggingface dataset:
An antenna arrangement (100a, 200b-f) comprising - an even number E>3 of antenna elements (210, 210'), each of the antenna elements, except for a first antenna element, being connected to a respective steerable phase shifter, - a number C=(E/2)*(E/2+1)/2 of hybrid couplers stacked in E/2 tiers of a pyramid distribution network, wherein a bottommost tier comprises E/2 hybrid couplers and each of at least one overlaying tier comprises one less hybrid coupler than a tier immediately below the at least one overlaying tier, each of the hybrid couplers being configured with first, second, third, and fourth ports configured to have a single connection, and - a number of E antenna arrangement ports configured as an interface to the antenna arrangement (100a, 200b-f), wherein - the first and second hybrid coupler ports of the bottommost tier of hybrid couplers are connected to a respective antenna arrangement port, and - each of the first and second ports of hybrid couplers in the at least one overlaying tier being connected to respective third or fourth ports of hybrid couplers in the tier immediately below, such that each hybrid coupler in the at least one overlaying tier is connected to two different hybrid couplers in the tier immediately below, wherein - remaining unconnected third or fourth hybrid coupler ports being connected directly to the first antenna element or to one of the other antenna elements via the corresponding phase shifter such that each antenna element is connected directly or indirectly via a phase shifter to a single hybrid coupler port. - an even number E>3 of antenna elements (210, 210'), each of the antenna elements, except for a first antenna element, being connected to a respective steerable phase shifter, - a number C=(E/2)*(E/2+1)/2 of hybrid couplers stacked in E/2 tiers of a pyramid distribution network, wherein a bottommost tier comprises E/2 hybrid couplers and each of at least one overlaying tier comprises one less hybrid coupler than a tier immediately below the at least one overlaying tier, each of the hybrid couplers being configured with first, second, third, and fourth ports configured to have a single connection, and - a number of E antenna arrangement ports configured as an interface to the antenna arrangement (100a, 200b-f), wherein - the first and second hybrid coupler ports of the bottommost tier of hybrid couplers are connected to a respective antenna arrangement port, and - each of the first and second ports of hybrid couplers in the at least one overlaying tier being connected to respective third or fourth ports of hybrid couplers in the tier immediately below, such that each hybrid coupler in the at least one overlaying tier is connected to two different hybrid couplers in the tier immediately below, wherein - remaining unconnected third or fourth hybrid coupler ports being connected directly to the first antenna element or to one of the other antenna elements via the corresponding phase shifter such that each antenna element is connected directly or indirectly via a phase shifter to a single hybrid coupler port.
A pre-moistened wipe comprising: a sheet-like substrate: and a wiping solution contained in the substrate, the wiping solution comprising an odor control agent, the odor control agent comprising inorganic oxide particles modified with a transition metal and which have a surface area of from 25 m 2 /g to 150 m 2 /g; the wiping solution containing at least one surfactant selected from a polyoxyethylene sorbitan monolaurate, glycerin, lauric acid, castor oil, myristic acid, oleic acid, stearyl alcohol, cetyl alcohol, potassium laureth phosphate, capric acid, stearic acid, erucic acid, or mixtures thereof; the wiping solution being free of cationic surfactants; the wiping solution further comprising a carrier comprising water or an alcohol; the odor control agent being present in the substrate in an amount of at least about 80 mg or of at least about 2% by weight based on the dry weight of the substrate. a sheet-like substrate: and a wiping solution contained in the substrate, the wiping solution comprising an odor control agent, the odor control agent comprising inorganic oxide particles modified with a transition metal and which have a surface area of from 25 m 2 /g to 150 m 2 /g; the wiping solution containing at least one surfactant selected from a polyoxyethylene sorbitan monolaurate, glycerin, lauric acid, castor oil, myristic acid, oleic acid, stearyl alcohol, cetyl alcohol, potassium laureth phosphate, capric acid, stearic acid, erucic acid, or mixtures thereof; the wiping solution being free of cationic surfactants; the wiping solution further comprising a carrier comprising water or an alcohol; the odor control agent being present in the substrate in an amount of at least about 80 mg or of at least about 2% by weight based on the dry weight of the substrate.
An air compressor comprising: a compression mechanism including a cylinder to generate compressed air; a motor provided to drive the compression mechanism; an inverter board including an inverter to control a rotation of the motor; two elongated tanks (23, 24) provided to store the compressed air generated by the cylinder; and a fan rotated by the motor to supply cooling air, wherein the tanks (23, 24) are arranged below the cylinder and the motor, characterized in that the inverter board is arranged between the cylinder and the tanks (23, 24) such that the inverter board is arranged below the cylinder and above the tanks (23, 24) and such that the inverter board is not interposed between the tanks (23, 24). a compression mechanism including a cylinder to generate compressed air; a motor provided to drive the compression mechanism; an inverter board including an inverter to control a rotation of the motor; two elongated tanks (23, 24) provided to store the compressed air generated by the cylinder; and a fan rotated by the motor to supply cooling air, wherein the tanks (23, 24) are arranged below the cylinder and the motor, characterized in that the inverter board is arranged between the cylinder and the tanks (23, 24) such that the inverter board is arranged below the cylinder and above the tanks (23, 24) and such that the inverter board is not interposed between the tanks (23, 24).
A method of loading information into a slave processor in a multi-processor system that includes a master processor and the slave processor, the information including a bootloader, comprising the steps of: resetting the slave processor and holding the slave processor in a reset state; pushing a first part of the information into a first memory that is accessible by the master processor and the slave processor, the first part of the information including the bootloader; booting the slave processor; starting an operating system in the slave processor, including blocking scheduling of processes having program code located in a second memory that is accessible by the slave processor and inaccessible by the master processor; reserving an intermediate storage area in the first memory; loading the intermediate storage area with a second part of the information to be loaded into the second memory; indicating to the slave processor that the intermediate storage area has been loaded; copying information in the intermediate storage area to the second memory; indicating to the master processor that that information in the intermediate storage area has been copied; and releasing the blocking of scheduling of processes having program code located in the second memory. resetting the slave processor and holding the slave processor in a reset state; pushing a first part of the information into a first memory that is accessible by the master processor and the slave processor, the first part of the information including the bootloader; booting the slave processor; starting an operating system in the slave processor, including blocking scheduling of processes having program code located in a second memory that is accessible by the slave processor and inaccessible by the master processor; reserving an intermediate storage area in the first memory; loading the intermediate storage area with a second part of the information to be loaded into the second memory; indicating to the slave processor that the intermediate storage area has been loaded; copying information in the intermediate storage area to the second memory; indicating to the master processor that that information in the intermediate storage area has been copied; and releasing the blocking of scheduling of processes having program code located in the second memory.
A pharmaceutical composition for use as a medicament, wherein the pharmaceutical composition is orally administered, and wherein the pharmaceutical composition comprises a superoxide dismutase produced by a Bacillus amyloliquefaciens GF423 strain which has been internationally deposited with the Korean Collection for Type Culture (KCTC) under accession number KCTC 13222BP, wherein the superoxide dismutase comprises an amino acid sequence of SEQ ID NO: 2. the pharmaceutical composition is orally administered, and wherein the pharmaceutical composition comprises a superoxide dismutase produced by a Bacillus amyloliquefaciens GF423 strain which has been internationally deposited with the Korean Collection for Type Culture (KCTC) under accession number KCTC 13222BP, wherein the superoxide dismutase comprises an amino acid sequence of SEQ ID NO: 2.
A coating composition comprising: an in-store tintable liquid base paint formulation comprising a multistage latex polymer having at least a first stage with a Tg of greater than 0 to 120°C and at least a second stage with a Tg of -35 to 0°C; and up to 0.5 wt% fluorosurfactant, based on the total weight of the multistage latex composition; and 0.05 to 15 wt%, based on the weight of the base paint formulation, of one or more colorant compositions having volatile organic content of less than 5 g/L, which colorants are added to the base paint formulation at a point-of-sale to achieve a desired color, wherein the coating composition has scrub resistance of at least 600 scrubs tested using ASTM D2486-96, and wherein the coating composition does not contain more than 5 wt% coalescing agent. an in-store tintable liquid base paint formulation comprising a multistage latex polymer having at least a first stage with a Tg of greater than 0 to 120°C and at least a second stage with a Tg of -35 to 0°C; and up to 0.5 wt% fluorosurfactant, based on the total weight of the multistage latex composition; and a multistage latex polymer having at least a first stage with a Tg of greater than 0 to 120°C and at least a second stage with a Tg of -35 to 0°C; and up to 0.5 wt% fluorosurfactant, based on the total weight of the multistage latex composition; and 0.05 to 15 wt%, based on the weight of the base paint formulation, of one or more colorant compositions having volatile organic content of less than 5 g/L, which colorants are added to the base paint formulation at a point-of-sale to achieve a desired color,
In combination a wear indicator and a component of a gas turbine engine, wherein the wear indicator is secured to a surface of the component of the gas turbine engine, the wear indicator comprising: a first component including: a first plate; a second plate opposite the first plate; a plurality of wires extending from first plate to the second plate, wherein the first plate is electrically connected to the second plate through the plurality of wires; and a non-conductive potting material configured to partially fill the first component and fill voids between the plurality of wires, such that the plurality of wires are electrically insulated from each other by the non-conductive potting material; wherein the first plate and the second plate are separated by a gap, the gap keeping the first plate electrically separate from the second plate. a first plate; a second plate opposite the first plate; a plurality of wires extending from first plate to the second plate, wherein the first plate is electrically connected to the second plate through the plurality of wires; and a non-conductive potting material configured to partially fill the first component and fill voids between the plurality of wires, such that the plurality of wires are electrically insulated from each other by the non-conductive potting material; wherein the first plate and the second plate are separated by a gap, the gap keeping the first plate electrically separate from the second plate.
Arrangement for coupling radio-frequency output signals that are provided for emission via a shared antenna arrangement, having a first and a second transmission unit (12, 14), which are each designed to produce from a digital input signal a radio-frequency output signal (18, 20) for emission via a shared antenna arrangement, and a coupling network that comprises two input networks (24, 26) for the radio-frequency output signals (18, 20) and an antenna-side output network for coupling to the shared antenna arrangement, wherein the input networks (24, 26) each comprise power splitters matched on the antenna side comprising impedances Z L and Z T, which, however, have no matching for the difference signals of the output signals on the corresponding other input network, so that a difference signal (30, 32) is reflected from the corresponding other input network, each transmission unit (12, 14) being designed such that it evaluates a received reflected difference signal (30, 32) and takes the evaluation as a basis for performing synchronization of the produced radio-frequency output signal (18, 20) such that the power of the received reflected difference signal (30, 32) is almost minimized.
Prefabricated building product structure made of sintered expanded polystyrene, in particular a panel, comprising a composite assembly formed by aggregating steel reinforcement means to a sintered expanded polymeric mass of the high density type, wherein inside the sintered expanded polymeric mass a pre-assembled inner reinforcement cage is embedded constituted by twinned nettings (3, 4) which are mutually joined by a plurality of crosspieces.
Door component with at least one controllable damper device containing a magnetorheological fluid as the working fluid, comprising two connecting units (51, 52) movable relative to one another, one of the two connecting units (51, 52) being provided for connecting with a supporting structure and the other of the two connecting units (51, 52), with a rotatable door device in particular of a vehicle, to at least partially control the damping of a movement of the door between a closed position and an open position by means of a control device, the damper device comprising at least one magnetorheological damping valve which is electrically adjustable and maintains its set state currentless, to permanently set a damping characteristic of the damper device as needed by way of electrically setting the damping valve, wherein the control device is set up and configured to set the damping valve in the closed position of the door to a currentless effective weak damping, characterized in that the control device is set up and configured to set the damping valve in an open position of the door device to a currentless effective strong damping upon expiry of a predetermined time interval.
Apparatus for positioning at least one optical element, wherein the apparatus comprises at least one movable carrier for holding the optical element, at least one fixed support portion for supporting the carrier, connecting means for connecting the carrier and the support portion, and actuating means for creating forces to influence the relative position of the carrier to the support portion, characterized in that the connecting means comprise - at least one retention device for applying tension force between the carrier and the support portion and - at least one bearing, wherein the bearing comprises o a first bearing magnet, wherein at least a part of the surface of the first bearing magnet has the shape of a partial sphere and o a second bearing magnet, wherein at least part of the surface of the second bearing magnet has the shape of a partial hollow sphere for at least partially receiving the partial sphere surface of the first bearing magnet, wherein the first and second bearing magnets (311, 312) are permanent magnets and are arranged such that the opposing magnet poles of the first and second bearing magnet (311, 312) are facing each other in that an air gap forms the distance between the first and the second bearing magnets (311, 312) and in that the tension force is opposed to the repelling forces acting between the two bearing magnets (311, 312). - at least one retention device for applying tension force between the carrier and the support portion and - at least one bearing, wherein the bearing comprises o a first bearing magnet, wherein at least a part of the surface of the first bearing magnet has the shape of a partial sphere and o a second bearing magnet, wherein at least part of the surface of the second bearing magnet has the shape of a partial hollow sphere for at least partially receiving the partial sphere surface of the first bearing magnet, o a first bearing magnet, wherein at least a part of the surface of the first bearing magnet has the shape of a partial sphere and o a second bearing magnet, wherein at least part of the surface of the second bearing magnet has the shape of a partial hollow sphere for at least partially receiving the partial sphere surface of the first bearing magnet,
A method for preparing a black liquor, the method comprising: digesting a tobacco raw material under an alkaline condition; separating the obtained digesting product into a black liquor and a tobacco fiber to obtain the black liquor containing a flavor component usable in a tobacco product; and neutralizing the digesting product after the digestion or the black liquor after the separating. digesting a tobacco raw material under an alkaline condition; separating the obtained digesting product into a black liquor and a tobacco fiber to obtain the black liquor containing a flavor component usable in a tobacco product; and neutralizing the digesting product after the digestion or the black liquor after the separating.
Hand-guided working apparatus, preferably a hand-guided garden or forestry working apparatus, comprising - a radial fan which has a fan impeller and an air duct, said air duct comprising a spiral portion surrounding the fan impeller and having a duct cross section (Qk) which increases in air flow direction and an outlet funnel portion which adjoins the spiral portion, widens in a funnel shape in air flow direction, and has a radially inner boundary wall and a radially outer boundary wall, wherein the outlet funnel portion ends in an air outlet opening, an outlet width of the air outlet opening being smaller than an outside diameter (Dg) of the fan impeller, - wherein the radially inner and/or the radially outer boundary wall (4a, 4b) of the outlet funnel portion have/has a curvature opposed to that of the spiral portion, and - wherein an intermediate wall is arranged in the outlet funnel portion, between the radially inner and the radially outer boundary wall (4a, 4b), the intermediate wall extending with a curvature opposed to that of the spiral portion and dividing the outlet funnel portion into two component portions (8a, 8b), each widening in the shape of a funnel in the air flow direction. - a radial fan which has a fan impeller and an air duct, said air duct comprising a spiral portion surrounding the fan impeller and having a duct cross section (Qk) which increases in air flow direction and an outlet funnel portion which adjoins the spiral portion, widens in a funnel shape in air flow direction, and has a radially inner boundary wall and a radially outer boundary wall, wherein the outlet funnel portion ends in an air outlet opening, an outlet width of the air outlet opening being smaller than an outside diameter (Dg) of the fan impeller, - wherein the radially inner and/or the radially outer boundary wall (4a, 4b) of the outlet funnel portion have/has a curvature opposed to that of the spiral portion, and - wherein an intermediate wall is arranged in the outlet funnel portion, between the radially inner and the radially outer boundary wall (4a, 4b), the intermediate wall extending with a curvature opposed to that of the spiral portion and dividing the outlet funnel portion into two component portions (8a, 8b), each widening in the shape of a funnel in the air flow direction.
A method for manufacturing an aluminum alloy member, comprising the steps of: an extrusion step of heating an aluminum (Al) alloy containing: (a) magnesium (Mg) at 1.6% by mass or more and 2.6% by mass or less, (b) zinc (Zn) at 6.0% by mass or more and 7.0% by mass or less, (c) copper (Cu) or silver (Ag) at 0.5% by mass or less, wherein a total amount of copper (Cu) and silver (Ag) is 0.5% by mass or less, (d) titanium (Ti) at 0.01% by mass or more and 0.05% by mass or less, (e) optionally one kind or two or more kinds among manganese (Mn), chromium (Cr), and zirconium (Zr) at 0.15% by mass or more and 0.6% by mass or less in total, and (f) aluminum (Al) and inevitable impurities as the remainder at 400°C or higher and 500°C or lower so as to hot-extrude the aluminum alloy; a forming step of forming the hot-extruded aluminum alloy into a desired shape at a temperature of from 400°C or higher and 500°C or lower; and a cooling step of cooling the formed aluminum alloy at a cooling speed of 2°C/sec or more and 30°C/sec or less so as to obtain an aluminum alloy member. an extrusion step of heating an aluminum (Al) alloy containing: (a) magnesium (Mg) at 1.6% by mass or more and 2.6% by mass or less, (b) zinc (Zn) at 6.0% by mass or more and 7.0% by mass or less, (c) copper (Cu) or silver (Ag) at 0.5% by mass or less, wherein a total amount of copper (Cu) and silver (Ag) is 0.5% by mass or less, (d) titanium (Ti) at 0.01% by mass or more and 0.05% by mass or less, (e) optionally one kind or two or more kinds among manganese (Mn), chromium (Cr), and zirconium (Zr) at 0.15% by mass or more and 0.6% by mass or less in total, and (f) aluminum (Al) and inevitable impurities as the remainder (a) magnesium (Mg) at 1.6% by mass or more and 2.6% by mass or less, (b) zinc (Zn) at 6.0% by mass or more and 7.0% by mass or less, (c) copper (Cu) or silver (Ag) at 0.5% by mass or less, wherein a total amount of copper (Cu) and silver (Ag) is 0.5% by mass or less, (d) titanium (Ti) at 0.01% by mass or more and 0.05% by mass or less, (e) optionally one kind or two or more kinds among manganese (Mn), chromium (Cr), and zirconium (Zr) at 0.15% by mass or more and 0.6% by mass or less in total, and (f) aluminum (Al) and inevitable impurities as the remainder at 400°C or higher and 500°C or lower so as to hot-extrude the aluminum alloy; a forming step of forming the hot-extruded aluminum alloy into a desired shape at a temperature of from 400°C or higher and 500°C or lower; and a cooling step of cooling the formed aluminum alloy at a cooling speed of 2°C/sec or more and 30°C/sec or less so as to obtain an aluminum alloy member.