mhurhangee/ep-ind-claims huggingface dataset:
Composition comprising phytic acid or any of its salts and magnesium in the form of salt, hydroxide or oxide for use in the treatment of renal lithiasis in a patient, wherein the renal lithiasis is oxalocalcium renal lithiasis and wherein the oxalocalcium renal lithiasis is related with the crystallization of calcium oxalate; and wherein the magnesium is in a form that is selected from magnesium oxide, magnesium hydroxide, magnesium citrate, magnesium stearate, magnesium carbonate, magnesium chloride and magnesium sulfate; and wherein the composition synergistically inhibits crystallisation of calcium oxalate
A tunable fluid flow control system for controlling combustion dynamics in a combustor, the system comprising: a fuel supply path comprising; an inlet portion; a first diverted portion having a first length and a first diameter extending from the inlet portion; a second diverted portion having a second length different from the first length and a second diameter different from the first diameter extending from the inlet portion and spaced apart from the first diverted portion; wherein the second diverted portion and the first diverted portion converge at a merging location; and an exit portion coupled to the merging location of the first and second portions (28, 30); and at least one flow regulation device (36, 38, 44) coupled to the inlet portion and configured to divert fuel flow to the first and second diverted portions (28, 30) alternately to generate fuel flow perturbations at the merging location. a fuel supply path comprising; an inlet portion; a first diverted portion having a first length and a first diameter extending from the inlet portion; a second diverted portion having a second length different from the first length and a second diameter different from the first diameter extending from the inlet portion and spaced apart from the first diverted portion; wherein the second diverted portion and the first diverted portion converge at a merging location; and an exit portion coupled to the merging location of the first and second portions (28, 30); and at least one flow regulation device (36, 38, 44) coupled to the inlet portion and configured to divert fuel flow to the first and second diverted portions (28, 30) alternately to generate fuel flow perturbations at the merging location.
A method of shielding an integrated circuit device from a radiation, comprising: forming a cavity in a base; forming a canal in the base, said canal surrounding said cavity; forming a radiation shielding coating layer on the bottom of the cavity in the base; forming a side radiation shielding coating layer by filling the canal; coupling the integrated circuit device to the radiation shielding coating layer; and coupling a radiation shielding top to the top of the base, wherein said radiation shielding coating layer, said side radiation shielding coating layer and said radiation shielding top each shield the integrated circuit device from x-rays, such that there is no line of sight angle at which x rays could reach the integrated circuit device. forming a cavity in a base; forming a canal in the base, said canal surrounding said cavity; forming a radiation shielding coating layer on the bottom of the cavity in the base; forming a side radiation shielding coating layer by filling the canal; coupling the integrated circuit device to the radiation shielding coating layer; and coupling a radiation shielding top to the top of the base, wherein said radiation shielding coating layer, said side radiation shielding coating layer and said radiation shielding top each shield the integrated circuit device from x-rays, such that there is no line of sight angle at which x rays could reach the integrated circuit device.
Method for producing a granulate, comprising the steps of: i) suspending and/or at least partially dissolving lactose in a liquid selected from water or an organic solvent, and ii) atomising the solution or suspension obtained in i) in an environment at a temperature of from 30 - 250 °C onto cellulose-derivative particles and optionally lactose particles, the liquid being at least partially removed. i) suspending and/or at least partially dissolving lactose in a liquid selected from water or an organic solvent, and ii) atomising the solution or suspension obtained in i) in an environment at a temperature of from 30 - 250 °C onto cellulose-derivative particles and optionally lactose particles, the liquid being at least partially removed.
A powertrain system comprising: a combustion engine including an intake manifold and an exhaust manifold; a crankshaft driven by the engine; a turbo-compounding system configured to drive the crankshaft, the turbo-compounding system including a first turbine and a first drive system, the first turbine having an inlet fluidly communicating with the exhaust manifold, the first drive system having an input shaft driven by the first turbine, and an output shaft engaged with the crankshaft, the first drive system configured to drive the output shaft at more than one drive ratio relative to the input shaft, wherein the turbo-compounding system includes a turbocharger having an inlet in fluid communication with an outlet of the first turbine, wherein the turbocharger includes a second turbine and a first compressor, the second turbine being in fluid communication with the first turbine and drivingly engaged with the first compressor, and a supercharging system driven by the crankshaft, the first compressor including an outlet fluidly communicating with the supercharging system, characterized in that the supercharging system includes a second compressor and a second drive system which is different from the first drive system, the second drive system being driven by the crankshaft and configured to drive the second compressor. a combustion engine including an intake manifold and an exhaust manifold; a crankshaft driven by the engine; a turbo-compounding system configured to drive the crankshaft, the turbo-compounding system including a first turbine and a first drive system, the first turbine having an inlet fluidly communicating with the exhaust manifold, the first drive system having an input shaft driven by the first turbine, and an output shaft engaged with the crankshaft, the first drive system configured to drive the output shaft at more than one drive ratio relative to the input shaft, wherein the turbo-compounding system includes a turbocharger having an inlet in fluid communication with an outlet of the first turbine, wherein the turbocharger includes a second turbine and a first compressor, the second turbine being in fluid communication with the first turbine and drivingly engaged with the first compressor, and a supercharging system driven by the crankshaft, the first compressor including an outlet fluidly communicating with the supercharging system, characterized in that the supercharging system includes a second compressor and a second drive system which is different from the first drive system, the second drive system being driven by the crankshaft and configured to drive the second compressor.
A glass substrate comprising a glass composition comprising a base glass portion and a glass colorant portion, wherein the base glass portion is a soda-lime-silica base portion, comprising: SiO 2 65 to 75 weight percent, Na 2 O 10 to 20 weight percent, CaO 5 to 15 weight percent, MgO 0 to 5 weight percent, Al 2 O 3 0 to 5 weight percent, K 2 O 0 to 5 weight percent, and BaO 0 to 1 weight percent and the glass colorant portion consists of: - total iron, expressed as Fe 2 O 3, in the range of 0.04 to 0.28 weight percent; - CoO in the range of 32 to 90 parts per million; - Se in the range of 1 to 5.5 parts per million; and optionally at least one further colorant selected from Cr 2 O 3, MnO 2, Nd 2 O 3, NiO, TiO 2 and Er 2 O 3, wherein the ratio of CoO to Se, each expressed in parts per million, is equal to or greater than 6, wherein the weight percents and the parts per million are based on the final glass composition. - total iron, expressed as Fe 2 O 3, in the range of 0.04 to 0.28 weight percent; - CoO in the range of 32 to 90 parts per million; - Se in the range of 1 to 5.5 parts per million; and optionally at least one further colorant selected from Cr 2 O 3, MnO 2, Nd 2 O 3, NiO, TiO 2 and Er 2 O 3, wherein the ratio of CoO to Se, each expressed in parts per million, is equal to or greater than 6,
An operating table comprising: a table panel (6, 7, 8, 9), a pad (10, 11, 12, 13) covering at least a portion of an upper face of the table panel (6, 7, 8, 9), and a first micro suction foil configured to be sandwiched between the upper face of the table panel (6, 7, 8, 9) and the pad (10, 11, 12, 13) to attach the pad (10, 11, 12, 13) to the upper face of the table panel (6, 7, 8, 9), characterized in that the operating table comprises a further micro suction foil configured to be sandwiched between the first micro suction foil and the upper face of the table panel (6, 7, 8, 9) or the pad (10, 11, 12, 13) to attach the pad (10, 11, 12, 13) to the upper face of the table panel (6, 7, 8, 9), the further micro suction foil at least partially overlapping the first micro suction foil. a table panel (6, 7, 8, 9), a pad (10, 11, 12, 13) covering at least a portion of an upper face of the table panel (6, 7, 8, 9), and a first micro suction foil configured to be sandwiched between the upper face of the table panel (6, 7, 8, 9) and the pad (10, 11, 12, 13) to attach the pad (10, 11, 12, 13) to the upper face of the table panel (6, 7, 8, 9), characterized in that the operating table comprises a further micro suction foil configured to be sandwiched between the first micro suction foil and the upper face of the table panel (6, 7, 8, 9) or the pad (10, 11, 12, 13) to attach the pad (10, 11, 12, 13) to the upper face of the table panel (6, 7, 8, 9), the further micro suction foil at least partially overlapping the first micro suction foil.
A hybrid low power network device, comprising: a first radio (202, 204) configured to provide client devices (104, 106) wireless access to a network using a SU-MIMO protocol; a second radio (202, 204) configured to provide the client devices wireless access to the network using a MU-MIMO protocol; a radio management system configured to assign a first client device of the client devices to the first radio or to the second radio; and a plurality of Ethernet ports; wherein each of the plurality of Ethernet ports is configured to provide power to the hybrid low power network device and to allow at least one of the first radio and the second radio to communicate with the network; characterized by: a power control engine configured to disable the first radio or the second radio based on a power consumption level of the hybrid low power network device. a first radio (202, 204) configured to provide client devices (104, 106) wireless access to a network using a SU-MIMO protocol; a second radio (202, 204) configured to provide the client devices wireless access to the network using a MU-MIMO protocol; a radio management system configured to assign a first client device of the client devices to the first radio or to the second radio; and a plurality of Ethernet ports; wherein each of the plurality of Ethernet ports is configured to provide power to the hybrid low power network device and to allow at least one of the first radio and the second radio to communicate with the network;
An odor adsorbing pad for collecting animal waste, comprising fibers coated or impregnated with micronutrients in an amount between 0.1% to 25% by weight, wherein: said micronutrients comprise an inorganic salt and a trace metal, wherein the inorganic salt is selected from the group consisting of ferric chloride, ferrous chloride, calcium chloride, ammonium molybdate, nickel chloride, copper sulfate, cobalt chloride or zinc sulfate, wherein the trace metal is selected from the group consisting of iron, magnesium, calcium, copper, zinc, nickel, cobalt, molybdenum, selenium and tungsten, said pad has a pad thickness and a surface for receipt of animal waste, characterized in that said micronutrients are uniformly distributed across said surface and at a thickness of 1.0% to 20.0% of said pad thickness, and said micronutrients promote the growth of bacteria that metabolize waste by aerobic respiration and/or anaerobic respiration. said micronutrients comprise an inorganic salt and a trace metal, wherein the inorganic salt is selected from the group consisting of ferric chloride, ferrous chloride, calcium chloride, ammonium molybdate, nickel chloride, copper sulfate, cobalt chloride or zinc sulfate, wherein the trace metal is selected from the group consisting of iron, magnesium, calcium, copper, zinc, nickel, cobalt, molybdenum, selenium and tungsten, said pad has a pad thickness and a surface for receipt of animal waste, characterized in that said micronutrients are uniformly distributed across said surface and at a thickness of 1.0% to 20.0% of said pad thickness, and said micronutrients promote the growth of bacteria that metabolize waste by aerobic respiration and/or anaerobic respiration.
A phthalonitrile resin comprising a polymerized unit derived from a compound of Formula 1 below: wherein, A is an alkylene group or an alkylidene group, having 1 to 20 carbon atoms, Q 1 and Q 2 are an aromatic divalent radical substituted with at least one alkyl group, L 1 and L 2 are each independently an alkylene group, an alkylidene group, an oxygen atom or a sulfur atom, R 1 to R 10 are each independently hydrogen, an alkyl group, an alkoxy group, an aryl group or a cyano group, provided that at least two of R 1 to R 5 are a cyano group and at least two of R 6 to R 10 are a cyano group wherein Q 1 and Q 2 in Formula 1 are each independently a radical derived from an aromatic compound of Formula 2 below: wherein, R a to R f are each independently hydrogen, an alkyl group, an alkoxy group or an aryl group, where two of R a to R f form a covalent bond, provided that any one of two forming said covalent bond forms a covalent bond with L 1 or L 2 in Formula 1 and the other forms a covalent bond with A in Formula 1, and at least one of the substituents not forming said covalent bond among R a to R f is an alkyl group: wherein the substituent present in the para position on the basis of the substituent forming a covalent bond with A in Formula 1 among R a to R f in Formula 2 forms a covalent bond with L 1 or L 2 in Formula 1; and wherein two substituents present in the meta position on the basis of the substituent forming a covalent bond with A in Formula 1 among R a to R f in Formula 2 are an alkyl group having 1 to 4 carbon atoms. wherein, A is an alkylene group or an alkylidene group, having 1 to 20 carbon atoms, Q 1 and Q 2 are an aromatic divalent radical substituted with at least one alkyl group, L 1 and L 2 are each independently an alkylene group, an alkylidene group, an oxygen atom or a sulfur atom, R 1 to R 10 are each independently hydrogen, an alkyl group, an alkoxy group, an aryl group or a cyano group, provided that at least two of R 1 to R 5 are a cyano group and at least two of R 6 to R 10 are a cyano group wherein Q 1 and Q 2 in Formula 1 are each independently a radical derived from an aromatic compound of Formula 2 below: wherein, R a to R f are each independently hydrogen, an alkyl group, an alkoxy group or an aryl group, where two of R a to R f form a covalent bond, provided that any one of two forming said covalent bond forms a covalent bond with L 1 or L 2 in Formula 1 and the other forms a covalent bond with A in Formula 1, and at least one of the substituents not forming said covalent bond among R a to R f is an alkyl group: wherein the substituent present in the para position on the basis of the substituent forming a covalent bond with A in Formula 1 among R a to R f in Formula 2 forms a covalent bond with L 1 or L 2 in Formula 1; and wherein two substituents present in the meta position on the basis of the substituent forming a covalent bond with A in Formula 1 among R a to R f in Formula 2 are an alkyl group having 1 to 4 carbon atoms.
A method comprising: at a middlebox element that executes on a physical host computer on which a plurality of virtual machines belonging to a plurality of logical networks also execute: receiving a data packet from a managed forwarding element that also executes on the physical host computer; removing a tag added to the data packet by the managed forwarding element; based on the tag, identifying one of a plurality of logical middleboxes implemented by the middlebox element, wherein different tags correspond to different logical middleboxes implemented by the middlebox element, wherein the different logical middleboxes belong to different logical networks; processing the data packet according to a configuration for the identified logical middlebox; and sending the processed data packet to the managed forwarding element. receiving a data packet from a managed forwarding element that also executes on the physical host computer; removing a tag added to the data packet by the managed forwarding element; based on the tag, identifying one of a plurality of logical middleboxes implemented by the middlebox element, wherein different tags correspond to different logical middleboxes implemented by the middlebox element, wherein the different logical middleboxes belong to different logical networks; processing the data packet according to a configuration for the identified logical middlebox; and sending the processed data packet to the managed forwarding element.
A stop element for a securing device for protecting persons from falling, - wherein the stop element is able to be attached releasably to a securing element and is able to be connected by means of a connecting element to the person who is to be secured, - wherein the stop element has at least one contact element on which the securing element comes to bear when the stop element is attached thereto, - wherein the stop element has a locking device, which is able to be shifted between an unlocking state, in which the stop element is able to be attached to the securing element and is releasable therefrom, and a locked state, in which the stop element is not releasable from the securing element, - wherein the locking device has an actuating device which is able to be shifted between an active position and a passive position, which in its active position blocks the locking device in its unlocked state and which through the attaching of the stop element to the securing element is able to be transferred into its passive position, in which it enables a shifting of the locking device into its locked state, characterized in that the contact element forms a component part of the actuating device, such that the actuating device is able to be shifted into its passive position through the contact of the securing element on the contact element. - wherein the stop element is able to be attached releasably to a securing element and is able to be connected by means of a connecting element to the person who is to be secured, - wherein the stop element has at least one contact element on which the securing element comes to bear when the stop element is attached thereto, - wherein the stop element has a locking device, which is able to be shifted between an unlocking state, in which the stop element is able to be attached to the securing element and is releasable therefrom, and a locked state, in which the stop element is not releasable from the securing element, - wherein the locking device has an actuating device which is able to be shifted between an active position and a passive position, which in its active position blocks the locking device in its unlocked state and which through the attaching of the stop element to the securing element is able to be transferred into its passive position, in which it enables a shifting of the locking device into its locked state,
A method for surface-modifying metal silicide, the method comprising: supplying silicon tetrachloride and inert gas to a modification reaction unit filled with metal silicide; modifying the surface of the metal silicide by heating the modification reaction unit to which the silicon tetrachloride and the inert gas are supplied; and cooling the surface-modified metal silicide while flowing the inert gas in the heated modification reaction unit. supplying silicon tetrachloride and inert gas to a modification reaction unit filled with metal silicide; modifying the surface of the metal silicide by heating the modification reaction unit to which the silicon tetrachloride and the inert gas are supplied; and cooling the surface-modified metal silicide while flowing the inert gas in the heated modification reaction unit.
An ultraviolet absorbing glass comprising (a) a base glass composition comprising in weight percent: SiO 2 50-60 B 2 O 3 17.5-22.0 Al 2 O 3 6.5-8.0 Li 2 O 3.5-5.5 Na 2 O 0.5-7.5 K 2 O 0.5-7.5 ZrO 2 2.0-7.0 TiO 2 0-2.0 and (b) an ultraviolet component comprising (i) copper oxide and (ii) a chloride source, a bromide source, or a combination thereof, wherein the amount of copper oxide is from 0.25 to 1.5 parts by weight per 100 parts by weight base composition; and the sum of the chloride derived from the chloride source, the bromide derived from the bromide source, or a combination thereof is from 0.2 to 4.0 parts by weight per 100 parts by weight base composition.
A battery pack with at least one cell module that is connected between a plurality of pack terminals (P+, P-), the battery pack comprising: at least one thermoelectric element disposed in each of the at least one cell module; at least one thermoelectric element driver disposed on the, or each of, the at least one cell module to control driving of the at least one thermoelectric element; at least one voltage converter disposed on each of the at least one cell module is configured to output a driving voltage of the corresponding thermoelectric element by converting a voltage across a rechargeable battery cell included in the corresponding cell module; and a controller configured to send to a charger a request to supply power for driving the thermoelectric element and to control the thermoelectric element driver and the voltage converter such that the driving voltage is transferred to the at least one thermoelectric element when a temperature of the at least one cell module is out of a first range in a charging mode, wherein, a current supplied from the charger during driving the at least one thermoelectric element corresponds to a consumption current of the at least one thermoelectric element. at least one thermoelectric element disposed in each of the at least one cell module; at least one thermoelectric element driver disposed on the, or each of, the at least one cell module to control driving of the at least one thermoelectric element; at least one voltage converter disposed on each of the at least one cell module is configured to output a driving voltage of the corresponding thermoelectric element by converting a voltage across a rechargeable battery cell included in the corresponding cell module; and a controller configured to send to a charger a request to supply power for driving the thermoelectric element and to control the thermoelectric element driver and the voltage converter such that the driving voltage is transferred to the at least one thermoelectric element when a temperature of the at least one cell module is out of a first range in a charging mode, wherein, a current supplied from the charger during driving the at least one thermoelectric element corresponds to a consumption current of the at least one thermoelectric element.