mhurhangee/ep-ind-claims huggingface dataset:
An intravenous composition for use in providing intravenous relief for pain and/or inflammation in a human, the composition comprising: a) 125mg to 150 mg ibuprofen in combination with 475mg to 525 mg paracetamol; or b) 275mg to 325mg ibuprofen in combination with 975mg to 1,025 mg paracetamol. a) 125mg to 150 mg ibuprofen in combination with 475mg to 525 mg paracetamol; or b) 275mg to 325mg ibuprofen in combination with 975mg to 1,025 mg paracetamol.
A method for decommissioning a nuclear facility that includes a nuclear reactor pressure vessel provided with a hemispherical lower portion and a flat upper portion, and bio-protective concrete including a cavity in which the nuclear reactor pressure vessel is positioned and a neighboring upper surface adjacent to the cavity, comprising: floating the nuclear reactor pressure vessel above the cavity; rotating the reactor pressure vessel so that the upper portion of the nuclear reactor pressure vessel is closer to the bio-protective concrete than the lower portion; mounting the upper portion of the nuclear reactor pressure vessel on the neighboring upper surface of the bio-protective concrete; and cutting and decommissioning the nuclear reactor pressure vessel mounted on the neighboring upper surface. floating the nuclear reactor pressure vessel above the cavity; rotating the reactor pressure vessel so that the upper portion of the nuclear reactor pressure vessel is closer to the bio-protective concrete than the lower portion; mounting the upper portion of the nuclear reactor pressure vessel on the neighboring upper surface of the bio-protective concrete; and cutting and decommissioning the nuclear reactor pressure vessel mounted on the neighboring upper surface.
A transponder for object identification comprising at least one semiconductor component for storing information and at least one antenna for communicating the information with an external unit, the antenna being formed by a conductor on a circuit board and the semiconductor component being mounted on the circuit board and electrically connected to said antenna, the circuit board being included in a housing, wherein the semiconductor component is included in an enclosure that is hermetically sealed and fixed on a surface (12, 13) of the circuit board, the enclosure comprising a metallic or ceramic lid to delimit a hermetically sealed volume inside the enclosure, characterized in that the enclosure comprises a support section with a side on which the semiconductor component is fixed and with an opposed side fixed to the circuit board, the support section consisting of a material that matches the temperature coefficient of the circuit board by less than 50 ppm/°C, and that the enclosure is under vacuum or filled with an inert gas and the enclosure is hermetically sealed to maintain an inert atmosphere.
Method for determining information regarding the displacement of an object from measurements provided by an accelerometer associated with the object, comprising steps of detecting acceleration peaks in the measurements, of calculating one or more characteristics of the detected acceleration peaks, and of determining a mode of travel of the object from the one or more calculated characteristics, characterised in that it comprises, before the step of detecting acceleration peaks, a step of non-uniformly sampling the measurements, which comprises a regular sampling of the measurements, the detection of local extrema (MIN, MAX) in the measurements regularly sampled and a non-uniform resampling of the measurements carried out to keep the detected local extrema.
A delayed coking process comprising the following the steps: a. introducing coke drum vapors into a flash zone of a fractioning column of a delayed coking unit; b. removing a heavy coker gas oil stream from the fractionating column via a heavy coker gas oil draw of the fractionating column; c. sending off at least a portion of the heavy gas oil as product; d. introducing at least a portion of a heavy coker gas oil stream into the fractionating column above the heavy coker gas oil draw; e. introducing the remaining portion of the heavy coker gas oil stream into at least one heat exchanger, wherein upon exiting the heat exchanger the remaining portion of the heavy coker gas oil stream is divided into a first stream and a second stream; f. introducing the first stream into the fractionating column; g. introducing the second stream into the fractionating column; h. removing a heavy heavy coker gas oil stream from the fractionating column via a heavy heavy gas oil draw; and i. introducing the heavy heavy coker gas oil stream into the flash zone of the fractionating column. a. introducing coke drum vapors into a flash zone of a fractioning column of a delayed coking unit; b. removing a heavy coker gas oil stream from the fractionating column via a heavy coker gas oil draw of the fractionating column; c. sending off at least a portion of the heavy gas oil as product; d. introducing at least a portion of a heavy coker gas oil stream into the fractionating column above the heavy coker gas oil draw; e. introducing the remaining portion of the heavy coker gas oil stream into at least one heat exchanger, wherein upon exiting the heat exchanger the remaining portion of the heavy coker gas oil stream is divided into a first stream and a second stream; f. introducing the first stream into the fractionating column; g. introducing the second stream into the fractionating column; h. removing a heavy heavy coker gas oil stream from the fractionating column via a heavy heavy gas oil draw; and i. introducing the heavy heavy coker gas oil stream into the flash zone of the fractionating column.
An apparatus for elastic caching of redundant cache data, comprising: - a plurality of buffers (106a..106n); and - a circuit configured to (i) receive a write request from a host to store write data in a storage volume, (ii) select a particular redundant organization of the storage volume from a plurality of redundant organizations based on said write request, (iii) allocate (186, 192) a number of extents in said buffers (106a..106n) based on both the size of the write request and the particular selected redundant organization associated with said write request, and (iy) store said write data in said number of extents, wherein (a) each of said number of extents is located in a different one of said buffers (106a..106n) and (b) said number of extents are dynamically linked together in response to said write request, wherein two or more of said links cross one or more boundaries between the buffers (106a..106n). - a plurality of buffers (106a..106n); and - a circuit configured to (i) receive a write request from a host to store write data in a storage volume, (ii) select a particular redundant organization of the storage volume from a plurality of redundant organizations based on said write request, (iii) allocate (186, 192) a number of extents in said buffers (106a..106n) based on both the size of the write request and the particular selected redundant organization associated with said write request, and (iy) store said write data in said number of extents, wherein (a) each of said number of extents is located in a different one of said buffers (106a..106n) and (b) said number of extents are dynamically linked together in response to said write request, wherein two or more of said links cross one or more boundaries between the buffers (106a..106n).
An extract from Herba Cynomorii songarici, comprising catechin, (-)epicatechin-3- O -gallate, naringenin-4'-O-glucoside and phlorizin, and optionally chrysophanol and/or emodin, which extract is obtained by extraction of Herba Cynomorii songarici using water, an alcohol or a water-alcohol mixture, and sequentially petroleum ether, chloroform, and ethyl acetate as the solvent, and is the ethyl acetate extract, the ethyl acetate extract combined with the petroleum ether extract, the ethyl acetate extract combined with the chloroform extract or the ethyl acetate extract combined with the petroleum ether extract and the chloroform extract.
A pigment dispersion comprising: a dispersion medium, a compound represented by the following formula, and at least one pigment selected from the group consisting of C. I. Pigment Blue 15, C. I. Pigment Blue 15:1, C. I. Pigment Blue 15:2, C. I. Pigment Blue 15:3, C. I. Pigment Blue 15:4, and C. I. Pigment Blue 15:6, which are dispersed in the dispersion medium. [In the formula, R 1 and R 2 each independently represent a linear or branched alkyl group having 1 to 4 carbon atoms, and R 3 and R 4 each independently represent a linear or branched alkyl group having 2 to 8 carbon atoms]
A method for ensuring that raw material used with a particular piece of fabrication equipment comes from an approved source, comprising the steps of: a. providing fabrication equipment to an article producer, which equipment includes an on-line analyzer for detecting the presence of a tracer element; b. providing raw material containing the tracer element to the article producer c. allowing the article producer to begin to convert the raw material to a finished article using the fabrication equipment; d. analyzing the raw material for the presence of the tracer element; e. taking action based on whether or not the tracer element has been detected. a. providing fabrication equipment to an article producer, which equipment includes an on-line analyzer for detecting the presence of a tracer element; b. providing raw material containing the tracer element to the article producer c. allowing the article producer to begin to convert the raw material to a finished article using the fabrication equipment; d. analyzing the raw material for the presence of the tracer element; e. taking action based on whether or not the tracer element has been detected.
A method performed by a user equipment (20A, 20B) comprising, in Time Division Duplex, TDD: receiving a block of complex-valued symbols for narrowband physical broadcast channel, NPBCH, in subframe 9 during 64 consecutive radio frames; receiving a narrowband primary synchronization signal, NPSS; and receiving a narrowband secondary synchronization signal, NSSS, wherein the NPSS is mapped to resource elements in subframe 5 in every radio frame; and the NSSS is mapped to resource elements in subframe 0 in even radio frames, wherein the resource mapping of the NSSS and the NPBCH in the radio frames is exchanged compared to resource mapping of a NSSS and a NPBCH in the radio frames for Frequency Division Duplex, FDD, and in FDD, the NSSS is mapped to resource elements in subframe 9 in even radio frames, and the NPBCH is mapped to subframe 0 during 64 consecutive radio frames. receiving a block of complex-valued symbols for narrowband physical broadcast channel, NPBCH, in subframe 9 during 64 consecutive radio frames; receiving a narrowband primary synchronization signal, NPSS; and receiving a narrowband secondary synchronization signal, NSSS, wherein the NPSS is mapped to resource elements in subframe 5 in every radio frame; and the NSSS is mapped to resource elements in subframe 0 in even radio frames, wherein the resource mapping of the NSSS and the NPBCH in the radio frames is exchanged compared to resource mapping of a NSSS and a NPBCH in the radio frames for Frequency Division Duplex, FDD, and in FDD, the NSSS is mapped to resource elements in subframe 9 in even radio frames, and the NPBCH is mapped to subframe 0 during 64 consecutive radio frames.
An air purifier device comprising: a fan unit comprising a fan arranged to produce an air flow through the air purifier device, a filter unit comprising a filter arranged to filter the air flow produced by the fan, the filter unit being adapted to stand on a support surface when the air purifier device is positioned for use, and a coupling mechanism arranged to secure the fan unit on top of the filter unit, wherein the coupling mechanism comprises two release actuators arranged on opposite outer sides of the fan unit, wherein the fan unit is releasable from the filter unit by actuating the two release actuators; and further comprising an exhaust for exhausting purified air out of the air purifier device, wherein the exhaust is arranged in a top wall of the fan unit, wherein the two release actuators are two release buttons, wherein the fan unit is releasable from the filter unit by pushing the two release buttons and wherein the two release buttons are arranged to be pushed inwards in the air purifying device. a fan unit comprising a fan arranged to produce an air flow through the air purifier device, a filter unit comprising a filter arranged to filter the air flow produced by the fan, the filter unit being adapted to stand on a support surface when the air purifier device is positioned for use, and a coupling mechanism arranged to secure the fan unit on top of the filter unit, wherein the coupling mechanism comprises two release actuators arranged on opposite outer sides of the fan unit, wherein the fan unit is releasable from the filter unit by actuating the two release actuators; and further comprising an exhaust for exhausting purified air out of the air purifier device, wherein the exhaust is arranged in a top wall of the fan unit, wherein the two release actuators are two release buttons, wherein the fan unit is releasable from the filter unit by pushing the two release buttons and wherein the two release buttons are arranged to be pushed inwards in the air purifying device.
A control circuit for an operating machine, wherein the operating machine is equipped with a cutting member motorised by a propulsion group and with a conveying member, wherein the control circuit comprises: - a hydraulic pump actuated by the propulsion group; - a hydraulic motor configured to actuate the conveying member, wherein the hydraulic motor is arranged on a delivery branch of a hydraulic fluid slaved to the hydraulic pump; characterised in that the control circuit further comprises: - a first safety valve configured to selectively open and close a first by-pass branch branching from a first branching node arranged on the delivery branch upstream of the hydraulic motor and flowing together with a first confluence node arranged on a return branch of the hydraulic fluid downstream of the hydraulic motor; - a second safety valve configured to intercept a second by-pass branch branching from a second branching node arranged on the delivery branch upstream of the hydraulic motor and downstream of the first branching node and flowing together in the return branch, wherein the second safety valve can be selectively operated between two operative positions, one being a first operative position in which it closes the second by-pass branch and the other being a second operative position in which it opens the second by-pass branch; whereby the second safety valve is configured to pass from the first operative position to the second operative position automatically when at least one of the following conditions has occurred: a) the first safety valve opens the first by-pass branch; and b) the hydraulic pump is inactive. - a hydraulic pump actuated by the propulsion group; - a hydraulic motor configured to actuate the conveying member, wherein the hydraulic motor is arranged on a delivery branch of a hydraulic fluid slaved to the hydraulic pump; characterised in that the control circuit further comprises: - a first safety valve configured to selectively open and close a first by-pass branch branching from a first branching node arranged on the delivery branch upstream of the hydraulic motor and flowing together with a first confluence node arranged on a return branch of the hydraulic fluid downstream of the hydraulic motor; - a second safety valve configured to intercept a second by-pass branch branching from a second branching node arranged on the delivery branch upstream of the hydraulic motor and downstream of the first branching node and flowing together in the return branch, wherein the second safety valve can be selectively operated between two operative positions, one being a first operative position in which it closes the second by-pass branch and the other being a second operative position in which it opens the second by-pass branch; a) the first safety valve opens the first by-pass branch; and b) the hydraulic pump is inactive.
A wound battery comprising a first electrode, a second electrode and a separator disposed between said first and second electrodes; said separator comprising an expanded polytetrafluoroethylene membrane having pores defining an internal surface area; said internal surface area being coated with a silica sol-gel pore coating agent; said separator having: a longitudinal modulus of greater than 138x10 3 kPa (20,000 lbs/in 2), a puncture strength of 4.9 N or greater and a bubble point of at least 152 kPa (22 psi); wherein the membrane has an internal microstructure consisting essentially of a series of nodes interconnected by fibrils, said nodes generally aligned in parallel, being highly elongated and having an aspect ratio of 25:1 or greater.
A platform cooling structure for a gas turbine moving blade comprising: at least one moving blade cooling passageway (17,17a-d) formed in the inside of a blade part of a gas turbine moving blade so as to circulate cooling air; and cooling communication holes (24a,24b,39,41) each of which having one end thereof communicating with the moving blade cooling passageway (17,17a-d) and the other end communicating with a discharge opening formed in an upper surface of a platform in the vicinity of a side edge of the platform, wherein the cooling communication holes (24a,24b,39,41) are formed through the inside of the platform and of a shank part located below the platform so as to guide the cooling air flowing in the moving blade cooling passageway (17,17a-d) to the upper surface of the platform in the vicinity of the side edge, wherein the inner diameter of the moving blade cooling passageway (17,17a-d) of the shank part is swollen outward in a direction toward the side edges of the platform to form a cooling passage swollen part (36a-d), and wherein the cooling communication holes (24a,24b,39,41) are formed in a linear shape from the cooling passage swollen part (36a-d) through the inside of the platform and the shank part to one discharge opening. at least one moving blade cooling passageway (17,17a-d) formed in the inside of a blade part of a gas turbine moving blade so as to circulate cooling air; and cooling communication holes (24a,24b,39,41) each of which having one end thereof communicating with the moving blade cooling passageway (17,17a-d) and the other end communicating with a discharge opening formed in an upper surface of a platform in the vicinity of a side edge of the platform,
An engine oil composition comprising: a) greater than 50 wt.% of a base oil of lubricating viscosity, based on a total weight of the engine oil composition, wherein the base oil is selected from the group consisting of a Group III base oil, a Group IV base oil, a Group V base oil and mixtures thereof; b) 0.1-10 wt.% of a dispersant viscosity index improver, based on a total weight of the engine oil composition, wherein the dispersant viscosity index improver is a reaction product of an olefin copolymer comprising ethylene and one or more C 3 -C 28 alpha olefins, an acylating agent and a polyamine; c) one or more calcium-containing detergents, wherein the one or more calcium-containing detergents provides from 900 ppmw to 2500 ppmw of calcium to the engine oil composition, based on a total weight of the engine oil composition; and d) one or more molybdenum-containing compounds; and wherein the engine oil composition has an SAE viscosity grade of 0W-X or 5W-X, wherein X = 16, 20, 30, or 40; from 500 ppmw to 1000 ppmw of phosphorus; and a total sulfated ash content of no greater than 1.2 wt.%, as measured by ASTM D874, both based on a total weight of the engine oil composition; and wherein the engine oil composition further comprises up to 10 wt.% of a nitrogen-containing dispersant, based on a total weight of the engine oil composition; wherein a weight ratio of total metal from detergents to total nitrogen from dispersants is less than 2.5 or less than 2.0. a) greater than 50 wt.% of a base oil of lubricating viscosity, based on a total weight of the engine oil composition, wherein the base oil is selected from the group consisting of a Group III base oil, a Group IV base oil, a Group V base oil and mixtures thereof; b) 0.1-10 wt.% of a dispersant viscosity index improver, based on a total weight of the engine oil composition, wherein the dispersant viscosity index improver is a reaction product of an olefin copolymer comprising ethylene and one or more C 3 -C 28 alpha olefins, an acylating agent and a polyamine; c) one or more calcium-containing detergents, wherein the one or more calcium-containing detergents provides from 900 ppmw to 2500 ppmw of calcium to the engine oil composition, based on a total weight of the engine oil composition; and d) one or more molybdenum-containing compounds; and
Circuit breaker with electronic trip control, said circuit breaker being traversed by at least one current path (L1, L2, L3) and capable of ensuring protection against at least one short-circuit type fault occurring in an electrical circuit connected to said current path (L1, L2, L3) and comprising a current detector capable of detecting the current flowing in the or at least one of the current paths (L1, L2, L3) and of emitting an acquisition signal that is representative of said current, an electronic tripper (3, I2, 4, 5) comprising an electronic processing unit configured to be able to process said acquisition signal and emit a trip control signal when a trip threshold has been exceeded, an actuator driven to trip by said trip control signal and comprising a coil, and an opening mechanism capable of being actuated by said actuator so as to open at least one main contact (C1, C2, C3) interrupting the electric current in the current path(s) in question (L1, L2, L3), and a power supply, further comprising an inhibition circuit (I1, 2, 2') for inhibiting magnetic influences on the actuator that are likely to cause accidental tripping, characterized in that said inhibition circuit (I1, 2, 2') is capable of short-circuiting the coil when said circuit is controlled into a closed state so as to carry out the inhibition and of not short-circuiting the coil when said circuit is controlled into an open state and in that the electronic processing unit is further configured to be able to control said inhibition circuit (I1, 2, 2') and to coordinate the emission of the trip control signal with the control of said inhibition circuit (I1, 2, 2') so as not to short-circuit the coil at the same time as tripping takes place.
A method of making a tissue buttress comprising the steps of: applying a nucleophilic component to the surface of at least one of a first jaw and a second jaw of a surgical stapler, creating a first layer; applying a electrophilic component over the first layer to create a cross-linked hydrogel on at least one of the first jaw and the second jaw; and lyophilizing the cross-linked hydrogel to form a tissue buttress on at least one of the first jaw and the second jaw of the surgical stapler. applying a nucleophilic component to the surface of at least one of a first jaw and a second jaw of a surgical stapler, creating a first layer; applying a electrophilic component over the first layer to create a cross-linked hydrogel on at least one of the first jaw and the second jaw; and lyophilizing the cross-linked hydrogel to form a tissue buttress on at least one of the first jaw and the second jaw of the surgical stapler.