mhurhangee/ep-ind-claims huggingface dataset:
A method of installing a sand control screen assembly in a wellbore penetrating a subterranean formation, the wellbore having a cased section and an open hole section and containing synthetic or oil-based drilling fluids containing drilled solids, the method comprising: introducing a first water-based displacement fluid that contains a shale Inhibitor into the wellbore to displace the synthetic or oil-based drilling fluids from the open hole section of the wellbore; then introducing a second water-based displacement fluid into the wellbore to displace fluids within the cased section of the wellbore; and then running the sand control screen assembly to a selected depth within the open hole section of the wellbore to facilitate a gravel packing operation. introducing a first water-based displacement fluid that contains a shale Inhibitor into the wellbore to displace the synthetic or oil-based drilling fluids from the open hole section of the wellbore; then introducing a second water-based displacement fluid into the wellbore to displace fluids within the cased section of the wellbore; and then running the sand control screen assembly to a selected depth within the open hole section of the wellbore to facilitate a gravel packing operation.
A computer-implemented method of validating a nuclear reactor instrumentation output signal for a plurality of in-reactor detectors having a plurality of detector elements radially spaced at approximately the same axial elevation relative to a nuclear reactor core with each of the detector elements having an output signal indicative of a measured reactor operating parameter at a radial and axial location at which the detector element is located, comprising the steps of running a predictive calculation of an anticipated output of three or more of the detector elements at substantially the same axial elevation based on a current operating state of the reactor; taking a ratio (M/P) of an actual signal respectively generated by the three or more detector elements at approximately the same axial elevation, to the corresponding anticipated output; generating an expected range of the ratios (M/P) of the actual signals generated to the corresponding anticipated outputs for a number of adverse plant operating conditions; determining if the ratio (M/P) of the actual signal generated by any of the three or more of the detector elements at substantially the same axial elevation is outside the range of ratios; spline fitting the ratios (M/P) of the detector elements at substantially the same axial elevation that are within the range of ratios; identifying whether any detector element that has a ratio (M/P) outside the range has a ratio that is similar to the spline fit ratio at the corresponding radial location; and removing any detector element that has a ratio (M/P) outside the range that is not similar to the spline fit ratio from reactor core calculation considerations.
A method of operating a user equipment, UE, comprising: receiving, from a network entity, at least one base station almanac, BSA, message that indicates (i) a set of antenna locations associated with at least one base station, the set of antenna locations including at least one antenna location of a base station that is based upon a plurality of different antenna locations associated with the base station, the at least one antenna location including a single antenna location that is representative of multiple different antenna locations of the base station, and (ii) a mapping of each of a plurality of beams to the at least one antenna location; receiving, from the base station, the plurality of beams in accordance with the mapping; and performing one or more measurements on one or more of the plurality of beams. receiving, from a network entity, at least one base station almanac, BSA, message that indicates (i) a set of antenna locations associated with at least one base station, the set of antenna locations including at least one antenna location of a base station that is based upon a plurality of different antenna locations associated with the base station, the at least one antenna location including a single antenna location that is representative of multiple different antenna locations of the base station, and (ii) a mapping of each of a plurality of beams to the at least one antenna location; receiving, from the base station, the plurality of beams in accordance with the mapping; and performing one or more measurements on one or more of the plurality of beams.
A lavatory system comprising as lavatory and an ultraviolet light sanitizing system that is configured to sanitize at least one surface within the lavatory, the UV light sanitizing system comprising: a UV light assembly that is selectively moveable between a stowed position and a deployed position, wherein the UV light assembly is stowed within a stowage chamber connected to the lavatory in the stowed position, and wherein the UV light assembly is configured to deploy out of the stowage chamber and into the enclosed space in the deployed position, wherein the UV light assembly comprises: a housing and a UV light emitter characterised in that the UV light assembly comprises: a shield surrounding at least a portion of the housing, wherein the shield is configured to block electromagnetic interference; and a cage surrounding at least a portion of the UV light emitter. a UV light assembly that is selectively moveable between a stowed position and a deployed position, wherein the UV light assembly is stowed within a stowage chamber connected to the lavatory in the stowed position, and wherein the UV light assembly is configured to deploy out of the stowage chamber and into the enclosed space in the deployed position, wherein the UV light assembly comprises: a housing and a UV light emitter characterised in that the UV light assembly comprises: a shield surrounding at least a portion of the housing, wherein the shield is configured to block electromagnetic interference; and a cage surrounding at least a portion of the UV light emitter. a housing and a UV light emitter characterised in that the UV light assembly comprises: a shield surrounding at least a portion of the housing, wherein the shield is configured to block electromagnetic interference; and a cage surrounding at least a portion of the UV light emitter. a shield surrounding at least a portion of the housing, wherein the shield is configured to block electromagnetic interference; and a cage surrounding at least a portion of the UV light emitter.
Cap for a container, comprising: - a ferrule to be fixedly attached to the neck of the container, the ferrule comprising an upper wall and a tubular skirt extending downwardly from the upper wall; - a tamper evidence mechanism connected with the ferrule; - an overseal button (5;5a;5c;5d;5e) removably arranged on top of the upper wall of the ferrule in a manner so as to at least fully cover the tamper evidence mechanism, the overseal button (5;5a;5c;5d;5e) being connected to the tamper evidence mechanism such that upon first removal of the overseal button (5;5a;5c;5d;5e) from the ferrule at least a portion (401;401e) of the tamper evidence mechanism is irreversibly damaged, wherein the overseal button (5;5a;5c;5d;5e) comprises at least one translucent portion (52;52a;52c;52d;52e) arranged to extend over the at least one portion (401;401e) of the tamper evidence mechanism which is irreversibly damaged upon first removal of the overseal button (5;5a;5c;5d;5e) from the ferrule, and wherein the overseal button further comprises an identification portion (50,51;50a,51a;50c,51c;50d,51d;50e, 51e) which is different from the at least one translucent portion (52;52a;52c;52d;52e) in at least one property, the at least one property being selected such that it allows for visual differentiation of the identification portion (50,51;50a,51a;50c,51c;50d,51d;50e, 51e) and the at least one translucent portion (52;52a;52c;52d;52e), characterised in that the overseal button (5;5a;5c;5d;5e) comprises an opaque colored outer ring (51;51a;51c;51d;51e), and wherein the at least one translucent portion (52;52a;52c;52d;52e) is surrounded by the opaque colored outer ring (51;51a;51c;51d;51e), wherein the overseal button further comprises a centrally arranged opaque colored hub (50;50a;50c;50d;50e), and wherein the at least one translucent portion (52;52a;52c;52d;52e) of the overseal button is arranged between the centrally arranged opaque colored hub (50;50a;50c;50d;50e) and the opaque colored outer ring (51;51a;51c;51d;51e). - a ferrule to be fixedly attached to the neck of the container, the ferrule comprising an upper wall and a tubular skirt extending downwardly from the upper wall; - a tamper evidence mechanism connected with the ferrule; - an overseal button (5;5a;5c;5d;5e) removably arranged on top of the upper wall of the ferrule in a manner so as to at least fully cover the tamper evidence mechanism, the overseal button (5;5a;5c;5d;5e) being connected to the tamper evidence mechanism such that upon first removal of the overseal button (5;5a;5c;5d;5e) from the ferrule at least a portion (401;401e) of the tamper evidence mechanism is irreversibly damaged,
A semi-continuous method of producing soil remediant from organic waste material in a single digester vessel the method comprising: i) introducing a predetermined amount of organic waste material to the single digester vessel in a liquid phase wherein the liquid organic waste material comprises at least 70% water and can be pumped; ii) wherein the temperature of the organic waste material in the digester vessel is at or above 70°C; iii) closing a circuit containing the single digester vessel for a period of time; iv) maintaining the organic waste material in the single digester vessel at a temperature of 70°C or above for at least one hour such that the organic waste material is concurrently pasteurised and digested to a pre-determined extent; v) after the period of time of at least one hour withdrawing a first amount of pasteurised and digested organic waste material from the single digester vessel; vi) introducing a replacement second amount of organic waste material to the single digester vessel wherein the first amount and the second amount are substantially the same. i) introducing a predetermined amount of organic waste material to the single digester vessel in a liquid phase wherein the liquid organic waste material comprises at least 70% water and can be pumped; ii) wherein the temperature of the organic waste material in the digester vessel is at or above 70°C; iii) closing a circuit containing the single digester vessel for a period of time; iv) maintaining the organic waste material in the single digester vessel at a temperature of 70°C or above for at least one hour such that the organic waste material is concurrently pasteurised and digested to a pre-determined extent; v) after the period of time of at least one hour withdrawing a first amount of pasteurised and digested organic waste material from the single digester vessel; vi) introducing a replacement second amount of organic waste material to the single digester vessel wherein the first amount and the second amount are substantially the same.
Method for visualizing a signature mark (18; 52) on a spectacle lens (16; 50), wherein an illumination light beam (22; 79) is directed onto the spectacle lens (16; 50), passes through the spectacle lens (16; 50), is reflected at a moving reflector (30; 56) after passing through the spectacle lens (16; 50), passes through the spectacle lens (16; 50) again and finally is passed to a camera (36; 88) as an observation light beam (34; 85), characterized in that the reflector (30; 56) is embodied as a retroreflector, which returns incident light substantially back in the same direction as from which it was incident for a large range of angles of incidence.
A satellite deorbiting device including an aerobraking sail (22, 23, 24), the deorbiting device including a gravity gradient device for holding the attitude of the satellite, the gravity gradient device including at least one mast carrying the aerobraking sail and a first end of which is integral with the satellite and the second end of which is provided with a mass, so that said mast orients itself in a direction opposite to the direction of the planet around which the satellite orbits and the aerobraking sail including at least two panels made by means of membranes deploying with the mast and extending along the mast.
Turbine for a breathing assistance apparatus, comprising: - an electric motor interacting with a vaned rotor to generate a gas flow, and - a volute (3, 4) comprising a volute lower part and a volute upper part having a gas inlet passage, coupled to each other and shaped in such a way as to form an inner compartment in which the vaned rotor is arranged, and in which the volute lower part comprises a first peripheral rim and the volute upper part comprises a second peripheral rim, said first peripheral rim and second peripheral rim facing one another when the volute lower part is coupled to the volute upper part, characterised in that at least one structure made from an elastomer material is arranged between the wall around at least one section of the peripheral rim (3a, 4a) of the two volute parts (3, 4), the structure made from elastomer material comprising a first portion having annular or semi-annular shape, and a second portion having tubular shape comprising a central passage. - an electric motor interacting with a vaned rotor to generate a gas flow, and - a volute (3, 4) comprising a volute lower part and a volute upper part having a gas inlet passage, coupled to each other and shaped in such a way as to form an inner compartment in which the vaned rotor is arranged,
A system for washing laundry with purified water alone and without detergents, tensides or similar chemicals, comprising a washing machine, a water purification apparatus for purifying water, at least one pump, and a reservoir for storing purified water produced by the water purification apparatus, wherein the water purification apparatus comprises at least one filter (25, 37, 38) for filtering off particulate solids, a reverse osmosis device and first and second deionizing materials, wherein the reverse osmosis device is arranged between the filter (25, 37, 38) and the deionizing materials, wherein the washing machine comprises a container for receiving the laundry to be washed, and wherein the container is arranged with an inlet connected to the reservoir, so that the laundry is washable inside the container with the purified water, and wherein the container is arranged with an outlet for used water, charaterised in that the system comprises a tank for collecting used water from the container, wherein an inlet of the tank is connected to the outlet of the container, and the system comprises a sediment filter for filtering off particulate solids from the used water, wherein the sediment filter is arranged between the container and the water purification apparatus, and wherein the sediment filter is a bag filter arranged between the container and the tank, and wherein the bag filter is arranged for filtering off particles having a size down to 10 micrometer (microns).
Heat-treatment device, in particular oven, for a food product, wherein the heat-treatment device comprises a heating means for applying heat to the food product and a temperature detection device for measuring the core temperature of the food product, characterized in that the device comprises a microwave detecting array which is a phased array antenna.
A method for handover processing in radio self-backhaul transmission, comprising: receiving (602, 702), by a primary base station, a handover request message sent by a self-backhaul base station; characterized by detunnelling, by the primary base station, a downlink tunnel to obtain a downlink packet according to downlink tunnel information in the handover request message; buffering, by the primary base station, the downlink packet; and sending, by the primary base station, the buffered downlink packet to a terminal through a target base station. receiving (602, 702), by a primary base station, a handover request message sent by a self-backhaul base station; characterized by detunnelling, by the primary base station, a downlink tunnel to obtain a downlink packet according to downlink tunnel information in the handover request message; buffering, by the primary base station, the downlink packet; and sending, by the primary base station, the buffered downlink packet to a terminal through a target base station.
A composition for powder coating material characterized by comprising a fluoropolymer having units derived from a fluoroolefin, of which the melt viscosity at 190°C measured by a rotary rheometer at a temperature-raising rate of 10°C/min is within a range of from 0.1 to 25 Pa·s, and fine particles which are composed of at least one member selected from silica, alumina, titania and zinc oxide, and of which the specific surface area is from 10 to 500 m 2 /g and the average primary particle size is within a range of from 0.1 to 100 nm, wherein said fine particles are contained in an amount of from 0.01 to 10 parts by mass, to 100 parts by mass of said fluoropolymer, wherein the fluoropolymer is a hydroxy group-containing fluoropolymer, wherein the proportion of the units derived from a monomer having a hydroxy group is from 0.5 to 25 mol% in all units (100 mol%) in the hydroxy group-containing fluoropolymer, or a carboxy group-containing fluoropolymer, wherein the proportion of the monomer units having a carboxy group is from 0.5 to 20 mol% in all units (100 mol%) in the carboxy group-containing fluoropolymer. a hydroxy group-containing fluoropolymer, wherein the proportion of the units derived from a monomer having a hydroxy group is from 0.5 to 25 mol% in all units (100 mol%) in the hydroxy group-containing fluoropolymer, or a carboxy group-containing fluoropolymer, wherein the proportion of the monomer units having a carboxy group is from 0.5 to 20 mol% in all units (100 mol%) in the carboxy group-containing fluoropolymer.
A composition of matter comprising: a graphitic substrate optionally carried on a support; a seed layer formed from a single metallic element or a layer of oxidised or nitridized single metallic element having a thickness of no more than 50 nm deposited directly on top of said substrate, opposite any support; and an oxide or nitride masking layer directly on top of said seed layer wherein the masking layer is formed of a different material to the seed layer; wherein a plurality of holes are present through said seed layer and through said masking layer to said graphitic substrate; and wherein a plurality of nanowires or nanopyramids are grown from said substrate in said holes, said nanowires or nanopyramids comprising at least one semiconducting group III-V compound. a graphitic substrate optionally carried on a support; a seed layer formed from a single metallic element or a layer of oxidised or nitridized single metallic element having a thickness of no more than 50 nm deposited directly on top of said substrate, opposite any support; and an oxide or nitride masking layer directly on top of said seed layer wherein the masking layer is formed of a different material to the seed layer; wherein a plurality of holes are present through said seed layer and through said masking layer to said graphitic substrate; and wherein a plurality of nanowires or nanopyramids are grown from said substrate in said holes, said nanowires or nanopyramids comprising at least one semiconducting group III-V compound.
Engine cowling of an aircraft gas turbine having an engine axis, with the rear area of the aircraft gas turbine having at least two doors that are arranged at the lateral lower area of the rear area of the engine cowling and can be opened by means of hinges that are arranged at the top of the door below a substantially horizontal central plane extending through the engine axis, wherein the hinges are arranged to be tilted with respect to the engine axis, wherein the doors are mounted so as to be pivotable sideways and rearwards.
Method for carrying out post-processing on a first set Z of samples Z(Δω) of an experimental signal (10, 12) resulting from a WASAB1 acquisition sequence by a medical magnetic resonance imaging device, linked with an elementary volume of an organ, the respective values of the samples Z(Δω) of said first set Z describing the magnitude of a theoretical experimental signal according to frequency offsets Δω with respect to the resonant frequency of water, said method being implemented by a processing unit of an imaging analysis system, characterized in that it includes: - a step of detecting the samples Z(Δω) of the first set Z for which the polarities of the values of the theoretical experimental signal (10, 12) are considered to be certain and of constructing a second set Y of samples Y(Δω) such that: a. Y(Δω)=Z(Δω) if the polarity of the theoretical experimental signal is considered to be certain and positive; b. Y(Δω)=-Z(Δω) if the polarity of said theoretical experimental signal (10, 12) is considered to be certain and negative; - a step of adjusting a determined model to the second set Y, the two parameters of said determined model describing respectively the static B0 and excitation B1 magnetic fields of the medical magnetic resonance imaging device, and of producing a first estimation of said parameters B0 and B1 of said model. - a step of detecting the samples Z(Δω) of the first set Z for which the polarities of the values of the theoretical experimental signal (10, 12) are considered to be certain and of constructing a second set Y of samples Y(Δω) such that: a. Y(Δω)=Z(Δω) if the polarity of the theoretical experimental signal is considered to be certain and positive; b. Y(Δω)=-Z(Δω) if the polarity of said theoretical experimental signal (10, 12) is considered to be certain and negative; a. Y(Δω)=Z(Δω) if the polarity of the theoretical experimental signal is considered to be certain and positive; b. Y(Δω)=-Z(Δω) if the polarity of said theoretical experimental signal (10, 12) is considered to be certain and negative; - a step of adjusting a determined model to the second set Y, the two parameters of said determined model describing respectively the static B0 and excitation B1 magnetic fields of the medical magnetic resonance imaging device, and of producing a first estimation of said parameters B0 and B1 of said model.