mhurhangee/ep-ind-claims huggingface dataset:
A membrane electrode assembly structure of a fuel cell including an anode substrate having a sheet structure composed of materials NiO, 8YSZ, and 3YSZ; an electrolyte layer formed on the surface of the anode substrate; a cathode layer composed of a porous LSM material, wherein the cathode layer is formed on a front side of the electrolyte layer farther away from the anode substrate; characterized in that NiO has 35 to 65 wt.% and the rest is a mixture of 8YSZ and 3YSZ; the ratio of wt% of 3YSZ to wt% of 8YSZ is determined in a range from 50% to 60% when NiO is in a range from 35 wt% to 65 wt%; the anode substrate has a thickness between 200 μm and 600 μm.
Crystalline form B of a compound, wherein the compound has the structure of formula I, and said crystalline form B has characteristic peaks at the following 2θ angles in the X-ray Powder diffraction (XRPD) pattern: 2.9±0.2°, 6.5±0.2°, 12.6±0.2°, 13.1±0.2° and 20.6±0.2°;
A noise-cancelling headphone comprising: an ear piece comprising: a housing unit (2, 3, 4, 5) having an interior and an exterior; a driver unit attached to the housing unit; and a microphone collecting external sounds at the exterior of the housing unit, wherein the housing unit comprises: a baffle plate to which the driver unit is attached; a first housing disposed behind the baffle plate; a housing cover disposed behind the first housing; a second housing disposed behind the housing cover, the second housing and the housing cover forming an air chamber; an accommodating portion accommodating the microphone; and a sound collecting hole establishing communication between the accommodating portion and the exterior of the housing unit, wherein the accommodating portion is formed by the first housing and the housing cover and is disposed in an upper portion of the housing unit of the noise-cancelling headphone when worn by a user, the sound collecting hole is disposed in the housing cover and is open toward an upper side of the housing unit of the noise-cancelling headphone when worn by the user, wherein an output cable of the microphone is extracted into the air chamber. an ear piece comprising: a housing unit (2, 3, 4, 5) having an interior and an exterior; a driver unit attached to the housing unit; and a microphone collecting external sounds at the exterior of the housing unit, wherein a housing unit (2, 3, 4, 5) having an interior and an exterior; a driver unit attached to the housing unit; and a microphone collecting external sounds at the exterior of the housing unit, wherein the housing unit comprises: a baffle plate to which the driver unit is attached; a first housing disposed behind the baffle plate; a housing cover disposed behind the first housing; a second housing disposed behind the housing cover, the second housing and the housing cover forming an air chamber; an accommodating portion accommodating the microphone; and a sound collecting hole establishing communication between the accommodating portion and the exterior of the housing unit, wherein a baffle plate to which the driver unit is attached; a first housing disposed behind the baffle plate; a housing cover disposed behind the first housing; a second housing disposed behind the housing cover, the second housing and the housing cover forming an air chamber; an accommodating portion accommodating the microphone; and a sound collecting hole establishing communication between the accommodating portion and the exterior of the housing unit, wherein the accommodating portion is formed by the first housing and the housing cover and is disposed in an upper portion of the housing unit of the noise-cancelling headphone when worn by a user, the sound collecting hole is disposed in the housing cover and is open toward an upper side of the housing unit of the noise-cancelling headphone when worn by the user, wherein an output cable of the microphone is extracted into the air chamber.
A method of creating a barrage which comprises a defence against blast and/or fragmentation pieces by suppressing blast or fragmentation pieces from an explosion during detonation, the method comprising the steps of providing one or more barrage units (6, 11, 14), each barrage unit (6, 11, 14) comprising a porous bag or sack (1, 7) containing an absorbent core comprising an absorbent crystalline material and an absorbent fibrous material, said absorbent crystalline material comprising a superabsorbent polymer positioning the one or more barrage units (6,11,14) directly over an explosive in an unsaturated state prior to detonation of the explosive; and, exposing the one or more barrage unit (6, 11, 14) to a liquid to saturate the barrage unit (6, 11, 14) such that the weight increase of said barrage unit (6, 11, 14) detonates said explosive; the one or more barrage units (6, 11, 14) being arranged such that on detonation the one or more barrage units (6, 11, 14) absorbs at least some of the blast fragmentation pieces. providing one or more barrage units (6, 11, 14), each barrage unit (6, 11, 14) comprising a porous bag or sack (1, 7) containing an absorbent core comprising an absorbent crystalline material and an absorbent fibrous material, said absorbent crystalline material comprising a superabsorbent polymer positioning the one or more barrage units (6,11,14) directly over an explosive in an unsaturated state prior to detonation of the explosive; and, exposing the one or more barrage unit (6, 11, 14) to a liquid to saturate the barrage unit (6, 11, 14) such that the weight increase of said barrage unit (6, 11, 14) detonates said explosive; the one or more barrage units (6, 11, 14) being arranged such that on detonation the one or more barrage units (6, 11, 14) absorbs at least some of the blast fragmentation pieces.
An in vitro cell culture composition comprising purified T cells and a VIP receptor antagonist and anti-CD3 antibodies and anti-CD28 antibodies optionally immobilized on a bead or solid surface.
A process for obtaining a spinnable and/or needlable Kapok fibre fraction, and/or Kapok fibre blend with one or more other fibres in a range of from 100% to 5% by weight, comprising the steps of: a. sorting the longest and cleanest kapok fibres for spinning, which comprises volatizing opened and unsorted Kapok fibres by subjecting them to an air stream, whereby the fibre-containing air stream is directed towards a deposition area comprising a sorting wall, whereby fibres of different lengths are deposited in the deposition area and/or against the sorting wall at a position commensurate with their length, weight and the resulting respective flight time, whereby a longer fibre fraction is collected behind the sorting wall, to obtain a short staple Kapok fibre base having an average length of at least 10mm; b. adjusting the average moisture content of the kapok fibre base to an average measured moisture content in the range of from 8% to 12% moisture, to obtain moisture- and length-adjusted Kapok fibres, and, optionally c. blending the moisture-and length-adjusted Kapok fibres with a second or further fibre base, to obtain a Kapok-comprising fibre blend. a. sorting the longest and cleanest kapok fibres for spinning, which comprises volatizing opened and unsorted Kapok fibres by subjecting them to an air stream, whereby the fibre-containing air stream is directed towards a deposition area comprising a sorting wall, whereby fibres of different lengths are deposited in the deposition area and/or against the sorting wall at a position commensurate with their length, weight and the resulting respective flight time, whereby a longer fibre fraction is collected behind the sorting wall, to obtain a short staple Kapok fibre base having an average length of at least 10mm; b. adjusting the average moisture content of the kapok fibre base to an average measured moisture content in the range of from 8% to 12% moisture, to obtain moisture- and length-adjusted Kapok fibres, and, optionally c. blending the moisture-and length-adjusted Kapok fibres with a second or further fibre base, to obtain a Kapok-comprising fibre blend.
A corneal laser ablation system comprising: a corneal topography measuring instrument; a laser system configured to emit pulsed laser light at one or more wavelengths and configured to control the parameters of laser emission such that the laser output is suitable for controlled ablation of an anterior corneal surface, wherein the laser system comprises an ablation profile generator having stored therein manifest defocus and astigmatism measurements for a subject and topographical measurements of the anterior corneal surface of the subject made with the corneal topography measuring instrument, and wherein the stored manifest astigmatism for the subject is different in one or more of power and axis from a corneal astigmatism derived at least in part from the topographical measurements of the anterior corneal surface of the subject; wherein the laser system is configured to control the laser output to ablate at least some high order aberrations from the anterior corneal surface in accordance with topographical measurements of the anterior corneal surface made with the corneal topography measuring instrument; and wherein the laser system is configured to control the laser output to ablate the anterior corneal surface in a manner that reduces astigmatism of the anterior corneal surface in accordance with the corneal astigmatism derived at least in part from the topographical measurements of the anterior corneal surface of the subject. a corneal topography measuring instrument; a laser system configured to emit pulsed laser light at one or more wavelengths and configured to control the parameters of laser emission such that the laser output is suitable for controlled ablation of an anterior corneal surface, wherein the laser system comprises an ablation profile generator having stored therein manifest defocus and astigmatism measurements for a subject and topographical measurements of the anterior corneal surface of the subject made with the corneal topography measuring instrument, and wherein the stored manifest astigmatism for the subject is different in one or more of power and axis from a corneal astigmatism derived at least in part from the topographical measurements of the anterior corneal surface of the subject; wherein the laser system is configured to control the laser output to ablate at least some high order aberrations from the anterior corneal surface in accordance with topographical measurements of the anterior corneal surface made with the corneal topography measuring instrument; and wherein the laser system is configured to control the laser output to ablate the anterior corneal surface in a manner that reduces astigmatism of the anterior corneal surface in accordance with the corneal astigmatism derived at least in part from the topographical measurements of the anterior corneal surface of the subject.
A method (100, 200, 300) for monitoring wireless data communication by a user equipment connected to a wireless data network, comprising the following steps performed by the user equipment: receiving (110, 210, 310) at least one signal, wherein the at least one signal comprises at least one characteristic of a wake-up signal; determining (120, 220, 320) whether the at least one signal is a wake-up signal or a false alarm wake-up signal; and reporting (140, 240, 340), based on said determining (120, 220, 320), information on the at least one signal to the wireless data network, wherein the reporting (140, 240, 340), based on said determining (120, 220, 320), information on the at least one signal to the wireless data network comprises selectively executing the reporting (140, 240, 340), if the at least one signal is a false alarm wake-up signal, wherein a plurality of signals are received and the method further comprises: collecting (230, 330) information on the false alarm wake-up signals of the plurality of received signals; wherein reporting (240, 340) information on the false alarm wake-up signals of the plurality of received signals to the wireless data network is performed collectively, wherein collecting (230, 330) information on the false alarm wake-up signals includes information regarding the geographical location of the user equipment at the point of time of receiving each of the false alarm wake-up signals. receiving (110, 210, 310) at least one signal, wherein the at least one signal comprises at least one characteristic of a wake-up signal; determining (120, 220, 320) whether the at least one signal is a wake-up signal or a false alarm wake-up signal; and reporting (140, 240, 340), based on said determining (120, 220, 320), information on the at least one signal to the wireless data network, wherein the reporting (140, 240, 340), based on said determining (120, 220, 320), information on the at least one signal to the wireless data network comprises selectively executing the reporting (140, 240, 340), if the at least one signal is a false alarm wake-up signal, collecting (230, 330) information on the false alarm wake-up signals of the plurality of received signals; wherein reporting (240, 340) information on the false alarm wake-up signals of the plurality of received signals to the wireless data network is performed collectively,
A wellhead assembly, comprising: a gas flow control valve having a tubular inlet into which a fluid from a well tube flows, and a gas flow line through which the fluid flows out from the gas flow control valve, the well tube being positioned in a well at a landfill; an inlet tube having a first end and a second end, the first end being operably coupled to the well tube to receive the fluid flowing up from the well tube, and the second end being coupled to the tubular inlet of the gas flow control valve; the tubular inlet having a first groove formed on a surface thereof; characterized in the inlet tube having a second groove formed on a surface thereof, and in a split lock ring having dimensions sufficient to at least partially rest in one of the first and second grooves (30, 34), and to be substantially fully compressed into the one of the first and second grooves when the second end of the inlet tube is telescopically coupled to the tubular inlet, and in that the split lock ring further is of dimensions sufficient to engage with the other one of the first and second grooves (34, 30) as the first and second grooves become axially aligned, to lock the inlet tube to the tubular inlet while still permitting rotational movement of the inlet tube relative to the tubular inlet. a gas flow control valve having a tubular inlet into which a fluid from a well tube flows, and a gas flow line through which the fluid flows out from the gas flow control valve, the well tube being positioned in a well at a landfill; an inlet tube having a first end and a second end, the first end being operably coupled to the well tube to receive the fluid flowing up from the well tube, and the second end being coupled to the tubular inlet of the gas flow control valve; the tubular inlet having a first groove formed on a surface thereof; characterized in the inlet tube having a second groove formed on a surface thereof, and in a split lock ring having dimensions sufficient to at least partially rest in one of the first and second grooves (30, 34), and to be substantially fully compressed into the one of the first and second grooves when the second end of the inlet tube is telescopically coupled to the tubular inlet, and in that the split lock ring further is of dimensions sufficient to engage with the other one of the first and second grooves (34, 30) as the first and second grooves become axially aligned, to lock the inlet tube to the tubular inlet while still permitting rotational movement of the inlet tube relative to the tubular inlet.
A method for producing a fatty acid based surfactant comprising: reacting a fatty acid ester epoxide with a hydroxy acid or a hydroxy ester in the presence of a catalyst to produce an acid or a poly-ester with an ether functionality, wherein the catalyst comprises one or more of a tetrafluoroborate salt catalyst, a metal hydroxide catalyst, or a metal halide catalyst; and hydrolyzing an ester from the fatty acid ester epoxide or the hydroxy ester under basic conditions to form a water-soluble salt. reacting a fatty acid ester epoxide with a hydroxy acid or a hydroxy ester in the presence of a catalyst to produce an acid or a poly-ester with an ether functionality, wherein the catalyst comprises one or more of a tetrafluoroborate salt catalyst, a metal hydroxide catalyst, or a metal halide catalyst; and hydrolyzing an ester from the fatty acid ester epoxide or the hydroxy ester under basic conditions to form a water-soluble salt.
A method comprising: at a network device among network devices configured to perform information centric networking, ICN, in an ICN network: receiving an Interest from a consumer as the Interest traverses an Interest path to a data responder (110; 104), the Interest requesting data by name and indicating an accumulated Interest queuing delay experienced by the Interest on the Interest path, wherein the accumulated Interest queuing delay is a summation of local Interest queuing delays experienced by the Interest in respective ones of the network devices; enqueuing the Interest to an Interest queue and dequeuing the Interest from the Interest queue; determining a local Interest queuing delay between the enqueing and dequeuing; increasing the indicated accumulated Interest queuing delay in the Interest by the local Interest queueing delay; determining whether data satisfying the Interest resides in a data cache; and if it is determined that data satisfying the Interest resides in the data cache: retrieving the data satisfying the Interest from the data cache; generating a data packet that includes the retrieved data, the indicated accumulated Interest queuing delay, and an indicated accumulated data queuing delay that is initialized to zero; and forwarding the data packet to the consumer along a path that is a reverse of the Interest path. receiving an Interest from a consumer as the Interest traverses an Interest path to a data responder (110; 104), the Interest requesting data by name and indicating an accumulated Interest queuing delay experienced by the Interest on the Interest path, wherein the accumulated Interest queuing delay is a summation of local Interest queuing delays experienced by the Interest in respective ones of the network devices; enqueuing the Interest to an Interest queue and dequeuing the Interest from the Interest queue; determining a local Interest queuing delay between the enqueing and dequeuing; increasing the indicated accumulated Interest queuing delay in the Interest by the local Interest queueing delay; determining whether data satisfying the Interest resides in a data cache; and if it is determined that data satisfying the Interest resides in the data cache: retrieving the data satisfying the Interest from the data cache; generating a data packet that includes the retrieved data, the indicated accumulated Interest queuing delay, and an indicated accumulated data queuing delay that is initialized to zero; and forwarding the data packet to the consumer along a path that is a reverse of the Interest path. retrieving the data satisfying the Interest from the data cache; generating a data packet that includes the retrieved data, the indicated accumulated Interest queuing delay, and an indicated accumulated data queuing delay that is initialized to zero; and forwarding the data packet to the consumer along a path that is a reverse of the Interest path.
A method of wireless communication, comprising: detecting, by a user equipment, UE, at least one of a first type of data or a second type of data to be transmitted from the UE to a base station, BS, over a channel; determining, by the UE, if a first type of physical random access channel, PRACH, resource is available for transmitting at least one of the first type of data or the second type of data to the BS; transmitting at least one of the first type of data or the second type of data using the first type of PRACH resource based at least in part on determining the first type of PRACH resource is available; and transmitting the second type of data using a second type of PRACH resource based at least in part on determining the first type of PRACH resource is not available_and the second type of data is detected. detecting, by a user equipment, UE, at least one of a first type of data or a second type of data to be transmitted from the UE to a base station, BS, over a channel; determining, by the UE, if a first type of physical random access channel, PRACH, resource is available for transmitting at least one of the first type of data or the second type of data to the BS; transmitting at least one of the first type of data or the second type of data using the first type of PRACH resource based at least in part on determining the first type of PRACH resource is available; and transmitting the second type of data using a second type of PRACH resource based at least in part on determining the first type of PRACH resource is not available_and the second type of data is detected.
Expansible fixing plug (1, 101, 201, 301) made of plastics material, - having an expansion region (9, 109, 209, 309) which can be expanded by an expansion element, - wherein the expansion element can be introduced for expansion into an axial guide channel (5, 105, 205, 305) of the expansible fixing plug (1, 101, 201, 301), - having a first expansible sleeve (2, 102, 202, 302) and - having a second expansible sleeve (3, 103, 203, 303) which at least partly encloses the first expansible sleeve (2, 102, 202, 302) in an unexpanded state, - wherein the first expansible sleeve (2, 102, 202, 302) and the second expansible sleeve (3, 103, 203, 303) are connected together in the unexpanded state so as to be fixed against relative rotation and tension-resistant, and - wherein a sliding surface (16, 116, 216, 316) is formed in the expansion region (9, 109, 209, 309) between the first expansible sleeve (2, 102, 202, 302) and the second expansible sleeve (3, 103, 203, 303), so - wherein when the expansible fixing plug (1, 101, 201, 301) is expanded, the first expansible sleeve (2, 102, 202, 302) is able to become detached from the second expansible sleeve (3, 103, 203, 303) in the expansion region (9, 109, 209, 309) and is movable relative to the second expansible sleeve (3, 103, 203, 303), characterised in that secondary expansion tongues (18, 118, 218, 318; 19, 119, 219, 319) are formed on the two expansible sleeves (2, 102, 202, 302; 3, 103, 203, 303), which expansion tongues are together arranged in the expansion region (9, 109, 209, 309). - having an expansion region (9, 109, 209, 309) which can be expanded by an expansion element, - wherein the expansion element can be introduced for expansion into an axial guide channel (5, 105, 205, 305) of the expansible fixing plug (1, 101, 201, 301), - having a first expansible sleeve (2, 102, 202, 302) and - having a second expansible sleeve (3, 103, 203, 303) which at least partly encloses the first expansible sleeve (2, 102, 202, 302) in an unexpanded state, - wherein the first expansible sleeve (2, 102, 202, 302) and the second expansible sleeve (3, 103, 203, 303) are connected together in the unexpanded state so as to be fixed against relative rotation and tension-resistant, and - wherein a sliding surface (16, 116, 216, 316) is formed in the expansion region (9, 109, 209, 309) between the first expansible sleeve (2, 102, 202, 302) and the second expansible sleeve (3, 103, 203, 303), so - wherein when the expansible fixing plug (1, 101, 201, 301) is expanded, the first expansible sleeve (2, 102, 202, 302) is able to become detached from the second expansible sleeve (3, 103, 203, 303) in the expansion region (9, 109, 209, 309) and is movable relative to the second expansible sleeve (3, 103, 203, 303),