mhurhangee/ep-ind-claims huggingface dataset:
A method of repairing a part of a gas turbine engine, the part including a first aerofoil, a second aerofoil, a first platform, and a second platform, the method comprising: controlling machining of at least one of: the first aerofoil and the second aerofoil; characterized by the machining causing an increase in a throat area defined by the first aerofoil, the second aerofoil, the first platform and the second platform, the first aerofoil and the second aerofoil being arranged to couple to the first platform and to the second platform, the first platform including a body and a coating, the coating having a first thickness; providing a coating from coating apparatus selected from the group comprising thermal spray apparatus, air plasma spray apparatus, electroplating apparatus, electron beam physical vapour deposition apparatus, high velocity oxygen fuel coating apparatus; and controlling provision of the coating to the first platform subsequent to controlling machining to provide the coating of the first platform with a second thickness (D2') and to reduce the throat area, the second thickness (D2') being greater than the first thickness. controlling machining of at least one of: the first aerofoil and the second aerofoil; characterized by the machining causing an increase in a throat area defined by the first aerofoil, the second aerofoil, the first platform and the second platform, the first aerofoil and the second aerofoil being arranged to couple to the first platform and to the second platform, the first platform including a body and a coating, the coating having a first thickness; providing a coating from coating apparatus selected from the group comprising thermal spray apparatus, air plasma spray apparatus, electroplating apparatus, electron beam physical vapour deposition apparatus, high velocity oxygen fuel coating apparatus; and controlling provision of the coating to the first platform subsequent to controlling machining to provide the coating of the first platform with a second thickness (D2') and to reduce the throat area, the second thickness (D2') being greater than the first thickness.
A process for the production of a metallic iridium product characterised in that chemically high purity metallic iridium having a purity of not less than 99.99% by weight, as a nanopowder having a particle size of <100 nm, is loaded into an elastic hermetic envelope, is vibrated for 30 minutes at a vibration frequency of 50 Hz, followed by isostatic pressing at a pressure of 150-350 MPa at room temperature and subsequent baking at a temperature of 1000-1350°C to obtain a seamless product with an isotropic structure with a grain size of 100-300 nm.
A method comprising bonding first and second aircraft structures (110, 120) together with an adhesive including strain-sensitive magnetostrictive material, characterised in that the strain-sensitive magnetostrictive material includes Terfenol-D.
A metal supported solid oxide fuel cell unit comprising: a) a plurality of metal substrate plates (70a, 70b) and at least two blanking plates (50a, 50b), each metal substrate plate (70a, 70b) defining first and second opposed surfaces (71, 72) and each blanking plate (50a, 50b) defining first and second opposed surfaces (51, 52), wherein at least one solid oxide fuel cell is disposed on said second surface of each metal substrate plate (70a, 70b); b) a metal spacer, which defines first and second opposed surfaces (31, 32), said metal spacer comprising an external perimeter and a plurality of cut-out internal perimeters (39a, 39b), each cut-out internal perimeter (39a, 39b) defining a cut-out, wherein said first surface of each metal substrate plate (70a, 70b) and said first surface of each blanking plate (50a, 50b) is attached to said second surface of said metal spacer, each cut-out internal perimeter (39a, 39b) of said metal spacer being wholly overlapped by a metal substrate plate (70a, 70b); and c) a metal interconnect plate which defines first and second opposed surfaces (21, 22), said second surface of said metal interconnect plate sealingly attached to said first surface of said metal spacer. a) a plurality of metal substrate plates (70a, 70b) and at least two blanking plates (50a, 50b), each metal substrate plate (70a, 70b) defining first and second opposed surfaces (71, 72) and each blanking plate (50a, 50b) defining first and second opposed surfaces (51, 52), wherein at least one solid oxide fuel cell is disposed on said second surface of each metal substrate plate (70a, 70b); b) a metal spacer, which defines first and second opposed surfaces (31, 32), said metal spacer comprising an external perimeter and a plurality of cut-out internal perimeters (39a, 39b), each cut-out internal perimeter (39a, 39b) defining a cut-out, wherein said first surface of each metal substrate plate (70a, 70b) and said first surface of each blanking plate (50a, 50b) is attached to said second surface of said metal spacer, each cut-out internal perimeter (39a, 39b) of said metal spacer being wholly overlapped by a metal substrate plate (70a, 70b); and c) a metal interconnect plate which defines first and second opposed surfaces (21, 22), said second surface of said metal interconnect plate sealingly attached to said first surface of said metal spacer.
A light-emitter comprising: a first electrode; a laminate that is disposed on the first electrode and includes a charge injection transport layer and a light-emitting layer; a second electrode that is disposed on the laminate; and a bank that defines an area in which the light-emitting layer is to be formed, wherein in the area defined by the bank, the charge injection transport layer has a recess in an upper surface thereof, and an upper peripheral edge of the recess is covered with a part of the bank, characterized in that the charge injection transport layer extends laterally along a bottom surface (5a, 5b) of the bank, the light-emitting layer is an organic EL layer, the charge injection transport layer comprises a metal compound, and the upper peripheral edge of the recess is covered by the bank such that a direct contact between the upper peripheral edge and the light emitting layer is prevented by an intervening part of the bank. a first electrode; a laminate that is disposed on the first electrode and includes a charge injection transport layer and a light-emitting layer; a second electrode that is disposed on the laminate; and a bank that defines an area in which the light-emitting layer is to be formed, wherein in the area defined by the bank, the charge injection transport layer has a recess in an upper surface thereof, and an upper peripheral edge of the recess is covered with a part of the bank, characterized in that the charge injection transport layer extends laterally along a bottom surface (5a, 5b) of the bank, the light-emitting layer is an organic EL layer, the charge injection transport layer comprises a metal compound, and the upper peripheral edge of the recess is covered by the bank such that a direct contact between the upper peripheral edge and the light emitting layer is prevented by an intervening part of the bank.
A process for the preparation of an orally disintegrating tablet for administration to a human subject, the tablet containing a medicinal substance to treat a disorder of the human subject, comprising the steps of: i. providing a fluid formulation comprising the medicinal substance, ii. providing a solid element having formed therein at least one cavity, iii. cooling the solid element to a temperature below a freezing temperature of the formulation, iv. filling the cavity with the fluid formulation, v. solidifying the formulation while present in the cavity by extracting heat from the formulation through a cavity wall by conduction, to form a solid pellet comprising the medicinal substance without actively shaping the entire surface of the pellet, vi. taking the pellet out of the cavity, and vii. drying the pellet in a vacuum to obtain the tablet. characterised in that the volume of the cavity is smaller than 50% of the volume of the pellet. i. providing a fluid formulation comprising the medicinal substance, ii. providing a solid element having formed therein at least one cavity, iii. cooling the solid element to a temperature below a freezing temperature of the formulation, iv. filling the cavity with the fluid formulation, v. solidifying the formulation while present in the cavity by extracting heat from the formulation through a cavity wall by conduction, to form a solid pellet comprising the medicinal substance without actively shaping the entire surface of the pellet, vi. taking the pellet out of the cavity, and vii. drying the pellet in a vacuum to obtain the tablet.
A steel wire rod with excellent spring workability for high-strength spring, the steel wire rod being a steel wire rod obtained after hot rolling and consisting of, mass%: C: 0.4 to 0.8%, Si: 1.5 to 3.5%, Mn: 0.3 to 1.5%, Cr: 0.03 to 0.4%, and Al: 0.005% or less (not including 0%), and optionally one or more types selected from the group: V: 0.5% or less, Nb: 0.5% or less, Ni: 2.0% or less, and Mo: 0.5% or less, Cu: 0.7% or less, and B: 0.01% or less with the balance consisting of iron and inevitable impurities, having a structure with a pearlite area ratio of 90% or more, and meeting the requirements of the following formulae and: 8.0 ≤ Pave ≤ 12.0 0.0 < Pσ ≤ 0.5 wherein Pave is an average of the grain size numbers of pearlite nodules at a depth of 0.5 mm from the surface and Pσ is its standard deviation.
A catheter (10, 10a, 10b, 10c, 10d) comprising: an outer tube (30, 30a); a first inner tube inserted into the outer tube; a second inner tube inserted into the outer tube (30, 30a) parallel to the first inner tube, the second inner tube having an insertion opening provided at a proximal end and a distal end opening provided at a distal end of the second inner tube; a first core wire (70, 70a) inserted between the outer tube (30, 30a) and the first inner tube, the first core wire (70, 70a) being fixed to the outer tube (30, 30a) or the first inner tube; and a second core wire (80, 80a, 80b) inserted parallel to the first core wire (70, 70a), the second core wire (80, 80a, 80b) being capable of moving between the outer tube (30, 30a) and the first inner tube, characterized in that the second inner tube is inserted from the middle through the distal end of the catheter (10, 10a, 10b, 10c, 10d), the first core wire is longer than the second core wire (80, 80a, 80b), and a distal end (72, 72a) of the first core wire (70, 70a) is located in a distal end side relative to the insertion opening of the second inner tube while a distal end (82, 82a, 82b) of the second core wire (80, 80a, 80b) is located in a proximal end side relative to the insertion opening of the second inner tube. an outer tube (30, 30a); a first inner tube inserted into the outer tube; a second inner tube inserted into the outer tube (30, 30a) parallel to the first inner tube, the second inner tube having an insertion opening provided at a proximal end and a distal end opening provided at a distal end of the second inner tube; a first core wire (70, 70a) inserted between the outer tube (30, 30a) and the first inner tube, the first core wire (70, 70a) being fixed to the outer tube (30, 30a) or the first inner tube; and a second core wire (80, 80a, 80b) inserted parallel to the first core wire (70, 70a), the second core wire (80, 80a, 80b) being capable of moving between the outer tube (30, 30a) and the first inner tube, characterized in that
A method of wireless communication, comprising: communicating, by a first wireless communication device with a second wireless communication device, a reservation signal to reserve a transmission opportunity, TXOP, in a spectrum, wherein the spectrum is shared by multiple radio access technologies, RATs, wherein the reservation signal includes a plurality of first waveform sequences indicating medium reservation information detectable by the multiple RATs, wherein the plurality of first waveform sequences correspond to multiple instances of a second waveform sequence masked by a code representing the medium reservation information, and wherein the first wireless communication device and the second wireless communication device are associated with a first RAT of the multiple RATs; and communicating, by the first wireless communication device with the second wireless communication device using the first RAT, a communication signal in the spectrum during the TXOP. communicating, by a first wireless communication device with a second wireless communication device, a reservation signal to reserve a transmission opportunity, TXOP, in a spectrum, wherein the spectrum is shared by multiple radio access technologies, RATs, wherein the reservation signal includes a plurality of first waveform sequences indicating medium reservation information detectable by the multiple RATs, wherein the plurality of first waveform sequences correspond to multiple instances of a second waveform sequence masked by a code representing the medium reservation information, and wherein the first wireless communication device and the second wireless communication device are associated with a first RAT of the multiple RATs; and communicating, by the first wireless communication device with the second wireless communication device using the first RAT, a communication signal in the spectrum during the TXOP.
A method for establishing a call connection, comprising: sending a Radio Resource Control, RRC, connection request message to a Long Term Evolution, LTE, network device, wherein the RRC connection request message comprises information on causes of establishment that includes at least one of a first identification and a second identification, wherein the first identification is formed by a first part of requesting to establish an RRC connection and a second part of requesting to perform a Circuit Switched, CS, call service, and the second identification is configured to simultaneously indicate requesting to establish the RRC connection and requesting to perform the Circuit Switched call service; establishing a RRC bearer according to an instruction of the LTE network device; receiving an RRC release message sent by the LTE network device through the RRC bearer, wherein the RRC release message comprises information of the target CS network device; establishing a call connection with the target CS network device according to the information of the target CS network device; and releasing the RRC bearer according to the RRC release message wherein the LTE network device obtains multiple reference information of an LTE terminal after the LTE terminal starts up and connects to Internet, and the multiple reference information comprise information related to authentication of the LTE terminal, and capability information of the LTE terminal. sending a Radio Resource Control, RRC, connection request message to a Long Term Evolution, LTE, network device, wherein the RRC connection request message comprises information on causes of establishment that includes at least one of a first identification and a second identification, wherein the first identification is formed by a first part of requesting to establish an RRC connection and a second part of requesting to perform a Circuit Switched, CS, call service, and the second identification is configured to simultaneously indicate requesting to establish the RRC connection and requesting to perform the Circuit Switched call service; establishing a RRC bearer according to an instruction of the LTE network device; receiving an RRC release message sent by the LTE network device through the RRC bearer, wherein the RRC release message comprises information of the target CS network device; establishing a call connection with the target CS network device according to the information of the target CS network device; and releasing the RRC bearer according to the RRC release message wherein the LTE network device obtains multiple reference information of an LTE terminal after the LTE terminal starts up and connects to Internet, and the multiple reference information comprise information related to authentication of the LTE terminal, and capability information of the LTE terminal.
Circuit board with sensors for identifying the position of a rotor of a brushless DC motor guided in a recess of the circuit board, wherein the sensors are arranged in the peripheral region of the recess, and the circuit board has a current supply for providing current to the sensors and the DC motor, characterised in that the sensors are fastened to blades of the circuit board bent out from inside the recess into a position perpendicular to the circuit board by means of solderable terminal regions.
A method for determining a starting time t s0 for a flash emitted from a flash tube of a flash apparatus comprising a triggering circuit, and a drive circuit, characterised by the steps of: - measuring the voltage across an inductor of the drive circuit, which inductor is connected in series with the flash tube during use of the flash apparatus, and - determining the starting time t s0 for the flash based on the measured voltage. - measuring the voltage across an inductor of the drive circuit, which inductor is connected in series with the flash tube during use of the flash apparatus, and - determining the starting time t s0 for the flash based on the measured voltage.
A shaving composition comprising one or more ingredient(s) of formula I: wherein R1 denotes a C1-C25 alkyl group, C3-C7 cycloalkylene group, C1-C25 alkyl C3-C7 cycloalkylene group, C5-C7 arylene group, 5- or 6-membered heteroaryl group, fused heterocyclyl group consisting of two or three rings, or a non-aromatic heterocyclyl group, n denotes an integer from 1 to 6, m denotes 0 or 1, and R2 and R3 represent each independently a C1-C25 alkyl group, and pharmaceutically acceptable salts thereof and further comprises an antiseptic agent, for use in a method for the treatment and/or prevention of pseudofolliculitis barbae, wherein the antiseptic agent is selected from the group consisting of chlorhexidine, chlorhexidine digluconate, and chlorhexidine gluconate, or mixtures thereof.
A composition, comprising: ethylene propylene diene monomer (EPDM) polymer, aluminum hydroxide, expandable graphite, tris(2-ethylhexyl) phosphate, and a maleic anhydride adduct of polybutadiene, wherein the composition is mineral oil free.
A system for managing animals on a dairy farm, characterized in: - receiving means provided for receiving, for each of said animals, a value of a protein content and a value of a fat content of milk from the animal as milked on said dairy farm; - calculating means provided for calculating, for each of said animals, the ratio of the values of said protein and fat contents of milk from the animal; - comparing means provided for fetching, for each of said animals, from a database a reference protein/fat ratio, and for comparing the calculated protein/fat ratio with the fetched reference protein/fat ratio; and - notifying means, preferably a display unit, a loudspeaker, or a transmitter, provided for notifying, for each of said animals, a dairy farmer of said dairy farm depending on the outcome of the comparison of the calculated protein/fat ratio and the fetched reference protein/fat ratio, wherein - said system is fully automated; and - said system comprises a feeding device capable of supplying different kind of feed to said animals, wherein said feeding device is provided for supplying, for each of said animals, feed to said animal depending on the outcome of the comparison of the calculated protein/fat ratio and the fetched reference protein/fat ratio. - receiving means provided for receiving, for each of said animals, a value of a protein content and a value of a fat content of milk from the animal as milked on said dairy farm; - calculating means provided for calculating, for each of said animals, the ratio of the values of said protein and fat contents of milk from the animal; - comparing means provided for fetching, for each of said animals, from a database a reference protein/fat ratio, and for comparing the calculated protein/fat ratio with the fetched reference protein/fat ratio; and - notifying means, preferably a display unit, a loudspeaker, or a transmitter, provided for notifying, for each of said animals, a dairy farmer of said dairy farm depending on the outcome of the comparison of the calculated protein/fat ratio and the fetched reference protein/fat ratio, wherein - said system is fully automated; and - said system comprises a feeding device capable of supplying different kind of feed to said animals, wherein said feeding device is provided for supplying, for each of said animals, feed to said animal depending on the outcome of the comparison of the calculated protein/fat ratio and the fetched reference protein/fat ratio.
A centrifugal pump assembly, in particular as part of a water supply system, with an electric motor and with a single-stage or multi-stage centrifugal pump which is driven by this, said centrifugal pump being with at least one impeller which produces a main delivery flow through an annular space which surrounds the at least one pump stage, as well as a cooling fluid delivery flow through a space which surrounds the motor, wherein the cooling fluid delivery flow is branched from the main delivery flow, the annular space is subdivided by at least two guide vanes into part-annular-spaces (23, 24) and each part- annular-space (23, 24) is conductively connected to the space which surrounds the motor, characterised in that the part-annular-spaces (23, 24) on operation have a pressure level which is produced by the guide vanes and which are different from one another.
A portable tire pressure monitoring system (TPMS) tool (100; 200; 300; 400; 500), comprising: a housing (110; 210; 310; 410; 510); a power source (170; 325; 425; 525A, 525B) positioned in the housing (110; 210; 310; 410; 510); a TPMS tire sensor trigger signal generator (142; 242; 442; 542) positioned in the housing (110; 210; 310; 410; 510) and in communication with the power source (170; 325; 425; 525A, 525B); an antenna (130; 230; 330; 430; 530) in communication with the trigger signal generator (142; 242; 442; 542), the antenna (130; 230; 330; 430; 530) operable to transmit the TPMS tire sensor trigger signal; and a tire sensor trigger device (135; 235; 335; 450; 550) in communication with the trigger signal generator (142; 242; 442; 542), wherein the TPMS tire sensor trigger signal generator (142; 242; 442; 542) is operable to generate the TPMS tire sensor trigger signal on activation of the tire sensor trigger device (135; 235), wherein the tire sensor trigger device (135; 235) further comprises a manually displaceable trigger signal contact device (135; 235), characterized in that the manually displaceable trigger signal contact device (135; 235) comprises a tire push button engaged with the antenna (130; 230). a housing (110; 210; 310; 410; 510); a power source (170; 325; 425; 525A, 525B) positioned in the housing (110; 210; 310; 410; 510); a TPMS tire sensor trigger signal generator (142; 242; 442; 542) positioned in the housing (110; 210; 310; 410; 510) and in communication with the power source (170; 325; 425; 525A, 525B); an antenna (130; 230; 330; 430; 530) in communication with the trigger signal generator (142; 242; 442; 542), the antenna (130; 230; 330; 430; 530) operable to transmit the TPMS tire sensor trigger signal; and a tire sensor trigger device (135; 235; 335; 450; 550) in communication with the trigger signal generator (142; 242; 442; 542), wherein the TPMS tire sensor trigger signal generator (142; 242; 442; 542) is operable to generate the TPMS tire sensor trigger signal on activation of the tire sensor trigger device (135; 235), wherein the tire sensor trigger device (135; 235) further comprises a manually displaceable trigger signal contact device (135; 235), characterized in that the manually displaceable trigger signal contact device (135; 235) comprises a tire push button engaged with the antenna (130; 230).