mhurhangee/ep-ind-claims huggingface dataset:
A connector assembly for a vessel mooring system, the connector assembly comprising: a first portion comprising a mooring coupling, the first portion configured to be coupled to one or more mooring lines; a second portion comprising a vessel coupling, the second portion configured to be coupled to a vessel, wherein the first and second portions are rotatable with respect to one another to permit the vessel coupling on the second portion to swivel about the mooring coupling on the first portion and wherein the second portion is disposed at least partially within the first portion; a fluid transfer conduit; and a guide for the fluid transfer conduit, characterized in that the guide comprises an aperture in the second portion through which the fluid transfer conduit is received; wherein the aperture has upper and lower lips which are curved to assist in the passage of the fluid transfer conduit through the aperture, the shape of the upper and lower lips being selected to correspond to a minimum bend radius of the fluid transfer conduit. a first portion comprising a mooring coupling, the first portion configured to be coupled to one or more mooring lines; a second portion comprising a vessel coupling, the second portion configured to be coupled to a vessel, wherein the first and second portions are rotatable with respect to one another to permit the vessel coupling on the second portion to swivel about the mooring coupling on the first portion and wherein the second portion is disposed at least partially within the first portion; a fluid transfer conduit; and a guide for the fluid transfer conduit, characterized in that the guide comprises an aperture in the second portion through which the fluid transfer conduit is received; wherein the aperture has upper and lower lips which are curved to assist in the passage of the fluid transfer conduit through the aperture, the shape of the upper and lower lips being selected to correspond to a minimum bend radius of the fluid transfer conduit.
A mixture of inorganic particles for a nonaqueous electrolyte battery, comprising a first inorganic particle and a second inorganic particle, wherein the first inorganic particle comprises a layered compound comprising a metal element having an electronegativity smaller than manganese in a crystal structure of the compound, having an interlayer distance of from 0.40 nm to 2.0 nm and including an exchangeable cation between layers of the compound, wherein the exchangeable cation is selected from the group consisting of an alkali metal ion, an alkaline earth metal ion, an ammonium ion, an organic cation, and any mixture thereof, and wherein the second inorganic particle has an average particle diameter larger than the average particle diameter of the first inorganic particle, and the first and the second inorganic particle being different compounds. wherein the first inorganic particle comprises a layered compound comprising a metal element having an electronegativity smaller than manganese in a crystal structure of the compound, having an interlayer distance of from 0.40 nm to 2.0 nm and including an exchangeable cation between layers of the compound, wherein the exchangeable cation is selected from the group consisting of an alkali metal ion, an alkaline earth metal ion, an ammonium ion, an organic cation, and any mixture thereof, and wherein the second inorganic particle has an average particle diameter larger than the average particle diameter of the first inorganic particle, and the first and the second inorganic particle being different compounds.
A method of repairing a turbine blade having an internal cavity and having a cap, the method comprising the steps of: a) removing the cap; and b) replacing the cap with a replacement cap; characterised by: c) attaching the replacement cap to the turbine blade through an opening in the replacement cap that provides access to the internal cavity of the turbine blade. a) removing the cap; and b) replacing the cap with a replacement cap; characterised by: c) attaching the replacement cap to the turbine blade through an opening in the replacement cap that provides access to the internal cavity of the turbine blade.
A wall anchor for securing movable objects to a wall, in particular a building wall, said wall anchor comprising a locking mechanism and a housing which is configured for fastening to the wall and which surrounds the locking mechanism, wherein the housing has at least one introduction opening (61, 63) through which a closing end (65, 67) of an associated flexible securing part can be introduced into the housing, wherein the locking mechanism is configured to lock the closing end (65, 67) introduced into the housing, and wherein the locking mechanism has at least one latch (35, 37) which is movable between a locking position and an unlocking position, wherein the latch (35, 37) is configured, in the locking position, to lock the closing end (65, 67) of the associated flexible securing part, said closing end being introduced into the housing, and, in the unlocking position, to release the closing end (65, 67) introduced into the housing for a removal from the housing, characterized in that the locking mechanism has an adjustable entrainer comprising at least one blocking section (49, 51) which is configured, in a blocking position of the entrainer, to block the latch (35, 37) in its locking position. said wall anchor comprising a locking mechanism and a housing which is configured for fastening to the wall and which surrounds the locking mechanism, wherein the housing has at least one introduction opening (61, 63) through which a closing end (65, 67) of an associated flexible securing part can be introduced into the housing, wherein the locking mechanism is configured to lock the closing end (65, 67) introduced into the housing, and wherein the locking mechanism has at least one latch (35, 37) which is movable between a locking position and an unlocking position, wherein the latch (35, 37) is configured, in the locking position, to lock the closing end (65, 67) of the associated flexible securing part, said closing end being introduced into the housing, and, in the unlocking position, to release the closing end (65, 67) introduced into the housing for a removal from the housing, characterized in that the locking mechanism has an adjustable entrainer comprising at least one blocking section (49, 51) which is configured, in a blocking position of the entrainer, to block the latch (35, 37) in its locking position.
Method for generating electrical energy, comprising the following steps: a) feeding hydrogen, oxygen and liquid water into a combustion chamber, b) oxidizing the hydrogen with the oxygen in the combustion chamber with formation of steam; c) expanding the steam by means of a steam turbine, which drives an electrical generator, in which method the steam, after flowing through the steam turbine, is fed to a heat exchanger for discharging heat to a heat transfer medium, in which method the steam, after flowing through the steam turbine, is fed to a condenser and there is fully condensed to produce liquid water. a) feeding hydrogen, oxygen and liquid water into a combustion chamber, b) oxidizing the hydrogen with the oxygen in the combustion chamber with formation of steam; c) expanding the steam by means of a steam turbine, which drives an electrical generator, in which method the steam, after flowing through the steam turbine, is fed to a heat exchanger for discharging heat to a heat transfer medium, in which method the steam, after flowing through the steam turbine, is fed to a condenser and there is fully condensed to produce liquid water. in which method the steam, after flowing through the steam turbine, is fed to a heat exchanger for discharging heat to a heat transfer medium, in which method the steam, after flowing through the steam turbine, is fed to a condenser and there is fully condensed to produce liquid water.
An acoustic insulation system for an internal combustion engine mounted on a vehicle, the acoustic insulation system comprising: an acoustic insulation cover configured to cover the internal combustion engine with a gap interposed between the acoustic insulation cover and the internal combustion engine; a first fan configured to introduce air toward an interior of the acoustic insulation cover; and a second fan configured to discharge air from the interior of the acoustic insulation cover, characterized in that: the first fan and the second fan are integrally arranged in parallel with a bulkhead interposed between the first fan and the second fan, the bulkhead is formed so as to protrude toward the internal combustion engine and separate a flow of air by the first fan from a flow of air by the second fan, and the second fan is configured to blow air also in a direction opposite to a flow direction of air by the first fan. an acoustic insulation cover configured to cover the internal combustion engine with a gap interposed between the acoustic insulation cover and the internal combustion engine; a first fan configured to introduce air toward an interior of the acoustic insulation cover; and a second fan configured to discharge air from the interior of the acoustic insulation cover, characterized in that: the first fan and the second fan are integrally arranged in parallel with a bulkhead interposed between the first fan and the second fan, the bulkhead is formed so as to protrude toward the internal combustion engine and separate a flow of air by the first fan from a flow of air by the second fan, and the second fan is configured to blow air also in a direction opposite to a flow direction of air by the first fan. the first fan and the second fan are integrally arranged in parallel with a bulkhead interposed between the first fan and the second fan, the bulkhead is formed so as to protrude toward the internal combustion engine and separate a flow of air by the first fan from a flow of air by the second fan, and the second fan is configured to blow air also in a direction opposite to a flow direction of air by the first fan.
A method for detecting a fault in a differential sensor arrangement (100, 210), the method comprising: modulating at least one physical parameter of the differential sensor arrangement (100, 210) by a configuration value, wherein the at least one physical parameter of the differential sensor arrangement (100, 210) is modulated during operation of the differential sensor arrangement (100, 210); comparing an output of the differential sensor arrangement (100, 210) with a reference output related to the modulated at least one physical parameter, wherein the output is a modulated output using a modulation of a first physical parameter of the differential sensor arrangement (100, 210) with a first configuration value and the reference output is a modulated output using a modulation of the first physical parameter of the differential sensor arrangement (100, 210) with a second configuration value or wherein the output is a modulated output using a modulation of a first physical parameter of the differential sensor arrangement (100, 210) and the reference output is a modulated output using a modulation of a second physical parameter of the differential sensor arrangement (100, 210); and detecting a fault based on the comparison, wherein the fault is detected when the output deviates from the reference output. modulating at least one physical parameter of the differential sensor arrangement (100, 210) by a configuration value, wherein the at least one physical parameter of the differential sensor arrangement (100, 210) is modulated during operation of the differential sensor arrangement (100, 210); comparing an output of the differential sensor arrangement (100, 210) with a reference output related to the modulated at least one physical parameter, wherein the output is a modulated output using a modulation of a first physical parameter of the differential sensor arrangement (100, 210) with a first configuration value and the reference output is a modulated output using a modulation of the first physical parameter of the differential sensor arrangement (100, 210) with a second configuration value or wherein the output is a modulated output using a modulation of a first physical parameter of the differential sensor arrangement (100, 210) and the reference output is a modulated output using a modulation of a second physical parameter of the differential sensor arrangement (100, 210); and wherein the output is a modulated output using a modulation of a first physical parameter of the differential sensor arrangement (100, 210) with a first configuration value and the reference output is a modulated output using a modulation of the first physical parameter of the differential sensor arrangement (100, 210) with a second configuration value or wherein the output is a modulated output using a modulation of a first physical parameter of the differential sensor arrangement (100, 210) and the reference output is a modulated output using a modulation of a second physical parameter of the differential sensor arrangement (100, 210); and detecting a fault based on the comparison, wherein the fault is detected when the output deviates from the reference output.
An aerosol of an aqueous solution, the solution comprising from 80 mg/ml to 120 mg/ml levofloxacin or ofloxacin and from 160 mM to 220 mM of a divalent or trivalent cation, wherein the solution has a pH from 5 to 7 and an osmolality from 300 mOsmol/kg to 500 mOsmol/kg, for use in the treatment of a pulmonary infection in a human, wherein the levofloxacin or ofloxacin is administered in a dose of 20 to 300 mg twice daily.
A method for producing an abrasive cutting tool for cutting hard materials such as concrete and stone, comprising a support body equipped with a plurality of sintered cutting members fixedly attached to one edge of the support body by means of at least one weld (14, 15), comprising the steps of; a) providing a plurality of sintered cutting members, b) providing a respective plurality of support members with at least one module supporting surfaces (120, 121, 123, 130) on an attachment side, c) fixedly joining each cutting member with a respective support member to form a cutting module, wherein the sintered cutting members are joined with the support members by means of respective laser welds, said cutting module being produced at a first location, d) at a second location which is decentralized, providing the support body with a plurality of attachment sets having at least one complementary, counter facing body support surface (20, 21, 23), e) pre-mounting each cutting module onto the support body by complementary inter-fitting said at least one module support surface (120, 121, 123) with one of said sets having at least one complementary body support surface (20, 21, 23), and f) applying at least one weld to fixedly attach each one of said cutting modules to said support body, wherein the welds between the cutting modules and the support body is applied by a MIG, MAG, MicroMig, Cold MetalT, TIG or Plasma Tig welding technique. a) providing a plurality of sintered cutting members, b) providing a respective plurality of support members with at least one module supporting surfaces (120, 121, 123, 130) on an attachment side, c) fixedly joining each cutting member with a respective support member to form a cutting module, wherein the sintered cutting members are joined with the support members by means of respective laser welds, said cutting module being produced at a first location, d) at a second location which is decentralized, providing the support body with a plurality of attachment sets having at least one complementary, counter facing body support surface (20, 21, 23), e) pre-mounting each cutting module onto the support body by complementary inter-fitting said at least one module support surface (120, 121, 123) with one of said sets having at least one complementary body support surface (20, 21, 23), and f) applying at least one weld to fixedly attach each one of said cutting modules to said support body, wherein the welds between the cutting modules and the support body is applied by a MIG, MAG, MicroMig, Cold MetalT, TIG or Plasma Tig welding technique.
A heat recovery device connectable to at least one compressor, the device comprising: an auxiliary cooling heat exchanger that performs auxiliary cooling; a heat recovery heat exchanger that heats supply water; a preheating heat exchanger that preheats and supplies the supply water to the heat recovery heat exchanger; a supply water path that supplies the supply water to the heat recovery heat exchanger; and a preheating bypass path which branches from the supply water path to supply the supply water to the preheating heat exchanger, and through which the supply water preheated by the preheating heat exchanger returns to the supply water path, wherein the preheating heat exchanger allows heat exchange between cooling water on an outlet side of the auxiliary cooling heat exchanger and the supply water that has passed through the preheating bypass path. an auxiliary cooling heat exchanger that performs auxiliary cooling; a heat recovery heat exchanger that heats supply water; a preheating heat exchanger that preheats and supplies the supply water to the heat recovery heat exchanger; a supply water path that supplies the supply water to the heat recovery heat exchanger; and a preheating bypass path which branches from the supply water path to supply the supply water to the preheating heat exchanger, and through which the supply water preheated by the preheating heat exchanger returns to the supply water path, wherein the preheating heat exchanger allows heat exchange between cooling water on an outlet side of the auxiliary cooling heat exchanger and the supply water that has passed through the preheating bypass path.
A method for controlling operation of a wind turbine, the wind turbine comprising a rotor carrying one or more wind turbine blades, and a generator arranged to be coupled to a power grid, the method comprising the steps of: - monitoring the power grid in order to determine whether or not there is a match between a demand for energy defined by power consumers connected to the power grid and supply of energy from power producers connected to the power grid, the monitoring comprising monitoring a price of energy supplied to the power grid by power producers, - in the case that the supply of energy from power producers exceeds the demand for energy, and a deficiency between the demand for energy and the supply of energy exceeds a first threshold value, the first threshold value being defined by a negative price of energy supplied to the power grid, generating a reversing signal for the wind turbine, and - reversing an energy flow through the generator upon receipt of the reversing signal, thereby causing the generator to consume power received from the power grid. - monitoring the power grid in order to determine whether or not there is a match between a demand for energy defined by power consumers connected to the power grid and supply of energy from power producers connected to the power grid, the monitoring comprising monitoring a price of energy supplied to the power grid by power producers, - in the case that the supply of energy from power producers exceeds the demand for energy, and a deficiency between the demand for energy and the supply of energy exceeds a first threshold value, the first threshold value being defined by a negative price of energy supplied to the power grid, generating a reversing signal for the wind turbine, and - reversing an energy flow through the generator upon receipt of the reversing signal, thereby causing the generator to consume power received from the power grid.
Detector for detecting megavoltage X-ray radiation, comprising - a scintillator including a plurality of heavy scintillating fibers for emitting scintillation photons in response to incident megavoltage X-ray radiation, said plurality of heavy scintillating fibers comprising a high-Z inorganic material; - a support structure for supporting said plurality of heavy scintillating fibers and holding them in place; and - a photodetector for detecting the spatial intensity distribution of the emitted scintillation photons; said detector being characterized in said plurality of heavy scintillating fibers being arranged in a focus arrangement such that all fibers are oriented towards a focus point, which focus point is a radiation source emitting the megavoltage X-ray radiation. - a scintillator including a plurality of heavy scintillating fibers for emitting scintillation photons in response to incident megavoltage X-ray radiation, said plurality of heavy scintillating fibers comprising a high-Z inorganic material; - a support structure for supporting said plurality of heavy scintillating fibers and holding them in place; and - a photodetector for detecting the spatial intensity distribution of the emitted scintillation photons;
Cover assembly for covering a container having a base surface which is delimited by lateral walls (14, 16, 18, 20), the cover assembly comprising: a shaft extending from a first to a second lateral wall (14, 18), by means of which shaft a tonneau cover can be unrolled or rolled up and which shaft comprises a drive mechanism at one of its axial ends, and a guide means which can be or is fastened to the container and on which the shaft is supported by means of the axial end thereof that is opposite the drive mechanism, a support means (38; 60, 62) being provided which supports the shaft on the guide means and which is movable along the guide means, it being possible to unroll the shaft on the guide means in a form-fit, a gear that is connected to the shaft for conjoint rotation being arranged at the axial end of the shaft that is supported on the guide means, characterised in that the support means (38; 60, 62) is separate from the gear and is either formed by a roller disc that is connected to the shaft for conjoint rotation or comprises a bush which receives the shaft, the shaft being rotatably received in the bush and the bush being connected to a sliding bearing block for conjoint rotation. a shaft extending from a first to a second lateral wall (14, 18), by means of which shaft a tonneau cover can be unrolled or rolled up and which shaft comprises a drive mechanism at one of its axial ends, and a guide means which can be or is fastened to the container and on which the shaft is supported by means of the axial end thereof that is opposite the drive mechanism, a support means (38; 60, 62) being provided which supports the shaft on the guide means and which is movable along the guide means, it being possible to unroll the shaft on the guide means in a form-fit, a gear that is connected to the shaft for conjoint rotation being arranged at the axial end of the shaft that is supported on the guide means, characterised in that the support means (38; 60, 62) is separate from the gear and is either formed by a roller disc that is connected to the shaft for conjoint rotation or comprises a bush which receives the shaft, the shaft being rotatably received in the bush and the bush being connected to a sliding bearing block for conjoint rotation.