mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a composite of a porous metal oxide infrastructure and a glass infiltrated in the pores of the infrastructure, wherein the method comprises the following steps: • providing a glass which is suitable for infiltration and compatible with the metal oxide infrastructure; • heating the glass under a nitrogen gas at a temperature in a range from 1200 °C to 1600 °C; and • infiltrating the metal oxide infrastructure with the glass, wherein the metal oxide infrastructure comprises a structure selected from the group consisting of alumina, zirconia, zirconia toughened alumina, magnesium oxide, magnesium aluminium spinel, and hydroxyapatite, and wherein the glass comprises metal oxides employed in the metal oxide infrastructure or when the metal oxide infrastructure comprises hydroxyapatite, the glass comprises 20-30 wt.% B 2 O 3, 10-25 wt.% Li 2 O, the balance being silica and 0-6 wt.% CaO. • providing a glass which is suitable for infiltration and compatible with the metal oxide infrastructure; • heating the glass under a nitrogen gas at a temperature in a range from 1200 °C to 1600 °C; and • infiltrating the metal oxide infrastructure with the glass,
A ship with openly operated holds, characterized in that is has at least one passive roll stabilization apparatus and in which the side height is dimensioned taking into account the effect of the passive roll stabilization apparatus so that it falls below the side height of an equivalent ship without the passive roll stabilization apparatus.
Valve, in particular suction valve, in a high-pressure pump of a fuel injection system, which has a valve element which is movable between an open position and a closed position, with an actuating element (8, 10) which is at least indirectly in mechanical contact with the valve element and by means of which an actuating force can be transmitted to the valve element, wherein, in the region of the mechanical contact between valve element and actuating element (8, 10), the mechanical contact between valve element and actuating element (8, 10) is interrupted in a zone in which cavitation can occur, wherein a mechanical contact between the two elements in the zone in which cavitation can occur is avoided by means of a trough-shaped recess on the actuating element (8, 10) and on the valve element, and wherein a trough-shaped recess is provided in each case in the actuating element (8, 10) and in the valve element, characterized in that the respective recesses are formed differently, in particular not congruently.
A cooling system for a metal processing system, the cooling system comprising: a cooling header configured to selectively dispense a coolant onto a metal substrate; an exhaust system downstream from the cooling header, wherein the exhaust system comprises a removal device that is configured to remove coolant dispensed by the cooling header; a temperature sensor downstream from the cooling header, wherein the temperature sensor is configured to detect a temperature profile of the metal substrate across a width of the metal substrate; and a controller communicatively coupled to the cooling header and the temperature sensor, wherein the controller is configured to control the cooling header based at least on a detected temperature profile, wherein the controller is further configured to: determine a desired exit temperature profile of the metal substrate; receive the detected temperature profile from the temperature sensor; determine a cooling profile for the coolant at a predetermined line speed based on the desired exit temperature profile and the detected temperature profile; and control the cooling header such that the cooling header dispenses the coolant pursuant to the cooling profile. a cooling header configured to selectively dispense a coolant onto a metal substrate; an exhaust system downstream from the cooling header, wherein the exhaust system comprises a removal device that is configured to remove coolant dispensed by the cooling header; a temperature sensor downstream from the cooling header, wherein the temperature sensor is configured to detect a temperature profile of the metal substrate across a width of the metal substrate; and a controller communicatively coupled to the cooling header and the temperature sensor, wherein the controller is configured to control the cooling header based at least on a detected temperature profile, determine a desired exit temperature profile of the metal substrate; receive the detected temperature profile from the temperature sensor; determine a cooling profile for the coolant at a predetermined line speed based on the desired exit temperature profile and the detected temperature profile; and control the cooling header such that the cooling header dispenses the coolant pursuant to the cooling profile.
A Bluetooth random address generation method, applied to an electronic device (100, 200), wherein the electronic device (100, 200) comprises a Bluetooth Host and a Bluetooth module, and the method comprises: generating, by the Bluetooth Host, an identity resolving key, IRK; sending, by the Bluetooth Host, the IRK to the Bluetooth module when the electronic device (100, 200) meets a first condition, wherein the first condition is a condition for triggering the electronic device (100, 200) to reduce power consumption; generating, by the Bluetooth module, a resolvable private address, RPA, based on the IRK, and periodically updating the RPA based on the IRK; sending, by the Bluetooth Host, an RPA request to the Bluetooth module when the Bluetooth Host needs to execute a Bluetooth service; sending, by the Bluetooth module, a latest updated RPA to the Bluetooth Host; and executing, by the Bluetooth Host, the Bluetooth service based on the received latest updated RPA. generating, by the Bluetooth Host, an identity resolving key, IRK; sending, by the Bluetooth Host, the IRK to the Bluetooth module when the electronic device (100, 200) meets a first condition, wherein the first condition is a condition for triggering the electronic device (100, 200) to reduce power consumption; generating, by the Bluetooth module, a resolvable private address, RPA, based on the IRK, and periodically updating the RPA based on the IRK; sending, by the Bluetooth Host, an RPA request to the Bluetooth module when the Bluetooth Host needs to execute a Bluetooth service; sending, by the Bluetooth module, a latest updated RPA to the Bluetooth Host; and executing, by the Bluetooth Host, the Bluetooth service based on the received latest updated RPA.
A water level detecting device, comprising: a guide arranged within a water container for collecting condensate water generated as a dehumidifying function is performed; a sensing object within the guide and configured to ascend on the condensate water collected in the water container, the sensing object configured to be arranged in a first or second orientation in the guide and comprising a magnet offset from a centre of the sensing object; a sensor arranged in a main body of a dehumidifier which the water container is mounted to and dismounted from, and configured to sense a movement of the sensing object; and a switching member arranged on the guide and configured to slidably move between a first position and a second position to select a first and second water level of the water container to be detected by the sensor respectively, and to divide an interior of the guide into a first area and a second area which change in size according to the position of the switching member, wherein the first water level of the water container is detected by the sensor when the sensing object is in the first orientation within the guide and the second water level is detected when the sensing object is in the second orientation within the guide, and the switching member is configured to interfere with a portion of the sensing object floating and ascending on the condensate water to guide the sensing object to be inserted into the first area in the first orientation or the second area in the second orientation. a guide arranged within a water container for collecting condensate water generated as a dehumidifying function is performed; a sensing object within the guide and configured to ascend on the condensate water collected in the water container, the sensing object configured to be arranged in a first or second orientation in the guide and comprising a magnet offset from a centre of the sensing object; a sensor arranged in a main body of a dehumidifier which the water container is mounted to and dismounted from, and configured to sense a movement of the sensing object; and a switching member arranged on the guide and configured to slidably move between a first position and a second position to select a first and second water level of the water container to be detected by the sensor respectively, and to divide an interior of the guide into a first area and a second area which change in size according to the position of the switching member, wherein the first water level of the water container is detected by the sensor when the sensing object is in the first orientation within the guide and the second water level is detected when the sensing object is in the second orientation within the guide, and the switching member is configured to interfere with a portion of the sensing object floating and ascending on the condensate water to guide the sensing object to be inserted into the first area in the first orientation or the second area in the second orientation.
An assembly comprising: a wing, the wing comprising having a gull wing configuration which includes an up angle portion and a flat portion; a gas turbine engine; and a mounting structure for mounting said gas turbine engine to a pylon, the gas turbine engine comprising: a propulsor section including a fan having a fan diameter, and a geared architecture driving the fan; and a generator section including a fan drive turbine that drives the geared architecture, wherein: a turbine to fan diameter ratio is less than 45%; said fan drives air along a bypass flow path; the gas turbine engine further comprises a compressor section which draws air along a core flow path; the gas turbine engine has a bypass ratio greater than or equal to 10.0: said geared architecture has a gear reduction ratio greater than or equal to 2.3; and said fan has fewer than 26 fan blades. a wing, the wing comprising having a gull wing configuration which includes an up angle portion and a flat portion; a gas turbine engine; and a mounting structure for mounting said gas turbine engine to a pylon, the gas turbine engine comprising: a propulsor section including a fan having a fan diameter, and a geared architecture driving the fan; and a generator section including a fan drive turbine that drives the geared architecture, wherein: a turbine to fan diameter ratio is less than 45%; said fan drives air along a bypass flow path; the gas turbine engine further comprises a compressor section which draws air along a core flow path; the gas turbine engine has a bypass ratio greater than or equal to 10.0: said geared architecture has a gear reduction ratio greater than or equal to 2.3; and said fan has fewer than 26 fan blades. a propulsor section including a fan having a fan diameter, and a geared architecture driving the fan; and a generator section including a fan drive turbine that drives the geared architecture, wherein: a turbine to fan diameter ratio is less than 45%; said fan drives air along a bypass flow path; the gas turbine engine further comprises a compressor section which draws air along a core flow path; the gas turbine engine has a bypass ratio greater than or equal to 10.0: said geared architecture has a gear reduction ratio greater than or equal to 2.3; and said fan has fewer than 26 fan blades. a turbine to fan diameter ratio is less than 45%; said fan drives air along a bypass flow path; the gas turbine engine further comprises a compressor section which draws air along a core flow path; the gas turbine engine has a bypass ratio greater than or equal to 10.0: said geared architecture has a gear reduction ratio greater than or equal to 2.3; and said fan has fewer than 26 fan blades. said geared architecture has a gear reduction ratio greater than or equal to 2.3; and said fan has fewer than 26 fan blades.
An aircraft cargo management system comprising: an air cushion cargo shuttle; an air blower disposed on the air cushion cargo shuttle and configured to blow air beneath the air cushion cargo shuttle into a volume between air cushion cargo shuttle and aircraft floor; and a first wireless communication device on the air cushion cargo shuttle, wherein the first wireless communication device is configured to convey control signals to the air cushion cargo shuttle. an air cushion cargo shuttle; an air blower disposed on the air cushion cargo shuttle and configured to blow air beneath the air cushion cargo shuttle into a volume between air cushion cargo shuttle and aircraft floor; and a first wireless communication device on the air cushion cargo shuttle, wherein the first wireless communication device is configured to convey control signals to the air cushion cargo shuttle.
Monobloc optical element comprising: - a first end comprising a plurality of light inlets distinct from one another via which rays of light enter the optical element, - a second end via which the rays of light exit together, the second end being configured to shape a beam of light external to the optical element, the optical element being defined by an axis passing at least through the first end and through the second end, - at least a first contact zone dedicated to referencing it mechanically along the axis and - at least a second contact zone dedicated to referencing it mechanically in a direction transverse to the axis, the second contact zone being closer to the second end than to the first end. characterized in that the optical element comprises at least one arm arranged on at least one side of the optical element, the arm being configured to support the optical element, the arm comprising the first contact zone and the second contact zone, and in that the first contact zone and the second contact zone are formed respectively at a first longitudinal end and at a second longitudinal end of the arm of the optical element. - a first end comprising a plurality of light inlets distinct from one another via which rays of light enter the optical element, - a second end via which the rays of light exit together, the second end being configured to shape a beam of light external to the optical element, the optical element being defined by an axis passing at least through the first end and through the second end, - at least a first contact zone dedicated to referencing it mechanically along the axis and - at least a second contact zone dedicated to referencing it mechanically in a direction transverse to the axis, the second contact zone being closer to the second end than to the first end. characterized in that the optical element comprises at least one arm arranged on at least one side of the optical element, the arm being configured to support the optical element, the arm comprising the first contact zone and the second contact zone, and in that the first contact zone and the second contact zone are formed respectively at a first longitudinal end and at a second longitudinal end of the arm of the optical element.
A method for identifying cognate pairs of a ligand species and a receptor species, said method comprising the following steps: - providing a set of ligands, in which each ligand is represented multiple times; - providing a set of receptors; - co-compartmentalising ligand species and receptor species to form a set of microreactors, each microreactor comprising at least one ligand species and preferably no more than one receptor species; - assaying the recognition between ligands and receptors in each microreactor and based on this assay, classifying each microreactor as positive when at least one ligand species and the receptor species in the microreactor recognize one with the other or negative when none of the ligand species and no receptor species recognize in the microreactor; - identifying ligand species and receptor species contained in positive microreactor; - establishing a subset of positive microreactors containing the same receptor species; - determining the probability that in a given subset of positive microreactors containing the same receptor species, the ligand species recognized by the receptor species corresponds to the most frequent co-compartmentalized ligand species; - if the determined probability is greater than a predetermined threshold, identifying as a cognate pair the receptor species and the most frequent co-compartmentalized ligand species. - providing a set of ligands, in which each ligand is represented multiple times; - providing a set of receptors; - co-compartmentalising ligand species and receptor species to form a set of microreactors, each microreactor comprising at least one ligand species and preferably no more than one receptor species; - assaying the recognition between ligands and receptors in each microreactor and based on this assay, classifying each microreactor as positive when at least one ligand species and the receptor species in the microreactor recognize one with the other or negative when none of the ligand species and no receptor species recognize in the microreactor; - identifying ligand species and receptor species contained in positive microreactor; - establishing a subset of positive microreactors containing the same receptor species; - determining the probability that in a given subset of positive microreactors containing the same receptor species, the ligand species recognized by the receptor species corresponds to the most frequent co-compartmentalized ligand species; - if the determined probability is greater than a predetermined threshold, identifying as a cognate pair the receptor species and the most frequent co-compartmentalized ligand species.
An integrated electrical machine and power electronics converter arrangement, comprising: an electrical machine comprising one or more windings; a power electronics converter arranged to supply current to or receive current from the one or more windings of the electrical machine; a magnetocaloric effect, MCE, material in thermal contact with the power electronics converter; and a heat sink for removing heat from the MCE material, wherein the MCE material is arranged in proximity to the one or more windings of the electrical machine whereby, in use, stray magnetic flux from the windings of the electrical machine passes through the MCE material. an electrical machine comprising one or more windings; a power electronics converter arranged to supply current to or receive current from the one or more windings of the electrical machine; a magnetocaloric effect, MCE, material in thermal contact with the power electronics converter; and a heat sink for removing heat from the MCE material, wherein the MCE material is arranged in proximity to the one or more windings of the electrical machine whereby, in use, stray magnetic flux from the windings of the electrical machine passes through the MCE material.
A method of injecting hydrogen into a combustion chamber of a combustor of a gas turbine system, the method comprising: outputting a mixture of fuel and air into the combustion chamber via an outlet of an outer conduit in fluid communication with the combustion chamber; injecting at least one jet of hydrogen into the combustion chamber via an outlet of an inner hydrogen injection conduit that is in fluid communication with the combustion chamber, and the outer conduit being positioned such that the outlet of the outer conduit is around an outer periphery of the outlet of the inner hydrogen injection conduit, wherein a burner of the combustor includes the outer conduit, characterized in that the injecting of the at least one jet of hydrogen into the combustion chamber via the outlet of the inner hydrogen injection conduit is performed to control operation of the gas turbine so that a ratio of hydrogen to fuel flow rate is provided so that an equivalence ratio for the combustor is equal to: m, H 2, central, max m, Fuel ≈ 0.5 ∗ m, recirc m, total ∗ 1 − Φ Φ where: m,H2,central,max is a maximum allowable central hydrogen injection mass flow rate; m,Fuel is a fuel flow rate of the fuel for the burner, m,recirc is a mass flow recirculation rate in a first wake region of the burner; m, total is a total burner flow rate; and Φ is the equivalence ratio accounting for only the air and the fuel injected through the outlet of the outer conduit. outputting a mixture of fuel and air into the combustion chamber via an outlet of an outer conduit in fluid communication with the combustion chamber; injecting at least one jet of hydrogen into the combustion chamber via an outlet of an inner hydrogen injection conduit that is in fluid communication with the combustion chamber, and the outer conduit being positioned such that the outlet of the outer conduit is around an outer periphery of the outlet of the inner hydrogen injection conduit, wherein a burner of the combustor includes the outer conduit, characterized in that the injecting of the at least one jet of hydrogen into the combustion chamber via the outlet of the inner hydrogen injection conduit is performed to control operation of the gas turbine so that a ratio of hydrogen to fuel flow rate is provided so that an equivalence ratio for the combustor is equal to: m, H 2, central, max m, Fuel ≈ 0.5 ∗ m, recirc m, total ∗ 1 − Φ Φ where: m,H2,central,max is a maximum allowable central hydrogen injection mass flow rate; m,Fuel is a fuel flow rate of the fuel for the burner, m,recirc is a mass flow recirculation rate in a first wake region of the burner; m, total is a total burner flow rate; and Φ is the equivalence ratio accounting for only the air and the fuel injected through the outlet of the outer conduit. m,H2,central,max is a maximum allowable central hydrogen injection mass flow rate; m,Fuel is a fuel flow rate of the fuel for the burner, m,recirc is a mass flow recirculation rate in a first wake region of the burner; m, total is a total burner flow rate; and Φ is the equivalence ratio accounting for only the air and the fuel injected through the outlet of the outer conduit.
A thermoplastic resin composition comprising: a base resin comprising a rubber graft copolymer and a vinyl cyanide-aromatic vinyl-based copolymer; a first silicone oil having a viscosity of 100 mPa·s to 1,000 mPa·s (100 cPs to 1,000 cPs) as measured according to ASTM D445; and a second silicone oil having a viscosity of 5,000 mPa·s to 20,000 mPa·s (5,000 cPs to 20,000 cPs) as measured according to ASTM D445. a base resin comprising a rubber graft copolymer and a vinyl cyanide-aromatic vinyl-based copolymer; a first silicone oil having a viscosity of 100 mPa·s to 1,000 mPa·s (100 cPs to 1,000 cPs) as measured according to ASTM D445; and a second silicone oil having a viscosity of 5,000 mPa·s to 20,000 mPa·s (5,000 cPs to 20,000 cPs) as measured according to ASTM D445.