mhurhangee/ep-ind-claims huggingface dataset:
A method of initializing a booting procedure of a mobile platform device having a NAND flash memory device, comprising: sending a first read command sequence to said NAND flash memory device, wherein said first read command sequence comprises a first command and a plurality of address cycles; detecting if said NAND flash memory device is responsive to the first read command sequence; if so configuring the mobile platform device to interface with said NAND flash memory device; characterized by otherwise sending a second read command sequence which is associated with the first read command sequence to said NAND flash memory device, wherein the second read command sequence is associated with the first read command sequence in that the second read command sequence is added to the first read command sequence; and detecting if said NAND flash memory device is responsive to the second read command sequence; if so configuring the mobile platform device to interface with said NAND flash memory device. sending a first read command sequence to said NAND flash memory device, wherein said first read command sequence comprises a first command and a plurality of address cycles; detecting if said NAND flash memory device is responsive to the first read command sequence; if so configuring the mobile platform device to interface with said NAND flash memory device; characterized by otherwise sending a second read command sequence which is associated with the first read command sequence to said NAND flash memory device, wherein the second read command sequence is associated with the first read command sequence in that the second read command sequence is added to the first read command sequence; and detecting if said NAND flash memory device is responsive to the second read command sequence; if so configuring the mobile platform device to interface with said NAND flash memory device.
A failure diagnosis method of an engine outlet-side outlet coolant temperature sensor for a vehicle, the failure diagnosis method comprising: determining, by a controller, when a flow control valve is in a flow stop state that stagnates a flow of coolant by the flow control valve, characterized by counting, by the controller, a flow stop time when the flow control valve is determined by the controller to be in the flow stop state; and diagnosing, by the controller, as a failure of the engine outlet-side coolant temperature sensor when the flow stop time is equal to or greater than a reference time and when the flow stop state is maintained by the flow control valve. determining, by a controller, when a flow control valve is in a flow stop state that stagnates a flow of coolant by the flow control valve, characterized by counting, by the controller, a flow stop time when the flow control valve is determined by the controller to be in the flow stop state; and diagnosing, by the controller, as a failure of the engine outlet-side coolant temperature sensor when the flow stop time is equal to or greater than a reference time and when the flow stop state is maintained by the flow control valve.
A fuel delivery system for delivering hydrogen fuel from a cryogenic storage system to a fuel injection system in a gas turbine engine, the fuel delivery system including a pump, a metering device, and a fuel heating system (303, 304) for heating the hydrogen fuel to an injection temperature for the fuel injection system, the fuel heating system comprising a vaporiser provided between the pump and the metering device configured to vaporise liquid hydrogen from the cryogenic storage system; characterised in that the metering device is one of: a fixed orifice and flow rate is controlled by varying the pressure ratio across the orifice; and a sonic fixed orifice configured to operate in a choked condition, and flow rate is controlled by varying pressure upstream of the sonic fixed orifice; and wherein the vaporiser is configured to raise the temperature of the hydrogen fuel to a metering temperature less than the injection temperature, and the heating system further comprises a heater for further heating of the hydrogen fuel to the injection temperature following metering by the metering device. a fixed orifice and flow rate is controlled by varying the pressure ratio across the orifice; and a sonic fixed orifice configured to operate in a choked condition, and flow rate is controlled by varying pressure upstream of the sonic fixed orifice; and wherein the vaporiser is configured to raise the temperature of the hydrogen fuel to a metering temperature less than the injection temperature, and the heating system further comprises a heater for further heating of the hydrogen fuel to the injection temperature following metering by the metering device.
A rotating control device, RCD, housing for use with a riser, comprising: an upper riser flange connectable to a first riser flange of the riser; a lower riser flange connectable to a second riser flange of the riser; a latch section for receiving a bearing assembly; and a port section connected to the latch section and having an outlet for discharging fluid flow diverted by the bearing assembly; characterised in that the apparatus further comprises: a first nipple for coupling the latch section to the upper riser flange and having a reduced outer diameter; a second nipple having a reduced outer diameter and coupled to the port section and the lower riser flange; and a jumper connected to the upper and lower riser flanges; in that one of the upper or lower riser flanges (65f, 65m) includes a male coupling extending through an opening formed in the upper or lower riser flange (65f, 65m), the male coupling adapted to connect to the jumper and to transfer a fluid therethrough, wherein the male coupling includes a threaded nut disposed therearound for adjusting a penetration depth of the male coupling within a respective female coupling; and in that the other riser flange of the upper or lower riser flanges (65f, 65m) includes a female coupling for receiving a respective male coupling therein and for transferring a fluid therethrough, wherein the female coupling includes a seal bore having one or more seals disposed on an internal surface thereof. an upper riser flange connectable to a first riser flange of the riser; a lower riser flange connectable to a second riser flange of the riser; a latch section for receiving a bearing assembly; and a port section connected to the latch section and having an outlet for discharging fluid flow diverted by the bearing assembly; characterised in that the apparatus further comprises: a first nipple for coupling the latch section to the upper riser flange and having a reduced outer diameter; a second nipple having a reduced outer diameter and coupled to the port section and the lower riser flange; and a jumper connected to the upper and lower riser flanges; a first nipple for coupling the latch section to the upper riser flange and having a reduced outer diameter; a second nipple having a reduced outer diameter and coupled to the port section and the lower riser flange; and a jumper connected to the upper and lower riser flanges; in that one of the upper or lower riser flanges (65f, 65m) includes a male coupling extending through an opening formed in the upper or lower riser flange (65f, 65m), the male coupling adapted to connect to the jumper and to transfer a fluid therethrough, wherein the male coupling includes a threaded nut disposed therearound for adjusting a penetration depth of the male coupling within a respective female coupling; and in that the other riser flange of the upper or lower riser flanges (65f, 65m) includes a female coupling for receiving a respective male coupling therein and for transferring a fluid therethrough, wherein the female coupling includes a seal bore having one or more seals disposed on an internal surface thereof.
Molded article comprising a thermoplastic polymer composition which has a fuel permeability of 0.1-20 g mm/m 2 day at 40°C and comprises (i) 10-95 wt.-% of a fluororesin comprising a copolymer of tetrafluoroethylene and ethylene (a-1) having a melting point of 120-330°C; and (ii) 90-5 wt.-% of a crosslinked fluororubber obtained by cross-linking dynamically at least one kind of fluororubber (b-1) or a fluorine-containing thermoplastic elastomer (b-2) in the presence of the fluororesin and a crosslinking agent under melting condition; and which molded article is selected from a single layer fuel hose; a single layer fuel container; a multilayer fuel hose; a multilayer fuel container; an O (square) ring, a tube, a packing, a valve core material, a hose, a sealing material and a diaphragm of an automobile fuel system; and a diaphragm, an O (square) ring, a valve, a tube, a packing, a hose and a sealing material of a fuel system of an aircraft, a rocket, a ship or a vessel. (i) 10-95 wt.-% of a fluororesin comprising a copolymer of tetrafluoroethylene and ethylene (a-1) having a melting point of 120-330°C; and (ii) 90-5 wt.-% of a crosslinked fluororubber obtained by cross-linking dynamically at least one kind of fluororubber (b-1) or a fluorine-containing thermoplastic elastomer (b-2) in the presence of the fluororesin and a crosslinking agent under melting condition; and
A pharmaceutical composition for use in the symptomatic and/or prophylactic treatment of respiratory diseases comprising the simultaneous or sequential administration of tiotropium bromide with water content less than or equal to 2.5%, salmeterol xinafoate and fluticasone propionate in dry powder form wherein o the mean particle size of tiotropium bromide with water content less than or equal to 2.5%, salmeterol xinafoate and fluticasone propionate is in the range of 1.5 to 4.5 μm and o said active agents are present in the composition with the ratio of 1: 1: 1 to 1: 50: 50 respectively and o lactose which is used as carrier has a mean particle size less than 100 μm. o the mean particle size of tiotropium bromide with water content less than or equal to 2.5%, salmeterol xinafoate and fluticasone propionate is in the range of 1.5 to 4.5 μm and o said active agents are present in the composition with the ratio of 1: 1: 1 to 1: 50: 50 respectively and o lactose which is used as carrier has a mean particle size less than 100 μm.
A power supply method, comprising: detecting, by a current equalization module, currents of at least two power supply lines to which the current equalization module is connected; equalizing, by the current equalization module, the currents of the at least two power supply lines based on the intensity of the currents that have been detected in order to enable the currents of at least two power supply lines to have the same intensity; and sending, by the current equalization module, the equalized currents to a voltage converter, so that the voltage converter supplies power to a terminal device after converting voltage corresponding to the equalized currents, characterised in that the step of detecting, by a current equalization module, currents of at least two power supply lines to which the current equalization module is connected comprises: detecting, by the current equalization module after the current equalization module has detected that powered devices connected to each of the at least two power supply lines has been powered on, the currents of the at least two power supply lines connected to the current equalization module. detecting, by a current equalization module, currents of at least two power supply lines to which the current equalization module is connected; equalizing, by the current equalization module, the currents of the at least two power supply lines based on the intensity of the currents that have been detected in order to enable the currents of at least two power supply lines to have the same intensity; and sending, by the current equalization module, the equalized currents to a voltage converter, so that the voltage converter supplies power to a terminal device after converting voltage corresponding to the equalized currents, characterised in that the step of detecting, by a current equalization module, currents of at least two power supply lines to which the current equalization module is connected comprises: detecting, by the current equalization module after the current equalization module has detected that powered devices connected to each of the at least two power supply lines has been powered on, the currents of the at least two power supply lines connected to the current equalization module. detecting, by the current equalization module after the current equalization module has detected that powered devices connected to each of the at least two power supply lines has been powered on, the currents of the at least two power supply lines connected to the current equalization module.
A method for scheduling tasks, the method comprising: analyzing, by a task management device of a distributed system, network resources needed for a task to perform cross-cluster reading and writing; and scheduling, by the task management device, the task according to the analysis of the network resources; wherein analyzing network resources comprises: obtaining an amount of input data and an amount of output data for a task based on a history record of the task, and calculating an input-output ratio representing a proportion of the network resources needed for reading and writing for the task, the input-output ratio equal to a ratio of the amount of input data to the amount of output data; and wherein scheduling the task comprises: if network resources needed for reading are more than network resources needed for writing, scheduling the task to a target cluster where read dependent data is, and if network resources needed for reading are not more than network resources needed for writing, scheduling the task to a target cluster where written result data is to be located. analyzing, by a task management device of a distributed system, network resources needed for a task to perform cross-cluster reading and writing; and scheduling, by the task management device, the task according to the analysis of the network resources; wherein analyzing network resources comprises: obtaining an amount of input data and an amount of output data for a task based on a history record of the task, and calculating an input-output ratio representing a proportion of the network resources needed for reading and writing for the task, the input-output ratio equal to a ratio of the amount of input data to the amount of output data; obtaining an amount of input data and an amount of output data for a task based on a history record of the task, and calculating an input-output ratio representing a proportion of the network resources needed for reading and writing for the task, the input-output ratio equal to a ratio of the amount of input data to the amount of output data; and wherein scheduling the task comprises: if network resources needed for reading are more than network resources needed for writing, scheduling the task to a target cluster where read dependent data is, and if network resources needed for reading are not more than network resources needed for writing, scheduling the task to a target cluster where written result data is to be located. if network resources needed for reading are more than network resources needed for writing, scheduling the task to a target cluster where read dependent data is, and if network resources needed for reading are not more than network resources needed for writing, scheduling the task to a target cluster where written result data is to be located.
An article comprising: a substrate; and a coating system on the substrate, wherein the coating system comprises: a gamma-prime Ni 3 Al layer; and a beta NiAl layer directly on the gamma-prime Ni 3 Al layer, wherein the gamma-prime Ni 3 Al layer and the beta NiAl layer are discrete dual layers, and wherein the gamma-prime Ni 3 Al is between the substrate and the beta NiAl layer. a substrate; and a coating system on the substrate, wherein the coating system comprises: a gamma-prime Ni 3 Al layer; and a beta NiAl layer directly on the gamma-prime Ni 3 Al layer, wherein the gamma-prime Ni 3 Al layer and the beta NiAl layer are discrete dual layers, and wherein the gamma-prime Ni 3 Al is between the substrate and the beta NiAl layer. a gamma-prime Ni 3 Al layer; and a beta NiAl layer directly on the gamma-prime Ni 3 Al layer, wherein the gamma-prime Ni 3 Al layer and the beta NiAl layer are discrete dual layers, and wherein the gamma-prime Ni 3 Al is between the substrate and the beta NiAl layer.
A method of fabricating an inlet assembly for a gas turbine engine, the method comprising: defining an intake duct of the inlet assembly between first and second spaced apart inlet case portions (28,26; 128,126); and locating at least one strut (30; 130) across the intake duct; characterised in that: each strut (30; 130) has a proximal end (36; 136) made integral to the first inlet case portion (28; 128) and an opposed distal end (38; 138) engaged in a respective strut-receiving aperture (40; 140) defined through the second inlet case portion (26; 126); and in that the method further comprises: while maintaining the distal end (38; 138) of each strut (30; 130) in the respective strut-receiving aperture (40; 140), adjusting the relative position of the first inlet case portion (28; 128) and the second inlet case portion (26; 126) until a predetermined throat dimension (44; 144) of the intake duct is obtained; and locking the adjusted relative position by attaching the second inlet case portion (26; 126) to each strut (30; 130). defining an intake duct of the inlet assembly between first and second spaced apart inlet case portions (28,26; 128,126); and locating at least one strut (30; 130) across the intake duct; each strut (30; 130) has a proximal end (36; 136) made integral to the first inlet case portion (28; 128) and an opposed distal end (38; 138) engaged in a respective strut-receiving aperture (40; 140) defined through the second inlet case portion (26; 126); and in that the method further comprises: while maintaining the distal end (38; 138) of each strut (30; 130) in the respective strut-receiving aperture (40; 140), adjusting the relative position of the first inlet case portion (28; 128) and the second inlet case portion (26; 126) until a predetermined throat dimension (44; 144) of the intake duct is obtained; and locking the adjusted relative position by attaching the second inlet case portion (26; 126) to each strut (30; 130). while maintaining the distal end (38; 138) of each strut (30; 130) in the respective strut-receiving aperture (40; 140), adjusting the relative position of the first inlet case portion (28; 128) and the second inlet case portion (26; 126) until a predetermined throat dimension (44; 144) of the intake duct is obtained; and locking the adjusted relative position by attaching the second inlet case portion (26; 126) to each strut (30; 130).
Method for producing a motor vehicle component, characterised by the following method steps: - providing a blank composed of a 5000 grade naturally hard aluminium alloy with an initial yield strength, - completely heating the blank to a forming temperature between 150°C and 350°C, preferably between 200°C and 300°C in less than 20 s, preferably in less than 10 s and in particular in 2 to 5 s, - performing forming in a forming tool in less than 20 s, preferably in less than 10 s and in particular between 2 to 5 s, wherein the temperature is held between 150°C and 350°C in at least one first region of the blank, and partial quenching to a temperature lower than 250°C, in particular lower than 200°C, is performed in a second region during or after the forming, - generating a yield strength in at least one first region of less than 250 MPa and greater than 120 MPa and a yield strength in a second region of less than or equal to 450 MPa and greater than 200 MPa, wherein the yield strength of the second region is at least 100 MPa greater than the yield strength of the first region. - providing a blank composed of a 5000 grade naturally hard aluminium alloy with an initial yield strength, - completely heating the blank to a forming temperature between 150°C and 350°C, preferably between 200°C and 300°C in less than 20 s, preferably in less than 10 s and in particular in 2 to 5 s, - performing forming in a forming tool in less than 20 s, preferably in less than 10 s and in particular between 2 to 5 s, wherein the temperature is held between 150°C and 350°C in at least one first region of the blank, and partial quenching to a temperature lower than 250°C, in particular lower than 200°C, is performed in a second region during or after the forming, - generating a yield strength in at least one first region of less than 250 MPa and greater than 120 MPa and a yield strength in a second region of less than or equal to 450 MPa and greater than 200 MPa, wherein the yield strength of the second region is at least 100 MPa greater than the yield strength of the first region.
A process for the treatment by an ion beam of a powder based on cerium oxide, characterized in that: - the powder is mixed one or more times during the treatment; - the ions of the ion beam are selected from the ions of the elements of the list consisting of helium (He), boron, carbon, nitrogen, oxygen, neon (Ne), argon (Ar), krypton (Kr) and xenon (Xe); - the acceleration voltage of the ions is greater than or equal to 10 kV and less than or equal to 1000 kV; - the temperature of the powder is less than or equal to T m /3, where T m is the melting point of said powder; - the cumulative total dose of ions at the end of the treatment per unit of weight of powder to be treated is chosen within a range of between 10 16 ions/gram of powder and 10 22 ions/gram of powder in order to reduce the temperature for reduction of the powder based on cerium oxide. - the powder is mixed one or more times during the treatment; - the ions of the ion beam are selected from the ions of the elements of the list consisting of helium (He), boron, carbon, nitrogen, oxygen, neon (Ne), argon (Ar), krypton (Kr) and xenon (Xe); - the acceleration voltage of the ions is greater than or equal to 10 kV and less than or equal to 1000 kV; - the temperature of the powder is less than or equal to T m /3, where T m is the melting point of said powder; - the cumulative total dose of ions at the end of the treatment per unit of weight of powder to be treated is chosen within a range of between 10 16 ions/gram of powder and 10 22 ions/gram of powder in order to reduce the temperature for reduction of the powder based on cerium oxide.
A device for flipping stacked cards from a first position to an opposite second position, the device comprising a flexible hollow cup-shaped member having a base portion defining a rim, and at least one recess or aperture; characterized in that: the at least one recess or aperture is formed in or proximate a portion of the rim so that when the base portion is placed on a generally flat surface, there is formed at least one opening that allows air to pass through when pressure is applied to an outer surface of the cup-shaped member, and to direct a blast of air toward a base of a stack of cards disposed on said surface proximate the at least one opening, and thereby flip the cards from the first position to the second position.
A cartridge configured to be inserted into a meter, the cartridge comprising: a housing having an aperture, an end face and a side wall; at least one testing member disposed within the housing; a removable seal; and a knob attached in a fixed positional relationship with the seal, wherein when the seal is in a sealed condition the seal is secured to the exterior side wall of the cartridge by a non-permanent adhesive, and a part of the seal covers the aperture so as to provide a moisture impermeable barrier, and the knob is located adjacent the side wall of the housing. a housing having an aperture, an end face and a side wall; at least one testing member disposed within the housing; a removable seal; and a knob attached in a fixed positional relationship with the seal,