mhurhangee/ep-ind-claims huggingface dataset:
A boiling water reactor core of a burner type, wherein a ratio of the number of fuel assemblies loaded on the core to the number of control rod drive mechanisms is 3 or more, a fuel is an oxide of a low enriched uranium having an average enrichment for the fuel assemblies being 3 to 8 wt % or an average enrichment of fissile plutonium for the fuel assemblies being 2 or more to less than 6 wt %, and the fuel assemblies are an equilateral hexagon fuel assembly, characterized in that an average weight of uranium, plutonium and minor actinides contained per unit volume of a core area is 2.1 to 3.4 kg/L at time of fuel loading of the fuel assemblies in the boiling water reactor; and a volume rate of an area of a fuel substance is 23 to 37 % in the reactor core area.
Liquid fuel assist ignition system for providing a fuel/air mixture to a gas turbine in its start-up phase, characterised in that it comprises: a) a high pressure tank, b) a vacuum pump connected to the high pressure tank, c) a liquid fuel inlet connected to the high pressure tank, d) an air inlet connected to the high pressure tank and e) an outlet of the high pressure tank connected to a burner of the gas turbine. a) a high pressure tank, b) a vacuum pump connected to the high pressure tank, c) a liquid fuel inlet connected to the high pressure tank, d) an air inlet connected to the high pressure tank and e) an outlet of the high pressure tank connected to a burner of the gas turbine.
A method for detecting a position of a movable structure, wherein the movable structure is applicable to an electronic device, the electronic device comprises a body, a front camera and a detection component, the front camera is disposed on the movable structure and is able to move along with the movable structure, the movable structure is configured to move between a first position at which the movable structure is received in the body and a second position at which the movable structure extends out of the body, the detection component comprises a first and a second distance sensors (32, 34) spaced apart from each other on the movable structure along a moving direction of the movable structure towards the body, the first and second distance sensors (32, 34) are configured to be received in the body when the movable structure is at the first position and the first distance sensor is configured to protrude beyond the body when the movable structure is at the second position, each of the first and second distance sensors (32, 34) contains an infrared transmitter tube and an infrared receiver tube, wherein the method comprises: obtaining a detection signal value based on logic values outputted by the first and second distance sensors (32, 34), wherein the logic value outputted by the first distance sensor is obtained by determining whether the infrared receiver tube of the first distance sensor receives reflected infrared ray within a time limit after the infrared transmitter tube of the first distance sensor emits infrared ray, the logic value outputted by the second distance sensor is obtained by determining whether the infrared receiver tube of the second distance sensor receives reflected infrared ray within a time limit after the infrared transmitter tube of the second distance sensor emits infrared ray; and determining a position of the movable structure relative to the body according to the detection signal value, so as to determine a position of the front camera. obtaining a detection signal value based on logic values outputted by the first and second distance sensors (32, 34), wherein the logic value outputted by the first distance sensor is obtained by determining whether the infrared receiver tube of the first distance sensor receives reflected infrared ray within a time limit after the infrared transmitter tube of the first distance sensor emits infrared ray, the logic value outputted by the second distance sensor is obtained by determining whether the infrared receiver tube of the second distance sensor receives reflected infrared ray within a time limit after the infrared transmitter tube of the second distance sensor emits infrared ray; and determining a position of the movable structure relative to the body according to the detection signal value, so as to determine a position of the front camera.
A method of operating a computer including a central processing unit, CPU, and an auxiliary processor, comprising: communicating operating state information from the CPU to the auxiliary processor; configuring the auxiliary processor using the operating state information; shifting control of computer peripherals to the auxiliary processor; and placing the CPU into a low power or deactivated state, wherein the auxiliary processor is a processor within a wireless modem coupled to the CPU; the method further comprises maintaining a communication link with a wireless network via the wireless modem while control of computer peripherals is shifted to the auxiliary processor or returned to the CPU; and the CPU is configured to anticipate operating mode transitions based on applications executed on the CPU or user interaction with the computer, and to take preliminary steps to support such operation of transitions including storing a portion of the current operating state information in shared memory and/or beginning to communicate the operating state information to the auxiliary processor, wherein the operating modes comprise a normal operating mode, in which the CPU assumes control of the computer peripherals, and an auxiliary processor mode, in which the auxiliary processor assumes control of the computer peripherals. communicating operating state information from the CPU to the auxiliary processor; configuring the auxiliary processor using the operating state information; shifting control of computer peripherals to the auxiliary processor; and placing the CPU into a low power or deactivated state, wherein the auxiliary processor is a processor within a wireless modem coupled to the CPU; the method further comprises maintaining a communication link with a wireless network via the wireless modem while control of computer peripherals is shifted to the auxiliary processor or returned to the CPU; and the CPU is configured to anticipate operating mode transitions based on applications executed on the CPU or user interaction with the computer, and to take preliminary steps to support such operation of transitions including storing a portion of the current operating state information in shared memory and/or beginning to communicate the operating state information to the auxiliary processor,
Installation for manufacturing thermoplastic containers comprising: - a station for coating containers comprising an entry wheel and an exit wheel, each of said wheels (38, 40) being equipped with gripping members (39, 41) distributed regularly over the periphery thereof; - an upstream conveying wheel equipped with gripping members distributed regularly over the periphery thereof, the upstream conveying wheel being arranged such as to allow the transfer of containers by synchronized passage when a gripping member of the upstream conveying wheel carrying a container coincides with a gripping member of the entry wheel in an entry tangency zone between the two wheels (42A, 38); - a downstream conveying wheel equipped with gripping members distributed regularly over the periphery thereof, the downstream conveying wheel being arranged such as to allow the transfer of containers by synchronized passage when a gripping member of the exit wheel carrying a container coincides with a gripping member of the downstream conveying wheel in an exit tangency zone between the two wheels (42C, 40); characterized in that it comprises a bypass wheel equipped with members for individual gripping of containers distributed regularly over the periphery thereof, the bypass wheel being directly tangential relative to the upstream conveying wheel in an upstream tangency zone and the bypass wheel being directly tangential relative to the downstream conveying wheel in a downstream tangency zone. - a station for coating containers comprising an entry wheel and an exit wheel, each of said wheels (38, 40) being equipped with gripping members (39, 41) distributed regularly over the periphery thereof; - an upstream conveying wheel equipped with gripping members distributed regularly over the periphery thereof, the upstream conveying wheel being arranged such as to allow the transfer of containers by synchronized passage when a gripping member of the upstream conveying wheel carrying a container coincides with a gripping member of the entry wheel in an entry tangency zone between the two wheels (42A, 38); - a downstream conveying wheel equipped with gripping members distributed regularly over the periphery thereof, the downstream conveying wheel being arranged such as to allow the transfer of containers by synchronized passage when a gripping member of the exit wheel carrying a container coincides with a gripping member of the downstream conveying wheel in an exit tangency zone between the two wheels (42C, 40);
An aircraft turbomachine calculator comprising a parallelepiped metal casing containing an electronic circuit wherein a control channel and a monitoring channel are integrated, the casing comprising a first cavity wherein a first electronic board for managing the control channel is arranged, and a second cavity, independent of the first cavity, wherein a second electronic board for managing the monitoring channel is arranged, the calculator being characterized in that these electronic boards are provided in two planes oriented with respect to each other at an angle of 90°.
A joint assembly for an aircraft, said joint assembly comprising: a single main fitting comprising a first flange, a second flange, and a third flange; an external spar component coupled to said first flange using at least one fastener; an internal spar component coupled to said second flange using at least one fastener; and a body rib coupled to said third flange using at least one fastener, characterized in that said main fitting comprises an upper portion and a base portion, and wherein said first, second, and third flanges are formed on said base portion, and wherein said upper portion comprises an arcuate surface configured to couple to a skin of the aircraft. a single main fitting comprising a first flange, a second flange, and a third flange; an external spar component coupled to said first flange using at least one fastener; an internal spar component coupled to said second flange using at least one fastener; and a body rib coupled to said third flange using at least one fastener, characterized in that said main fitting comprises an upper portion and a base portion, and wherein said first, second, and third flanges are formed on said base portion, and wherein said upper portion comprises an arcuate surface configured to couple to a skin of the aircraft.
Uniplanar technology printed circuit including transmission lines that are part of a printed side and printed on a dielectric substrate (52; 101), the printed circuit constituting a radiofrequency power splitter comprising a single splitter unit having an input channel (55; 105) and three output channels (56; 106), the transmission lines having a coplanar ribbon topology, said printed circuit being characterised in that the input channel includes two first metal ribbons of constant width, each output channel including two second metal ribbons that widen on an external portion of the output channel.
A backpack notably comprising a rear face and two straps each having a rear end and a front end, vertical sliding means being laid out between the rear ends of the straps and the rear face, characterized in that both rear ends of the straps are respectively connected to the upper ends of two rear strings and that both front ends of the straps are respectively connected to the upper ends of two front strings, two sliding systems being respectively laid out on the two lower lateral sides of the rear face for slidably receiving the respective rear and front strings, the sliding of the rear and front strings respectively allowing height adjustment of the position of the straps with respect to the rear face and the tightening of the straps around the shoulders of the user, both adjustment/blocking systems, respectively positioned downstream from both sliding systems, being configured is order to adjust and maintain blocked the length of the upper portions (7a, 9a) of the rear and front strings separating said sliding systems from the rear and front ends of the straps.
Portable measuring device for measuring a metrology-related property of an object, notably a linear dimension, a thickness, a radius of a sphere or an inner and outer diameter, the portable measuring device having: a measuring apparatus comprising a logic circuit, a transducer and a reader, an accessory interchangeably connectable to the measuring apparatus and comprising a machine-readable tag storing individual metrology information relative to the accessory in a form compatible with the reader, wherein while the measuring apparatus is connected to the accessory, the measuring apparatus is operatively arranged to: • read the individual metrology information of the machine-readable tag of the accessory with the reader; • acquire, using the transducer of the measuring apparatus, a signal dependent from a metrology-related property of the object; • convert the signal into a measure value in the logic circuit, using the individual metrology information of the machine-readable tag of the accessory; • output the measure value. a measuring apparatus comprising a logic circuit, a transducer and a reader, an accessory interchangeably connectable to the measuring apparatus and comprising a machine-readable tag storing individual metrology information relative to the accessory in a form compatible with the reader, wherein while the measuring apparatus is connected to the accessory, the measuring apparatus is operatively arranged to: • read the individual metrology information of the machine-readable tag of the accessory with the reader; • acquire, using the transducer of the measuring apparatus, a signal dependent from a metrology-related property of the object; • convert the signal into a measure value in the logic circuit, using the individual metrology information of the machine-readable tag of the accessory; • output the measure value. • read the individual metrology information of the machine-readable tag of the accessory with the reader; • acquire, using the transducer of the measuring apparatus, a signal dependent from a metrology-related property of the object; • convert the signal into a measure value in the logic circuit, using the individual metrology information of the machine-readable tag of the accessory; • output the measure value.
Electrical component connected to a heat sink for cooling the electrical component, comprising: - a contact surface which is brought into thermally conductive contact with a counter contact surface of the electrical component; - wherein the contact surface comprises at least one elastically deformable section; wherein the heat sink comprises a receptacle for the electrical component; wherein the receptacle fixes the elastically deformable section in an elastically deformed state when the contact surface contacts the counter contact surface; - wherein the heat sink comprises a further surface which is configured as a heat radiating surface; - wherein the heat radiating surface comprises elevations increasing its surface area; - wherein the heat sink is configured at least as a housing section of a housing, which houses the electrical component, - wherein the contact surface is convexly curved, and - wherein the electrical component comprises a plurality of electrical elements, which are arranged on a multi-layer carrier and are connected accordingly, wherein the multi-layer carrier comprises an upper side on which the electrical elements are arranged and a lower side facing the upper side, which lower side is configured as a counter contact surface. - a contact surface which is brought into thermally conductive contact with a counter contact surface of the electrical component; - wherein the contact surface comprises at least one elastically deformable section; wherein the heat sink comprises a receptacle for the electrical component; wherein the receptacle fixes the elastically deformable section in an elastically deformed state when the contact surface contacts the counter contact surface; wherein the heat sink comprises a receptacle for the electrical component; wherein the receptacle fixes the elastically deformable section in an elastically deformed state when the contact surface contacts the counter contact surface; - wherein the heat sink comprises a further surface which is configured as a heat radiating surface; - wherein the heat radiating surface comprises elevations increasing its surface area; - wherein the heat sink is configured at least as a housing section of a housing, which houses the electrical component, - wherein the contact surface is convexly curved, and - wherein the electrical component comprises a plurality of electrical elements, which are arranged on a multi-layer carrier and are connected accordingly, wherein the multi-layer carrier comprises an upper side on which the electrical elements are arranged and a lower side facing the upper side, which lower side is configured as a counter contact surface.
A microfluidic device, comprising: a network of channels having one or more First Channels (208; 408; 608; 708), each First Channel having a height in the range of 50 microns to 500 microns, a width in the range of 50 microns to 900 microns, and a length in the range of 3 centimeters to 20 centimeters; at least one Second Channel (210; 410; 610; 710) complementary to one or more of the First Channels, the at least one Second Channel comprising at least one pressurizing feature (216; 416; 616; 754; 916) configured to yield a high pressure in a portion of the at least one Second Channel upstream from the pressurizing feature and a low pressure in a portion of the at least one Second Channel downstream from the pressurizing feature; and a filtration membrane (204; 404; 604) separating the one or more First Channels from the at least one Second Channel, wherein the upstream portion of the at least one Second Channel is located opposite a downstream portion of the one or more complementary First Channels, such that when fluid is flowed through the First and Second Channels, a non-linear pressure profile (318; 518) exists along the length of the at least one Second Channel and a pressure gradient exists across the membrane separating the one or more First Channels from the at least one complimentary Second Channel. a network of channels having one or more First Channels (208; 408; 608; 708), each First Channel having a height in the range of 50 microns to 500 microns, a width in the range of 50 microns to 900 microns, and a length in the range of 3 centimeters to 20 centimeters; at least one Second Channel (210; 410; 610; 710) complementary to one or more of the First Channels, the at least one Second Channel comprising at least one pressurizing feature (216; 416; 616; 754; 916) configured to yield a high pressure in a portion of the at least one Second Channel upstream from the pressurizing feature and a low pressure in a portion of the at least one Second Channel downstream from the pressurizing feature; and a filtration membrane (204; 404; 604) separating the one or more First Channels from the at least one Second Channel, wherein the upstream portion of the at least one Second Channel is located opposite a downstream portion of the one or more complementary First Channels, such that when fluid is flowed through the First and Second Channels, a non-linear pressure profile (318; 518) exists along the length of the at least one Second Channel and a pressure gradient exists across the membrane separating the one or more First Channels from the at least one complimentary Second Channel.
A rotor for a motor, comprising: a rotor core that is formed of a plurality of laminated ferromagnetic plates; and a permanent magnet that is accommodated in a slot that is formed in the rotor core so as to extend in an axial direction of the rotor core, the rotor characterized in that at least part of a bridge portion between an outer periphery of the rotor core and an end portion of the slot is heated by high-density energy to form a keyhole and form a molten pool around the keyhole, and a nonmagnetic element is disposed in the molten pool to demagnetize the at least part of the bridge portion. a rotor core that is formed of a plurality of laminated ferromagnetic plates; and a permanent magnet that is accommodated in a slot that is formed in the rotor core so as to extend in an axial direction of the rotor core, the rotor characterized in that at least part of a bridge portion between an outer periphery of the rotor core and an end portion of the slot is heated by high-density energy to form a keyhole and form a molten pool around the keyhole, and a nonmagnetic element is disposed in the molten pool to demagnetize the at least part of the bridge portion.
(+)-7-[4-(4-fluorophenyl)-6-isopropyl-2-(N-methyl-N-methylsulphonyl-amino)pyrimidin-5-yl]- (3R,5S)-dihydroxy- -6-heptenecarboxylic acid zinc salt (2:1) of the Formula and hydrates thereof.
Drive arrangement for the motorized adjustment of an adjustment element of a motor vehicle, wherein at least one drive comprising an electric drive motor, in particular DC motor, and a drive controller which is associated with the drive and is connected to a supply, in particular a vehicle battery, having a supply voltage (U V) are provided, wherein the drive is designed in a non-self-locking manner, so that, in the event of a non-motorized adjustment of the adjustment element, the drive motor operates as a generator and generates a generator voltage (U G), wherein the drive controller has a driver unit for supplying electrical drive power to the at least one drive, characterized in that the drive controller has a switching device for connecting the supply voltage (U V) to the driver unit and has a detection device for detecting a non-motorized adjustment of the adjustment element, and in that the drive controller, when a predetermined, non-motorized adjustment of the adjustment element is detected by means of the detection device, connects the supply voltage (U V) to the supply connections (9, 10) of the driver unit by means of the switching device in one switching operation, so that the drive motor operates on the supply as a generator and is accordingly braked.