mhurhangee/ep-ind-claims huggingface dataset:
Assembly of a valve body, a seal and a pipe, the valve body comprising a gas flow duct and a flap which is mounted so as to be able to move between an open position and a closed position obstructing the movement of the gases in the duct, the duct being connected to the pipe to allow gas to flow therebetween, the seal being mounted between the duct and the pipe to provide gastightness therebetween, the seal forming a seat for the flap in the closed position, said assembly forming a valve referred to as a three-way valve for a heat engine of a motor vehicle, wherein the pipe is an exhaust pipe providing a duct for entry of the gases into the valve and a duct for direct evacuation of the gases out of the valve, the gas flow duct being designed to form a recirculation of the exhaust gases towards a heat exchanger and being connected to the pipe at a hole which is made in the wall of said pipe. comprising a gas flow duct and a flap which is mounted so as to be able to move between an open position and a closed position obstructing the movement of the gases in the duct, the duct being connected to the pipe to allow gas to flow therebetween, the seal being mounted between the duct and the pipe to provide gastightness therebetween, the seal forming a seat for the flap in the closed position, said assembly forming a valve referred to as a three-way valve for a heat engine of a motor vehicle, wherein the pipe is an exhaust pipe providing a duct for entry of the gases into the valve and a duct for direct evacuation of the gases out of the valve, the gas flow duct being designed to form a recirculation of the exhaust gases towards a heat exchanger and being connected to the pipe at a hole which is made in the wall of said pipe.
A method of assigning transmission resources by an access node, the method comprising: allocating first transmission resources to a first device (102, 112, 122, 202, 220, 242, 262); and allocating second transmission resources to a second device, wherein the second transmission resources partially, but not completely, overlap the first transmission resources (104, 114, 124, 204, 222, 244, 264) wherein an amount of overlap between the first transmission resources and the second transmission resources is based on a target error rate for decoding transmissions received from the first device and the second device and/or a signal to interference plus noise ratio, SINR, of transmissions from the first device and the second device, and wherein the amount of overlap between the first transmission resources and the second transmission resources is also based on access probabilities of the first device and the second device. allocating first transmission resources to a first device (102, 112, 122, 202, 220, 242, 262); and allocating second transmission resources to a second device, wherein the second transmission resources partially, but not completely, overlap the first transmission resources (104, 114, 124, 204, 222, 244, 264) wherein an amount of overlap between the first transmission resources and the second transmission resources is based on a target error rate for decoding transmissions received from the first device and the second device and/or a signal to interference plus noise ratio, SINR, of transmissions from the first device and the second device, and wherein the amount of overlap between the first transmission resources and the second transmission resources is also based on access probabilities of the first device and the second device.
A pneumatic tire provided in a tread portion with at least one main groove extending continuously in the tire circumferential direction, wherein the main groove, in a cross-section perpendicular to a groove center line, comprises a first groove wall extending radially inward from one of tread surfaces, a second groove wall extending radially inward from the other of the tread surfaces, and a groove bottom connecting a radially inner end of the first groove wall and a radially inner end of the second groove wall and includes a protrusion portion convexed toward the radially outside; the protrusion portion continues along the main groove, and the width perpendicular to the groove center line is in a range of from 50% to 100% of the groove width of the main groove; and a cross-sectional area of the protrusion portion outwardly protruding in the tire radial di rection from a virtual groove bottom connecting the inner end of the first groove wall and the inner end of the second groove wall with a straight line is in a range of from 3% to 15% of a groove cross-sectional area of the main groove characterized in that the pneumatic tire is provided in the protrusion portion with a sipe extending along the groove center line of the main groove. a first groove wall extending radially inward from one of tread surfaces, a second groove wall extending radially inward from the other of the tread surfaces, and a groove bottom connecting a radially inner end of the first groove wall and a radially inner end of the second groove wall and includes a protrusion portion convexed toward the radially outside;
A herbicidal composition comprising a herbicidally effective amount of (a) (±)-2-exo-(2-Methylbenzyloxy)-1-methyl-4-isopropyl-7-oxabicyclo[2.2.1]heptane, any of its individual enantiomers or any non-racemic mixture thereof (herbicide A) and (b) at least one pigment synthesis inhibitor which is clomazone (B.3) (herbicide B) wherein the weight ratio of herbicide A to herbicide B is from 1:0.007 to 1:20.
A solder material containing a core that keeps a space between a joining object and an object to be joined, and a covering layer that covers the core, characterized in that the covering layer is composed of a solder alloy comprising Sn in a content of 80 mass % or more and Ge of 20 ppm or more and 220 ppm or less; the sphericity of the core is 0.95 or more; the diameter of the core is 1-1000 μm; and lightness of the solder material is equal to or more than 65 in the L*a*b* color space and yellowness thereof is equal to or less than 7.0 in the L*a*b* color space.
A lyophilizate composition having improved stability and shelf-life, the lyophilizate consisting of at least from 30 to 100% by weight of Mesna and optionally an excipient.
A mandibular protruder comprising: an upper mounting bracket having an upper dental appliance and an elongated planar portion that extends from the upper dental appliance, the upper dental appliance being configured for use with dental impression material; and a lower mounting bracket having a lower dental appliance and an elongated planar portion that extends from the lower dental appliance, the lower dental appliance being configured for use with dental impression material; wherein the protruder comprises a rail system coupling the extending portions such that relative motion of the extending portions is substantially prevented in a lateral direction,where the rail system comprises an engaged portion of the upper and lower extending portions; characterised in that the protruder further comprises a drive motor configured to effect relative displacement of the lower mounting bracket and the upper mounting bracket, in an anterior-posterior direction. an upper mounting bracket having an upper dental appliance and an elongated planar portion that extends from the upper dental appliance, the upper dental appliance being configured for use with dental impression material; and a lower mounting bracket having a lower dental appliance and an elongated planar portion that extends from the lower dental appliance, the lower dental appliance being configured for use with dental impression material; wherein
A field positioning equipment for determining a position and orientation of a cardiac catheter with respect to a reference system, comprising at least one field generating device, which, under the excitation of a drive signal, generates distinguishable fields; at least one field sensor (12, 12', 1002, 1002') located in said cardiac catheter for detecting the distinguishable fields to generate a sensor signal; a positioning signal processing device for transmitting the drive signal to said field generating device and detecting an output of said field sensor signal so as to generate data of five-dimensional position and orientation coordinates of the position on said cardiac catheter where the sensor (12, 12', 1002, 1002') is located, each group of obtained data of position coordinates is calibrated for offset amount before being used to simulate a cavity inner wall so as to remove the error caused by a distance between the place where the sensor is located and the tip of said cardiac catheter.
A method for manufacturing a hollow glass product by an I. S. machine, said method being of the press-and-blow or blow-blow type and implementing at least a blank mould and blow mould, said blank mould comprising two half-moulds (101, 102) closing at each manufacturing cycle, at least one glass parison being filled in the blank mould by gravity, said parison being transferred from the blank mould to the blow mould using a transfer arm after opening both half-moulds (101, 102) of the blank mould, said transfer arm being able to make reciprocating motions between the blank mould and the blow mould by passing between both half-moulds (101, 102) of the blank mould, said method comprising lubricating said blank mould, said lubrication being performed without interrupting the manufacturing method and comprising spraying a lubricant, inside said blank mould open, by at least one spray nozzle (105a, 105b), characterised in that said spray nozzle (105a, 105b) is carried by an arm of a robot external to the I. S. machine movable along the blank mould side of the I. S. machine, said movable robot being configured to (i) bring said spray nozzle (105a, 105b) into a lubrication position after the glass parison leaves the blank mould to the blow mould; (ii) after lubrication, withdraw said spray nozzle (105a, 105b) from the lubrication position before the transfer arm returns between both half-moulds of the blank mould. (i) bring said spray nozzle (105a, 105b) into a lubrication position after the glass parison leaves the blank mould to the blow mould; (ii) after lubrication, withdraw said spray nozzle (105a, 105b) from the lubrication position before the transfer arm returns between both half-moulds of the blank mould.
A pharmaceutical composition for inhalatory use characterized by comprising: a) a first spray dried powder comprising budesonide or a pharmaceutically acceptable salt thereof, in amounts greater than 5% by weight of said first powder, leucine in amount from 5 to 70% by weight of said first powder, lactose in amount from 20 to 90% by weight of said first powder and a surfactant; b) a second spray dried powder comprising formoterol or a pharmaceutically acceptable salt thereof, in an amount greater than 1% by weight of said second powder,, leucine in amount from 5 to 70% by weight of said second powder, lactose in amount from 20 to 90% by weight of said second powder and a surfactant; c) a bulking agent spray dried powder comprising leucine in amount from 5 to 70% by weight of said bulking agent powder and lactose in amount from 20 to 90% by weight of said bulking agent powder and a surfactant. wherein said composition has a fine particle fraction greater than 60% and an delivered fraction greater than 90%. a) a first spray dried powder comprising budesonide or a pharmaceutically acceptable salt thereof, in amounts greater than 5% by weight of said first powder, leucine in amount from 5 to 70% by weight of said first powder, lactose in amount from 20 to 90% by weight of said first powder and a surfactant; b) a second spray dried powder comprising formoterol or a pharmaceutically acceptable salt thereof, in an amount greater than 1% by weight of said second powder,, leucine in amount from 5 to 70% by weight of said second powder, lactose in amount from 20 to 90% by weight of said second powder and a surfactant; c) a bulking agent spray dried powder comprising leucine in amount from 5 to 70% by weight of said bulking agent powder and lactose in amount from 20 to 90% by weight of said bulking agent powder and a surfactant.
A motor driving device comprising: a rectifier to rectify input AC power; a boost converter to boost the rectified power from the rectifier, and to output the boosted power; a first capacitor to store a pulsating voltage from the boost converter; a first inverter comprising a plurality of switching elements, the first inverter outputting, to a compressor motor, AC power transformed using a voltage across the first capacitor; the motor driving device characterized by comprising: a second capacitor (Cm) to store the rectified power from the rectifier; a second inverter comprising a plurality of switching elements, the second inverter outputting, to a first fan motor, AC power transformed using a voltage across the second capacitor (Cm); and a voltage dropper to drop the voltage across the second capacitor (Cm), and to output the dropped voltage. a rectifier to rectify input AC power; a boost converter to boost the rectified power from the rectifier, and to output the boosted power; a first capacitor to store a pulsating voltage from the boost converter; a first inverter comprising a plurality of switching elements, the first inverter outputting, to a compressor motor, AC power transformed using a voltage across the first capacitor; a second capacitor (Cm) to store the rectified power from the rectifier; a second inverter comprising a plurality of switching elements, the second inverter outputting, to a first fan motor, AC power transformed using a voltage across the second capacitor (Cm); and a voltage dropper to drop the voltage across the second capacitor (Cm), and to output the dropped voltage.
A method of performing multi-path load balancing in a communications network comprising a plurality of servers, the method comprising: in a server: receiving a first connection request from a first load balancer, sent from a first interface of a client device (step 301); and storing a code representing the server in a database, the code associated with a unique identity of the server (step 302); in a second load balancer: receiving a second connection request, from a second interface of the client device, wherein the second connection request is associated with the first connection request sent from the first interface of the client device to the server, and wherein the second connection request includes a code associated with the server (step 401); mapping the code to an entry in the database (step 402); determining the unique server identity associated with the code (step 403); and forwarding the second connection request to the server associated with the unique server identity. in a server: receiving a first connection request from a first load balancer, sent from a first interface of a client device (step 301); and storing a code representing the server in a database, the code associated with a unique identity of the server (step 302); receiving a first connection request from a first load balancer, sent from a first interface of a client device (step 301); and storing a code representing the server in a database, the code associated with a unique identity of the server (step 302); in a second load balancer: receiving a second connection request, from a second interface of the client device, wherein the second connection request is associated with the first connection request sent from the first interface of the client device to the server, and wherein the second connection request includes a code associated with the server (step 401); mapping the code to an entry in the database (step 402); determining the unique server identity associated with the code (step 403); and forwarding the second connection request to the server associated with the unique server identity. receiving a second connection request, from a second interface of the client device, wherein the second connection request is associated with the first connection request sent from the first interface of the client device to the server, and wherein the second connection request includes a code associated with the server (step 401); mapping the code to an entry in the database (step 402); determining the unique server identity associated with the code (step 403); and forwarding the second connection request to the server associated with the unique server identity.
A light source driving device comprising: a switching power source for driving a light emitting element; a pulse-drive switching element connected in parallel to the light emitting element; a photodetector for detecting an intensity of an output light output from the light emitting element; a current detecting element for detecting a current flowing from the switching power source; and an operation processing unit that controls an operation of the switching power source by performing a first feedback loop operation based on a detection result from the photodetector and a second feedback loop operation based on a detection result from the current detecting element, characterized in that the pulse-drive switching element is configured to drive the light emitting element by switching on and off based on a timing signal, said timing signal controlling an emission timing of the light emitting element, and the operation processing unit is configured to perform the first feedback loop operation based on a detection result from the photodetector during an emission period of the light emitting element and to perform the second feedback loop operation based on a detection result from the current detecting element during a non-emission period of the light emitting element. a switching power source for driving a light emitting element; a pulse-drive switching element connected in parallel to the light emitting element; a photodetector for detecting an intensity of an output light output from the light emitting element; a current detecting element for detecting a current flowing from the switching power source; and an operation processing unit that controls an operation of the switching power source by performing a first feedback loop operation based on a detection result from the photodetector and a second feedback loop operation based on a detection result from the current detecting element, characterized in that the pulse-drive switching element is configured to drive the light emitting element by switching on and off based on a timing signal, said timing signal controlling an emission timing of the light emitting element, and the operation processing unit is configured to perform the first feedback loop operation based on a detection result from the photodetector during an emission period of the light emitting element and to perform the second feedback loop operation based on a detection result from the current detecting element during a non-emission period of the light emitting element.
A hot water cylinder having a storage tank which has an opening, having a vacuum insulating unit which surrounds the storage tank, the storage tank being an inner tank, and a cavity of the vacuum insulation unit being formed between the inner tank and an outer tank, characterised in that the outer tank of the vacuum insulating unit has a bottom, wherein a cold sink is arranged in the bottom and is arranged around the opening, wherein fastening means are arranged radially within the cold sink on the bottom merely protruding from the bottom, wherein the vacuum insulation of the vacuum insulating unit is not impaired and a heating flange device with a flange element is mounted on the bottom of the hot water cylinder and the heating flange device has a heating element, a cold water inlet, a hot water return and a temperature sensor.
An extra-cardiac direct cardiac contact diastolic recoil device to improve diastolic recoil of a heart, comprising: a biocompatible film pneumatically locked in a co-axial configuration with the heart after air in the mediastinum is removed, wherein the biocompatible film is attached to or enclosing one or more structural elements that store elastic energy as the device is pulled inward during heart contraction and pull outward releasing energy and applying a traction to the heart during heart filling. a biocompatible film pneumatically locked in a co-axial configuration with the heart after air in the mediastinum is removed, wherein the biocompatible film is attached to or enclosing one or more structural elements that store elastic energy as the device is pulled inward during heart contraction and pull outward releasing energy and applying a traction to the heart during heart filling.
A composite active material comprising: composite particles containing active material particles and an oxide-based solid electrolyte, the active material particles containing at least any one of a cobalt element, a nickel element and a manganese element and further containing a lithium element and an oxygen element, the oxide-based solid electrolyte coating all or part of a surface of each of the active material particles; and a sulfide-based solid electrolyte further coating 76.0% or more of a surface of each of the composite particles; characterized in that a compound having an alkyl group is adhered to the surface of each composite particle and/or the surface of the sulfide-based solid electrolyte. composite particles containing active material particles and an oxide-based solid electrolyte, the active material particles containing at least any one of a cobalt element, a nickel element and a manganese element and further containing a lithium element and an oxygen element, the oxide-based solid electrolyte coating all or part of a surface of each of the active material particles; and a sulfide-based solid electrolyte further coating 76.0% or more of a surface of each of the composite particles; characterized in that a compound having an alkyl group is adhered to the surface of each composite particle and/or the surface of the sulfide-based solid electrolyte.
Device for cleaning of footwear in connection with use of construction site vehicles, comprising: water pump, nozzles and water pipe between same, a source of pressurized air and air pressure pipe and nozzles (20, 21), an outer supporting structure in the form of a housing arranged to protect the other parts of the device against external influence, the housing further comprising a recess for receiving footwear to be cleaned, at least one sensor for initiating cleaning when footwear is positioned in said recess, characterized in that the device is arranged to automatically flush the footwear with water via the water pump and immediately thereafter to blow the footwear dry with air from a compressor, the air pressure pipe and the water pipe being connected to the same set of nozzles (20, 21). water pump, nozzles and water pipe between same, a source of pressurized air and air pressure pipe and nozzles (20, 21), an outer supporting structure in the form of a housing arranged to protect the other parts of the device against external influence, the housing further comprising a recess for receiving footwear to be cleaned, at least one sensor for initiating cleaning when footwear is positioned in said recess, characterized in that the device is arranged to automatically flush the footwear with water via the water pump and immediately thereafter to blow the footwear dry with air from a compressor, the air pressure pipe and the water pipe being connected to the same set of nozzles (20, 21).