mhurhangee/patent-ind-claim-en huggingface dataset:
Amanagement server in a network including a first transmitting device configured to communicate with a first receiving device in a first cell formed by the first transmitting device and a second transmitting device configured to communicate with a second receiving device in a second cell formed by the second transmitting device, the management server being configured to control communications between the first transmitting device and the first receiving device, wherein the maximum transmission power of the first transmitting device is less than or greater than the maximum transmission power of the second transmitting device, and comprising: a network interface configured to receive a parameter (Mreq) corresponding to a desired level of improvement of communication quality at the second receiving device; a processor configured to calculate an allowable interference amount at the first receiving device based on the parameter, wherein the network communication unit is configured to output the calculated allowable interference amount to a second management server configured to control communications between the second transmitting device and the second receiving device, the second management server being configured to control communications between the second transmitting device and the second receiving device based on the allowable interference amount. a network interface configured to receive a parameter (Mreq) corresponding to a desired level of improvement of communication quality at the second receiving device; a processor configured to calculate an allowable interference amount at the first receiving device based on the parameter, wherein the network communication unit is configured to output the calculated allowable interference amount to a second management server configured to control communications between the second transmitting device and the second receiving device, the second management server being configured to control communications between the second transmitting device and the second receiving device based on the allowable interference amount.
A crystalline polymorph of -L-tetrahydrobiopterin dihydrochloride (BH4) for use in the treatment of a subject with phenylketonuria (PKU), wherein the BH4 is to be administered in a single dose once daily, wherein the crystalline form exhibits an X-ray powder diffraction pattern, expressed in d-values (Å) at: 8.7 (vs), 6.9 (w), 5.90 (vw), 5.63 (m), 5.07 (m), 4.76 (m), 4.40 (m), 4.15 (w), 4.00 (s), 3.95 (m), 3.52 (m), 3.44 (w), 3.32 (m), 3.23 (s), 3.17 (w), 3.11 (vs), 3.06 (w), 2.99 (w), 2.96 (w), 2.94 (m), 2.87 (w), 2.84 (s), 2.82 (m), 2.69 (w), 2.59 (w), 2.44 (w).
Cable tray for carrying cables and of the type that is made of wire material with a number of lateral U-bent wires and longitudinal wires fastened thereto, so that the U-bent wires form a bottom and a first and a second side wall for the cable tray, and where the bottom is narrower than the side walls are high, so that the cables may be placed laterally in the cable tray, characterized in that the first side wall is made with a wavy shape with wave troughs placed close to or in contact with the second side wall and wave crests between the wave troughs , and in that the wave-shaped first side wall together with the second side wall forms spaces for receiving cables to ensure an easy to clean distance between the cables and wherein the lateral U-bent wires in the cable tray are made in such a way that the spaces that are formed between the first side wall and the second side wall , and other spaces that are formed between the first side wall and a line joining the vertices of the wave crests are alternately aligned, so that cables that are fitted in the cable tray are placed alternately in the first-mentioned spaces and the other spaces .
A method of adjusting a slot die comprising an applicator slot extending along a width of the slot die , wherein the applicator slot is in fluid communication with a fluid flow path through the slot die , at least one of a group consisting of: a choker bar and flexible die lip , and a plurality of actuators spaced along the width of the slot die , each actuator operatively coupled to the choker bar or flexible die lip to adjust a slot or choker bar height profile at its respective location to provide a local adjustment of fluid flow through the applicator slot , wherein the method comprises: measuring thickness values of an extrudate provided from the applicator slot ; mapping the measured thickness values to a corresponding position along the width of the slot die ; executing a data compression of the measured thickness values to obtain a residual vector representing deviation of the measured thickness values from desired thickness values; and adjusting a position of one or more of the plurality of actuators based on the residual vector to obtain a corrected shape for the choker bar or flexible die lip , wherein said adjusting comprises using the residual vector to determine a predicted degree of ringing for a proposed set of actuator positions and then applying a ringing constraint to obtain a revised set of actuator positions that reduces the degree of ringing relative to the predicted degree of ringing. measuring thickness values of an extrudate provided from the applicator slot ; mapping the measured thickness values to a corresponding position along the width of the slot die ; executing a data compression of the measured thickness values to obtain a residual vector representing deviation of the measured thickness values from desired thickness values; and adjusting a position of one or more of the plurality of actuators based on the residual vector to obtain a corrected shape for the choker bar or flexible die lip , wherein said adjusting comprises using the residual vector to determine a predicted degree of ringing for a proposed set of actuator positions and then applying a ringing constraint to obtain a revised set of actuator positions that reduces the degree of ringing relative to the predicted degree of ringing. using the residual vector to determine a predicted degree of ringing for a proposed set of actuator positions and then applying a ringing constraint to obtain a revised set of actuator positions that reduces the degree of ringing relative to the predicted degree of ringing.
A data processor system (MOD FD ) for monitoring a complex system, the processor system being configured to receive pieces of state information (ID FLAG , MSG PB , MSG CAP ) and to merge at least said pieces of state information into a piece of failure information (MSG PC ), at least one of said pieces of state information being associated with a confidence flag (NC2), and the piece of failure information likewise being associated with a confidence flag (NC3), wherein a merging is performed by implementing a fuzzy logic technique in order to produce the piece of failure information while taking account of the respective confidence flags (NC2) of the pieces of state information and in order to produce the confidence flag (NC3) associated with the failure information, and wherein the pieces of state information are received in state messages including the identity of a subsystem (ID SS ) or of a component (ID COMP ).
A device for charging at least one electric vehicle, comprising: at least one stationary power electronics system which is designed in each case to provide a charging current for charging an electrical energy store of an electric vehicle, preferably a traction energy store of an electric vehicle; a carrier which preferably extends horizontally and/or can fold out horizontally; and at least one charging point which is movably supported by the carrier and which is electrically connected to the at least one stationary power electronics system and on which at least one charging cable , preferably comprising a charging plug , is arranged to provide the charging current, characterized in that the carrier comprises at least one rail extending in the longitudinal direction of the carrier , and wherein the charging point comprises at least one roller which bears on the rail in a longitudinally movable manner, the carrier comprises an immovable end and a movable end , and the electrical connection between the at least one power electronics system and the at least one movable charging point comprises current conductors which extend along the carrier and current collectors on the side of the movable charging point which contact the current conductors. at least one stationary power electronics system which is designed in each case to provide a charging current for charging an electrical energy store of an electric vehicle, preferably a traction energy store of an electric vehicle; a carrier which preferably extends horizontally and/or can fold out horizontally; and at least one charging point which is movably supported by the carrier and which is electrically connected to the at least one stationary power electronics system and on which at least one charging cable , preferably comprising a charging plug , is arranged to provide the charging current, characterized in that the carrier comprises at least one rail extending in the longitudinal direction of the carrier , and wherein the charging point comprises at least one roller which bears on the rail in a longitudinally movable manner, the carrier comprises an immovable end and a movable end , and the electrical connection between the at least one power electronics system and the at least one movable charging point comprises current conductors which extend along the carrier and current collectors on the side of the movable charging point which contact the current conductors.
16α,17α-epoxy-10β-hydroxyestr-4-en-3-one for use in treating an individual suffering from migraine by nasal administration.
An agricultural sample analysis system comprising in communication: an inlet; a mixing device connected to the inlet to receive a quantity of a sample from the inlet; a measurement device (160-1) to determine the quantity of the sample; the mixing device fluidly coupled to a solvent source and operable to mix and prepare a sample slurry; a separation device fluidly coupled to the mixing device to receive the slurry mixture, the separation device operable to separate a test material from the slurry mixture; an analysis cell fluidly coupled to the separation device for receiving the test material; and operable to measure an analyte in the test material in the analysis cell ; a fluid conveyor connected to the mixing device for extracting the slurry; an injector to inject an extractant into the slurry mixture; and a sample collector configured to collect the sample from an agricultural field and fluidly convey the sample to the inlet, wherein the measurement device (160-1) comprises a sample collection and volumizing station (160-1) fluidly coupled to and upstream of the mixing device , and wherein the sample collector is configured to transfer the sample to the collection and volumizing station (160-1) before being received by the mixing device characterized in that the separation device is a centrifuge. an inlet; a mixing device connected to the inlet to receive a quantity of a sample from the inlet; a measurement device (160-1) to determine the quantity of the sample; the mixing device fluidly coupled to a solvent source and operable to mix and prepare a sample slurry; a separation device fluidly coupled to the mixing device to receive the slurry mixture, the separation device operable to separate a test material from the slurry mixture; an analysis cell fluidly coupled to the separation device for receiving the test material; and operable to measure an analyte in the test material in the analysis cell ; a fluid conveyor connected to the mixing device for extracting the slurry; an injector to inject an extractant into the slurry mixture; and a sample collector configured to collect the sample from an agricultural field and fluidly convey the sample to the inlet, wherein the measurement device (160-1) comprises a sample collection and volumizing station (160-1) fluidly coupled to and upstream of the mixing device , and wherein the sample collector is configured to transfer the sample to the collection and volumizing station (160-1) before being received by the mixing device characterized in that the separation device is a centrifuge.
A negative pressure wound therapy system comprising: a wound dressing configured to be placed over a wound of a patient, the wound dressing configured to absorb fluid; a source of negative pressure disposed on or within the wound dressing, the source of negative pressure configured to aspirate fluid from the wound; a power source disposed on or within the wound dressing; and electronic circuitry disposed on or within the wound dressing, characterized in that the electronic circuitry comprises boost converter circuitry configured to receive power at a first level from the power source and output power at a second level to the source of negative pressure, the second level being higher than the first level; and a controller configured to: monitor capacity of the power source; and in response to a determination that the capacity of the power source is depleting, provide a first control signal to cause the boost converter circuitry to output power to the source of negative pressure at a third level lower than the second level. a wound dressing configured to be placed over a wound of a patient, the wound dressing configured to absorb fluid; a source of negative pressure disposed on or within the wound dressing, the source of negative pressure configured to aspirate fluid from the wound; a power source disposed on or within the wound dressing; and electronic circuitry disposed on or within the wound dressing, characterized in that the electronic circuitry comprises boost converter circuitry configured to receive power at a first level from the power source and output power at a second level to the source of negative pressure, the second level being higher than the first level; and a controller configured to: monitor capacity of the power source; and in response to a determination that the capacity of the power source is depleting, provide a first control signal to cause the boost converter circuitry to output power to the source of negative pressure at a third level lower than the second level. boost converter circuitry configured to receive power at a first level from the power source and output power at a second level to the source of negative pressure, the second level being higher than the first level; and a controller configured to: monitor capacity of the power source; and in response to a determination that the capacity of the power source is depleting, provide a first control signal to cause the boost converter circuitry to output power to the source of negative pressure at a third level lower than the second level. monitor capacity of the power source; and in response to a determination that the capacity of the power source is depleting, provide a first control signal to cause the boost converter circuitry to output power to the source of negative pressure at a third level lower than the second level.
An ice protection arrangement for an aircraft surface comprising: a de-icer assembly ; a primer attachable to the aircraft surface; and an adhesive containing vertically aligned carbon nanotubes being, in use, oriented along their longitudinal axes normal to the aircraft surface and being positioned between and attached to both the primer and the de-icer assembly. a de-icer assembly ; a primer attachable to the aircraft surface; and an adhesive containing vertically aligned carbon nanotubes being, in use, oriented along their longitudinal axes normal to the aircraft surface and being positioned between and attached to both the primer and the de-icer assembly. longitudinal axes normal to the aircraft surface and being positioned between and attached to both the primer and the de-icer assembly.
An igniter for a gas generator, comprising a pole body (14; 14') having at least one connection pin , a retaining ring and an insulation ring , wherein the insulation ring spaces the at least one connection pin apart from the retaining ring and electrically insulates it from the same, and wherein the retaining ring consists of a metal and the insulation ring consists of a plastic, characterized in that said retaining ring , said insulation ring , and at least one connection pin are compressed together during a compression step, during which the retaining ring , the insulation ring , and the connection pin are directly connected to one another securely, without gaps and play, at least by deformation of the retaining ring .
A method of forming a transfer film comprising: coating a backfill composition onto a structured non-planar template layer to form a backfill layer conforming to the non-planar structured surface, the backfill composition comprising: multifunctional epoxy monomers; multifunctional acrylate monomers; curing the multifunctional epoxy monomers to form a cross-linked epoxy polymer with the multifunctional acrylate monomers dispersed therein and forming a transfer film. coating a backfill composition onto a structured non-planar template layer to form a backfill layer conforming to the non-planar structured surface, the backfill composition comprising: multifunctional epoxy monomers; multifunctional acrylate monomers; multifunctional epoxy monomers; multifunctional acrylate monomers; curing the multifunctional epoxy monomers to form a cross-linked epoxy polymer with the multifunctional acrylate monomers dispersed therein and forming a transfer film.
A positive electrode comprising: a porous electroconductive metal oxide represented by Formula 1, wherein the electroconductive metal oxide has a specific surface area of 2.5 square meters per gram to 1000 square meters per gram, Formula 1 L x Ru y O z wherein, in Formula 1, L is at least one of a lanthanide element or an actinide element, and 0<x<1, 0<y<1, and 0<z≤1. wherein the electroconductive metal oxide has a specific surface area of 2.5 square meters per gram to 1000 square meters per gram, Formula 1 L x Ru y O z wherein, in Formula 1, L is at least one of a lanthanide element or an actinide element, and 0<x<1, 0<y<1, and 0<z≤1. L is at least one of a lanthanide element or an actinide element, and 0<x<1, 0<y<1, and 0<z≤1.
A method of manufacturing an implantable neural electrode comprising: cutting a metal layer to form a plurality of electrode sites, contact pads and metal traces , wherein the metal layer is about 5 μm to 25 μm thick and wherein the metal traces connect one or more electrode sites to one or more contact pads; forming a first silicone layer by: knife-coating a polymer mesh with silicone, such that the first silicone layer has a thickness between about 50 μm and about 100 μm, and curing the first silicone layer; coupling the metal layer to the first silicone layer; forming a second silicone layer by calendaring silicone to a thickness between about 50 μm and about 100 μm; laminating the first silicone layer to the second silicone layer such that the metal layer is positioned between the first silicone layer and the second silicone layer; forming a first set of holes in the first or second silicone layers to expose one or more electrode sites and a second set of holes in the first or second silicone layers to expose one or more contact pads in the metal layer; after exposing the one or more contact pads , welding one or more wires to the one or more exposed contact pads ; and overmolding a third silicone layer over the one or more welded contact pads and a portion of the wires. cutting a metal layer to form a plurality of electrode sites, contact pads and metal traces , wherein the metal layer is about 5 μm to 25 μm thick and wherein the metal traces connect one or more electrode sites to one or more contact pads; forming a first silicone layer by: knife-coating a polymer mesh with silicone, such that the first silicone layer has a thickness between about 50 μm and about 100 μm, and curing the first silicone layer; knife-coating a polymer mesh with silicone, such that the first silicone layer has a thickness between about 50 μm and about 100 μm, and curing the first silicone layer; coupling the metal layer to the first silicone layer; forming a second silicone layer by calendaring silicone to a thickness between about 50 μm and about 100 μm; laminating the first silicone layer to the second silicone layer such that the metal layer is positioned between the first silicone layer and the second silicone layer; forming a first set of holes in the first or second silicone layers to expose one or more electrode sites and a second set of holes in the first or second silicone layers to expose one or more contact pads in the metal layer; after exposing the one or more contact pads , welding one or more wires to the one or more exposed contact pads ; and overmolding a third silicone layer over the one or more welded contact pads and a portion of the wires.
A progressing cavity (PC) pump system comprising: a well casing with an annulus ; a progressing cavity (PC) pump disposed within the well casing; a motor operatively coupled to the PC pump; a controller operatively coupled to the motor; a gas flow valve in communication with the annulus of the well casing and disposed in a fluid flow line ; and an automated wash system operatively coupled to the controller, the automated wash system including: a wash fluid source ; and a wash valve in fluid communication with the wash fluid source and the annulus of the well casing, the wash valve adapted to control the flow of wash fluid between the wash fluid source and the annulus and operably coupled to the controller; wherein, upon receipt of a command to initiate a wash cycle, the controller closes the gas flow valve to stop an upward flow of fluid in the annulus of the well casing, opens the wash valve to allow fluid from the wash fluid source to be directed into the annulus, and increases a speed of the PC pump via a signal to the motor to effect cleaning of the well casing. a well casing with an annulus ; a progressing cavity (PC) pump disposed within the well casing; a motor operatively coupled to the PC pump; a controller operatively coupled to the motor; a gas flow valve in communication with the annulus of the well casing and disposed in a fluid flow line ; and an automated wash system operatively coupled to the controller, the automated wash system including: a wash fluid source ; and a wash valve in fluid communication with the wash fluid source and the annulus of the well casing, the wash valve adapted to control the flow of wash fluid between the wash fluid source and the annulus and operably coupled to the controller; wherein, upon receipt of a command to initiate a wash cycle, the controller closes the gas flow valve to stop an upward flow of fluid in the annulus of the well casing, opens the wash valve to allow fluid from the wash fluid source to be directed into the annulus, and increases a speed of the PC pump via a signal to the motor to effect cleaning of the well casing. a wash fluid source ; and a wash valve in fluid communication with the wash fluid source and the annulus of the well casing, the wash valve adapted to control the flow of wash fluid between the wash fluid source and the annulus and operably coupled to the controller; wherein, upon receipt of a command to initiate a wash cycle, the controller closes the gas flow valve to stop an upward flow of fluid in the annulus of the well casing, opens the wash valve to allow fluid from the wash fluid source to be directed into the annulus, and increases a speed of the PC pump via a signal to the motor to effect cleaning of the well casing.