mhurhangee/ep-ind-claims huggingface dataset:
Catheter (1', 1") for an intraluminal treatment comprising: - a main tubular body, which extends along a longitudinal axis between a proximal end portion and a distal end portion (2") and which delimits at least one central lumen; wherein said main tubular body identifies at least one balloon, comprising a portion of distal extremity (8") and expandable between a rest configuration, wherein the catheter (1', 1") is suitable for being conducted through an organic cavity, and an expanded configuration; and - at least one inner tubular body, at least partially housed in the central lumen, which delimits at least one inner lumen to house at least one guide wire, said inner tubular body extending longitudinally around a central axis; the portion of distal extremity (8") of the balloon being joined to the inner tubular body; characterised in that said central axis of the inner lumen is arched or undulated to form an accumulation of material for the expansion of the balloon. - a main tubular body, which extends along a longitudinal axis between a proximal end portion and a distal end portion (2") and which delimits at least one central lumen; wherein said main tubular body identifies at least one balloon, comprising a portion of distal extremity (8") and expandable between a rest configuration, wherein the catheter (1', 1") is suitable for being conducted through an organic cavity, and an expanded configuration; and - at least one inner tubular body, at least partially housed in the central lumen, which delimits at least one inner lumen to house at least one guide wire, said inner tubular body extending longitudinally around a central axis; the portion of distal extremity (8") of the balloon being joined to the inner tubular body; characterised in that said central axis of the inner lumen is arched or undulated to form an accumulation of material for the expansion of the balloon.
A weapon launch system for a submersible vessel, comprising: - at least one electrical actuator capable of exerting a sequence of mechanical actions on a weapon launch tube; - a power module capable of providing electrical power; - a control module capable of controlling the operation of the electric actuator; - a first security module electrically connecting the power module to the control module and capable of monitoring the operation of the power module by implementing a first monitoring logic; - a second security module electrically connecting the control module to the actuator and capable of monitoring the operation of the control module by implementing a second monitoring logic, the second monitoring logic being different and dissimilar to the first monitoring logic. - at least one electrical actuator capable of exerting a sequence of mechanical actions on a weapon launch tube; - a power module capable of providing electrical power; - a control module capable of controlling the operation of the electric actuator; - a first security module electrically connecting the power module to the control module and capable of monitoring the operation of the power module by implementing a first monitoring logic; - a second security module electrically connecting the control module to the actuator and capable of monitoring the operation of the control module by implementing a second monitoring logic, the second monitoring logic being different and dissimilar to the first monitoring logic.
Method for reliably monitoring a speed of a movable coordinate measuring device, wherein the coordinate measuring device is part of a coordinate measuring system (22, 24, 25, 26, 28) for determining coordinates of measured objects, characterized in that for reliably monitoring the speed: (a) a first value of the speed is calculated from measured values of the coordinate measuring system (22, 24, 25, 26, 28), wherein the measured values have information about positions of the coordinate measuring device and wherein the measured values are also used to determine the coordinates, (b) a second value of the speed is determined from measurement signals of at least one additional movement sensor, wherein the measurement signals are also used, or can be used, for controlling a drive device of the coordinate measuring device, and (c) it is monitored i. whether the first value reaches or exceeds a predefined maximum value of the speed according to a predefined criterion, and ii. whether the second value reaches or exceeds the predefined maximum value of the speed according to a predefined criterion, and if it is determined during the monitoring according to i. and/or according to ii. that the predefined criterion is satisfied, a fault signal is automatically generated. (a) a first value of the speed is calculated from measured values of the coordinate measuring system (22, 24, 25, 26, 28), wherein the measured values have information about positions of the coordinate measuring device and wherein the measured values are also used to determine the coordinates, (b) a second value of the speed is determined from measurement signals of at least one additional movement sensor, wherein the measurement signals are also used, or can be used, for controlling a drive device of the coordinate measuring device, and (c) it is monitored i. whether the first value reaches or exceeds a predefined maximum value of the speed according to a predefined criterion, and ii. whether the second value reaches or exceeds the predefined maximum value of the speed according to a predefined criterion, and if it is determined during the monitoring according to i. and/or according to ii. that the predefined criterion is satisfied, a fault signal is automatically generated. i. whether the first value reaches or exceeds a predefined maximum value of the speed according to a predefined criterion, and ii. whether the second value reaches or exceeds the predefined maximum value of the speed according to a predefined criterion,
Protected component, comprising an external cover layer, an internal splinter protection layer, several spacers (22 - 25) arranged between the cover layer and the splinter protection layer to hold the cover layer spaced apart from the splinter protection layer so that a gap is provided between the cover layer and the splinter protection layer, a potting compound which fills the gap, an intermediate layer which is arranged between the cover layer and the splinter protection layer inside the gap, wherein the potting compound joining together the cover layer, the splinter protection layer, the spacers (22 - 25), and the intermediate layer, characterized in that the spacers (22 - 25) are connected to the intermediate layer in a form-locking manner, wherein the spacers (22 - 25) comprise a contact surface on an outside thereof, and wherein the intermediate layer comprises correspondingly shaped breakthroughs (44 - 47) which enable a form-locking connection of the breakthroughs (44 - 47) to the contact surface of the spacers (22 - 25), by which form-locking connection the spacers (22 - 25) are secured against rotation relative to the intermediate layer. an external cover layer, an internal splinter protection layer, several spacers (22 - 25) arranged between the cover layer and the splinter protection layer to hold the cover layer spaced apart from the splinter protection layer so that a gap is provided between the cover layer and the splinter protection layer, a potting compound which fills the gap, an intermediate layer which is arranged between the cover layer and the splinter protection layer inside the gap, wherein the potting compound joining together the cover layer, the splinter protection layer, the spacers (22 - 25), and the intermediate layer, characterized in that the spacers (22 - 25) are connected to the intermediate layer in a form-locking manner, wherein the spacers (22 - 25) comprise a contact surface on an outside thereof, and wherein the intermediate layer comprises correspondingly shaped breakthroughs (44 - 47) which enable a form-locking connection of the breakthroughs (44 - 47) to the contact surface of the spacers (22 - 25), by which form-locking connection the spacers (22 - 25) are secured against rotation relative to the intermediate layer.
A power system for supplying power to a grid, said system comprising: an AC wind turbine generator connected to a first AC/DC inverter grid interface unit; a DC bus connected to the first grid interface unit and a second bidirectional AC/DC DC/AC inverter grid interface unit; wherein the grid is connected to the second grid interface unit; the power system further comprising a third DC/AC grid interface unit that connects to a load and to the DC bus; and a battery charge controller that is a DC/DC bidirectional buck/boost converter, wherein the battery charge controller is connected to the DC bus and a Vanadium redox battery electrical storage system configured to store power from the generator and supply power to the grid, and wherein said Vanadium redox battery electrical storage system is further fully rated to provide volt-amperes reactive (VARS) on a continuous basis either when charging or discharging. an AC wind turbine generator connected to a first AC/DC inverter grid interface unit; a DC bus connected to the first grid interface unit and a second bidirectional AC/DC DC/AC inverter grid interface unit; wherein the grid is connected to the second grid interface unit; the power system further comprising a third DC/AC grid interface unit that connects to a load and to the DC bus; and a battery charge controller that is a DC/DC bidirectional buck/boost converter, wherein the battery charge controller is connected to the DC bus and a Vanadium redox battery electrical storage system configured to store power from the generator and supply power to the grid, and wherein said Vanadium redox battery electrical storage system is further fully rated to provide volt-amperes reactive (VARS) on a continuous basis either when charging or discharging.
Tissue ablation system for the internal treatment of parenchymal organs, hollow anatomical conduits or blood vessels; said system comprising an electromagnetic, EM, wave generator and a catheter (8-14,16-40) with an active distal end; characterized by the fact that said generator includes at least two EM wave outputs and is adapted to provide three types of EM waves through said outputs, namely radiofrequency, RF, microwave, MW and laser, LS; said generator furthermore comprising a processing unit that is programmed, among other things, to emit all three EM waves at the same time and control the interaction among them.
An apparatus for generating a microfoam, the apparatus comprising a channel (18, 106, 139, 159, 179) having an inlet (17, 109, 154, 164, 186) and an outlet (121, 153, 160, 187), a source of foamable liquid (15, 101, 134, 167, 184) and pressurised gas (16, 102, 135, 162, 189) arranged to feed into the inlet (17, 109, 154, 164, 186) under feed pressure, wherein the channel (18, 106, 139, 159, 179) is comprised of a spatially oscillating flow channel (106, 139, 159, 179) to provide an oscillating flow direction, the spatially oscillating flow channel (106, 139, 159, 179) oscillating about a bulk flow direction, the spatially oscillating flow channel (106, 139, 159, 179) providing a sequence of planar cross-sections perpendicular to the flow direction, with a sub-sequence of planar cross-sections (44, 46, 48, 54, 56, 58, 64, 66, 68) that are perpendicular to the bulk flow direction in the plane in question, the sub sequence comprising at least one plane that does not overlap with at least one other plane in the sub sequence, characterized in that the spatially oscillating flow channel is a single channel with no splits and re-merging of channels, and wherein the feed pressures are appropriate to generate a microfoam in the spatially oscillating channel due to the particular shear environment arising due to the oscillations.
An elevator system comprising: an elevator cabin, and a traction wire rope for driving the elevator cabin and/or a safety wire rope, characterized in that the elevator system further comprises an upper transverse element (20; 20'; 20") provided above the elevator cabin and adapted to be guided along the traction wire rope and/or the safety wire rope, and a support structure, which is adapted to support the upper transverse element (20; 20'; 20") and substantially impede its movement in a downwards direction and in a horizontal direction, and to allow movement of the upper transverse element (20; 20'; 20") in an upwards direction. an elevator cabin, and a traction wire rope for driving the elevator cabin and/or a safety wire rope, characterized in that an upper transverse element (20; 20'; 20") provided above the elevator cabin and adapted to be guided along the traction wire rope and/or the safety wire rope, and a support structure, which is adapted to support the upper transverse element (20; 20'; 20") and substantially impede its movement in a downwards direction and in a horizontal direction, and to allow movement of the upper transverse element (20; 20'; 20") in an upwards direction.
A strain sensor in which a semiconductor element, which is a strain gauge including silicon, is joined via glass onto a diaphragm made of a metal material, characterized in that the metal material is a Ni-based heat-resistant alloy whose average linear expansion coefficient (CTEm) in a temperature range of 50°C to 350°C is 12.1 ppm/°C or higher and 21.2 ppm/°C or lower, wherein the glass has a glass transition point higher than 350°C, and an average linear expansion coefficient (CTEg) of the glass in the temperature range is lower than an average linear expansion coefficient (CTEm) of the metal material in the temperature range and is higher than or equal to an average linear expansion coefficient (CTEs) of the semiconductor element in the temperature range, and wherein a difference (ΔCTE) between the average linear expansion coefficient (CTEg) of the glass and the average linear expansion coefficient (CTEm) of the metal material is 3.3 ppm/°C or larger and 10.2 ppm/°C or smaller.
A coding device comprising: a coding unit configured: for a 4x4 transform block, to perform up-right diagonal scanning and to apply multi-level significance map encoding to the 4×4 transform block; and for an 8x8 transform block, to perform up-right diagonal scanning by applying up-right diagonal scanning in units of 4×4 sub-blocks while performing up-right diagonal scanning within each of the 4×4 sub-blocks, and to apply multi-level significance map encoding to the 8x8 transform block. for a 4x4 transform block, to perform up-right diagonal scanning and to apply multi-level significance map encoding to the 4×4 transform block; and for an 8x8 transform block, to perform up-right diagonal scanning by applying up-right diagonal scanning in units of 4×4 sub-blocks while performing up-right diagonal scanning within each of the 4×4 sub-blocks, and to apply multi-level significance map encoding to the 8x8 transform block.
A metal/oxygen electrochemical cell, comprising: a negative electrode; a separator positioned adjacent to the negative electrode; a positive electrode spaced apart from the negative electrode by the separator, the positive electrode including a porous electrically conductive framework, the porous electrically conductive framework coated with a conformally coated protective layer; and an electrolyte within the porous electrically conductive framework. a negative electrode; a separator positioned adjacent to the negative electrode; a positive electrode spaced apart from the negative electrode by the separator, the positive electrode including a porous electrically conductive framework, the porous electrically conductive framework coated with a conformally coated protective layer; and an electrolyte within the porous electrically conductive framework.
Control circuit for controlling a bistable relay, wherein the bistable relay comprises a first switching state and a second switching state, wherein the control circuit is suppliable by a supply voltage, the control circuit comprising: a first switching element and a second switching element arranged in series with the first switching element; a circuit branch with an energy store, wherein the circuit branch is arranged parallel to the second switching element and wherein the bistable relay is arrangeable in the circuit branch; wherein the first switching element is configured to conduct a charging current of the energy store through the bistable relay when the supply voltage is applied to the control circuit in order to switch the bistable relay to the second switching state; and wherein the second switching element is configured to conduct a discharge current of the energy store through the bistable relay when the supply voltage is disconnected from the control circuit in order to switch the bistable relay to the first switching state; comprising a monitoring circuit, which is configured to detect a loss of the supply voltage and to switch the first switching element and the second switching element hereupon, characterized in that the monitoring circuit comprises a further energy store, which is configured to provide an energy for switching the first switching element and the second switching element. a first switching element and a second switching element arranged in series with the first switching element; a circuit branch with an energy store, wherein the circuit branch is arranged parallel to the second switching element and wherein the bistable relay is arrangeable in the circuit branch; wherein the first switching element is configured to conduct a charging current of the energy store through the bistable relay when the supply voltage is applied to the control circuit in order to switch the bistable relay to the second switching state; and wherein the second switching element is configured to conduct a discharge current of the energy store through the bistable relay when the supply voltage is disconnected from the control circuit in order to switch the bistable relay to the first switching state; comprising a monitoring circuit, which is configured to detect a loss of the supply voltage and to switch the first switching element and the second switching element hereupon, characterized in that the monitoring circuit comprises a further energy store, which is configured to provide an energy for switching the first switching element and the second switching element.
A chemical mechanical polishing composition comprising colloidal ceria, a glycoside of the formulae 1 to 6 wherein R 1 is alkyl, aryl, or alkylaryl, R 2 is H, X1, X2, X3, X4, X5, X6, alkyl, aryl, or alkylaryl, R 3 is H, X1, X2, X3, X4, X5, X6, alkyl, aryl, or alkylaryl, R 4 is H, X1, X2, X3, X4, X5, X6, alkyl, aryl, or alkylaryl, R 5 is H, X1, X2, X3, X4, X5, X6, alkyl, aryl, or alkylaryl, the total number of monosaccharide units (X1, X2, X3, X4, X5, or X6) in the glycoside is in the range of from 1 to 20, and X1 to X6 are the structural units as indicated in the rectangles in the corresponding formulae 1 to 6, and water. colloidal ceria, a glycoside of the formulae 1 to 6 wherein R 1 is alkyl, aryl, or alkylaryl, R 2 is H, X1, X2, X3, X4, X5, X6, alkyl, aryl, or alkylaryl, R 3 is H, X1, X2, X3, X4, X5, X6, alkyl, aryl, or alkylaryl, R 4 is H, X1, X2, X3, X4, X5, X6, alkyl, aryl, or alkylaryl, R 5 is H, X1, X2, X3, X4, X5, X6, alkyl, aryl, or alkylaryl, the total number of monosaccharide units (X1, X2, X3, X4, X5, or X6) in the glycoside is in the range of from 1 to 20, and X1 to X6 are the structural units as indicated in the rectangles in the corresponding formulae 1 to 6, and wherein R 1 is alkyl, aryl, or alkylaryl, R 2 is H, X1, X2, X3, X4, X5, X6, alkyl, aryl, or alkylaryl, R 3 is H, X1, X2, X3, X4, X5, X6, alkyl, aryl, or alkylaryl, R 4 is H, X1, X2, X3, X4, X5, X6, alkyl, aryl, or alkylaryl, R 5 is H, X1, X2, X3, X4, X5, X6, alkyl, aryl, or alkylaryl, the total number of monosaccharide units (X1, X2, X3, X4, X5, or X6) in the glycoside is in the range of from 1 to 20, and X1 to X6 are the structural units as indicated in the rectangles in the corresponding formulae 1 to 6, water.
A method performed by a network data analytics function, NWDAF, entity for a network configuration in a wireless communication system, the method comprising: receiving, from a network function, NF, an analytics information request including an analytics identity, ID, set to NF load information and analytics filter information; setting the analytics filter information to specific tracking areas, TAs, or access and mobility management function, AMF, regions; collecting from a user equipment, UE, input data including at least one of route, speed, orientation, or destination of the UE; processing the collected UE input data; and transmitting, to the NF, an analytics information response including predicted pattern of load changes based on the processed UE input data. receiving, from a network function, NF, an analytics information request including an analytics identity, ID, set to NF load information and analytics filter information; setting the analytics filter information to specific tracking areas, TAs, or access and mobility management function, AMF, regions; collecting from a user equipment, UE, input data including at least one of route, speed, orientation, or destination of the UE; processing the collected UE input data; and transmitting, to the NF, an analytics information response including predicted pattern of load changes based on the processed UE input data.
A combustor for a gas turbine engine, comprising: an inner liner; an outer liner circumscribing the inner liner and forming a combustion chamber with the inner liner; a fuel igniter comprising a tip portion configured to ignite an air and fuel mixture in the combustion chamber; and an igniter tube positioning the fuel igniter relative to the combustion chamber, the igniter tube comprising: a supporting ring; a grommet coupled to the supporting ring and configured to receive the fuel igniter; a plurality of channels configured to channel through cooling air perpendicularly to a longitudinal axis of the fuel igniter, so that it directly impinges onto the tip portion of the fuel igniter; the igniter tube being characterized in that, it comprises also an annular igniter boss mounted to the outer liner, the igniter boss including a projection that extends outwardly from the combustion chamber to define an opening, and the supporting ring comprises a first portion received within the opening of the projection of the igniter boss, a second portion extending perpendicularly and radially outwardly from the first portion, a third portion extending perpendicularly from the second portion, and a fourth portion extending radially inward from the third portion and generally parallel to the second portion, and wherein the projection of the igniter boss defines a first plurality of holes that extend generally perpendicularly through the projection, and the first portion of the supporting ring defines a second plurality of holes that are aligned in fluid communication with the first plurality of holes to form the plurality of channels, and wherein the second plurality of holes in the first portion of the supporting ring and the first plurality of holes in the igniter boss are not the same size.