mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a woven fabric, said method comprising: (a) weaving fibers in a warp direction and a weft direction to form a fabric having a top surface and a bottom surface, wherein the warp fibers and weft fibers each comprises one or more filaments of a synthetic polymer having substantially uniform cross-sectional composition; wherein the method is characterised in that it further comprises (b) fusing together at least a portion of the filaments in the fibers on the top surface of the fabric or at least a portion of the filaments in the fibers on the bottom surface of the fabric, wherein said filaments are fused together in the presence of a heat transfer liquid or vapor added during the fusing step or added in a prior step of the fabric production process and retained by the filaments, and wherein the fusing step produces a treated fabric having a tensile strength in both the warp and weft directions of 1000 N or greater and having, in the absence of any coating, a static air permeability of 3 l/dm 2 /min or lower. (a) weaving fibers in a warp direction and a weft direction to form a fabric having a top surface and a bottom surface, wherein the warp fibers and weft fibers each comprises one or more filaments of a synthetic polymer having substantially uniform cross-sectional composition; wherein the method is characterised in that it further comprises (b) fusing together at least a portion of the filaments in the fibers on the top surface of the fabric or at least a portion of the filaments in the fibers on the bottom surface of the fabric, wherein said filaments are fused together in the presence of a heat transfer liquid or vapor added during the fusing step or added in a prior step of the fabric production process and retained by the filaments, and wherein the fusing step produces a treated fabric having a tensile strength in both the warp and weft directions of 1000 N or greater and having, in the absence of any coating, a static air permeability of 3 l/dm 2 /min or lower.
Process for unwinding from a reel a flexible textile or composite web or strip having a thickness of between 0.1 mm and 0.8 mm, a weight of between 15 g/m 2 and 50 g/m 2, and for conveying the web or strip over a length of more than 30 m with a tensile force on the web or strip of less than 10 N and at a speed of more than 600 m/min, and for winding the web or strip around a reel or around a plurality of reels of web or strip of smaller width characterized in that it consists of unwinding and rewinding the web or strip via a plurality of pairs of rollers (4, 5) motorized and driven in rotation at identical speeds, each pair of rollers (4, 5) being mounted in a loading module, the modules being spaced apart from each other by a distance of between 1. 5 m and 3 m, each pair of rollers (4, 5) successively drives a first face of the web or strip by means of a first roller driven in rotation in one direction, and a second opposite face of the web or strip by means of a second roller driven in rotation in an opposite direction, so as to have no slippage between the web or strip and the rollers (4, 5), the rollers (4, 5) of each pair of rolls are arranged so that the portion of the web or strip between the rollers (4, 5) forms an angle of between 50° and 80° with the plane passing through the axes of revolution of the rollers (4, 5), the rollers (4, 5) of each pair of rollers are arranged so that the length of the portion of the web or strip between the rollers (4, 5) is between 0. 2 to 2 times the diameter of the rollers (4, 5).
An electric motor comprising an electronics housing in which motor electronics are accommodated, a stator bush for accommodating a stator and which is arranged axially adjacent to the electronics housing, a cooling impeller which is arranged axially adjacent to the stator bush and which can be driven via a rotor formed as an external rotor and is connected in a rotationally fixed manner to the rotor, wherein the stator bush 3 is arranged axially between electronics housing 2 and rotor 5, wherein a fluidically connected axial through-channel is provided in the stator bush and in the electronics housing, through which channel a cooling air flow generated by the cooling impeller can be conveyed, characterized in that the cooling impeller has a blade geometry such that, in normal operation of the electric motor, the cooling air is drawn in radially from outside at a peripheral radial air inlet of the cooling impeller and is conveyed through the through-channel in axial direction and wherein the cooling impeller formed as a radial fan wheel is arranged axially between the stator bushing and the rotor, wherein the blade geometry of the cooling impeller has a forward curvature.
A medical balloon adapted for being inflated by an inflation fluid, the balloon having a radiopacity from a first end to a second end in the absence of the inflation fluid, wherein the radiopacity is at least partially provided by a foil or film layer, wherein the foil or film layer is sandwiched between an inner layer of the balloon and an outer layer of the balloon, the medical balloon further including an adhesive for securing the foil or film layer between the inner and outer layers.
A blading member for a fluid flow machine, the blading member comprising a platform member and at least one airfoil member, the platform member comprising a platform member receiver section, said platform member receiver section comprising a first face and a second face, and a platform member receiver opening being disposed in the receiver section, the receiver opening extending from the first face, the airfoil member extending from an airfoil base to an airfoil tip and comprising an airfoil member foot section and an airfoil member aerodynamic section, wherein the airfoil member foot section extends from the airfoil base to the airfoil member aerodynamic section and the airfoil member aerodynamic section extends from the airfoil member foot section to the airfoil tip, the airfoil member foot section comprising an airfoil member male mating section received within the platform member receiver opening and the airfoil member aerodynamic section projecting from the first face of the platform member receiver section, wherein at least one support shoulder is disposed on the airfoil foot section and a counterpart support shoulder is disposed on the platform member, wherein the support shoulder and the counterpart support shoulder abut each other, wherein at least one support shoulder and a corresponding counterpart support shoulder are beveled, wherein the bevel angles (a) of said support shoulder and said corresponding counterpart support shoulder are at least essentially identical at least at corresponding mating points to within ±5° or less. characterized by at least one interlock receiver recess (9, 22) provided on one of a platform member receiver section through opening inner wall and the airfoil member foot section, at least one wedge-shaped interlock member (15, 20, 26), said interlock member being received in the interlock receiver recess (9, 22) and comprising a section protruding from the interlock receiver recess (9, 22), an interlock counterpart seating surface provided on the other one of the platform member receiver section and the airfoil foot section, wherein the seating surface provided on the interlock member and the counterpart seating surface are arranged and configured to bear on each other; and wherein a retainer member (18, 21, 23) is interlocked with the platform member and mates with the interlock member (15, 20, 26) thereby retaining the interlock member (15, 20, 26) in the interlock receiver recess (9, 22).
A wearable device used by being attached to a user's skin, the wearable device comprising: a main body unit including a housing and a substrate, the substrate being arranged inside the housing; an electrode unit including a sensing electrode connected to the main body unit; and a patch unit including one or more conductive members, the one or more conductive members being configured to electrically connect the electrode unit to the user's skin, wherein the electrode unit includes a shielding layer not to be electrically connected to the main body unit, the shielding layer being conductive with a floating potential, and wherein the shielding layer includes a first shielding region and a second shielding region, and when viewed from a top, the first shielding region being spaced apart from an edge of the main body unit by a certain distance, and characterised in that the main body unit is arranged inside the first shielding region. a main body unit including a housing and a substrate, the substrate being arranged inside the housing; an electrode unit including a sensing electrode connected to the main body unit; and a patch unit including one or more conductive members, the one or more conductive members being configured to electrically connect the electrode unit to the user's skin, wherein the electrode unit includes a shielding layer not to be electrically connected to the main body unit, the shielding layer being conductive with a floating potential, and wherein the shielding layer includes a first shielding region and a second shielding region, and when viewed from a top, the first shielding region being spaced apart from an edge of the main body unit by a certain distance, and characterised in that the main body unit is arranged inside the first shielding region.
A blown film comprising a layer formed from a composition comprising a first composition, wherein the first composition comprises at least one ethylene-based polymer and wherein the first composition comprises a MWCDI value greater than 0.9, and a melt index ratio (I10/I2) that meets the following equation: I10/I2 ≥ 7.0 - 1.2 x log; wherein the first composition has a melt index ratio I10/I2 less than, or equal to, 9.2; and wherein the blown film comprises at least 20 percent by weight of the first composition; wherein MWCDI is Molecular Weighted Comonomer Distribution Index and is measured as described in the description.
Packaging material in sheet form for articles to be transported, comprising a nonwoven-fabric layer made of synthetic fibres, fibres of which are composed of a thermoplastic, where the nonwoven-fabric layer has, on its front side, elongate depressions (3, 4) situated parallel to one another at intervals, where the elongate depressions (3, 4) have the shape of straight grooves, notches or channels, characterized in that the depressions (3, 4) have been produced by pressing with introduction of heat.
A method for producing a casted aluminum alloy obtained by casting a molten metal of an aluminum alloy, characterized by comprising: a melting step of preparing an aluminum alloy consisting of 0.8 to 5 mass% of Fe as a first component element, 0.15 to 1 mass% of Ti as a second component element, one or more kinds of third component elements selected from a third component element group consisting of Zr, Nb, Hf, Sc, and Y at a content of 0.05 to 2 mass% of each of the third components and in an amount that satisfies Fe > X > Ti when the content of the first component element Fe is Fe (mass%), the content of the second component element Ti is Ti (mass%), and a total content of the third component elements is X (mass%); optionally 0.05 to 2 mass% of Mg as a fourth component element, optionally 0.05 to 1 mass% of at least one fifth component element selected from a fifth component element group consisting of Cu, Cr, and Co, and optionally V and/or Mo as a sixth component element in an amount of more than 0.05 mass% and less than 0.5 mass%, the residual part being Al and inevitable impurities, and melting the aluminum alloy at a temperature that is higher by 20°C or more than a liquidus temperature determined by the composition of the aluminum alloy to obtain a molten metal; and a casting step of casting the molten metal into a casting mold and then cooling the molten metal to a temperature that is lower by at least 10°C than a solidus temperature determined by the composition of the aluminum alloy at a cooling rate of 150°C/sec. or more and less than 10000°C/sec. a melting step of preparing an aluminum alloy consisting of 0.8 to 5 mass% of Fe as a first component element, 0.15 to 1 mass% of Ti as a second component element, one or more kinds of third component elements selected from a third component element group consisting of Zr, Nb, Hf, Sc, and Y at a content of 0.05 to 2 mass% of each of the third components and in an amount that satisfies Fe > X > Ti when the content of the first component element Fe is Fe (mass%), the content of the second component element Ti is Ti (mass%), and a total content of the third component elements is X (mass%); optionally 0.05 to 2 mass% of Mg as a fourth component element, optionally 0.05 to 1 mass% of at least one fifth component element selected from a fifth component element group consisting of Cu, Cr, and Co, and optionally V and/or Mo as a sixth component element in an amount of more than 0.05 mass% and less than 0.5 mass%, the residual part being Al and inevitable impurities, and melting the aluminum alloy at a temperature that is higher by 20°C or more than a liquidus temperature determined by the composition of the aluminum alloy to obtain a molten metal; and a casting step of casting the molten metal into a casting mold and then cooling the molten metal to a temperature that is lower by at least 10°C than a solidus temperature determined by the composition of the aluminum alloy at a cooling rate of 150°C/sec. or more and less than 10000°C/sec.
A radio frequency ablation catheter, comprising an electrode, wherein a heat exchange medium flow channel is defined inside the electrode; the electrode is provided with a dispersing device; at least one dispersing hole is provided on the dispersing device and communicated with the heat exchange medium flow channel; and a heat exchange medium output from the heat exchange medium flow channel is distributed by and flows out of the dispersing device; wherein a plurality of dispersing holes are provided for forming a uniform heat exchange medium protective layer on an outer periphery of the electrode; characterized in that the dispersing device and the electrode are separately formed, an outflow hole communicating with the heat exchange medium flow channel is defined on an outer wall of the electrode, the dispersing device is an infiltration cover mounted on the electrode surrounding the outflow hole, a gap is defined between an inner peripheral wall of the infiltration cover and the outer peripheral wall of the electrode, and the dispersing holes are defined on the infiltration cover, and wherein the heat exchange medium output from the outflow hole flows to the gap between the electrode and the infiltration cover, and then flows out from the dispersing holes, forming a water layer on an outer surface of the infiltration cover. wherein a plurality of dispersing holes are provided for forming a uniform heat exchange medium protective layer on an outer periphery of the electrode; characterized in that the dispersing device and the electrode are separately formed, an outflow hole communicating with the heat exchange medium flow channel is defined on an outer wall of the electrode, the dispersing device is an infiltration cover mounted on the electrode surrounding the outflow hole, a gap is defined between an inner peripheral wall of the infiltration cover and the outer peripheral wall of the electrode, and the dispersing holes are defined on the infiltration cover, and wherein the heat exchange medium output from the outflow hole flows to the gap between the electrode and the infiltration cover, and then flows out from the dispersing holes, forming a water layer on an outer surface of the infiltration cover.
A method for monitoring the coordinated execution of sequenced tasks (S1, S2, S3, S4) by an electronic card comprising at least one first processor and one second processor synchronized to one and the same clock of determined time period, the execution of the sequenced tasks (S1, S2, S3, S4) being distributed between the processors (PP1, PP2), in which method: - over a determined time period, the first processor executes a first sequenced task while the second processor executes a first accessory task; - over the consecutive time period, the second processor executes a second sequenced task subsequent to the first sequenced task; said method comprising - a step of recording in memory means by the first processor of a first identifier characterizing the time period in the course of which the first sequenced task has been executed, the recording step being carried out in the course of the determined time period after execution of the first sequenced task; characterised by: - a step of recording in the memory means by the second processor of a second identifier characterizing the time period in the course of which the first accessory task has been executed, the recording step being carried out in the course of the determined time period after execution of the first accessory task; - a step of comparison by the first processor of the first identifier and of the second identifier recorded in the memory means, the comparison step being carried out in the course of the consecutive time period; and - a step of signalling by the first processor in the case of failure of the comparison so as to signal a defect of coordination of the processors (PP1, PP2). - over a determined time period, the first processor executes a first sequenced task while the second processor executes a first accessory task; - over the consecutive time period, the second processor executes a second sequenced task subsequent to the first sequenced task; - a step of recording in memory means by the first processor of a first identifier characterizing the time period in the course of which the first sequenced task has been executed, the recording step being carried out in the course of the determined time period after execution of the first sequenced task; - a step of recording in the memory means by the second processor of a second identifier characterizing the time period in the course of which the first accessory task has been executed, the recording step being carried out in the course of the determined time period after execution of the first accessory task; - a step of comparison by the first processor of the first identifier and of the second identifier recorded in the memory means, the comparison step being carried out in the course of the consecutive time period; and - a step of signalling by the first processor in the case of failure of the comparison so as to signal a defect of coordination of the processors (PP1, PP2).
A process for the preparation of rilpivirine hydrochloride monohydrate, which comprises: a. suspending rilpivirine in an alcoholic solvent, a ketonic solvent or a mixture thereof; b. heating the contents obtained in step (a) at reflux to obtain a solution; c. adding carbon to the solution; d. removing the solvent from the solution; e. adding an alcoholic solvent to the residual solid obtained in step (d); f. passing the hydrochloride gas to the reaction mass; and g. isolating rilpivirine hydrochloride monohydrate. a. suspending rilpivirine in an alcoholic solvent, a ketonic solvent or a mixture thereof; b. heating the contents obtained in step (a) at reflux to obtain a solution; c. adding carbon to the solution; d. removing the solvent from the solution; e. adding an alcoholic solvent to the residual solid obtained in step (d); f. passing the hydrochloride gas to the reaction mass; and g. isolating rilpivirine hydrochloride monohydrate.
A terminal comprising: a transmission section configured to transmit channel state information periodically; and a control section configured to control transmission of the channel state information, wherein the control section is configured to control transmission, using a Physical Uplink Control Channel, PUCCH, format, of a plurality of channel state information, and of at least one amongst a scheduling request and transmission acknowledgement information, the PUCCH format being able to use a plurality of resource blocks and/or that has a smaller spreading factor than a spreading factor of PUCCH format 3, and characterised in that the control section is configured to select at least one of the plurality of channel state information based on a total amount of bits of the plurality of channel state information, and the transmission acknowledgment information and/or the scheduling request, and on a number of bits that is smaller than a maximum number of bits of the PUCCH format and is determined based on a ratio of the number of bits with respect to the maximum number of bits of the PUCCH format. a transmission section configured to transmit channel state information periodically; and a control section configured to control transmission of the channel state information, wherein the control section is configured to control transmission, using a Physical Uplink Control Channel, PUCCH, format, of a plurality of channel state information, and of at least one amongst a scheduling request and transmission acknowledgement information, the PUCCH format being able to use a plurality of resource blocks and/or that has a smaller spreading factor than a spreading factor of PUCCH format 3, and characterised in that the control section is configured to select at least one of the plurality of channel state information based on a total amount of bits of the plurality of channel state information, and the transmission acknowledgment information and/or the scheduling request, and on a number of bits that is smaller than a maximum number of bits of the PUCCH format and is determined based on a ratio of the number of bits with respect to the maximum number of bits of the PUCCH format. on a total amount of bits of the plurality of channel state information, and the transmission acknowledgment information and/or the scheduling request, and on a number of bits that is smaller than a maximum number of bits of the PUCCH format and is determined based on a ratio of the number of bits with respect to the maximum number of bits of the PUCCH format.
Device for covering a light well opening, with a metal frame (15, 21, 22) and a laminated safety glass insertable therein, wherein the metal frame (15, 21, 22) comprising an attachable frame mountable on a component, in particular a concrete ceiling, including the light well opening, and at least one as a profile frame trained support (21, 22) for the laminated safety glass, characterized in that the laminated safety glass is formed as a stepped insulation glass with an outer and an inner insulating glass plate (16, 17), wherein the outer insulating glass plate is bigger than the inner insulating glass plate, and that one respective support (21, 22) is provided for the outer as well for the inner insulating glass plate, wherein the supports (21, 22) are mountable on the frame via a number of across their circumferences distributed holders, wherein the holders are supplied with means for the adjustment of the respective support (21, 22) in respect to the frame and with means for the thermal separation of those either parts.
A radio base station comprising a communication control unit configured to control communication with a mobile station via a session, wherein the communication control unit is configured such that when a change in a static part in a header of a received packet is detected, even if adding a new session to transmit the packet makes the number of sessions established in a bearer exceed a capability of the radio base station or the mobile station, the communication control unit deletes an established session, adds the new session and transmits the packet via the new session.