mhurhangee/ep-ind-claims huggingface dataset:
A method for accessing service/data of a first network from a second network for service/data access via the second network, the method comprising the steps of: a) Pairing of a user device with the first network, b) Attaching the paired user device to the second network, characterized in that: upon successful authentication of the user device with the second network: c) Providing connectivity information for services/data of the first network by a first gateway in the first network to the second network, d) Providing available services/data information (SD1, SD2) by the first gateway to a receiving terminal via a second gateway in the second network, and, e) Accessing a service and/or data (SD1, SD2) from the available services/data information (SD1, SD2) of the first network, by the second gateway and outputting, by the receiving terminal, the accessed service and/or data (SD1, SD2). a) Pairing of a user device with the first network, b) Attaching the paired user device to the second network, characterized in that: upon successful authentication of the user device with the second network: c) Providing connectivity information for services/data of the first network by a first gateway in the first network to the second network, d) Providing available services/data information (SD1, SD2) by the first gateway to a receiving terminal via a second gateway in the second network, and, e) Accessing a service and/or data (SD1, SD2) from the available services/data information (SD1, SD2) of the first network, by the second gateway and outputting, by the receiving terminal, the accessed service and/or data (SD1, SD2).
Stator for a multipolar brushless internal rotor motor, with a stator yoke composed of stator plates, including a hollow yoke body with multiple stator teeth protruding radially inwards with regard to an axis of the stator, said teeth defining between them stator grooves and having a stator coil wound around each of them, wherein an insulation paper is placed between the stator coils and the stator grooves in order to provide an electric insulation between the stator yoke and the stator coils, and both axial ends (8, 9) of the stator yoke are each covered with a plastic cover (10, 11), wherein the stator teeth comprise lateral recesses at both axial ends (8, 9) of the stator yoke, whereby the width of the stator teeth measured in a peripheral direction is reduced, and wherein corresponding projections of the plastic cover (10, 11) engage into the recesses, wherein the stator plates are constituted as one-piece, annular stator plates including teeth that protrude radially inwards and are assembled into a stack of plates, wherein the plastic cover (10, 11) is also implemented in one piece, characterized in that the plastic covers (10, 11) and their respective projections are not overlaid with the insulation paper but rather connect axially with the insulation paper.
A line feedthrough for feeding lines through a recess of a wall comprising - a body that can be inserted and stored therein, which has a first and a second opening, wherein one or more lines can be fed through the body via the first and second opening, and wherein receiving means for receiving a direction indicator are provided at least at one of the first and/or second openings, wherein positioning means are provided, which limit a movement of the line feedthrough stored in the mounted state in the recess in the feedthrough direction, and - a direction indicator with a base part and a rotatable or pivotable part, which deflects lines fed through the body in a specified direction, wherein the base part has fastening means for fastening on or in the receiving means, which firmly connect the direction indicator to the body at least in one direction, which corresponds to the feedthrough axis of the line feedthrough through the recess, wherein the rotatable or pivotable part of the direction indicator is rotatable or pivotable between a first and a second position, wherein the direction indicator does not protrude at least in the first position transversely to the feedthrough axis at any point beyond the dimensions of the part of the body that can be inserted and stored in the recess, so that it can be inserted into the recess lying in front of the body in the insertion direction and can be fed through the wall, until the positioning means limit a further movement in the feedthrough direction, and wherein the rotatable or pivotable part or the base part of the direction indicator have means for fixing the rotatable or pivotable part in the second position. - a body that can be inserted and stored therein, which has a first and a second opening, wherein one or more lines can be fed through the body via the first and second opening, and wherein receiving means for receiving a direction indicator are provided at least at one of the first and/or second openings, wherein positioning means are provided, which limit a movement of the line feedthrough stored in the mounted state in the recess in the feedthrough direction, and - a direction indicator with a base part and a rotatable or pivotable part, which deflects lines fed through the body in a specified direction, wherein the base part has fastening means for fastening on or in the receiving means, which firmly connect the direction indicator to the body at least in one direction, which corresponds to the feedthrough axis of the line feedthrough through the recess,
A medical device delivery system comprising: a medical device containment sheath for containing a medical device; a medical device carrier portion comprising a proximal end; a release mechanism cooperating with said medical device carrier portion and operable to release a medical device from said medical device carrier portion; and a proximal tip portion comprising a largest outside diameter, a proximal end, a distal end, and a plurality of longitudinal lengths as measured from said proximal end to said distal end of said proximal tip portion, said proximal tip portion is disposed proximal to said medical device carrier portion, said proximal tip portion further comprises and is operable between at least an extended longitudinal length and a retracted longitudinal length of said plurality of longitudinal lengths, wherein said extended longitudinal length is greater than said retracted longitudinal length, wherein an actuator is arranged to transition the proximal tip portion between at least the extended longitudinal length and the retracted longitudinal length, wherein when said proximal tip portion is operated from said extended longitudinal length toward said retracted longitudinal length, the proximal end of the proximal tip portion is retracted into the distal end of the proximal tip portion, and wherein the largest outside diameter of the proximal tip portion is equal to or less than the inside diameter of the medical device containment sheath. a medical device containment sheath for containing a medical device; a medical device carrier portion comprising a proximal end; a release mechanism cooperating with said medical device carrier portion and operable to release a medical device from said medical device carrier portion; and a proximal tip portion comprising a largest outside diameter, a proximal end, a distal end, and a plurality of longitudinal lengths as measured from said proximal end to said distal end of said proximal tip portion, said proximal tip portion is disposed proximal to said medical device carrier portion, said proximal tip portion further comprises and is operable between at least an extended longitudinal length and a retracted longitudinal length of said plurality of longitudinal lengths, wherein said extended longitudinal length is greater than said retracted longitudinal length, wherein an actuator is arranged to transition the proximal tip portion between at least the extended longitudinal length and the retracted longitudinal length, wherein when said proximal tip portion is operated from said extended longitudinal length toward said retracted longitudinal length, the proximal end of the proximal tip portion is retracted into the distal end of the proximal tip portion, and wherein the largest outside diameter of the proximal tip portion is equal to or less than the inside diameter of the medical device containment sheath.
A compound of Formula: any of its stereoisomers or any mixture of its stereoisomers, or an N-oxide thereof, or a pharmaceutically acceptable salt thereof, wherein; Ar is phenyl; R 1 is selected from the group consisting of F and Cl; R 2 is selected from the group consisting of F and Cl; R 3 is selected from the group consisting of Me, Et, n -Pr, i -Pr, n -Bu, i -Bu, s-Bu, t -Bu, cyclopropylmethyl, CFH 2 CH 2 CH 2 -, CF 2 HCH 2 CH 2 -, CF 3 CH 2 CH 2 -, allyl and CH 3 OCH 2 CH 2 -; and X is selected from the group consisting of F or OH Ar is phenyl; R 1 is selected from the group consisting of F and Cl; R 2 is selected from the group consisting of F and Cl; R 3 is selected from the group consisting of Me, Et, n -Pr, i -Pr, n -Bu, i -Bu, s-Bu, t -Bu, cyclopropylmethyl, CFH 2 CH 2 CH 2 -, CF 2 HCH 2 CH 2 -, CF 3 CH 2 CH 2 -, allyl and CH 3 OCH 2 CH 2 -; and X is selected from the group consisting of F or OH
A method of manufacturing a ceramic porous membrane in which the ceramic porous membrane is formed on inner wall surfaces of through holes of a cylindrical or lotus root-like porous base member, the method comprising: installing the porous base member so that the through holes of the base member are arranged in a vertical direction; supplying, to the inner wall surface of the porous base member, a ceramic sol liquid having a temperature difference of 50°C or less between the ceramic sol liquid and the porous base member; stopping the liquid supply at a stage where the ceramic sol liquid is spread all over the inner wall surface of the porous base member to discharge the ceramic sol liquid from the downside of the porous base member; and after the discharge of the ceramic sol liquid from the downside of the porous base member is completed, creating a pressure difference so that a pressure on the side of an outer peripheral surface of the porous base member is lower than that on the side of the inner wall surface of the porous base member. installing the porous base member so that the through holes of the base member are arranged in a vertical direction; supplying, to the inner wall surface of the porous base member, a ceramic sol liquid having a temperature difference of 50°C or less between the ceramic sol liquid and the porous base member; stopping the liquid supply at a stage where the ceramic sol liquid is spread all over the inner wall surface of the porous base member to discharge the ceramic sol liquid from the downside of the porous base member; and after the discharge of the ceramic sol liquid from the downside of the porous base member is completed, creating a pressure difference so that a pressure on the side of an outer peripheral surface of the porous base member is lower than that on the side of the inner wall surface of the porous base member.
An ultra-high load, aqueous glyphosate salt-containing concentrate comprising: a. water; b. glyphosate salt in solution in the water in an amount greater than 39 weight percent of acid equivalent, based on the weight of the concentrate, said glyphosate salt being selected from the group consisting of the isopropylamine salt of glyphosate, the potassium salt of glyphosate, mixtures of the isopropylamine salt and the potassium salt of glyphosate and mixtures of the potassium salt and the ammonium salt of glyphosate; c. a surfactant system in an amount ranging from 1 to 20 weight percent, based on the weight of the concentrate, comprising: i. from 10 to 60 weight percent, based on the weight of the surfactant system, of one or more dialkoxylated alkylamines; ii. from 5 to 30 weight percent, based on the weight of the surfactant system, of one or more water miscible solubilizers; and iii. from 30 to 75 weight percent, based on the weight of the surfactant system, of one or more amine oxides; said concentrate having a cloud point above at least 70°C. or no cloud point when the concentrate is heated to its boiling point. a. water; b. glyphosate salt in solution in the water in an amount greater than 39 weight percent of acid equivalent, based on the weight of the concentrate, said glyphosate salt being selected from the group consisting of the isopropylamine salt of glyphosate, the potassium salt of glyphosate, mixtures of the isopropylamine salt and the potassium salt of glyphosate and mixtures of the potassium salt and the ammonium salt of glyphosate; c. a surfactant system in an amount ranging from 1 to 20 weight percent, based on the weight of the concentrate, comprising: i. from 10 to 60 weight percent, based on the weight of the surfactant system, of one or more dialkoxylated alkylamines; ii. from 5 to 30 weight percent, based on the weight of the surfactant system, of one or more water miscible solubilizers; and iii. from 30 to 75 weight percent, based on the weight of the surfactant system, of one or more amine oxides; i. from 10 to 60 weight percent, based on the weight of the surfactant system, of one or more dialkoxylated alkylamines; ii. from 5 to 30 weight percent, based on the weight of the surfactant system, of one or more water miscible solubilizers; and iii. from 30 to 75 weight percent, based on the weight of the surfactant system, of one or more amine oxides;
An injection molding apparatus including: a melt holder for pressurizing molten plastic prior to injection into a mold having a plurality of mold cavities; an injection element for applying a force to the molten plastic to advance the molten plastic from the melt holder through a nozzle and into the mold; a sensor in communication with the melt holder for sensing a pressure of the molten plastic in the nozzle; and wherein the apparatus further comprises: a controller in communication with the sensor and the injection element, wherein the controller is configured to control the injection element to maintain a substantially constant melt pressure entering the at least one mold cavity of less than 41.37 MPa (6000 psi) in the nozzle, wherein the substantially constant pressure fluctuates by less than 30% during filling, characterized in that the mold has an average thermal conductivity of more than 51.9 Watts per meter degree Celsius (30 BTU/HR FT °F) and the mold has at least one of a milling machining index of greater than 100%, a drilling machining index of greater than 100%, and a wire EDM machining index of greater than 100%, and the at least one mold cavity in the plurality of mold cavities is a thin-walled mold cavity having an L/T > 100. a melt holder for pressurizing molten plastic prior to injection into a mold having a plurality of mold cavities; an injection element for applying a force to the molten plastic to advance the molten plastic from the melt holder through a nozzle and into the mold; a sensor in communication with the melt holder for sensing a pressure of the molten plastic in the nozzle; and wherein the apparatus further comprises: a controller in communication with the sensor and the injection element, wherein the controller is configured to control the injection element to maintain a substantially constant melt pressure entering the at least one mold cavity of less than 41.37 MPa (6000 psi) in the nozzle, wherein the substantially constant pressure fluctuates by less than 30% during filling, characterized in that the mold has an average thermal conductivity of more than 51.9 Watts per meter degree Celsius (30 BTU/HR FT °F) and the mold has at least one of a milling machining index of greater than 100%, a drilling machining index of greater than 100%, and a wire EDM machining index of greater than 100%, and a controller in communication with the sensor and the injection element, wherein the controller is configured to control the injection element to maintain a substantially constant melt pressure entering the at least one mold cavity of less than 41.37 MPa (6000 psi) in the nozzle, wherein the substantially constant pressure fluctuates by less than 30% during filling, characterized in that the mold has an average thermal conductivity of more than 51.9 Watts per meter degree Celsius (30 BTU/HR FT °F) and the mold has at least one of a milling machining index of greater than 100%, a drilling machining index of greater than 100%, and a wire EDM machining index of greater than 100%, and
An acoustic device comprising: an acoustic enclosure having walls defining an acoustic chamber, a first passive radiator diaphragm disposed in an opening of a first wall of the acoustic enclosure and configured to move parallel to a first axis that extends through a center of the first passive radiator diaphragm and orthogonal to the first wall in response to a pressure change in the acoustic chamber; a second passive radiator diaphragm disposed in an opening of a second wall of the acoustic enclosure and configured to move parallel to a second axis that extends through a center of the second passive radiator diaphragm and orthogonal to the second wall in response to a pressure change within the acoustic chamber; a first active driver assembly secured to the first passive radiator diaphragm; and a plurality of second active drivers assemblies each disposed in a respective opening in the second passive radiator diaphragm, each of the second active driver assemblies being laterally offset from the second axis, wherein a moving mass of the first passive radiator assembly is substantially equal to a moving mass of the second passive radiator assembly. an acoustic enclosure having walls defining an acoustic chamber, a first passive radiator diaphragm disposed in an opening of a first wall of the acoustic enclosure and configured to move parallel to a first axis that extends through a center of the first passive radiator diaphragm and orthogonal to the first wall in response to a pressure change in the acoustic chamber; a second passive radiator diaphragm disposed in an opening of a second wall of the acoustic enclosure and configured to move parallel to a second axis that extends through a center of the second passive radiator diaphragm and orthogonal to the second wall in response to a pressure change within the acoustic chamber; a first active driver assembly secured to the first passive radiator diaphragm; and a plurality of second active drivers assemblies each disposed in a respective opening in the second passive radiator diaphragm, each of the second active driver assemblies being laterally offset from the second axis, wherein a moving mass of the first passive radiator assembly is substantially equal to a moving mass of the second passive radiator assembly.
An apparatus for decoding an encoded texture block of a texture image, the decoding apparatus comprising: a partitioner adapted to determine a partitioning mask for the encoded texture block based on depth information associated to the encoded texture block, wherein the partitioning mask is adapted to define a plurality of partitions (P1, P2) and to associate a texture block element of the encoded texture block to a partition of the plurality of partitions of the encoded texture block; and a decoder adapted to decode the partitions of the plurality of partitions of the encoded texture block based on the partitioning mask; and wherein the partitioner is adapted to associate the texture block element of the texture block to one of the plurality of partitions based on a comparison of a depth information value associated to the texture block element with a threshold value; and wherein the partitioner is adapted to adaptively determine the threshold value by: calculating an average value of the depth information values for the area associated with the texture block to be decoded; and setting the threshold value to the calculated average value; or calculating a weighted average of the depth information values for the area associated with the texture block to be decoded, wherein weights used in calculating the weighted average depend on a distance from a centre of the texture block; and setting the threshold value to the weighted average value; or calculating a median value for the depth information values from the area associated with the texture block to be decoded; and setting the threshold value to the calculated median value. a partitioner adapted to determine a partitioning mask for the encoded texture block based on depth information associated to the encoded texture block, wherein the partitioning mask is adapted to define a plurality of partitions (P1, P2) and to associate a texture block element of the encoded texture block to a partition of the plurality of partitions of the encoded texture block; and a decoder adapted to decode the partitions of the plurality of partitions of the encoded texture block based on the partitioning mask; and wherein the partitioner is adapted to associate the texture block element of the texture block to one of the plurality of partitions based on a comparison of a depth information value associated to the texture block element with a threshold value; and wherein the partitioner is adapted to adaptively determine the threshold value by: calculating an average value of the depth information values for the area associated with the texture block to be decoded; and setting the threshold value to the calculated average value; or calculating a weighted average of the depth information values for the area associated with the texture block to be decoded, wherein weights used in calculating the weighted average depend on a distance from a centre of the texture block; and setting the threshold value to the weighted average value; or calculating a median value for the depth information values from the area associated with the texture block to be decoded; and setting the threshold value to the calculated median value.
A puncture and abrasion resistant, air and water impervious laminated fabric, comprising: (a) a woven fabric base layer having warp and weft yarns, at least the warp yarns being formed of ultra high molecular weight polyethylene and having a denier of between 300 and 1,200 (333 to 1333 decitex), the fabric base layer being puncture and abrasive resistant and having first and second sides; and (b) a thermoplastic film of ethylene vinyl acetate bonded directly to at least one side of the fabric base layer; characterized in that: (c) a polyethylene outer film, selected from low density polyethylene and high density polyethylene, is secured and bonded by heat and pressure to the other side of the thermoplastic film; (d) the thermoplastic film has a thickness of 50.8 to 203 μm (2 to 8 mils) and the polyethylene outer film has a thickness of 38.1 to 508μm (1.5 to 20 mils); and (e) the fabric base layer, the thermoplastic film and the polyethylene outer film form said puncture and abrasion resistant, air and water impervious laminated fabric. (a) a woven fabric base layer having warp and weft yarns, at least the warp yarns being formed of ultra high molecular weight polyethylene and having a denier of between 300 and 1,200 (333 to 1333 decitex), the fabric base layer being puncture and abrasive resistant and having first and second sides; and (b) a thermoplastic film of ethylene vinyl acetate bonded directly to at least one side of the fabric base layer; (c) a polyethylene outer film, selected from low density polyethylene and high density polyethylene, is secured and bonded by heat and pressure to the other side of the thermoplastic film; (d) the thermoplastic film has a thickness of 50.8 to 203 μm (2 to 8 mils) and the polyethylene outer film has a thickness of 38.1 to 508μm (1.5 to 20 mils); and (e) the fabric base layer, the thermoplastic film and the polyethylene outer film form said puncture and abrasion resistant, air and water impervious laminated fabric.