mhurhangee/ep-ind-claims huggingface dataset:
A hydrostatic seal and vibration damping assembly for a gas turbine engine, comprising: a hydrostatic seal having a shoe; and a vibration damping apparatus operatively associated with the shoe, the vibration damping apparatus having a different coefficient of thermal expansion than the hydrostatic shoe, wherein the hydrostatic seal further comprises a spacer plate and a front plate which cooperate with the shoe to define a channel, and wherein the vibration damping apparatus is positioned within the channel and the vibration damping apparatus engages the shoe and limits vibrations of the shoe during a cold start-up of the gas turbine engine, and wherein the vibration damping apparatus disengages from the shoe after the gas turbine engine reaches an operational temperature. a hydrostatic seal having a shoe; and a vibration damping apparatus operatively associated with the shoe, the vibration damping apparatus having a different coefficient of thermal expansion than the hydrostatic shoe, wherein the hydrostatic seal further comprises a spacer plate and a front plate which cooperate with the shoe to define a channel, and wherein the vibration damping apparatus is positioned within the channel and the vibration damping apparatus engages the shoe and limits vibrations of the shoe during a cold start-up of the gas turbine engine, and wherein the vibration damping apparatus disengages from the shoe after the gas turbine engine reaches an operational temperature.
An assembly comprising: a dielectric insulator; and a gasket for sealing a manifold to a fuel cell stack, said gasket having first and second opposing outer surfaces, and a layer of material promotive of slipping disposed on at least a portion of said first and second outer surface of said gasket, said layer of material having a lower friction factor than said gasket, wherein said gasket is adapted to be disposed between the face of the fuel cell stack and a dielectric insulator, said dielectric insulator being disposed between the manifold and stack face, characterized by said gasket having a first section adapted to be disposed adjacent a cell area of the fuel cell stack, said first section adhering to the fuel cell stack in the cell area, and a second section adapted to be disposed adjacent an end plate of the fuel cell stack, said second section staying fixed to the dielectric insulator, and the layer of material promotive of slipping is disposed on at least a portion of said first outer surface of the first section of said gasket and on at least a portion of said second outer surface of the second section of said gasket wherein the first section is permitted to move relative to the dielectric insulator in a direction parallel to the length of the first section and parallel to the height of the fuel cell stack, and wherein the second section is captivated by the dielectric insulator and slips as the end plate moves in a direction perpendicular to the to the length of the second section and parallel to the height of the fuel cell stack. a dielectric insulator; and a gasket for sealing a manifold to a fuel cell stack, said gasket having first and second opposing outer surfaces, and a layer of material promotive of slipping disposed on at least a portion of said first and second outer surface of said gasket, said layer of material having a lower friction factor than said gasket, wherein said gasket is adapted to be disposed between the face of the fuel cell stack and a dielectric insulator, said dielectric insulator being disposed between the manifold and stack face, characterized by said gasket having a first section adapted to be disposed adjacent a cell area of the fuel cell stack, said first section adhering to the fuel cell stack in the cell area, and a second section adapted to be disposed adjacent an end plate of the fuel cell stack, said second section staying fixed to the dielectric insulator, and the layer of material promotive of slipping is disposed on at least a portion of said first outer surface of the first section of said gasket and on at least a portion of said second outer surface of the second section of said gasket wherein the first section is permitted to move relative to the dielectric insulator in a direction parallel to the length of the first section and parallel to the height of the fuel cell stack, and wherein the second section is captivated by the dielectric insulator and slips as the end plate moves in a direction perpendicular to the to the length of the second section and parallel to the height of the fuel cell stack.
Method for influencing a suction or pressure flow generated by a fan (1; 17) in an arrangement comprising a flow channel in which a mass flow loaded with foreign substances is moved, at least one fan (1; 17) which is connected to the flow channel and moves the loaded mass flow, an electric drive (2; 18), a control system (3; 19), wherein a sensor is arranged in the flow channel and is connected to the control (3; 19) via a line, the measured values of the sensor are transmitted to the control (3; 19), and/or the torque of the electric drive (2; 18) and/or the torque of the fan (1; 17) and/or the energy requirement of the electric drive (2; 18) are determined and the measured values are transferred to the controller (3; 19), the controller (3; 19) determines from the measured values the operating characteristic values required for the operation of the fan (1; 17) and provides the electric drive (2; 18) with the amount of energy which is required to maintain the operating characteristic values of the fan (1; 17), characterised in that the amount of energy made available to the fan by the control system is generated by a generator, that the generator is driven by an internal combustion engine, and that an energy storage device is associated with the arrangement, and the energy storage device is connected to the control system and is controlled by the latter, wherein electrical energy generated by the generator is temporarily stored in phases of increased resistance in the flow channel. a flow channel in which a mass flow loaded with foreign substances is moved, at least one fan (1; 17) which is connected to the flow channel and moves the loaded mass flow, an electric drive (2; 18), a control system (3; 19), wherein a sensor is arranged in the flow channel and is connected to the control (3; 19) via a line, the measured values of the sensor are transmitted to the control (3; 19), and/or the torque of the electric drive (2; 18) and/or the torque of the fan (1; 17) and/or the energy requirement of the electric drive (2; 18) are determined and the measured values are transferred to the controller (3; 19), the controller (3; 19) determines from the measured values the operating characteristic values required for the operation of the fan (1; 17) and provides the electric drive (2; 18) with the amount of energy which is required to maintain the operating characteristic values of the fan (1; 17), characterised in that the amount of energy made available to the fan by the control system is generated by a generator, that the generator is driven by an internal combustion engine, and that an energy storage device is associated with the arrangement, and the energy storage device is connected to the control system and is controlled by the latter, wherein electrical energy generated by the generator is temporarily stored in phases of increased resistance in the flow channel.
An air flow control system (20, 120, 220, 320, 420) for a respirator (10, 410) which has a shell (12, 25) that defines a breathable air zone for a user wearing the respirator, the control system comprising: an air delivery conduit (27, 28, 128, 129, 228, 229, 328, 329, 427, 428) within the shell of the respirator and having an air flow inlet end (26, 126, 226, 326, 426) extending out of the shell of the respirator through an air inlet opening or port of the shell; the conduit being separable from the shell; a valve member (58, 158, 257, 358, 439) moveable relative to the air delivery conduit and within the shell to vary the amount of air flow through the air delivery conduit; and a valve actuator (64, 164, 279, 379, 445) outside of the shell of the respirator that is manipulatable by a user of the respirator while wearing the respirator to control movement of the valve member. an air delivery conduit (27, 28, 128, 129, 228, 229, 328, 329, 427, 428) within the shell of the respirator and having an air flow inlet end (26, 126, 226, 326, 426) extending out of the shell of the respirator through an air inlet opening or port of the shell; the conduit being separable from the shell; a valve member (58, 158, 257, 358, 439) moveable relative to the air delivery conduit and within the shell to vary the amount of air flow through the air delivery conduit; and a valve actuator (64, 164, 279, 379, 445) outside of the shell of the respirator that is manipulatable by a user of the respirator while wearing the respirator to control movement of the valve member.
A WTRU, comprising: a processor configured to: receive a primary synchronization signal; determine a first ID associated with the primary synchronization signal; receive a secondary synchronization signal, SSS, wherein the SSS is associated with an SSS sequence, and the SSS is associated with a first sequence with a first cyclic shift and a second sequence with a second cyclic shift, where the first cyclic shift is a function of the first ID; and determine a second ID using at least the SSS sequence and the first ID. receive a primary synchronization signal; determine a first ID associated with the primary synchronization signal; receive a secondary synchronization signal, SSS, wherein the SSS is associated with an SSS sequence, and the SSS is associated with a first sequence with a first cyclic shift and a second sequence with a second cyclic shift, where the first cyclic shift is a function of the first ID; and determine a second ID using at least the SSS sequence and the first ID.
Method of draining a system for anchoring a structural cable (2a, 2b, 2c) to a construction element, the anchor system comprising a first chamber delimited by an envelope (4, 5, 6), the first chamber containing a first part (2aa, 2bb, 2cc) of the structural cable and a first filling material, the method comprising the following steps: - inserting at least one heating element (10a, 10b) into the first filling material via an opening (4a, 4b) in the envelope of the first chamber; - heating the first filling material using the heating element to fluidize at least some of the first filling material; and - extracting the fluidized first filling material via an opening (4a, 4b) in the envelope of the first chamber. - inserting at least one heating element (10a, 10b) into the first filling material via an opening (4a, 4b) in the envelope of the first chamber; - heating the first filling material using the heating element to fluidize at least some of the first filling material; and - extracting the fluidized first filling material via an opening (4a, 4b) in the envelope of the first chamber.
A composition comprising a compound preparable by reaction of components comprising a polyethylenimine and at least one an amine-reactive hydrolyzable organosilane represented by the formula: R-Z-SiY 3 wherein: R represents an amine-reactive group containing 1 to 18 carbon atoms, wherein R is selected from the group consisting of an isocyanato group, an acryloxy group, a carboethoxy group, a carbomethoxy group, a vinylsulfonyl group, and an acrylamido group; Z represents a divalent organic group containing 1 to 8 carbon atoms; and each Y independently represents a hydrolyzable group; and wherein the composition further comprises a polymeric binder material. R represents an amine-reactive group containing 1 to 18 carbon atoms, wherein R is selected from the group consisting of an isocyanato group, an acryloxy group, a carboethoxy group, a carbomethoxy group, a vinylsulfonyl group, and an acrylamido group; Z represents a divalent organic group containing 1 to 8 carbon atoms; and each Y independently represents a hydrolyzable group; and
A wearable therapeutic device, comprising: a garment including an electrode (135, 140) and a pocket configured to house the electrode (135, 140), the pocket having a first lateral side proximate to a subject wearing the wearable therapeutic device and a second lateral side distal to the subject; a conductive thread included in the second lateral side of the pocket; and a control unit coupled to the conductive thread and configured to identify an electrical connection between a conductive surface of the electrode (135,140) and the conductive thread; and an alarm module configured to indicate positioning information of the electrode (135,140) in the pocket based on the electrical connection. a garment including an electrode (135, 140) and a pocket configured to house the electrode (135, 140), the pocket having a first lateral side proximate to a subject wearing the wearable therapeutic device and a second lateral side distal to the subject; a conductive thread included in the second lateral side of the pocket; and a control unit coupled to the conductive thread and configured to identify an electrical connection between a conductive surface of the electrode (135,140) and the conductive thread; and an alarm module configured to indicate positioning information of the electrode (135,140) in the pocket based on the electrical connection.
An adjustable strap brassiere comprising: a) a front portion with a left cup and a right cup b) a wing band (70, 71) extending from the front portion horizontally and configured to extend around a torso of a user to a back of said user; said wing band (70, 71) comprising: i) a band rail (66, 66') extending along a top edge of the wing band (70, 71); wherein the center back location of the wing band (70, 71) is configured to be centrally located along the back of said user when the adjustable strap brassiere is worn by said user; c) a left strap extending from the left cup and configured to extend over a left shoulder of a user to a coupling end having a left band slider that is slidably engaged with the band rail of the wing band (70, 71); wherein the left band slider is slidable along the band rail to change a position of the coupling end of the left strap with respect to the wing band (70, 71) without changing a length of the left strap; d) a right strap extending from the right cup and configured to extend over a right shoulder of a user to a coupling end having a right band slider that is slidably engaged with the band rail of the wing band (70, 71); and wherein the right band slider can be slid along the band rail to change a position of the coupling end of the right strap with respect to the wing band (70, 71) without changing a length of the right strap, characterized in that the band rail (66, 66') extends at a decline from a center back location of the wing band (70, 71) towards a left side location and a right side location of the wing band (70, 71). a) a front portion with a left cup and a right cup b) a wing band (70, 71) extending from the front portion horizontally and configured to extend around a torso of a user to a back of said user; said wing band (70, 71) comprising: i) a band rail (66, 66') extending along a top edge of the wing band (70, 71); wherein the center back location of the wing band (70, 71) is configured to be centrally located along the back of said user when the adjustable strap brassiere is worn by said user; i) a band rail (66, 66') extending along a top edge of the wing band (70, 71); c) a left strap extending from the left cup and configured to extend over a left shoulder of a user to a coupling end having a left band slider that is slidably engaged with the band rail of the wing band (70, 71); wherein the left band slider is slidable along the band rail to change a position of the coupling end of the left strap with respect to the wing band (70, 71) without changing a length of the left strap; d) a right strap extending from the right cup and configured to extend over a right shoulder of a user to a coupling end having a right band slider that is slidably engaged with the band rail of the wing band (70, 71); and
An outdoor image irradiation apparatus comprising an image light emission device for emitting image light, a polarizer, and a wave plate, wherein the polarizer, and the wave plate are positioned in that order on a light path from the image light emission device, and the wave plate is formed from sapphire, characterized in that the wave plate has a main surface formed by an a-plane of the sapphire, the wave plate has a shape having a longer-axis direction and a shorter-axis direction, and the longer-axis direction of the main surface of the wave plate corresponds to a c-axis direction. wherein the polarizer, and the wave plate are positioned in that order on a light path from the image light emission device, and the wave plate is formed from sapphire, characterized in that the wave plate has a main surface formed by an a-plane of the sapphire, the wave plate has a shape having a longer-axis direction and a shorter-axis direction, and the longer-axis direction of the main surface of the wave plate corresponds to a c-axis direction.
An N 2 -phosphinyl amidine compound characterized by having the formula: wherein: R 1 is a C 1 to C 30 organyl group, R 2 is a C 1 to C 30 organyl group consisting essentially of inert functional groups, R 3 is hydrogen, and R 4 and R 5 are each independently a C 1 to C 30 organyl group consisting essentially of inert functional groups. R 1 is a C 1 to C 30 organyl group, R 2 is a C 1 to C 30 organyl group consisting essentially of inert functional groups, R 3 is hydrogen, and R 4 and R 5 are each independently a C 1 to C 30 organyl group consisting essentially of inert functional groups.
A nozzle for a liquid dispensing system for transferring liquid into a liquid reservoir of an electronic smoking device, the nozzle comprising: - a housing defining a liquid flow path through the nozzle; and - a plunger provided within the liquid flow path, the plunger being moveable between an open position in which liquid may flow through said liquid flow path and a closed position in which liquid flow through said liquid flow path is restricted wherein the plunger is biased towards said closed position; wherein the nozzle and plunger are configured so that when the nozzle is inserted into an engagement position within an opening providing access to a liquid reservoir of an electronic smoking device which contains an air tube for extracting vapour from the electronic smoking device, the plunger engages with said air tube and is moved from said closed position to said open position, the plunger in said engagement position being such as to divert liquid flowing via the flow path through said nozzle into the liquid reservoir and away from the air tube, characterized in that an air vent is provided enabling air to vent from a liquid reservoir when the nozzle is in an engagement position within an opening within an electronic smoking device. - a housing defining a liquid flow path through the nozzle; and - a plunger provided within the liquid flow path, the plunger being moveable
An inkjet recording method for printing an inkjet recording medium with inkjet ink as aqueous pigment ink, the inkjet recording medium comprising an ink-receiving layer containing inorganic pigment, starch and copolymer latex and not containing a multivalent salt at least on one surface of a base, from 10 g/m 2 or more to 35 g/m 2 or less of the inorganic pigment being contained in the ink-receiving layer in terms of a solid content, a content of calcium carbonate in the inorganic pigment being from 80 % by weight or more to 100 % or less by weight, a content of silica in the inorganic pigment being from 0 % by weight or more to 10 % by weight or less, the starch being contained at 1.0 parts by weight or more to less than 3.0 parts by weight, and the copolymer latex being contained at from 5.0 parts by weight or more to 7.0 parts by weight or less with respect to 100 parts by weight of the inorganic pigment, the inkjet ink containing one or more types of pigment selected from self dispersed pigment and pigment containing water-insoluble polymer particles, from 10 % by weight or more to 48 % by weight or less of a water-soluble organic solvent A having a boiling point of 230 °C or less, from 0 % by weight or more to 10.0 % by weight or less of a water-soluble organic solvent having a boiling point of above 230 °C, from 0 % by weight or more to 5.0 % by weight or less of a water-soluble organic solvent B having a boiling point of 280 °C or more, from 42 % by weight or more to 70 % by weight or less of water wherein the printing is performed by one-pass printing at a frequency of 20 kHz or more. the inkjet recording medium comprising an ink-receiving layer containing inorganic pigment, starch and copolymer latex and not containing a multivalent salt at least on one surface of a base, from 10 g/m 2 or more to 35 g/m 2 or less of the inorganic pigment being contained in the ink-receiving layer in terms of a solid content, a content of calcium carbonate in the inorganic pigment being from 80 % by weight or more to 100 % or less by weight, a content of silica in the inorganic pigment being from 0 % by weight or more to 10 % by weight or less, the starch being contained at 1.0 parts by weight or more to less than 3.0 parts by weight, and the copolymer latex being contained at from 5.0 parts by weight or more to 7.0 parts by weight or less with respect to 100 parts by weight of the inorganic pigment, the inkjet ink containing one or more types of pigment selected from self dispersed pigment and pigment containing water-insoluble polymer particles, from 10 % by weight or more to 48 % by weight or less of a water-soluble organic solvent A having a boiling point of 230 °C or less, from 0 % by weight or more to 10.0 % by weight or less of a water-soluble organic solvent having a boiling point of above 230 °C, from 0 % by weight or more to 5.0 % by weight or less of a water-soluble organic solvent B having a boiling point of 280 °C or more, from 42 % by weight or more to 70 % by weight or less of water wherein the printing is performed by one-pass printing at a frequency of 20 kHz or more.
A confectionery packaging for a confectionery, the confectionery packaging including a single confectionery product being ovoid in shape, the packaging comprising a first preformed part and a second preformed part, wherein the first and second parts are sealed together about the confectionery at flanges that extend away from main surfaces of each part, said main surfaces substantially conforming to the shape of the confectionery product, such that the main surfaces of each part are shaped so that the outside of the packaging, except for the flanges, substantially corresponds to the ovoid shape of the ovoid confectionery product, so that the packaging substantially maintains the outer ovoid profile of the ovoid confectionery product, and such that a formed internal space corresponds to the ovoid shape and size of the packaged ovoid confectionery product; said flanges of the first and second parts being brought together at a flange seal, and characterised in that the flange seal extends at an angle between a major and a minor axis of the ovoid confectionery product.