mhurhangee/ep-ind-claims huggingface dataset:
Non-reactive hot melt adhesive containing a copolymer being substantially composed of a reaction product of lactide and caprolactone in a molar ratio (L/C) of at least 1.5, characterized in that the adhesive further comprises a carbodiimide compound, wherein the amount of carbodiimide ranges between 0.05 and 2.5 % by weight, as determined on the amounts of carbodiimide and the copolymer.
Reconfigurable antenna, comprising: - an emissive region, comprising at least one radiating source designed to emit electromagnetic waves; - an electromagnetic lens, comprising: a set of phase-shifting cells, comprising switches configured so as to introduce a phase shift to the electromagnetic waves, bias lines, designed to bias the switches; - an electromagnetic coupling region, arranged between the emissive region and the electromagnetic lens in order to generate electromagnetic coupling between the electromagnetic waves and the set of phase-shifting cells; the electromagnetic coupling region comprises a set of electrically conductive elements, arranged so to form a profile of a resonant cavity guiding the electromagnetic waves towards the electromagnetic lens, the set of electrically conductive elements comprising first tracks electrically connected to the bias lines. - an emissive region, comprising at least one radiating source designed to emit electromagnetic waves; - an electromagnetic lens, comprising: a set of phase-shifting cells, comprising switches configured so as to introduce a phase shift to the electromagnetic waves, bias lines, designed to bias the switches; a set of phase-shifting cells, comprising switches configured so as to introduce a phase shift to the electromagnetic waves, bias lines, designed to bias the switches; - an electromagnetic coupling region, arranged between the emissive region and the electromagnetic lens in order to generate electromagnetic coupling between the electromagnetic waves and the set of phase-shifting cells;
A method comprising: analyzing (505; 605) an amount of data communicated by a set of two or more network interfaces operating on a line card, wherein the data communicated by the set of two or more network interfaces is processed by a set of functional units, and wherein the data communicated by the set of network interfaces is arranged in a set of queues (420A-420D), wherein the set of functional units include at least a forwarding engine a data processing engine; configuring, based on analyzing the amount of data arranged in the set of queues, a data interconnect coupled to the set of two or more network interfaces and the set of functional units, wherein the data interconnect comprises a plurality of input ports coupled to the set of network interfaces, a plurality of output ports coupled to the set of functional units, and a plurality of connections between the input ports and the output ports, and wherein the data interconnect enables and disables one or more communication lines to forward the data communicated by the two or more network interfaces to functional units that are active on the line card; and causing (530; 650) the data communicated by the set of two or more network interfaces to be forwarded to one or more of the set of functional units via the data interconnect. analyzing (505; 605) an amount of data communicated by a set of two or more network interfaces operating on a line card, wherein the data communicated by the set of two or more network interfaces is processed by a set of functional units, and wherein the data communicated by the set of network interfaces is arranged in a set of queues (420A-420D), wherein the set of functional units include at least a forwarding engine a data processing engine; configuring, based on analyzing the amount of data arranged in the set of queues, a data interconnect coupled to the set of two or more network interfaces and the set of functional units, wherein the data interconnect comprises a plurality of input ports coupled to the set of network interfaces, a plurality of output ports coupled to the set of functional units, and a plurality of connections between the input ports and the output ports, and wherein the data interconnect enables and disables one or more communication lines to forward the data communicated by the two or more network interfaces to functional units that are active on the line card; and causing (530; 650) the data communicated by the set of two or more network interfaces to be forwarded to one or more of the set of functional units via the data interconnect.
A resin composition for direct plating, which is a thermoplastic resin composition containing a rubber-reinforced vinyl-based resin, being characterized in that said rubber-reinforced vinyl-based resin comprises a diene-based rubbery polymer and an ethylene·α-olefin-based rubbery polymer, that the total amount of said diene-based rubbery polymer and said ethylene·α-olefin-based rubbery polymer, is in a range from 3 to 30 % by mass based on said thermoplastic resin composition, and that the ratio of the amount of said ethylene·α-olefin-based rubbery polymer to said total amount of + is in a range from 0.01 to 0.25, wherein said rubber-reinforced vinyl-based resin comprises a mixture or; mixture; a mixture consisting of a rubber-reinforced vinyl-based resin obtained by polymerizing a vinyl-based monomer in the presence of said diene-based rubbery polymer and a rubber-reinforced vinyl-based resin obtained by polymerizing a vinyl-based monomer in the presence of said ethylene·α-olefin-based rubbery polymer, mixture; a mixture consisting of said rubber-reinforced vinyl-based resin, said rubber-reinforced vinyl-based resin and a (co)polymer of a vinyl-based monomer. mixture; a mixture consisting of a rubber-reinforced vinyl-based resin obtained by polymerizing a vinyl-based monomer in the presence of said diene-based rubbery polymer and a rubber-reinforced vinyl-based resin obtained by polymerizing a vinyl-based monomer in the presence of said ethylene·α-olefin-based rubbery polymer, mixture; a mixture consisting of said rubber-reinforced vinyl-based resin, said rubber-reinforced vinyl-based resin and a (co)polymer of a vinyl-based monomer.
Recessed lighting appliance, comprising a casing extending mainly along a longitudinal appliance axis and which is suitable to be embedded in a floor, wall or ceiling, and a lighting body suitable to be housed in said casing so as to be substantially aligned with the outer surface of said floor, wall or ceiling, wherein the appliance further comprises a positioning support suitable to be anchored to a support surface for the appliance and to couple to said casing so as to block the appliance in position in relation to said support surface, said appliance being characterized in that the positioning support is provided with adjustment feet suitable for adjusting the position of the support in relation to said support surface so that the appliance is perfectly parallel to the outer surface of the floor, wall or ceiling.
A touchscreen comprising: a front surface having a plurality of conductive islands positioned at a depth in close proximity to the front surface, and wherein the conductive islands are substantially electrically isolated from one another; a plurality of conductive traces (206, 207), each conductive trace (206, 207) being substantially capacitively coupled to at least two of the conductive islands; wherein a location of a fingertip in contact with the touchscreen is determined by measuring a mutual capacitance of at least two of the plurality of conductive traces (206, 207), wherein the presence of the fingertip in proximity to the one of the plurality of conductive islands increases a self-capacitance of the one of the plurality of conductive islands and by this mechanism decreases the mutual capacitance of two conductive traces (206, 206a, 207, 207a) in proximity of the conductive island; wherein an attractive electrostatic force is created on a fingertip when the fingertip touches the touchscreen that increases the contact force between fingertip and glass, and therefore, also increases the frictional force that a user must overcome to move his or her finger across the glass by charging at least one of the conductive islands that is close to the fingertip via the capacitive coupling of the at least one conductive island to at least one conductive trace that is in proximity to the at least one conductive island. a front surface having a plurality of conductive islands positioned at a depth in close proximity to the front surface, and wherein the conductive islands are substantially electrically isolated from one another; a plurality of conductive traces (206, 207), each conductive trace (206, 207) being substantially capacitively coupled to at least two of the conductive islands; wherein a location of a fingertip in contact with the touchscreen is determined by measuring a mutual capacitance of at least two of the plurality of conductive traces (206, 207), wherein the presence of the fingertip in proximity to the one of the plurality of conductive islands increases a self-capacitance of the one of the plurality of conductive islands and by this mechanism decreases the mutual capacitance of two conductive traces (206, 206a, 207, 207a) in proximity of the conductive island; wherein an attractive electrostatic force is created on a fingertip when the fingertip touches the touchscreen that increases the contact force between fingertip and glass, and therefore, also increases the frictional force that a user must overcome to move his or her finger across the glass by charging at least one of the conductive islands that is close to the fingertip via the capacitive coupling of the at least one conductive island to at least one conductive trace that is in proximity to the at least one conductive island.
Lamellar outlet valve for an outlet opening in a housing of a compression cylinder of a compressor, comprising a lamella for closing and opening the outlet opening, wherein the lamella is of elongate form, and a bridge for limiting a maximum deformation of the lamella in an open state of the outlet opening, characterized in that in the region of the ends of the lamella in a longitudinal direction, openings which are open towards the ends are provided, the bridge is composed of two bridge elements (2', 2"), and the bridge elements (2', 2") each comprise an engagement portion which faces towards the housing and is in engagement with the openings, and each comprise a support surface which faces towards the lamella and has a predetermined form for limiting the maximum deformation of the lamella in the open state of the outlet opening. a lamella for closing and opening the outlet opening, wherein the lamella is of elongate form, and a bridge for limiting a maximum deformation of the lamella in an open state of the outlet opening, characterized in that in the region of the ends of the lamella in a longitudinal direction, openings which are open towards the ends are provided, the bridge is composed of two bridge elements (2', 2"), and the bridge elements (2', 2") each comprise an engagement portion which faces towards the housing and is in engagement with the openings, and each comprise a support surface which faces towards the lamella and has a predetermined form for limiting the maximum deformation of the lamella in the open state of the outlet opening. each comprise an engagement portion which faces towards the housing and is in engagement with the openings, and each comprise a support surface which faces towards the lamella and has a predetermined form for limiting the maximum deformation of the lamella in the open state of the outlet opening.
An electrode catalyst in which catalytic metals are supported on a catalyst support, wherein the catalytic metals include platinum and a metal component other than platinum, the electrode catalyst has mesopores having a radius of 1 nm or more, with a mode radius of pore distribution of the mesopores being 1 nm or more and less than 2.5 nm, alloy microparticles of platinum and the metal component other than platinum are supported inside the mesopores, and a molar content ratio of platinum with respect to the metal component other than platinum in the alloy microparticles supported inside the mesopores is 2.5 to 5.4.
A connection joint for a conduit comprising: a tubular body having an open end configured for receipt of the conduit therein; and a membrane seal located within the tubular body, the membrane seal having a primary seal feature located proximate the open end and a secondary seal feature located away from the open end, and a plurality of radially inwardly extending ribs, wherein the membrane seal is configured to sealingly engage an exterior surface of the conduit, characterised in that the membrane seal is spaced apart from the open end of the tubular body such that the tubular body is configured to be crimped on opposing sides of the membrane seal to fixedly engage the tubular body to the conduit in metal-to-metal contact. a tubular body having an open end configured for receipt of the conduit therein; and a membrane seal located within the tubular body, the membrane seal having a primary seal feature located proximate the open end and a secondary seal feature located away from the open end, and a plurality of radially inwardly extending ribs, wherein the membrane seal is configured to sealingly engage an exterior surface of the conduit, characterised in that the membrane seal is spaced apart from the open end of the tubular body such that the tubular body is configured to be crimped on opposing sides of the membrane seal to fixedly engage the tubular body to the conduit in metal-to-metal contact.
Method for cooling a refrigerated system, said system comprising: a compressor, a first cavity and a second cavity capable of being cooled to a first reference temperature (TSET1) and to a second reference temperature (TSET2) respectively, said first reference temperature (TSET1) being lower than said second reference temperature (TSET2), a first evaporator located in said first cavity and a second evaporator located in said second cavity, a solenoid valve located in the refrigerant circuit capable of connecting in a first connection mode the compressor to the first evaporator and in a second multiple connection mode the compressor to the first evaporator and to the second evaporator, the refrigerated system also comprising an air-circulation fan located in said first cavity, the method comprising the subsequent steps of: - cooling the first cavity in the first connection mode during which the first fan is switched on; - cooling the first cavity and the second cavity in the second and subsequent connection mode, the fan being switched off during the second connection mode, characterized in that the method comprises also the steps of: - acquiring a first temperature in the first cavity in the first connection mode, during which the fan is switched on, - defining a first gradient of the trend of the first temperature in the first cavity during the first connection mode; - acquiring a first temperature of the first cavity in the second connection mode, - defining a second gradient of the trend of the first temperature in the first cavity during the second connection mode, where the step of switching off the fan during the second connection mode is performed when the second gradient is greater than the first gradient. - cooling the first cavity in the first connection mode during which the first fan is switched on; - cooling the first cavity and the second cavity in the second and subsequent connection mode, the fan being switched off during the second connection mode, characterized in that the method comprises also the steps of: - acquiring a first temperature in the first cavity in the first connection mode, during which the fan is switched on, - defining a first gradient of the trend of the first temperature in the first cavity during the first connection mode; - acquiring a first temperature of the first cavity in the second connection mode, - defining a second gradient of the trend of the first temperature in the first cavity during the second connection mode, where the step of switching off the fan during the second connection mode is performed when the second gradient is greater than the first gradient.
A method for producing a synthesis gas in an oxygen transport membrane based reforming system configured for use in a Fischer-Tropsch process, the method comprising the steps of: reforming a feed stream in a reforming reactor in the presence of steam, heat and a reforming catalyst disposed in the reforming reactor to produce a reformed synthesis gas stream comprising hydrogen, carbon monoxide, and unreformed hydrocarbon gas; further reforming the reformed synthesis gas stream in the presence of one or more catalysts contained in an oxygen transport membrane based reforming reactor, reaction products and heat to produce a synthesis gas product stream; wherein a portion of the heat required for the reforming of the feed stream is transferred via radiation from the oxygen transport membrane based reforming reactor which is disposed proximate the reforming reactor; and wherein the feed stream comprises a methane containing feed and a tail gas feed wherein the tail gas feed is produced in the Fischer-Tropsch process. reforming a feed stream in a reforming reactor in the presence of steam, heat and a reforming catalyst disposed in the reforming reactor to produce a reformed synthesis gas stream comprising hydrogen, carbon monoxide, and unreformed hydrocarbon gas; further reforming the reformed synthesis gas stream in the presence of one or more catalysts contained in an oxygen transport membrane based reforming reactor, reaction products and heat to produce a synthesis gas product stream; wherein a portion of the heat required for the reforming of the feed stream is transferred via radiation from the oxygen transport membrane based reforming reactor which is disposed proximate the reforming reactor; and wherein the feed stream comprises a methane containing feed and a tail gas feed wherein the tail gas feed is produced in the Fischer-Tropsch process.
A method of a first terminal (400, 900), the method comprising: transmitting, to a second terminal, a first message indicating removal of a first profile stored in the second terminal; receiving, from the second terminal, a second message including activation code information, wherein the activation code information includes delete notification information relating to the removal of the first profile; and transmitting, to a third terminal, a third message including the activation code information, wherein the activation code information is used to install, to the third terminal, a second profile corresponding to the first profile stored in the second terminal. transmitting, to a second terminal, a first message indicating removal of a first profile stored in the second terminal; receiving, from the second terminal, a second message including activation code information, wherein the activation code information includes delete notification information relating to the removal of the first profile; and transmitting, to a third terminal, a third message including the activation code information, wherein the activation code information is used to install, to the third terminal, a second profile corresponding to the first profile stored in the second terminal.
A gas sampling system comprising: a first housing (12, 54) including a sensor assembly, wherein the sensor assembly is configured to measure a gaseous molecular species in a gas mixture, and wherein the first housing is configured to removably engage an airway adapter configured for insertion into a breathing circuit in fluid communication with a subject; and a second housing including a pump, wherein the first housing and the second housing are further configured to removably couple with each other, and engage a sampling cell such that gas within the sampling cell is measured by the sensor assembly, and such that operation of the pump moves gas through the sampling cell, and characterized in that the first housing and the second housing are coupled through matching physical interface components (25a, 25b, 32a,32b) such that a processing component in the first housing is configured to control operation of the pump in the second housing. a first housing (12, 54) including a sensor assembly, wherein the sensor assembly is configured to measure a gaseous molecular species in a gas mixture, and wherein the first housing is configured to removably engage an airway adapter configured for insertion into a breathing circuit in fluid communication with a subject; and a second housing including a pump, wherein the first housing and the second housing are further configured to removably couple with each other, and engage a sampling cell such that gas within the sampling cell is measured by the sensor assembly, and such that operation of the pump moves gas through the sampling cell, and characterized in that the first housing and the second housing are coupled through matching physical interface components (25a, 25b, 32a,32b) such that a processing component in the first housing is configured to control operation of the pump in the second housing.
An optical system comprising, in order from an enlargement conjugate side to a reduction conjugate side: a front unit including three or more lenses; a diaphragm (ST1, ST2, ST3); and a rear unit including a plurality of lenses, wherein a projection characteristic y(θ) of the optical system that represents a relationship between an angle of view θ and an image height y satisfies the following inequality: 1.80 ≤ fsin θ max / y θ max ≤ 4.50 where θmax is a maximum half angle of view of the optical system, and f is a focal length of the optical system, characterized in that the front unit includes a first positive lens (L1, L21, L31) closest to an enlargement conjugate position, and a second positive lens (L4, L23, L34). a front unit including three or more lenses; a diaphragm (ST1, ST2, ST3); and a rear unit including a plurality of lenses, wherein a projection characteristic y(θ) of the optical system that represents a relationship between an angle of view θ and an image height y satisfies the following inequality: 1.80 ≤ fsin θ max / y θ max ≤ 4.50 where θmax is a maximum half angle of view of the optical system, and f is a focal length of the optical system, characterized in that the front unit includes a first positive lens (L1, L21, L31) closest to an enlargement conjugate position, and a second positive lens (L4, L23, L34).