mhurhangee/ep-ind-claims huggingface dataset:
A method of measuring pressure within a vacuum insulated cabinet structure, the method comprising the steps of: (i) providing a vacuum insulated cabinet structure having a storage compartment and an insulating space positioned between an interior wall of the storage compartment and an exterior wall of the storage compartment, a first temperature sensor positioned on the interior wall of the storage compartment, a second temperature sensor positioned on the exterior wall of the storage compartment, a third temperature sensor (27, 29) positioned to sense an ambient temperature level (T i, T o); (ii) sensing a first temperature level (T wi) of the interior wall of the storage compartment using the first temperature sensor; (iii) sensing a second temperature level (T wo) of the exterior wall of the storage compartment using the second temperature sensor; (iv) calculating a first temperature differential (ΔT) between the second temperature level (T wo) and the first temperature level (T wi); (v) sensing an ambient temperature level (T i, T o) using the third temperature sensor (27, 29); (vi) calculating an overall heat transfer coefficient using the ambient temperature level (T i, T o), the first temperature level (T wi), and a convective heat transfer coefficient for the exterior wall of the storage compartment; (vii) determining a first conductivity level using the first temperature differential (ΔT), the overall heat transfer coefficient and a thickness of the insulating space; and (viii) determining a first pressure level within the insulating space using the first conductivity level. (i) providing a vacuum insulated cabinet structure having a storage compartment and an insulating space positioned between an interior wall of the storage compartment and an exterior wall of the storage compartment, a first temperature sensor positioned on the interior wall of the storage compartment, a second temperature sensor positioned on the exterior wall of the storage compartment, a third temperature sensor (27, 29) positioned to sense an ambient temperature level (T i, T o); (ii) sensing a first temperature level (T wi) of the interior wall of the storage compartment using the first temperature sensor; (iii) sensing a second temperature level (T wo) of the exterior wall of the storage compartment using the second temperature sensor; (iv) calculating a first temperature differential (ΔT) between the second temperature level (T wo) and the first temperature level (T wi); (v) sensing an ambient temperature level (T i, T o) using the third temperature sensor (27, 29); (vi) calculating an overall heat transfer coefficient using the ambient temperature level (T i, T o), the first temperature level (T wi), and a convective heat transfer coefficient for the exterior wall of the storage compartment; (vii) determining a first conductivity level using the first temperature differential (ΔT), the overall heat transfer coefficient and a thickness of the insulating space; and (viii) determining a first pressure level within the insulating space using the first conductivity level.
A dilator tip for an introducer assembly for the deployment of medical devices within a lumen of a patient, the dilator tip including a proximal end, a distal end and defining a plane orthogonal to the longitudinal axis when straight of the dilator tip between the proximal and distal ends; wherein the dilator tip is for at least a portion of its extent between and spaced from the proximal and distal ends circular in cross-section and at least said distal end is oval in cross-section in said orthogonal plane so as to be less thick in one angular direction relative to another the dilator tip being more flexible in one radial orientation relative to another as a result of said oval shape.
A method of producing a forgery prevention paper, comprising: - providing a paper medium, - forming a thread from a volume hologram sheet which comprises: a volume hologram layer; and a substrate disposed only on one side surface of the volume hologram layer using an adhesion means, and wherein a peeling strength of the volume hologram layer and the substrate is 25 gf/25 mm or more; and - introducing the thread as an embedded thread into the paper medium by mechanical drawing under a heating condition in the range of 90°C to 110°C. - providing a paper medium, - forming a thread from a volume hologram sheet which comprises: a volume hologram layer; and a substrate disposed only on one side surface of the volume hologram layer using an adhesion means, and wherein a peeling strength of the volume hologram layer and the substrate is 25 gf/25 mm or more; and a volume hologram layer; and a substrate disposed only on one side surface of the volume hologram layer using an adhesion means, and wherein a peeling strength of the volume hologram layer and the substrate is 25 gf/25 mm or more; and - introducing the thread as an embedded thread into the paper medium by mechanical drawing under a heating condition in the range of 90°C to 110°C.
A method for forming an organosilicate film on a substrate comprising: providing a composite organosilicate film wherein the composite organosilicate film is deposited from a composition comprising at least one silicon-containing precursor and at least one porogen-containing precursor and wherein the composite organosilicate film comprises carbon-containing species; and exposing the composite organosilicate film to an energy source comprising ultraviolet light, wherein the ultraviolet light is selected from the group consisting of near ultraviolet light and middle ultraviolet light; and treating the composite organosilicate film to a chemical comprising an oxidizer selected from the group consisting of ozone, ozonated water, sulfuric acid peroxide mixture and combinations thereof, to remove at least a portion of the carbon-containing species contained therein and provide a porous organosilicate film wherein the refractive index and extinction coefficient of the porous organosilicate film are reduced when compared to the composite organosilicate film and wherein the treating step is conducted prior to the exposing step. providing a composite organosilicate film wherein the composite organosilicate film is deposited from a composition comprising at least one silicon-containing precursor and at least one porogen-containing precursor and wherein the composite organosilicate film comprises carbon-containing species; and exposing the composite organosilicate film to an energy source comprising ultraviolet light, wherein the ultraviolet light is selected from the group consisting of near ultraviolet light and middle ultraviolet light; and treating the composite organosilicate film to a chemical comprising an oxidizer selected from the group consisting of ozone, ozonated water, sulfuric acid peroxide mixture and combinations thereof, exposing the composite organosilicate film to an energy source comprising ultraviolet light, wherein the ultraviolet light is selected from the group consisting of near ultraviolet light and middle ultraviolet light; and treating the composite organosilicate film to a chemical comprising an oxidizer selected from the group consisting of ozone, ozonated water, sulfuric acid peroxide mixture and combinations thereof, to remove at least a portion of the carbon-containing species contained therein and provide a porous organosilicate film wherein the refractive index and extinction coefficient of the porous organosilicate film are reduced when compared to the composite organosilicate film and wherein the treating step is conducted prior to the exposing step. the treating step is conducted prior to the exposing step.
Copolymer based on amide units and based on ether units, the amide units consisting, in a proportion of more than 50% by weight, of an equimolar combination of at least one diamine and of at least one dicarboxylic acid, the diamine(s) being, in a proportion of more than 50% by weight, cycloaliphatic diamine(s) and the dicarboxylic acid(s) being, in a proportion of more than 50% by weight, linear aliphatic dicarboxylic acid(s), it being possible for the amide units to optionally comprise, but in a proportion of less than 50% by weight, at least one other polyamide comonomer, the cycloaliphatic diamine(s) being chosen from bis(3-methyl-4-aminocyclohexyl)methane (BMACM), 2,2-bis(3-methyl-4-aminocyclohexyl)propane (BMACP) or 2,6-bis(aminomethyl)norbornane (BAMN), the respective proportions of monomers of the ether and amide units being chosen so that: - the said copolymer exhibits a high transparency which is such that the transmission at 560 nm through a sheet with a thickness of 2 mm is greater than 75%; - the said copolymer is amorphous and exhibits a crystallinity such that the enthalpy of fusion during the second heating of an ISO DSC (delta Hm) is at most equal to 30 J/g, the weight being with respect to the amount of amide units present or of polyamide present, this melting corresponding to that of the amide units; - the said copolymer has a glass transition temperature at least equal to 75°C by DSC (Differential Scanning Calorimetry) and ISO 11357. the cycloaliphatic diamine(s) being chosen from bis(3-methyl-4-aminocyclohexyl)methane (BMACM), 2,2-bis(3-methyl-4-aminocyclohexyl)propane (BMACP) or 2,6-bis(aminomethyl)norbornane (BAMN), the respective proportions of monomers of the ether and amide units being chosen so that: - the said copolymer exhibits a high transparency which is such that the transmission at 560 nm through a sheet with a thickness of 2 mm is greater than 75%; - the said copolymer is amorphous and exhibits a crystallinity such that the enthalpy of fusion during the second heating of an ISO DSC (delta Hm) is at most equal to 30 J/g, the weight being with respect to the amount of amide units present or of polyamide present, this melting corresponding to that of the amide units; - the said copolymer has a glass transition temperature at least equal to 75°C by DSC (Differential Scanning Calorimetry) and ISO 11357. - the said copolymer exhibits a high transparency which is such that the transmission at 560 nm through a sheet with a thickness of 2 mm is greater than 75%; - the said copolymer is amorphous and exhibits a crystallinity such that the enthalpy of fusion during the second heating of an ISO DSC (delta Hm) is at most equal to 30 J/g, the weight being with respect to the amount of amide units present or of polyamide present, this melting corresponding to that of the amide units; - the said copolymer has a glass transition temperature at least equal to 75°C by DSC (Differential Scanning Calorimetry) and ISO 11357.
A washer for a system for measuring an axial force in a screw connection, the washer consisting of an electrically conductive first plate, an electrically conductive second plate, and of an electrically nonconducting insulating layer, which is arranged between the first plate and the second plate and connects the first plate to the second plate to form a plate capacitor, and which is elastically deformable under the action of force, characterized in that an electrically insulating protective layer is arranged in each case on a surface, facing away from the insulating layer, of the first plate and of the second plate, in that a central through-opening is provided in the plate capacitor, in that a first insulating ring is assigned to the first plate in the region of the through-opening and a second insulating ring is assigned to the second plate in the region of the through-opening, and in that the first insulating ring is axially spaced apart from the second insulating ring.
Method for operating a network equipment (GW; DANE) configured to be arranged along a transmission path between a client terminal and at least one server, said network equipment (GW; DANE) being configured to receive a request from the client terminal for a first representation of a segment of a multimedia content available at several representations, said request further specifying one or several alternative representations of said segment, the method comprising: - determining at least one downstream bandwidth along a transmission path between a server and the client terminal; the method being characterized by also comprising: - modifying said request by removing each alternative representation specified in the request whose associated bitrate is higher than the at least one determined downstream bandwidth; - forwarding the modified request to an upstream network element (DANE; RNE; SE) arranged between the network equipment (GW; DANE) and the server. - determining at least one downstream bandwidth along a transmission path between a server and the client terminal; - modifying said request by removing each alternative representation specified in the request whose associated bitrate is higher than the at least one determined downstream bandwidth; - forwarding the modified request to an upstream network element (DANE; RNE; SE) arranged between the network equipment (GW; DANE) and the server.
A protective textile sleeve, comprising: a tubular wall extending along a longitudinal axis between opposite open ends (22, 24), said tubular wall having a first set of yarns and a second set of yarns braided with one another in opposite helical directions; said tubular wall having a third set of yarns captured between said first and second sets of yarns, said third set of yarns extending generally parallel to said longitudinal axis; wherein said first set of yarns are braided as single yarns separately from one another and said second set of yarns are braided as bundles, with each bundle including a plurality of yarns; wherein said first set of yarns are multifilaments and said second set of yarns are monofilaments; characterised in that each bundle of monofilaments extending in a first helical direction is spaced from an adjacent bundle of monofilaments extending in the first helical direction by one of said individual multifilaments extending in the first helical direction, and wherein each bundle of monofilaments extending in a second helical direction is spaced from an adjacent bundle of monofilaments extending in the second helical direction by one of said individual multifilaments extending in the second helical direction; and in that a reflective outer layer is bonded to an outer surface of the wall. a tubular wall extending along a longitudinal axis between opposite open ends (22, 24), said tubular wall having a first set of yarns and a second set of yarns braided with one another in opposite helical directions; said tubular wall having a third set of yarns captured between said first and second sets of yarns, said third set of yarns extending generally parallel to said longitudinal axis; wherein said first set of yarns are braided as single yarns separately from one another and said second set of yarns are braided as bundles, with each bundle including a plurality of yarns; wherein said first set of yarns are multifilaments and said second set of yarns are monofilaments; characterised in that each bundle of monofilaments extending in a first helical direction is spaced from an adjacent bundle of monofilaments extending in the first helical direction by one of said individual multifilaments extending in the first helical direction, and wherein each bundle of monofilaments extending in a second helical direction is spaced from an adjacent bundle of monofilaments extending in the second helical direction by one of said individual multifilaments extending in the second helical direction; and in that a reflective outer layer is bonded to an outer surface of the wall.
Processing apparatus for the processing of a cast raw casting, having a spraying apparatus for the cooling of the raw casting, which spraying apparatus has at least one nozzle device (3, 3.1 - 3-7) for the at least temporally, spatially or quantitatively variable application of a flowable medium to at least one section of the raw casting, and a temperature measurement device for the measurement of the temperature at at least one section of the raw casting, and a control device for the control and regulation of the nozzle device (3, 3.1 - 3-7) in a manner dependent on the measured temperature, characterized in that the nozzle device (3, 3.1 - 3-7) has at least one two-substance nozzle for the application of two mutually different flowable substances to the raw casting, wherein one of the flowable substances is water, wherein, by way of the two-substance nozzle, the two flowable substances can be combined in quantitatively variable fashion to form the flowable medium, wherein the control device is configured to control a quantity of the spray mist which has water such that the water evaporates on the raw casting without residue, wherein the processing apparatus has a geometry measurement device for the measurement of at least one geometry of the raw casting.
A baffle (10, 20, 30) for the bottom of a combustion chamber of a gas turbine engine, comprising a portion of wall (20a, 30) with an opening for an injector of the combustion chamber to pass through, two longitudinal edges (20c, 20d; 30c, 30d) and two transverse edges (20e, 20f; 30e, 30f), and wherein at least one of the longitudinal edges comprises a joint cover (10d1; 20d1; 30d1, 30'c1) characterized in that the joint cover arranges a groove (20d10g; 30d10g, 30'c10g) forming an housing along said edge for an insert tongue or the edge (20'c) of an adjacent baffle (10'; 20'; 30') so as to seal the junction between the two edges while allowing them to slide relative to one another when the wall of the chamber bottom expands.
A power management circuit comprising: a plurality of power switching modules (106-1, 106-N), wherein power is supplied to each of the power switching modules (106-1, 106-N) by at least one of a plurality of power sources (102-1, 102-N), characterized in that each of the power switching modules (106-1, 106-N) comprises: a latch circuit (108-1, 108-N) configured to have a defined output state at power-up of a corresponding power source; and a logic circuit (110-1, 110-N) configured to control power supplied from the corresponding power source by connecting or disconnecting said power source to or from an output terminal of the power management circuit based on the defined output state of the latch circuit (108-1, 108-N), wherein the logic circuit (110-1, 110-N) comprises a cross-coupled circuit. a plurality of power switching modules (106-1, 106-N), wherein power is supplied to each of the power switching modules (106-1, 106-N) by at least one of a plurality of power sources (102-1, 102-N), characterized in that each of the power switching modules (106-1, 106-N) comprises: a latch circuit (108-1, 108-N) configured to have a defined output state at power-up of a corresponding power source; and a logic circuit (110-1, 110-N) configured to control power supplied from the corresponding power source by connecting or disconnecting said power source to or from an output terminal of the power management circuit based on the defined output state of the latch circuit (108-1, 108-N), wherein the logic circuit (110-1, 110-N) comprises a cross-coupled circuit. a latch circuit (108-1, 108-N) configured to have a defined output state at power-up of a corresponding power source; and a logic circuit (110-1, 110-N) configured to control power supplied from the corresponding power source by connecting or disconnecting said power source to or from an output terminal of the power management circuit based on the defined output state of the latch circuit (108-1, 108-N), wherein the logic circuit (110-1, 110-N) comprises a cross-coupled circuit.
A method implemented by a first communication device (120; 505, 510, 512, 514, 516; 555, 560, 562, 564; 605, 610), the method comprising: receiving (705; 755; 805), by the first communication device (120; 505, 510, 512, 514, 516; 555, 560, 562, 564; 605, 610), a first indicator indicating distance based HARQ feedback operation with negative acknowledgement only and a first sidelink message grant; and determining (707; 757; 807), by the first communication device (120; 505, 510, 512, 514, 516; 555, 560, 562, 564; 605, 610), that location information associated with the first communication device (120; 505, 510, 512, 514, 516; 555, 560, 562, 564; 605, 610) is unavailable, and based thereon, characterized by transmitting, by the first communication device (120; 505, 510, 512, 514, 516; 555, 562, 564, 60; 605, 610), a second indicator indicating that the location information is unavailable. receiving (705; 755; 805), by the first communication device (120; 505, 510, 512, 514, 516; 555, 560, 562, 564; 605, 610), a first indicator indicating distance based HARQ feedback operation with negative acknowledgement only and a first sidelink message grant; and determining (707; 757; 807), by the first communication device (120; 505, 510, 512, 514, 516; 555, 560, 562, 564; 605, 610), that location information associated with the first communication device (120; 505, 510, 512, 514, 516; 555, 560, 562, 564; 605, 610) is unavailable, and based thereon, characterized by transmitting, by the first communication device (120; 505, 510, 512, 514, 516; 555, 562, 564, 60; 605, 610), a second indicator indicating that the location information is unavailable.
A conveyor belt module, comprising: a deck extending in length from a first end to a second end and in width from a first side to a second side and having a top side and an opposite bottom side; a first pulley connected to the deck at the first side; a second pulley connected to the deck at the second side; an endless flexible band trained around the first pulley and the second pulley and extending transversely relative to the top side of the deck, at least one toothed wheel (60, 62) adjacent to the deck, wherein at least one of the first pulley and the second pulley is connected to said at least one toothed wheel (60, 62) for selectively driving the pulley, said toothed wheel being configured to engage a driving gear to selectively rotate the toothed wheel thereby causing movement of the endless flexible band; and characterized in that the first pulley and the second pulley are disposed on the top side of the deck, and said at least one toothed wheel (60, 62) extends from the bottom of the first and/or second pulley below the deck; and wherein the driving gear is preferably a rack gear. a deck extending in length from a first end to a second end and in width from a first side to a second side and having a top side and an opposite bottom side; a first pulley connected to the deck at the first side; a second pulley connected to the deck at the second side; an endless flexible band trained around the first pulley and the second pulley and extending transversely relative to the top side of the deck, at least one toothed wheel (60, 62) adjacent to the deck, wherein at least one of the first pulley and the second pulley is connected to said at least one toothed wheel (60, 62) for selectively driving the pulley, said toothed wheel being configured to engage a driving gear to selectively rotate the toothed wheel thereby causing movement of the endless flexible band; and characterized in that the first pulley and the second pulley are disposed on the top side of the deck, and said at least one toothed wheel (60, 62) extends from the bottom of the first and/or second pulley below the deck; and wherein the driving gear is preferably a rack gear.
A magnetometer-based monitoring system comprising: an eye patch whose disposition is to be monitored; eyeglasses adapted to be worn by a user; a processor to determine the disposition of the eye patch; characterised in that a magnet is integrated with the eye patch; a first magnetometer and a second magnetometer are integrated with a logging device, the logging device being attached to said eyeglasses such that the the first magnetometer is located in proximity to the eye patch and the second magnetometer is located at a fixed distance from the first magnetometer in proximity to the eye patch; with the processor receiving data from the first magnetometer and the second magnetometer, and calculating a measurement vector to determine the disposition of the eye patch.