mhurhangee/ep-ind-claims huggingface dataset:
A system for an aircraft, the system comprising: a heat exchanger; a ram air temperature sensor configured to be positioned to sense a ram air temperature of a ram air flow; a bleed air temperature sensor configured to be positioned to sense a bleed air temperature of a bleed air flow downstream of the heat exchanger, wherein the bleed air flow is cooled, in use, by the heat exchanger using the ram air flow; a valve configured to control the bleed air flow upstream of the heat exchanger; and a controller configured to determine a bleed air temperature threshold based on the ram air temperature and a standard day temperature, wherein the controller is further configured to control the valve to reduce the bleed air flow in response to the bleed air temperature reaching the bleed air temperature threshold, and wherein the bleed air temperature threshold is indicative of blockage of the heat exchanger. a heat exchanger; a ram air temperature sensor configured to be positioned to sense a ram air temperature of a ram air flow; a bleed air temperature sensor configured to be positioned to sense a bleed air temperature of a bleed air flow downstream of the heat exchanger, wherein the bleed air flow is cooled, in use, by the heat exchanger using the ram air flow; a valve configured to control the bleed air flow upstream of the heat exchanger; and a controller configured to determine a bleed air temperature threshold based on the ram air temperature and a standard day temperature, wherein the controller is further configured to control the valve to reduce the bleed air flow in response to the bleed air temperature reaching the bleed air temperature threshold, and wherein the bleed air temperature threshold is indicative of blockage of the heat exchanger.
AM580 for use in treating a viral infection wherein the virus is selected from a group consisting of MERS-Coronavirus, SARS- Coronavirus, Zika virus, Influenza A, an Adenovirus and an Enterovirus;
An implantable medical device comprising: a first pace pulse detector configured to obtain a sensed electrical signal and analyze the sensed electrical signal to detect a first type of pacing pulses having a first set of characteristics; and characterised by a second pace pulse detector configured to obtain the sensed electrical signal and analyze the sensed electrical signal to detect a second type of pacing pulses having a second set of characteristics, being different from the first set of characteristics; wherein the first set of characteristics is a first amplitude and the first pace pulse detector includes a first threshold detector that detects the first type of pulses when an amplitude of the sensed electrical signal is greater than or equal to the first amplitude, and wherein the second set of characteristics is a second amplitude, the second amplitude being less than the first amplitude, and the second pace pulse detector includes a second threshold detector that detects the second type of pulses when the amplitude of the sensed electrical signal is greater than or equal to the second amplitude. a first pace pulse detector configured to obtain a sensed electrical signal and analyze the sensed electrical signal to detect a first type of pacing pulses having a first set of characteristics; and characterised by a second pace pulse detector configured to obtain the sensed electrical signal and analyze the sensed electrical signal to detect a second type of pacing pulses having a second set of characteristics, being different from the first set of characteristics; wherein the first set of characteristics is a first amplitude and the first pace pulse detector includes a first threshold detector that detects the first type of pulses when an amplitude of the sensed electrical signal is greater than or equal to the first amplitude, and wherein the second set of characteristics is a second amplitude, the second amplitude being less than the first amplitude, and the second pace pulse detector includes a second threshold detector that detects the second type of pulses when the amplitude of the sensed electrical signal is greater than or equal to the second amplitude.
A navigation device that is adapted to be installed in a vehicle, comprising: a destination setting unit that is adapted to set a destination; an on-street parking zone search unit that is adapted to find one or plural road links on which an on-street parking zone (4, A, B, C, D, E, F) is provided in the vicinity of the destination that is set by the destination setting unit; a route search unit that is adapted to find a route that will arrive at the destination by travelling along a road link having an on-street parking zone (4, A, B, C, D, E, F) found by the on-street parking zone search unit, by computing the route based on node costs and link costs, wherein the route search unit is adapted - to modify the link costs for the one or plural road links on which an on-street parking zone is provided that were found by the on-street parking zone search unit, - to compute the route using the node costs and the modified link costs, - to determine whether or not an on-street parking zone is located on the route, and - to specify the on-street parking zone (4, A, B, C, D, E, F) closest to the destination and re-compute the route to the destination via the specified on-street parking zone (4, A, B, C, D, E, F) if the computed route does not include an on-street parking zone (4, A, B, C, D, E, F) found by the on-street parking zone search unit. a destination setting unit that is adapted to set a destination; an on-street parking zone search unit that is adapted to find one or plural road links on which an on-street parking zone (4, A, B, C, D, E, F) is provided in the vicinity of the destination that is set by the destination setting unit; a route search unit that is adapted to find a route that will arrive at the destination by travelling along a road link having an on-street parking zone (4, A, B, C, D, E, F) found by the on-street parking zone search unit, by computing the route based on node costs and link costs, - to modify the link costs for the one or plural road links on which an on-street parking zone is provided that were found by the on-street parking zone search unit, - to compute the route using the node costs and the modified link costs, - to determine whether or not an on-street parking zone is located on the route, and - to specify the on-street parking zone (4, A, B, C, D, E, F) closest to the destination and re-compute the route to the destination via the specified on-street parking zone (4, A, B, C, D, E, F) if the computed route does not include an on-street parking zone (4, A, B, C, D, E, F) found by the on-street parking zone search unit.
Use of core-shell particles for measuring a chemical property of interest and / or a physical property of interest, characterized in that said core-shell particles • have a primary particle size of 10 - 10000 nm, • the shell comprises an inorganic material or an organic material, • the core comprises a first and a second group of nucleic acids,, whereby o said first group of nucleic acids is adapted to degrade upon exposure to a property of interest ("sensing sequence") and o said second group of nucleic acids is adapted to degrade less upon exposure to this property of interest ("control sequence"). • have a primary particle size of 10 - 10000 nm, • the shell comprises an inorganic material or an organic material, • the core comprises a first and a second group of nucleic acids,, whereby o said first group of nucleic acids is adapted to degrade upon exposure to a property of interest ("sensing sequence") and o said second group of nucleic acids is adapted to degrade less upon exposure to this property of interest ("control sequence"). o said first group of nucleic acids is adapted to degrade upon exposure to a property of interest ("sensing sequence") and o said second group of nucleic acids is adapted to degrade less upon exposure to this property of interest ("control sequence").
A method for producing an antibody of the IgG class in monomeric form comprising the following steps: - applying a first solution that optionally comprises poly (ethylene glycol) and sorbitol to a cation exchange chromatographic material and thereby equilibrating the material, - applying the solution comprising the antibody of the IgG class to the equilibrated chromatography material and thereby loading the chromatography material, - producing the antibody of the IgG class in monomeric form by applying a solution to the chromatographic material comprising poly (ethylene glycol) and sorbitol and thereby desorbing/eluting the antibody of the IgG class in monomeric form from the chromatographic material, whereby the poly (ethylene glycol) has a concentration of 10 % by weight and the sorbitol has a concentration of from 5 % to 20 % by weight. - applying a first solution that optionally comprises poly (ethylene glycol) and sorbitol to a cation exchange chromatographic material and thereby equilibrating the material, - applying the solution comprising the antibody of the IgG class to the equilibrated chromatography material and thereby loading the chromatography material, - producing the antibody of the IgG class in monomeric form by applying a solution to the chromatographic material comprising poly (ethylene glycol) and sorbitol and thereby desorbing/eluting the antibody of the IgG class in monomeric form from the chromatographic material,
A light emitting diode, comprising: a substrate comprising an upper surface and side surfaces; a semiconductor stack disposed under the substrate and comprising a first conductivity type semiconductor layer, a second conductivity type semiconductor layer, and an active layer interposed between the first conductivity type semiconductor layer and the second conductivity type semiconductor layer; an ohmic reflection layer electrically connected to the second conductivity type semiconductor layer; a first bump pad and a second bump pad disposed under the ohmic reflection layer and electrically connected to the first conductivity type semiconductor layer and the second conductivity type semiconductor layer, respectively; a side reflection layer comprising a portion covering the upper surface of the substrate along an edge of the upper surface of the substrate and covering the side surfaces of the substrate, and a portion partially covering the upper surface of the substrate such that a region exposing the upper surface of the substrate is divided into at least two regions to define a light emitting surface having a smaller area than the upper surface of the substrate; and a plurality of wavelength converters (81a, 81 b) attached to the upper surface of the substrate to be arranged adjacent to each other, the plurality of wavelength converters (81a, 81b) containing different kinds of phosphors. a substrate comprising an upper surface and side surfaces; a semiconductor stack disposed under the substrate and comprising a first conductivity type semiconductor layer, a second conductivity type semiconductor layer, and an active layer interposed between the first conductivity type semiconductor layer and the second conductivity type semiconductor layer; an ohmic reflection layer electrically connected to the second conductivity type semiconductor layer; a first bump pad and a second bump pad disposed under the ohmic reflection layer and electrically connected to the first conductivity type semiconductor layer and the second conductivity type semiconductor layer, respectively; a side reflection layer comprising a portion covering the upper surface of the substrate along an edge of the upper surface of the substrate and covering the side surfaces of the substrate, and a portion partially covering the upper surface of the substrate such that a region exposing the upper surface of the substrate is divided into at least two regions to define a light emitting surface having a smaller area than the upper surface of the substrate; and a plurality of wavelength converters (81a, 81 b) attached to the upper surface of the substrate to be arranged adjacent to each other, the plurality of wavelength converters (81a, 81b) containing different kinds of phosphors.
A wireless transmit/receive unit, WTRU, of a plurality of WTRUs configured to communicate via a plurality of frequency channels managed by an access point, AP, the WTRU comprising: a receiver configured to receive, from the AP, over at least one frequency channel of the plurality of frequency channels, a group request-to-send, G-RTS, message that includes an explicit channel resource assignment for multiple WTRUs of the plurality of WTRUs that indicates at least one assigned frequency channel of the plurality of frequency channels for each WTRU to transmit a CTS message; a processor configured to identify, in the G-RTS message, an identifier of the WTRU and the corresponding channel resource assignment that indicates the at least one assigned frequency channel of the plurality of frequency channels for the transmission of the CTS message by the WTRU; a transmitter configured to transmit the CTS message, to the AP, over the at least one assigned frequency channel of the plurality of frequency channels indicated in the channel resource assignment; the receiver configured to receive a data message, from the AP over at least one channel; and the transmitter configured to transmit the acknowledgement in response to the data message. a receiver configured to receive, from the AP, over at least one frequency channel of the plurality of frequency channels, a group request-to-send, G-RTS, message that includes an explicit channel resource assignment for multiple WTRUs of the plurality of WTRUs that indicates at least one assigned frequency channel of the plurality of frequency channels for each WTRU to transmit a CTS message; a processor configured to identify, in the G-RTS message, an identifier of the WTRU and the corresponding channel resource assignment that indicates the at least one assigned frequency channel of the plurality of frequency channels for the transmission of the CTS message by the WTRU; a transmitter configured to transmit the CTS message, to the AP, over the at least one assigned frequency channel of the plurality of frequency channels indicated in the channel resource assignment; the receiver configured to receive a data message, from the AP over at least one channel; and the transmitter configured to transmit the acknowledgement in response to the data message.
Method for manufacturing an optical component of curable material, comprising: molding and curing a first structure of a first curable material on a substrate; molding and curing a second structure of a second curable material on a first surface of the first structure facing away from the substrate, so that at the first surface of the first structure a boundary surface between the first structure and the second structure forms and so that the first structure is not covered by the second structure in a passage area, wherein the first curable material is soluble for the solvent after curing and the second curable material is insoluble for the solvent after curing; molding and curing a third structure of a third curable material on a first surface of the second structure facing away from the substrate, so that at the first surface of the second structure a boundary surface forms between the second structure and the third structure and so that the passage area through the third structure is not blocked, wherein the third curable material is insoluble for the solvent after curing; introducing a solvent into the passage area after molding and curing the second structure in order to dissolve the first curable material of the first structure so that a cavity is formed between the second structure and a surface of the substrate. molding and curing a first structure of a first curable material on a substrate; molding and curing a second structure of a second curable material on a first surface of the first structure facing away from the substrate, so that at the first surface of the first structure a boundary surface between the first structure and the second structure forms and so that the first structure is not covered by the second structure in a passage area, wherein the first curable material is soluble for the solvent after curing and the second curable material is insoluble for the solvent after curing; molding and curing a third structure of a third curable material on a first surface of the second structure facing away from the substrate, so that at the first surface of the second structure a boundary surface forms between the second structure and the third structure and so that the passage area through the third structure is not blocked, wherein the third curable material is insoluble for the solvent after curing; introducing a solvent into the passage area after molding and curing the second structure in order to dissolve the first curable material of the first structure so that a cavity is formed between the second structure and a surface of the substrate.
A method for a User Equipment, in the following also referred to as UE, wherein the UE is configured with multiple Bandwidth Parts, in the following also referred to as BWPs, in one component carrier, characterised by comprising: receiving information from a network node to associate a Random Access Channel, in the following also referred to as RACH, configuration with a BWP among the multiple BWPs of said one component carrier; and performing a RACH transmission in the BWP using the RACH configuration associated with the BWP. receiving information from a network node to associate a Random Access Channel, in the following also referred to as RACH, configuration with a BWP among the multiple BWPs of said one component carrier; and performing a RACH transmission in the BWP using the RACH configuration associated with the BWP.
Device for precutting a column for a floor, comprising a precutting means configured so as to be movable in rotation around an axis substantially orthogonal to the precutting means, between a rest position and a precutting position, wherein the precutting means comprises a membrane that can be folded in the rest position and be deployed in the precutting position, the device further comprising a control member for the deployment of the precutting means, and an element configured to fasten the precutting means to a system for setting in place the device for precutting, the system for setting in place the device for precutting comprising a portion for guiding a displacement of the device for precutting and an element for maintaining the device for precutting during said displacement and wherein the element for maintaining comprises a slot configured to cooperate with the element for fastening the precutting means to the system for setting in place the device for precutting.
A method for estimating useful life of a load-bearing structure, the method comprising: performing a degradation measurement on the structure to obtain degradation data for a predetermined time interval; applying a constraint convex regression model to the degradation data; estimating a total useful life, TUL, of the structure based on outputs of the constraint convex regression model; and predicting a remaining useful life, RUL, based on the TUL and a current time; characterized in that the constraint convex regression model comprises a convex function having the following properties: lim y → ∞ ψ − 1 y = l, 0 < l < ∞; and ∂ ψ t ∂ t > 0, ∀ t ≥ 0, where l is the TUL, y is the degradation measurement, and ψ is the convex function; and wherein applying the constraint convex regression model comprises assigning weight factors to the received degradation data, wherein recently received degradation measurements are assigned a larger weight compared to older degradation measurement data. performing a degradation measurement on the structure to obtain degradation data for a predetermined time interval; applying a constraint convex regression model to the degradation data; estimating a total useful life, TUL, of the structure based on outputs of the constraint convex regression model; and predicting a remaining useful life, RUL, based on the TUL and a current time; characterized in that the constraint convex regression model comprises a convex function having the following properties: lim y → ∞ ψ − 1 y = l, 0 < l < ∞; and ∂ ψ t ∂ t > 0, ∀ t ≥ 0, where l is the TUL, y is the degradation measurement, and ψ is the convex function; and wherein applying the constraint convex regression model comprises assigning weight factors to the received degradation data, wherein recently received degradation measurements are assigned a larger weight compared to older degradation measurement data.
A semiconductor device comprising an active section, an interposer section arranged on the active section, and one or more nanoelectromechanical systems or microelectromechanical systems, NEMS/MEMS, contact switches arranged between the interposer section and the active section, wherein the interposer section comprises one or more vias, wherein the active section comprises at least a part of each contact switch of the one or more contact switches, wherein each contact switch of the one or more contact switches comprises a graphene membrane, and wherein each contact switch of the one or more contact switches is configured to be switched between a first switching state, in which the graphene membrane of the contact switch is thermally connected to a respective via of the one or more vias of the interposer section, and a second switching stage, in which the graphene membrane of the contact switch is thermally disconnected from the respective via of the one or more vias of the interposer section. an active section, an interposer section arranged on the active section, and one or more nanoelectromechanical systems or microelectromechanical systems, NEMS/MEMS, contact switches arranged between the interposer section and the active section, wherein the interposer section comprises one or more vias, wherein the active section comprises at least a part of each contact switch of the one or more contact switches, wherein each contact switch of the one or more contact switches comprises a graphene membrane, and wherein each contact switch of the one or more contact switches is configured to be switched between a first switching state, in which the graphene membrane of the contact switch is thermally connected to a respective via of the one or more vias of the interposer section, and a second switching stage, in which the graphene membrane of the contact switch is thermally disconnected from the respective via of the one or more vias of the interposer section.