mhurhangee/ep-ind-claims huggingface dataset:
A light conversion film comprising: a first barrier film; a light conversion layer disposed on the first barrier film, the light conversion layer comprising a matrix resin and red quantum dots dispersed into the matrix resin; and a second barrier film disposed on the light conversion layer, wherein the red quantum dots are dispersed into the matrix resin so that the red quantum dots are contained in a microphase existing in the matrix resin, wherein the microphase includes a quantum dot-polymer bead composite, wherein the quantum dot-polymer bead composite includes the red quantum dots and a polymer of which a portion of a chain is bonded to a surface of the red quantum dots, wherein the matrix resin of the light conversion layer further comprises a green phosphor; wherein the light conversion film satisfies the following Equation: 5 ≤ ( weight of quantum dot 311 within light conversion layer 272 / total weight of light conversion layer 272) × 100 × t ≤ 50, where t is a thickness of the light conversion layer, wherein the light conversion layer has the thickness t of 5 μ m to 100 μ m, and wherein the light conversion film has a light conversion efficiency of 40% to 80% that is expressed as following Equation: light conversion efficiency = { amount of red light emitted from light conversion film 270 / total amount of light absorbed into light conversion film 270} × 100. a first barrier film; a light conversion layer disposed on the first barrier film, the light conversion layer comprising a matrix resin and red quantum dots dispersed into the matrix resin; and a second barrier film disposed on the light conversion layer, wherein the red quantum dots are dispersed into the matrix resin so that the red quantum dots are contained in a microphase existing in the matrix resin, wherein the microphase includes a quantum dot-polymer bead composite, wherein the quantum dot-polymer bead composite includes the red quantum dots and a polymer of which a portion of a chain is bonded to a surface of the red quantum dots, wherein the matrix resin of the light conversion layer further comprises a green phosphor; wherein the light conversion film satisfies the following Equation: 5 ≤ ( weight of quantum dot 311 within light conversion layer 272 / total weight of light conversion layer 272) × 100 × t ≤ 50, where t is a thickness of the light conversion layer, wherein the light conversion layer has the thickness t of 5 μ m to 100 μ m, and wherein the light conversion film has a light conversion efficiency of 40% to 80% that is expressed as following Equation: light conversion efficiency = { amount of red light emitted from light conversion film 270 / total amount of light absorbed into light conversion film 270} × 100.
A filter system comprising a housing with a fluid inlet and a fluid outlet and a filter element being accommodated in the housing for filtering a fluid flowing from the fluid inlet to the fluid outlet, wherein an actuator is provided to rotate the filter element between a first position and a second position in the housing, wherein the fluid outlet is sealed by the filter element when the filter element is in the first position and wherein the fluid outlet is open for unfiltered fluid passage from the fluid inlet to the fluid outlet when the filter element is in the second position, wherein a locking means is provided to lock the filter element in the first position, wherein the actuator is connected to a lever arrangement comprising at least two linked levers (32, 34, 36, 38) for rotating the filter element, wherein a first lever (32, 34) is driven by the actuator and a second lever (36, 38) is linked to a rotational joint (26, 28) of the filter element, wherein the locking means is locking the filter element in the first position in a self-locked manner when the lever arrangement is rotated beyond a dead center position of the two levers (32, 34, 36, 38) when pressing the filter element against the fluid outlet. wherein an actuator is provided to rotate the filter element between a first position and a second position in the housing, wherein the fluid outlet is sealed by the filter element when the filter element is in the first position and wherein the fluid outlet is open for unfiltered fluid passage from the fluid inlet to the fluid outlet when the filter element is in the second position, wherein a locking means is provided to lock the filter element in the first position, wherein the actuator is connected to a lever arrangement comprising at least two linked levers (32, 34, 36, 38) for rotating the filter element, wherein a first lever (32, 34) is driven by the actuator and a second lever (36, 38) is linked to a rotational joint (26, 28) of the filter element, wherein the locking means is locking the filter element in the first position in a self-locked manner when the lever arrangement is rotated beyond a dead center position of the two levers (32, 34, 36, 38) when pressing the filter element against the fluid outlet.
A part of an electrical harness for a gas turbine engine comprising: a rigid material having multiple electrical conductors embedded therein so as to be surrounded by the rigid material and fixed in position by the rigid material, and an electrical connector having a first set of electrical contacts connected to at least one of the electrical conductors, a second set of electrical contacts for electrical connection to another component, and a housing having a first end and a second end, the first set of electrical contacts being at the first end and the second set of electrical contacts being at the second end; wherein: the first end of the housing is at least partly embedded in the rigid material, and the second end of the housing is accessible from outside the electrical raft, thereby allowing the electrical raft to be electrically connected to said other component, and the electrical connector further has a back-shell which sealingly encloses the first end of the housing and the first set of electrical contacts to prevent ingress of contaminants into the connector. a rigid material having multiple electrical conductors embedded therein so as to be surrounded by the rigid material and fixed in position by the rigid material, and an electrical connector having a first set of electrical contacts connected to at least one of the electrical conductors, a second set of electrical contacts for electrical connection to another component, and a housing having a first end and a second end, the first set of electrical contacts being at the first end and the second set of electrical contacts being at the second end; wherein: the first end of the housing is at least partly embedded in the rigid material, and the second end of the housing is accessible from outside the electrical raft, thereby allowing the electrical raft to be electrically connected to said other component, and the electrical connector further has a back-shell which sealingly encloses the first end of the housing and the first set of electrical contacts to prevent ingress of contaminants into the connector. the first end of the housing is at least partly embedded in the rigid material, and the second end of the housing is accessible from outside the electrical raft, thereby allowing the electrical raft to be electrically connected to said other component, and the electrical connector further has a back-shell which sealingly encloses the first end of the housing and the first set of electrical contacts to prevent ingress of contaminants into the connector.
An ink composition for making a conductive silver structure, the ink composition comprising: a silver salt; and a complex of (a) a complexing agent and formic acid or (b) a complexing agent and a salt of formic acid; wherein the complexing agent is an alkylamine, and the composition further comprises ethylenediamine. a silver salt; and a complex of (a) a complexing agent and formic acid or (b) a complexing agent and a salt of formic acid; wherein the complexing agent is an alkylamine, and the composition further comprises ethylenediamine.
A binder for fibers, especially mineral fibers, in particular glass fibers or rock fibers, characterized in that it comprises: - at least one monosaccharide and/or at least one polysaccharide; - at least one polycarboxylic organic acid with a molar mass of 1000 or less; and - at least one vinyl acetate homopolymer or copolymer. - at least one monosaccharide and/or at least one polysaccharide; - at least one polycarboxylic organic acid with a molar mass of 1000 or less; and - at least one vinyl acetate homopolymer or copolymer.
An aerosol-generating liquid for use in an aerosol inhalator, the aerosol inhalator being configured to generate an aerosol by heating and atomizing an aroma solution during inhalation and to allow the aerosol to be inhaled together with a suction air flow, wherein the aerosol-generating liquid used as the aroma solution contains: main components including a solvent and a lipophilic aroma dissolved in the solvent; and adipic acid added to the main components. main components including a solvent and a lipophilic aroma dissolved in the solvent; and adipic acid added to the main components.
A data collection device comprising: an attachment assembly for attaching the data collection device to a dose setting dial of a medicament administration device; and an electronics assembly comprising: a light source configured to illuminate a portion of a surface of an internal component of the medicament administration device including a pattern of relatively reflective and non-reflecting regions formed on the surface of the internal component; and an optical sensor configured to receive light reflected by at least the relatively reflective regions characterized in that the electronics assembly is configured to move longitudinally relative to the attachment assembly. an attachment assembly for attaching the data collection device to a dose setting dial of a medicament administration device; and an electronics assembly comprising: a light source configured to illuminate a portion of a surface of an internal component of the medicament administration device including a pattern of relatively reflective and non-reflecting regions formed on the surface of the internal component; and an optical sensor configured to receive light reflected by at least the relatively reflective regions a light source configured to illuminate a portion of a surface of an internal component of the medicament administration device including a pattern of relatively reflective and non-reflecting regions formed on the surface of the internal component; and an optical sensor configured to receive light reflected by at least the relatively reflective regions characterized in that the electronics assembly is configured to move longitudinally relative to the attachment assembly.
A micro-electro-mechanical system, MEMS, microphone assembly comprising - an enclosure defining a first cavity, the enclosure comprising an acoustic inlet port that connects the first cavity to an environment of the assembly; - a MEMS microphone arranged inside the first cavity, the microphone comprising a first die with bonding structures and a MEMS diaphragm, the diaphragm having a first side and a second side, and a second die having an application specific integrated circuit, ASIC; wherein - the second die is bonded to the bonding structures of the first die such that a gap is formed between the first side of the diaphragm and the second die, with the gap defining a second cavity and having a gap height; - the first side of the diaphragm is interfacing with the second cavity and the second side of the diaphragm is interfacing with the environment via the acoustic inlet port; and - the bonding structures are arranged such that pressure ventilation openings are formed that connect the first cavity and the second cavity. - an enclosure defining a first cavity, the enclosure comprising an acoustic inlet port that connects the first cavity to an environment of the assembly; - a MEMS microphone arranged inside the first cavity, the microphone comprising a first die with bonding structures and a MEMS diaphragm, the diaphragm having a first side and a second side, and a second die having an application specific integrated circuit, ASIC; - the second die is bonded to the bonding structures of the first die such that a gap is formed between the first side of the diaphragm and the second die, with the gap defining a second cavity and having a gap height; - the first side of the diaphragm is interfacing with the second cavity and the second side of the diaphragm is interfacing with the environment via the acoustic inlet port; and - the bonding structures are arranged such that pressure ventilation openings are formed that connect the first cavity and the second cavity.
A flow battery comprising: a liquid electrolyte (22, 26) including an electrochemically active specie; a flow field plate (50, 52) including a first flow field channel and a second flow field channel separated from the first flow field channel by a rib; a flow path of the liquid electrolyte (22, 26) over the rib between the channels (54, 56); and an electrode (62, 64) arranged adjacent the flow field plate (50, 52) such that the liquid electrolyte (22, 26) that flows over the rib must flow through the electrode (62, 64); characterised by the electrode (62, 64) including a carbon paper (68; 168) that is catalytically active with regard to liquid electrolyte (22, 26) and that defines a compressive strain of less than 20% at a compressive stress of 0.8 MPa and an uncompressed porosity in the range 60-85%, wherein the carbon paper (68; 168) includes carbon fibers and carbon binder residue and carbon particles disposed on the carbon fibers, and wherein the carbon paper (68; 168) includes 1-10wt% of the carbon particles. a liquid electrolyte (22, 26) including an electrochemically active specie; a flow field plate (50, 52) including a first flow field channel and a second flow field channel separated from the first flow field channel by a rib; a flow path of the liquid electrolyte (22, 26) over the rib between the channels (54, 56); and an electrode (62, 64) arranged adjacent the flow field plate (50, 52) such that the liquid electrolyte (22, 26) that flows over the rib must flow through the electrode (62, 64); characterised by the electrode (62, 64) including a carbon paper (68; 168) that is catalytically active with regard to liquid electrolyte (22, 26) and that defines a compressive strain of less than 20% at a compressive stress of 0.8 MPa and an uncompressed porosity in the range 60-85%, wherein the carbon paper (68; 168) includes carbon fibers and carbon binder residue and carbon particles disposed on the carbon fibers, and wherein the carbon paper (68; 168) includes 1-10wt% of the carbon particles.
A method for converting an alkylene to a product stream that comprises an alkanol, the method comprising subjecting a gaseous combination of a) an alkylene selected from ethylene, propylene or a combination thereof, b) carbon monoxide, c) hydrogen and, optionally, d) at least one hydrocarbon or gas diluent other than ethylene or propylene to reductive hydroformylation conditions in combination with a solid phase, sulfided, heterogeneous catalyst, such combination being sufficient to convert ethylene to propanol and propylene to butanol, said catalyst comprising at least cobalt as a Group VIII metal, at least one Group VI metal, at least one alkali metal and sulfur.
Trehalose derivatives of Formula or salts thereof: wherein, Ris n being an integer in the range of 1 to 12; and R 1 is hydrogen, R, alkyl or -COR', R' being hydrogen, alkyl, aminoalkyl, arylalkyl, cycloalkyl, heteroalkyl, a phosphor or a fluorescence probe. Ris n being an integer in the range of 1 to 12; and R 1 is hydrogen, R, alkyl or -COR', R' being hydrogen, alkyl, aminoalkyl, arylalkyl, cycloalkyl, heteroalkyl, a phosphor or a fluorescence probe.
A method for investigating a structure (2, 2a, 2b) having an inner surface (21, 21 a, 21 b) interfacing a liquid or soft medium, comprising the steps of: a) exciting acoustic waves in the structure (2, 2a, 2b) by means of at least one transmitter, b) converting at least a part of the energy associated with the acoustic waves excited in the structure (2, 2a, 2b) into volume sound waves of the medium, c) reconverting at least a part of the energy associated with the volume sound waves into acoustic wave energy of the structure (2, 2a, 2b) thereby generating acoustic waves in the structure (2, 2a, 2b), d) receiving acoustic waves (A, B) evoked by the transmitter by at least one receiver (4, 4a, 4b), e) verifying whether a coating is present between the inner surface (21, 21a, 21 b) of the structure (2, 2a, 2b) and the medium and/or if a coating is present determining properties of the coating by evaluating a signal generated by the receiver upon receipt of acoustic waves evoked by the transmitter and/or f) verifying whether a level of the medium is below a predetermined value by evaluating a signal generated by the receiver upon receipt of acoustic waves evoked by the transmitter, characterized in that steps e) and/or f) comprises evaluating a first and a second receiver signal, wherein the first signal is generated by the receiver (4, 4a, 4b) upon receipt of acoustic waves transmitted directly from the transmitter via the structure (2, 2a, 2b) and the second signal is generated by the receiver (4, 4a, 4b) due to acoustic volume sound waves in the medium which were induced by the acoustic waves in the structure and which travel towards the receiver. a) exciting acoustic waves in the structure (2, 2a, 2b) by means of at least one transmitter, b) converting at least a part of the energy associated with the acoustic waves excited in the structure (2, 2a, 2b) into volume sound waves of the medium, c) reconverting at least a part of the energy associated with the volume sound waves into acoustic wave energy of the structure (2, 2a, 2b) thereby generating acoustic waves in the structure (2, 2a, 2b), d) receiving acoustic waves (A, B) evoked by the transmitter by at least one receiver (4, 4a, 4b), e) verifying whether a coating is present between the inner surface (21, 21a, 21 b) of the structure (2, 2a, 2b) and the medium and/or if a coating is present determining properties of the coating by evaluating a signal generated by the receiver upon receipt of acoustic waves evoked by the transmitter and/or f) verifying whether a level of the medium is below a predetermined value by evaluating a signal generated by the receiver upon receipt of acoustic waves evoked by the transmitter, characterized in that steps e) and/or f) comprises evaluating a first and a second receiver signal, wherein the first signal is generated by the receiver (4, 4a, 4b) upon receipt of acoustic waves transmitted directly from the transmitter via the structure (2, 2a, 2b) and the second signal is generated by the receiver (4, 4a, 4b) due to acoustic volume sound waves in the medium which were induced by the acoustic waves in the structure and which travel towards the receiver.
A method of producing a fibrous web, according to which method - a fibrous web is formed of a foamed fibre dispersion, by using foam forming, characterised in that - the foamed fibre dispersion comprises recycled textile fibres and optionally natural fibres or synthetic fibres or a mixture thereof, at least 50% by weight of the fibres in the fibre layer being sourced from recycled textile fibres; and - a sufficient quantity of binder is applied onto the fibre layer such that the tensile strength of the dried fibrous web, crosswise to the machine direction, is more than 1 kN/m, and - said forming does not comprise any hydroentangling. - a fibrous web is formed of a foamed fibre dispersion, by using foam forming, characterised in that - the foamed fibre dispersion comprises recycled textile fibres and optionally natural fibres or synthetic fibres or a mixture thereof, at least 50% by weight of the fibres in the fibre layer being sourced from recycled textile fibres; and - a sufficient quantity of binder is applied onto the fibre layer such that the tensile strength of the dried fibrous web, crosswise to the machine direction, is more than 1 kN/m, and - said forming does not comprise any hydroentangling.
A method of sanitizing a seat surface in an aircraft cabin comprising steps of: a) providing a sanitization device including a mobile body configured to travel along an aisle of an aircraft, and having a sanitization device extending from the mobile device extendible across the seat surface, a source of ultraviolet "C" radiation being mounted on the mobile body; b) moving the sanitization device across the seat surface; and c) exposing the seat surface to UVC radiation produced by the source, wherein the mobile body moves along an aisle of an aircraft cabin while the device travels over multiple seat surfaces and directs said source of UVC radiation to the seat surfaces at a predetermined dosage; and whereby at least two articulated arms mounted to the mobile body with UVC lamps mounted on the arms are extended over the seats as the mobile body travels along an aircraft aisle, the mobile body being powered by a power source on board the mobile device. a) providing a sanitization device including a mobile body configured to travel along an aisle of an aircraft, and having a sanitization device extending from the mobile device extendible across the seat surface, a source of ultraviolet "C" radiation being mounted on the mobile body; b) moving the sanitization device across the seat surface; and c) exposing the seat surface to UVC radiation produced by the source,
A composition for hair improvement comprising: a keratin polypeptide covalently bound to a hydrophilic polymer, wherein the molecular weight of the keratin polypeptide is 0.5 kDa to 40 kDa, wherein the hydrophilic polymer is a mono-functional polyethylene glycol compound and wherein the composition is water soluble and substantially free of formaldehyde.