mhurhangee/patent-ind-claim-en huggingface dataset:
A method for authenticating a security element, with the steps: - supplying at least one request signal from a verification point (VS) to an end device by means of a network; - reading out the supplied request signal by the security element and generating at least one response signal by the security element while employing the supplied at least one request signal; and - transmitting the generated at least one response signal from the security element to the verification point (VS) for comparing the at least one response signal with a stored response signal, characterized in that upon a matching of the transmitted at least one response signal with a stored response signal, a positive authenticating is effected, wherein the request signal is read out by the security element by means of imaging methods, wherein the request signal has a screen position in which the request signal is displayed, wherein the response signal is supplied by the security element by means of at least one LED, wherein the response signal of the security element is supplied to a camera, wherein the camera transfers the response signal to the verification point by means of the internet connection. - supplying at least one request signal from a verification point (VS) to an end device by means of a network; - reading out the supplied request signal by the security element and generating at least one response signal by the security element while employing the supplied at least one request signal; and - transmitting the generated at least one response signal from the security element to the verification point (VS) for comparing the at least one response signal with a stored response signal,
A permanent current switch apparatus configured to be electrically connected to a superconducting coil via a superconducting wire , characterized in that the permanent current switch apparatus comprises a plurality of parallel structures (JP1, JP2, JP3, JP4) with thermal permanent current switches (160, PC1-PC8) connected in parallel, the thermal permanent current switches being capable of switching between conducting and interrupting an electric current flowing through the superconducting wire (163, SU), wherein the parallel structures (JP1, JP2, JP3, JP4) are connected in series. a plurality of parallel structures (JP1, JP2, JP3, JP4) with thermal permanent current switches (160, PC1-PC8) connected in parallel, the thermal permanent current switches being capable of switching between conducting and interrupting an electric current flowing through the superconducting wire (163, SU), wherein the parallel structures (JP1, JP2, JP3, JP4) are connected in series.
A method for making a preform comprising a consolidated population of cohesive composite chips wherein said preform comprises an exterior surface which forms the surface of a composite part upon molding of said preform , said method comprising the steps of: providing non-agglomerating composite chips , said non-agglomerating composite chips each comprising fibers and an uncured thermosetting resin wherein the non-agglomerating composite chips are at a temperature such that the tackiness of said uncured thermosetting resin is sufficiently low to prevent agglomeration of said non-agglomerating composite chips ; forming a stream comprising said non-agglomerating composite chips ; providing a preform tool (22a-f) which comprises walls that form a cavity for receiving said stream of non-agglomerating composite chips , wherein at least one of said walls defines said exterior surface of the preform ; directing said stream of non-agglomerating composite chips to said preform tool (22a-f) in order to fill said cavity with a population of non-cohesive composite chips ; increasing the temperature of said population of non-cohesive composite chips to form said preform comprising a consolidated population of cohesive composite chips wherein said cohesive composite chips each comprises said fibers and said uncured thermosetting resin wherein said cohesive composite chips are at a temperature such that the tackiness of said uncured thermosetting resin is sufficiently high to cause cohesion of said cohesive composite chips to form said preform ; and removing said preform from said preform tool (22a-f). providing non-agglomerating composite chips , said non-agglomerating composite chips each comprising fibers and an uncured thermosetting resin wherein the non-agglomerating composite chips are at a temperature such that the tackiness of said uncured thermosetting resin is sufficiently low to prevent agglomeration of said non-agglomerating composite chips ; forming a stream comprising said non-agglomerating composite chips ; providing a preform tool (22a-f) which comprises walls that form a cavity for receiving said stream of non-agglomerating composite chips , wherein at least one of said walls defines said exterior surface of the preform ; directing said stream of non-agglomerating composite chips to said preform tool (22a-f) in order to fill said cavity with a population of non-cohesive composite chips ; increasing the temperature of said population of non-cohesive composite chips to form said preform comprising a consolidated population of cohesive composite chips wherein said cohesive composite chips each comprises said fibers and said uncured thermosetting resin wherein said cohesive composite chips are at a temperature such that the tackiness of said uncured thermosetting resin is sufficiently high to cause cohesion of said cohesive composite chips to form said preform ; and removing said preform from said preform tool (22a-f).
A method for monitoring an orbit of a satellite including a body having two opposite faces substantially parallel to each other each comprising at least one heater, the method being characterised in that it includes: - a step of determining an evolution of a free drift of an argument of latitude (u) of the satellite ; - a step of monitoring the drift of the argument of latitude (u) of the satellite during which a thermal setpoint law is applied to at least one of the heaters, according to the solar elevation β, to create a target thermal power difference ΔPc between the two opposite faces, which thermal power difference is at the origin of a force having a component tangential to an orbit of the satellite intended to counterbalance the free drift of the argument of latitude (u) of the satellite and allow the argument of latitude (u) to stay within a predetermined angular window. - a step of determining an evolution of a free drift of an argument of latitude (u) of the satellite ; - a step of monitoring the drift of the argument of latitude (u) of the satellite during which a thermal setpoint law is applied to at least one of the heaters, according to the solar elevation β, to create a target thermal power difference ΔPc between the two opposite faces, which thermal power difference is at the origin of a force having a component tangential to an orbit of the satellite intended to counterbalance the free drift of the argument of latitude (u) of the satellite and allow the argument of latitude (u) to stay within a predetermined angular window.
Method for checking measurement parameter settings for the operation of a coordinate measuring machine , wherein the coordinate measuring machine is configured to measure a workpiece in accordance with at least one settable measurement parameter, and wherein the method is carried out in an automated manner and comprises: a) repeatedly measuring (S2) a workpiece using the coordinate measuring machine and with a defined setting of the measurement parameter, wherein spatial coordinates of measurement points on the workpiece surface are determined; b) calculating (S3) a value of a variable which describes a reproducibility of measurement results determined with the measurements from a) ; c) changing (S4) the setting of the measurement parameter and carrying out a) and b) again. wherein the coordinate measuring machine is configured to measure a workpiece in accordance with at least one settable measurement parameter, and wherein the method is carried out in an automated manner and comprises: a) repeatedly measuring (S2) a workpiece using the coordinate measuring machine and with a defined setting of the measurement parameter, wherein spatial coordinates of measurement points on the workpiece surface are determined; b) calculating (S3) a value of a variable which describes a reproducibility of measurement results determined with the measurements from a) ; c) changing (S4) the setting of the measurement parameter and carrying out a) and b) again. a) repeatedly measuring (S2) a workpiece using the coordinate measuring machine and with a defined setting of the measurement parameter, wherein spatial coordinates of measurement points on the workpiece surface are determined; b) calculating (S3) a value of a variable which describes a reproducibility of measurement results determined with the measurements from a) ; c) changing (S4) the setting of the measurement parameter and carrying out a) and b) again.
Method for operating a combustion machine having an internal combustion engine , a fresh-gas tract , an exhaust-gas tract and a cooling system which comprises a surroundings heat exchanger and a cooling channel of the internal combustion engine , wherein a NOx storage catalytic converter and/or a particle filter are integrated into the exhaust-gas tract , and wherein, as a measure for desulphurizing the NOx storage catalytic converter and/or for regenerating the particle filter , the temperature of the exhaust gas flowing through the exhaust-gas tract is temporarily set to at least a minimum value required for this, characterized in that , before and/or during the measure for desulphurizing the NOx storage catalytic converter and/or for regenerating the particle filter , by means of an increase of the cooling power for the coolant flowing in the cooling system, the temperature of the coolant at a location downstream of the surroundings heat exchanger and/or upstream of the internal combustion engine is lowered to a value range which lies below that which is provided at said location without the measure for desulphurizing the NOx storage catalytic converter and/or for regenerating the particle filter in a corresponding operating state of the internal combustion engine .
Photochromic metal hydride device for use in a window, the photochromic metal hydride device having a variable transparency and comprising: - a transparent substrate being impermeable to oxygen and hydrogen; - at least one layer including a photochromic yttrium hydride having a chosen band gap, and - a transparent deposited capping layer positioned on the opposite side of the photochromic yttrium hydride layer from the substrate , said capping layer being impermeable to oxygen and hydrogen so as to maintain the concentration of hydrogen in said yttrium hydride and protect the photochromic yttrium hydride from oxidation. - a transparent substrate being impermeable to oxygen and hydrogen; - at least one layer including a photochromic yttrium hydride having a chosen band gap, and - a transparent deposited capping layer positioned on the opposite side of the photochromic yttrium hydride layer from the substrate , said capping layer being impermeable to oxygen and hydrogen so as to maintain the concentration of hydrogen in said yttrium hydride and protect the photochromic yttrium hydride from oxidation.
A blue organic electroluminescent device, comprising: a substrate ; an anode layer disposed on the substrate; a light emitting layer disposed on the anode layer, the light emitting layer being formed from a blue organic fluorescent material and a hole-type organic host material, wherein an excited state energy of the blue organic fluorescent material is lower than an excited state energy of the hole-type organic host material; and a cathode layer disposed on the light emitting layer, wherein the blue organic fluorescent material is 2,2'-(9,10-anthracenediyl-di-4,1-phenylene)bis[6-methyl-benzothiazole], and characterized in that the blue organic fluorescent material is 8.0% to 25.0% by mass of the hole-type organic host material, and the hole-type organic host material is one or more selected from the group consisting of 4,4'-di(9-carbazolyl)biphenyl, 1,3-di(carbazol-9-yl)benzene, 9,9'-(5-(triphenylsilyl)-1,3-phenylene)bis-9H-carbazole, 1,3,5-tri(9-carbazolyl)benzene, 4,4',4"-tri(carbazol-9-yl)triphenylamine and 4,4'-bis(triphenylsilyl)biphenyl. a substrate ; an anode layer disposed on the substrate; a light emitting layer disposed on the anode layer, the light emitting layer being formed from a blue organic fluorescent material and a hole-type organic host material, wherein an excited state energy of the blue organic fluorescent material is lower than an excited state energy of the hole-type organic host material; and a cathode layer disposed on the light emitting layer, wherein the blue organic fluorescent material is 2,2'-(9,10-anthracenediyl-di-4,1-phenylene)bis[6-methyl-benzothiazole], and characterized in that the blue organic fluorescent material is 8.0% to 25.0% by mass of the hole-type organic host material, and the hole-type organic host material is one or more selected from the group consisting of 4,4'-di(9-carbazolyl)biphenyl, 1,3-di(carbazol-9-yl)benzene, 9,9'-(5-(triphenylsilyl)-1,3-phenylene)bis-9H-carbazole, 1,3,5-tri(9-carbazolyl)benzene, 4,4',4"-tri(carbazol-9-yl)triphenylamine and 4,4'-bis(triphenylsilyl)biphenyl.
A system for tissue ablation that includes a radiofrequency generator , a radiofrequency ablation electrode , a cooling system to cool the ablation electrode, and a controller; wherein the radiofrequency generator is configured to deliver a radiofrequency signal to the ablation electrode; wherein the controller is configured to automatically produce a sequence of on periods and off periods; wherein the controller is configured to regulate the signal level during each on period to heat tissue in order to increase the volume of ablated tissue and to produce boiling in the tissue; wherein the controller is configured to reduce the signal level during each off period to allow for cooling of heated tissue; wherein the controller is configured to terminate an on period based in part on a measured indication of boiling in the tissue; and wherein the controller is configured to both increase and decrease the regulated signal level delivered during on periods, characterized in that the controller is further configured to increase the signal level during each on period as a function of the duration of the present on period.
A luminaire controller connectable to a luminaire, the luminaire controller comprising: a mains power connection ; a central processing module ; an internal power supply ; and an isolated supply connected via the internal power supply to the mains power connection and connected via a data transfer line to the central processing module , the isolated supply being operable for providing dimming signals to the luminaire; wherein the isolated supply comprises both a digital addressable lighting interface and a `0-10V' interface , and wherein the central processing module is operable to configure one of the interfaces for supplying the dimming signals to the luminaire in accordance with a mode of operation of the luminaire, said dimming signals being provided as an output of the isolated supply for the luminaire. a mains power connection ; a central processing module ; an internal power supply ; and an isolated supply connected via the internal power supply to the mains power connection and connected via a data transfer line to the central processing module , the isolated supply being operable for providing dimming signals to the luminaire; wherein the isolated supply comprises both a digital addressable lighting interface and a `0-10V' interface , and wherein the central processing module is operable to configure one of the interfaces for supplying the dimming signals to the luminaire in accordance with a mode of operation of the luminaire, said dimming signals being provided as an output of the isolated supply for the luminaire.
Thermal conditioning device for a hybrid or electric motor vehicle, comprising: - a first circuit in which a refrigerant is able to circulate; - a second circuit in which a heat-transport fluid is able to circulate; said first circuit comprising at least a compressor , a condenser , an evaporator-condenser configured to have an exterior air flow pass through it and an evaporator intended to thermally condition an air flow intended for the vehicle interior, said second circuit comprising at least a pump and a cooling radiator , in which device: - the cooling radiator is positioned in such a way as to be able to have at least part of the exterior air flow pass through it, - the condenser , referred to as a water-cooled condenser, thermally couples the first and second circuits and is positioned, on the first circuit , directly downstream of the compressor ; the device comprising a third circuit in which a heat-transport fluid circulates, said third circuit comprising a pump , an electric component of the vehicle and a heat exchanger thermally coupling the first and third circuits, the second and third circuits being interconnected, characterized in that the device comprises one or more valves configured to allow the heat-transport fluid to circulate independently in the second and third circuits. - a first circuit in which a refrigerant is able to circulate; - a second circuit in which a heat-transport fluid is able to circulate; said first circuit comprising at least a compressor , a condenser , an evaporator-condenser configured to have an exterior air flow pass through it and an evaporator intended to thermally condition an air flow intended for the vehicle interior, said second circuit comprising at least a pump and a cooling radiator , in which device: - the cooling radiator is positioned in such a way as to be able to have at least part of the exterior air flow pass through it, - the condenser , referred to as a water-cooled condenser, thermally couples the first and second circuits and is positioned, on the first circuit , directly downstream of the compressor ; - the cooling radiator is positioned in such a way as to be able to have at least part of the exterior air flow pass through it, - the condenser , referred to as a water-cooled condenser, thermally couples the first and second circuits and is positioned, on the first circuit , directly downstream of the compressor ; the device comprising a third circuit in which a heat-transport fluid circulates, said third circuit comprising a pump , an electric component of the vehicle and a heat exchanger thermally coupling the first and third circuits, the second and third circuits being interconnected, characterized in that the device comprises one or more valves configured to allow the heat-transport fluid to circulate independently in the second and third circuits.
A method for monitoring use of an absorbent product worn by a user , characterised in that the absorbent product is a male or female incontinence protector, a sanitary pad, a diaper with tape fastener, a pant diaper or a belted diaper, and in that the method comprises the steps of: - obtaining (S3), by means of a mobile device , capacity information related to the capacity of the absorbent product , - detecting (S4), by means of an odour sensor device (3a;3b) capable of being carried by the user and configured to communicate with said mobile device of the user, at least one chemical indicative of a presence of urine and/or faeces in the product, wherein the odour sensor device (3a;3b) is carried in a pocket of clothing of the user , or attached to the clothing of the user , or wherein the odour sensor device is realised in form of an adapter that is detachably connectable to the mobile device , - transmitting (S5), from said odour sensor device (3a;3b) to said mobile device , a signal indicative of said detection wherein said signal is indicative of the concentration of the at least one detected chemical, - receiving (S6), in said mobile device, the signal indicative of the detection, - providing (S7), by means of said mobile device, product-related information based on both said signal received from the odour sensor device and said capacity information. - obtaining (S3), by means of a mobile device , capacity information related to the capacity of the absorbent product , - detecting (S4), by means of an odour sensor device (3a;3b) capable of being carried by the user and configured to communicate with said mobile device of the user, at least one chemical indicative of a presence of urine and/or faeces in the product, wherein the odour sensor device (3a;3b) is carried in a pocket of clothing of the user , or attached to the clothing of the user , or wherein the odour sensor device is realised in form of an adapter that is detachably connectable to the mobile device , - transmitting (S5), from said odour sensor device (3a;3b) to said mobile device , a signal indicative of said detection wherein said signal is indicative of the concentration of the at least one detected chemical, - receiving (S6), in said mobile device, the signal indicative of the detection, - providing (S7), by means of said mobile device, product-related information based on both said signal received from the odour sensor device and said capacity information.
A process for producing a composition comprising at least 20% by weight of cholesterol, based on 100% total weight of the composition, the process comprising the steps of: (a) distilling a fish oil having at most 2% by weight of free fatty acids, based on 100% total weight of the fish oil, in an admixture with an auxiliary fluid that comprises one or more ethyl esters of fatty acids in a vacuum distillation column at an evaporation temperature of 180 to 280 °C and a column pressure of 0.001 to 0.1 mbar to obtain a first distillate and a first residue; and (b) distilling the first distillate in a vacuum distillation column at an evaporation temperature between 140 and 220°C at a column pressure between 0.001 and 0.1 mbar to obtain a second distillate and a second residue, wherein (i) the second residue is a composition comprising at least 20% by weight cholesterol, based on the total weight of the composition, and (ii) the composition has a lower content of anthropogenic contaminants than the fish oil. (a) distilling a fish oil having at most 2% by weight of free fatty acids, based on 100% total weight of the fish oil, in an admixture with an auxiliary fluid that comprises one or more ethyl esters of fatty acids in a vacuum distillation column at an evaporation temperature of 180 to 280 °C and a column pressure of 0.001 to 0.1 mbar to obtain a first distillate and a first residue; and (b) distilling the first distillate in a vacuum distillation column at an evaporation temperature between 140 and 220°C at a column pressure between 0.001 and 0.1 mbar to obtain a second distillate and a second residue, wherein (i) the second residue is a composition comprising at least 20% by weight cholesterol, based on the total weight of the composition, and (ii) the composition has a lower content of anthropogenic contaminants than the fish oil.
An isolated antibody that binds to human Axl, wherein the antibody comprises (a) HVR-H1 comprising the amino acid sequence of SEQ ID NO:7, (b) HVR-H2 comprising the amino acid sequence of SEQ ID NO:8, (c) HVR-H3 comprising the amino acid sequence of SEQ ID NO:9; (d) HVR-L1 comprising the amino acid sequence of SEQ ID NO:10; (e) HVR-L2 comprising the amino acid sequence of SEQ ID NO: 11; and (f) HVR-L3 comprising the amino acid sequence of SEQ ID NO:12.