mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising means for: providing (5.1), based on a position associated with a display means, different first and second sets of virtual content for overlaid display at the display means at a first time; determining (5.2) that the first set of virtual content is prioritized over the second set of virtual content; based on the determination: prioritizing display (5.3) of the first set of virtual content over the second set of virtual content at the display means by causing display of the first set of virtual content and not the second set of virtual content at the first time; the apparatus being characterized by further comprising means for: causing capture (5.4), by a camera associated with the display means, of a real-world image at the first time and associating at least a segment of the captured image with the second virtual content; and enabling display of the second set of virtual content at a second, subsequent, time with at least the segment of the captured image. providing (5.1), based on a position associated with a display means, different first and second sets of virtual content for overlaid display at the display means at a first time; determining (5.2) that the first set of virtual content is prioritized over the second set of virtual content; based on the determination: prioritizing display (5.3) of the first set of virtual content over the second set of virtual content at the display means by causing display of the first set of virtual content and not the second set of virtual content at the first time; the apparatus being characterized by further comprising means for: causing capture (5.4), by a camera associated with the display means, of a real-world image at the first time and associating at least a segment of the captured image with the second virtual content; and enabling display of the second set of virtual content at a second, subsequent, time with at least the segment of the captured image. prioritizing display (5.3) of the first set of virtual content over the second set of virtual content at the display means by causing display of the first set of virtual content and not the second set of virtual content at the first time; the apparatus being characterized by further comprising means for: causing capture (5.4), by a camera associated with the display means, of a real-world image at the first time and associating at least a segment of the captured image with the second virtual content; and enabling display of the second set of virtual content at a second, subsequent, time with at least the segment of the captured image. causing capture (5.4), by a camera associated with the display means, of a real-world image at the first time and associating at least a segment of the captured image with the second virtual content; and enabling display of the second set of virtual content at a second, subsequent, time with at least the segment of the captured image.
A vaccine against respiratory syncytial virus, comprising a recombinant human adenovirus of serotype 35 that comprises nucleic acid encoding a RSV F protein.
A power supply device, comprising: a first battery pack configured to supply power to a load; a first ground unit which is connected between a first relay which is connected to the first battery pack to connect and disconnect power supplying of the battery pack and the first battery pack; a second battery pack configured to supply power to the load; a second ground unit which is connected between a second relay which is connected to the second battery pack to connect and disconnect power supplying of the battery pack and the second battery pack; and a voltage measuring unit, characterized in that: the voltage measurement unit is configured to measure voltages of both ends of the first relay and voltages of both ends of the second relay and to compare said measured voltages of both ends of respective relay (130, 131), wherein the first ground unit and the second ground unit are independent ground units provided between respective battery pack and the respective relay connected to the battery pack to detect failure of the respective relay by determining whether the measured voltages of both ends of the respective relay are equal to each other.. a first battery pack configured to supply power to a load; a first ground unit which is connected between a first relay which is connected to the first battery pack to connect and disconnect power supplying of the battery pack and the first battery pack; a second battery pack configured to supply power to the load; a second ground unit which is connected between a second relay which is connected to the second battery pack to connect and disconnect power supplying of the battery pack and the second battery pack; and a voltage measuring unit, characterized in that: the voltage measurement unit is configured to measure voltages of both ends of the first relay and voltages of both ends of the second relay and to compare said measured voltages of both ends of respective relay (130, 131), wherein the first ground unit and the second ground unit are independent ground units provided between respective battery pack and the respective relay connected to the battery pack to detect failure of the respective relay by determining whether the measured voltages of both ends of the respective relay are equal to each other.. the voltage measurement unit is configured to measure voltages of both ends of the first relay and voltages of both ends of the second relay and to compare said measured voltages of both ends of respective relay (130, 131), wherein the first ground unit and the second ground unit are independent ground units provided between respective battery pack and the respective relay connected to the battery pack to detect failure of the respective relay by determining whether the measured voltages of both ends of the respective relay are equal to each other..
A method of manufacturing at least a portion of a wind turbine blade, wherein the method comprises the steps of: providing a first blade shell having a first edge, providing a second blade shell having a second edge, and joining said first blade shell to said second blade shell along at least a portion of said first edge and said second edge by providing an overlamination extending between said first edge and said second edge, wherein said overlamination is applied to external surfaces of said first edge and said second edge, and characterised in that said joining is performed without a structural adhesive, wherein along at least a portion of said first edge and said second edge said blade shells are joined solely using the overlamination. providing a first blade shell having a first edge, providing a second blade shell having a second edge, and joining said first blade shell to said second blade shell along at least a portion of said first edge and said second edge by providing an overlamination extending between said first edge and said second edge, wherein said overlamination is applied to external surfaces of said first edge and said second edge, and characterised in that said joining is performed without a structural adhesive, wherein along at least a portion of said first edge and said second edge said blade shells are joined solely using the overlamination.
A communication method of a user equipment, UE, in a wireless communication system, the method comprising: determining whether uplink transmission in a subframe n+1 is to be overlapped in a time domain between data reception by the UE in a subframe n and data transmission by the UE in the subframe n+1 of a serving cell, the data reception for device-to-device, D2D, communication and the data transmission for uplink transmission to the serving cell; and dropping the data reception in the subframe n, if it is determined that the uplink transmission in the subframe n+1 is to be overlapped, wherein the determining whether the uplink transmission in a subframe n+1 is to be overlapped comprises, if the data reception is reception of a D2D discovery signal, and a time of a D2D transmission gap is less than a summation of a switch time from reception to transmission for the data transmission in the subframe n+1 and a timing advance for the transmission in the subframe n+1, determining that the uplink transmission in the subframe n+1 is to be overlapped, or if the data reception is reception of D2D data, and a transmission start time in the subframe n+1 is less than {a reception start time for reception of D2D data in the subframe n + a length of the subframe n - a D2D transmission gap time + a switch time from reception to transmission for the data transmission in the subframe n+1}, determining that the uplink transmission in the subframe n+1 is to be overlapped. determining whether uplink transmission in a subframe n+1 is to be overlapped in a time domain between data reception by the UE in a subframe n and data transmission by the UE in the subframe n+1 of a serving cell, the data reception for device-to-device, D2D, communication and the data transmission for uplink transmission to the serving cell; and dropping the data reception in the subframe n, if it is determined that the uplink transmission in the subframe n+1 is to be overlapped, wherein the determining whether the uplink transmission in a subframe n+1 is to be overlapped comprises, if the data reception is reception of a D2D discovery signal, and a time of a D2D transmission gap is less than a summation of a switch time from reception to transmission for the data transmission in the subframe n+1 and a timing advance for the transmission in the subframe n+1, determining that the uplink transmission in the subframe n+1 is to be overlapped, or if the data reception is reception of D2D data, and a transmission start time in the subframe n+1 is less than {a reception start time for reception of D2D data in the subframe n + a length of the subframe n - a D2D transmission gap time + a switch time from reception to transmission for the data transmission in the subframe n+1}, determining that the uplink transmission in the subframe n+1 is to be overlapped.
Rebamipide for use in a method of prevention and/or treatment of Crohn's disease, wherein the method is a combination therapy with at least one other drug effective against Crohn's disease that comprises the following steps: - administering rebamipide as an add-on to a treatment with at least one other drug effective against Crohn's disease; and - decreasing the dose of said other drug after symptom improvement. - administering rebamipide as an add-on to a treatment with at least one other drug effective against Crohn's disease; and - decreasing the dose of said other drug after symptom improvement.
A method of producing an electrical through connection between a first surface and a second surface of a flexible substrate, comprising the steps of: a. in a first step, providing a cut on an area of the flexible substrate, wherein the cut extends from the first surface to the second surface and separates the area into at least a first part and a second part; b. raising up at least one of the first part and the second part from a first plane of the first surface; c. printing a first wet conductive layer on the first surface, wherein the first wet conductive layer is on and around the cut; d. solidifying the first wet conductive layer into a first dried conductive layer; e. raising up at least one of the first part and the second part from a second plane of the second surface; f. printing a second wet conductive layer on the second surface, wherein the second wet conductive layer is on and around the cut; and g. solidifying the second wet conductive layer into a second dried conductive layer, wherein the first dried conductive layer and the second dried conductive layer create the electrical through connection. a. in a first step, providing a cut on an area of the flexible substrate, wherein the cut extends from the first surface to the second surface and separates the area into at least a first part and a second part; b. raising up at least one of the first part and the second part from a first plane of the first surface; c. printing a first wet conductive layer on the first surface, wherein the first wet conductive layer is on and around the cut; d. solidifying the first wet conductive layer into a first dried conductive layer; e. raising up at least one of the first part and the second part from a second plane of the second surface; f. printing a second wet conductive layer on the second surface, wherein the second wet conductive layer is on and around the cut; and g. solidifying the second wet conductive layer into a second dried conductive layer, wherein the first dried conductive layer and the second dried conductive layer create the electrical through connection.
A method of providing low power Multiple Frequency Pulsed Wave measurement of a distance to a surface of a product kept in a tank, said method comprising: - transmitting (step S3) low power electromagnetic transmit signals towards said surface, - receiving (step S4) electromagnetic return signals reflected at said surface, - determining said distance based on an initially estimated distance and a relationship between said transmit signals and said return signals, - said transmit signals being formed as a pulse train of distinct carrier wave pulses having a duration greater than 1 microsecond and shorter than 100 milliseconds, - said pulse train having an average duty cycle of less than 50 percent, - each pulse having a defined center frequency, selected according to a frequency scheme within a predetermined frequency range, - said predetermined frequency range being greater than 5% of an average center frequency, - determining (step S5) actual phase properties of each distinct pulse received in relation to each corresponding distinct pulse transmitted, - determining, based on said initially estimated distance, expected phase properties of each received distinct pulse in relation to each corresponding transmitted distinct pulse, and - correlating (step S7) said actual phase properties with said expected phase properties to provide an updated estimation of said distance. - transmitting (step S3) low power electromagnetic transmit signals towards said surface, - receiving (step S4) electromagnetic return signals reflected at said surface, - determining said distance based on an initially estimated distance and a relationship between said transmit signals and said return signals, - said transmit signals being formed as a pulse train of distinct carrier wave pulses having a duration greater than 1 microsecond and shorter than 100 milliseconds, - said pulse train having an average duty cycle of less than 50 percent, - each pulse having a defined center frequency, selected according to a frequency scheme within a predetermined frequency range, - said predetermined frequency range being greater than 5% of an average center frequency, - determining (step S5) actual phase properties of each distinct pulse received in relation to each corresponding distinct pulse transmitted, - determining, based on said initially estimated distance, expected phase properties of each received distinct pulse in relation to each corresponding transmitted distinct pulse, and - correlating (step S7) said actual phase properties with said expected phase properties to provide an updated estimation of said distance.
Solar collector comprising a natural circulation solar system (100; 200) within a containment box structure, having a lower face, four perimeter faces and an upper face closed by a transparent surface, said natural circulation solar system (100; 200) comprising: an upper absorber (5, 13), to be exposed to solar irradiation, provided under said transparent surface, an accumulation and natural circulation primary circuit of a primary thermal carrier fluid, at least a secondary abduction, withdrawal and natural circulation conduct of a secondary fluid, and at least a heat exchanger for exchanging heat between said primary heat carrier fluid and said secondary fluid, said at least a secondary conduct comprising at least an inlet opening and an outlet opening of said secondary fluid that can be reached from outside said containment box structure, said primary circuit providing at least a first portion, thermally communicating with said upper absorber and provided under it, and at least a second portion thermally communicating with said at least a secondary conduct in correspondence of said heat exchanger, said second portion and said at least a secondary conduct being provided under said at least a first portion, and an insulating material layer being provided between at least a first portion of said primary circuit and said at least a secondary conduct so that, when said primary heat carrier fluid flows by natural circulation within said primary circuit, said primary thermal carrier fluid and said secondary fluid circulate with a counter-current circulation within said heat exchanger.
A flight vehicle comprising: a wing unit; a battery that is arranged in the wing unit; an air intake unit that is formed at a position corresponding to the battery on a front side of the wing unit; a heat sink unit that is arranged for the battery and cools the battery by air which flows in from the air intake unit and that includes a ventilation unit having a shape widening from the front side toward a rear side; and an exhaust unit that is formed at a position corresponding to the battery on the rear side of the wing unit and that exhausts air which flows out from the heat sink unit, characterized in that the wing unit includes a main wing, and a movable wing connected to the main wing via a hinge unit, and the exhaust unit has an exhaust port between the main wing and the hinge unit. a wing unit; a battery that is arranged in the wing unit; an air intake unit that is formed at a position corresponding to the battery on a front side of the wing unit; a heat sink unit that is arranged for the battery and cools the battery by air which flows in from the air intake unit and that includes a ventilation unit having a shape widening from the front side toward a rear side; and an exhaust unit that is formed at a position corresponding to the battery on the rear side of the wing unit and that exhausts air which flows out from the heat sink unit, characterized in that the wing unit includes a main wing, and a movable wing connected to the main wing via a hinge unit, and the exhaust unit has an exhaust port between the main wing and the hinge unit.
A method for producing a green compact for a flexible bar with high tensile strength consisting of an oxide ceramic fiber composite material, wherein the green compact has a core consisting of a plurality of oxide ceramic multifilament fibers, wherein the core is embedded in a matrix consisting of a sinterable metal oxide, comprising the following method steps: a. forming a continuous roving by forming a positively guided bundle of endless oxide ceramic multifilament fibers, wherein the multifilament fibers are unidirectionally oriented in the roving along the direction of the positive guidance, b. infiltrating the roving with a slurry including a fine-grained sinterable metal oxide in an aqueous suspension, c. adjusting a desired cross-sectional shape of the infiltrated roving by a mechanical treatment of the infiltrated roving by the infiltrated roving being passed through at least one mechanical orifice, and d. drying the infiltrated roving for forming a green compact until the content of moisture of the infiltrated roving, which is adjusted with respect to its cross-sectional shape, is reduced to the extent that a flowing deformation of the slurry in the infiltrated roving is substantially no longer possible. a. forming a continuous roving by forming a positively guided bundle of endless oxide ceramic multifilament fibers, wherein the multifilament fibers are unidirectionally oriented in the roving along the direction of the positive guidance, b. infiltrating the roving with a slurry including a fine-grained sinterable metal oxide in an aqueous suspension, c. adjusting a desired cross-sectional shape of the infiltrated roving by a mechanical treatment of the infiltrated roving by the infiltrated roving being passed through at least one mechanical orifice, and d. drying the infiltrated roving for forming a green compact until the content of moisture of the infiltrated roving, which is adjusted with respect to its cross-sectional shape, is reduced to the extent that a flowing deformation of the slurry in the infiltrated roving is substantially no longer possible.
A method of producing a non-human, mammalian oocyte carrying a modified target sequence in its genome, the method comprising the steps of introducing into a non-human, mammalian oocyte: (a) a clustered, regularly interspaced, short palindromic repeats (CRISPR)-associated protein 9 (Cas9 protein) or a nucleic acid molecule encoding said Cas9; and (b-i) a target sequence specific CRISPR RNA (crRNA) and a trans-activating crRNA (tracr RNA) or a nucleic acid molecule encoding said RNAs; or (b-ii) a chimaeric RNA sequence comprising a target sequence specific crRNA and tracrRNA or a nucleic acid molecule encoding said RNA; wherein the Cas9 protein introduced in (a) and the RNA sequence(s) introduced in (bi) or (b-ii) are injected into both the nucleus/pronucleus and the cytoplasm of said oocyte, or wherein the Cas9 protein introduced in (a) and the RNA sequences introduced in (b-i) or (b-ii) are introduced into the oocyte by electroporation, and wherein the Cas9 protein introduced in (a) and the RNA sequence(s) introduced in (b-i) or (b-ii) form a protein/RNA complex that specifically binds to the target sequence and introduces a single or double strand break within the target sequence. (a) a clustered, regularly interspaced, short palindromic repeats (CRISPR)-associated protein 9 (Cas9 protein) or a nucleic acid molecule encoding said Cas9; and (b-i) a target sequence specific CRISPR RNA (crRNA) and a trans-activating crRNA (tracr RNA) or a nucleic acid molecule encoding said RNAs; or (b-ii) a chimaeric RNA sequence comprising a target sequence specific crRNA and tracrRNA or a nucleic acid molecule encoding said RNA;
A battery device having a battery case housing a plurality of battery module cases, each battery module case accommodating a multiplicity of battery cells, the battery device comprising: a pouring port (7, 8) provided in the battery case for pouring water into the battery case in order to forcibly discharge the battery cell if the battery device becomes unusable; and characterised in that an electroconductive superabsorbent polymer arranged inside the battery case, wherein gaps where a cooling fluid is allowed to be present are formed between the battery case and the battery cells, the superabsorbent polymer adapted to absorb water introduced from outside the battery case is arranged in the gaps, upon absorption of water, the superabsorbent polymer turns into a gel-like member between the battery cells and the battery case, and the water is held by the gel-like member to bring the gel-like member into contact with at least one of the battery module cases and the battery case. a pouring port (7, 8) provided in the battery case for pouring water into the battery case in order to forcibly discharge the battery cell if the battery device becomes unusable; and characterised in that an electroconductive superabsorbent polymer arranged inside the battery case, wherein gaps where a cooling fluid is allowed to be present are formed between the battery case and the battery cells, the superabsorbent polymer adapted to absorb water introduced from outside the battery case is arranged in the gaps, upon absorption of water, the superabsorbent polymer turns into a gel-like member between the battery cells and the battery case, and the water is held by the gel-like member to bring the gel-like member into contact with at least one of the battery module cases and the battery case.