mhurhangee/patent-ind-claim-en huggingface dataset:
A roofing, cladding, or siding apparatus comprising: a roofing, cladding, or siding module comprising: an underlapping region and an exposed region , wherein the underlapping region is adapted to be substantially covered by the exposed region of an adjacent overlapping module when installed on a building surface; an outer surface and an under surface , wherein a projection extending from the exposed region to provide a bearing surface facing the under surface of the exposed region, and one or more clips attachable to the underlapping region to provide a tongue adapted to be received between the bearing surface and the under surface of the exposed region of an adjacent overlapping module when installed on a building surface, characterised in that said one or more clips is or are rotatable, wherein the clip and the module are complementarily adapted for the clip to rotate between an extended position wherein the tongue is received between the bearing surface and the under surface of the exposed region of an adjacent module, and a retracted position wherein the tongue is withdrawn from between the bearing surface and the under surface of the exposed region of the adjacent module. a roofing, cladding, or siding module comprising: an underlapping region and an exposed region , wherein the underlapping region is adapted to be substantially covered by the exposed region of an adjacent overlapping module when installed on a building surface; an outer surface and an under surface , wherein a projection extending from the exposed region to provide a bearing an underlapping region and an exposed region , wherein the underlapping region is adapted to be substantially covered by the exposed region of an adjacent overlapping module when installed on a building surface; an outer surface and an under surface , wherein a projection extending from the exposed region to provide a bearing surface facing the under surface of the exposed region, and one or more clips attachable to the underlapping region to provide a tongue adapted to be received between the bearing surface and the under surface of the exposed region of an adjacent overlapping module when installed on a building surface, characterised in that said one or more clips is or are rotatable, wherein the clip and the module are complementarily adapted for the clip to rotate between an extended position wherein the tongue is received between the bearing surface and the under surface of the exposed region of an adjacent module, and a retracted position wherein the tongue is withdrawn from between the bearing surface and the under surface of the exposed region of the adjacent module.
A method comprising: communicating data on a configured set of component carriers of a wireless or mobile communications system; detecting a trigger for connection re-establishment. wherein the detecting comprises detecting a radio link failure of a predefined component carrier, wherein the predefined component carrier comprises a primary component carrier of the configured set of component carriers; identifying at least one component carrier in the configured set that can be used for the connection re-establishment; requesting for connection re-establishment through the at least one identified component carrier; and prioritising at least one cell providing at least one of the component carriers of the configured set over other cells available for the connection re-establishment in response to a radio link failure, wherein upon failure of the primary component carrier of the configured set, the at least one of the component carriers of the configured set of component carriers is prioritised for the re-establishment, wherein the cell that corresponds to a component carrier that belongs to the configured set is prioritised over cells that do not belong to the configured set of component carriers. communicating data on a configured set of component carriers of a wireless or mobile communications system; detecting a trigger for connection re-establishment. wherein the detecting comprises detecting a radio link failure of a predefined component carrier, wherein the predefined component carrier comprises a primary component carrier of the configured set of component carriers; identifying at least one component carrier in the configured set that can be used for the connection re-establishment; requesting for connection re-establishment through the at least one identified component carrier; and prioritising at least one cell providing at least one of the component carriers of the configured set over other cells available for the connection re-establishment in response to a radio link failure, wherein upon failure of the primary component carrier of the configured set, the at least one of the component carriers of the configured set of component carriers is prioritised for the re-establishment, wherein the cell that corresponds to a component carrier that belongs to the configured set is prioritised over cells that do not belong to the configured set of component carriers.
A composition comprising: (a) from 0.01 to 0.3 % by weight of acrylates/C 10-30 alkyl acrylate crosspolymer; (b) from 0.01 to 0.75% by weight of sodium polyacrylate; (c) from 0.05 to 5% by weight of acrylates dimethicone copolymer; (d) from 0.1 to 30% by weight of oil; (e) from 0.1 to 40% by weight of sunscreen active; and (f) remainder water, wherein the composition is clear in appearance and remains clear with no signs of whitening upon application on wet skin. (a) from 0.01 to 0.3 % by weight of acrylates/C 10-30 alkyl acrylate crosspolymer; (b) from 0.01 to 0.75% by weight of sodium polyacrylate; (c) from 0.05 to 5% by weight of acrylates dimethicone copolymer; (d) from 0.1 to 30% by weight of oil; (e) from 0.1 to 40% by weight of sunscreen active; and (f) remainder water,
A method of target capture in monodisperse droplets comprising: combining a plurality of capture template particles comprising a hydrogel and further comprising one or more tethering moieties, wherein each of the tethering moieties are attachable to one or more target particles, with a first fluid to provide a first mixture, wherein the first fluid comprises a plurality of target particles; incubating the first mixture to allow association of the plurality of target particles to the plurality of capture template particles, thereby a portion of the plurality of target particles become associated to the capture template particles; generating a supernatant and pellet from the first mixture, optionally by centrifuging; removing the supernatant to separate the plurality of capture template particles and associated target particles from the solution of the first mixture; washing and resuspending the pellet in a reaction buffer to provide a second mixture; combining the second mixture with a second fluid to provide a third mixture, wherein the second fluid is immiscible with the second mixture; and shearing the third mixture such that a plurality of the capture template particles are encapsulated in a plurality of monodisperse droplets in the second fluid, thereby providing a plurality of monodisperse droplets comprising reaction buffer, one of the capture template particles, and one of the plurality of target particles associated to said capture template particles. combining a plurality of capture template particles comprising a hydrogel and further comprising one or more tethering moieties, wherein each of the tethering moieties are attachable to one or more target particles, with a first fluid to provide a first mixture, wherein the first fluid comprises a plurality of target particles; incubating the first mixture to allow association of the plurality of target particles to the plurality of capture template particles, thereby a portion of the plurality of target particles become associated to the capture template particles; generating a supernatant and pellet from the first mixture, optionally by centrifuging; removing the supernatant to separate the plurality of capture template particles and associated target particles from the solution of the first mixture; washing and resuspending the pellet in a reaction buffer to provide a second mixture; combining the second mixture with a second fluid to provide a third mixture, wherein the second fluid is immiscible with the second mixture; and shearing the third mixture such that a plurality of the capture template particles are encapsulated in a plurality of monodisperse droplets in the second fluid, thereby providing a plurality of monodisperse droplets comprising reaction buffer, one of the capture template particles, and one of the plurality of target particles associated to said capture template particles.
A method of determining if an individual's cancer cell is sensitive to death receptor ligand (DRL)-induced cell death, the method comprising detecting, in a biological sample taken from the individual, for: (i) the presence of a mutant BAP1 gene or mutant BAP1 protein; (ii) a reduced level of expression of a wild-type BAP1 gene or a lower wild-type BAP1 protein concentration compared to the level of expression or protein concentration in a reference cell that is a BAP1 wild-type cell, which is resistant to DRL-induced cell death; or (iii) reduced or non-binding of an ASXL protein to a wild-type BAP1 protein compared to the level of binding in a reference cell that is a BAP1 wild-type cell, which is resistant to DRL-induced cell death; wherein the presence, in the sample, of the mutant BAP1 gene or the mutant BAP1 protein, or of a reduced level expression of the wild-type BAP1 gene or a lower protein concentration, or reduced or non-binding of an ASXL protein to a wild-type BAP1 protein, is indicative of the individual's cancer cell being sensitive to DRL-induced cell death. (i) the presence of a mutant BAP1 gene or mutant BAP1 protein; (ii) a reduced level of expression of a wild-type BAP1 gene or a lower wild-type BAP1 protein concentration compared to the level of expression or protein concentration in a reference cell that is a BAP1 wild-type cell, which is resistant to DRL-induced cell death; or (iii) reduced or non-binding of an ASXL protein to a wild-type BAP1 protein compared to the level of binding in a reference cell that is a BAP1 wild-type cell, which is resistant to DRL-induced cell death;
A method for carrying out, preferably on-line, the siliconing of glass bottles for pharmaceutical use comprising a step of internal siliconing of the bottle, wherein a bottle is arranged on a support that maintains the bottle oriented in a predetermined direction (X); characterised in that the step of siliconing comprises the steps of a)- contacting an inlet opening of the bottle arranged according to said predetermined direction with an injection device ; b)- selectively blocking the injector frontally against the opening of a bottle arranged on the support; c)- introducing into the bottle, by means of the injection device and through said inlet opening, a mixture of liquid silicone and compressed air in which the liquid silicone is present in excess with respect to a predetermined amount to be introduced into the bottle, providing a drainage path for the excess silicone and for the compressed air out of the bottle and through said inlet opening; d) - introducing into the bottle, by means of the same injection device and through said inlet opening, a flow of compressed air only to completely remove the excess silicone through the drainage path by means of the flow of compressed air. a)- contacting an inlet opening of the bottle arranged according to said predetermined direction with an injection device ; b)- selectively blocking the injector frontally against the opening of a bottle arranged on the support; c)- introducing into the bottle, by means of the injection device and through said inlet opening, a mixture of liquid silicone and compressed air in which the liquid silicone is present in excess with respect to a predetermined amount to be introduced into the bottle, providing a drainage path for the excess silicone and for the compressed air out of the bottle and through said inlet opening; d) - introducing into the bottle, by means of the same injection device and through said inlet opening, a flow of compressed air only to completely remove the excess silicone through the drainage path by means of the flow of compressed air.
A method comprising: receiving, by a computing device, audio comprising a voice command and background noise; determining, based on speech recognition, that the voice command is associated with a plurality of devices; identifying, based on a comparison of the background noise to a database of audio fingerprints, a content item audio in the background noise; selecting, based on the identified content item audio, a device of the plurality of devices, that outputted the content item audio; and causing an action determined based on the voice command to be executed on the selected device. receiving, by a computing device, audio comprising a voice command and background noise; determining, based on speech recognition, that the voice command is associated with a plurality of devices; identifying, based on a comparison of the background noise to a database of audio fingerprints, a content item audio in the background noise; selecting, based on the identified content item audio, a device of the plurality of devices, that outputted the content item audio; and causing an action determined based on the voice command to be executed on the selected device.
A nozzle guide vane for use with a gas turbine engine with an integrally formed angled nozzle , including a radially outer platform and an radially inner platform with an airfoil extending therebetween, having at least one internal cooling air passage extending between the respective platforms , wherein a cooling air outlet is provided in the radially inner platform which cooling air outlet is in fluid communication with the internal cooling air passage , opens to an inter stage cavity between two stages of the gas turbine engine and is formed as part of the angled nozzle with an outlet axis being angled with respect to a radial direction (R) of the gas turbine engine , characterized in that a transition area between a radially outwards facing part of the angled nozzle and an at least approximately linear outlet part of the angled nozzle comprising the outlet axis is formed as a curved conduit bend .
A method of manufacturing a liquid discharge head having a flow path communicating with a discharge port for discharging liquid, comprising, in the following order: preparing a substrate , which has an energy generation element on its surface for generating liquid discharge energy, with an evenly provided first layer on said surface; forming, from the first layer, a pattern of the flow path above the energy generation element for forming the flow path, and a first member provided outside the pattern via a gap ; providing a second layer to fill the gap and to cover the pattern and the first member; and forming, from the second layer, a second member for forming the discharge port above the pattern and a side wall portion of the flow path from the filled gap; characterized by removing the first member and providing, at least at the position of the first member on the substrate, a third layer to hold the substrate in intimate contact with the second member and to strengthen the sidewall portion of the flow path; and removing the pattern to form the flow path. preparing a substrate , which has an energy generation element on its surface for generating liquid discharge energy, with an evenly provided first layer on said surface; forming, from the first layer, a pattern of the flow path above the energy generation element for forming the flow path, and a first member provided outside the pattern via a gap ; providing a second layer to fill the gap and to cover the pattern and the first member; and forming, from the second layer, a second member for forming the discharge port above the pattern and a side wall portion of the flow path from the filled gap; characterized by removing the first member and providing, at least at the position of the first member on the substrate, a third layer to hold the substrate in intimate contact with the second member and to strengthen the sidewall portion of the flow path; and removing the pattern to form the flow path.
A method for controlling charging, applying to electronic equipment , the method comprising: determining (S100) an energy region covering second electronic equipment by scanning energy regions coverable respectively by energy radiated by the electronic equipment in distinct directions; determining (S200) an energy sub-region covering the second electronic equipment by scanning energy sub-regions (311-314, 321-324) of the energy region covering the second electronic equipment , the energy sub-regions (311-314, 321-324) being coverable respectively by the energy radiated in distinct directions; radiating (S300) a wireless charging signal toward the energy sub-region covering the second electronic equipment ; and characterized in that the method further comprises: in response to a change in a parameter for wireless charging of the second electronic equipment by the electronic equipment , modulating indication information indicating the change in the parameter for wireless charging onto a carrier of the wireless charging signal, wherein the parameter for wireless charging comprises at least one of a power for wireless charging or strength of the wireless charging signal. determining (S100) an energy region covering second electronic equipment by scanning energy regions coverable respectively by energy radiated by the electronic equipment in distinct directions; determining (S200) an energy sub-region covering the second electronic equipment by scanning energy sub-regions (311-314, 321-324) of the energy region covering the second electronic equipment , the energy sub-regions (311-314, 321-324) being coverable respectively by the energy radiated in distinct directions; radiating (S300) a wireless charging signal toward the energy sub-region covering the second electronic equipment ; and characterized in that the method further comprises: in response to a change in a parameter for wireless charging of the second electronic equipment by the electronic equipment , modulating indication information indicating the change in the parameter for wireless charging onto a carrier of the wireless charging signal, wherein the parameter for wireless charging comprises at least one of a power for wireless charging or strength of the wireless charging signal. in response to a change in a parameter for wireless charging of the second electronic equipment by the electronic equipment , modulating indication information indicating the change in the parameter for wireless charging onto a carrier of the wireless charging signal, wherein the parameter for wireless charging comprises at least one of a power for wireless charging or strength of the wireless charging signal.
A method for wireless communication at a user equipment, UE, comprising: receiving at the UE signals from a plurality of cells available for coordinated multipoint, CoMP, data transmission to the UE, each of the plurality of cells associated with a separate base station; determining timing information for the plurality of cells based on the received signals, the timing information comprising a receive time for each of the received signals of the plurality of cells, wherein the receive time for each of the received signals of the plurality of cells is within a timing window at the UE, wherein the timing window may have a width that is equal to a cyclic prefix or a fraction of the cyclic prefix used for data transmission to the UE; sending the timing information for the plurality of cells to a serving cell of the UE; and receiving a CoMP data transmission from a subset of the plurality of cells available for CoMP data transmission to the UE, wherein the subset is selected based on the timing information. receiving at the UE signals from a plurality of cells available for coordinated multipoint, CoMP, data transmission to the UE, each of the plurality of cells associated with a separate base station; determining timing information for the plurality of cells based on the received signals, the timing information comprising a receive time for each of the received signals of the plurality of cells, wherein the receive time for each of the received signals of the plurality of cells is within a timing window at the UE, wherein the timing window may have a width that is equal to a cyclic prefix or a fraction of the cyclic prefix used for data transmission to the UE; sending the timing information for the plurality of cells to a serving cell of the UE; and receiving a CoMP data transmission from a subset of the plurality of cells available for CoMP data transmission to the UE, wherein the subset is selected based on the timing information.
Method for manufacturing hollow objects made of plastics material by way of an extruder, the method comprising steps in which: - respective quantities of virgin plastics material and additives are metered in order to obtain a metered mixture, - the extruder is fed at least with the metered mixture in order to obtain an extruded mixture, - the extruded mixture is moulded in order to obtain moulded blanks , - the moulded blanks are heated so that they can be blow-moulded, - the heated blanks are blow-moulded in order to convert them into hollow objects, - between at least some of the successive steps of moulding, heating and blow-moulding, the quality of the moulded blanks and/or of the heated blanks and/or of the blow-moulded hollow objects is checked, - if a predefined quality threshold has been reached, the method passes to the next step, and if not, at least a part of the moulded blanks and/or of the heated blanks and/or of the blow-moulded hollow objects is recycled to the extruder , after they have been ground, characterized in that the extruder that is fed at least with the metered mixture and to which at least a part of the moulded blanks and/or of the heated blanks and/or of the blow-moulded hollow objects is recycled is a twin-screw extruder. - respective quantities of virgin plastics material and additives are metered in order to obtain a metered mixture, - the extruder is fed at least with the metered mixture in order to obtain an extruded mixture, - the extruded mixture is moulded in order to obtain moulded blanks , - the moulded blanks are heated so that they can be blow-moulded, - the heated blanks are blow-moulded in order to convert them into hollow objects, - between at least some of the successive steps of moulding, heating and blow-moulding, the quality of the moulded blanks and/or of the heated blanks and/or of the blow-moulded hollow objects is checked, - if a predefined quality threshold has been reached, the method passes to the next step, and if not, at least a part of the moulded blanks and/or of the heated blanks and/or of the blow-moulded hollow objects is recycled to the extruder , after they have been ground,