mhurhangee/ep-ind-claims huggingface dataset:
A method for use in a cellular radio communication system (10 or 30) where a mobile radio terminal (22, 36) is served by a serving radio network controller and a serving base station associated with a serving cell using a first carrier frequency, and said mobile radio terminal (22; 36) having an active set of multiple base stations associated with it, said active set including said serving base station, the method comprising: the serving base station deciding that a future communication with the mobile radio terminal should use a second different carrier frequency, and the serving base station generating a carrier reallocation signal for being provided to base stations having a cell in said active set of cells associated with the mobile terminal, that indicates the serving base station's determination that the future communication with the mobile terminal is to be conducted using the second carrier frequency, wherein said carrier reallocation signal includes a time associated with the carrier reallocation for the future communication. the serving base station deciding that a future communication with the mobile radio terminal should use a second different carrier frequency, and the serving base station generating a carrier reallocation signal for being provided to base stations having a cell in said active set of cells associated with the mobile terminal, that indicates the serving base station's determination that the future communication with the mobile terminal is to be conducted using the second carrier frequency, wherein said carrier reallocation signal includes a time associated with the carrier reallocation for the future communication.
A method of mitigating alternate bearing in a perennial crop plant, comprising administering to the perennial crop plant a composition comprising an effective amount of a purified natural compound to mitigate alternate bearing in the perennial crop plant, wherein the compound is 9-beta-D-adenosine.
A computer-implemented method comprising: discretizing a two-dimensional shading space into unit sized cells to form a shading grid; computing a bounding box that bounds shading samples mapped to a cell of the shading grid, wherein the bounding box is incrementally computed with each sample that is mapped to the cell; performing shading at the center of the cell if the cell is empty or if the center of the cell is contained in the bounding box, and otherwise performing shading at the center of the bounding box; and depending on the size of the bounding box computed over the shading samples, scaling a texture filter footprint to reduce rendering artifacts. discretizing a two-dimensional shading space into unit sized cells to form a shading grid; computing a bounding box that bounds shading samples mapped to a cell of the shading grid, wherein the bounding box is incrementally computed with each sample that is mapped to the cell; performing shading at the center of the cell if the cell is empty or if the center of the cell is contained in the bounding box, and otherwise performing shading at the center of the bounding box; and depending on the size of the bounding box computed over the shading samples, scaling a texture filter footprint to reduce rendering artifacts.
A process for preparing silylamines in a tubular laminar flow plug flow gas reactor (100, 300, 400, 500, 600, 711), comprising: (a) directing a flow of a first reactant gas into a reaction zone (110, 410, 510) region of a tube reactor; (b) passing a second reactant gas through a conduit into the reaction zone (110, 410, 510) region of the tube reactor containing the first reactant gas thereby forming a laminar flow plug flow reaction stream wherein the first reactant gas and the second reactant gas react to form silylamines; (c) passing the reaction stream containing silylamines into a collection zone of the flow tube reactor; (d) separating the silylamines from the reaction stream; and wherein the reactor is maintained at a pressure of one atmosphere or less; wherein the first reactant gas is a monohalosilane, and the second reactant gas is ammonia, or the first reactant gas is ammonia, and the second reactant gas is a monohalosilane, and the molar ratio of monohalosilane to ammonia gas is from 1 to 1.2. (a) directing a flow of a first reactant gas into a reaction zone (110, 410, 510) region of a tube reactor; (b) passing a second reactant gas through a conduit into the reaction zone (110, 410, 510) region of the tube reactor containing the first reactant gas thereby forming a laminar flow plug flow reaction stream wherein the first reactant gas and the second reactant gas react to form silylamines; (c) passing the reaction stream containing silylamines into a collection zone of the flow tube reactor; (d) separating the silylamines from the reaction stream; and wherein the reactor is maintained at a pressure of one atmosphere or less; wherein the first reactant gas is a monohalosilane, and the second reactant gas is ammonia, or the first reactant gas is ammonia, and the second reactant gas is a monohalosilane, and the molar ratio of monohalosilane to ammonia gas is from 1 to 1.2.
Method of printing on a surface of an object wherein a print head generating ink drops prints at least two stripes (10, 12), i.e. a first stripe and subsequently a second stripe, of ink onto the surface, said two stripes (10, 12) adjacent to one another and overlapping in a strip, wherein the two stripes (10, 11) are printed as solid areas, wherein the stripes (10, 11) are X-Y stitched in the strip and wherein at least one of the two stripes (10, 11) is additionally stitched in the strip for the Y progression of the ink amount using a predefined function (15, 16a-e), characterized in that the type of the function (15, 16a-e) along the two stripes (10, 11) is varied or in that the width of the strip along the two stripes (10, 11) is varied.
A magnetic logic unit cell for sensing magnetic fields, comprising: a magnetic tunnel junction including a storage layer having a storage magnetization (230, 234, 235), a sense layer having a sense magnetization; a tunnel barrier layer between the storage layer and the sense layer; and a pinning layer pinning the storage magnetization (230, 234, 235) at a low threshold temperature (T L) and freeing it at a high threshold temperature (T H); the sense magnetization being freely alignable at the low and high threshold temperatures; the storage layer inducing an exchange bias field magnetically coupling the sense layer such that the sense magnetization tends to be aligned antiparallel or parallel to the storage magnetization (230, 234); characterized in that, the tunnel barrier layer is configured for generating an indirect exchange coupling between the tunnel barrier layer and the sense layer such as to provide an additional exchange bias field of substantially the same magnitude than the one of the exchange bias field and of opposed direction, such that substantially no additional current need to be passed in the field line for compensating the exchange bias field. a magnetic tunnel junction including a storage layer having a storage magnetization (230, 234, 235), a sense layer having a sense magnetization; a tunnel barrier layer between the storage layer and the sense layer; and a pinning layer pinning the storage magnetization (230, 234, 235) at a low threshold temperature (T L) and freeing it at a high threshold temperature (T H); the sense magnetization being freely alignable at the low and high threshold temperatures; the storage layer inducing an exchange bias field magnetically coupling the sense layer such that the sense magnetization tends to be aligned antiparallel or parallel to the storage magnetization (230, 234); characterized in that, the tunnel barrier layer is configured for generating an indirect exchange coupling between the tunnel barrier layer and the sense layer such as to provide an additional exchange bias field of substantially the same magnitude than the one of the exchange bias field and of opposed direction, such that substantially no additional current need to be passed in the field line for compensating the exchange bias field.
A drive device-integrated rotary electric machine (4a, 4b), comprising: a rotary electric machine having a first three-phase winding and a second three-phase winding; a first inverter unit that supplies a drive current to the first three-phase winding; a second inverter unit that supplies a drive current to the second three-phase winding; a first power supply connector that connects the first inverter unit to a first vehicle power supply; and a second power supply connector that connects the second inverter unit to a second vehicle power supply, characterised in that a voltage of the first vehicle power supply is higher than a voltage of the second vehicle power supply, and a current capacity of the first power supply connector is smaller than a current capacity of the second power supply connector. a rotary electric machine having a first three-phase winding and a second three-phase winding; a first inverter unit that supplies a drive current to the first three-phase winding; a second inverter unit that supplies a drive current to the second three-phase winding; a first power supply connector that connects the first inverter unit to a first vehicle power supply; and a second power supply connector that connects the second inverter unit to a second vehicle power supply, characterised in that a voltage of the first vehicle power supply is higher than a voltage of the second vehicle power supply, and a current capacity of the first power supply connector is smaller than a current capacity of the second power supply connector.
A method of power generation comprising: introducing a fuel, O 2, and a CO 2 circulating fluid into a combustor; combusting the fuel to provide a combustion product stream comprising CO 2; expanding the combustion product stream across a turbine (400, 2000) comprising a plurality of turbine blades and defining a ratio of a length of the turbine to an average diameter of the turbine blades greater than about 3.5 to generate power and output a turbine discharge stream, wherein the length of the turbine is a distance within a casing of the turbine from the turbine blade immediately adjacent an inlet of the casing to the turbine blade immediately adjacent and outlet of the casing; processing the turbine discharge stream to recycle at least a portion of the CO 2 circulating fluid into the combustor; withdrawing a portion of the CO 2 circulating fluid that is recycled; and using the recycled CO 2 circulating fluid as a transpiration fluid. introducing a fuel, O 2, and a CO 2 circulating fluid into a combustor; combusting the fuel to provide a combustion product stream comprising CO 2; expanding the combustion product stream across a turbine (400, 2000) comprising a plurality of turbine blades and defining a ratio of a length of the turbine to an average diameter of the turbine blades greater than about 3.5 to generate power and output a turbine discharge stream, wherein the length of the turbine is a distance within a casing of the turbine from the turbine blade immediately adjacent an inlet of the casing to the turbine blade immediately adjacent and outlet of the casing; processing the turbine discharge stream to recycle at least a portion of the CO 2 circulating fluid into the combustor; withdrawing a portion of the CO 2 circulating fluid that is recycled; and using the recycled CO 2 circulating fluid as a transpiration fluid.
An illumination device comprising: a light source mounted on a mounting device, a bulb-shaped envelope, a thermally conducting carrier arranged at a base portion of the bulb-shaped envelope,, wherein said carrier and said envelope are made of the same material and form a single integrated part, defining a single compartment, the carrier comprising a through-hole and the mounting device being arranged to abut a back side of the carrier so that the light source protrudes through the through-hole into the compartment, said carrier being arranged to transfer heat away from said light source and said mounting device to said envelope and said envelope being arranged to dissipate heat away from said illumination device. a light source mounted on a mounting device, a bulb-shaped envelope, a thermally conducting carrier arranged at a base portion of the bulb-shaped envelope,, wherein said carrier and said envelope are made of the same material and form a single integrated part, defining a single compartment, the carrier comprising a through-hole and the mounting device being arranged to abut a back side of the carrier so that the light source protrudes through the through-hole into the compartment, said carrier being arranged to transfer heat away from said light source and said mounting device to said envelope and said envelope being arranged to dissipate heat away from said illumination device.
A method for determining the presence of an analyte in a keratinized structure sample of a subject comprising: (a) providing an optionally washed keratinized structure sample; (b) contacting the keratinized sample with an aqueous solution of a reducing agent comprising dithiothreitol or dithioerythritol to result in a test solution, wherein the contacting step is performed at a pH from about 7.0 to about 10.5; and (c) determining if the analyte is present in the test solution, wherein the method does not comprise contacting the keratinized structure sample with a proteolytic enzyme, or wherein the method does not comprise proteolytically cleaving the keratinized structure sample. (a) providing an optionally washed keratinized structure sample; (b) contacting the keratinized sample with an aqueous solution of a reducing agent comprising dithiothreitol or dithioerythritol to result in a test solution, wherein the contacting step is performed at a pH from about 7.0 to about 10.5; and (c) determining if the analyte is present in the test solution, wherein the method does not comprise contacting the keratinized structure sample with a proteolytic enzyme, or wherein the method does not comprise proteolytically cleaving the keratinized structure sample.
A storage device, comprising: a tape configured to store data; a data head configured to read and/or write data from and/or to the tape; and an actuator configured to move the tape in a length direction in a step-wise manner, wherein the actuator comprises: a number of pulling electrodes, wherein each pulling electrode is configured to be activated to exert a pulling force on the tape, and a number of clamping electrodes, wherein each clamping electrode is configured to be activated to clamp the tape; wherein the pulling electrodes and the clamping electrodes are alternately arranged along the length of the tape, the pulling electrodes are arranged at a further distance from the tape than the clamping electrodes, and if activated, each pulling electrode is configured to deform a section of the tape by pulling said section away from a longitudinal axis of the tape, wherein said deformation causes the pulling force on the tape. a tape configured to store data; a number of pulling electrodes, wherein each pulling electrode is configured to be activated to exert a pulling force on the tape, and a number of clamping electrodes, wherein each clamping electrode is configured to be activated to clamp the tape; wherein the pulling electrodes and the clamping electrodes are alternately arranged along the length of the tape, the pulling electrodes are arranged at a further distance from the tape than the clamping electrodes, and if activated, each pulling electrode is configured to deform a section of the tape by pulling said section away from a longitudinal axis of the tape, wherein said deformation causes the pulling force on the tape.
A wireless communications method, comprising: receiving, by a terminal, first information sent by a network device, wherein the first information is used for instructing the terminal to switch an uplink transmit antenna; and determining, by the terminal in response to the first information, whether to switch the uplink transmit antenna; characterized in that wherein determining, by the terminal, in response to the first information, whether to switch the uplink transmit antenna comprises: when a first time length is greater than or equal to a time interval threshold for switching the uplink transmit antenna by the terminal, determining to switch the uplink transmit antenna; wherein the first time length is equal to a time length before a switching time point, a time length after a switching time point, or a sum of time lengths before and after a switching time point; wherein the time length before the switching time point is a continuous time length of a fixed transmit antenna used before the switching time point, and the time length after the switching time point is a continuous time length of a fixed transmit antenna used after the switching time point. receiving, by a terminal, first information sent by a network device, wherein the first information is used for instructing the terminal to switch an uplink transmit antenna; and determining, by the terminal in response to the first information, whether to switch the uplink transmit antenna; characterized in that wherein determining, by the terminal, in response to the first information, whether to switch the uplink transmit antenna comprises: when a first time length is greater than or equal to a time interval threshold for switching the uplink transmit antenna by the terminal, determining to switch the uplink transmit antenna; wherein the first time length is equal to a time length before a switching time point, a time length after a switching time point, or a sum of time lengths before and after a switching time point; wherein the time length before the switching time point is a continuous time length of a fixed transmit antenna used before the switching time point, and the time length after the switching time point is a continuous time length of a fixed transmit antenna used after the switching time point. when a first time length is greater than or equal to a time interval threshold for switching the uplink transmit antenna by the terminal, determining to switch the uplink transmit antenna; wherein the first time length is equal to a time length before a switching time point, a time length after a switching time point, or a sum of time lengths before and after a switching time point; wherein the time length before the switching time point is a continuous time length of a fixed transmit antenna used before the switching time point, and the time length after the switching time point is a continuous time length of a fixed transmit antenna used after the switching time point.
Freely ejecting starting device comprising a drive shaft and a hollow shaft which is at least movable on the drive shaft and which comprises a front opening, wherein a pinion is arranged axially movable on the hollow shaft; and wherein a ring engages over a projection arranged on the hollow shaft from the side of the pinion, characterised in that, a closure closes the front opening; and in that the closure engages over the projection from the front opening of the hollow shaft; wherein the ring comprises an engagement contour that includes at least a portion of an engagement contour of the closure.
A machine type communication device configured to transmit uplink channels in a communication network, the device comprising: a processor configured to, determine whether a Physical Uplink Shared Channel PUSCH, and a Physical Uplink Control Channel, PUCCH, will collide during a transmission from the machine type communication device to the communication network, and adjust the transmission of the PUCCH relative to the PUSCH if the processor determines that the PUSCH and the PUCCH will collide, wherein the processor is configured to adjust the transmission of the PUCCH if a number of collisions between the PUSCH and the PUCCH, is more than a threshold. determine whether a Physical Uplink Shared Channel PUSCH, and a Physical Uplink Control Channel, PUCCH, will collide during a transmission from the machine type communication device to the communication network, and adjust the transmission of the PUCCH relative to the PUSCH if the processor determines that the PUSCH and the PUCCH will collide, wherein the processor is configured to adjust the transmission of the PUCCH if a number of collisions between the PUSCH and the PUCCH, is more than a threshold.
A strapping device, comprising: a body having a first body end, a second body end, and a base extending between the first body end and the second body end; a tensioner coupled with the body and adjacent to the base, the body defines a strap axis between the tensioner and the base, the tensioner applies a force to a strap received by the body along the strap axis; a handle extending between a first handle end coupled with the first body end and a second handle end coupled with the second body end; an input device coupled with the handle, the input device including at least one of a trigger, a button, a lever, and a switch, the input device defining a length from a first input device end proximate the first body end to a second input end opposite the first input end, the length greater than or equal to 5.08mm (0.2 inches) and less than or equal to 76.2 mm (3 inches); characterized in that the handle is oriented at an angle (α) relative to a plane parallel to the strap axis, the angle being greater than or equal to 15 degrees, and less than or equal to 45 degrees, an interface surface is defined by the handle on an opposite side of the handle from the input device, the interface surface spaced from a tangent line defined by the handle by a spacing, the spacing being less than 25.4mm (one inch), wherein the interface surface supports at least a portion of a user interface. a body having a first body end, a second body end, and a base extending between the first body end and the second body end; a tensioner coupled with the body and adjacent to the base, the body defines a strap axis between the tensioner and the base, the tensioner applies a force to a strap received by the body along the strap axis; a handle extending between a first handle end coupled with the first body end and a second handle end coupled with the second body end; an input device coupled with the handle, the input device including at least one of a trigger, a button, a lever, and a switch, the input device defining a length from a first input device end proximate the first body end to a second input end opposite the first input end, the length greater than or equal to 5.08mm (0.2 inches) and less than or equal to 76.2 mm (3 inches); characterized in that the handle is oriented at an angle (α) relative to a plane parallel to the strap axis, the angle being greater than or equal to 15 degrees, and less than or equal to 45 degrees, an interface surface is defined by the handle on an opposite side of the handle from the input device, the interface surface spaced from a tangent line defined by the handle by a spacing, the spacing being less than 25.4mm (one inch), wherein the interface surface supports at least a portion of a user interface.
A hot melt adhesive composition, comprising, 16% to 30% by weight of a styrene block copolymer, having a saturated midblock, a melt flow rate of at least 25 g/10 minutes (190°C, 2.16 kg) and a diblock content of no greater than 10% by weight, 40% to 65% by weight of a tackifier, 5% to 30% by weight of a plasticizer, and 0% to 10% by weight of a polyolefin, wherein the weight ratios of the components are based on the total weight of the hot melt adhesive composition. 16% to 30% by weight of a styrene block copolymer, having a saturated midblock, a melt flow rate of at least 25 g/10 minutes (190°C, 2.16 kg) and a diblock content of no greater than 10% by weight, 40% to 65% by weight of a tackifier, 5% to 30% by weight of a plasticizer, and 0% to 10% by weight of a polyolefin,