mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: providing at least one shared carrier and at least one dedicated carrier in a cellular network for conveying communication traffic for a plurality of user terminals via one or more macro cells and one or more small cells in the cellular network, wherein the at least one shared carrier is associated with data communication traffic for the plurality of user terminals and the at least one dedicated carrier is associated with voice communication traffic for the plurality of user terminals; and steering at least one user terminal in the cellular network away from a particular dedicated carrier to a particular shared carrier associated with a particular small cell to manage load balancing in the cellular network, wherein the steering includes at least one of: adjusting an offset parameter of the particular small cell to a first level to steer the at least one user terminal to the particular small cell to decrease loading of the at least one dedicated carrier; and adjusting the offset parameter of the particular small cell to a second level to steer the at least one user terminal away from the particular small cell to a macro cell to decrease loading of the at least one shared carrier. providing at least one shared carrier and at least one dedicated carrier in a cellular network for conveying communication traffic for a plurality of user terminals via one or more macro cells and one or more small cells in the cellular network, wherein the at least one shared carrier is associated with data communication traffic for the plurality of user terminals and the at least one dedicated carrier is associated with voice communication traffic for the plurality of user terminals; and steering at least one user terminal in the cellular network away from a particular dedicated carrier to a particular shared carrier associated with a particular small cell to manage load balancing in the cellular network, wherein the steering includes at least one of: adjusting an offset parameter of the particular small cell to a first level to steer the at least one user terminal to the particular small cell to decrease loading of the at least one dedicated carrier; and to a first level to steer the at least one user terminal to the particular small cell to decrease loading of the at least one dedicated carrier; and adjusting the offset parameter of the particular small cell to a second level to steer the at least one user terminal away from the particular small cell to a macro cell to decrease loading of the at least one shared carrier.
A method for use in a positioning server in a communication network for determining associations between a plurality of pools of core network nodes and base stations served by the pools comprising the steps of: - selecting a base station ; - calculating a probability index (Pj) for each pool based on the location, G_enb, of the selected base station and the estimated locations, Gj, of the pools ; - determining the pool that is serving the selected base station by interrogating an arbitrary core network node in at least one pool , wherein the interrogation is started with the pool having the highest probability index, Pj, until the serving pool has been identified; - receiving from the core network node the associations between the first identified serving pool and the selected base station ; - storing the received associations; - repeating the steps above for each remaining base station (142-153). - selecting a base station ; - calculating a probability index (Pj) for each pool based on the location, G_enb, of the selected base station and the estimated locations, Gj, of the pools ; - determining the pool that is serving the selected base station by interrogating an arbitrary core network node in at least one pool , wherein the interrogation is started with the pool having the highest probability index, Pj, until the serving pool has been identified; - receiving from the core network node the associations between the first identified serving pool and the selected base station ; - storing the received associations; - repeating the steps above for each remaining base station (142-153).
A method for preparing a non-fried instant noodle comprising: preprocessing an oat cereal to form a processed oat cereal flour, the oat cereal includes starch, the step of preprocessing the oat cereal comprising: gelatinization of the starch and milling the oat cereal into flour; providing a non-wheat cereal component having the processed oat cereal flour and an unprocessed oat flour; mixing the non-wheat cereal component with a wheat component to form a flour composition, wherein the wheat component has a crude protein, the amount of the non-wheat cereal component is at least 50 weight percent of the total weight of the flour composition, the amount of the processed oat cereal flour is 25 to 40 weight percent of the total weight of the flour composition, the amount of the unprocessed oat flour is 25 to 35 weight percent of the total weight of the flour composition, the amount of the wheat component is 25-50 weight percent of the total weight of the flour composition, and the amount of the crude protein in the wheat component is 14 weight percent of the total weight of the flour composition; and forming the flour composition into a non-fried instant noodle. preprocessing an oat cereal to form a processed oat cereal flour, the oat cereal includes starch, the step of preprocessing the oat cereal comprising: gelatinization of the starch and milling the oat cereal into flour; providing a non-wheat cereal component having the processed oat cereal flour and an unprocessed oat flour; mixing the non-wheat cereal component with a wheat component to form a flour composition, wherein the wheat component has a crude protein, the amount of the non-wheat cereal component is at least 50 weight percent of the total weight of the flour composition, the amount of the processed oat cereal flour is 25 to 40 weight percent of the total weight of the flour composition, the amount of the unprocessed oat flour is 25 to 35 weight percent of the total weight of the flour composition, the amount of the wheat component is 25-50 weight percent of the total weight of the flour composition, and the amount of the crude protein in the wheat component is 14 weight percent of the total weight of the flour composition; and forming the flour composition into a non-fried instant noodle.
Method for controlling a local vehicle having a brake system , a drive system and a distance-control system , the distance-control system being designed to adjust an actual following distance (Dlst) between the local vehicle and a front vehicle traveling ahead to a predetermined target following distance (DSoll), the target following distance (DSoll) being predetermined depending on an activated operating mode (B) of the distance-control system , a first target following distance (DSoll1) being predetermined depending on a reaction time (tR) of a driver of the local vehicle (SA1) in an activated first operating mode (B1), a second target following distance (DSoll2) being predetermined independently of the reaction time (tR) of the driver of the local vehicle (SA2) in an activated second operating mode (B2), whether V2X data (V) are exchanged or can be exchanged between the front vehicle and the local vehicle via a V2X connection being checked in order to activate the second operating mode (B2) (SA2) in a plausibility check step (PL) (ST1), characterized in that the first target following distance (DSoll1) is compared with the second target following distance (DSoll2) and/or the reaction time (tR) of the driver of the local vehicle is compared with the latency time (tL), and when the second operating mode (B2) is activated, the second target following distance (DSoll2) is selected to be equal to the first target following distance (DSoll1) or the first operating mode (B1) is automatically activated if it is determined that the second target following distance (DSoll2) is greater than the first target following distance (DSoll1) and/or the latency time (tL) is greater than the reaction time (tR) of the driver of the local vehicle . a second target following distance (DSoll2) being predetermined independently of the reaction time (tR) of the driver of the local vehicle (SA2) in an activated second operating mode (B2), whether V2X data (V) are exchanged or can be exchanged between the front vehicle and the local vehicle via a V2X connection being checked in order to activate the second operating mode (B2) (SA2) in a plausibility check step (PL) (ST1), characterized in that the first target following distance (DSoll1) is compared with the second target following distance (DSoll2) and/or the reaction time (tR) of the driver of the local vehicle is compared with the latency time (tL), and when the second operating mode (B2) is activated, the second target following distance (DSoll2) is selected to be equal to the first target following distance (DSoll1) or the first operating mode (B1) is automatically activated if it is determined that the second target following distance (DSoll2) is greater than the first target following distance (DSoll1) and/or the latency time (tL) is greater than the reaction time (tR) of the driver of the local vehicle .
A method for the preparation of nanoparticles encasing paclitaxel within a protein for in vivo delivery, wherein said method comprises the following steps: (a) preparing or obtaining a protein solution comprising said protein in a first solvent at a temperature ranging from about 55 °C to about 75 °C, and a pH ranging from about 6 to about 8; (b) contacting said paclitaxel with said protein solution of step (a) in the presence of an unfolding solution, and at a pressure in the range of about 6.9 x 10 5 to about 6.9 x 10 8 Pa (about 100 to about 100,000 pounds per square inch (psi)), thereby causing unfolding of said protein, and subsequent refolding or assembling of said protein to encase said paclitaxel within said protein; (c) performing dialysis or filtration to remove excess chemicals or to obtain a more concentrated solution; and (d) subjecting said concentrated solution of nanoparticles of step (c) to a dehydration process to produce preserved nanoparticles capable of incorporation into a pharmaceutical dosage form; wherein said nanoparticles have an average diameter ranging from about 50 nm to about 300 nm and said nanoparticles comprise about 1% to about 40% of paclitaxel by total weight of the nanoparticle; wherein said first solvent comprises water, saline, phosphate buffer, tris(hydroxymethyl)aminomethane buffer, hydrogen peroxide solutions, glutathione solutions, sodium chloride solutions, glucose solutions, mycose solutions, mannitol solutions, sucrose solutions, sodium caprylate solutions and combinations thereof; wherein said unfolding solution comprises water, saline, phosphate buffer, tris(hydroxymethyl)aminomethane buffer, sodium chloride solutions, ethanol, acetone, 2-mercaptoethanol, urea and combinations thereof, wherein said protein is selected from the group consisting of albumin, transferrin and hemoglobin. (a) preparing or obtaining a protein solution comprising said protein in a first solvent at a temperature ranging from about 55 °C to about 75 °C, and a pH ranging from about 6 to about 8; (b) contacting said paclitaxel with said protein solution of step (a) in the presence of an unfolding solution, and at a pressure in the range of about 6.9 x 10 5 to about 6.9 x 10 8 Pa (about 100 to about 100,000 pounds per square inch (psi)), thereby causing unfolding of said protein, and subsequent refolding or assembling of said protein to encase said paclitaxel within said protein; (c) performing dialysis or filtration to remove excess chemicals or to obtain a more concentrated solution; and (d) subjecting said concentrated solution of nanoparticles of step (c) to a dehydration process to produce preserved nanoparticles capable of incorporation into a pharmaceutical dosage form;
A valve comprising: a housing defining a valve chamber defining a longitudinal axis , an inlet adjoining the valve chamber, a primary outlet adjoining the valve chamber, and a valve member disposed within the valve chamber and supported for rotation about the longitudinal axis of the valve chamber, the valve member and the housing defining a clearance therebetween; and a seal assembly comprising: a first component and a second component spaced apart from the first component so as to define a passage for the transfer of fluid from an inlet of the seal assembly to an outlet of the seal assembly, wherein the first component comprises a concavity at least partially defining the passage, and wherein no part of the second component extends into the portion of the passage bounded by the concavity; and wherein: the housing comprises one of the first component of the seal assembly and the second component of the seal assembly, the valve member comprises the other of the first component of the seal assembly and the second component of the seal assembly, and the clearance comprises the passage of the seal assembly. a housing defining a valve chamber defining a longitudinal axis , an inlet adjoining the valve chamber, a primary outlet adjoining the valve chamber, and a valve member disposed within the valve chamber and supported for rotation about the longitudinal axis of the valve chamber, the valve member and the housing defining a clearance therebetween; and a seal assembly comprising: a first component and a second component spaced apart from the first component so as to define a passage for the transfer of fluid from an inlet of the seal assembly to an outlet of the seal assembly, wherein the first component comprises a concavity at least partially a first component and a second component spaced apart from the first component so as to define a passage for the transfer of fluid from an inlet of the seal assembly to an outlet of the seal assembly, wherein the first component comprises a concavity at least partially defining the passage, and wherein no part of the second component extends into the portion of the passage bounded by the concavity; and wherein: the housing comprises one of the first component of the seal assembly and the second component of the seal assembly, the valve member comprises the other of the first component of the seal assembly and the second component of the seal assembly, and the clearance comprises the passage of the seal assembly. the housing comprises one of the first component of the seal assembly and the second component of the seal assembly, the valve member comprises the other of the first component of the seal assembly and the second component of the seal assembly, and the clearance comprises the passage of the seal assembly.
A building management device to be installed in a building where a plurality of sensors are arranged, comprising: storage configured to store, for each of the plurality of sensors, an acquisition frequency indicating how often sensor information is acquired from the each of the plurality of sensors; a sensor information acquiring unit configured to acquire the sensor information from the each of the plurality of sensors at the acquisition frequency; the building management device further comprising: a prediction unit configured to predict sensor information of one first sensor based on sensor information of a plurality of second sensors associated with the one first sensor, the one first sensor being a sensor that is high in acquisition frequency, the plurality of second sensors being sensors that are low in acquisition frequency; a comparison unit configured to compare the sensor information of the one first sensor and the predicted sensor information; and a frequency setting unit configured to set an acquisition frequency of at least one sensor out of the plurality of second sensors, based on a result of the comparison made by the comparison unit. storage configured to store, for each of the plurality of sensors, an acquisition frequency indicating how often sensor information is acquired from the each of the plurality of sensors; a sensor information acquiring unit configured to acquire the sensor information from the each of the plurality of sensors at the acquisition frequency; the building management device further comprising: a prediction unit configured to predict sensor information of one first sensor based on sensor information of a plurality of second sensors associated with the one first sensor, the one first sensor being a sensor that is high in acquisition frequency, the plurality of second sensors being sensors that are low in acquisition frequency; a comparison unit configured to compare the sensor information of the one first sensor and the predicted sensor information; and a frequency setting unit configured to set an acquisition frequency of at least one sensor out of the plurality of second sensors, based on a result of the comparison made by the comparison unit. a prediction unit configured to predict sensor information of one first sensor based on sensor information of a plurality of second sensors associated with the one first sensor, the one first sensor being a sensor that is high in acquisition frequency, the plurality of second sensors being sensors that are low in acquisition frequency; a comparison unit configured to compare the sensor information of the one first sensor and the predicted sensor information; and a frequency setting unit configured to set an acquisition frequency of at least one sensor out of the plurality of second sensors, based on a result of the comparison made by the comparison unit.
A magnetic drive for food processing equipment including a food-contact chamber, the magnetic drive comprising: (a) a driving member, in use, disposed outside the food-contact chamber, wherein the driving member comprises a plurality of permanent magnet poles carried on a rotating shaft; and (b) a driven member, in use, disposed within the food-contact chamber, wherein the driven member is supported from a rotating shaft in opposed relationship to the plurality of permanent magnet poles; and wherein the driven member comprises a drive plate comprising a plurality of discrete pole elements formed from laminated layers, characterised in that layers of soft magnetic material are separated by layers of a non-magnetic material. (a) a driving member, in use, disposed outside the food-contact chamber, wherein the driving member comprises a plurality of permanent magnet poles carried on a rotating shaft; and (b) a driven member, in use, disposed within the food-contact chamber, wherein the driven member is supported from a rotating shaft in opposed relationship to the plurality of permanent magnet poles; and wherein the driven member comprises a drive plate comprising a plurality of discrete pole elements formed from laminated layers, characterised in that layers of soft magnetic material are separated by layers of a non-magnetic material.
A fork leveling system, comprising: an active leveling oil cylinder ; a passive leveling oil cylinder ; an electric control oil supplement valve ; and a pressure reducing valve , wherein a rodless cavity of the active leveling oil cylinder is communicated with a rodless cavity of the passive leveling oil cylinder , and a rod cavity of the active leveling oil cylinder is communicated with a rod cavity of the passive leveling oil cylinder ; an oil inlet of the electric control oil supplement valve is connected to an oil pump , an oil outlet of the electric control oil supplement valve is connected to an oil inlet of the pressure reducing valve ; an oil outlet of the pressure reducing valve is connected to the rodless cavity of the active leveling oil cylinder and the rod cavity of the active leveling oil cylinder . an active leveling oil cylinder ; a passive leveling oil cylinder ; an electric control oil supplement valve ; and a pressure reducing valve , wherein a rodless cavity of the active leveling oil cylinder is communicated with a rodless cavity of the passive leveling oil cylinder , and a rod cavity of the active leveling oil cylinder is communicated with a rod cavity of the passive leveling oil cylinder ; an oil inlet of the electric control oil supplement valve is connected to an oil pump , an oil outlet of the electric control oil supplement valve is connected to an oil inlet of the pressure reducing valve ; an oil outlet of the pressure reducing valve is connected to the rodless cavity of the active leveling oil cylinder and the rod cavity of the active leveling oil cylinder .
A method of wireless communication performed by a user equipment, UE, the method comprising: receiving , from a base station, a paging downlink control information, DCI, message that indicates a location of radio resources of a paging message in a time dimension, a frequency dimension, or both; and determining whether the paging message is addressed to the UE based on the location of the radio resources of the paging message in the time dimension, the frequency dimension, or both, wherein the location of the radio resources corresponds to a location of one or more resource blocks within a plurality of resource blocks, each resource block of the plurality of resource blocks assigned to one or more UEs based on predefined block assignments. receiving , from a base station, a paging downlink control information, DCI, message that indicates a location of radio resources of a paging message in a time dimension, a frequency dimension, or both; and determining whether the paging message is addressed to the UE based on the location of the radio resources of the paging message in the time dimension, the frequency dimension, or both, wherein the location of the radio resources corresponds to a location of one or more resource blocks within a plurality of resource blocks, each resource block of the plurality of resource blocks assigned to one or more UEs based on predefined block assignments.
An electric circuit breaker device wherein: in a housing made of a synthetic resin, an igniter , a bar-shaped projectile made of a synthetic resin, and a conductor piece to form a part of an electric circuit are disposed in this order from a first end side of the housing to an axially opposite second end side of the housing ; a closed insulating space is formed between the second end of the housing and the conductor piece ; the conductor piece is a plate piece comprising a first connection portion and a second connection portion at opposite ends and an intermediate cutting portion , with a surface of the cutting portion being disposed orthogonal to the axial direction of the housing ; the bar-shaped projectile is disposed to oppose the surface of the cutting portion of the conductor piece in the axial direction of the housing ; and a cylinder made of metal is disposed between the bar-shaped projectile and an inner wall surface of the housing ; characterized in that a reinforcing frame is further disposed within the housing outside of the cylinder and the insulating space ; and the reinforcing frame is embedded in the housing or partially exposed on the surface of the housing . an igniter , a bar-shaped projectile made of a synthetic resin, and a conductor piece to form a part of an electric circuit are disposed in this order from a first end side of the housing to an axially opposite second end side of the housing ; a closed insulating space is formed between the second end of the housing and the conductor piece ; the conductor piece is a plate piece comprising a first connection portion and a second connection portion at opposite ends and an intermediate cutting portion , with a surface of the cutting portion being disposed orthogonal to the axial direction of the housing ; the bar-shaped projectile is disposed to oppose the surface of the cutting portion of the conductor piece in the axial direction of the housing ; and a cylinder made of metal is disposed between the bar-shaped projectile and an inner wall surface of the housing ; characterized in that a reinforcing frame is further disposed within the housing outside of the cylinder and the insulating space ; and the reinforcing frame is embedded in the housing or partially exposed on the surface of the housing .