mhurhangee/ep-ind-claims huggingface dataset:
A process for the catalysis of a predetermined chemical reaction in the fluid or fluid mixture comprising the step of passing at least a part of the fluid or fluid mixture comprising the one or more reactants from a first compartment for receiving the fluid or fluid mixture comprising the one or more reactants to a second compartment for receiving a fluid comprising one or more products across a membrane comprising, or consisting of, a material comprising a continuous or discontinuous material matrix having void cells formed therein, wherein at least an inner surface of said void cells has nanoparticles of a polymerized organosilicon compound arranged thereon, said polymerized organosilicon being obtained through the polymerization of an organosilicon compound of formula I and optionally at least an organosilicon compound of formula II, R a Si(R 1) n (X 1) 3-n I R b Si(R 2) m (X 2) 3-m II wherein R a is a straight-chain or branched C alkyl group, R b is an aromatic group, such as an optionally substituted carbocyclic and heterocyclic group comprising five-, six- or ten-membered ring systems, which is linked to the Si atom by a single covalent bond or a spacer unit, such as a straight-chain or branched alkyl residue having 1 to 8 carbon atoms, R 1 and R 2 are independently of each other a straight-chain or branched C(l-6) alkyl group, X 1 and X 2 are independently of each other a hydrolysable group, such as a halogen or an alkoxy group, and n, m are independently of each other 0 or 1, and wherein during the polymerization of the organosilicon compound, the molar ratio between water and silane is in the range of from 1:100 to 15:1, preferably in the range of 1:10 to 10:1 and/or the relative humidity is in the range of 3 to 85%. R a is a straight-chain or branched C alkyl group, R b is an aromatic group, such as an optionally substituted carbocyclic and heterocyclic group comprising five-, six- or ten-membered ring systems, which is linked to the Si atom by a single covalent bond or a spacer unit, such as a straight-chain or branched alkyl residue having 1 to 8 carbon atoms, R 1 and R 2 are independently of each other a straight-chain or branched C(l-6) alkyl group, X 1 and X 2 are independently of each other a hydrolysable group, such as a halogen or an alkoxy group, and n, m are independently of each other 0 or 1, and wherein during the polymerization of the organosilicon compound, the molar ratio between water and silane is in the range of from 1:100 to 15:1, preferably in the range of 1:10 to 10:1 and/or the relative humidity is in the range of 3 to 85%.
A filament comprising a core material coated with a layer of shell material, wherein the core material comprises the components a) to c) a) 30 to 80% by volume, based on the total volume of the core material of at least one inorganic powder, b) 20 to 70% by volume, based on the total volume of the core material of at least one binder comprising component b1) b1) at least one polymer c) 0 to 20% by volume, based on the total volume of the core material of at least one additive, wherein the at least one polymer is a polyoxymethylene homopolymer, a polyoxymethylene copolymer or polyoxymethylene terpolymer and wherein at least some of the OH-end groups of the polyoxymethylene homopolymer are capped, and the shell material comprises the components d) to f) d) 75 to 100% by volume, based on the total volume of the shell material of at least one thermoplastic polymer e) 0 to 20% by volume, based on the total volume of the shell material of the at least one inorganic powder, f) 0 to 25% by volume, based on the total weight of the shell material of the at least one additive, wherein the thickness of the layer of shell material is 0.05 to 0.5 mm. a) 30 to 80% by volume, based on the total volume of the core material of at least one inorganic powder, b) 20 to 70% by volume, based on the total volume of the core material of at least one binder comprising component b1) b1) at least one polymer c) 0 to 20% by volume, based on the total volume of the core material of at least one additive, wherein the at least one polymer is a polyoxymethylene homopolymer, a polyoxymethylene copolymer or polyoxymethylene terpolymer and wherein at least some of the OH-end groups of the polyoxymethylene homopolymer are capped, and the shell material comprises the components d) to f) d) 75 to 100% by volume, based on the total volume of the shell material of at least one thermoplastic polymer e) 0 to 20% by volume, based on the total volume of the shell material of the at least one inorganic powder, f) 0 to 25% by volume, based on the total weight of the shell material of the at least one additive, wherein the thickness of the layer of shell material is 0.05 to 0.5 mm.
A microfluidic system for the isolation of particles of at least one given type from a sample; the microfluidic system comprising an inlet, through which, in use, the sample is introduced into the microfluidic system; a separation unit, which comprises a main chamber and a recovery chamber and is designed to transfer at least part of the particles of the given type from the main chamber to the recovery chamber in a selective manner with respect to further particles of the sample; at least one first reservoir having an inner volume of at least 1μL, which is designed to contain a liquid and is fluidically connected to the separation unit; and at least one actuator to move the liquid from the first reservoir to the separation unit; the microfluidic system being characterized in that it comprises a regulating assembly, which comprises at least one first regulating device having at least one first heat transfer element which is arranged at the first reservoir so as to adjust the temperature of the first reservoir, in particular, so as to absorb heat from the first reservoir itself; the separation unit comprising a system chosen from the group consisting of: dielectrophoresis, optical tweezers, magnetophoresis, acoustophoresis and a combination thereof.
A femoral trial component cam module for engagement with a femoral trial component, comprising: (a) a body portion having a medial wall and a lateral wall; (b) one or more shoulders adapted to cooperate with a distal aspect of a femoral trial component having an outer distal side and an opposite inner proximal side configured to interface with femoral bone; and (c) a cam member extending between a posterior portion of the medial wall and the lateral wall, characterised in that the shoulders extend anteriorly from an upper portion of the medial and lateral walls and are configured to rotate the module into position with respect to the femoral trial component such that the module cooperates with the distal aspect of the femoral trial component without removal of the femoral trial component from a patient's bone. (a) a body portion having a medial wall and a lateral wall; (b) one or more shoulders adapted to cooperate with a distal aspect of a femoral trial component having an outer distal side and an opposite inner proximal side configured to interface with femoral bone; and (c) a cam member extending between a posterior portion of the medial wall and the lateral wall,
A temperature control method for controlling temperature of a mounting table in a plasma processing apparatus for mounting a substrate thereon, wherein a temperature adjusting mechanism is disposed in the plasma processing apparatus, the temperature adjusting mechanism including a cooling mechanism for cooling the mounting table and a first heating mechanism (75a, 75b, 75c, 75d) for heating the mounting table, characterised in that the temperature control method comprises: calculating a first heat input amount according to high frequency power applied in a given process, wherein the first heat input amount is calculated based on a data table stored in a storage unit (52, 53, 54) in advance, the data table being generated by measuring temperatures so as to find a first relationship between the high frequency power applied in the plasma processing apparatus and the heat input amount to the mounting table; controlling, based on an operation map stored in the storage unit (52, 53, 54), temperature of at least one of the first heating mechanism (75a, 75b, 75c, 75d) and the cooling mechanism so that a first temperature difference between the cooling mechanism and the first heating mechanism (75a, 75b, 75c, 75d) is within a controllable range corresponding to the first heat input amount, wherein the temperature of the first heating mechanism (75a, 75b, 75c, 75d) is controllable upon the first temperature difference falling within the controllable range, and the operation map defines a series of successive control ranges associated with respective different first heat input amounts. calculating a first heat input amount according to high frequency power applied in a given process, wherein the first heat input amount is calculated based on a data table stored in a storage unit (52, 53, 54) in advance, the data table being generated by measuring temperatures so as to find a first relationship between the high frequency power applied in the plasma processing apparatus and the heat input amount to the mounting table; controlling, based on an operation map stored in the storage unit (52, 53, 54), temperature of at least one of the first heating mechanism (75a, 75b, 75c, 75d) and the cooling mechanism so that a first temperature difference between the cooling mechanism and the first heating mechanism (75a, 75b, 75c, 75d) is within a controllable range corresponding to the first heat input amount, wherein the temperature of the first heating mechanism (75a, 75b, 75c, 75d) is controllable upon the first temperature difference falling within the controllable range, and the operation map defines a series of successive control ranges associated with respective different first heat input amounts.
A method of managing power on an integrated circuit including a plurality of power islands (112, 114, 116, 118), a power island being a section, delineation, partition, or division of the integrated circuit where power consumption is controlled within the section, delineation, partition, or division, the method comprising: determining a target power level for one of the power islands of the integrated circuit where power consumption is independently controlled within each of the power islands (112, 114, 116, 118); determining from a plurality of actions at least one action to change a power consumption level of the one of the power islands to the target power level wherein the at least one determined action comprises selecting a clock frequency for the one of the power islands; and monitoring the power consumption level of the one of the power islands; determining whether a threshold level was crossed based on the power consumption level; and performing the at least one of the actions to change the power consumption level of the one of the power islands to the target power level based on the crossing of the threshold level. determining a target power level for one of the power islands of the integrated circuit where power consumption is independently controlled within each of the power islands (112, 114, 116, 118); determining from a plurality of actions at least one action to change a power consumption level of the one of the power islands to the target power level wherein the at least one determined action comprises selecting a clock frequency for the one of the power islands; and monitoring the power consumption level of the one of the power islands; determining whether a threshold level was crossed based on the power consumption level; and performing the at least one of the actions to change the power consumption level of the one of the power islands to the target power level based on the crossing of the threshold level.
A travel control method for a vehicle wherein a target trajectory along which a subject vehicle should travel is detected and the subject vehicle is controlled to travel in an autonomous manner along the detected target trajectory, the travel control method for a vehicle comprising: provisionally setting a forward gaze point distance from the subject vehicle to a forward gaze point at least in accordance with traveling lane information; estimating a traveling trajectory of the subject vehicle in which the subject vehicle coincides with the target trajectory at the forward gaze point if the subject vehicle travels the provisionally-set forward gaze point distance; the method being characterised by detecting a maximum value of a lateral displacement between the estimated traveling trajectory of the subject vehicle and the target trajectory during travel from a current position of the subject vehicle to the forward gaze point; and definitely setting the forward gaze point distance when the maximum value of the lateral displacement is a predetermined value or less as an actual forward gaze point distance and then controlling the subject vehicle to travel in an autonomous manner on a basis of the definitely-set forward gaze point distance. provisionally setting a forward gaze point distance from the subject vehicle to a forward gaze point at least in accordance with traveling lane information; estimating a traveling trajectory of the subject vehicle in which the subject vehicle coincides with the target trajectory at the forward gaze point if the subject vehicle travels the provisionally-set forward gaze point distance; the method being characterised by detecting a maximum value of a lateral displacement between the estimated traveling trajectory of the subject vehicle and the target trajectory during travel from a current position of the subject vehicle to the forward gaze point; and definitely setting the forward gaze point distance when the maximum value of the lateral displacement is a predetermined value or less as an actual forward gaze point distance and then controlling the subject vehicle to travel in an autonomous manner on a basis of the definitely-set forward gaze point distance.
A combine harvester comprising - a feederhouse mounted to a chassis and being adapted at a front end to support a crop gathering header in a manner that places a front inlet in communication with a discharge opening of the header, the feederhouse defining a crop conveying passage and housing a conveyor; - a duct mounted on the feederhouse and defining a channel that is in communication with the crop conveying passage via a first opening; - a fan arranged to move air through the duct, the fan being operable in a first direction to create a suction airflow to extract dust from the crop conveying passage and discharge the dust through the duct; - a second opening is provided in the duct; characterised in that the first opening has associated therewith a first closure element that is movable between an open position and a closed position, and in that the second opening having associated therewith a second closure element that is movable between an open position and a closed position, wherein the fan is selectively operable in a second direction to create a blowing airflow to open the second closure element and vent air through the second opening, wherein the second opening is configured to direct the vented air across a top surface of the feederhouse. - a feederhouse mounted to a chassis and being adapted at a front end to support a crop gathering header in a manner that places a front inlet in communication with a discharge opening of the header, the feederhouse defining a crop conveying passage and housing a conveyor; - a duct mounted on the feederhouse and defining a channel that is in communication with the crop conveying passage via a first opening; - a fan arranged to move air through the duct, the fan being operable in a first direction to create a suction airflow to extract dust from the crop conveying passage and discharge the dust through the duct; - a second opening is provided in the duct;
A computer-implemented method, comprising: modeling a plurality of electrically conducting wire loops of a probe as respective polygons, wherein the probe has a distal end having a framework disposed on the distal end, the framework comprising the wire loops defining a chamber, the wire loops being independently connected to a receiver; subdividing the polygons into a plurality of triangles; exposing the wire loops to magnetic fluxes atrespective frequencies; reading signals from the wire loops responsively to the magnetic fluxes at the respective frequencies; computing the theoretical magnetic fluxes in the polygons as respective sums of theoretical magnetic fluxes in the triangles thereof; and determining a location and orientation of the framework by relating the computed theoretical magnetic fluxes to the signals. modeling a plurality of electrically conducting wire loops of a probe as respective polygons, wherein the probe has a distal end having a framework disposed on the distal end, the framework comprising the wire loops defining a chamber, the wire loops being independently connected to a receiver; subdividing the polygons into a plurality of triangles; exposing the wire loops to magnetic fluxes atrespective frequencies; reading signals from the wire loops responsively to the magnetic fluxes at the respective frequencies; computing the theoretical magnetic fluxes in the polygons as respective sums of theoretical magnetic fluxes in the triangles thereof; and determining a location and orientation of the framework by relating the computed theoretical magnetic fluxes to the signals.
A method for motor torque-based phase sequential switching comprising: determining a desired torque level of a motor actuated by a wye-delta motor starter (374, 442), wherein the wye-delta motor starter includes a plurality of single pole, single current carrying path switching devices (218, 376, 378, 380, 382, 384, 444, 446, 448, 450, 452, 454) used to selectively connect three motor windings (386, 388, 390); determining, using a control system, phase sequential wye-delta switching steps for sequentially traversing through configurations from among a wye configuration, a delta configuration or a mixed wye-delta configuration of the wye-delta motor starter to gradually achieve the desired torque level, wherein determining the configuration comprises determining which of the plurality of single pole, single current carrying path switching devices in the wye-delta motor starter should be opened and which should be closed; and instructing, using the control system, the wye-delta motor starter to implement the determined phase sequential wye-delta switching steps by opening or closing one or more of the plurality of single pole, single current carrying path switching devices such that throughout the phase sequential wye-delta switching steps, the torque is in the same direction e.g. positive. determining a desired torque level of a motor actuated by a wye-delta motor starter (374, 442), wherein the wye-delta motor starter includes a plurality of single pole, single current carrying path switching devices (218, 376, 378, 380, 382, 384, 444, 446, 448, 450, 452, 454) used to selectively connect three motor windings (386, 388, 390); determining, using a control system, phase sequential wye-delta switching steps for sequentially traversing through configurations from among a wye configuration, a delta configuration or a mixed wye-delta configuration of the wye-delta motor starter to gradually achieve the desired torque level, wherein determining the configuration comprises determining which of the plurality of single pole, single current carrying path switching devices in the wye-delta motor starter should be opened and which should be closed; and instructing, using the control system, the wye-delta motor starter to implement the determined phase sequential wye-delta switching steps by opening or closing one or more of the plurality of single pole, single current carrying path switching devices such that throughout the phase sequential wye-delta switching steps, the torque is in the same direction e.g. positive.
A method by a user equipment, UE, comprising in a first time interval, attempting to decode one or more control channels on downlink or sidelink resources of a first subband configuration (100; 200; 300), wherein the first subband configuration corresponds to a first search space configuration predefined using higher-layer signaling, and the first subband configuration spans a first frequency range (114; 214; 314); in a second time interval, attempting to decode one or more control channels on downlink or sidelink resources of a second subband configuration (150; 250; 350), wherein the second subband configuration corresponds to a second search space configuration predefined using higher-layer signaling, and the second subband configuration spans a second frequency range (164; 264; 364) different from the first frequency range; and the method further comprising, prior to the second time interval, receiving dynamic signaling with an instruction to use the second subband configuration, and characterized in that, in response to receiving the instruction, starting a timer, and in response to expiration of the timer, switching from the second subband configuration to a third subband configuration different from the first and second subband configurations. in a first time interval, attempting to decode one or more control channels on downlink or sidelink resources of a first subband configuration (100; 200; 300), wherein the first subband configuration corresponds to a first search space configuration predefined using higher-layer signaling, and the first subband configuration spans a first frequency range (114; 214; 314); in a second time interval, attempting to decode one or more control channels on downlink or sidelink resources of a second subband configuration (150; 250; 350), wherein the second subband configuration corresponds to a second search space configuration predefined using higher-layer signaling, and the second subband configuration spans a second frequency range (164; 264; 364) different from the first frequency range; and the method further comprising, prior to the second time interval, receiving dynamic signaling with an instruction to use the second subband configuration, and characterized in that, in response to receiving the instruction, starting a timer, and in response to expiration of the timer, switching from the second subband configuration to a third subband configuration different from the first and second subband configurations.
A reinforcing bar comprising a shaft extending along a portion of the length of the bar and a termination extending along an end portion of the bar, the termination incorporating an engagement face incorporating locking formations (16, 17, 18, 19, 20, 21, 22, 23) thereon arranged to interfit with a complementary shaped termination to form an interlock operative to accommodate axial loading, the locking formations comprise a plurality of spaced apart upstands (16, 17, 18, 19) extending transversely across the engagement face and a plurality of recesses (20, 21, 22, 23) disposed between adjacent ones of the upstands (16, 17, 18, 19), wherein, in use, the upstands (16, 17, 18, 19) and recesses (20, 21, 22, 23) interfit with upstands and recesses disposed on the complementary shaped termination; characterised in that to facilitate proper mating of the terminations in forming the interlock an end upstand adjacent a terminal end of the bar is wider than the other upstands (16, 17, 18) and an innermost recess is wider than the other recesses (21, 22, 23) to receive an upstand of the shape of the end upstand.