mhurhangee/ep-ind-claims huggingface dataset:
A method for determining an axial position of a feedback device, the feedback device coupled to rotate with an aircraft-bladed rotor about a longitudinal axis and to move along the axis with adjustment of a blade pitch angle of the rotor, the method comprising: obtaining, from at least one sensor positioned adjacent the feedback device, a sensor signal comprising a first signal pulse having a first voltage amplitude (V pk-pk1) and a second signal pulse having a second voltage amplitude (V pk-pk2) greater than or substantially equal to the first voltage amplitude (V pk-pk1), the feedback device comprising at least one varying detectable feature (502 1; 604 1) configured to generate the first signal pulse and a reference feature (502 2; 604 2) configured to generate the second signal pulse, the at least one varying detectable feature (502 1; 604 1) configured to cause a change in the first voltage amplitude (V pk-pk1) as a function of the axial position of the feedback device along the axis; determining a voltage ratio based on the first voltage amplitude (V pk-pk1) and the second voltage amplitude (V pk-pk2); and determining the axial position of the feedback device from the voltage ratio. obtaining, from at least one sensor positioned adjacent the feedback device, a sensor signal comprising a first signal pulse having a first voltage amplitude (V pk-pk1) and a second signal pulse having a second voltage amplitude (V pk-pk2) greater than or substantially equal to the first voltage amplitude (V pk-pk1), the feedback device comprising at least one varying detectable feature (502 1; 604 1) configured to generate the first signal pulse and a reference feature (502 2; 604 2) configured to generate the second signal pulse, the at least one varying detectable feature (502 1; 604 1) configured to cause a change in the first voltage amplitude (V pk-pk1) as a function of the axial position of the feedback device along the axis; determining a voltage ratio based on the first voltage amplitude (V pk-pk1) and the second voltage amplitude (V pk-pk2); and determining the axial position of the feedback device from the voltage ratio.
A liquid circulation device, comprising: a supply unit that forms a flow path supplying a liquid from a reservoir unit; a collection unit that forms a flow path collecting the liquid to the reservoir unit; and N number of the connection units provided respectively corresponding to N number (N means a natural number of three or more) of ejection units ejecting the liquid forming a flow path connecting the supply unit and the collection unit via the ejection units, wherein with regard to each of N number of the connection units, a connection order of the connection units with respect to the supply unit, which is counted from upstream in a flow direction of the liquid in the supply unit coincides with a connection order of the connection units with respect to the collection unit, which is counted from upstream in the flow direction of the liquid in the collection unit, characterized in that the supply unit and the collection unit mutually have an identical, and constant flow path cross-sectional area, and N number of the connection units all have the identical flow path cross-sectional area, and wherein intervals between the connection points each with the connection units in the supply unit are all identical to intervals between the connection points each with the connection units in the collection unit. a supply unit that forms a flow path supplying a liquid from a reservoir unit; a collection unit that forms a flow path collecting the liquid to the reservoir unit; and N number of the connection units provided respectively corresponding to N number (N means a natural number of three or more) of ejection units ejecting the liquid forming a flow path connecting the supply unit and the collection unit via the ejection units, wherein with regard to each of N number of the connection units, a connection order of the connection units with respect to the supply unit, which is counted from upstream in a flow direction of the liquid in the supply unit coincides with a connection order of the connection units with respect to the collection unit, which is counted from upstream in the flow direction of the liquid in the collection unit, characterized in that the supply unit and the collection unit mutually have an identical, and constant flow path cross-sectional area, and N number of the connection units all have the identical flow path cross-sectional area, and wherein intervals between the connection points each with the connection units in the supply unit are all identical to intervals between the connection points each with the connection units in the collection unit.
A method for making an abrasive article comprising: loading abrasive particles to a distribution tool, the distribution tool including a plurality of spaced apart elongated strips combining to define a plurality of channels each of the plurality of channels being open to a lower side of the distribution tool; and distributing abrasive particles from the distribution tool on to a major face of a backing construction web located immediately below the lower side of the distribution tool; wherein at least a majority of the abrasive particles distributed from the distribution tool undergo a particle orientation sequence in which each abrasive particle of the at least a majority of abrasive particles: a) enters one of the plurality of channels b) passes partially through the corresponding channel such that a first portion of the abrasive particle is beyond the lower side and in contact with the major face, and a second portion of the abrasive particle is within the channel, c) remains in simultaneous contact with at least one of the strips and the major face for a dwell period. loading abrasive particles to a distribution tool, the distribution tool including a plurality of spaced apart elongated strips combining to define a plurality of channels each of the plurality of channels being open to a lower side of the distribution tool; and distributing abrasive particles from the distribution tool on to a major face of a backing construction web located immediately below the lower side of the distribution tool; wherein at least a majority of the abrasive particles distributed from the distribution tool undergo a particle orientation sequence in which each abrasive particle of the at least a majority of abrasive particles: a) enters one of the plurality of channels b) passes partially through the corresponding channel such that a first portion of the abrasive particle is beyond the lower side and in contact with the major face, and a second portion of the abrasive particle is within the channel, c) remains in simultaneous contact with at least one of the strips and the major face for a dwell period. a) enters one of the plurality of channels b) passes partially through the corresponding channel such that a first portion of the abrasive particle is beyond the lower side and in contact with the major face, and a second portion of the abrasive particle is within the channel, c) remains in simultaneous contact with at least one of the strips and the major face for a dwell period.
Coffee beverage system, including a coffee bean packaging cartridge and a coffee brewing apparatus, wherein the coffee bean packaging cartridge is arranged for holding and supplying multiple servings of coffee beans, the cartridge including: a container having an outer wall defining an interior volume and at least one exit opening defining a coffee bean outlet, the container holding at least one serving of coffee beans; conveyor means adapted to be rotatably driven exteriorly of the cartridge for transporting the coffee beans towards the exit opening of the cartridge; and coupling means adapted for drivingly coupling the conveyor means to rotating motive means of a coffee brewing apparatus, wherein the cartridge is openable to reveal the exit opening, wherein the coffee been packaging cartridge is removably connected to the coffee brewing apparatus, wherein the coffee brewing apparatus comprises a motive means for drivingly engaging the coupling means of the coffee bean packaging cartridge in its connected state for driving the conveyor means for transporting coffee beans from the cartridge via its exit opening into the coffee brewing apparatus, wherein the coffee brewing apparatus further comprises a control unit for controlling the motive means, characterized in that the dosed amount of coffee for one serving is determined by a complete fill of a fixed or adjustable volume of a dosing chamber. a container having an outer wall defining an interior volume and at least one exit opening defining a coffee bean outlet, the container holding at least one serving of coffee beans; conveyor means adapted to be rotatably driven exteriorly of the cartridge for transporting the coffee beans towards the exit opening of the cartridge; and coupling means adapted for drivingly coupling the conveyor means to rotating motive means of a coffee brewing apparatus, wherein the cartridge is openable to reveal the exit opening, wherein the coffee been packaging cartridge is removably connected to the coffee brewing apparatus, wherein the coffee brewing apparatus comprises a motive means for drivingly engaging the coupling means of the coffee bean packaging cartridge in its connected state for driving the conveyor means for transporting coffee beans from the cartridge via its exit opening into the coffee brewing apparatus, wherein the coffee brewing apparatus further comprises a control unit for controlling the motive means, characterized in that the dosed amount of coffee for one serving is determined by a complete fill of a fixed or adjustable volume of a dosing chamber.
A perforation system, comprising: a movable base; a laser mounted in a fixed position on said movable base; a first polygon mirror rotatably mounted on said movable base; and a controller configured: to dispose said movable base in a plurality of fixed positions; and to operate said laser and to rotate said first polygon mirror at a fixed rotational speed to define a plurality of perforations throughout a predetermined area of a substrate for each of said plurality of fixed positions of said movable base. a movable base; a laser mounted in a fixed position on said movable base; a first polygon mirror rotatably mounted on said movable base; and a controller configured: to dispose said movable base in a plurality of fixed positions; and to operate said laser and to rotate said first polygon mirror at a fixed rotational speed to define a plurality of perforations throughout a predetermined area of a substrate for each of said plurality of fixed positions of said movable base. to dispose said movable base in a plurality of fixed positions; and to operate said laser and to rotate said first polygon mirror at a fixed rotational speed to define a plurality of perforations throughout a predetermined area of a substrate for each of said plurality of fixed positions of said movable base.
A synergistic herbicidal composition comprising a herbicidally effective amount of (a) a compound of the formula: or a C 1-4 alkyl or benzyl ester of formula or a sodium, potassium, magnesium, or ammonium salt of formula and (b) clomazone or an agriculturally acceptable salt, carboxylic acid, carboxylate salt, or ester thereof.
An apparatus for testing a multifunction and a drug response of a platelet based on a centrifugal microfluidics comprising: a rotatable disk; a sample chamber which is located in the center of the disk and which is adapted to contain a blood sample therein; stirring chambers which are connected to the sample chamber in a radial direction, respectively and which induce a shear flow in the blood sample by stirring the blood sample, wherein a stirrer is rotatably installed in the stirring chambers and wherein a drug which activates or inactivates aggregation of a platelet is contained in the stirrer in a liquid or solid state microchannels which are connected to the stirring chambers and which are adapted so that aggregation and adhesion of a platelet occur during a migration of the blood sample; waste sample chambers to receive the blood sample which passed the microchannels; and a measuring part which is installed on the disk and which measures a migration distance of the blood sample wherein the progress of the blood sample is stopped in the microchannel by the aggregation of the platelet. a rotatable disk; a sample chamber which is located in the center of the disk and which is adapted to contain a blood sample therein; stirring chambers which are connected to the sample chamber in a radial direction, respectively and which induce a shear flow in the blood sample by stirring the blood sample, wherein a stirrer is rotatably installed in the stirring chambers and wherein a drug which activates or inactivates aggregation of a platelet is contained in the stirrer in a liquid or solid state microchannels which are connected to the stirring chambers and which are adapted so that aggregation and adhesion of a platelet occur during a migration of the blood sample; waste sample chambers to receive the blood sample which passed the microchannels; and a measuring part which is installed on the disk and which measures a migration distance of the blood sample wherein the progress of the blood sample is stopped in the microchannel by the aggregation of the platelet.
Illumination apparatus, in particular for a motor vehicle, comprising a plurality of multicolour LED units with respectively settable colour point and settable brightness, wherein each multicolour LED unit is an individual semiconductor device with a plurality of single-colour LEDs (301, 302, 303, 304) of different colours and a microcontroller, characterized in that the single-colour LEDs (301, 302, 303, 304) and the microcontroller of each multicolour LED unit are enclosed by a corresponding package of the semiconductor device, wherein the microcontroller is adapted to control each single-colour LED (301, 302, 303, 304) of a respective multicolour LED unit in dependence on an instantaneous temperature value of the respective multicolour LED unit in such a way that a set colour point and a set brightness are kept constant during the operation of the respective multicolour LED unit.
A rope guide apparatus; the apparatus comprising: an elongate pole having first and second ends; and a length of rope having first and second ends; characterised in that said length of rope is slidably retained by the elongate pole at a first point of retention located adjacent the first end of the elongated pole from which point the first end of said rope extends freely from the elongate pole, and within which the rope is arranged to extend from the first end thereof towards the second end of the elongate pole and is slidably retained by the elongate pole at a second point of retention adjacent the second end thereof, and in which the rope is arranged to extend continuously from adjacent the second end of the elongate pole backwardly towards the first end of the elongate pole externally to said elongate pole and is slidably retained by a retaining fixture located intermediate the second end of the elongate pole and the mid-point of the elongate pole, and in which the second end of the length of rope extends freely from the retaining fixture and the elongate pole. an elongate pole having first and second ends; and a length of rope having first and second ends; characterised in that said length of rope is slidably retained by the elongate pole at a first point of retention located adjacent the first end of the elongated pole from which point the first end of said rope extends freely from the elongate pole, and within which the rope is arranged to extend from the first end thereof towards the second end of the elongate pole and is slidably retained by the elongate pole at a second point of retention adjacent the second end thereof, and in which the rope is arranged to extend continuously from adjacent the second end of the elongate pole backwardly towards the first end of the elongate pole externally to said elongate pole and is slidably retained by a retaining fixture located intermediate the second end of the elongate pole and the mid-point of the elongate pole, and in which the second end of the length of rope extends freely from the retaining fixture and the elongate pole.
Method for producing an electrically conductive passage in a pneumatic vehicle tyre that runs in the sidewall region between an electrically conductive tread part and an electrically conductive bead component which, when the tyre is fitted on a rim, is in electrically conducting connection with the rim, characterized in that an electrically conductive suspension comprising at least one electrically conductive rubber compound and an organic solvent with a boiling point of less than 100°C is applied as electrically conductive passage(s) in the form of a line or strip or over the surface area, in particular over the full surface area, to one side of at least one unvulcanized tyre component that runs over the sidewall region in the fully assembled tyre, and in that the electrically conductive suspension is applied by being printed on, for example by means of an ink printing or inkjet printing process.
Current collector system for a vehicle that can be moved along a power rail arrangement, with at least one current collector carriage and current collector contacts arranged thereon which can be connected to power rails of the current collector arrangement, and a telescopic arm that can be or is fastened to the vehicle which can be extended and/or retracted by means of an adjusting drive, characterised in that the adjusting drive has at least one rigid chain arrangement, which is driven by at least one first rigid chain drive, wherein the rigid chain arrangement also adjusts a current collector carriage in the vertical direction (R V).
Process for preparing cationic galactomannan, comprising the following steps: a) a step of impregnating galactomannan in the form of splits with an alkaline agent; b) a step of impregnating the mixture formed on conclusion of step a) with a cationic agent; and c) a step of drying the mixture formed on conclusion of step b). a) a step of impregnating galactomannan in the form of splits with an alkaline agent; b) a step of impregnating the mixture formed on conclusion of step a) with a cationic agent; and c) a step of drying the mixture formed on conclusion of step b).
Method for well testing under full field production, wherein well flow from multiple wells (200a-d) are during full field production run through a production system comprising a production slug suppression and gas removal unit and a separator system comprising multiple interconnected inclined tubular separators (11a-e) for separating gas, oil and water from the well flow, wherein the method comprises the steps of: - isolating well flow from one of the multiple wells (200a-d) and isolating at least one of the inclined tubular separators (11a-e) from the remaining inclined tubular separators (11a-e) and dedicating the at least one isolated inclined tubular separator (11a-e) for testing, - running the well flow from the isolated well (200a-d) through a dedicated test slug suppression and gas removal unit and the at least one isolated and dedicated inclined tubular separator (11a-e) for a test period and running well flow from the other wells (200a-d) through the production slug suppression and gas removal unit and remaining inclined tubular separators (11a-e), - measuring produced gas, oil and water volumes (m 3 /h) for the isolated well (220a-d), - adding the respective produced gas, oil and water for the isolated well (220a-d) from the dedicated test slug suppression and gas removal unit and the at least one isolated and dedicated inclined tubular separator (11a-e) to the respective produced gas, oil and water for the other wells (200a-d) from the production slug suppression and gas removal unit and the remaining inclined tubular separators (11a-e), and - removing the isolation of the isolated well (200a-d) and at least one isolated and dedicated inclined tubular separator (11a-e) when the test period is ended. - isolating well flow from one of the multiple wells (200a-d) and isolating at least one of the inclined tubular separators (11a-e) from the remaining inclined tubular separators (11a-e) and dedicating the at least one isolated inclined tubular separator (11a-e) for testing, - running the well flow from the isolated well (200a-d) through a dedicated test slug suppression and gas removal unit and the at least one isolated and dedicated inclined tubular separator (11a-e) for a test period and running well flow from the other wells (200a-d) through the production slug suppression and gas removal unit and remaining inclined tubular separators (11a-e), - measuring produced gas, oil and water volumes (m 3 /h) for the isolated well (220a-d), - adding the respective produced gas, oil and water for the isolated well (220a-d) from the dedicated test slug suppression and gas removal unit and the at least one isolated and dedicated inclined tubular separator (11a-e) to the respective produced gas, oil and water for the other wells (200a-d) from the production slug suppression and gas removal unit and the remaining inclined tubular separators (11a-e), and - removing the isolation of the isolated well (200a-d) and at least one isolated and dedicated inclined tubular separator (11a-e) when the test period is ended.
A terminal apparatus comprising: a receiving unit configured to receive on a physical downlink control channel, from a base station apparatus, a downlink control information, DCI, format comprising a field value used for indicating a corresponding uplink antenna port (1022a...1022n), the field value being one of a plurality of selectable field values, wherein all field values indicating respective corresponding uplink antenna ports among the plurality of selectable field values each indicate only a single corresponding uplink antenna port, the uplink antenna port (1022a... 1022n) being used for transmission of a demodulation reference signal for a physical uplink shared channel, the DCI format being used for scheduling of the physical uplink shared channel; and a transmitting unit configured to transmit, to the base station apparatus, the demodulation reference signal for the physical uplink shared channel using the uplink antenna port (1022a...1022n) indicated by the field value, wherein the demodulation reference signal for the physical uplink shared channel transmitted using the uplink antenna port (1022a...1022n) indicated by the field value is mapped to positions of physical resources within a resource block, and the positions of physical resources within the resource block are given based on the field value comprised in the DCI format. a receiving unit configured to receive on a physical downlink control channel, from a base station apparatus, a downlink control information, DCI, format comprising a field value used for indicating a corresponding uplink antenna port (1022a...1022n), the field value being one of a plurality of selectable field values, wherein all field values indicating respective corresponding uplink antenna ports among the plurality of selectable field values each indicate only a single corresponding uplink antenna port, the uplink antenna port (1022a... 1022n) being used for transmission of a demodulation reference signal for a physical uplink shared channel, the DCI format being used for scheduling of the physical uplink shared channel; and a transmitting unit configured to transmit, to the base station apparatus, the demodulation reference signal for the physical uplink shared channel using the uplink antenna port (1022a...1022n) indicated by the field value, wherein the demodulation reference signal for the physical uplink shared channel transmitted using the uplink antenna port (1022a...1022n) indicated by the field value is mapped to positions of physical resources within a resource block, and the positions of physical resources within the resource block are given based on the field value comprised in the DCI format.