mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling slip of a clutch, coupling in a powertrain of a motor vehicle a heat engine and a gearbox, which is controlled by the driver by a control means, for example a foot pedal, the method including at least a first detection of the slip and a second detection of the actuation of the control means and, in the event of simultaneous occurrence of the first and the second detection, the emission (25; 26) of a warning signal indicating an erroneous manipulation of the control means, characterized in that the second detection is conditioned by the measurement of at least two distinct actuations of the control means separated by a time interval less than a first predetermined time threshold.
A drilling system comprising: a downhole tool comprising: a substantially straight housing (100,300); a motor assembly coupled to the housing (100,300) and having an axial centerline substantially parallel with the housing (100,300), the motor assembly comprising a rotor (101,301,620) and a stator (160,360); a driveshaft (103,303,405,630) coupled to the rotor (101,301,620) with a drivetrain (102,302) capable of transmitting torque and thrust loads but not moment loads, the driveshaft (103,303,405,630) having a centerline at an angle with the axial centerline, wherein the angle is variable in response to an axial force applied to push the rotor out of the bottom of the stator; a drill head (120,320,410,663) coupled to the driveshaft (103,303,630), characterized in that a piston is coupled to the rotor (101,301,620) at an output of the motor assembly. a substantially straight housing (100,300); a motor assembly coupled to the housing (100,300) and having an axial centerline substantially parallel with the housing (100,300), the motor assembly comprising a rotor (101,301,620) and a stator (160,360); a driveshaft (103,303,405,630) coupled to the rotor (101,301,620) with a drivetrain (102,302) capable of transmitting torque and thrust loads but not moment loads, the driveshaft (103,303,405,630) having a centerline at an angle with the axial centerline, wherein the angle is variable in response to an axial force applied to push the rotor out of the bottom of the stator; a drill head (120,320,410,663) coupled to the driveshaft (103,303,630), characterized in that a piston is coupled to the rotor (101,301,620) at an output of the motor assembly.
Fluidic actuation device for actuating a drain valve in a cistern, comprising a first actuation element for triggering part-quantity flushing, a second actuation element for triggering full-quantity flushing, the actuation elements (2, 3) being moveable from an initial position into an end position for actuating the drain valve, a cylinder with a piston space and with a piston moveable in the piston space, and two different fluid outlets (7, 8) which are connected fluidically to the piston space and to which in each case a control line of the drain valve can be connected, a fluid present in the piston space being moveable to and through the fluid outlets (7, 8) as a result of the movement of the piston, and, furthermore, the two actuation elements (2, 3) acting upon the one piston and, during actuation, moving the latter in the piston space from the initial position into the end position, characterized in that each of the actuation elements (2, 3) comprises a closure element (9, 10) which, when one of the two fluid outlets (7, 8) is actuated, closes so as to be leak-tight with respect to the fluid, so that the fluid necessarily flows out of the piston space through the other fluid outlet (8, 7).
A first dose and a second dose of a composition for use in reducing an infusion-related response, or a hypersensitivity reaction, or both in a subject, wherein said composition comprises a lipid-nucleic acid particle formulation and a nucleic acid molecule, wherein said first and second doses are to be administered in an amount sufficient to reduce an infusion-related response, or a hypersensitivity reaction, or both in the subject; wherein said first and second doses are to be administered intravenously; and wherein one, two or all of (a) to (c) of the following conditions is met: (a) the amount of said composition to be administered in said first dose is no more than 1/X, wherein X is 2, 3, 4, 5, 6, 7, 8, 9, 10, 15, 20, 30, 40 or 50, of the amount of said composition administered in said second dose; (b) the amount of said composition to be administered in said first dose is no more than 1/X, wherein X is 2, 3, 4, 5, 6, 7, 8, 9, 10, 15, 20, 30, 40 or 50, of the total amount of said composition administered; or (c) the rate of administration, e.g., in mg/min or mL/min, of said first dose is no more than 1/X, wherein X is 2, 3, 4, 5, 6, 7, 8, 9, 10, 15, 20, 30, 40 or 50, of the rate of administration of said second dose. (a) the amount of said composition to be administered in said first dose is no more than 1/X, wherein X is 2, 3, 4, 5, 6, 7, 8, 9, 10, 15, 20, 30, 40 or 50, of the amount of said composition administered in said second dose; (b) the amount of said composition to be administered in said first dose is no more than 1/X, wherein X is 2, 3, 4, 5, 6, 7, 8, 9, 10, 15, 20, 30, 40 or 50, of the total amount of said composition administered; or (c) the rate of administration, e.g., in mg/min or mL/min, of said first dose is no more than 1/X, wherein X is 2, 3, 4, 5, 6, 7, 8, 9, 10, 15, 20, 30, 40 or 50, of the rate of administration of said second dose.
A vaporizer comprising: a vaporizer body comprising an outer housing; a structural housing component (212, 312) configured to be received within the outer housing (114, 314, 514) such that the structural housing component (212, 312) is contained within the outer housing (114, 314, 514); a heater housed within the structural housing component, the heater having at least one opening through which air is passed and heated; an oven chamber (201, 301, 501) configured to hold vaporizable material to be heated by the air heated by the heater, causing the vaporizable material to at least partially vaporize into the heated air, the oven chamber (201, 301, 501) comprising side walls and housed within the structural housing component such that an air gap (304, 504) is defined between the side walls of the oven chamber (201, 301, 501) and the structural housing component (212, 312) contained within the outer housing (114, 314, 514), the air gap thermally isolating the oven chamber to aid in the prevention of thermal transfer into the outer housing; a controller, the controller housed within the structural housing component and coupled to the heater and configured to cause the heater to heat to a temperature; and a mouthpiece at an end of the vaporizer body, the mouthpiece being configured to deliver the heated air and vaporized material. a vaporizer body comprising an outer housing; a structural housing component (212, 312) configured to be received within the outer housing (114, 314, 514) such that the structural housing component (212, 312) is contained within the outer housing (114, 314, 514); a heater housed within the structural housing component, the heater having at least one opening through which air is passed and heated; an oven chamber (201, 301, 501) configured to hold vaporizable material to be heated by the air heated by the heater, causing the vaporizable material to at least partially vaporize into the heated air, the oven chamber (201, 301, 501) comprising side walls and housed within the structural housing component such that an air gap (304, 504) is defined between the side walls of the oven chamber (201, 301, 501) and the structural housing component (212, 312) contained within the outer housing (114, 314, 514), the air gap thermally isolating the oven chamber to aid in the prevention of thermal transfer into the outer housing; a controller, the controller housed within the structural housing component and coupled to the heater and configured to cause the heater to heat to a temperature; and a mouthpiece at an end of the vaporizer body, the mouthpiece being configured to deliver the heated air and vaporized material.
A cell sorting apparatus comprising: an extracorporeal circulation system for sampling blood from a subject circulating the blood outside a body and returning the blood into the body; cell measuring means for supplying measurement light to cells contained in a predetermined region of the blood sampled by the extracorporeal circulation system, to optically measure cell information on the physical quantity relating to the volume of the cell itself or a nucleus of the cell, by measurement of phase difference information acquired by detecting light passing through the cell; and cell separating means for separating, based on the cell information measured by the cell measuring means and a sorting condition set for sorting a specific type of cell, cells which satisfy the sorting condition, and returning the other cells into the body via the extracorporeal circulation system. an extracorporeal circulation system for sampling blood from a subject circulating the blood outside a body and returning the blood into the body; cell measuring means for supplying measurement light to cells contained in a predetermined region of the blood sampled by the extracorporeal circulation system, to optically measure cell information on the physical quantity relating to the volume of the cell itself or a nucleus of the cell, by measurement of phase difference information acquired by detecting light passing through the cell; and cell separating means for separating, based on the cell information measured by the cell measuring means and a sorting condition set for sorting a specific type of cell, cells which satisfy the sorting condition, and returning the other cells into the body via the extracorporeal circulation system.
A mixture for controlling phytopathogenic harmful fungi comprising, as active components, 1) N-(3',4',5'-trifluorobiphenyl-2-yl)-3-difluoromethyl-1-methyl-1H-pyrazole-4-carboxamide (compound la) and 2) at least one active compound II, selected from the A) organo(thio)phosphates acephate, chlorpyrifos, dimethoate, methamidophos and terbufos; in a synergistically effective amount, in a weight ratio of from 100:1 to 1:100. 1) N-(3',4',5'-trifluorobiphenyl-2-yl)-3-difluoromethyl-1-methyl-1H-pyrazole-4-carboxamide (compound la) and 2) at least one active compound II, selected from the A) organo(thio)phosphates acephate, chlorpyrifos, dimethoate, methamidophos and terbufos; in a synergistically effective amount, in a weight ratio of from 100:1 to 1:100. A) organo(thio)phosphates acephate, chlorpyrifos, dimethoate, methamidophos and terbufos; in a synergistically effective amount, in a weight ratio of from 100:1 to 1:100.
Stacked-plate heat exchanger, in particular an intercooler, comprising a high-temperature coolant circuit and a low-temperature coolant circuit, with heat exchanger plates stacked upon one another, through which two coolants (3, 4) and a medium to be cooled, in particular intercooling air, flow, the two coolants having a different temperature level in the high-temperature coolant circuit and in the low-temperature coolant circuit, - wherein the heat exchanger plates include a partition wall for separating the high-temperature coolant circuit from the low-temperature coolant circuit, - wherein the high-temperature coolant circuit includes a central HT coolant inlet adjacent to the partition wall, and the low-temperature coolant circuit includes a central NT coolant outlet adjacent to the partition wall, characterised in that - the HT coolant inlet and the NT coolant outlet together form a teardrop shape, which is separated by the partition wall, - the HT coolant inlet has a part-circular shape whereas the NT coolant outlet has a triangular shape and one side is formed by the partition wall. - wherein the heat exchanger plates include a partition wall for separating the high-temperature coolant circuit from the low-temperature coolant circuit, - wherein the high-temperature coolant circuit includes a central HT coolant inlet adjacent to the partition wall, and the low-temperature coolant circuit includes a central NT coolant outlet adjacent to the partition wall, - the HT coolant inlet and the NT coolant outlet together form a teardrop shape, which is separated by the partition wall, - the HT coolant inlet has a part-circular shape whereas the NT coolant outlet has a triangular shape and one side is formed by the partition wall.
A fluid cooling apparatus comprising at least one heat exchanger device for cooling at least one fluid and comprising at least one filter device for filtering the fluid that can be conveyed to a consumer, and comprising a filter housing, the apparatus having a replenishment device with a replenishment valve that, if necessary, conducts lacking fluid to the intake side of the consumer, the filter device having at least one filter element that conveys a return amount of fluid coming from the heat exchanger device, filtered, to the consumer, and a pre-charge valve of the replenishment device ensuring that the amount of fluid required by the consumer, preferably as a filtered return amount, is totally available, characterised in that an additional filter element is provided as part of the replenishment device in the fluid direction to the consumer, which thus provides the replenishment valve with a pre-definable opening pressure and, by the direct connection of the heat exchanger device to the bottom of the tank device, has a replenishment line for the fluid kept short with an installation length of 200 mm or less such that the replenishment pressure is optimally minimised in order to prevent unintentional escape of fluid-bound gas, such as air, at least within the replenishment device, and that filter elements (34, 38) are accommodated within the filter housing in a concentric arrangement one behind the other in relation to the longitudinal axis of the filter housing as part of the filter device, which filter housing also accommodates at least one replenishment, pre-charge and bypass valve (48, 46, 50).
A computer-implemented method of detecting network security threats, the method comprising the following steps: receiving at an analysis engine events relating to a monitored network; analysing the received events to match at least one event to a tactic or technique defined by a threat hypothesis and, in response, creating a case as an instance of the threat hypothesis in an experience database, the case being populated with data of the identified at least one event; assigning a threat score to the created case based on the at least one event, the threat score denoting a likelihood of the threat hypothesis; matching at least one further event to a subsequent or prior tactic or technique defined by the threat hypothesis of the created case and populating the case with data of the at least one further event, the threat score assigned to that case being updated in response, the updated threat score denoting an increased likelihood of the threat hypothesis; and in response to the updated threat score for one of the cases meeting a significance condition, rendering that case accessible to a user via a case user interface. receiving at an analysis engine events relating to a monitored network; analysing the received events to match at least one event to a tactic or technique defined by a threat hypothesis and, in response, creating a case as an instance of the threat hypothesis in an experience database, the case being populated with data of the identified at least one event; assigning a threat score to the created case based on the at least one event, the threat score denoting a likelihood of the threat hypothesis; matching at least one further event to a subsequent or prior tactic or technique defined by the threat hypothesis of the created case and populating the case with data of the at least one further event, the threat score assigned to that case being updated in response, the updated threat score denoting an increased likelihood of the threat hypothesis; and in response to the updated threat score for one of the cases meeting a significance condition, rendering that case accessible to a user via a case user interface.
A method of designing a bearing (3, 13, 14A, 14B) for rotatably supporting a vertical axis of a vertical axis windmill, the bearing (3, 13, 14A, 14B) comprising: a ball rolling in a rolling contact groove, wherein a ratio (β) of a diameter (Dw) of the ball with respect to a diameter (d) of the vertical axis, and a numerical value that is obtained by dividing a rolling contact groove radius by the diameter of the ball (Dw) are determined, the method is characterized by constructing a graph which represents the ratio (β) as a vertical axis and represents the numerical value as a horizontal axis, and which includes an area surrounded by a first relation curve, a second relation curve, and a third relation curve, and the bearing is designed such that the ratio and the numerical value are in the area, wherein the first relation curve shows a relation between the ratio (β) and the numerical value and shows a starting torque obtained from working conditions of the vertical axis windmill, the second relation curve shows a relation between the ratio (β) and the numerical value and shows a dynamic load rating obtained from working conditions of the vertical axis windmill, the third relation curve shows a relation between the ratio (β) and the numerical value and shows a static load rating obtained from working conditions of the vertical axis windmill. a ball rolling in a rolling contact groove, wherein a ratio (β) of a diameter (Dw) of the ball with respect to a diameter (d) of the vertical axis, and a numerical value that is obtained by dividing a rolling contact groove radius by the diameter of the ball (Dw) are determined, the method is characterized by constructing a graph which represents the ratio (β) as a vertical axis and represents the numerical value as a horizontal axis, and which includes an area surrounded by a first relation curve, a second relation curve, and a third relation curve, and the bearing is designed such that the ratio and the numerical value are in the area, wherein the first relation curve shows a relation between the ratio (β) and the numerical value and shows a starting torque obtained from working conditions of the vertical axis windmill, the second relation curve shows a relation between the ratio (β) and the numerical value and shows a dynamic load rating obtained from working conditions of the vertical axis windmill, the third relation curve shows a relation between the ratio (β) and the numerical value and shows a static load rating obtained from working conditions of the vertical axis windmill.
An exercising device, comprising: a gyration unit; a damper mounted on the gyration unit; and a drive handle connected with the gyration unit; wherein the gyration unit includes: a mounting frame; and a rotation wheel rotatably mounted on the mounting frame and drivable by operation of the drive handle, such that the rotation wheel rotates reciprocally during operation of the exercising device; the damper is mounted on the mounting frame of the gyration unit and has a side pressing a periphery of the rotation wheel to provide a damping force to the rotation wheel of the gyration unit; wherein the rotation wheel of the gyration unit is provided with a rotation shaft which is rotatably mounted on the mounting frame, wherein a first end of the drive handle is pivotally mounted to and eccentrically arranged on the rotation wheel of the gyration unit or wherein the first end of the drive handle is pivotally mounted to a second end of a crank, the first end of which being secured to the rotation shaft of the gyration unit, the first end of the drive handle being pivotable during operation of the exercising device. a gyration unit; a damper mounted on the gyration unit; and a drive handle connected with the gyration unit; wherein the gyration unit includes: a mounting frame; and a rotation wheel rotatably mounted on the mounting frame and drivable by operation of the drive handle, such that the rotation wheel rotates reciprocally during operation of the exercising device; the damper is mounted on the mounting frame of the gyration unit and has a side pressing a periphery of the rotation wheel to provide a damping force to the rotation wheel of the gyration unit; wherein the rotation wheel of the gyration unit is provided with a rotation shaft which is rotatably mounted on the mounting frame, wherein a first end of the drive handle is pivotally mounted to and eccentrically arranged on the rotation wheel of the gyration unit or wherein the first end of the drive handle is pivotally mounted to a second end of a crank, the first end of which being secured to the rotation shaft of the gyration unit, the first end of the drive handle being pivotable during operation of the exercising device. a mounting frame; and a rotation wheel rotatably mounted on the mounting frame and drivable by operation of the drive handle, such that the rotation wheel rotates reciprocally during operation of the exercising device; the damper is mounted on the mounting frame of the gyration unit and has a side pressing a periphery of the rotation wheel to provide a damping force to the rotation wheel of the gyration unit; wherein the rotation wheel of the gyration unit is provided with a rotation shaft which is rotatably mounted on the mounting frame, wherein a first end of the drive handle is pivotally mounted to and eccentrically arranged on the rotation wheel of the gyration unit or wherein the first end of the drive handle is pivotally mounted to a second end of a crank, the first end of which being secured to the rotation shaft of the gyration unit, the first end of the drive handle being pivotable during operation of the exercising device.
Pill crushing apparatus for use with first and second nestable cups (16, 18), said apparatus comprising: a) a first cup holder configured to removably hold said first nestable cup; b) a cup holder fixture consisting of a first axial translation element, a second base element and a rotator base element, said cup holder fixture axially aligned with said first cup holder; c) a second axial translation element axially aligned with said cup holder fixture opposite said first cup holder, said second axial translation element operably engaged with said cup holder fixture such that said cup holder fixture and said second axial translation element may translate linearly with respect to each other; d) a second cup holder axially alignable with said first cup holder opposite said cup holder fixture and configured to releasably engage said second nestable cup; and e) a chip guard adapted to encircle said first and second cup holders (22, 20); whereby, upon rotation of said second axial translation element, said cup holder fixture translates said first cup holder into engagement with said second cup holder thereby causing said cup holder fixture to rotate with respect to said second cup holder and thereby imparting a grinding force against pills held between said first and second nestable cups (16, 18), and wherein said chip guard prevents ground pill material from escaping said first and second nestable cups (16, 18). a) a first cup holder configured to removably hold said first nestable cup; b) a cup holder fixture consisting of a first axial translation element, a second base element and a rotator base element, said cup holder fixture axially aligned with said first cup holder; c) a second axial translation element axially aligned with said cup holder fixture opposite said first cup holder, said second axial translation element operably engaged with said cup holder fixture such that said cup holder fixture and said second axial translation element may translate linearly with respect to each other; d) a second cup holder axially alignable with said first cup holder opposite said cup holder fixture and configured to releasably engage said second nestable cup; and e) a chip guard adapted to encircle said first and second cup holders (22, 20);