mhurhangee/ep-ind-claims huggingface dataset:
A corrosion inhibitor made by a process comprising: (a) reacting a 1,3,4-dimercapto thiadiazole or alkali metal salt thereof with an alkyl mercaptan in the presence of an acid to form a first reaction intermediate; (b) reacting the first reaction intermediate with hydrogen peroxide to form the corrosion inhibitor; and (c) wherein the 1,3,4-dimercapto thiadiazole or alkali metal salt thereof, the alkyl mercaptan, and the hydrogen peroxide are provided at a molar ratio of 1: 1.95 - 2.15: greater than 2.0; wherein the corrosion inhibitor is a blend of compound Ia and Ib with 95 to 99.5 weight percent of compounds of Formula Ia and 0.05 to 5 weight percent of compounds of Formula Ib wherein each R 1 of Formula Ia and/or Formula Ib is, independently, a linear or branched C4 to C20 hydrocarbyl group. (a) reacting a 1,3,4-dimercapto thiadiazole or alkali metal salt thereof with an alkyl mercaptan in the presence of an acid to form a first reaction intermediate; (b) reacting the first reaction intermediate with hydrogen peroxide to form the corrosion inhibitor; and (c) wherein the 1,3,4-dimercapto thiadiazole or alkali metal salt thereof, the alkyl mercaptan, and the hydrogen peroxide are provided at a molar ratio of 1: 1.95 - 2.15: greater than 2.0; wherein the corrosion inhibitor is a blend of compound Ia and Ib with 95 to 99.5 weight percent of compounds of Formula Ia and 0.05 to 5 weight percent of compounds of Formula Ib wherein each R 1 of Formula Ia and/or Formula Ib is, independently, a linear or branched C4 to C20 hydrocarbyl group.
A downlink control information obtaining method, comprising: determining, by a terminal, predefined search space based on aggregation levels supported by the terminal, wherein the predefined search space comprises search space corresponding to at least one of an aggregation level 16 and an aggregation level 24; and performing, by the terminal, blind detection in the predefined search space to obtain downlink control information, DCI; wherein before the determining, by the terminal, predefined search space based on aggregation levels supported by the terminal, the method further comprises: reporting, by the terminal to a base station, at least one aggregation level supported by the terminal, wherein the DCI is carried on a physical resource corresponding to an aggregation level N in the at least one aggregation level. determining, by a terminal, predefined search space based on aggregation levels supported by the terminal, wherein the predefined search space comprises search space corresponding to at least one of an aggregation level 16 and an aggregation level 24; and performing, by the terminal, blind detection in the predefined search space to obtain downlink control information, DCI; wherein before the determining, by the terminal, predefined search space based on aggregation levels supported by the terminal, the method further comprises: reporting, by the terminal to a base station, at least one aggregation level supported by the terminal, wherein the DCI is carried on a physical resource corresponding to an aggregation level N in the at least one aggregation level. reporting, by the terminal to a base station, at least one aggregation level supported by the terminal, wherein the DCI is carried on a physical resource corresponding to an aggregation level N in the at least one aggregation level.
An absorbent article comprising: a body facing surface; a liquid permeable cover layer; a liquid impermeable barrier layer; an absorbent core arranged between the cover and barrier; and a buffer composition capable of adjusting a pH of body fluids having a natural pH of from about 3.0 to about 8.0 to an adjusted pH of between 4.6 and 6.3 at the body facing surface of the article after such body fluid is absorbed by the absorbent article, wherein the buffer composition comprises sodium citrate and citric acid and the ratio of sodium citrate to citric acid is from 6.2:1 to 7.2: 1; characterized in that the buffer composition, in its dry state, does not contact the cover layer directly. a body facing surface; a liquid permeable cover layer; a liquid impermeable barrier layer; an absorbent core arranged between the cover and barrier; and a buffer composition capable of adjusting a pH of body fluids having a natural pH of from about 3.0 to about 8.0 to an adjusted pH of between 4.6 and 6.3 at the body facing surface of the article after such body fluid is absorbed by the absorbent article, wherein the buffer composition comprises sodium citrate and citric acid and the ratio of sodium citrate to citric acid is from 6.2:1 to 7.2: 1; characterized in that the buffer composition, in its dry state, does not contact the cover layer directly.
A method for controlling an uninterruptible power supply having a polyphase power input and an input power circuit coupled to the polyphase power input, the method comprising acts of: determining to reduce a load on a first phase of the polyphase power input; characterised by, in response thereto, controlling the input power circuit to reduce a magnitude of a first input current drawn from the first phase by a first amount and increase a magnitude of at least one second input current drawn from at least one second phase of the polyphase power input by a second amount such that the magnitude of first input current drawn is not equal to the magnitude of second input current drawn. determining to reduce a load on a first phase of the polyphase power input; characterised by, in response thereto, controlling the input power circuit to reduce a magnitude of a first input current drawn from the first phase by a first amount and increase a magnitude of at least one second input current drawn from at least one second phase of the polyphase power input by a second amount such that the magnitude of first input current drawn is not equal to the magnitude of second input current drawn.
A multi-layer, microporous polyolefin membrane, comprising: a first layer material and a second layer material, the first and second layer materials each consisting of polyethylene and polypropylene, wherein (i) the first layer material contains polyethylene in a first amount of 80-99.5 wt.%, based on the weight of the first material; (ii) the second layer material contains polyethylene in a second amount of 50-85 wt.%, based on the weight of the second material; (iii) the first layer material contains at least 5 wt. % more polyethylene than the second material based on the weights of the first and second layer materials, and (iv) the multi-layer, microporous polyolefin membrane contains polyethylene in a total amount of 70-90 wt.%, based on the combined weight of the first and second layer materials, wherein the polyethylene in the first layer material comprises polyethylene having a weight-average molecular weight of 1 x 10 6 or more and polyethylene having a weight-average molecular weight of 1 x 10 4 to 5 x 10 5, and wherein the polyethylene in the second layer material has a weight-average molecular weight of 1 x 10 4 to 5 x 10 5. a first layer material and a second layer material, the first and second layer materials each consisting of polyethylene and polypropylene, wherein (i) the first layer material contains polyethylene in a first amount of 80-99.5 wt.%, based on the weight of the first material; (ii) the second layer material contains polyethylene in a second amount of 50-85 wt.%, based on the weight of the second material; (iii) the first layer material contains at least 5 wt. % more polyethylene than the second material based on the weights of the first and second layer materials, and (iv) the multi-layer, microporous polyolefin membrane contains polyethylene in a total amount of 70-90 wt.%, based on the combined weight of the first and second layer materials, (i) the first layer material contains polyethylene in a first amount of 80-99.5 wt.%, based on the weight of the first material; (ii) the second layer material contains polyethylene in a second amount of 50-85 wt.%, based on the weight of the second material; (iii) the first layer material contains at least 5 wt. % more polyethylene than the second material based on the weights of the first and second layer materials, and (iv) the multi-layer, microporous polyolefin membrane contains polyethylene in a total amount of 70-90 wt.%, based on the combined weight of the first and second layer materials, wherein the polyethylene in the first layer material comprises polyethylene having a weight-average molecular weight of 1 x 10 6 or more and polyethylene having a weight-average molecular weight of 1 x 10 4 to 5 x 10 5, and wherein the polyethylene in the second layer material has a weight-average molecular weight of 1 x 10 4 to 5 x 10 5.
Handheld dental instrument with a grip sleeve, and with a head housing arranged at the front end of the grip sleeve and provided for receiving or holding a treatment instrument, wherein the head housing has a substantially cylindrical hollow space connected by at least one connecting bore (10, 20) to an attachment area that points to the grip sleeve, and wherein the connecting bore (10, 20), at its end directed towards the grip sleeve, is coupled to a media line extending through the grip sleeve, and wherein the inner wall area of the head housing enclosing the hollow space has a recess (11, 21) into which the connecting bore (10, 20) opens, characterized in that the recess (11, 21) is crescent-shaped.
An autonomous vehicle, in particular a driverless transport vehicle, comprising a control device and a sensor for detecting a continuous lane marking, wherein the control device is adapted to control the vehicle along the lane marking in dependence on the detected lane marking; and wherein the sensor is adapted to detect a first code marking arranged adjacent to the lane marking, characterized in that the sensor is further adapted to determine a first distance between the detected first code marking and the lane marking, and with the control device further being adapted to control the vehicle in dependence on the determined first distance.
A method of controlling compressor inlet guide vanes of a gas turbine engine in an aircraft, the method comprising the steps of: supplying, to a compressor inlet guide vane control algorithm that is implemented in and engine control unit that is coupled to the gas turbine engine, an inlet temperature value that is at least representative of sensed engine inlet total temperature; sensing, with one or more sensors, one or more gas turbine engine parameters during operation of the gas turbine engine; processing the one or more gas turbine engine parameters, in the engine control unit, to determine an inlet temperature modifier value, the inlet temperature modifier value being an estimate of a difference between the sensed engine inlet total temperature and actual engine inlet total temperature; adding, in the engine control unit, the inlet temperature modifier value to the inlet temperature value to derive a modified engine inlet total temperature; using the modified engine inlet total temperature in the compressor inlet guide vane control algorithm; and controlling the compressor inlet guide vanes using the compressor inlet guide vane control algorithm. supplying, to a compressor inlet guide vane control algorithm that is implemented in and engine control unit that is coupled to the gas turbine engine, an inlet temperature value that is at least representative of sensed engine inlet total temperature; sensing, with one or more sensors, one or more gas turbine engine parameters during operation of the gas turbine engine; processing the one or more gas turbine engine parameters, in the engine control unit, to determine an inlet temperature modifier value, the inlet temperature modifier value being an estimate of a difference between the sensed engine inlet total temperature and actual engine inlet total temperature; adding, in the engine control unit, the inlet temperature modifier value to the inlet temperature value to derive a modified engine inlet total temperature; using the modified engine inlet total temperature in the compressor inlet guide vane control algorithm; and controlling the compressor inlet guide vanes using the compressor inlet guide vane control algorithm.
A memory management method comprising: determining a stride value for stride access by referring to a size of two-dimensional data (1100, 1102); and allocating neighboring data in a vertical direction of the 2D data to a plurality of banks that are different from one another according to the determined stride value, characterized in that the stride value is an odd multiple of a data width of the bank, where the odd multiple of the data width of the bank is obtained by multiplying the data width of the bank by the smallest possible positive odd number which enable the stride value to be equal to or larger than a number of columns of the 2D data. determining a stride value for stride access by referring to a size of two-dimensional data (1100, 1102); and allocating neighboring data in a vertical direction of the 2D data to a plurality of banks that are different from one another according to the determined stride value, characterized in that the stride value is an odd multiple of a data width of the bank, where the odd multiple of the data width of the bank is obtained by multiplying the data width of the bank by the smallest possible positive odd number which enable the stride value to be equal to or larger than a number of columns of the 2D data.
A back support for a standing frame, the back support comprising: - a holder for attaching the back support to the standing frame, the holder having a ball stud at its one end; - a supporting plate; - a carrying plate attached at a first side of the supporting plate and having a socket housing a ball of the ball stud; and - a cushion attached at a second side of the supporting plate; characterised in that it further comprises hip supports (40, 50) mounted asides the supporting plate, each hip support (40, 50) being mounted on a bracket (41, 51), each bracket (41, 51) having an elongated arm (41A, 51A) parallel to the supporting plate and rotatable relative to an axis (X1, X2) perpendicular to the supporting plate, wherein each hip support (40, 50) has a main plane (40A, 50A) arranged perpendicularly to its elongated arm (41A, 51A). - a holder for attaching the back support to the standing frame, the holder having a ball stud at its one end; - a supporting plate; - a carrying plate attached at a first side of the supporting plate and having a socket housing a ball of the ball stud; and - a cushion attached at a second side of the supporting plate;
A rack positioning assembly for an electric panel, comprising: - a vertical busbar for distributing electric current to electric appliances, said busbar comprising several bars, which are positioned in a same vertical plane and on which it is provided to connect racks of the electric panel, and - several rack positioning modules, which are positioned above one another, which surround the bars of the vertical busbar and which comprise means (50, 62, 224, 224') for increasing the insulation distance between the bars at the interface between two successive modules, that insulation distance corresponding to the length of the electric creep path between the bars, characterized in that the increasing means comprise separating flanks (224, 224') for the bars of the vertical busbar, between which insulating ribs (50, 62) extend, at least some of the ribs (50, 62) delimiting a housing for receiving a side of a bar of the vertical busbar and in that the insulating ribs (50, 62) are not straight. - a vertical busbar for distributing electric current to electric appliances, said busbar comprising several bars, which are positioned in a same vertical plane and on which it is provided to connect racks of the electric panel, and - several rack positioning modules, which are positioned above one another, which surround the bars of the vertical busbar and which comprise means (50, 62, 224, 224') for increasing the insulation distance between the bars at the interface between two successive modules, that insulation distance corresponding to the length of the electric creep path between the bars,
A cleaner comprising a fan unit, wherein the fan unit comprises: a first fan and a second fan disposed in a line on the same rotation axis wherein the second fan is configured to be rotated in a direction opposite to a direction in which the first fan is rotated; and a driving motor configured to drive the first fan and the second fan, the driving motor comprising, a first rotor connected to the first fan; a second rotor connected to the second fan; a stator disposed between the first rotor and the second rotor; wherein a first air gap is formed between the stator and the first rotor, a second air gap is formed between the stator and the second rotor, and a size of any one of the first air gap and the second air gap varies in a circumferential direction of the stator. a first fan and a second fan disposed in a line on the same rotation axis wherein the second fan is configured to be rotated in a direction opposite to a direction in which the first fan is rotated; and a driving motor configured to drive the first fan and the second fan, the driving motor comprising, a first rotor connected to the first fan; a second rotor connected to the second fan; a stator disposed between the first rotor and the second rotor; a first rotor connected to the first fan; a second rotor connected to the second fan; a stator disposed between the first rotor and the second rotor; wherein a first air gap is formed between the stator and the first rotor, a second air gap is formed between the stator and the second rotor, and a size of any one of the first air gap and the second air gap varies in a circumferential direction of the stator.
A radial blower, comprising: - a housing with a first side wall, a second side wall opposite to the first side wall and a peripheral wall, which jointly define a conveying space, wherein the first side wall forms an inlet aperture and the peripheral wall forms an outlet aperture, - an impeller accommodated within the conveying space, - an electric motor, - a motor support, which forms a stator housing in which a stator of the motor is accommodated, and a rotor seat for the rotational support of a motor shaft connected to a rotor of the motor, characterized in that the electric motor is arranged outside the conveying space and the motor support is directly formed by the second side wall and axially protrudes into the conveying space so that the conveying space at least partially envelops the stator and the rotor seat. - a housing with a first side wall, a second side wall opposite to the first side wall and a peripheral wall, which jointly define a conveying space, wherein the first side wall forms an inlet aperture and the peripheral wall forms an outlet aperture, - an impeller accommodated within the conveying space, - an electric motor, - a motor support, which forms a stator housing in which a stator of the motor is accommodated, and a rotor seat for the rotational support of a motor shaft connected to a rotor of the motor,
A method comprising: requesting, by a user device from a remote provider and from a local provider, candidate data values for use in autofill for an application displayed on the user device, wherein the local provider is a system-provided service provided by an operating system of the user device; receiving, from the remote provider, a first data set comprising one or more candidate values corresponding to a first set of one or more input fields of the application; receiving, from the local provider, a second data set comprising one or more candidate values corresponding to a second set of one or more input fields of the application, wherein the second data set includes one or more user input values from user interaction with a different application that have been collected by the local provider; detecting that an input field of the application has focus, wherein the input field is included in the first set and the second set; responsively causing a selectable list to be displayed on the user device, wherein the selectable list includes a first selectable option corresponding to the first data set from the remote provider and a second selectable option corresponding to the second data set from the local provider; receiving user input data indicating a selected data set from the selectable list; and responsively filling one or more candidate values from the selected data set into one or more corresponding input fields of the application. requesting, by a user device from a remote provider and from a local provider, candidate data values for use in autofill for an application displayed on the user device, wherein the local provider is a system-provided service provided by an operating system of the user device; receiving, from the remote provider, a first data set comprising one or more candidate values corresponding to a first set of one or more input fields of the application; receiving, from the local provider, a second data set comprising one or more candidate values corresponding to a second set of one or more input fields of the application, wherein the second data set includes one or more user input values from user interaction with a different application that have been collected by the local provider; detecting that an input field of the application has focus, wherein the input field is included in the first set and the second set; responsively causing a selectable list to be displayed on the user device, wherein the selectable list includes a first selectable option corresponding to the first data set from the remote provider and a second selectable option corresponding to the second data set from the local provider; receiving user input data indicating a selected data set from the selectable list; and responsively filling one or more candidate values from the selected data set into one or more corresponding input fields of the application.
Wind turbine, comprising: a handling device for a gearbox, having a first column, a second column, a first holder for the gearbox, a second holder for the gearbox, a first rail and a second rail, wherein the first holder is fixed in the first column so as to be rotatable and displaceable in translation, wherein the second holder is fixed in the second column so as to be rotatable and displaceable in translation parallel to the first holder, wherein the first column is fixed in the first rail so as to be displaceable in translation, wherein the second column is displaceable in translation in the second rail parallel to the first column, and wherein the axes of rotation of the holders (105a, 105b) are aligned or are oriented such that they can be brought into alignment by displacing the first holder, the second holder, the first column and/or the second column, wherein the first rail and the second rail of the handling device are fixed in a machinery carrier of the wind turbine. a handling device for a gearbox, having a first column, a second column, a first holder for the gearbox, a second holder for the gearbox, a first rail and a second rail, wherein the first holder is fixed in the first column so as to be rotatable and displaceable in translation, wherein the second holder is fixed in the second column so as to be rotatable and displaceable in translation parallel to the first holder, wherein the first column is fixed in the first rail so as to be displaceable in translation, wherein the second column is displaceable in translation in the second rail parallel to the first column, and wherein the axes of rotation of the holders (105a, 105b) are aligned or are oriented such that they can be brought into alignment by displacing the first holder, the second holder, the first column and/or the second column, wherein the first rail and the second rail of the handling device are fixed in a machinery carrier of the wind turbine.