mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling an engine of a straddle type vehicle, which avoids an over venturi effect in a low-speed range and in which an engine torque is controlled by electronically controlling a throttle opening in response to a displacement of an accelerator for all engine speeds, wherein the accelerator displacement and the throttle opening that is set correspondingly to the accelerator displacement are stored in advance as map data relative to each engine speed, and wherein the throttle opening is determined based on the store map data relative to the detected accelerator displacement and engine speed, the throttle opening is controlled such that when the engine speed is in a low speed range, a relation of the throttle opening to the accelerator displacement changes, said low-speed range being a range in which an over venturi effect would occur, and wherein a throttle valve is not opened larger than a throttle opening at which a maximum peak value of the engine torque is generated to avoid the over venturi effect, characterized in that the stored map data is set that in the low speed range the engine torque approximates the maximum torque value in the range in which the acceleration displacement is small and thereafter gradually increases to the maximum torque value in response to an increase in the accelerator displacement.
A charge-sensitive amplifier for use in amplifying signals from a particle detector, the charge-sensitive amplifier comprising:- a field effect transistor having a gate, source and drain, the gate being connectable, using a wire bond and gate bond pad, to the particle detector, for the receipt of said signals; an amplifier having an input connected to the drain or source of the field effect transistor and a low impedance output connected through a feedback capacitor to the gate of the field effect transistor, characterised in that a plate of the feedback capacitor that is connected to the low impedance amplifier output is positioned to electromagnetically shield the gate bond pad from a substrate underneath the gate bond pad such that parasitic capacitance attributable to the gate bond pad is effectively removed or made substantially less than a total capacitance at the gate. a field effect transistor having a gate, source and drain, the gate being connectable, using a wire bond and gate bond pad, to the particle detector, for the receipt of said signals; an amplifier having an input connected to the drain or source of the field effect transistor and a low impedance output connected through a feedback capacitor to the gate of the field effect transistor, characterised in that a plate of the feedback capacitor that is connected to the low impedance amplifier output is positioned to electromagnetically shield the gate bond pad from a substrate underneath the gate bond pad such that parasitic capacitance attributable to the gate bond pad is effectively removed or made substantially less than a total capacitance at the gate.
A charging apparatus comprising: a plurality of holding members (4, 5) for holding a pair of plate-shaped members (2, 3) in a state the major surfaces of the plate-shaped members face each other; a movement member that causes the holding members (4, 5) to be moved towards and away from each other; an emission nozzle configured to be introduced into a gap between the plate-shaped members (2, 3), retained by the holding members (4, 5), to emit the charging liquid into the gap; a nozzle movement unit for causing movement of the emission nozzle in an in-plane direction of the plate-shaped members (2, 3); a reservoir in which the charging liquid is to be accumulated; and a thrust unit that causes the charging liquid accumulated in the reservoir to be emitted via the emission nozzle; wherein the charging liquid, emitted via the emission nozzle, is charged as the liquid is contacted with the plate-shaped members (2, 3) carried in a relation of facing each other, characterized in that the nozzle movement unit is configured to cause a movement of the emission nozzle in four orthogonal directions (X, -X, Y, -Y) while the emission nozzle continues to emit the charging liquid so as to plot a preset emission pattern. a plurality of holding members (4, 5) for holding a pair of plate-shaped members (2, 3) in a state the major surfaces of the plate-shaped members face each other; a movement member that causes the holding members (4, 5) to be moved towards and away from each other; an emission nozzle configured to be introduced into a gap between the plate-shaped members (2, 3), retained by the holding members (4, 5), to emit the charging liquid into the gap; a nozzle movement unit for causing movement of the emission nozzle in an in-plane direction of the plate-shaped members (2, 3); a reservoir in which the charging liquid is to be accumulated; and a thrust unit that causes the charging liquid accumulated in the reservoir to be emitted via the emission nozzle; wherein the charging liquid, emitted via the emission nozzle, is charged as the liquid is contacted with the plate-shaped members (2, 3) carried in a relation of facing each other, characterized in that the nozzle movement unit is configured to cause a movement of the emission nozzle in four orthogonal directions (X, -X, Y, -Y) while the emission nozzle continues to emit the charging liquid so as to plot a preset emission pattern.
A mapping method comprising (a) operating at least one mobile robot comprising at least two cameras (10, 20, 30, 40, 50, 60, 70, 80, 90) and at least one processing component, wherein the at least one mobile robot is wheeled and adapted to move in unstructured areas; and (b) taking visual images with the at least two cameras; and (c) extracting at least lines from the visual images; (d) generating map data using at least the extracted lines from the visual images; wherein step (d) comprises using an iterative algorithm to at least associate the extracted lines with physical objects; wherein the iterative algorithm comprises at least combining lines belonging to the same physical object from images taken by different cameras. (a) operating at least one mobile robot comprising at least two cameras (10, 20, 30, 40, 50, 60, 70, 80, 90) and at least one processing component, wherein the at least one mobile robot is wheeled and adapted to move in unstructured areas; and (b) taking visual images with the at least two cameras; and (c) extracting at least lines from the visual images; (d) generating map data using at least the extracted lines from the visual images; wherein step (d) comprises using an iterative algorithm to at least associate the extracted lines with physical objects; wherein the iterative algorithm comprises at least combining lines belonging to the same physical object from images taken by different cameras.
A method for transmitting uplink control information, UCI, on a physical uplink control channel, PUCCH, by a user equipment, UE, in a wireless communication system using carrier aggregation, the method comprising: generating UCI information bits comprising a scheduling request, SR, bit and hybrid automatic repeat request acknowledgement, HARQ-ACK, information bits for a plurality of component carriers, CCs, wherein the SR bit is located at the end of the UCI information bits; performing channel coding on the UCI information bits to generate encoded information bits; modulating the encoded information bits to generate modulation symbols; spreading the modulation symbols with an orthogonal code; and transmitting the spread modulation symbols to a base station on the PUCCH. generating UCI information bits comprising a scheduling request, SR, bit and hybrid automatic repeat request acknowledgement, HARQ-ACK, information bits for a plurality of component carriers, CCs, wherein the SR bit is located at the end of the UCI information bits; performing channel coding on the UCI information bits to generate encoded information bits; modulating the encoded information bits to generate modulation symbols; spreading the modulation symbols with an orthogonal code; and transmitting the spread modulation symbols to a base station on the PUCCH.
A skin care kit comprising: (a) a freeze-dried cosmetic composition comprising a cosmetic active; and (b) an aqueous cosmetic composition comprising an acrylic polymeric thickener, wherein the freeze-dried cosmetic composition comprises a polysaccharide. (a) a freeze-dried cosmetic composition comprising a cosmetic active; and (b) an aqueous cosmetic composition comprising an acrylic polymeric thickener,
Method of MR imaging of an object placed in an examination volume of a MR device, the method comprising the steps of: - subjecting the object to a dual echo steady state imaging sequence, a free induction decay signal and an echo signal (ECHO) being generated in each interval between two successive RF pulses, wherein a pair of individual diffusion weighting gradient waveforms (G DIF) of equal phase integral and opposed polarity is applied in the interval between the FID signal and the echo signal; - acquiring the FID signals and the echo signals in a number of repetitions of the imaging sequence with varying phase encoding; and - reconstructing a diffusion weighted MR image from the acquired FID signals and echo signals, characterized in that the dual echo steady state imaging sequence is fully balanced, and the zeroth moments of the individual diffusion weighting gradient waveforms are chosen such that the spatial distance of dark band artefacts is smaller than the voxel size in the reconstructed diffusion weighted MR image, and the FID signals and the echo signals are acquired with opposed readout gradients. - subjecting the object to a dual echo steady state imaging sequence, a free induction decay signal and an echo signal (ECHO) being generated in each interval between two successive RF pulses, wherein a pair of individual diffusion weighting gradient waveforms (G DIF) of equal phase integral and opposed polarity is applied in the interval between the FID signal and the echo signal; - acquiring the FID signals and the echo signals in a number of repetitions of the imaging sequence with varying phase encoding; and - reconstructing a diffusion weighted MR image from the acquired FID signals and echo signals, the dual echo steady state imaging sequence is fully balanced, and the zeroth moments of the individual diffusion weighting gradient waveforms are chosen such that the spatial distance of dark band artefacts is smaller than the voxel size in the reconstructed diffusion weighted MR image, and the FID signals and the echo signals are acquired with opposed readout gradients.
Shifting device for a gear of a motor vehicle, having an actuation lever that can optionally be transferred into a first shifting gate, in particular an automatic shifting gate, in which it is mechanically coupled to a transmission component for actuating a shift cable control or a gear shift linkage, or can be transferred into a second shifting gate, in particular a sequence shifting gate, in which it is decoupled from the transmission component, wherein the transmission component is pivotably mounted and a locking means is provided by means of which the transmission component can be fixated in such a manner that it does not exert any forces on the shift cable control or the gear shift linkage as long as the actuation lever is transferred into the second shifting gate and releases the transmission component in such a manner that the actuation lever is transferred into the first shifting gate, wherein the transmission component is mounted in a pivotable manner in the switching housing, preferably one that is arranged or can be arranged inside a motor vehicle in a stationary manner, characterized in that at least one centering means, in particular a spring element, in particular a spring bow, is provided, which centers the transmission component in a springloaded manner between facing walls of the switching housing.
A method of measuring hematocrit, comprising: providing a test strip comprising a reaction region and a pair of electrodes disposed in the reaction region; entering a whole blood sample into the reaction region; continuously applying a plurality of sets of square wave voltages to the pair of electrodes based on a square wave voltammetry method to obtain a plurality of feedbacks related to hematocrit, wherein an interval between two adjacent sets of square wave voltages ranges from 0.1 seconds to 4 seconds, each set of square wave voltages comprises multiple square wave voltages, and the sets of square wave voltages are identical to one another, except for application timings; obtaining a feedback of an n-th set of square wave voltages to calculate a hematocrit value of the whole blood sample, wherein n is a positive integer greater than 1, wherein the step of calculating the hematocrit value comprises: obtaining an equation of feedback value with respect to hematocrit value by using standard whole blood samples with known hematocrit values; and substituting the feedback of the n-th set of square wave voltages of the whole blood sample for the feedback value to obtain the corresponding hematocrit value. providing a test strip comprising a reaction region and a pair of electrodes disposed in the reaction region; entering a whole blood sample into the reaction region; continuously applying a plurality of sets of square wave voltages to the pair of electrodes based on a square wave voltammetry method to obtain a plurality of feedbacks related to hematocrit, wherein an interval between two adjacent sets of square wave voltages ranges from 0.1 seconds to 4 seconds, each set of square wave voltages comprises multiple square wave voltages, and the sets of square wave voltages are identical to one another, except for application timings; obtaining a feedback of an n-th set of square wave voltages to calculate a hematocrit value of the whole blood sample, wherein n is a positive integer greater than 1, wherein the step of calculating the hematocrit value comprises: obtaining an equation of feedback value with respect to hematocrit value by using standard whole blood samples with known hematocrit values; and substituting the feedback of the n-th set of square wave voltages of the whole blood sample for the feedback value to obtain the corresponding hematocrit value. obtaining an equation of feedback value with respect to hematocrit value by using standard whole blood samples with known hematocrit values; and substituting the feedback of the n-th set of square wave voltages of the whole blood sample for the feedback value to obtain the corresponding hematocrit value.
A continuous method for producing methionine by alkaline hydrolysis of methionine hydantoin in an aqueous phase, elimination of NH 3 and CO 2 from the hydrolysis medium, and neutralization of the obtained methioninate salt, characterized in that, after elimination of NH 3 and CO 2, the hydrolysis reaction medium is concentrated so as to precipitate Na 2 CO 3, said Na 2 CO 3 being separated and then recycled for alkaline hydrolysis, which is carried out in the presence of NaOH and Na 2 CO 3.
A lubricating oil composition for internal combustion engines characterised in that it contains: a base oil mixture comprising at least two base oils in different API (American Petroleum Institute) categories, the base oil mixture having a sulphur content of from 0.14 to 0.7 mass%, %CA in accordance with ASTM D3238 of from 0.9 to 5.0, and %CP in accordance with ASTM D3238 of 60 or more, and a monoglyceride with a hydrocarbon group having from 8 to 22 carbon atoms (a glycerine fatty acid ester with the fatty acid ester bonded to one of the three hydroxyl groups of the glycerine), wherein the monoglyceride has a hydroxyl value of from 150 to 300 mgKOH/g and is present at a level of from 0.3 to 2.0 mass% based on the total mass of the composition. a base oil mixture comprising at least two base oils in different API (American Petroleum Institute) categories, the base oil mixture having a sulphur content of from 0.14 to 0.7 mass%, %CA in accordance with ASTM D3238 of from 0.9 to 5.0, and %CP in accordance with ASTM D3238 of 60 or more, and a monoglyceride with a hydrocarbon group having from 8 to 22 carbon atoms (a glycerine fatty acid ester with the fatty acid ester bonded to one of the three hydroxyl groups of the glycerine), wherein the monoglyceride has a hydroxyl value of from 150 to 300 mgKOH/g and is present at a level of from 0.3 to 2.0 mass% based on the total mass of the composition.
A flowability improver for polycarbonate and polyarylate comprising polyester obtained by polycondensing monomers including: a biphenol component represented by the following general formula (where X 1 to X 4 may be the same or different and each represent a hydrogen atom, a halogen atom, or an alkyl group with 1 to 4 carbons); a bisphenol component represented by the following general formula (where X 5 to X 8 may be the same or different and each represent a hydrogen atom, a halogen atom, or an alkyl group with 1 to 4 carbons; and Y represents a methylene group, an isopropylidene group, a cyclic alkylidene group, an aryl-substituted alkylidene group, an arylenedialkylidene group, -S-, -O-, a carbonyl group or -SO 2 -); and a dicarboxylic acid component represented by the following general formula HOOC-R 1 -COOH • • • (where R 1 represents a divalent straight-chain substituent that has 2 to 18 main-chain atoms and may include a branch), wherein a molar ratio of the component and the component to the component is { +}: = 45:55 - 55:45, and a content rate of a portion derived from the component, the component and the component in the polyester is 50 mol% or more. a biphenol component represented by the following general formula (where X 1 to X 4 may be the same or different and each represent a hydrogen atom, a halogen atom, or an alkyl group with 1 to 4 carbons); a bisphenol component represented by the following general formula (where X 5 to X 8 may be the same or different and each represent a hydrogen atom, a halogen atom, or an alkyl group with 1 to 4 carbons; and Y represents a methylene group, an isopropylidene group, a cyclic alkylidene group, an aryl-substituted alkylidene group, an arylenedialkylidene group, -S-, -O-, a carbonyl group or -SO 2 -); and a dicarboxylic acid component represented by the following general formula HOOC-R 1 -COOH • • • (where R 1 represents a divalent straight-chain substituent that has 2 to 18 main-chain atoms and may include a branch), wherein a molar ratio of the component and the component to the component is { +}: = 45:55 - 55:45, and a content rate of a portion derived from the component, the component and the component in the polyester is 50 mol% or more.
Method for adjusting the transmission power, in a wireless cellular telecommunication network, of signals transferred by plural mobile terminals (MT1, MT2, MT3) through a wireless interface, the mobile terminals being served by at least one base station or by home base stations (HBS1, HBS2, HBS3, HBS4), the home base stations being located in the cell of the at least one base station, wherein the method comprises the steps of: - obtaining the path gains between the mobile terminals and the at least one base station and the path gains between the mobile terminals and at least one home base station, or said path gains and noise measured at the at least one base station and/or at the home base stations, - determining statistics from the obtained path gains or from the obtained path gains and noise, - obtaining at least one coefficient of a function according to at least a part of the statistics determined from the obtained path gains or from the obtained path gains and noise, a same set of at least one coefficient is determined for all the home base stations; - transferring an information representative of the at least one obtained coefficient to the mobile terminals in order to enable the mobile terminals to transfer signals at a transmission power derived from information representative of the at least one obtained coefficient. - obtaining the path gains between the mobile terminals and the at least one base station and the path gains between the mobile terminals and at least one home base station, or said path gains and noise measured at the at least one base station and/or at the home base stations, - determining statistics from the obtained path gains or from the obtained path gains and noise, - obtaining at least one coefficient of a function according to at least a part of the statistics determined from the obtained path gains or from the obtained path gains and noise, a same set of at least one coefficient is determined for all the home base stations; - transferring an information representative of the at least one obtained coefficient to the mobile terminals in order to enable the mobile terminals to transfer signals at a transmission power derived from information representative of the at least one obtained coefficient.
A frame for a respiratory mask system, wherein the respiratory mask system comprises the frame, a headgear having first and second forehead straps, and a forehead coupler, the forehead coupler configured to connect the first and second forehead straps together in a closed loop and removably connect the first and second forehead straps to the frame, the forehead coupler comprising a pair of lateral strap connectors and a frame connector configured to link the strap connectors together, the frame connector comprising a crossbar and a rib slot, the frame comprising a forehead support comprising a coupler connection, the coupler connection comprising: a hook portion comprising: a shank formed by the forehead support of the frame, a bend connected to the shank, a return arm connected to the bend, a throat portion formed between the shank and the return arm; and a rib extending into the throat portion from the shank toward the return arm. a hook portion comprising: a shank formed by the forehead support of the frame, a bend connected to the shank, a return arm connected to the bend, a throat portion formed between the shank and the return arm; and a shank formed by the forehead support of the frame, a bend connected to the shank, a return arm connected to the bend, a throat portion formed between the shank and the return arm; and a rib extending into the throat portion from the shank toward the return arm.
Crossing assembly for wooden sleeper railway switches designed to allow the passing of railway vehicles at a maximum speed of 120 km/h in the straight direction and at a maximum speed of 40 km/h in the switched direction, said crossing assembly having a base plate, flangeways (6a, 6b) and structural parts comprising wing rails (1a, 1b) having a break line (16a, 17a), a crossing frog ending in a point and fork rails (4a, 4b), whereby said structural parts are fixed to each other from underneath with the base plate, whereby the flangeways (6a, 6b) running between the longitudinal side surfaces of the crossing frog and the internal side surfaces of the wing rails (1a, 1b) are for guiding the wheels of the railway vehicle, whereby before the crossing frog with respect to the direction of travel (a) of the railway vehicle the base plate linking the wing rails (1a, 1b) to the crossing frog has a horizontal or substantially horizontal surface in an unguided section of the flangeways (6a, 6b) in proximity to the break line (16a, 16b) of the wing rails (1a, 1b), and whereby the crossing assembly is established as a single member cast steel piece, characterized in that starting from said horizontal or substantially horizontal surface a transfer surface is formed that is sloped at an ascending angle extending to the vicinity of the point of the crossing frog, and in that in the unguided section of the flangeways (6a, 6b) there are reinforcing members (10a, 10b, 10a, 10b') on the external side of the wing rails (1a, 1b) delimiting the unguided section made by thickening the wing rails (1a, 1b).