mhurhangee/ep-ind-claims huggingface dataset:
A method for determining parameters that can provide information on the state of a water distribution system comprising at least one duct capable of transporting water, the method comprising the following steps: - an import step (IMPORT) suitable for importing, to a computer, input values of at least one previously measured parameter of the water, recorded at at least one entry point of the water distribution system and over a recording period (Δt recording) comprising at least one recording date (t recording); - a selection step (SELECT) suitable for selecting at least one current point; - an association step (ASSO) suitable for associating said current point with at least one entry point in the water distribution system; - a determination step (DETER) suitable for determining a current value of said at least one parameter of the water at the current point from input values at said at least one entry point associated with the current point. - an import step (IMPORT) suitable for importing, to a computer, input values of at least one previously measured parameter of the water, recorded at at least one entry point of the water distribution system and over a recording period (Δt recording) comprising at least one recording date (t recording); - a selection step (SELECT) suitable for selecting at least one current point; - an association step (ASSO) suitable for associating said current point with at least one entry point in the water distribution system; - a determination step (DETER) suitable for determining a current value of said at least one parameter of the water at the current point from input values at said at least one entry point associated with the current point.
A method for controlling home devices connected through a network, the method comprising: displaying a virtual track on a display unit of a control device, the virtual track corresponding to a timeline including a start time and an end time of a video being displayed on the display unit by the control device; displaying an indicator along the virtual track, the indicator indicating operation information of a home device connected to the control device through the network, the operation information comprising at least one of an operation start time and an operation end time of the home device, wherein the home device includes at least one of a washing machine, a microwave range, a robot vacuum cleaner, an electric oven, a dishwasher, an ice maker, an air conditioner, a lamp and a bicycle ergometer, wherein the indicator is movable along the virtual track based on at least one user input; controlling an operation mode of the home device on the basis of a user input applied to the indicator; and controlling an operation time of the home device based on the location of the indicator along the virtual track, the operation time comprising at least one of the operation start time and the operation end time of the home device. displaying a virtual track on a display unit of a control device, the virtual track corresponding to a timeline including a start time and an end time of a video being displayed on the display unit by the control device; displaying an indicator along the virtual track, the indicator indicating operation information of a home device connected to the control device through the network, the operation information comprising at least one of an operation start time and an operation end time of the home device, wherein the home device includes at least one of a washing machine, a microwave range, a robot vacuum cleaner, an electric oven, a dishwasher, an ice maker, an air conditioner, a lamp and a bicycle ergometer, wherein the indicator is movable along the virtual track based on at least one user input; controlling an operation mode of the home device on the basis of a user input applied to the indicator; and controlling an operation time of the home device based on the location of the indicator along the virtual track, the operation time comprising at least one of the operation start time and the operation end time of the home device.
Water-stabilizing composition comprising an agent for stabilizing active substances in drinking water and an effervescent mixture, wherein the stabilizing agent comprises a complexing agent, wherein the complexing agent is skim milk and wherein the composition is a solid in the form of a pellet.
An autoanalyzer comprising: a measurement unit which measures a reaction liquid produced by an interaction between a reagent and an examined sample accommodated in a reaction container; a sample probe for performing dispensing operations by sucking the examined sample from a sample container via.a pressure transmission medium and air, and discharging the examined sample to a reaction container; a probe moving mechanism which moves the sample probe with respect to the sample container; and a control unit which controls the probe moving mechanism for performing more than one dispensing operation from the same sample container, the sample sucked during the first operation comprising the sample to be discharged to the reaction container and a dummy sample remaining in the probe after the first discharging operation, the autoanalyzer being characterized in that the control unit controls the probe moving mechanism so that the speed at which the sample probe enters the liquid surface of the examined sample to perform the n-th suction operation (n ≥ 2) of the examined sample is slower than the speed at which the sample probe enters the liquid surface of the examined sample to perform the first suction operation of the examined sample. a measurement unit which measures a reaction liquid produced by an interaction between a reagent and an examined sample accommodated in a reaction container; a sample probe for performing dispensing operations by sucking the examined sample from a sample container via.a pressure transmission medium and air, and discharging the examined sample to a reaction container; a probe moving mechanism which moves the sample probe with respect to the sample container; and a control unit which controls the probe moving mechanism for performing more than one dispensing operation from the same sample container, the sample sucked during the first operation comprising the sample to be discharged to the reaction container and a dummy sample remaining in the probe after the first discharging operation, the autoanalyzer being characterized in that the control unit controls the probe moving mechanism so that the speed at which the sample probe enters the liquid surface of the examined sample to perform the n-th suction operation (n ≥ 2) of the examined sample is slower than the speed at which the sample probe enters the liquid surface of the examined sample to perform the first suction operation of the examined sample.
A method for providing thermal protection to a heat sensitive device comprising the steps of: (a) providing an amount of a carbohydrate endotherm sufficient to effect the required heat absorption, wherein the carbohydrate endotherm is selected from the group consisting of at least one of a sugar and a starch; (b) providing an oxygen scavenger in proximity to the carbohydrate endotherm; (c) positioning the carbohydrate endotherm and the oxygen scavenger in proximity to the heat sensitive device, the oxygen scavenger being effective to establish a substantially non-oxidizing environment in the vicinity of the carbohydrate endotherm; and (d) irreversibly decomposing the carbohydrate endotherm in response to heat input in a non-oxidizing environment to effect a desired level of heat absorption to provide thermal protection to the heat sensitive device. (a) providing an amount of a carbohydrate endotherm sufficient to effect the required heat absorption, wherein the carbohydrate endotherm is selected from the group consisting of at least one of a sugar and a starch; (b) providing an oxygen scavenger in proximity to the carbohydrate endotherm; (c) positioning the carbohydrate endotherm and the oxygen scavenger in proximity to the heat sensitive device, the oxygen scavenger being effective to establish a substantially non-oxidizing environment in the vicinity of the carbohydrate endotherm; and (d) irreversibly decomposing the carbohydrate endotherm in response to heat input in a non-oxidizing environment to effect a desired level of heat absorption to provide thermal protection to the heat sensitive device.
A compressor rotor blade arrangement comprising a rotary body, a stationary body, and a rotor blade, of which a radial inner end is fixed to an outer surface of the rotary body and a radial outer end is located closer to an inner surface of the stationary body, the compressor rotor blade arrangement further comprising: a seal mechanism configured to hermetically seal a part between the radial outer end of the compressor rotor blade on the upstream side and the inner surface of the stationary body, wherein a remainder part on the downstream side of the seal mechanism includes a tip clearance between the inner surface of the stationary body and the radial outer end of the compressor rotor blade, wherein the seal mechanism includes a shroud cavity which is a hollow cylindrical concave groove provided in the inner surface of the stationary body and a hollow cylindrical tip shroud which is located in the shroud cavity, the compressor rotor blade arrangement being characterized in that the tip shroud has a uniform gap from the inner surface of the stationary body, and in that a region on the upstream side sealed by the seal mechanism is from a front edge to a maximum blade thickness part, and a region of the tip clearance is from the maximum blade thickness part to a rear edge. a seal mechanism configured to hermetically seal a part between the radial outer end of the compressor rotor blade on the upstream side and the inner surface of the stationary body, wherein a remainder part on the downstream side of the seal mechanism includes a tip clearance between the inner surface of the stationary body and the radial outer end of the compressor rotor blade, wherein the seal mechanism includes a shroud cavity which is a hollow cylindrical concave groove provided in the inner surface of the stationary body and a hollow cylindrical tip shroud which is located in the shroud cavity, the compressor rotor blade arrangement being characterized in that the tip shroud has a uniform gap from the inner surface of the stationary body, and in that a region on the upstream side sealed by the seal mechanism is from a front edge to a maximum blade thickness part, and a region of the tip clearance is from the maximum blade thickness part to a rear edge.
A hearing device configured to be worn at or in an ear of a user, the hearing device comprising: - a substrate comprising one or more electronic components (6, 6') mounted on the substrate; - a shielding component arranged on the substrate to provide a space between the shielding component and the substrate; where the shielding component is configured to cover at least a first electronic component of the one or more electronic components (6, 6') on the substrate, wherein the space between the shielding component and the substrate is at least partly filled with a fill encapsulation material configured for encapsulating at least the first electronic component; wherein the shielding component comprises a reservoir configured to collect/accumulate any excess fill encapsulation material from the space between the shielding component and the substrate and wherein the shielding component comprises one or more side parts being substantially perpendicular to the substrate, and wherein the shielding component comprises a top part being substantially parallel to the substrate, characterized in that the reservoir is provided as a recess in the top part of the shielding component. - a substrate comprising one or more electronic components (6, 6') mounted on the substrate; - a shielding component arranged on the substrate to provide a space between the shielding component and the substrate; where the shielding component is configured to cover at least a first electronic component of the one or more electronic components (6, 6') on the substrate, wherein the space between the shielding component and the substrate is at least partly filled with a fill encapsulation material configured for encapsulating at least the first electronic component; wherein the shielding component comprises a reservoir configured to collect/accumulate any excess fill encapsulation material from the space between the shielding component and the substrate and wherein the shielding component comprises one or more side parts being substantially perpendicular to the substrate, and wherein the shielding component comprises a top part being substantially parallel to the substrate, characterized in that the reservoir is provided as a recess in the top part of the shielding component.
Hydraulic interface able to be installed between a liquid supply tube and a connector of a device for wiping a window of a vehicle, comprising at least one first portion able to channel the liquid and a heating means able to be supplied electrically, characterized in that the heating means is fastened at least on an exterior face of the first portion.
A levoisovalerylspiramycin II compound, wherein, the chemical structural formula of the levoisovalerylspiramycin II is shown as formula, on the condition of chloroform as solvent, temperature 25°C, and concentration 0.02g/ml, the measured specific optical rotation [α] D is -55°∼61°, preferably -57°∼59°; and the melting point is 120°C∼128°C, preferably 123°C∼125°C; Wherein the levoisovalerylspiramycin II is a crystalline compound, the X-ray powder diffraction of which measured by Cu-K-alpha ray has characteristic peaks at 2θ = 10.0°, 11.6°, 16.4°, 17.3°, 19.1°, 21.2°, 22.1°, 22.7°, 26.4°, 26.9°, 27.5° and 31.5°.
A method of producing an inorganic material, the method comprising: a vitrification step of applying shearing stress and compressive stress to a mixed powder of a plurality of kinds of inorganic compound powders to vitrify at least a part of the mixed powder, characterized in that: the method further comprises a dispersion step of dispersing the vitrified mixed powder after the vitrification step, wherein in the vitrification step, shearing stress and compressive stress is applied to the mixed powder of a plurality of kinds of inorganic compound powders by using a ring ball mill mechanism to vitrify at least a part of the mixed powder, and wherein a combined step of the vitrification step and the dispersion step is performed a plurality of times to obtain a vitrified inorganic material powder from the mixed powder. a vitrification step of applying shearing stress and compressive stress to a mixed powder of a plurality of kinds of inorganic compound powders to vitrify at least a part of the mixed powder, characterized in that: the method further comprises a dispersion step of dispersing the vitrified mixed powder after the vitrification step, wherein in the vitrification step, shearing stress and compressive stress is applied to the mixed powder of a plurality of kinds of inorganic compound powders by using a ring ball mill mechanism to vitrify at least a part of the mixed powder, and wherein a combined step of the vitrification step and the dispersion step is performed a plurality of times to obtain a vitrified inorganic material powder from the mixed powder. the method further comprises a dispersion step of dispersing the vitrified mixed powder after the vitrification step, wherein in the vitrification step, shearing stress and compressive stress is applied to the mixed powder of a plurality of kinds of inorganic compound powders by using a ring ball mill mechanism to vitrify at least a part of the mixed powder, and wherein a combined step of the vitrification step and the dispersion step is performed a plurality of times to obtain a vitrified inorganic material powder from the mixed powder.
A process for making milled and plodded soap composition having at least 20 wt% moisture, said process comprising a step of saponification of oil or fatty acids in the presence of added water, wherein at least 60 % of added water is added before or simultaneously with said saponification.
A dressing assembly for a wound or incision, which comprises: an external patient interface including an external fluid transfer component (FTC.2), said external fluid transfer component (FTC.2) being adapted for transferring fluid from the wound or incision; said external patient interface including an overdrape placed over said fluid transfer component (FTC.2) in contact with and releasably, adhesively attachable to a surrounding skin surface; said fluid transfer component (FTC.2) including a porous core with a surface and a wicking material layer engaging the surface of the fluid transfer component (FTC.2), said porous core surface being covered by said overdrape; said overdrape having an opening to said fluid transfer component (FTC.2); said opening forming a discharge port for discharging fluid from said dressing assembly to a negative pressure source; a wicking material cover enclosing said core and including said wicking material layer; said wicking material cover including a perimeter edge; said fluid transfer component (FTC.2) having compressed and uncompressed configurations; and said perimeter edge of the wicking material cover buckling and forming a laterally-projecting rim with said fluid transfer component (FTC.2) in its compressed configuration, wherein the laterally-projecting rim is adjacent to a lower surface of the core. an external patient interface including an external fluid transfer component (FTC.2), said external fluid transfer component (FTC.2) being adapted for transferring fluid from the wound or incision; said external patient interface including an overdrape placed over said fluid transfer component (FTC.2) in contact with and releasably, adhesively attachable to a surrounding skin surface; said fluid transfer component (FTC.2) including a porous core with a surface and a wicking material layer engaging the surface of the fluid transfer component (FTC.2), said porous core surface being covered by said overdrape; said overdrape having an opening to said fluid transfer component (FTC.2); said opening forming a discharge port for discharging fluid from said dressing assembly to a negative pressure source; a wicking material cover enclosing said core and including said wicking material layer; said wicking material cover including a perimeter edge; said fluid transfer component (FTC.2) having compressed and uncompressed configurations; and said perimeter edge of the wicking material cover buckling and forming a laterally-projecting rim with said fluid transfer component (FTC.2) in its compressed configuration, wherein the laterally-projecting rim is adjacent to a lower surface of the core.
A refrigerator assembly defining a mutually-orthogonal vertical direction, lateral direction, and transverse direction, wherein the refrigerator assembly comprising: a cabinet extending along the lateral direction between a first lateral side and a second lateral side, the cabinet defining a chilled chamber and a machine compartment, the machine compartment having an air inlet and an air outlet separate from the air inlet; a louver panel mounted to the cabinet in front of the machine compartment, the louver panel defining a plurality of lateral apertures spaced apart along the vertical direction, the plurality of lateral apertures extending along the lateral direction in front of the air inlet and the air outlet from a first end a second end; and a plurality of laterally-spaced vanes (246 248) extending rearward from the louver panel at the air outlet, characterized in that the vanes (246, 248) are fixed or mounted to the louver panel, the air inlet is located proximal to the second end, the vanes which are near the air inlet being directed away from the air inlet, each vane define a flow angles θ1 directed away from the second end relative to the transverse direction T, the flow angles θ1 generally and sequentially increase relative to the transverse direction T as the lateral distance between discrete vanes increases relative to the air inlet.
System for braking a motor vehicle fitted with a hybrid or electric traction system, and including a decoupled brake pedal module, a hydraulic braking module, and an electric braking module used for recovering electrical energy during braking carried out by the electric traction system, said decoupled braking module comprising a brake pedal and means for controlling the hydraulic braking system and the electric braking module, the system comprising means for measuring at least one parameter associated with said pedal, and means for limiting the recovery of electrical energy by the electric braking module, characterized in that the system comprises means for partially limiting the energy recovery if the maximum value of said parameter is greater than a first threshold value and below a second threshold value.
A method for characterizing regions of turbulence, the method comprising: measuring turbulence with an inertial reference unit on an aircraft to acquire a turbulence measurement; recording a position of the aircraft associated with the turbulence measurement and the turbulence measurement on at least one memory device; processing the turbulence measurement on a processing unit to determine a turbulence intensity setting, the method further characterized by: determining a turbulence region for the recorded position; wherein the turbulence region is a three dimensional defined volume, wherein the boundaries of the three dimensional defined volume are defined independently of the position of the aircraft by incremental degrees of latitude boundaries and evenly spaced in distance longitude boundaries; associating the turbulence region with the turbulence intensity setting; and transmitting the turbulence intensity setting and the associated turbulence region. measuring turbulence with an inertial reference unit on an aircraft to acquire a turbulence measurement; recording a position of the aircraft associated with the turbulence measurement and the turbulence measurement on at least one memory device; processing the turbulence measurement on a processing unit to determine a turbulence intensity setting, the method further characterized by: determining a turbulence region for the recorded position; wherein the turbulence region is a three dimensional defined volume, wherein the boundaries of the three dimensional defined volume are defined independently of the position of the aircraft by incremental degrees of latitude boundaries and evenly spaced in distance longitude boundaries; associating the turbulence region with the turbulence intensity setting; and transmitting the turbulence intensity setting and the associated turbulence region. determining a turbulence region for the recorded position; wherein the turbulence region is a three dimensional defined volume, wherein the boundaries of the three dimensional defined volume are defined independently of the position of the aircraft by incremental degrees of latitude boundaries and evenly spaced in distance longitude boundaries; associating the turbulence region with the turbulence intensity setting; and transmitting the turbulence intensity setting and the associated turbulence region.