mhurhangee/ep-ind-claims huggingface dataset:
A detection system designed to allow the detection of an underground pipe, the system comprising: - a flexible element comprising a downstream free end capable of being inserted into the underground pipe through an upstream opening, the upstream free end remaining outside the underground pipe, - a detection device designed to be positioned above the underground pipe in such a way as to detect the position of the underground pipe by detecting the presence of a section of the flexible element, the flexible element being constituted by a current-supplied electrical wire whose downstream free end is provided with a drive element, the drive element having a drive surface allowing a fluid to drive the drive element with the downstream free end of the wire downstream into the underground pipe characterized in that the drive element has a bell-shaped wall with the apex facing downstream. - a flexible element comprising a downstream free end capable of being inserted into the underground pipe through an upstream opening, the upstream free end remaining outside the underground pipe, - a detection device designed to be positioned above the underground pipe in such a way as to detect the position of the underground pipe by detecting the presence of a section of the flexible element, the flexible element being constituted by a current-supplied electrical wire whose downstream free end is provided with a drive element, the drive element having a drive surface allowing a fluid to drive the drive element with the downstream free end of the wire downstream into the underground pipe characterized in that the drive element has a bell-shaped wall with the apex facing downstream.
Electrical construction unit for motor vehicles, having a housing within which at least one electrical component is arranged, having an interface which enables electrically conductive contacting of this component, wherein the housing having a first housing part and a second housing part which are fastened to one another by at least one fastening means and wherein the two housing parts each extend at least along a longitudinal direction and a width direction perpendicular to this longitudinal direction, wherein the first housing part and the second housing part are made of different materials, wherein the electrical construction unit contains at least one coil which is suitable and intended for the transmission of electrical energy by inductive means, characterized in that a circumferential gap is formed between the two housing parts (22, 24), within which gap at least one sealing means is arranged, wherein this gap extends in the direction of the interior of the housing in a labyrinth-like manner and changes its direction at least twice and the housing has a wall, which is arranged in the interior of the housing and at least partially separates a first region of the housing from a second part of the housing and separates the two regions of the housing from one another in a fluid-tight manner, wherein the first part of the housing being a region of the housing formed by the first housing part and the second part of the housing being a region of the housing formed by the second housing part.
Method for reducing the concentration of polluting elements in water where at least one type of polluting element is captured generating at least one electrocapturing phenomenon by electrolysis (25, 125bis, 125ter) substantially permanently over time in a water body that is polluted characterized in that said at least one electrocapturing phenomenon (25, 125bis, 125ter), and/or in the case of the presence of a plurality of electrocapturing phenomena, each of them, is present substantially permanently in, and defines, a predetermined electrolytic action area (15, 115bis, 115ter), wherein the method comprises the step of detecting at least one of the following parameters: concentration of at least two polluting elements in the action area, current detected at the electrodes of the at least one electrocapturing phenomenon, supply current available; - selecting at least one of the polluting elements detected and setting the parameters of the at least one electrocapturing phenomenon (25, 125bis, 125ter) for its capture basing the selection on the at least one parameter detected, - modifying the setting of the electrocapturing phenomenon (25, 125bis, 125ter) to change the at least one polluting element captured when the at least one detected parameter on which to base the selection exceeds a predetermined threshold value. - selecting at least one of the polluting elements detected and setting the parameters of the at least one electrocapturing phenomenon (25, 125bis, 125ter) for its capture basing the selection on the at least one parameter detected, - modifying the setting of the electrocapturing phenomenon (25, 125bis, 125ter) to change the at least one polluting element captured when the at least one detected parameter on which to base the selection exceeds a predetermined threshold value.
A hot-rolled steel sheet for producing a non-oriented electrical steel sheet, having a chemical composition containing by mass%, C: 0.005 % or less, Si: 2.0 % or more and 4.5 % or less, Al: 0.2 % or more and 2.0 % or less, Mn: 0.1 % or more and 2.0 % or less, S: 0.003 % or less, N: 0.003 % or less, P: 0.015 % or less, Mo: 0.002 % or more and 0.03 % or less, Pb and Bi in a total of 0.0010 % or less, one or both of Sn and Sb in a total of 0.005 % or more and 0.2 % or less, optionally one or more of Ca: 0.001 % or more and 0.005 % or less, Mg: 0.0002 % or more and 0.005 % or less, Cr: 0.05 % or more and 0.5 % or less, and the balance Fe with inevitable impurities, wherein the hot-rolled steel sheet has a pickling weight loss of 10 g/m 2 or more and 35 g/m 2 or less after annealing in nitrogen atmosphere at 1000°C for 30 seconds, and then immersed in a solution of 7 % HCl at 80°C for 60 seconds.
Aerosol-generating article for use with an aerosol-generating device comprising a cavity for receiving at least a portion of the aerosol-generating article and a heating chamber arranged adjacent the cavity for heating aerosol-forming substrate received from the aerosol-generating article, the article comprising a housing having an open end, the housing comprising a cavity for holding an aerosol-forming substrate, wherein a solid aerosol-forming substrate is provided in the cavity, the article further comprising a piston movable within the housing into the direction of the open end of the housing.
A wireless device comprising a communication system for cellular communication, wherein the communication system is disabled when the wireless device is in an airborne state, said wireless device further comprising logic (61, 62A) configured to determine an elapsed time since entry of the wireless device into the airborne state, wherein the logic (61, 62A) is further configured to: identify at least one destination by evaluating the elapsed time in relation to flight data, FD, that associates destinations with aircraft flight durations; determine, for the at least one destination, a respective configuration setting, which is associated with the at least one destination, to be applied by the communication system to establish a wireless connection to a cellular network; and operate the communication system to apply the respective configuration setting when the wireless device switches from the airborne state to a non-airborne state. identify at least one destination by evaluating the elapsed time in relation to flight data, FD, that associates destinations with aircraft flight durations; determine, for the at least one destination, a respective configuration setting, which is associated with the at least one destination, to be applied by the communication system to establish a wireless connection to a cellular network; and operate the communication system to apply the respective configuration setting when the wireless device switches from the airborne state to a non-airborne state.
A layered colored solar reflective system comprising: (i) a first layer, wherein the first layer is a layer that comprises a particulate material and a vehicle, wherein the particulate material has a substantially rutile crystal habit and has an average particle size that is within a range of about 0.55 μm and about 0.95 μm, wherein the vehicle is a component or combination of components within which the particulate material can be dispersed, and wherein the particulate material is dispersed in the vehicle, and (ii) a second layer, wherein the second layer is a layer that is positioned on at least a portion of the first layer, this second layer comprising a particulate material, a colorant and a vehicle, wherein the particulate material has a substantially rutile crystal habit and has an average particle size within a range of about 1.0 μm and 1.6 μm, wherein the vehicle is a component or combination of components within which the particulate material and colorant can be dispersed, wherein the colorant is provided to achieve the desired color, and wherein the particulate material and the colorant are dispersed in the vehicle. (i) a first layer, wherein the first layer is a layer that comprises a particulate material and a vehicle, wherein the particulate material has a substantially rutile crystal habit and has an average particle size that is within a range of about 0.55 μm and about 0.95 μm, wherein the vehicle is a component or combination of components within which the particulate material can be dispersed, and wherein the particulate material is dispersed in the vehicle, and wherein the particulate material has a substantially rutile crystal habit and has an average particle size that is within a range of about 0.55 μm and about 0.95 μm, wherein the vehicle is a component or combination of components within which the particulate material can be dispersed, and wherein the particulate material is dispersed in the vehicle, and (ii) a second layer, wherein the second layer is a layer that is positioned on at least a portion of the first layer, this second layer comprising a particulate material, a colorant and a vehicle, wherein the particulate material has a substantially rutile crystal habit and has an average particle size within a range of about 1.0 μm and 1.6 μm, wherein the vehicle is a component or combination of components within which the particulate material and colorant can be dispersed, wherein the colorant is provided to achieve the desired color, and wherein the particulate material and the colorant are dispersed in the vehicle. wherein the particulate material has a substantially rutile crystal habit and has an average particle size within a range of about 1.0 μm and 1.6 μm, wherein the vehicle is a component or combination of components within which the particulate material and colorant can be dispersed, wherein the colorant is provided to achieve the desired color, and wherein the particulate material and the colorant are dispersed in the vehicle.
Aluminum smelter comprising at least one row of electrolytic cells arranged transversely in relation to the length of said at least one row, one of the electrolytic cells comprising anode assemblies and rising and connecting electrical conductors to the anode assemblies, characterized in that the rising and connecting electrical conductors extend upwardly along two opposite longitudinal edges of the electrolytic cell for conducting electrolysis current to the anode assemblies, and in that the aluminum smelter includes: - at least one first electrical compensation circuit extending beneath the electrolytic cells, said at least one first electrical compensation circuit being possibly traversed by a first compensation current designed to flow under the electrolytic cells in the opposite direction to the global direction of flow of the electrolysis current, - at least one second electric compensation circuit extending over at least one side of said at least one row of electrolytic cells, said at least one second electric compensation circuit being possibly traversed by a second compensation current designed to flow in the same direction as the global direction of flow of the electrolysis current. - at least one first electrical compensation circuit extending beneath the electrolytic cells, said at least one first electrical compensation circuit being possibly traversed by a first compensation current designed to flow under the electrolytic cells in the opposite direction to the global direction of flow of the electrolysis current, - at least one second electric compensation circuit extending over at least one side of said at least one row of electrolytic cells, said at least one second electric compensation circuit being possibly traversed by a second compensation current designed to flow in the same direction as the global direction of flow of the electrolysis current.
A device for insert in the eye, the device comprising: a first portion comprising a rate-limiting water-permeable polymer; a second portion fused to the first portion, the second portion including a recess configured to support a composition comprising latanoprost as an active agent, the second portion comprising a rate-limiting water-permeable polymer; and a third portion fused to the second portion, the third portion comprising a rate-limiting water-permeable polymer, wherein the rate-limiting water-permeable polymer allows for transportation of the active agent to an exterior of the device and wherein the rate-limiting water-permeable polymer is configured to release the latanoprost at a rate of 0.00025 to 0.0075 μg/h when the drug delivery device is to be placed episclerally or at a rate of 0.0005 to 0.015 μg/h when the drug delivery device is to be placed supraconjunctivally. a first portion comprising a rate-limiting water-permeable polymer; a second portion fused to the first portion, the second portion including a recess configured to support a composition comprising latanoprost as an active agent, the second portion comprising a rate-limiting water-permeable polymer; and a third portion fused to the second portion, the third portion comprising a rate-limiting water-permeable polymer, wherein the rate-limiting water-permeable polymer allows for transportation of the active agent to an exterior of the device and wherein the rate-limiting water-permeable polymer is configured to release the latanoprost at a rate of 0.00025 to 0.0075 μg/h when the drug delivery device is to be placed episclerally or at a rate of 0.0005 to 0.015 μg/h when the drug delivery device is to be placed supraconjunctivally.
Aerodynamic deflector device for a motor vehicle wheel, comprising: - an elongate support configured to be mounted on a motor vehicle, - a deflecting wall mounted on the support so as to be movable between, on the one hand, a retracted position in which, in the mounted state, said deflecting wall is raised with respect to the support, and, on the other hand, a deployed position in which, in the mounted state, said deflecting wall is lowered with respect to the support, and - an actuator configured to move said deflecting wall between the retracted and deployed positions, characterized in that the deflecting wall is mounted rotatably on the support about an axis of rotation oriented substantially parallel to a longitudinal axis of the support and driven by the actuator. - an elongate support configured to be mounted on a motor vehicle, - a deflecting wall mounted on the support so as to be movable between, on the one hand, a retracted position in which, in the mounted state, said deflecting wall is raised with respect to the support, and, on the other hand, a deployed position in which, in the mounted state, said deflecting wall is lowered with respect to the support, and - an actuator configured to move said deflecting wall between the retracted and deployed positions,
A process for cooling syngas, the process comprising: blending syngas exiting from a gasification chamber with cooled recycled syngas in an amount effective for providing a blended syngas with a temperature at an inlet of a syngas cooler of 316°C to 760°C (600°F to 1400°F), wherein cooled recycled syngas is supplied to a distal end of a gasification chamber having a diameter D H through a syngas recycle inlet having a diameter D C, wherein the distal end of the gasification chamber is continuous with a gasification outlet, and the gasification outlet changes direction at least once before entering the syngas cooler with each change of direction independently being at an angle of 15 to 165° such that the blended syngas changes direction of flow at least once prior to the inlet of the syngas cooler wherein a flow of syngas through the syngas cooler is greater than 24 meters per second. blending syngas exiting from a gasification chamber with cooled recycled syngas in an amount effective for providing a blended syngas with a temperature at an inlet of a syngas cooler of 316°C to 760°C (600°F to 1400°F), wherein cooled recycled syngas is supplied to a distal end of a gasification chamber having a diameter D H through a syngas recycle inlet having a diameter D C, wherein the distal end of the gasification chamber is continuous with a gasification outlet, and the gasification outlet changes direction at least once before entering the syngas cooler with each change of direction independently being at an angle of 15 to 165° such that the blended syngas changes direction of flow at least once prior to the inlet of the syngas cooler wherein a flow of syngas through the syngas cooler is greater than 24 meters per second.
A tire produced by using a rubber composition for a tire, comprising a vulcanizing agent, and a rubber component containing modified natural rubber that has a hydroxyl group directly bonded to a main chain of natural rubber, wherein the modified natural rubber has at least one of constitutional units represented by the following formulae,,, and: wherein each of x and y is an integer of 1 or greater, and wherein the content of hydroxyl groups in the modified natural rubber is 1% to 20% by mole based on isoprene units as determined in the description.
A dielectric filter comprising a dielectric block; more than one multilayer resonator formed in said dielectric block, wherein each said multilayer resonator is in a column shape extending in a first direction into said dielectric block and is formed of multiple metal layers paralleling and overlapping each other in a second direction perpendicular to said first direction, and each said multilayer resonator is provided with a first signal terminal, a second signal terminal and a ground terminal, wherein said first signal terminal of one said multilayer resonator and said second signal terminal of one adjacent said multilayer resonator are directly connected, inductively coupled or capacitively coupled; a plurality of vias extending in said second direction and connecting said metal layers in each said multilayer resonator; and a ground electrode, wherein said ground terminal of each said multilayer resonator extends in the same said first direction to a side of said dielectric block and connected with said ground electrode; wherein a third direction is perpendicular to said first direction and said second direction, and widths in said third direction of said metal layers at two outermost sides in said second direction of said multiple metal layers are smaller than widths in said third direction of other said metal layers. a dielectric block; more than one multilayer resonator formed in said dielectric block, wherein each said multilayer resonator is in a column shape extending in a first direction into said dielectric block and is formed of multiple metal layers paralleling and overlapping each other in a second direction perpendicular to said first direction, and each said multilayer resonator is provided with a first signal terminal, a second signal terminal and a ground terminal, wherein said first signal terminal of one said multilayer resonator and said second signal terminal of one adjacent said multilayer resonator are directly connected, inductively coupled or capacitively coupled; a plurality of vias extending in said second direction and connecting said metal layers in each said multilayer resonator; and a ground electrode, wherein said ground terminal of each said multilayer resonator extends in the same said first direction to a side of said dielectric block and connected with said ground electrode; wherein a third direction is perpendicular to said first direction and said second direction, and widths in said third direction of said metal layers at two outermost sides in said second direction of said multiple metal layers are smaller than widths in said third direction of other said metal layers.
A method for preparing polypropylene non-woven fabric comprising steps of: selecting first polypropylene resin and second polypropylene resin; and simultaneously introducing the polypropylene resins into a melt blown process to prepare drawn yarns of the first and second polypropylene resins, wherein a difference between the residual stress ratios of the first and second polypropylene resins, respectively represented by the following Equation 1, is 10 times or more: Residual stress ratio = Stress S 2 / Stress S 1 in the Equation 1, Stress S1 is first residual stress measured a first time(S 1) after applying 150 to 250% strain to each of the first and second polypropylene resins while the strain is maintained, Stress S2 is second residual stress measured a second time after applying 150 to 250% strain to each of the first and second polypropylene resins while the strain is maintained, and S 2 > S 1; wherein the steps of applying strain, and measuring the first and second residual stress are progressed under temperature condition represented by the following Equation 2: Tm < = T < Td in the Equation 2, T is temperature condition under which the strain is applied, Tm is the melting temperature of the polypropylene sample, Td is a temperature at which the polypropylene sample begins to be thermally decomposed. selecting first polypropylene resin and second polypropylene resin; and simultaneously introducing the polypropylene resins into a melt blown process to prepare drawn yarns of the first and second polypropylene resins, wherein a difference between the residual stress ratios of the first and second polypropylene resins, respectively represented by the following Equation 1, is 10 times or more: Residual stress ratio = Stress S 2 / Stress S 1 in the Equation 1, Stress S1 is first residual stress measured a first time(S 1) after applying 150 to 250% strain to each of the first and second polypropylene resins while the strain is maintained, Stress S2 is second residual stress measured a second time after applying 150 to 250% strain to each of the first and second polypropylene resins while the strain is maintained, and S 2 > S 1; wherein the steps of applying strain, and measuring the first and second residual stress are progressed under temperature condition represented by the following Equation 2: Tm < = T < Td in the Equation 2, T is temperature condition under which the strain is applied, Tm is the melting temperature of the polypropylene sample, Td is a temperature at which the polypropylene sample begins to be thermally decomposed.