mhurhangee/ep-ind-claims huggingface dataset:
A physical quantity sensor, comprising: a lamination structure in which a first substrate and a second substrate are laminated; an electrode pad and a wiring formed on a surface of the first substrate; a sensing portion formed on the second substrate; and a shield layer formed on a surface of the first substrate, electrically insulated with respect to the electrode and the wiring, and held at a constant potential, wherein the shield layer includes a peep portion to observe the sensing portion, wherein the peep portion is a thin wall portion in which a thickness of the shield layer is thinner than other portions or a portion in which the shield layer is not provided. a lamination structure in which a first substrate and a second substrate are laminated; an electrode pad and a wiring formed on a surface of the first substrate; a sensing portion formed on the second substrate; and a shield layer formed on a surface of the first substrate, electrically insulated with respect to the electrode and the wiring, and held at a constant potential, wherein the shield layer includes a peep portion to observe the sensing portion, wherein the peep portion is a thin wall portion in which a thickness of the shield layer is thinner than other portions or a portion in which the shield layer is not provided.
A process, comprising reacting a compound of Formula III: or a salt thereof, with a compound of Formula IV: in the presence of a reducing agent to form a compound of Formula II: or a salt thereof, provided said reducing agent is not sodium cyanoborodeuteride; wherein P 1 is a protecting group.
A breast implant, comprising: a silicone elastomer shell with an opening covered by a patch; a silicone gel filling said shell; and a high-temperature-stable, glass encapsulated transponder embedded within said silicone gel and positioned proximal to said patch, wherein the transponder is configured to withstand temperatures up to 210°C ± 20°C during a curing and/or sterilization process without loss of function thereafter. a silicone elastomer shell with an opening covered by a patch; a silicone gel filling said shell; and a high-temperature-stable, glass encapsulated transponder embedded within said silicone gel and positioned proximal to said patch,
Production method for hydrocarbons contained in an underground formation passed through by at least one well, characterized in that the following steps are carried out: - a computer is used to construct a numerical model of said underground formation comprising a meshing, and by taking into account at least petrophysical data applied to the meshes, and the characteristics of at least one well passing through said underground formation, - a function of pressure and temperature dependencies of the permeabilities taken into account in said model is determined, said function of pressure and temperature dependencies of the permeabilities taken into account in said model comprising permeability multipliers Mult i (T,P), in order to have an effective permeability K e i ff T P = Mult i (T,P) ∗ K i, Ki being obtained in the numerical model constructed in the preceding step, - a model of productivity index as a function of the permeability of said meshes is determined, according to: IP K eff = 2 ⁢ π K eff x K eff y h ln r 0 r w + s with the thickness perpendicular to the flow h, well radius r w, drainage radius r 0 and skin factor s, - for at least one mesh of said model, a pressure and temperature dependent productivity index is determined, by taking into account said functions of pressure and temperature dependencies of the permeabilities, and said productivity index model, and - said underground formation is exploited as a function of said productivity index. - a computer is used to construct a numerical model of said underground formation comprising a meshing, and by taking into account at least petrophysical data applied to the meshes, and the characteristics of at least one well passing through said underground formation, - a function of pressure and temperature dependencies of the permeabilities taken into account in said model is determined, said function of pressure and temperature dependencies of the permeabilities taken into account in said model comprising permeability multipliers Mult i (T,P), in order to have an effective permeability K e i ff T P = Mult i (T,P) ∗ K i, Ki being obtained in the numerical model constructed in the preceding step, - a model of productivity index as a function of the permeability of said meshes is determined, according to: IP K eff = 2 ⁢ π K eff x K eff y h ln r 0 r w + s with the thickness perpendicular to the flow h, well radius r w, drainage radius r 0 and skin factor s, - for at least one mesh of said model, a pressure and temperature dependent productivity index is determined, by taking into account said functions of pressure and temperature dependencies of the permeabilities, and said productivity index model, and - said underground formation is exploited as a function of said productivity index.
A handheld painting device comprising: an elongate handle having an internal paint reservoir therein; a paint applicator in the form of a brush, pad, roller, wheel or combinations thereof, for applying paint to a surface; and a rotary drive mechanism configured to deliver paint from the internal paint reservoir to the paint applicator, characterized in that the rotary drive mechanism including: a rotatable shaft extending within at least a portion of the paint reservoir and having a connector formed at one end; a plunger mounted on the shaft and movable within the paint reservoir by rotation of the shaft; and a powered actuator mechanism, interchangeable with other painting devices, and comprising a connector that is configured to engage the connector on the end of the rotatable shaft to thereby rotate the rotatable shaft. an elongate handle having an internal paint reservoir therein; a paint applicator in the form of a brush, pad, roller, wheel or combinations thereof, for applying paint to a surface; and a rotary drive mechanism configured to deliver paint from the internal paint reservoir to the paint applicator, characterized in that the rotary drive mechanism including: a rotatable shaft extending within at least a portion of the paint reservoir and having a connector formed at one end; a plunger mounted on the shaft and movable within the paint reservoir by rotation of the shaft; and a powered actuator mechanism, interchangeable with other painting devices, and comprising a connector that is configured to engage the connector on the end of the rotatable shaft to thereby rotate the rotatable shaft. a rotatable shaft extending within at least a portion of the paint reservoir and having a connector formed at one end; a plunger mounted on the shaft and movable within the paint reservoir by rotation of the shaft; and a powered actuator mechanism, interchangeable with other painting devices, and comprising a connector that is configured to engage the connector on the end of the rotatable shaft to thereby rotate the rotatable shaft.
A process for producing a concrete composite comprising: a. providing a particulate material, wherein the particulate material comprises minerals having a content of at least 30% m/m of calcium, magnesium, aluminium, silicon, potassium or iron, or a combination of two or more thereof. b. providing an aggregate, c. providing a primary additive, wherein the primary additive comprises a sugar or derivative thereof, a polyol or derivative thereof, an organic acid comprising a carboxylic acid, or an organic acid salt comprising a carboxylate salt, or any combination of two or more thereof, wherein the carboxylic acid containing compound or carboxylate salt containing compound comprises citric acid, sodium gluconate, sodium citrate, calcium nitrate, acetic acid, sodium acetate, calcium acetate, formic acid, glyceric acid, ascorbic acid, tartaric acid, oxalic acid, malic acid or lactic acid, or any combination of two or more thereof, wherein the primary additive is provided in the in the form of a solution, a colloidal suspension, or a powder, d. mixing the particulate material, the aggregate and the primary additive with water to form a mixture, wherein the mixture is shaped using a mold or a support, wherein the mixture remains in the mold or on the support for a period of from 1 s to 2 hours and is then separated from the mold or the support prior to step (e), and e. carbonating the mixture in the presence of carbon dioxide for a period of from 6 hours to 36 hours, wherein the concentration of carbon dioxide is greater than 2 vol%. a. providing a particulate material, wherein the particulate material comprises minerals having a content of at least 30% m/m of calcium, magnesium, aluminium, silicon, potassium or iron, or a combination of two or more thereof. b. providing an aggregate, c. providing a primary additive, wherein the primary additive comprises a sugar or derivative thereof, a polyol or derivative thereof, an organic acid comprising a carboxylic acid, or an organic acid salt comprising a carboxylate salt, or any combination of two or more thereof, wherein the carboxylic acid containing compound or carboxylate salt containing compound comprises citric acid, sodium gluconate, sodium citrate, calcium nitrate, acetic acid, sodium acetate, calcium acetate, formic acid, glyceric acid, ascorbic acid, tartaric acid, oxalic acid, malic acid or lactic acid, or any combination of two or more thereof, wherein the primary additive is provided in the in the form of a solution, a colloidal suspension, or a powder, d. mixing the particulate material, the aggregate and the primary additive with water to form a mixture, wherein the mixture is shaped using a mold or a support, wherein the mixture remains in the mold or on the support for a period of from 1 s to 2 hours and is then separated from the mold or the support prior to step (e), and e. carbonating the mixture in the presence of carbon dioxide for a period of from 6 hours to 36 hours, wherein the concentration of carbon dioxide is greater than 2 vol%.
A dispersion for making décor paper having improved optical performance without negatively impacting mechanical strength comprising: (a) a TiO 2 particle slurry comprising a treated TiO 2 particle having a surface area of at least about 30m 2 /g, and a cationic polymer; wherein the treatment comprises an oxide of silicon, aluminum, phosphorus or mixtures thereof; and the treatment is present in the amount of at least 15% based on the total weight of the treated titanium dioxide particle; (b) paper pulp; and (c) a cationic polymer; wherein the cationic polymer in the slurry and the cationic polymer in the dispersion are compatible; wherein for equal optical performance, the amount of treated TiO 2 particle in the dispersion is reduced by about 10% when compared to a dispersion not comprising the treated TiO 2 particle of (a). (a) a TiO 2 particle slurry comprising a treated TiO 2 particle having a surface area of at least about 30m 2 /g, and a cationic polymer; wherein the treatment comprises an oxide of silicon, aluminum, phosphorus or mixtures thereof; and the treatment is present in the amount of at least 15% based on the total weight of the treated titanium dioxide particle; (b) paper pulp; and (c) a cationic polymer; wherein the cationic polymer in the slurry and the cationic polymer in the dispersion are compatible; wherein for equal optical performance, the amount of treated TiO 2 particle in the dispersion is reduced by about 10% when compared to a dispersion not comprising the treated TiO 2 particle of (a).
A power converter for converting a supply voltage of a power source to a charging voltage for charging a capacitor comprising a first and a second electrode for an apparatus for removal of ions from water, wherein the power converter is constructed and arranged for energy recovery from the capacitor by converting the voltage on the capacitor to the supply voltage of the power source in a first electrode regeneration mode, characterised in that the power converter is constructed and arranged for switching the supply voltage between the first and the second electrode under control of the controller in order to change the polarity of the electrodes with respect to an ion removal mode in a second electrode regeneration mode in which the ions remaining on the electrodes are released into water in between the electrodes by charging the electrodes with a charge at opposite polarity compared to the ion removal mode.
A stripper solution for removing photoresist from substrates comprising: 30 weight percent to 97 weight percent diethylene glycol butyl ether; 1 weight percent to 7 weight percent of quaternary ammonium hydroxide; 1 weight percent to 75 weight percent of alkanolamine; 0.001 weight percent to 7 weight percent of one or more corrosion inhibitors; and 3 weight percent to 20 weight percent water; wherein the solution is free of DMSO; wherein the alkanolamine includes 2-(2-aminoethoxy)ethanol; and wherein the one or more corrosion inhibitors are selected from the group consisting of resorcinol, glycerol, sorbitol, and a hydrate of copper nitrate. 30 weight percent to 97 weight percent diethylene glycol butyl ether; 1 weight percent to 7 weight percent of quaternary ammonium hydroxide; 1 weight percent to 75 weight percent of alkanolamine; 0.001 weight percent to 7 weight percent of one or more corrosion inhibitors; and 3 weight percent to 20 weight percent water; wherein the solution is free of DMSO; wherein the alkanolamine includes 2-(2-aminoethoxy)ethanol; and wherein the one or more corrosion inhibitors are selected from the group consisting of resorcinol, glycerol, sorbitol, and a hydrate of copper nitrate.
A Litz wire terminal assembly, comprising: a wire bundle including a plurality of electrically conductive strands extending between a first end and a second end to define a length, each strand including an insulative cover having a proximate cover end at the first end and a distal cover end at the second end, the distal cover end being flush with the second end, wherein the insulative covers extend continuously from the first end to the second end, and wherein a flat cross-section at the second end of the wire bundle forming a bundle surface; a ferrule on the wire bundle, the ferrule having a distal ferrule end at the second end of the conductive strands such that the distal ferrule end is flush with both the second end of strands and the distal cover ends of the insulative covers; wherein the Litz wire terminal assembly further comprises an electrically conductive lug, characterized in that: the metal lug surface is ultrasonically welded to the bundle surface, the electrically conductive lug having a plurality of flanges crimped to the ferrule. a wire bundle including a plurality of electrically conductive strands extending between a first end and a second end to define a length, each strand including an insulative cover having a proximate cover end at the first end and a distal cover end at the second end, the distal cover end being flush with the second end, wherein the insulative covers extend continuously from the first end to the second end, and wherein a flat cross-section at the second end of the wire bundle forming a bundle surface; a ferrule on the wire bundle, the ferrule having a distal ferrule end at the second end of the conductive strands such that the distal ferrule end is flush with both the second end of strands and the distal cover ends of the insulative covers; wherein the Litz wire terminal assembly further comprises an electrically conductive lug, characterized in that: the metal lug surface is ultrasonically welded to the bundle surface, the electrically conductive lug having a plurality of flanges crimped to the ferrule.
A belt as used as tension member in elevators, comprising a plurality of steel strands and a polymer jacket, said belt having a length dimension, a width dimension ('W') and a thickness dimension ('t'), said steel strands having a steel strand diameter (`D') and a steel strand centre, said steel strands being oriented along the length dimension and held in parallel relationship by said polymer jacket, wherein said steel strand centres are aligned in the width dimension ('W') and wherein neighbouring steel strand centres are separated by a pitch ('p'), wherein the ratio of said steel strand diameter to said pitch is larger than 0.55, characterised in that said steel strands are provided with an organic primer that promotes adhesion between the steel strands and the polymer of said polymer jacket, and wherein said organic primer is one out of the group comprising organo functional silanes, organo functional zirconates or organo functional titanates, and wherein the polymer of said polymer jacket is poly ether polyol based thermoplastic polyurethane or poly carbonate polyol based thermoplastic poly urethane, wherein said steel strands adhere to said polymer jacket with an adhesion axial force per unit length in newton per millimetre that is at least 20 times the steel strand diameter in millimeter.
Cooling element of an electrical storage device for a motor vehicle, comprising at least one first wall extending primarily in a first plane and in which is created at least one first channel and at least one second wall extending primarily in a second plane and in which is created at least one second channel, the first channel and the second channel being adapted to be taken by a heat transport fluid, characterized in that the first plane in which the first wall extends and the second plane in which the second wall extends intersect, and in that at least the first wall is configured to support the electrical storage device, and in that the cooling element comprises fluidic connection means configured to connect the first channel created in the first wall to the second channel created in the second wall, each fluidic connection means being created within said first and second walls.
Welding power source - having a housing which has a housing upper side, characterised - in that, on the housing, a profile (24a-b) is provided having a groove (28a-b) for receiving fastening elements for fastening a component (62, 82a-b, 94) on the housing upper side, the groove extending along a side edge (26a-b) of the housing upper side, and - in that, on the housing, a further profile (24a-b) is provided having a groove (28a-b) for receiving fastening elements for fastening the component (62, 82a-b, 94) on the housing upper side, the groove of the further profile extending along a further side edge (26a-b) of the housing upper side opposed to the side edge (26a-b). - having a housing which has a housing upper side, characterised - in that, on the housing, a profile (24a-b) is provided having a groove (28a-b) for receiving fastening elements for fastening a component (62, 82a-b, 94) on the housing upper side, the groove extending along a side edge (26a-b) of the housing upper side, and - in that, on the housing, a further profile (24a-b) is provided having a groove (28a-b) for receiving fastening elements for fastening the component (62, 82a-b, 94) on the housing upper side, the groove of the further profile extending along a further side edge (26a-b) of the housing upper side opposed to the side edge (26a-b).
A polarized light emitting medical device, in particular for the prevention and treatment of gingival and periodontal diseases, with a housing formed as a handle of the medical device, in which there is an electronic control unit which is control-signal connected with a polarized light emitting arrangement, said polarized light emitting arrangement comprising at least one light source (3, 31, 32) connected with said electronic control unit and a polarizer optical unit (4, 41, 42) optically connected with said light source (3, 31, 32) for forming a polarized light beam from the light rays emitted by said light source (3, 31, 32), said polarized light emitting arrangement comprises at least one polarized light emitting treatment console (6, 61, 62) connected to said housing and incorporating said light source (3, 31, 32) and said polarizer optical unit (4, 41, 42) optically connected therewith, characterized in that said polarized light emitting treatment console/s/ (6, 61, 62) feature/s/ an oval window formed for said polarizer optical unit (4, 41, 42) at the distal end portion of said polarized light emitting treatment console/s/ (6, 61, 62), the longer axis of said oval window being parallel to the longitudinal direction of the respective polarized light emitting console (6, 61, 62), and said polarizer optical unit (4, 41, 42) is positioned in said oval window to define the direction of polarization parallel to the longer axis of the oval window.
A system for regenerating a wash solution utilized to remove gaseous contaminants from a gas stream, the system comprising: a regenerator providing a regenerated wash solution stream (168/184) exiting therefrom; means for providing a first portion of a used wash solution to the regenerator at a first location; a first heat exchanger for heat transfer between the regenerated wash solution stream and a second portion of the used wash solution to form a first heated used wash solution, and means for providing a first portion of the first heated used wash solution to the regenerator at a second location; a second heat exchanger for heat transfer between the regenerated wash solution stream and a second portion of the first heated used wash solution to form a second heated used wash solution, and means for providing the second heated used wash solution to the regenerator at a third location; and wherein the second heated used wash solution has a temperature greater than the first portion of the first heated used wash solution and the first portion of the first heated used wash solution has a temperature greater than the first portion of the used wash solution. a regenerator providing a regenerated wash solution stream (168/184) exiting therefrom; means for providing a first portion of a used wash solution to the regenerator at a first location; a first heat exchanger for heat transfer between the regenerated wash solution stream and a second portion of the used wash solution to form a first heated used wash solution, and means for providing a first portion of the first heated used wash solution to the regenerator at a second location; a second heat exchanger for heat transfer between the regenerated wash solution stream and a second portion of the first heated used wash solution to form a second heated used wash solution, and means for providing the second heated used wash solution to the regenerator at a third location; and wherein the second heated used wash solution has a temperature greater than the first portion of the first heated used wash solution and the first portion of the first heated used wash solution has a temperature greater than the first portion of the used wash solution.