mhurhangee/ep-ind-claims huggingface dataset:
A water soluble film suitable for thermoforming deep-drawn profiles, the film comprising a mixture of a water soluble polyvinyl alcohol resin and a plasticizer, wherein the water soluble polyvinyl alcohol resin comprises a polyvinyl acetate co-maleate copolymer, the water soluble polyvinyl alcohol resin has a viscosity, as determined by measuring a freshly made solution of 4% aqueous polyvinyl alcohol solution at 20 °C, using a Brookfield LV type viscometer with UL adapter, as described in British Standard EN ISO 15023-2:2006 Annex E Brookfield Test method, in a range of 14 cP to 20 cP, and the film has a storage modulus ratio of at least 4.5, as determined by dynamic mechanical analysis using a TA Instrument RSA-G2 as described in ASTM E2254-13; wherein the film when provided at a thickness of 1.5 mil (0.038 mm) dissolves in 300 seconds or less in water at a temperature of 20°C in accordance with MonoSol Test Method MSTM-205, and can be thermoformed to a deep-drawn profile having a draw ratio of at least 2.5.
A battery pack, comprising: a cell; a circuit module (120, 420) electrically coupled to the cell, the circuit module (120, 420) including an insulation substrate, an electrical element on the insulation substrate, and at least one resin layer (125, 225, 325, 425) surrounding the electrical element; and a cover surrounding the circuit module (120, 420) and coupling the circuit module (120, 420) to the cell, characterised in that the resin layer (225, 325) includes a heat discharge hole (225c 325c) in communication with the electrical element. a cell; a circuit module (120, 420) electrically coupled to the cell, the circuit module (120, 420) including an insulation substrate, an electrical element on the insulation substrate, and at least one resin layer (125, 225, 325, 425) surrounding the electrical element; and a cover surrounding the circuit module (120, 420) and coupling the circuit module (120, 420) to the cell, characterised in that the resin layer (225, 325) includes a heat discharge hole (225c 325c) in communication with the electrical element.
Luminaire comprising - at least one optoelectronic semiconductor component, - at least one primary optical unit which is disposed downstream of the semiconductor component and is spaced apart from the semiconductor component, - a secondary optical unit and a tertiary optical unit, which are disposed downstream of the primary optical unit, wherein a proportion of at least 50% of a radiation emitted by the semiconductor component passes to the secondary optical unit and to the tertiary optical unit, characterized in that the secondary optical unit and/or the tertiary optical unit are/is designed for a small-angle scattering of the radiation, such that an average scattering cone of the radiation scattered by the secondary optical unit and/or the tertiary optical unit has an aperture angle (α) of between 1° and 5° inclusive, wherein furthermore the secondary optical unit is subdivided into a plurality of lamellae in a direction perpendicular to a longitudinal direction and individual lamellae from among the lamellae are delimited from one another by an edge, and wherein at least one portion of the lamellae in a centre, along the longitudinal direction, has a different width from that at terminating surfaces of the secondary optical unit. - at least one optoelectronic semiconductor component, - at least one primary optical unit which is disposed downstream of the semiconductor component and is spaced apart from the semiconductor component, - a secondary optical unit and a tertiary optical unit, which are disposed downstream of the primary optical unit,
Approach detection device for motor vehicles, with a sensor carrier having a first receiving space, a sensor electronic system which is arranged in the first receiving space of the sensor carrier and has at least one capacitive approach sensor which is coupled to an evaluation circuit and has an active capacitive surface for detecting approaches, and a carrier frame comprising a fastening section, with which the approach detection device can be fastened to a body part of the motor vehicle, and a detection opening, wherein the sensor carrier is fastened to the carrier frame in such manner that the active capacitive surface of the capacitive approach sensor is aligned with the detection aperture and exposed thereby, and that a second receiving space defined by the detection opening and the sensor carrier is formed in the area of the detection opening, and with a sealing means which is arranged at least in the region of the active capacitive surface of the capacitive approach sensor in the second receiving space on the sensor carrier, characterised in that the sealing means has at least one through opening for reducing the expansion pressure of the sealing means.
A display panel, comprising: a substrate; and a plurality of first electrodes disposed on the substrate, the plurality of the first electrodes extending parallel with each other in the same direction, and having an interval between two adjacent first electrodes, wherein a width of the first electrode changes continuously or intermittently in an extending direction thereof, two edges of the first electrode in the extending direction thereof are wavy lines, crests and troughs of the wavy line are both curves, and a radius of curvature of the curve at the crest is different from a radius of curvature of the curve at the trough; characterized in that the first electrode has a plurality of protrusions distributed along said edges of the first electrode in the width direction a substrate; and a plurality of first electrodes disposed on the substrate, the plurality of the first electrodes extending parallel with each other in the same direction, and having an interval between two adjacent first electrodes, wherein a width of the first electrode changes continuously or intermittently in an extending direction thereof, two edges of the first electrode in the extending direction thereof are wavy lines, crests and troughs of the wavy line are both curves, and a radius of curvature of the curve at the crest is different from a radius of curvature of the curve at the trough; characterized in that the first electrode has a plurality of protrusions distributed along said edges of the first electrode in the width direction
Toilet module that can be transferred and installed into a lavatory having a sewer connection, a water supply connection, and an electric connection for automatic toilet functions, the toilet module comprising at least the following: - a toilet bowl, - a backrest element having an outer surface and an inside, - one or more movable mechanic auxiliaries (11, 12, 13) comprising a movable toilet seat, which is arranged to be movable mainly between a horizontal sitting position and a free position, - a toilet module sewer connection, a water supply connection, and an electric connection for connecting the toilet module to the corresponding lavatory connections, whereby lavatory technology (31, 32, 33, 34, 35, 36) required by an automatic toilet has been placed inside the backrest element and comprises an electric resistance or other heating device which is arranged to heat a heating area on the outer surface of the backrest element, characterised in that in the free position the toilet seat is arranged so that at least most part of its sitting surface is close to the heating area on the outer surface of the backrest element, and thereby the toilet seat is arranged to be heated mainly by heat radiation from the heating area. - a toilet bowl, - a backrest element having an outer surface and an inside, - one or more movable mechanic auxiliaries (11, 12, 13) comprising a movable toilet seat, which is arranged to be movable mainly between a horizontal sitting position and a free position, - a toilet module sewer connection, a water supply connection, and an electric connection for connecting the toilet module to the corresponding lavatory connections,
A process for preparing an impregnated supported catalyst by sequentially adding a multi-carboxylic acid and precursors of first and second catalytic components to precursors of first and second active components to obtain a transparent aqueous metal solution, impregnating an aluminum-based granular support with a portion of the total amount of the transparent aqueous metal solution, drying the impregnated support under vaccum at 40 to 80°C and preliminarily calcining the dried support at 250 to 400°C, impregnating the remainder of the transparent aqueous metal solution into the preliminary calcined support, drying the support under vacuum at 40 to 80°C and calcining the dried support at 650 to 800°C, wherein the supported catalyst has a bulk density of 0.8 to 1.5 g/cm 3, wherein the multi-carboxylic acid is used in an amount of 0.2 to 2.0 moles, assuming that the sum of the moles of the first and second active components equals to 1, wherein the first catalytic component is cobalt (Co), the second catalytic component is selected from iron (Fe), nickel (Ni), and a mixture thereof, the first active component is molybdenum (Mo), and the second active component is vanadium. wherein the multi-carboxylic acid is used in an amount of 0.2 to 2.0 moles, assuming that the sum of the moles of the first and second active components equals to 1, wherein the first catalytic component is cobalt (Co), the second catalytic component is selected from iron (Fe), nickel (Ni), and a mixture thereof, the first active component is molybdenum (Mo), and the second active component is vanadium.
A method for controlling the displacement of a load suspended to a point of attachment of a lifting machine, said method comprising a piloting setpoint acquisition step (a), during which a setpoint called « piloting setpoint » (V u) is acquired and which is representative of a displacement speed (V load) that the operator of the lifting machine wishes to confer on the suspended load, then a processing step (b) during which a setpoint called « execution setpoint » (V trol), which is intended to be applied to at least one drive motor (7, 8) in order to displace the suspended load, is elaborated from said piloting setpoint (V u), the method being characterized in that the processing step (b) includes a C 3 smoothing substep during which the piloting setpoint (V u) is processed so as to confer to said piloting setpoint (V u) properties of third differentiability with respect to time and continuity with respect to time, in order to generate, from said piloting setpoint (V u), a filtered piloting setpoint (V f) which is of class C 3, then the execution setpoint (V trol) is defined from said filtered piloting setpoint (V f).
Valve device (12, 52) to prevent refilling of a pressure container, which valve device (12, 52) comprises a valve housing having a valve chamber provided with two ports (41, 42), a valve body placed in the valve chamber and provided with an axially movable and spring-loaded valve cone having a valve seat, which seals against the valve body when the valve cone is unloaded, the valve body limiting the valve chamber at one port thereof and that a valve inlet is arranged in the valve housing, the valve housing being provided with a filling channel (480, 880), which extends from a position between the two ports (41, 42) of the valve chamber through the valve housing and out through the outer surface (481, 881) thereof inside the pressure container when the valve device is mounted on a pressure container, wherein an, at least initially, movable interrupt member (482, 882) is connected to the filling channel (480, 880) to close the filling channel (480, 880) after the pressure container has been filled with pressure fluid, wherein the valve chamber is provided with a non-return valve at the other port thereof, which non-return valve is arranged to sealingly abut against the valve housing at a positive pressure in the valve chamber, wherein the interrupt member (482, 882) is formed as a piston movable in a cylinder (483, 883), which cylinder forms the angle α with the filling channel (480, 880), the piston being displaceable to entirely cover the opening of the filling channel (480, 880) toward the cylinder (483, 883), filling of the pressure container as well as discharge from the pressure container being arranged to take place through the valve inlet.
A battery pack comprising: a plurality of battery modules mutually connected by a bus bar; a mold assembly comprising a module receiver configured to receive the battery module; and a pack case configured to receive the mold assembly, wherein the mold assembly comprises: a main mold configured to receive the battery module; and a roof mold configured to cover an upper opening of the main mold; and wherein the roof mold includes a bus bar receiver formed in a surface facing the main mold. a plurality of battery modules mutually connected by a bus bar; a mold assembly comprising a module receiver configured to receive the battery module; and a pack case configured to receive the mold assembly, wherein the mold assembly comprises: a main mold configured to receive the battery module; and a roof mold configured to cover an upper opening of the main mold; and wherein the roof mold includes a bus bar receiver formed in a surface facing the main mold. a main mold configured to receive the battery module; and a roof mold configured to cover an upper opening of the main mold; and wherein the roof mold includes a bus bar receiver formed in a surface facing the main mold.
An optical tracker comprising: at least two optical tracker sensors (120A, 120B), facing at least partially each other, wherein each of said at least two optical tracker sensors (120A, 120B) comprises at least one pixel array sensor configured to generate a stream of pixel values representing a scene; and wherein a first one of said at least two optical tracker sensors (120A, 120B) comprises: a plurality of pixel array sensors (560A-560C), each radially facing a different sector; and at least one integrated circuit, "IC", physically coupled to said plurality of pixel array sensors, and configured to employ a selected at least one of said plurality of pixel array sensors to generate the stream of pixel values wherein each pixel array sensor (560A-560C) is coupled to a corresponding visual indicator (570A-570C), and wherein a second one of said at least two optical tracker sensors is coupled to at least two visual indicators (592A-592B); and a computer processor configured to calculate a relative position and/or orientation, or a partial data thereof, of said at least two optical tracker sensors, based on said streams of pixel values from each of said optical tracker sensors (120A, 120B). at least two optical tracker sensors (120A, 120B), facing at least partially each other, wherein each of said at least two optical tracker sensors (120A, 120B) comprises at least one pixel array sensor configured to generate a stream of pixel values representing a scene; and wherein a first one of said at least two optical tracker sensors (120A, 120B) comprises: a plurality of pixel array sensors (560A-560C), each radially facing a different sector; and at least one integrated circuit, "IC", physically coupled to said plurality of pixel array sensors, and configured to employ a selected at least one of said plurality of pixel array sensors to generate the stream of pixel values a plurality of pixel array sensors (560A-560C), each radially facing a different sector; and at least one integrated circuit, "IC", physically coupled to said plurality of pixel array sensors, and configured to employ a selected at least one of said plurality of pixel array sensors to generate the stream of pixel values wherein each pixel array sensor (560A-560C) is coupled to a corresponding visual indicator (570A-570C), and wherein a second one of said at least two optical tracker sensors is coupled to at least two visual indicators (592A-592B); and a computer processor configured to calculate a relative position and/or orientation, or a partial data thereof, of said at least two optical tracker sensors, based on said streams of pixel values from each of said optical tracker sensors (120A, 120B).
Controlling circuitry operably connectable to a plurality of constituent analog-to-digital converters (210a, 210b, 210c,..., 210n; 410a, 410b,..., 410h), sub-ADCs, of an asynchronous time-interleaved analog-to-digital converter (200, 300), TI-ADC, the controlling circuitry being configured to maintain a set of a number of sub-ADCs currently available for processing of an input sample, wherein the set is a subset of the plurality of sub-ADCs, by: reception, from each of one or more of the sub-ADCs of the plurality of sub-ADCs, of an availability signal indicative of availability of the corresponding sub-ADC; responsive to the reception of the availability signal, addition of the corresponding sub-ADC to the set; for each new input sample, selection of a sub-ADC of the set for processing of the new input sample; and responsive to the selection, removal of the selected sub-ADC from the set and causing of the selected sub-ADC to process the new input sample. reception, from each of one or more of the sub-ADCs of the plurality of sub-ADCs, of an availability signal indicative of availability of the corresponding sub-ADC; responsive to the reception of the availability signal, addition of the corresponding sub-ADC to the set; for each new input sample, selection of a sub-ADC of the set for processing of the new input sample; and responsive to the selection, removal of the selected sub-ADC from the set and causing of the selected sub-ADC to process the new input sample.
An ultraviolet lamp apparatus (101, 401, 701, 801) for treatment of an aqueous fluid, comprising: at least one filament (104, 105, 108, 109, 204-207, 406, 407, 409, 410, 502, 503); a location for amalgam; an amount of amalgam; a heat-sink assembly thermally coupled to the lamp apparatus near the location for amalgam with a temperature sensor (212, 507) and a heating element (215, 216, 510, 806) thermally coupled to the heat-sink; and at least one temperature control circuit (103, 403, 805) comprising the temperature sensor (212, 507) and the heating element (215, 216, 510, 806) electrically connected to the at least one filament 104, 105, 108, 109, 204-207, 406, 407, 409, 410, 502, 503), wherein the temperature control circuit is configured to vary the electrical power delivered to the heating element, wherein the temperature control circuit (103, 403, 805) is configured to introduce a heating load by drawing power from the lamp power supply via the electrical connection to the at least one filament 104, 105, 108, 109, 204-207, 406, 407, 409, 410, 502, 503), whereby the heating element heats the location for amalgam, thereby controlling an internal temperature of the lamp apparatus, and the amalgam, in view of controlling an internal temperature of the lamp apparatus relative to a temperature set point. at least one filament (104, 105, 108, 109, 204-207, 406, 407, 409, 410, 502, 503); a location for amalgam; an amount of amalgam; a heat-sink assembly thermally coupled to the lamp apparatus near the location for amalgam with a temperature sensor (212, 507) and a heating element (215, 216, 510, 806) thermally coupled to the heat-sink; and at least one temperature control circuit (103, 403, 805) comprising the temperature sensor (212, 507) and the heating element (215, 216, 510, 806) electrically connected to the at least one filament 104, 105, 108, 109, 204-207, 406, 407, 409, 410, 502, 503), wherein the temperature control circuit is configured to vary the electrical power delivered to the heating element, wherein the temperature control circuit (103, 403, 805) is configured to introduce a heating load by drawing power from the lamp power supply via the electrical connection to the at least one filament 104, 105, 108, 109, 204-207, 406, 407, 409, 410, 502, 503), whereby the heating element heats the location for amalgam, thereby controlling an internal temperature of the lamp apparatus, and the amalgam, in view of controlling an internal temperature of the lamp apparatus relative to a temperature set point.
A cell culture vessel comprising: a wall (101, 106, 107, 108) comprising an inner surface (201, 206, 207, 208) defining a cell culture chamber of the vessel; a substrate positioned in the cell culture chamber between a first region of the cell culture chamber and a second region of the cell culture chamber, the substrate comprising a plurality of microcavities and a layer of porous material, each microcavity (220a, 220b, 220c) of the plurality of microcavities comprises a concave surface (221a, 221b, 221c) defining a well (222a, 222b, 222c) and an opening (223a, 223b, 223c) defining a path from the first region into the well (222a, 222b, 222c), a first side of the layer of porous material defines at least a portion of the concave surface (221a, 221b, 221c) of each microcavity (220a, 220b, 220c) of the plurality of microcavities, and a second side of the layer of porous material faces the second region; and a first aperture extending through the wall (101, 106, 107, 108) in fluid communication with the first region. a wall (101, 106, 107, 108) comprising an inner surface (201, 206, 207, 208) defining a cell culture chamber of the vessel; a substrate positioned in the cell culture chamber between a first region of the cell culture chamber and a second region of the cell culture chamber, the substrate comprising a plurality of microcavities and a layer of porous material, each microcavity (220a, 220b, 220c) of the plurality of microcavities comprises a concave surface (221a, 221b, 221c) defining a well (222a, 222b, 222c) and an opening (223a, 223b, 223c) defining a path from the first region into the well (222a, 222b, 222c), a first side of the layer of porous material defines at least a portion of the concave surface (221a, 221b, 221c) of each microcavity (220a, 220b, 220c) of the plurality of microcavities, and a second side of the layer of porous material faces the second region; and a first aperture extending through the wall (101, 106, 107, 108) in fluid communication with the first region.
A fabrication process for a shoe outer sole, wherein the shoe outer sole comprises, preferably consists of, a central part and an annular part projecting laterally from the edge of the central part, characterized in that the process comprises the steps of: (i) supplying the annular part; and (ii) overmolding the central part on the annular part, by injection molding, so as to form an outer sole in which the central and annular parts are securely joined. (i) supplying the annular part; and (ii) overmolding the central part on the annular part, by injection molding, so as to form an outer sole in which the central and annular parts are securely joined.