mhurhangee/ep-ind-claims huggingface dataset:
A fixed double socket-outlet (102, 103) comprising a first and a second socket-outlet (102, 103), said double-socket outlet being provided with a cover-plate, a main part and a cylindrical mounting box, wherein the cover-plate covers the main part from the front, the size of the mounting box is arranged for a single socket-outlet, the main part of the socket-outlet (102, 103) is arranged to fit into the space defined by the mounting box and two socket-contact openings (111, 112, 113, 114) are provided for each of the said first and second socket-outlet (102, 103) characterized in that a first axis, defined as passing via a first socket-outlet opening and a second socket-outlet opening, is arranged at an angle between 38 and 42 degrees to a second axis of the first and second socket-outlet (102, 103); wherein the two socket-contact openings (111, 112, 113, 114) form a parallel axis for the first and the second socket-outlet (102, 103) and the socket-outlets (102, 103) are Schuko socket-outlets.
A device comprising: a first capacitor having a capacitance adjustable to a set point value by application of a bias voltage (VBIAS); and a second capacitor (CV') having a capacitance adjustable to a set point value by application of a bias voltage, the second capacitor (CV') being arranged to receive the same bias voltage (VBIAS) as the first capacitor, characterized in that it further comprises a control circuit capable of receiving said set point value and of generating said bias voltage (VBIAS) while taking into account a quantity representative of the capacitance of the second capacitor (CV'), and in that the first and second (CV') capacitors are matched, to substantially have the same temperature variation. a first capacitor having a capacitance adjustable to a set point value by application of a bias voltage (VBIAS); and a second capacitor (CV') having a capacitance adjustable to a set point value by application of a bias voltage, the second capacitor (CV') being arranged to receive the same bias voltage (VBIAS) as the first capacitor, characterized in that it further comprises a control circuit capable of receiving said set point value and of generating said bias voltage (VBIAS) while taking into account a quantity representative of the capacitance of the second capacitor (CV'), and in that the first and second (CV') capacitors are matched, to substantially have the same temperature variation.
A graft copolymer latex comprising a graft copolymer ABC of at least one olefinically unsaturated monomer C and at least one - modified alkyd resin A2B obtained by reacting a hydroxy-functional alkyd resin A2 which has a hydroxyl number of between 5 mg/g and 80 mg/g, an acid number of less than 15 mg/g, a specific amount of substance of carbon-carbon double bonds of from 1 mol/kg to 8 mol/kg, and on average, at least one olefinic unsaturation within a molecule and an average of at least 0.5 hydroxyl groups per molecule, with an olefinically unsaturated isocyanate B under addition and formation of a urethane bond, or - modified oil A1B which modified alkyd resin A2B or modified oil A1B have chain-pendant olefinically unsaturated groups which are linked to the carbon atom chain of the alkyd resin or oil via a urethane group. - modified alkyd resin A2B obtained by reacting a hydroxy-functional alkyd resin A2 which has a hydroxyl number of between 5 mg/g and 80 mg/g, an acid number of less than 15 mg/g, a specific amount of substance of carbon-carbon double bonds of from 1 mol/kg to 8 mol/kg, and on average, at least one olefinic unsaturation within a molecule and an average of at least 0.5 hydroxyl groups per molecule, with an olefinically unsaturated isocyanate B under addition and formation of a urethane bond, or - modified oil A1B which modified alkyd resin A2B or modified oil A1B have chain-pendant olefinically unsaturated groups which are linked to the carbon atom chain of the alkyd resin or oil via a urethane group.
Method for thermally treating an aluminium workpiece, comprising the steps of providing an aluminium workpiece (304, 404, 504, 604, 710, 802), which is in the T4 structural state, and exposing a first portion (328, 422, 522, 626, 720) of the workpiece (304, 404, 504, 604, 710, 802) to a first precipitation hardening process by artificial ageing to change the structural state of the first portion (328, 422, 522, 626, 720) of the workpiece (304, 404, 504, 604, 710, 802), c h a r a c t e r i z e d in that a part of the workpiece (304, 404, 504, 604, 710, 802) is actively cooled during the first precipitation hardening process, so that a second portion (330, 424, 524, 628, 722) of the workpiece (304, 404, 504, 604, 710, 802) remains in the same structural state during the first precipitation hardening process, the second portion (330, 424, 524, 628, 722) enclosing a part of the workpiece (304, 404, 504, 604, 710, 802) that is not directly cooled but separated from the first portion (328, 422, 522, 626, 720) by the actively cooled part of the workpiece (304, 404, 504, 604, 710, 802).
A shell-forming composition for a soft capsule suitable for encapsulating a core containing a phospholipid-containing oil with a phospholipid concentration of 20% or more by mass, comprising: starch and/or dextrin; a gelatinizer selected from the group consisting of iota-carrageenan, kappa-carrageenan, lambda-carrageenan, agar, gum Arabic, gellan gum, native gellan gum, pullulan, pectin, glucomannan, locust bean gum, guar gum, cellulose, konjac gum, furcellaran, tara gum, alginate and tamarind gum; glycerin; and sorbitol; wherein the mass ratio of glycerin: sorbitol ranges from 100:40 to 100:70. starch and/or dextrin; a gelatinizer selected from the group consisting of iota-carrageenan, kappa-carrageenan, lambda-carrageenan, agar, gum Arabic, gellan gum, native gellan gum, pullulan, pectin, glucomannan, locust bean gum, guar gum, cellulose, konjac gum, furcellaran, tara gum, alginate and tamarind gum; glycerin; and sorbitol;
Method of determining the softening point or the dropping point of a substance with a measuring instrument that comprises a sample chamber, a temperature sensor, a heater device, a means for providing temperature/time target values, an image-recording means and a controller unit with a processor unit; wherein the heater device heats the sample chamber, the temperature sensor measures the temperature in the sample chamber, and the image-recording means captures a visual image of the interior of the sample chamber; said method comprising the steps of: a. providing a sample receptacle with a sample of the substance that is to be analyzed and setting the sample receptacle into the sample chamber; b. setting the sample chamber to a given starting temperature; c. providing temperature/time target values and heating the sample chamber with the heater device in accordance with the given temperature/time target values; d. measuring actual temperature/time values in the sample chamber with the temperature sensor and capturing image/time date from the interior of the sample chamber with the image-recording means; e. determining the change of the sample over time as a function of the temperature based on the recorded image/time data and actual temperature/time data, wherein said change of the sample comprises the formation of at least one drop as well as the change in length or breaking-away of the drop due to a softening of the sample as a result of the heat introduced by the heater device; and f. determining the dropping point or the softening point of the sample based on the change over time of the sample as a function of the temperature; and wherein the method further comprises a color-balance adjustment and/or a white-balance adjustment, wherein the color spectrum rendered by the image-recording means is adjusted by means of a color reference area of a defined color which is arranged in the sample chamber. a. providing a sample receptacle with a sample of the substance that is to be analyzed and setting the sample receptacle into the sample chamber; b. setting the sample chamber to a given starting temperature; c. providing temperature/time target values and heating the sample chamber with the heater device in accordance with the given temperature/time target values; d. measuring actual temperature/time values in the sample chamber with the temperature sensor and capturing image/time date from the interior of the sample chamber with the image-recording means; e. determining the change of the sample over time as a function of the temperature based on the recorded image/time data and actual temperature/time data, wherein said change of the sample comprises the formation of at least one drop as well as the change in length or breaking-away of the drop due to a softening of the sample as a result of the heat introduced by the heater device; and f. determining the dropping point or the softening point of the sample based on the change over time of the sample as a function of the temperature;
Vaginal device of an elastic material, said vaginal device comprising a longitudinal portion having a geometrical centre line, an upper end and a lower end and which vaginal device is intended to be inserted securely fixated inside of a vagina, the upper end being the innermost of the vaginal device in the vagina during use, to support against the urethra, through the vaginal wall, to prevent urinary stress incontinence in a woman, wherein the vaginal device comprises at least one supporting portion protruding from the longitudinal portion, said at least one supporting portion being intended to support against the urethra, through the vaginal wall, at a site located between close to the maximal urethral pressure point and the bladder neck, and wherein the vaginal device also comprises a reference member with a right protruding end and a left protruding end protruding from the longitudinal portion at the lower end, the right protruding end is configured to fixate against the perineum and the left protruding end is directed towards clitoris but not reaching the same, which reference member during use is fixated against the vaginal introitus, holding the vaginal device securely fixated inside of the vagina and ensuring said at least one supporting portion to support against the urethra, through the vaginal wall, at the intended site located between close to the maximal urethral pressure point and the bladder neck.
A low-weight infant diaper having a longitudinal direction, a width direction, and a thickness direction that intersect each other, the low-weight infant diaper comprising: an absorbent body including at least an absorbent core; an exterior sheet arranged on a non-skin side with respect to the absorbent body; and a pair of belt members each of which includes a locking member on a one side in a longitudinal direction of the belt members and that includes a locking member on another side in the longitudinal direction of the belt members, in a state where each of the belt members is locked, by the one-side locking member, to a non-skin side of the exterior sheet in the thickness direction at a location inward in the longitudinal direction with respect to a longitudinal outward end of the exterior sheet, an outward end of the absorbent core is located inward in the longitudinal direction with respect to a middle position, the middle position being a position between the longitudinal outward end of the exterior sheet and an outward end (31Aleo) of the one-side locking member. an absorbent body including at least an absorbent core; an exterior sheet arranged on a non-skin side with respect to the absorbent body; and a pair of belt members each of which includes a locking member on a one side in a longitudinal direction of the belt members and that includes a locking member on another side in the longitudinal direction of the belt members, in a state where each of the belt members is locked, by the one-side locking member, to a non-skin side of the exterior sheet in the thickness direction at a location inward in the longitudinal direction with respect to a longitudinal outward end of the exterior sheet, an outward end of the absorbent core is located inward in the longitudinal direction with respect to a middle position, the middle position being a position between the longitudinal outward end of the exterior sheet and an outward end (31Aleo) of the one-side locking member.
A method of manufacturing a glass pane comprising the steps of: providing a glass sheet with a thickness of less than about 1.6 mm between a first major surface and a second major surface of the glass sheet; scoring the first major surface of the glass sheet to provide a boundary score line with a boundary score depth ranging from 10 % to 20 % of the thickness of the glass sheet, wherein the boundary score line circumscribes a central target area of the glass sheet to define a separation line between the central target area and an outer peripheral area of the glass sheet, and wherein the outer peripheral area at least partially circumscribes the central target area of the glass sheet; scoring the first major surface of the glass sheet to provide at least one relief score line with a relief score depth ranging from about 20% to about 50% of the thickness of the glass sheet, wherein the relief score line is defined in the outer peripheral area and extends toward boundary score line, and wherein the relief score depth is greater than the boundary score depth; and breaking away the outer peripheral area of the glass sheet from the central target area of the glass sheet along the separation line. providing a glass sheet with a thickness of less than about 1.6 mm between a first major surface and a second major surface of the glass sheet; scoring the first major surface of the glass sheet to provide a boundary score line with a boundary score depth ranging from 10 % to 20 % of the thickness of the glass sheet, wherein the boundary score line circumscribes a central target area of the glass sheet to define a separation line between the central target area and an outer peripheral area of the glass sheet, and wherein the outer peripheral area at least partially circumscribes the central target area of the glass sheet; scoring the first major surface of the glass sheet to provide at least one relief score line with a relief score depth ranging from about 20% to about 50% of the thickness of the glass sheet, wherein the relief score line is defined in the outer peripheral area and extends toward boundary score line, and wherein the relief score depth is greater than the boundary score depth; and breaking away the outer peripheral area of the glass sheet from the central target area of the glass sheet along the separation line.
A method for producing propylene, the method comprising: a) injecting a stream containing methane and a stream containing an oxidizing agent into an oxidative coupling of methane unit to generate an OCM effluent stream containing ethylene, propylene, and propane; b) fractionating the OCM effluent stream using one or more separation units to generate (i) a first stream comprising ethylene and (ii) a second stream comprising propylene and propane; c) injecting at least a portion of the second stream into an additional separation unit to generate a propylene stream and a propane stream; and d) injecting at least a portion of the propane stream into a propane dehydrogenation unit to generate a PDH effluent containing propylene and hydrogen. a) injecting a stream containing methane and a stream containing an oxidizing agent into an oxidative coupling of methane unit to generate an OCM effluent stream containing ethylene, propylene, and propane; b) fractionating the OCM effluent stream using one or more separation units to generate (i) a first stream comprising ethylene and (ii) a second stream comprising propylene and propane; c) injecting at least a portion of the second stream into an additional separation unit to generate a propylene stream and a propane stream; and d) injecting at least a portion of the propane stream into a propane dehydrogenation unit to generate a PDH effluent containing propylene and hydrogen.
A two-stroke compression ignited crosshead combustion engine cylinder oil system comprising a blender, wherein the blender is for batch blending an oil having a first TBN with a composition having a second TBN that is higher than said first TBN to produce a blended composition with a desired third TBN for use as a cylinder oil in the two-stroke compression ignited crosshead combustion engine, said blender comprising: • a first port for receiving said oil with said first TBN, • a second inlet port for receiving said composition with said second TBN, • a third port for discharging said blended composition, • a tank with a tank inlet and with a tank outlet, • a circulation conduit including a pump, • one end of said circulation conduit being in permanent or selectable fluid connection with said tank outlet and another end of said circulation conduit being in permanent or selectable fluid connection with said tank inlet, • characterized in that said pump has a pump inlet and a pump outlet and in that said pump inlet is: - in selectable fluid communication with said first port, - in selectable fluid communication with said second port, and - in fluid communication with said tank outlet via a restriction, and - in that said pump outlet is: - in selectable fluid communication with said tank inlet, and - in selective fluid communication with said third port. • a first port for receiving said oil with said first TBN, • a second inlet port for receiving said composition with said second TBN, • a third port for discharging said blended composition, • a tank with a tank inlet and with a tank outlet, • a circulation conduit including a pump, • one end of said circulation conduit being in permanent or selectable fluid connection with said tank outlet and another end of said circulation conduit being in permanent or selectable fluid connection with said tank inlet, • characterized in that said pump has a pump inlet and a pump outlet and in that said pump inlet is: - in selectable fluid communication with said first port, - in selectable fluid communication with said second port, and - in fluid communication with said tank outlet via a restriction, and - in that said pump outlet is: - in selectable fluid communication with said tank inlet, and - in selective fluid communication with said third port. - in selectable fluid communication with said first port, - in selectable fluid communication with said second port, and - in fluid communication with said tank outlet via a restriction, and - in that said pump outlet is: - in selectable fluid communication with said tank inlet, and - in selective fluid communication with said third port.
Consumable recognition system for the preparation of a beverage by use of a beverage dispenser and a consumable (4, 40, 50, 60, 70, 80, 90) containing a food substance, the system comprising: - a plurality of magnetic and/or electric field elements (31, 32, 33, 301, 331, 341) for separately sensing a magnetic field and an electric field or for sensing an electric field, wherein said consumable comprises two or more magnetically and/or electrically conductive elements (42, 51, 61, 71, 81, 82, 91, 92) and the sensed magnetic and electric fields or the sensed electric field depend on at least one characteristic of the two or more magnetically and/or electrically conductive elements arranged on or within a top, bottom and/or side wall of the consumable or on or within a cover of the consumable, - a driver for providing drive currents to said magnetic and/or electric field elements, and - a signal processor for recognizing placement and/or type of consumable based on the sensed magnetic and electric fields or based on the sensed electric field, wherein said plurality of magnetic and/or electric field elements comprises two or more conductive pathways, wherein said plurality of magnetic and/or electric field elements is arranged as concentric rings (331, 332) of electrically conductive material for sensing an electrical field between conductive pathways (331, 332). - a plurality of magnetic and/or electric field elements (31, 32, 33, 301, 331, 341) for separately sensing a magnetic field and an electric field or for sensing an electric field, wherein said consumable comprises two or more magnetically and/or electrically conductive elements (42, 51, 61, 71, 81, 82, 91, 92) and the sensed magnetic and electric fields or the sensed electric field depend on at least one characteristic of the two or more magnetically and/or electrically conductive elements arranged on or within a top, bottom and/or side wall of the consumable or on or within a cover of the consumable, - a driver for providing drive currents to said magnetic and/or electric field elements, and - a signal processor for recognizing placement and/or type of consumable based on the sensed magnetic and electric fields or based on the sensed electric field, wherein said plurality of magnetic and/or electric field elements comprises two or more conductive pathways, wherein said plurality of magnetic and/or electric field elements is arranged as concentric rings (331, 332) of electrically conductive material for sensing an electrical field between conductive pathways (331, 332).
A hydraulic system for a hybrid vehicle, the hybrid vehicle including a motor, said hydraulic system comprising: a sump with a supply of hydraulic fluid; a network of valves and conduits; pump means (118, 120) for drawing hydraulic fluid from said sump and delivery of said hydraulic fluid to said network; a fluid filter positioned in said network; a control valve positioned in said network downstream from said fluid filter; a primary output conduit connected to said control valve for supplying hydraulic fluid to a primary demand; a secondary output conduit connected to said control valve for supplying hydraulic fluid to a secondary demand, wherein said secondary demand includes said motor, and wherein said control valve is constructed and arranged to supply hydraulic fluid to said secondary demand only after said primary demand is satisfied; characterized by the hydraulic system further comprising: temperature monitoring means constructed and arranged to monitor an internal temperature of said motor for determining if the fluid flow out of said fluid filter satisfies said primary demand. a sump with a supply of hydraulic fluid; a network of valves and conduits; pump means (118, 120) for drawing hydraulic fluid from said sump and delivery of said hydraulic fluid to said network; a fluid filter positioned in said network; a control valve positioned in said network downstream from said fluid filter; a primary output conduit connected to said control valve for supplying hydraulic fluid to a primary demand; a secondary output conduit connected to said control valve for supplying hydraulic fluid to a secondary demand, wherein said secondary demand includes said motor, and wherein said control valve is constructed and arranged to supply hydraulic fluid to said secondary demand only after said primary demand is satisfied; characterized by the hydraulic system further comprising: temperature monitoring means constructed and arranged to monitor an internal temperature of said motor for determining if the fluid flow out of said fluid filter satisfies said primary demand.