mhurhangee/patent-ind-claim-en huggingface dataset:
Drain valve configured for sanitary elements without overflow, said drain valve comprising a plug , a drain flange , a fastening unit and a drain valve inner surface and a drain valve outer surface , said drain flange is adapted for being arranged through an evacuation hole in a sanitary element , wherein said fastening unit is configured as a disinfection unit , said fastening unit comprises: - a first pipe connection configured with an inlet , and an internal thread ; - a second pipe connection arranged with an outlet ; - a UV-translucent tube arranged in between the first and second pipe connection, so that the pipe connections and the UV-translucent tube are located in extension of each other to form a channel with an inner surface in order for liquid to flow through the fastening unit from inlet to outlet , and - a housing configured with an inner wall , wherein the inner wall comprises the UV-translucent tube , which housing comprises a chamber having a larger extension in radial direction than the pipe connections and an annular area in which annular area a continuous mode UV source is arranged, wherein a central area with an outer periphery defined by the UV-translucent tube is continuously exposed to UV light, and where the first pipe connection is adapted to be screwed onto the drain flange below the sanitary element to fasten the drain flange to the sanitary element and where the drain flange and the plug are adapted to be interconnected in a fixed open position . - a first pipe connection configured with an inlet , and an internal thread ; - a second pipe connection arranged with an outlet ; - a UV-translucent tube arranged in between the first and second pipe connection, so that the pipe connections and the UV-translucent tube are located in extension of each other to form a channel with an inner surface in order for liquid to flow through the fastening unit from inlet to outlet , and - a housing configured with an inner wall , wherein the inner wall comprises the UV-translucent tube , which housing comprises a chamber having a larger extension in radial direction than the pipe connections and an annular area in which annular area a continuous mode UV source is arranged, wherein a central area with an outer periphery defined by the UV-translucent tube is continuously exposed to UV light, and where the first pipe connection is adapted to be screwed onto the drain flange below the sanitary element to fasten the drain flange to the sanitary element and where the drain flange and the plug are adapted to be interconnected in a fixed open position .
A refrigerator comprising: a main body having a storage compartment (20; 90) in which food is stored; a door (330; 350) configured to open or close the storage compartment (20; 90); a storage compartment camera (22; 92) installed in the storage compartment (20; 90); a door camera (340; 360) installed to the door (330; 350); a control unit configured to combine a plurality of pictures taken by the storage compartment camera (22; 92) and the door camera (340; 360) with one another and correct the pictures into an image showing the door (330; 350) and the storage compartment (20; 90); and a door opening/closing sensing unit configured to sense opening or closing of the door (330; 350). a main body having a storage compartment (20; 90) in which food is stored; a door (330; 350) configured to open or close the storage compartment (20; 90); a storage compartment camera (22; 92) installed in the storage compartment (20; 90); a door camera (340; 360) installed to the door (330; 350); a control unit configured to combine a plurality of pictures taken by the storage compartment camera (22; 92) and the door camera (340; 360) with one another and correct the pictures into an image showing the door (330; 350) and the storage compartment (20; 90); and a door opening/closing sensing unit configured to sense opening or closing of the door (330; 350).
A waste crane operating device comprising: a crane that throws waste in a pit into a waste incinerator ; a storage that stores data on a composition percentage of waste types that constitute a block (R) of the waste, for each block (R) at a plurality of positions in the pit ; and a controller that calculates a variation index value as an index of a variation amount of the composition percentage of the waste types with respect to the composition percentage of the waste types of waste (W0) previously thrown into the waste incinerator , for each of a plurality of waste parts (W1-W5) each including one or more of the blocks (R), based on the data on the composition percentage of the waste types stored in the storage , and controls the crane to selectively grasp a first waste part in which the calculated variation index value is equal to or less than an index threshold from the plurality of waste parts in the pit , and to throw, into the waste incinerator , the first waste part as thrown-in waste to be thrown next into the waste incinerator . a crane that throws waste in a pit into a waste incinerator ; a storage that stores data on a composition percentage of waste types that constitute a block (R) of the waste, for each block (R) at a plurality of positions in the pit ; and a controller that calculates a variation index value as an index of a variation amount of the composition percentage of the waste types with respect to the composition percentage of the waste types of waste (W0) previously thrown into the waste incinerator , for each of a plurality of waste parts (W1-W5) each including one or more of the blocks (R), based on the data on the composition percentage of the waste types stored in the storage , and controls the crane to selectively grasp a first waste part in which the calculated variation index value is equal to or less than an index threshold from the plurality of waste parts in the pit , and to throw, into the waste incinerator , the first waste part as thrown-in waste to be thrown next into the waste incinerator .
A microelectromechanical systems (MEMS) structure, comprising: a substrate ; an epitaxial polysilicon cap located above the substrate ; a hermetically sealed first cavity portion defined between the substrate and the epitaxial polysilicon cap ; the microelectromechanical systems structure characterized in further comprising a first graphene component (140; 142; 144; 146) having at least one graphene surface immediately adjacent to the first cavity portion. a substrate ; an epitaxial polysilicon cap located above the substrate ; a hermetically sealed first cavity portion defined between the substrate and the epitaxial polysilicon cap ; the microelectromechanical systems structure characterized in further comprising a first graphene component (140; 142; 144; 146) having at least one graphene surface immediately adjacent to the first cavity portion.
A method of regenerating a desiccant in an off-line treater of a polyolefin production process, the method comprising a heating phase followed by a cooling phase, the heating phase comprising: regenerating at least a portion of the desiccant in the off-line treater using a regenerating medium to yield a regenerating effluent stream comprising the regenerating medium, water, and an impurity; decanting the regenerating effluent stream into a water stream comprising the water and a regenerating stream comprising the regenerating medium and the impurity wherein prior to decanting, the regenerating effluent stream is cooled, wherein the step of cooling comprises cooling the regenerating effluent stream in a cross exchanger wherein the cross exchanger uses a second portion of the regenerating stream to cool the regenerating effluent stream and produce a regenerating effluent stream ; and condensing the regenerating effluent stream in a cooling water condenser from the first temperature of the regenerating effluent stream to a second temperature of the regenerating effluent stream ; separating in a stripper a first portion of the regenerating stream into an impurity stream comprising an impurity and a regenerating recycle stream comprising the regenerating medium and recycling at least a portion of the regenerating recycle stream for use in a treater ; heating the second portion of the regenerating stream comprising the regenerating medium to yield a heated regenerating stream and recycling at least a portion of the heated regenerating stream for use in the regenerating at least a portion of the desiccant in the off-line treater. regenerating at least a portion of the desiccant in the off-line treater using a regenerating medium to yield a regenerating effluent stream comprising the regenerating medium, water, and an impurity; decanting the regenerating effluent stream into a water stream comprising the water and a regenerating stream comprising the regenerating medium and the impurity wherein prior to decanting, the regenerating effluent stream is cooled, wherein the step of cooling comprises cooling the regenerating effluent stream in a cross exchanger wherein the cross exchanger uses a second portion of the regenerating stream to cool the regenerating effluent stream and produce a regenerating effluent stream ; and condensing the regenerating effluent stream in a cooling water condenser from the first temperature of the regenerating effluent stream to a second temperature of the regenerating effluent stream ; separating in a stripper a first portion of the regenerating stream into an impurity stream comprising an impurity and a regenerating recycle stream comprising the regenerating medium and recycling at least a portion of the regenerating recycle stream for use in a treater ; heating the second portion of the regenerating stream comprising the regenerating medium to yield a heated regenerating stream and recycling at least a portion of the heated regenerating stream for use in the regenerating at least a portion of the desiccant in the off-line treater.
Feed trough for a feeding device for feeding flock fibers into a spinning preparation machine having a feed roller , the feed trough having a main body and at least one elastic lip which extends along a working width of the feed trough , characterized in that a support strip which extends along the working width is arranged on the main body , the support strip being arranged at a distance from the elastic lip and on the side of the elastic lip facing away from the feed roller , and the distance being such that it can be closed by an elastic deformation of the elastic lip .
Heart valve prosthesis, comprising a stent component, a valve component, a sealing means, and at least one locator means for a defined positioning of the prosthesis at the target site of an endogenous heart valve, wherein the prosthesis is expandable from a non-expanded to an expanded state, wherein the stent component comprises a first section , a second section , and a third section comprising a higher proximal edge than the first and second sections and positioned between the first and second sections, the defined positioning of the prosthesis aligning the first section with a left coronary sinus (LCS) and the second section with a right coronary sinus (RCS) such that the right coronary sinus and left coronary sinus are unobstructed by the heart valve prosthesis, and wherein in the expanded state a shortest distance between a proximal end of the locator means and a proximal end of the prosthesis is less than 10 mm thereby assuring infra-annular placement of the prosthesis in the aortic annulus of a native heart.
A filter circuit with harmonic compensation, configured to be coupled to a bridge rectifying circuit receiving an AC voltage (Vac) and an input capacitor (Cin), the bridge rectifying circuit comprising a live wire end (L), a neutral wire end (N), a positive end (A), and a negative end (B), the filter circuit comprising a freewheeling capacitor (Cf), a first end of the freewheeling capacitor (Cf) coupled to the live wire end (L), a freewheeling switch , a first end of the freewheeling switch coupled to a second end of the freewheeling capacitor (Cf), and a second end of the freewheeling switch coupled to the positive end (A) and the input capacitor (Cin), and a unidirectional switch (D), characterized in that a first end of the unidirectional switch (D) is coupled to the second end of the freewheeling capacitor (Cf) and the first end of the freewheeling switch , and a second end of the unidirectional switch (D) is configured to receive a voltage source (Vs), wherein a power generation circuit is configured to supply the voltage source (Vs) to a node between the freewheeling capacitor (Cf) and the freewheeling switch through the unidirectional switch (D), and to charge the freewheeling capacitor (Cf), and the freewheeling switch is configured to provide a discharge path from the freewheeling capacitor (Cf) to the input capacitor (Cin), wherein a first conduction voltage of the freewheeling switch is greater than a second conduction voltage between the live wire end (L) and the positive end (A) of the bridge rectifying circuit . a freewheeling capacitor (Cf), a first end of the freewheeling capacitor (Cf) coupled to the live wire end (L), a freewheeling switch , a first end of the freewheeling switch coupled to a second end of the freewheeling capacitor (Cf), and a second end of the freewheeling switch coupled to the positive end (A) and the input capacitor (Cin), and a unidirectional switch (D), characterized in that a first end of the unidirectional switch (D) is coupled to the second end of the freewheeling capacitor (Cf) and the first end of the freewheeling switch , and a second end of the unidirectional switch (D) is configured to receive a voltage source (Vs), wherein a power generation circuit is configured to supply the voltage source (Vs) to a node between the freewheeling capacitor (Cf) and the freewheeling switch through the unidirectional switch (D), and to charge the freewheeling capacitor (Cf), and the freewheeling switch is configured to provide a discharge path from the freewheeling capacitor (Cf) to the input capacitor (Cin), wherein a first conduction voltage of the freewheeling switch is greater than a second conduction voltage between the live wire end (L) and the positive end (A) of the bridge rectifying circuit .
Neuregulin 1 for use in a method for preventing, treating or delaying heart failure in a mammal in need thereof, wherein said method comprises administering said neuregulin 1 to the mammal in an amount of: a) about 0.3 μg/kg/day, 0.4 μg/kg/day, 0.6 μg/kg/day, 0.8 μg/kg/day, 1.2 μg/kg/day, 1.6 μg/kg/day, or 2.4 μg/kg/day; b) about 6 EU/kg/day, 8 EU/kg/day, 12 EU/kg/day, 16 EU/kg/day, 24 EU/kg/day, 32 EU/kg/day, or 48 EU/kg/day; or c) about 0.04 nmol/kg/day, 0.05 nmol/kg/day, 0.08 nmol/kg/day, 0.11 nmol/kg/day, 0.17 nmol/kg/day, 0.23 nmol/kg/day, or 0.34 nmol/kg/day. a) about 0.3 μg/kg/day, 0.4 μg/kg/day, 0.6 μg/kg/day, 0.8 μg/kg/day, 1.2 μg/kg/day, 1.6 μg/kg/day, or 2.4 μg/kg/day; b) about 6 EU/kg/day, 8 EU/kg/day, 12 EU/kg/day, 16 EU/kg/day, 24 EU/kg/day, 32 EU/kg/day, or 48 EU/kg/day; or c) about 0.04 nmol/kg/day, 0.05 nmol/kg/day, 0.08 nmol/kg/day, 0.11 nmol/kg/day, 0.17 nmol/kg/day, 0.23 nmol/kg/day, or 0.34 nmol/kg/day.
Computer implemented method for processing a seismic image comprising seismic values obtained from seismic measurements performed on a geological formation, comprising: - (S30) determining a seismic dip image based on the seismic image, said seismic dip image comprising local seismic dips representative of the local gradient of the seismic values of the seismic image; the method being characterized in comprising: - (S31) initializing a seismic horizon surface modeled using a combination of spline functions, wherein the spline functions are basis-splines, B-splines; - (S32) iteratively modifying coefficients used for combining the spline functions, thereby iteratively modifying the seismic horizon surface, to progressively increase alignment between local orientations of the seismic horizon surface and the corresponding local seismic dips, until a predetermined stop criterion is satisfied. - (S30) determining a seismic dip image based on the seismic image, said seismic dip image comprising local seismic dips representative of the local gradient of the seismic values of the seismic image; - (S31) initializing a seismic horizon surface modeled using a combination of spline functions, wherein the spline functions are basis-splines, B-splines; - (S32) iteratively modifying coefficients used for combining the spline functions, thereby iteratively modifying the seismic horizon surface, to progressively increase alignment between local orientations of the seismic horizon surface and the corresponding local seismic dips, until a predetermined stop criterion is satisfied.
Process for mixing borneol with plant proteins in the presence of solvents to produce dietary or food supplements, wherein the plant protein is a cereal protein which originates from at least one of the substances selected from the group consisting of rice, wheat, corn, oats, barley, millet, teff, the process comprising the steps of: - providing a borneol solution in either acetone or ethyl alcohol; - mixing the borneol solution with at least one plant protein, said mixing step being conducted by kneading; - drying the mixture; and - milling the mixture in order to obtain a powder; wherein said at least one plant protein comprises at least one of the substances of the group consisting of cereal proteins, and said solvents comprise at least one of the substances selected from either acetone or ethyl alcohol; and wherein said borneol is added to the plant protein as an ethanolic or acetone solution in a variable ratio between 1:1 and 1:2 [ethanolic or acetone solution : plant protein], a concentration of borneol in the ethanolic or acetone solution ranging between 100 and 150 grams per litre of solution. - providing a borneol solution in either acetone or ethyl alcohol; - mixing the borneol solution with at least one plant protein, said mixing step being conducted by kneading; - drying the mixture; and - milling the mixture in order to obtain a powder; wherein said at least one plant protein comprises at least one of the substances of the group consisting of cereal proteins, and said solvents comprise at least one of the substances selected from either acetone or ethyl alcohol; and wherein said borneol is added to the plant protein as an ethanolic or acetone solution in a variable ratio between 1:1 and 1:2 [ethanolic or acetone solution : plant protein], a concentration of borneol in the ethanolic or acetone solution ranging between 100 and 150 grams per litre of solution. wherein said at least one plant protein comprises at least one of the substances of the group consisting of cereal proteins, and said solvents comprise at least one of the substances selected from either acetone or ethyl alcohol; and wherein said borneol is added to the plant protein as an ethanolic or acetone solution in a variable ratio between 1:1 and 1:2 [ethanolic or acetone solution : plant protein], a concentration of borneol in the ethanolic or acetone solution ranging between 100 and 150 grams per litre of solution.
A railway vehicle engine comprising a drive shaft and a casing of the drive shaft , the drive shaft extending along a longitudinal direction (L) between two ends and being rotatable about a longitudinal axis (X) relative to the casing , the casing comprising two sides that are perpendicular to the longitudinal axis (X), the engine comprises at least one blocking device for blocking the axial movements of the drive shaft relative to the casing , said blocking device comprising a locking rod of the drive shaft , the locking rod extending in the longitudinal direction (L) and being mounted along the longitudinal direction (L) in a blocking position, preferably reversible, in which the locking rod (L) is in direct contact with the drive shaft and prevents the axial movements of the drive shaft relative to the casing , characterized in that the blocking device also comprises a stress element that stresses the locking rod toward its blocking position, and in that the blocking device comprises a beam removably attached to one side of the casing, said beam being substantially parallel to said side , the beam being provided with a passage opening for the locking rod , and wherein the blocking device in the blocking position applies, on the drive shaft , a compression force or a traction force along the longitudinal direction (L), the stress element being a spring extending between the beam and a clamping element of the stress element . the engine comprises at least one blocking device for blocking the axial movements of the drive shaft relative to the casing , said blocking device comprising a locking rod of the drive shaft , the locking rod extending in the longitudinal direction (L) and being mounted along the longitudinal direction (L) in a blocking position, preferably reversible, in which the locking rod (L) is in direct contact with the drive shaft and prevents the axial movements of the drive shaft relative to the casing , characterized in that the blocking device also comprises a stress element that stresses the locking rod toward its blocking position, and in that the blocking device comprises a beam removably attached to one side of the casing, said beam being substantially parallel to said side , the beam being provided with a passage opening for the locking rod , and wherein the blocking device in the blocking position applies, on the drive shaft , a compression force or a traction force along the longitudinal direction (L), the stress element being a spring extending between the beam and a clamping element of the stress element .
A surface modifier of formula (I): wherein (i) A is formed from a soft segment diol comprising hydrogenated polybutadiene (HLBH), poly(2,2 dimethyl-1,3-propylcarbonate) (PCN), polybutadiene (LBHP), diethyleneglycol-orthophthalicanhydride polyester (PDP), poly (hexamethyhlenecarbonate), polytetramethylene oxide (PTMO), hydrogenated polyisoprene (HHTPI), poly(ethyleneglycol)-block-poly(propyleneglycol)-block-poly(ethylene glycol), 1,12-dodecanediol, poly(2-butyl-2-ethyl-1,3-propyl carbonate), poly(diethylene glycol)adipate (PEGA); or hydroxylterminated polydimethylsiloxanes block copolymer (C22); (ii) B is a hard segment formed by reacting a triisocyanate with a diol comprising said soft segment, wherein said triisocyanate is selected from isocyanurate of hexamethylene diisocyanate (HDI) and isophorone diisocyanate (IPDI); and (iii) each G is a surface active group; wherein n is an integer from 0 to 10. (i) A is formed from a soft segment diol comprising hydrogenated polybutadiene (HLBH), poly(2,2 dimethyl-1,3-propylcarbonate) (PCN), polybutadiene (LBHP), diethyleneglycol-orthophthalicanhydride polyester (PDP), poly (hexamethyhlenecarbonate), polytetramethylene oxide (PTMO), hydrogenated polyisoprene (HHTPI), poly(ethyleneglycol)-block-poly(propyleneglycol)-block-poly(ethylene glycol), 1,12-dodecanediol, poly(2-butyl-2-ethyl-1,3-propyl carbonate), poly(diethylene glycol)adipate (PEGA); or hydroxylterminated polydimethylsiloxanes block copolymer (C22); (ii) B is a hard segment formed by reacting a triisocyanate with a diol comprising said soft segment, wherein said triisocyanate is selected from isocyanurate of hexamethylene diisocyanate (HDI) and isophorone diisocyanate (IPDI); and (iii) each G is a surface active group;