mhurhangee/ep-ind-claims huggingface dataset:
A method for handling blackwater containing medical substances, such as antibiotics, said method comprising, in a vacuum toilet system in which blackwater ejected by vacuum from a plurality of vacuum toilets contains medical substances present in dissolved state in bodily waste: subjecting the ejected blackwater to an initial treatment including a bacteria reduction and a fragmentation, for producing an initially treated blackwater slurry; transferring the blackwater slurry to at least one central buffer tank and temporarily storing the blackwater slurry in said at least one central buffer tank; transferring the blackwater slurry from said at least one buffer tank to a central vaporization unit comprising one or more vaporization chambers (26, 28); in said one or more vaporization chambers (26, 28), vaporizing water from the blackwater slurry for producing a water-reduced waste material containing said medical substances; transferring the water-reduced waste material into one or more replaceable waste containers; in said one or more replaceable waste containers, vaporizing additional water from the water-reduced waste material for producing a further water-reduced waste material in the waste containers; and removing and replacing said waste containers containing said further water-reduced waste material. subjecting the ejected blackwater to an initial treatment including a bacteria reduction and a fragmentation, for producing an initially treated blackwater slurry; transferring the blackwater slurry to at least one central buffer tank and temporarily storing the blackwater slurry in said at least one central buffer tank; transferring the blackwater slurry from said at least one buffer tank to a central vaporization unit comprising one or more vaporization chambers (26, 28); in said one or more vaporization chambers (26, 28), vaporizing water from the blackwater slurry for producing a water-reduced waste material containing said medical substances; transferring the water-reduced waste material into one or more replaceable waste containers; in said one or more replaceable waste containers, vaporizing additional water from the water-reduced waste material for producing a further water-reduced waste material in the waste containers; and removing and replacing said waste containers containing said further water-reduced waste material.
A process for operating a reactor, termed first reactor, comprising a stack of elemental electrolysis cells (C1, C2, C3) of SOEC type, each formed from a cathode (2.1, 2.2, etc.), an anode (4.1, 4.2, etc.) and an electrolyte (3.1, 3.2, etc.) inserted between the cathode and the anode, and a plurality of electrical and fluid interconnectors, each arranged between two adjacent elemental cells (C1, C2) with one of its faces in electrical contact with the anode (4.1) of one of the two elemental cells and the other of its faces in electrical contact with the cathode (2.2) of the other of the two elemental cells, the cathodes being made of methanation reaction catalyst material(s), according to which process the following steps are carried out: a/ the first reactor is supplied with electricity, and either steam H 2 O or a mixture of steam and carbon dioxide CO 2 is supplied and distributed to each cathode, or steam is supplied and distributed to the cathode of one of the two adjacent elemental cells and carbon dioxide is supplied and distributed to the cathode of the other of the two elemental cells, so as to carry out, at each cathode, either a high-temperature electrolysis of the steam H 2 O, or a high-temperature co-electrolysis of steam and carbon dioxide, b/ after step a/ and when the first reactor is supplied with a level of electric current that is insufficient to carry out an HTE electrolysis or a co-electrolysis of H 2 O and CO 2 within the first reactor, either a mixture of hydrogen H 2 and carbon monoxide CO, or a mixture of hydrogen H 2 and carbon dioxide CO 2, is supplied and distributed to each cathode, so as to carry out, at each cathode, a methanation by heterogeneous catalysis. a/ the first reactor is supplied with electricity, and either steam H 2 O or a mixture of steam and carbon dioxide CO 2 is supplied and distributed to each cathode, or steam is supplied and distributed to the cathode of one of the two adjacent elemental cells and carbon dioxide is supplied and distributed to the cathode of the other of the two elemental cells, so as to carry out, at each cathode, either a high-temperature electrolysis of the steam H 2 O, or a high-temperature co-electrolysis of steam and carbon dioxide, b/ after step a/ and when the first reactor is supplied with a level of electric current that is insufficient to carry out an HTE electrolysis or a co-electrolysis of H 2 O and CO 2 within the first reactor, either a mixture of hydrogen H 2 and carbon monoxide CO, or a mixture of hydrogen H 2 and carbon dioxide CO 2, is supplied and distributed to each cathode, so as to carry out, at each cathode, a methanation by heterogeneous catalysis.
An appliance having an illuminated trim assembly, comprising: an appliance cabinet having first and second sidewalls (16, 18) and a top wall, the appliance cabinet defining a compartment; a trim breaker member extending along a forward edge (26, 28, 30) of the first and second sidewalls (16, 18) and the top wall; a light housing positioned rearward of the trim breaker member and defining a light source channel, the light source channel having an open end proximate the compartment; a lens extending between the trim breaker member and the light housing, wherein the lens is positioned to separate the light source channel from the compartment; and a light source positioned within the light source channel and configured to direct light through the lens into the compartment, characterised in that: - the trim breaker member defines a heat loop receiving channel, - the appliance further comprises a heat loop assembly operably coupled with the trim breaker member, - the heat loop assembly includes a cover operably coupled with the trim breaker member, - the heat loop assembly includes a heat loop supported by the cover and at least partially received by the heat loop receiving channel, - the cover includes a forward portion and a side portion, and - the side portion is positioned substantially aligned with a surface of the light housing. an appliance cabinet having first and second sidewalls (16, 18) and a top wall, the appliance cabinet defining a compartment; a trim breaker member extending along a forward edge (26, 28, 30) of the first and second sidewalls (16, 18) and the top wall; a light housing positioned rearward of the trim breaker member and defining a light source channel, the light source channel having an open end proximate the compartment; a lens extending between the trim breaker member and the light housing, wherein the lens is positioned to separate the light source channel from the compartment; and a light source positioned within the light source channel and configured to direct light through the lens into the compartment, - the trim breaker member defines a heat loop receiving channel, - the appliance further comprises a heat loop assembly operably coupled with the trim breaker member, - the heat loop assembly includes a cover operably coupled with the trim breaker member, - the heat loop assembly includes a heat loop supported by the cover and at least partially received by the heat loop receiving channel, - the cover includes a forward portion and a side portion, and - the side portion is positioned substantially aligned with a surface of the light housing.
A method for providing resilient load balancing in a system comprising a first processing unit, a second processing unit, a first active load balancer and a second active load balancer, wherein a first set of packet flows is mapped to the first active load balancer, and a second set of packet flows is mapped to the second active load balancer, the first set of packet flows comprising a first packet flow, the method comprising the steps of: (a) storing, by the first processing unit, a set of state information associated with the first active load balancer, the set of state information comprising state information associated with a first session associated with the first packet flow; (b) receiving, by the first processing unit, information indicating that the first active load balancer is inoperable; and (c) in response to receiving the information indicating that the first active load balancer is inoperable, transmitting, from the first processing unit to the second active load balancer, the state information associated with the first session. (a) storing, by the first processing unit, a set of state information associated with the first active load balancer, the set of state information comprising state information associated with a first session associated with the first packet flow; (b) receiving, by the first processing unit, information indicating that the first active load balancer is inoperable; and (c) in response to receiving the information indicating that the first active load balancer is inoperable, transmitting, from the first processing unit to the second active load balancer, the state information associated with the first session.
Device for irradiating green tyres with electron beams, comprising - a radiation protection housing, - an electron beam source with an irradiating window located in the radiation protection housing, - an input lock and an output lock, which locks respectively adjoin the radiation protection housing, - a feeder for transporting the green tyres through the input lock into the radiation protection housing, - a transporting-away device for transporting away irradiated green tyres out of the radiation protection housing through the output lock, - a rotatable gripping device, which is positioned in the radiation protection housing and is intended for transporting the green tyres step by step within the radiation protection housing on gripping arms each with a rotatable handling unit for receiving a green tyre, characterized in that the gripping device has at least four gripping arms arranged uniformly in a star-shaped manner and in that each handling unit is arranged on a slide that can be displaced and fixed on the gripping arm, wherein an adjustable fixed stop is provided in the radiation protection housing and wherein, by turning the gripping device, each gripping arm can be brought into a setting position (P 2), in which the slide of each gripping arm can be moved up to the fixed stop, the position of which is adapted relative to the gripping arm located in the setting position (P 2) to the dimension of the green tyre to be irradiated. - a radiation protection housing, - an electron beam source with an irradiating window located in the radiation protection housing, - an input lock and an output lock, which locks respectively adjoin the radiation protection housing, - a feeder for transporting the green tyres through the input lock into the radiation protection housing, - a transporting-away device for transporting away irradiated green tyres out of the radiation protection housing through the output lock, - a rotatable gripping device, which is positioned in the radiation protection housing and is intended for transporting the green tyres step by step within the radiation protection housing on gripping arms each with a rotatable handling unit for receiving a green tyre,
Composition or plant extract comprising - 1 to 50 wt.% of euscaphic acid, - 0.5 to 15 wt.% of tormentic acid, - 0.5 to 10 wt.% of myrianthic acid, and - a total amount of 0 to 10 wt.% of organic solvents having a molecular weight of 110 g/mol or lower, in each case based on the total weight of the composition or plant extract, wherein the ratio by weight of euscaphic acid to tormentic acid is greater than 1: 1. - 1 to 50 wt.% of euscaphic acid, - 0.5 to 15 wt.% of tormentic acid, - 0.5 to 10 wt.% of myrianthic acid, and - a total amount of 0 to 10 wt.% of organic solvents having a molecular weight of 110 g/mol or lower,
A machine tool comprising a machine controller, a machine frame, a workpiece table, a tool holder designed according to a standard as the output-side end of a spindle, a plurality of translatory and/or rotatory axes (12a, 12b) for adjusting a relative position between the workpiece table and the tool holder; a tool magazine for one or more cutting tools, a tool changing mechanism for automatically moving one of the cutting tools between the tool holder and the tool magazine, comprising an automatically operating arm for moving the tool between the tool holder and the tool magazine, characterised by a build-up welding head insertable into the standardised tool holder, the build-up welding head having a flexible conduit tow for feeding welding material, and a storage device for storing the build-up welding head beyond the tool holder, wherein the storage device is provided beyond the tool magazine. a machine controller, a machine frame, a workpiece table, a tool holder designed according to a standard as the output-side end of a spindle, a plurality of translatory and/or rotatory axes (12a, 12b) for adjusting a relative position between the workpiece table and the tool holder; a tool magazine for one or more cutting tools, a tool changing mechanism for automatically moving one of the cutting tools between the tool holder and the tool magazine, comprising an automatically operating arm for moving the tool between the tool holder and the tool magazine, characterised by a build-up welding head insertable into the standardised tool holder, the build-up welding head having a flexible conduit tow for feeding welding material, and a storage device for storing the build-up welding head beyond the tool holder, wherein the storage device is provided beyond the tool magazine.
A functional water concentration sensor (2b,2c,2d,2e), the functional water having a sterilization or deodorization function, the concentration sensor (2b,2c,2d,2e) comprising: a container used to contain functional water; a light source (10,10e1,10e2) that emits ultraviolet light; a phosphor that emits fluorescence when excited by the ultraviolet light emitted from the light source (10,10e1,10e2) and transmitted through the container; and a light-receiving element (30,30e1,30e2) that receives the fluorescence, a first reflector (70, 71, 72, 73) that is located inside the container and reflects the ultraviolet light of the light source (10,10e1,10e2), a control circuit (50,50b,50e) configured to change a position or an orientation of at least one of the light source (10,10e1,10e2) and the light-receiving element (30,30c1,30c2) depending on a concentration of the functional water, so as to change an optical path length from the light source via the first reflector (70, 71, 72, 73) to the light-receiving element (30,30e1,30e2), wherein a peak wavelength of the ultraviolet light emitted from the light source (10,10e1,10e2) is in a predetermined range that includes an absorption peak specific to the functional water. a container used to contain functional water; a light source (10,10e1,10e2) that emits ultraviolet light; a phosphor that emits fluorescence when excited by the ultraviolet light emitted from the light source (10,10e1,10e2) and transmitted through the container; and a light-receiving element (30,30e1,30e2) that receives the fluorescence, a first reflector (70, 71, 72, 73) that is located inside the container and reflects the ultraviolet light of the light source (10,10e1,10e2), a control circuit (50,50b,50e) configured to change a position or an orientation of at least one of the light source (10,10e1,10e2) and the light-receiving element (30,30c1,30c2) depending on a concentration of the functional water, so as to change an optical path length from the light source via the first reflector (70, 71, 72, 73) to the light-receiving element (30,30e1,30e2), wherein a peak wavelength of the ultraviolet light emitted from the light source (10,10e1,10e2) is in a predetermined range that includes an absorption peak specific to the functional water.
Interior permanent magnet rotor, for a drive unit disposed in the interior of a hermetically sealed housing of a refrigerant compressor, - the rotor comprises a first axial section with permanent magnets, followed by a second axial section without permanent magnets, characterized in that - the second axial section comprises, adjacent to the first axial section, a first axial subsection with a reduced radial dimension not going beyond the permanent magnets in the first axial section, whereas the axial length of the first axial subsection is smaller than the axial length of the first axial section, - the second axial section comprises, adjacent to its first axial subsection, a second axial subsection with a radial dimension larger than the reduced radial dimension of the first axial subsection. - the rotor comprises a first axial section with permanent magnets, followed by a second axial section without permanent magnets, characterized in that - the second axial section comprises, adjacent to the first axial section, a first axial subsection with a reduced radial dimension not going beyond the permanent magnets in the first axial section, whereas the axial length of the first axial subsection is smaller than the axial length of the first axial section, - the second axial section comprises, adjacent to its first axial subsection, a second axial subsection with a radial dimension larger than the reduced radial dimension of the first axial subsection.
A power machine (100, 200) having a frame (110, 210), a lift arm coupled to the frame, an engine, and a drive system powered by the engine and coupled to a track assembly for driving the power machine across a support surface, the track assembly comprising: a track frame; a track carried by the track frame and driven under power about the track frame, the track having a plurality of reinforcement members extending transversely to a direction of travel of the power machine (100, 200), the reinforcement members being evenly spaced from each other so that the track has an alternating pattern of reinforced sections separated by unreinforced sections; first, second, third and fourth rollers rotatably mounted to the track frame and positioned to engage the track along a bottom side of the track frame; and wherein when the second roller is positioned above a first reinforced section of the track, the third roller is positioned above a second reinforced section of the track. a track frame; a track carried by the track frame and driven under power about the track frame, the track having a plurality of reinforcement members extending transversely to a direction of travel of the power machine (100, 200), the reinforcement members being evenly spaced from each other so that the track has an alternating pattern of reinforced sections separated by unreinforced sections; first, second, third and fourth rollers rotatably mounted to the track frame and positioned to engage the track along a bottom side of the track frame; and wherein when the second roller is positioned above a first reinforced section of the track, the third roller is positioned above a second reinforced section of the track.
A bispecific, tetravalent tandem diabody comprising at least one antigen binding site for CD16A and at least one antigen binding site for CD30, EGFR, EGFRvIII or BCMA; and either interleukin 2 (IL-2) or interleukin 15 (IL-15) for use in a method of treatment of cancer, wherein the diabody is administered intermittently in a dosage cycle comprising the steps of: (a) administering a first dose of the diabody; and (b) administering a second dose of the diabody after at least 3 times the elimination half-life of the diabody in peripheral blood subsequent to step (a), and(c) administering a dose of the IL-2 or IL-15 during the interval from step (a) to step (b), wherein the IL-2 or IL-15 is administered after at least 1 time the half-life of the diabody subsequent to step (a). either interleukin 2 (IL-2) or interleukin 15 (IL-15) for use in a method of treatment of cancer, wherein the diabody is administered intermittently in a dosage cycle comprising the steps of: (a) administering a first dose of the diabody; and (b) administering a second dose of the diabody after at least 3 times the elimination half-life of the diabody in peripheral blood subsequent to step (a), and(c) administering a dose of the IL-2 or IL-15 during the interval from step (a) to step (b), (a) administering a first dose of the diabody; and (b) administering a second dose of the diabody after at least 3 times the elimination half-life of the diabody in peripheral blood subsequent to step (a), and(c) administering a dose of the IL-2 or IL-15 during the interval from step (a) to step (b), wherein the IL-2 or IL-15 is administered after at least 1 time the half-life of the diabody subsequent to step (a).
An electronic device comprising: a display; an enclosure at least partially surrounding the display and comprising: a front cover assembly including a front glass member positioned over the display; and a rear cover assembly including a rear glass member defining a protruding portion defining an opening; and a camera assembly coupled to an interior surface of the rear cover assembly and including a camera module (277, 278) positioned at least partially within the opening; characterized by: the protruding portion defining a textured region having a gloss value less than 50 gloss units as measured at 60 degrees, the textured region comprising surface features having: a root mean square height from 0.2 microns to 2 microns; and a root mean square slope from 0.1 to less than 1.25. a display; an enclosure at least partially surrounding the display and comprising: a front cover assembly including a front glass member positioned over the display; and a rear cover assembly including a rear glass member defining a protruding portion defining an opening; and a front cover assembly including a front glass member positioned over the display; and a rear cover assembly including a rear glass member defining a protruding portion defining an opening; and a camera assembly coupled to an interior surface of the rear cover assembly and including a camera module (277, 278) positioned at least partially within the opening; a root mean square height from 0.2 microns to 2 microns; and a root mean square slope from 0.1 to less than 1.25.