mhurhangee/ep-ind-claims huggingface dataset:
Pearl sugar, having a dissolution time at 20°C according to Test A lying between 3 minutes and 8 minutes, Test A being as follows: i. a weighing balance is placed on a standard, such that an item such as a beaker can be placed below it; a ballast weight of about 10 grams is placed onto the balance; the balance must be equipped such that a sample to be weighed can be attached to the balance from below as well; ii. a small sieve of about 50 x 50 mm in size with mesh size of about 1 mm is equipped with threads which are attached to the corners of the sieve and come together above the sieve where they connected to the balance from below, for example by means of a hook; iii. a standard laboratory 1000 ml glass beaker having an internal diameter of about 100 mm is filled with 600 ml of demineralised water at 20°C and placed below the balance, such that the sieve is in the water and about 4 cm below the water surface; the sieve must not touch the glass of the beaker itself; iv. the balance is set to 0.00 grams; 20 Pearl sugars, having a biggest dimension lying between 5.6 and 8.0 mm and together weighing between 4.9 and 5.1 grams, are placed onto the sieve; this marks the beginning of the determination of the dissolution time; v. the beaker is left undisturbed, the water is not stirred in any way; vi. the dissolution time is the time at which the weight indication on the balance has returned to 0.0 grams. i. a weighing balance is placed on a standard, such that an item such as a beaker can be placed below it; a ballast weight of about 10 grams is placed onto the balance; the balance must be equipped such that a sample to be weighed can be attached to the balance from below as well; ii. a small sieve of about 50 x 50 mm in size with mesh size of about 1 mm is equipped with threads which are attached to the corners of the sieve and come together above the sieve where they connected to the balance from below, for example by means of a hook; iii. a standard laboratory 1000 ml glass beaker having an internal diameter of about 100 mm is filled with 600 ml of demineralised water at 20°C and placed below the balance, such that the sieve is in the water and about 4 cm below the water surface; the sieve must not touch the glass of the beaker itself; iv. the balance is set to 0.00 grams; 20 Pearl sugars, having a biggest dimension lying between 5.6 and 8.0 mm and together weighing between 4.9 and 5.1 grams, are placed onto the sieve; this marks the beginning of the determination of the dissolution time; v. the beaker is left undisturbed, the water is not stirred in any way; vi. the dissolution time is the time at which the weight indication on the balance has returned to 0.0 grams.
A self-dispersed black pigment ink formulation for use in an ink jet set, said formulation comprising: a self-dispersed black pigment; a surface-active compound having hydrophobic moieties and hydrophilic moieties, wherein the hydrophobic moieties are from about 25 to 75% and the hydrophilic moieties are from about 25 to 75%; a solvent; and an aqueous solution, wherein the surface-active compound is a propoxylated glycerol of the formula; said propoxylated glycerol being selected from glycerol propoxylate (Molecular Weight 1500), glycerol propoxylate (MW 1000), glycerol propoxylate (MW 750), glycerol propoxylate (MW 4100) and combinations thereof;and wherein the self-dispersed pigment is in an amount from 0.5 to 6 weight percent of the self-dispersed pigment ink formulation; the solvent is in an amount from 10 to 35 weight percent of the self-dispersed pigment ink formulation; the surface-active compound is in an amount of from 0.01 to 3 weight percent and the aqueous solution is in an amount of from 45 to 90 weight percent of the self-dispersed pigment ink formulation. a self-dispersed black pigment; a surface-active compound having hydrophobic moieties and hydrophilic moieties, wherein the hydrophobic moieties are from about 25 to 75% and the hydrophilic moieties are from about 25 to 75%; a solvent; and an aqueous solution, wherein the surface-active compound is a propoxylated glycerol of the formula; said propoxylated glycerol being selected from glycerol propoxylate (Molecular Weight 1500), glycerol propoxylate (MW 1000), glycerol propoxylate (MW 750), glycerol propoxylate (MW 4100) and combinations thereof;and wherein the self-dispersed pigment is in an amount from 0.5 to 6 weight percent of the self-dispersed pigment ink formulation; the solvent is in an amount from 10 to 35 weight percent of the self-dispersed pigment ink formulation; the surface-active compound is in an amount of from 0.01 to 3 weight percent and the aqueous solution is in an amount of from 45 to 90 weight percent of the self-dispersed pigment ink formulation.
Penetrator, comprising: a penetrator tip; and a chisel wreath which has a plurality of chisel elements which are arranged radially offset about the penetrator tip; wherein the chisel elements are positioned axially set back with respect to the penetrator tip, and wherein the chisel elements each have a radially orientated radial blade and an azimuthally orientated azimuthal blade. a penetrator tip; and a chisel wreath which has a plurality of chisel elements which are arranged radially offset about the penetrator tip; wherein the chisel elements are positioned axially set back with respect to the penetrator tip, and wherein the chisel elements each have a radially orientated radial blade and an azimuthally orientated azimuthal blade.
A thermal management system comprising: a sublimator having a porous plate; a water feed line connected with the sublimator for delivering feed water to the porous plate, wherein the sublimator is operable to freeze and sublime the feed water using the porous plate; and an adsorbent bed in the water feed line, the adsorbent bed configured to substantially remove organic compounds from the feed water that are capable of forming an adherent layer on the porous plate, wherein the adsorbent bed includes first and second adsorbent media (36, 38), the first and second adsorbent media are different with regard to adsorption capability of at least two of abietic acid, sodium dodecyl benzene sulfonate (SDBS), acrylic acid oligomers, or n-butyl benzene sulfonamide (NBBS), and the adsorbent bed includes, by volume of a total amount of the first and second adsorbent media, from 40% to 60% of the first adsorbent media and from 60% to 40% of the second adsorbent media; wherein the first adsorbent media is synthetic activated carbon and the second adsorbent media is natural activated carbon, wherein synthetic activated carbon is formed by controlled pyrolysis of a polymer precursor and natural activated carbon is formed by controlled pyrolysis of naturally occurring materials. a sublimator having a porous plate; a water feed line connected with the sublimator for delivering feed water to the porous plate, wherein the sublimator is operable to freeze and sublime the feed water using the porous plate; and an adsorbent bed in the water feed line, the adsorbent bed configured to substantially remove organic compounds from the feed water that are capable of forming an adherent layer on the porous plate, wherein the adsorbent bed includes first and second adsorbent media (36, 38), the first and second adsorbent media are different with regard to adsorption capability of at least two of abietic acid, sodium dodecyl benzene sulfonate (SDBS), acrylic acid oligomers, or n-butyl benzene sulfonamide (NBBS), and the adsorbent bed includes, by volume of a total amount of the first and second adsorbent media, from 40% to 60% of the first adsorbent media and from 60% to 40% of the second adsorbent media; wherein the first adsorbent media is synthetic activated carbon and the second adsorbent media is natural activated carbon, wherein synthetic activated carbon is formed by controlled pyrolysis of a polymer precursor and natural activated carbon is formed by controlled pyrolysis of naturally occurring materials.
A mixture, comprising: a vitamin component, a carotenoid component, a micronutrient component, an essential trace element component, and a plant extract component, wherein the essential trace element in the essential trace element component is zinc, the vitamin component comprises vitamin A, vitamin C and vitamin E, the carotenoid component comprises lycopene and lutein, the micronutrient component comprises lipoic acid and L-arginine, and the plant extract component comprises marigold flower extract, saffron extract, pine bark extract, grape seed extract, bilberry extract.
A method of deamidating a protein, comprising: (a) incubating the protein to be deamidated under alkaline conditions for about 16 to about 24 hours, preferably 20 hours; and (b) purifying the deamidated protein, wherein said protein is IFN-beta, particularly IFN-beta 1 and wherein said incubation is at a temperature of about 23°C. (a) incubating the protein to be deamidated under alkaline conditions for about 16 to about 24 hours, preferably 20 hours; and (b) purifying the deamidated protein,
Detection device for the detection of space debris objects in space, wherein the impact of a space debris object is detectable on the detection device, wherein the detection device has a sandwich structure of two conductive layers (21, 23) separated by a non-conductive layer, wherein electrical voltages can be applied to the two conductive layers (21, 23) and at least the outer conductive layer is mechanically changeable by the impact of a space debris object, wherein by this mechanical change at least of the outer conductive layer at least one of its parameter is changeable, wherein this change is measurable and wherein taking this change the impact of a space debris object is detectable, characterized in that the detection device comprises at least one planar antenna, wherein the planar antenna comprises on its surface the sandwich structure of two conductive layers (21, 23) separated by the non-conductive layer.
A gas turbine engine system comprising in operating series: a compressor system for compressing a working fluid, a combustor downstream of the compressor system, a turbine system downstream of the combustor, vapour generating means downstream of the turbine having a first operating side for containment of the working fluid and a second operating side for containment of a fluid to be vapourised in the vapour generating means by heat transfer with the working fluid, wherein the vapour generating means is arranged to provide a dry-run capability such that the turbine exhaust may pass through the first operating side without a fluid to be vapourised passing through the second operating side, characterised in that the gas turbine engine system further comprises a bypass damper downstream of the first operating side of the vapour generating means and a condenser for condensing condensable fluid from the working fluid, the bypass damper being switchable between a first operating position where the working fluid does not pass through a condenser and a second operating position where the working fluid passes through the condenser. a compressor system for compressing a working fluid, a combustor downstream of the compressor system, a turbine system downstream of the combustor, vapour generating means downstream of the turbine having a first operating side for containment of the working fluid and a second operating side for containment of a fluid to be vapourised in the vapour generating means by heat transfer with the working fluid, wherein the vapour generating means is arranged to provide a dry-run capability such that the turbine exhaust may pass through the first operating side without a fluid to be vapourised passing through the second operating side, characterised in that the gas turbine engine system further comprises a bypass damper downstream of the first operating side of the vapour generating means and a condenser for condensing condensable fluid from the working fluid, the bypass damper being switchable between a first operating position where the working fluid does not pass through a condenser and a second operating position where the working fluid passes through the condenser.
Collection receptacle for collecting a material with a device for measuring the filling level of the collection receptacle, in which a probe is provided which is positioned so that, in the filled state of the collection receptacle, said probe is surrounded by the collected material, characterised in that the collection receptacle is a dust receptacle for a vacuum cleaner, the probe is a thermal resistor and the material is dirt, wherein the thermal resistor is positioned so that it is only surrounded by dirt in the filled state of the dust receptacle.
A method for predicting a speech recognition quality of a phrase comprising at least one word, the method comprising: receiving, on a computer system comprising a processor and memory storing instructions, the phrase comprising plain text supplied via a keyboard, the phrase including the at least one word; computing, on the computer system, a set of features comprising one or more features corresponding to the text of the phrase; providing the phrase to a prediction model on the computer system and receiving a predicted recognition quality value based on the set of features, the predicted recognition quality value measuring a likelihood of the phrase being correctly recognized by an automatic speech recognition system when appearing in user speech; comparing the predicted recognition quality value to a threshold value; and displaying, using a graphical user interface associated with the computer system, a label corresponding to the phrase, the label being based on the comparison of the predicted recognition quality value to the threshold value, the label for indicating the likelihood of the phrase being correctly recognized by an automatic speech recognition system when appearing in user speech. receiving, on a computer system comprising a processor and memory storing instructions, the phrase comprising plain text supplied via a keyboard, the phrase including the at least one word; computing, on the computer system, a set of features comprising one or more features corresponding to the text of the phrase; providing the phrase to a prediction model on the computer system and receiving a predicted recognition quality value based on the set of features, the predicted recognition quality value measuring a likelihood of the phrase being correctly recognized by an automatic speech recognition system when appearing in user speech; comparing the predicted recognition quality value to a threshold value; and displaying, using a graphical user interface associated with the computer system, a label corresponding to the phrase, the label being based on the comparison of the predicted recognition quality value to the threshold value, the label for indicating the likelihood of the phrase being correctly recognized by an automatic speech recognition system when appearing in user speech.
An X-ray system comprising - a first structure (11, 17; 21; 31), on which an X-ray source and/or an X-ray detector is provided, - a second structure (14, 15; 22; 32), - at least one stepper motor, which is configured to move the first structure (11, 17; 21; 31) relative to the second structure (14, 15; 22; 32), the stepper motor comprising a rotor shaft which is coupled with the first structure (11, 17; 21; 31) such that when a user exerts an external force on the first structure (11, 17; 21; 31) an angular position of the rotor shaft is changed in accordance with the exerted external force, - at least one incremental rotary encoder, which is coupled with the rotor shaft of the stepper motor and configured to generate an encoder signal in accordance with the change of the angular position of the rotor shaft; and - a control unit, which is configured to determine, based on the encoder signal, a position deviation signal characterizing a deviation of the angular position of the rotor shaft from a reference angular position of the rotor shaft and to control the stepper motor to rotate the rotor shaft dependent on the position deviation signal such that the stepper motor supports a movement of the first structure (11, 17; 21; 31) relative to the second structure (14, 15; 22; 32) in accordance with the exerted external force. - a first structure (11, 17; 21; 31), on which an X-ray source and/or an X-ray detector is provided, - a second structure (14, 15; 22; 32), - at least one stepper motor, which is configured to move the first structure (11, 17; 21; 31) relative to the second structure (14, 15; 22; 32), the stepper motor comprising a rotor shaft which is coupled with the first structure (11, 17; 21; 31) such that when a user exerts an external force on the first structure (11, 17; 21; 31) an angular position of the rotor shaft is changed in accordance with the exerted external force, - at least one incremental rotary encoder, which is coupled with the rotor shaft of the stepper motor and configured to generate an encoder signal in accordance with the change of the angular position of the rotor shaft; and - a control unit, which is configured to determine, based on the encoder signal, a position deviation signal characterizing a deviation of the angular position of the rotor shaft from a reference angular position of the rotor shaft and to control the stepper motor to rotate the rotor shaft dependent on the position deviation signal such that the stepper motor supports a movement of the first structure (11, 17; 21; 31) relative to the second structure (14, 15; 22; 32) in accordance with the exerted external force.
A method for producing a power semiconductor module, comprising: packaging a power device in plastic to form a power semiconductor component, and forming a first heat dissipation face on a surface of the power semiconductor component; heating a first material between a first heat sink and the first heat dissipation face; and cooling the first material on the first heat dissipation face to connect the power semiconductor component and the first heat sink, wherein before the step of heating the first material between the first heat sink and the first heat dissipation face, the method further comprises: plating a metal plating layer outside the first heat sink, wherein the metal plating layer comprises any one or more of Ag, Ni, Sn, and Au; plating a metal plating layer on the surface of the power semiconductor component, wherein the metal plating layer comprises any one or more of Ag, Ni, Sn, and Au. packaging a power device in plastic to form a power semiconductor component, and forming a first heat dissipation face on a surface of the power semiconductor component; heating a first material between a first heat sink and the first heat dissipation face; and cooling the first material on the first heat dissipation face to connect the power semiconductor component and the first heat sink, wherein before the step of heating the first material between the first heat sink and the first heat dissipation face, the method further comprises: plating a metal plating layer outside the first heat sink, wherein the metal plating layer comprises any one or more of Ag, Ni, Sn, and Au; plating a metal plating layer on the surface of the power semiconductor component, wherein the metal plating layer comprises any one or more of Ag, Ni, Sn, and Au. plating a metal plating layer outside the first heat sink, wherein the metal plating layer comprises any one or more of Ag, Ni, Sn, and Au; plating a metal plating layer on the surface of the power semiconductor component, wherein the metal plating layer comprises any one or more of Ag, Ni, Sn, and Au.
A method of controlling a radio frequency transmission over a downlink to at least one mobile station among a plurality of mobile stations (MS 1...MS K), from a multi-channel base station in a wireless Time Division Duplex closed-loop communication system, said method comprising the following steps at the base station: buffering (S 1) data destined to each of said plurality of mobile stations in a corresponding queue (11 1...11 K); starting a feedback phase by obtaining (S 2) for each channel a first channel state corresponding to the achievable rate of the mobile station with the biggest queue length, during a feedback elementary period corresponding to a fraction of a time slot; estimating (S 3) for each channel first values representative of a gain in knowing the achievable rates of each of the other mobile stations based on the obtained first channel state, on said biggest queue length and on the queue length associated with each of the other mobile stations; stopping the feedback phase and scheduling (S 4) for the rest of the associated timeslot said mobile station with the biggest queue length on selected channels for which corresponding first values are greater than a first threshold value; else continuing (S 5) the feedback phase only for non-selected channels by broadcasting said first channel state to the other mobile stations on each non-selected channel. buffering (S 1) data destined to each of said plurality of mobile stations in a corresponding queue (11 1...11 K); starting a feedback phase by obtaining (S 2) for each channel a first channel state corresponding to the achievable rate of the mobile station with the biggest queue length, during a feedback elementary period corresponding to a fraction of a time slot; estimating (S 3) for each channel first values representative of a gain in knowing the achievable rates of each of the other mobile stations based on the obtained first channel state, on said biggest queue length and on the queue length associated with each of the other mobile stations; stopping the feedback phase and scheduling (S 4) for the rest of the associated timeslot said mobile station with the biggest queue length on selected channels for which corresponding first values are greater than a first threshold value; else continuing (S 5) the feedback phase only for non-selected channels by broadcasting said first channel state to the other mobile stations on each non-selected channel.
A laundry care composition comprising: (i) from 2 to 70 wt% of a surfactant; and (ii) from 0.0001 to 20.0 wt% of a leuco polymer comprising a polyethylenimine and at least one leuco moiety covalently bound to the polyethylenimine, wherein the polyethylenimine comprises three or more amine nitrogen atoms and 1 mol.% or more of amine hydrogen atoms in the polyethylenimine are replaced with a moiety selected from the group consisting of 2-hydroxypropyl, 1-hydroxypropane-2-yl, and polyalkoxy groups. (i) from 2 to 70 wt% of a surfactant; and (ii) from 0.0001 to 20.0 wt% of a leuco polymer comprising a polyethylenimine and at least one leuco moiety covalently bound to the polyethylenimine, wherein the polyethylenimine comprises three or more amine nitrogen atoms and 1 mol.% or more of amine hydrogen atoms in the polyethylenimine are replaced with a moiety selected from the group consisting of 2-hydroxypropyl, 1-hydroxypropane-2-yl, and polyalkoxy groups.
A valve apparatus for setting and monitoring the clamping pressure of a clamping device for workpieces which are to be clamped, in particular in lathes, by omitting directional control valves the valve apparatus having two pressure control valves (1A, 1B), by means of which a clamping pressure adjustment for the clamping device takes place, and with two pressure sensors (6A, 6B) which detect the respective clamping pressure of the clamping device which is to be adjusted to a definable setpoint clamping pressure, the two pressure regulating valves (1A, 1B) being proportional pressure reducing valves (1A, 1B), characterised in that the proportional pressure reducing valves (1A, 1B) acquire a secondary pressure safeguard by means of a respective reverse-pressure lock, the respective reverse-pressure lock respectively being located in a line which connects the respective proportional pressure reducing valve (1A, 1B) to a tank line.