mhurhangee/ep-ind-claims huggingface dataset:
A contrast media injector system comprising: a powerhead configured to control injection of a fluid from a syringe (36a, 36b) coupled thereto, wherein the powerhead comprises a display; a graphical image of a syringe (602, 604) and contents (610, 612) therein provided on the display respectively representing the syringe (36a, 36b) and fluid therein; and a graphical image of tubing (606, 608, 609) and contents therein provided on the display respectively representing tubing (506, 508, 510) connected to the syringe (36a, 36b) and fluid within the tubing, wherein the display color-codes the graphical image of contents of each of the syringe and tubing to identify corresponding fluids therein, and characterized by the graphical images of contents of the syringe and tubing provided by the display indicating a comparative amount of fluid and air within each of the syringe and tubing. a powerhead configured to control injection of a fluid from a syringe (36a, 36b) coupled thereto, wherein the powerhead comprises a display; a graphical image of a syringe (602, 604) and contents (610, 612) therein provided on the display respectively representing the syringe (36a, 36b) and fluid therein; and a graphical image of tubing (606, 608, 609) and contents therein provided on the display respectively representing tubing (506, 508, 510) connected to the syringe (36a, 36b) and fluid within the tubing, wherein the display color-codes the graphical image of contents of each of the syringe and tubing to identify corresponding fluids therein, and characterized by the graphical images of contents of the syringe and tubing provided by the display indicating a comparative amount of fluid and air within each of the syringe and tubing.
Electric power train for automotive vehicle, comprising at least: - an electric motor, - a power electronics system comprising an inverter and a charging rectifier, - a first casing containing the power electronics system, - a second casing distinct from the first casing and containing the motor, the first casing comprising a bottom and an opening for access to the power electronics system, said opening facing said bottom, the first and second casings being configured to be assembled in such a way as to butt against one another in a direction of abutment parallel to the axis of rotation of the motor, the second casing bearing on an exterior wall of the bottom of the first casing, the opening of the first casing lying opposite the second casing, said power train being characterized in that it furthermore comprises a third casing distinct from the first casing and from the second casing, the third casing being assembled on the first casing and containing an electric filtering system connected upstream of the charging rectifier, the first casing comprising a platform, which juts out relative to at least one portion of the first casing and on a face of which platform a contour for assembling the third casing on the first casing is defined, said contour being comprised in an assembly plane which is substantially parallel to the axial direction (x) of the motor, said platform overhanging said second casing, and in that assembly areas between the first casing and the second casing are dimensioned so that the two assembled casings form a self-supporting structure able to be lifted by one casing or the other. - an electric motor, - a power electronics system comprising an inverter and a charging rectifier, - a first casing containing the power electronics system, - a second casing distinct from the first casing and containing the motor,
A method of manufacturing a molded and sintered ferrite magnet with salt, the method comprising: preparing a source material of the ferrite to be synthesized; preparing a salt having a melting point lower than a synthetic temperature of the ferrite to be synthesized; mixing the source material of the ferrite with the salt; synthesizing ferrite magnetic powder with salt while melting the salt; and molding and sintering the ferrite magnetic powder with salt into a desired form to obtain a molded and sintered ferrite magnet with salt, wherein the molded and sintered ferrite magnet with salt comprises 65 to 99.9 weight % of ferrite and 0.1 to 35 weight % of salt, the sintering is carried out in a temperature condition of melting the salt or a temperature and pressure condition of melting the salt and the salt is melt during the sintering to form a salt matrix between the ferrite particles, and wherein the sintering process is carried out at temperatures higher than those at which a particle growth of ferrites occurs. preparing a source material of the ferrite to be synthesized; preparing a salt having a melting point lower than a synthetic temperature of the ferrite to be synthesized; mixing the source material of the ferrite with the salt; synthesizing ferrite magnetic powder with salt while melting the salt; and molding and sintering the ferrite magnetic powder with salt into a desired form to obtain a molded and sintered ferrite magnet with salt, wherein the molded and sintered ferrite magnet with salt comprises 65 to 99.9 weight % of ferrite and 0.1 to 35 weight % of salt, the sintering is carried out in a temperature condition of melting the salt or a temperature and pressure condition of melting the salt and the salt is melt during the sintering to form a salt matrix between the ferrite particles, and wherein the sintering process is carried out at temperatures higher than those at which a particle growth of ferrites occurs.
A pharmaceutical formulation comprising an anti-epidermal growth factor receptor (EGFR) antibody, sodium acetate anhydrous, and polysorbate 80, wherein no sodium chloride (NaCl) is included in the pharmaceutical formulation, wherein the anti-EGFR antibody is GC1118A, wherein the anti-EGFR antibody is comprised in a concentration of 2 to 10 mg/ml, wherein the sodium acetate anhydrous is comprised in a concentration of 10 to 100 mM, and wherein the polysorbate 80 is comprised in a concentration of 0.05 to 2.0 mg/ml.
A process for binding lignocellulosic material comprising the steps of a) bringing lignocellulosic material into contact with a methylene bridged polyphenyl polyisocyanate composition and b) subsequently allowing said material to bind wherein said polyisocyanate composition has a surface tension below or equal to 46 mN/m, preferably below 40 mN/m and most preferably below 30 mN/m measured according to ASTM standard D1331-14, wherein the polar contribution of the surface tension is at least 6 mN/m preferably at least 10 mN/m, more preferably at least 20 mN/m, wherein the lignocellulosic material is primarily wood based and fibrous in nature, and wherein the wood fibers are single wood fibers and/or bundles of such fibers. wherein said polyisocyanate composition has a surface tension below or equal to 46 mN/m, preferably below 40 mN/m and most preferably below 30 mN/m measured according to ASTM standard D1331-14, wherein the polar contribution of the surface tension is at least 6 mN/m preferably at least 10 mN/m, more preferably at least 20 mN/m, wherein the lignocellulosic material is primarily wood based and fibrous in nature, and wherein the wood fibers are single wood fibers and/or bundles of such fibers.
A tooth whitening oral care composition comprising: (i) flakes of a water soluble whitening film comprising (a) a film forming polymer comprising hydroxyalkyl cellulose wherein the hydroxyalkyl cellulose has a viscosity of 1 to less than 1000 millipascal seconds (mPa.s) as determined as a 2% by weight aqueous solution of the polymer at 20° C using a Ubbelohde tube viscometer; and (b) a pigment having a blue to blue-violet color with a hue angle in the CIELAB system ranging from 220 to 320 degrees, wherein the hydroxyalkyl cellulose is hydroxypropylmethyl cellulose, wherein the film flakes have a dissolution rate of 30 seconds or less, wherein the dissolution rate is the average amount of time it takes for the film flakes to disintegrate and release observable pigments in the presence of water at room temperature; wherein the film flakes have a particle size of 30 to 80 mesh; and (ii) an orally acceptable carrier vehicle. (i) flakes of a water soluble whitening film comprising (a) a film forming polymer comprising hydroxyalkyl cellulose wherein the hydroxyalkyl cellulose has a viscosity of 1 to less than 1000 millipascal seconds (mPa.s) as determined as a 2% by weight aqueous solution of the polymer at 20° C using a Ubbelohde tube viscometer; and (b) a pigment having a blue to blue-violet color with a hue angle in the CIELAB system ranging from 220 to 320 degrees, wherein the hydroxyalkyl cellulose is hydroxypropylmethyl cellulose, wherein the film flakes have a dissolution rate of 30 seconds or less, wherein the dissolution rate is the average amount of time it takes for the film flakes to disintegrate and release observable pigments in the presence of water at room temperature; wherein the film flakes have a particle size of 30 to 80 mesh; and (a) a film forming polymer comprising hydroxyalkyl cellulose wherein the hydroxyalkyl cellulose has a viscosity of 1 to less than 1000 millipascal seconds (mPa.s) as determined as a 2% by weight aqueous solution of the polymer at 20° C using a Ubbelohde tube viscometer; and (b) a pigment having a blue to blue-violet color with a hue angle in the CIELAB system ranging from 220 to 320 degrees, (ii) an orally acceptable carrier vehicle.
A method for a terminal for a wireless communication system, the method comprising: transmitting a message A, MsgA, for a 2-step random access procedure; characterized by in response to a transmission of only a physical random access channel, PRACH, in the MsgA, without a physical uplink shared channel, PUSCH, monitoring a physical downlink control channel, PDCCH, for a message B, MsgB, during a window; and receiving downlink control information on the PDCCH for the MsgB, wherein a starting point of the window for monitoring the PDCCH depends on whether the PRACH is associated with a valid PUSCH occasion. transmitting a message A, MsgA, for a 2-step random access procedure; characterized by in response to a transmission of only a physical random access channel, PRACH, in the MsgA, without a physical uplink shared channel, PUSCH, monitoring a physical downlink control channel, PDCCH, for a message B, MsgB, during a window; and receiving downlink control information on the PDCCH for the MsgB, wherein a starting point of the window for monitoring the PDCCH depends on whether the PRACH is associated with a valid PUSCH occasion.
A high electron mobility transistor (HEMT) (75, 82, 84, 87) comprising: a Group III nitride heterostructure comprising a barrier layer and a channel layer; a first spacer layer of Group III nitride between said barrier layer and said channel layer, said first spacer layer configured to separate impurities in the barrier layer from impurities in the channel layer; a first passivation structure on said Group III nitride heterostructure for reducing parasitic capacitance and minimizing device trapping; and a second passivation structure on said first passivation structure for encapsulating said Group III nitride heterostructure and providing an environmental barrier; said first passivation structure comprising at least one sputtered layer (50,51) of non-stoichiometric nitride selected from silicon nitride, aluminum nitride, oxynitrides of silicon and oxynitrides of aluminum, and at least one chemical vapor deposited layer of silicon nitride for positioning subsequent passivation layers further from said Group III nitride heterostructure without fully encapsulating said Group III nitride heterostructure; and said second passivation structure comprising an environmental barrier (52,53) of stoichiometric nitrides. a Group III nitride heterostructure comprising a barrier layer and a channel layer; a first spacer layer of Group III nitride between said barrier layer and said channel layer, said first spacer layer configured to separate impurities in the barrier layer from impurities in the channel layer; a first passivation structure on said Group III nitride heterostructure for reducing parasitic capacitance and minimizing device trapping; and a second passivation structure on said first passivation structure for encapsulating said Group III nitride heterostructure and providing an environmental barrier; said first passivation structure comprising at least one sputtered layer (50,51) of non-stoichiometric nitride selected from silicon nitride, aluminum nitride, oxynitrides of silicon and oxynitrides of aluminum, and at least one chemical vapor deposited layer of silicon nitride for positioning subsequent passivation layers further from said Group III nitride heterostructure without fully encapsulating said Group III nitride heterostructure; and said second passivation structure comprising an environmental barrier (52,53) of stoichiometric nitrides.
A gas fuel injection valve in which a single nozzle member is fixedly provided in a front end part of a valve housing that has an interior thereof as a gas fuel passage and houses a valve body, and this nozzle member has formed therein a valve seat facing the gas fuel passage, a valve hole extending through a central part of the valve seat and being opened and closed by cooperation between the valve body and the valve seat, a throttle hole having a smaller diameter than that of the valve hole and communicating with an outlet of the valve hole, and a nozzle hole having a larger diameter than that of the throttle hole and communicating with an outlet of the throttle hole, wherein when an internal diameter of the throttle hole is D1, a length of the throttle hole is L1, an internal diameter of the nozzle hole is D2, and a length of the nozzle hole is L2, L 1 / D 1 > 1 1 < D 2 / D 1 ≤ 1.2 the throttle hole and the nozzle hole are formed so as to satisfy expressions and above.
Method for producing a legume-based food product, comprising the steps of: - providing an amount of seeds belonging to at least one legume species; - steam-cooking said amount of seeds by hydrating them and cooking with water vapor at a temperature of 100°C; - drying the seeds that have been previously steam-cooked until a humidity between 9% and 20% is reached; - grinding the cooked, dried seeds, thus obtaining a flour; - mixing the flour with water only, thus obtaining a dough; - extruding the obtained dough and extracting the air to generate vacuum conditions; - drawing and cutting the extruded dough, thus obtaining a crude product; - processing the crude product by means of a shaker pre-dryer; - drying, by means of a dryer, the processed crude product, thus obtaining a legume-based food product, wherein the step of drying the processed crude product comprises at least one working cycle, operating over a period of time comprised between 100 and 1000 minutes, said cycle in turn comprising the steps of: - setting the drying to a temperature between 40 and 60°C; - setting the relative humidity within the dryer between 35% and 90%; - venting the inside of the dryer over a period of time between 1 and 20 minutes; - stopping venting within the dryer over a period of time between 2 and 15 minutes, wherein the extrusion step comprises the steps of generating vacuum conditions within the at least one extrusion vessel, applying a pressure between 70 and 150 bar to the at least one auger, and cooling the at least one auger on its outside by using water having a temperature between 5 and 25°C. - providing an amount of seeds belonging to at least one legume species; - steam-cooking said amount of seeds by hydrating them and cooking with water vapor at a temperature of 100°C; - drying the seeds that have been previously steam-cooked until a humidity between 9% and 20% is reached; - grinding the cooked, dried seeds, thus obtaining a flour; - mixing the flour with water only, thus obtaining a dough; - extruding the obtained dough and extracting the air to generate vacuum conditions; - drawing and cutting the extruded dough, thus obtaining a crude product; - processing the crude product by means of a shaker pre-dryer; - drying, by means of a dryer, the processed crude product, thus obtaining a legume-based food product, - setting the drying to a temperature between 40 and 60°C; - setting the relative humidity within the dryer between 35% and 90%; - venting the inside of the dryer over a period of time between 1 and 20 minutes; - stopping venting within the dryer over a period of time between 2 and 15 minutes,
A metallic alloy comprising: Fe at a level of 45.0 atomic percent to 71 atomic percent; Ni at a level of 4.0 atomic percent to 9.00 atomic percent; B at a level of 11.0 atomic percent to 16 atomic percent; Si at a level of 0.3 atomic percent to 4.0 atomic percent; Cr at a level of 0.1 atomic percent to 19 atomic percent; and does not include cobalt; the alloy containing spinodal glass matrix microconstituent (SGMM) structure present in the range of 5.0% to 95.0% by volume and defining two phases with different chemical composition wherein said SGMM structure includes one or more semicrystalline or crystalline phases wherein the semicrystalline phase comprises clusters exhibiting a largest linear dimension of 2.0 nm or less and said crystalline phase comprises clusters exhibiting a largest linear dimension of greater than 2.0 nm and a glass matrix where the structural units in the glass phase have a size of 5 Å to 100 Å and wherein said alloy has an ultimate tensile strength of 0.4 GPa to 3.9 GPa and tensile elongation of 0.4 % to 5.5%. Fe at a level of 45.0 atomic percent to 71 atomic percent; Ni at a level of 4.0 atomic percent to 9.00 atomic percent; B at a level of 11.0 atomic percent to 16 atomic percent; Si at a level of 0.3 atomic percent to 4.0 atomic percent; Cr at a level of 0.1 atomic percent to 19 atomic percent; and does not include cobalt;
A method for repairing a turbine component (200, 600) with a distressed portion, comprising the steps of: machining the turbine component (200, 600) into a first intermediate turbine article such that the distressed portion is removed; and rebuilding the first intermediate turbine article into the turbine component with an additive manufacturing process, the turbine component (200,600) including internal passages, and the rebuilding step including rebuilding at least some of the internal passages with the additive manufacturing process; the method characterised by further comprising the steps of: encapsulating the turbine component (200,600) with an encapsulation layer, wherein the encapsulating step includes encapsulating within the internal passages; consolidating the turbine component (200,600) and the encapsulation layer, wherein the encapsulating step includes converting surface connected defects to internal defects prior to the consolidating step, and wherein the consolidating step includes hot isostatic pressing; and removing the encapsulation layer after the machining, rebuilding, encapsulating, and consolidating steps. machining the turbine component (200, 600) into a first intermediate turbine article such that the distressed portion is removed; and rebuilding the first intermediate turbine article into the turbine component with an additive manufacturing process, the turbine component (200,600) including internal passages, and the rebuilding step including rebuilding at least some of the internal passages with the additive manufacturing process; the method characterised by further comprising the steps of: encapsulating the turbine component (200,600) with an encapsulation layer, wherein the encapsulating step includes encapsulating within the internal passages; consolidating the turbine component (200,600) and the encapsulation layer, wherein the encapsulating step includes converting surface connected defects to internal defects prior to the consolidating step, and wherein the consolidating step includes hot isostatic pressing; and removing the encapsulation layer after the machining, rebuilding, encapsulating, and consolidating steps. encapsulating the turbine component (200,600) with an encapsulation layer, wherein the encapsulating step includes encapsulating within the internal passages; consolidating the turbine component (200,600) and the encapsulation layer, wherein the encapsulating step includes converting surface connected defects to internal defects prior to the consolidating step, and wherein the consolidating step includes hot isostatic pressing; and removing the encapsulation layer after the machining, rebuilding, encapsulating, and consolidating steps.
A water-soluble unit dose article comprising a water-soluble film and a liquid laundry detergent composition comprising: from 0.1% to 10% of a polyetheramine of Formula, Formula, or a mixture thereof: wherein each of R 1 -R 12 is independently selected from H, alkyl, cycloalkyl, aryl, alkylaryl, or arylalkyl, wherein at least one of R 1 -R 6 and at least one of R 7 -R 12 is different from H, each of A 1 -A 9 is independently selected from linear or branched alkylenes having 2 to 18 carbon atoms, each of Z 1 -Z 4 is independently selected from OH or NH 2, wherein at least one of Z 1 -Z 2 and at least one of Z 3 -Z 4 is NH 2, wherein the sum of x+y is in the range of 2 to 20, wherein x≥1 and y≥1, and the sum of x 1 + y 1 is in the range of 2 to 20, wherein x 1 ≥1 and y 1 ≥1; and wherein the water-soluble film comprises a polymer, copolymer or derivative thereof selected from polyvinyl alcohols, polyvinyl pyrrolidone, polyalkylene oxides, acrylamide, acrylic acid, cellulose, cellulose ethers, cellulose esters, cellulose amides, polyvinyl acetates, polycarboxylic acids and salts, polyaminoacids or peptides, polyamides, polyacrylamide, copolymers of maleic/acrylic acids, polysaccharides and natural gums.
A method of envelope tracking modulation of a power amplifier in a power amplification system, the method comprising: determining a low pass envelope of a dual band modulated signal input to the power amplification system; amplifying the determined low pass envelope; and modulating a drain supply of the power amplifier based on the amplified determined low pass envelope, characterized by further comprising: pre-distorting the dual band modulated signal according to a dual band baseband equivalent Volterra model extended to compensate for distortion attributable to the drain supply modulation, wherein the dual band baseband equivalent Volterra model extended to compensate for distortion attributable to the drain supply modulation is of the form: y ̃ i n = f i x ̃ 1 x ̃ 2 × ∑ i = 0 N S − 1 c l i x ̃ 1 n + x ̃ 2 n l where f i is a dual band describing function without drain supply modulation for band i, Ns is a nonlinearity order for an effect of the drain supply modulation, c i are model coefficients for band i, and wherein x̃ 1 and x̃ 2 are baseband equivalent envelopes of individual signals comprising the dual band modulated signal. determining a low pass envelope of a dual band modulated signal input to the power amplification system; amplifying the determined low pass envelope; and modulating a drain supply of the power amplifier based on the amplified determined low pass envelope, characterized by further comprising: pre-distorting the dual band modulated signal according to a dual band baseband equivalent Volterra model extended to compensate for distortion attributable to the drain supply modulation, wherein the dual band baseband equivalent Volterra model extended to compensate for distortion attributable to the drain supply modulation is of the form: y ̃ i n = f i x ̃ 1 x ̃ 2 × ∑ i = 0 N S − 1 c l i x ̃ 1 n + x ̃ 2 n l where f i is a dual band describing function without drain supply modulation for band i, Ns is a nonlinearity order for an effect of the drain supply modulation, c i are model coefficients for band i, and wherein x̃ 1 and x̃ 2 are baseband equivalent envelopes of individual signals comprising the dual band modulated signal.