mhurhangee/ep-ind-claims huggingface dataset:
A method for making an item in a mold-press, comprising: a) substantially isolating an upper mold surface of an upper mold part of the mold-press inside a PIMC spraying booth by engaging said upper mold part with said spraying booth so that an outer rim of an aperture of said spraying booth is intimately encircled by a mold seam area of said upper mold surface; b) while said upper mold surface is substantially isolated inside said spraying booth, electrostatically applying a layer of PIMC resin powder to said upper mold surface; c) disengaging said spraying booth from said upper mold part so as not to interfere with mold closing; d) placing a charge of plastic thermoset resin on a lower mold surface of a lower mold part of the mold-press; e) activating the mold-press to close said mold, bringing said upper mold surface and said lower mold surface together so as to spread said plastic thermoset resin charge to fill the volume between said upper and lower surfaces of said mold and to contact said applied PIMC resin powder with a surface of said plastic thermoset resin charge; f) subsequent to 'e', allowing said spread thermoset resin to cure, opening said mold to separate the upper and lower mold surfaces, and removing said cured thermoset resin as the item. a) substantially isolating an upper mold surface of an upper mold part of the mold-press inside a PIMC spraying booth by engaging said upper mold part with said spraying booth so that an outer rim of an aperture of said spraying booth is intimately encircled by a mold seam area of said upper mold surface; b) while said upper mold surface is substantially isolated inside said spraying booth, electrostatically applying a layer of PIMC resin powder to said upper mold surface; c) disengaging said spraying booth from said upper mold part so as not to interfere with mold closing; d) placing a charge of plastic thermoset resin on a lower mold surface of a lower mold part of the mold-press; e) activating the mold-press to close said mold, bringing said upper mold surface and said lower mold surface together so as to spread said plastic thermoset resin charge to fill the volume between said upper and lower surfaces of said mold and to contact said applied PIMC resin powder with a surface of said plastic thermoset resin charge; f) subsequent to 'e', allowing said spread thermoset resin to cure, opening said mold to separate the upper and lower mold surfaces, and removing said cured thermoset resin as the item.
A UV curable inkjet ink for inkjet printing tarpaulins including an pigment, a free radical photoinitiator and a polymerizable composition containing more than 90.0 wt% of monofunctional polymerizable compounds based on the total weight of the polymerizable composition, wherein the monofunctional polymerizable compounds include: - more than 5.0 wt% of a N-vinyl oxazolidinone; - more than 12.0 wt% of a heterocyclic acrylate which is a non-aromatic cyclic acrylate wherein the one or more heteroatoms are an oxygen atom; and - more than 23.0 wt% of a mixture of an aromatic acrylate and an alicyclic acrylate; wherein the wt% of the monofunctional polymerizable compounds is based on the total weight of the UV curable inkjet ink; and wherein a weight ratio R = (H + A) / (V+ L) is no more than 2.0. - more than 5.0 wt% of a N-vinyl oxazolidinone; - more than 12.0 wt% of a heterocyclic acrylate which is a non-aromatic cyclic acrylate wherein the one or more heteroatoms are an oxygen atom; and - more than 23.0 wt% of a mixture of an aromatic acrylate and an alicyclic acrylate; wherein the wt% of the monofunctional polymerizable compounds is based on the total weight of the UV curable inkjet ink; and wherein a weight ratio R = (H + A) / (V+ L) is no more than 2.0.
A method for assessing performance of an instrument with both liquid chromatography and mass spectrometry functionalities comprising: (a) introducing a neat peptide mixture without background causing agents to the instrument, wherein said peptide mixture comprises three or more distinct-mass versions of each of two or more distinct-sequence peptides, and wherein two or more of the distinct-mass versions of each of the two or more distinct peptide sequences comprises one or more amino acids with above natural-abundance levels of one or more heavy isotopes; (b) separating or analysing the peptide mixture by LC; (c) analysing the peptide mixture by MS; (d) assessing the performance of the LC and MS functionalities of the instrument based on results of steps (b) and (c); and (e) comparing assessments performed at different time points to monitor changes in instrument performance. (a) introducing a neat peptide mixture without background causing agents to the instrument, wherein said peptide mixture comprises three or more distinct-mass versions of each of two or more distinct-sequence peptides, and wherein two or more of the distinct-mass versions of each of the two or more distinct peptide sequences comprises one or more amino acids with above natural-abundance levels of one or more heavy isotopes; (b) separating or analysing the peptide mixture by LC; (c) analysing the peptide mixture by MS; (d) assessing the performance of the LC and MS functionalities of the instrument based on results of steps (b) and (c); and (e) comparing assessments performed at different time points to monitor changes in instrument performance.
A method of forming a laminate shell, comprising: • placing a laminate onto a hinged platen in a forming tool; • heating the laminate; • moving a first movable section and second movable section of the hinged platen toward a core of the forming tool, and decreasing a distance between the core and an intermediate section of the hinged platen, such that the laminate bends to form the shell; • cooling the shell; and • removing the shell from the forming tool wherein the laminate is formed by a method comprising: • feeding fiber structure and resin film to a heated belt to form layup; • increasing a temperature and the pressure to flow the resin into the fiber structure to form the laminate; and • cooling the laminate. • placing a laminate onto a hinged platen in a forming tool; • heating the laminate; • moving a first movable section and second movable section of the hinged platen toward a core of the forming tool, and decreasing a distance between the core and an intermediate section of the hinged platen, such that the laminate bends to form the shell; • cooling the shell; and • removing the shell from the forming tool • feeding fiber structure and resin film to a heated belt to form layup; • increasing a temperature and the pressure to flow the resin into the fiber structure to form the laminate; and • cooling the laminate.
A denture frame comprising: a polymer composition comprising: (i) from about 30 wt.% to about 80 wt.% of at least one poly(ether ether) ketone ("PEEK") polymer, relative to the total weight of the polymer composition; (ii) from about 10 wt.% to about 60 wt.% of at least one polyphenylsulfone ("PPSU") polymer, relative to the total weight of the polymer composition; and (iii) less than about 30 wt.% of a particulate filler comprising a pigment, wherein the denture frame comprises at least one finish line including a substantially flat inner surface. a polymer composition comprising: (i) from about 30 wt.% to about 80 wt.% of at least one poly(ether ether) ketone ("PEEK") polymer, relative to the total weight of the polymer composition; (ii) from about 10 wt.% to about 60 wt.% of at least one polyphenylsulfone ("PPSU") polymer, relative to the total weight of the polymer composition; and (iii) less than about 30 wt.% of a particulate filler comprising a pigment, (i) from about 30 wt.% to about 80 wt.% of at least one poly(ether ether) ketone ("PEEK") polymer, relative to the total weight of the polymer composition; (ii) from about 10 wt.% to about 60 wt.% of at least one polyphenylsulfone ("PPSU") polymer, relative to the total weight of the polymer composition; and (iii) less than about 30 wt.% of a particulate filler comprising a pigment, wherein the denture frame comprises at least one finish line including a substantially flat inner surface.
A high fixation ink composition for digital textile printing, comprising: at least one reactive dye compound of the following formula in an amount of 1% to 50% by weight; an organic buffer or a polyphosphate buffer in an amount of 0.05% to 10% by weight; a humectant in an amount of 10% to 50% by weight; and water in remaining amount; wherein A 1 is a dye chromophore and n 1 and n 2 are each independently 1 or 2; and wherein the dye chromophore is selected from the group consisting of dye chromophores of the following formulas to and to (I-34): at least one reactive dye compound of the following formula in an amount of 1% to 50% by weight; an organic buffer or a polyphosphate buffer in an amount of 0.05% to 10% by weight; a humectant in an amount of 10% to 50% by weight; and water in remaining amount;
Coating method for coating a substrate with at least one aluminium oxide comprising coating layer, the layer being produced by physical vapour deposition from at least one target comprising aluminium as main component in a coating chamber containing oxygen as reactive gas, characterized in that: • the target further comprises chromium as second main component and boron and iron as minor components and the sum of boron content and iron content is between 1 at.-% and 5 at.-% and the atomic ratio Al/Cr in the target is > 2. • the target further comprises chromium as second main component and boron and iron as minor components and the sum of boron content and iron content is between 1 at.-% and 5 at.-% and the atomic ratio Al/Cr in the target is > 2.
A 3D printer printing head assembly comprising a printing head carrier and a printing head comprising at least four printing units, each printing unit comprising an extruder, filament feeder, cooling mechanism, and nozzle, characterized in that the printing units are adapted to print simultaneously in different, mutually offset print planes, wherein the printing units are arranged in at least two mutually spaced rows, wherein the printing units in one row are adapted to print in a different print plane than the printing units arranged in another row.
An electronic system for foetal monitoring, characterised in that it comprises: - at least four ultrasound sensors sequentially emitting and receiving ultrasound waves, the ultrasound sensors being provided to be positioned on at least one part of the mother's abdomen in order to cover the moving foetal cardiac structure and to carry out measurements of the foetal heart rate, the distance between two ultrasound sensors is maintained by a semi-rigid or semi-elastic link, in order to preserve the geometric distribution of the sensors with each other, the length of said link is comprised between 30 and 60mm, preferably between 37 and 45 mm, the number of ultrasound sensors together form a triangular, square, rectangular or circular network; - a module for controlling the ultrasound sensors comprising a command information of the ultrasound waves sent to at least one ultrasound sensor; - a module for processing the ultrasound signals for continuously estimating the position of the heart, the foetal heart rhythm and the foetal movements from the signal(s) received from the ultrasound sensors. - at least four ultrasound sensors sequentially emitting and receiving ultrasound waves, the ultrasound sensors being provided to be positioned on at least one part of the mother's abdomen in order to cover the moving foetal cardiac structure and to carry out measurements of the foetal heart rate, the distance between two ultrasound sensors is maintained by a semi-rigid or semi-elastic link, in order to preserve the geometric distribution of the sensors with each other, the length of said link is comprised between 30 and 60mm, preferably between 37 and 45 mm, the number of ultrasound sensors together form a triangular, square, rectangular or circular network; - a module for controlling the ultrasound sensors comprising a command information of the ultrasound waves sent to at least one ultrasound sensor; - a module for processing the ultrasound signals for continuously estimating the position of the heart, the foetal heart rhythm and the foetal movements from the signal(s) received from the ultrasound sensors.
Process for producing protective colloid-stabilized aqueous dispersions of vinyl ester polymers having weight-average particle diameters Dw of 120 nm to 1500 nm and a polydispersity PD of < 1.6 by means of free-radically initiated emulsion polymerizations of one or more vinyl esters and optionally one or more further ethylenically unsaturated monomers in an aqueous medium in the presence of one or more protective colloids, characterized in that an aqueous mixture comprising 0 to 90 grams of one or more protective colloids per liter of water in the initial charge (concentration) is initially charged and, commencing with or after the start of metered addition of one or more initiators, one or more protective colloids and the total amount of vinyl esters used are metered in, the emulsion polymerizations being performed in the absence of vinyl halides, and no emulsifiers being used during the emulsion polymerizations.
A system for cleaning a device for holding fluid, the system comprising ∘ mechanical wave generating means and ∘ a waveguide comprising • a first end adapted to be in contact with outer surface of the device • a second end wherein the second end is in contact with the mechanical wave generating means, characterized in that ∘ the waveguide comprises a cavity comprising a base portion separated from the second end by a distance I, ∘ the mechanical wave generating means is adapted to emit mechanical waves through the waveguide to the outer surface, ∘ the distance I is such that when the mechanical wave generating means emits succession of mechanical waves through the waveguide to the outer surface there is an antinode positioned in the waveguide at the distance I from the second end, o maximum diameter D max of the waveguide is less than 1⁄2 of wavelength of the mechanical waves and in that o the ratio of diameter d of the base portion to the diameter D of the waveguide at the distance I is from 0.2 to 0.9. ∘ mechanical wave generating means and ∘ a waveguide comprising • a first end adapted to be in contact with outer surface of the device • a second end wherein the second end is in contact with the mechanical wave generating means, • a first end adapted to be in contact with outer surface of the device • a second end wherein the second end is in contact with the mechanical wave generating means, ∘ the waveguide comprises a cavity comprising a base portion separated from the second end by a distance I, ∘ the mechanical wave generating means is adapted to emit mechanical waves through the waveguide to the outer surface, ∘ the distance I is such that when the mechanical wave generating means emits succession of mechanical waves through the waveguide to the outer surface there is an antinode positioned in the waveguide at the distance I from the second end, o maximum diameter D max of the waveguide is less than 1⁄2 of wavelength of the mechanical waves and in that o the ratio of diameter d of the base portion to the diameter D of the waveguide at the distance I is from 0.2 to 0.9.
A radiaxial flux electric motor, comprising: a shaft having a rotor end and a fixed end; a conical rotor rotatably coupled to the shaft adjacent the rotor end, a conical stator coupled to the shaft between the conical rotor and the fixed end, with a substantially parallel and concentric conical geometry of the rotor and the stator, wherein the conical rotor includes a roller bearing, a rotor core and one of a squirrel cage or a plurality of magnets, wherein the rotor core includes a conical interior region with a base adjacent to the shaft and radially outwards a base of a cylindrical surrounding wall extending in the axial direction such that a top portion of the surrounding wall surrounds the stator, wherein the top portion mounts the roller bearing the conical stator is operably coupled to the conical rotor by roller bearing along the surrounding wall the conical stator including metal windings (134a, 134b, 134c) for flow of an electric current, wherein the conical rotor is configured for rotational movement about a lengthwise axis of the shaft while the conical stator and the shaft are stationary with a conical air gap allowed by surrounding wall between the conical rotor and the conical stator; wherein by the conical geometry of the stator and the rotor a radiaxial flux comprising both radial flux and axial flux simultaneously is provided between the conical stator and the conical rotor, when electrical current is provided to said metal windings (134a, 134b, 134c). a shaft having a rotor end and a fixed end; a conical rotor rotatably coupled to the shaft adjacent the rotor end, a conical stator coupled to the shaft between the conical rotor and the fixed end, with a substantially parallel and concentric conical geometry of the rotor and the stator, wherein the conical rotor includes a roller bearing, a rotor core and one of a squirrel cage or a plurality of magnets, wherein the rotor core includes a conical interior region with a base adjacent to the shaft and radially outwards a base of a cylindrical surrounding wall extending in the axial direction such that a top portion of the surrounding wall surrounds the stator, wherein the top portion mounts the roller bearing the conical stator is operably coupled to the conical rotor by roller bearing along the surrounding wall the conical stator including metal windings (134a, 134b, 134c) for flow of an electric current, wherein the conical rotor is configured for rotational movement about a lengthwise axis of the shaft while the conical stator and the shaft are stationary with a conical air gap allowed by surrounding wall between the conical rotor and the conical stator; wherein by the conical geometry of the stator and the rotor a radiaxial flux comprising both radial flux and axial flux simultaneously is provided between the conical stator and the conical rotor, when electrical current is provided to said metal windings (134a, 134b, 134c).
A radar system suitable for use on a vehicle, said system comprising: a first sensor that outputs a first signal indicative of a first target in a first area proximate to a vehicle; a second sensor that outputs a second signal indicative of a second target in a second area proximate to the vehicle and different from the first area; and a controller that receives the first signal and the second signal, said radar system being characterized in that the controller is configured to detect a false radar-track arising from a reflection of a return signal from the first target; and in that said controller determines the location of the first target and of the second target; defines a line segment extending between the first target and the second target; determines the mid-point of the line segment; defines a reflection line extending orthogonally of the line segment from the mid-point; searches for a reflection surface around a location on the reflection-line and close to the second sensor; determines if the reflection surface is found and if the reflection-line intersects the reflection surface such that the second target indicated by the second signal is not actually a target, but is a false reflection of the first target reflected by the reflection surface. a first sensor that outputs a first signal indicative of a first target in a first area proximate to a vehicle; a second sensor that outputs a second signal indicative of a second target in a second area proximate to the vehicle and different from the first area; and a controller that receives the first signal and the second signal, said radar system being characterized in that the controller is configured to detect a false radar-track arising from a reflection of a return signal from the first target; and in that said controller determines the location of the first target and of the second target;
An organic solvent-free process for obtaining a neutralized and decolorized composition comprising one or more rhamnolipids, said process comprising: (a) providing an aqueous medium comprising at least one rhamnolipid; (b) treating said medium provided with acid to obtain an acidic medium comprising a solid, liquid and oily phase; (c) removing at least the liquid phase from said acidic medium of (b) to obtain an acidic solid phase and optionally an acidic oily phase; (d) treating said acidic solid phase and optionally said acidic oily phase obtained in (c) with a composition comprising a percarbonate salt, wherein said composition is in an amount effective to neutralize and decolorize said acidic solid phase and optionally said acidic oily phase of step (c) to obtain said neutralized and decolorized composition, wherein said neutralization and decolorization step occurs at a temperature of between about 35-85°C for at least about 30 minutes. (a) providing an aqueous medium comprising at least one rhamnolipid; (b) treating said medium provided with acid to obtain an acidic medium comprising a solid, liquid and oily phase; (c) removing at least the liquid phase from said acidic medium of (b) to obtain an acidic solid phase and optionally an acidic oily phase; (d) treating said acidic solid phase and optionally said acidic oily phase obtained in (c) with a composition comprising a percarbonate salt, wherein said composition is in an amount effective to neutralize and decolorize said acidic solid phase and optionally said acidic oily phase of step (c) to obtain said neutralized and decolorized composition, wherein