mhurhangee/ep-ind-claims huggingface dataset:
Portable satellite antenna including a main body, capable of containing electronics for adapting the same antenna and means of connection to a SATCOM transceiver, and a plurality of radiating elements fastened at one end of said main body, with the latter configured to act as a handle, said radiating elements extending radially from said main body in an operating condition and foldable so as to adhere to the same main body in the condition of non-use of said satellite antenna, wherein - said radiating elements have a straight-shaped configuration; they are made of flexible shape memory material; they have a stable radially extended position when arranged in an operational configuration; and they are foldable, by virtue of the mechanical flexibility of said shape memory material, so as to adhere to the same main body in the condition of non-use of said satellite antenna; - means of stabilisation are provided, associated, either fixed or removable, with the said radiating elements for their definition and maintenance in said folded position adhering to said main body, and with said radiating elements intended to return spontaneously to said radial configuration, corresponding to the said operating condition of said satellite antenna, as a result of the removal/opening of said means of stabilisation. - said radiating elements have a straight-shaped configuration; they are made of flexible shape memory material; they have a stable radially extended position when arranged in an operational configuration; and they are foldable, by virtue of the mechanical flexibility of said shape memory material, so as to adhere to the same main body in the condition of non-use of said satellite antenna; - means of stabilisation are provided, associated, either fixed or removable, with the said radiating elements for their definition and maintenance in said folded position adhering to said main body, and with said radiating elements intended to return spontaneously to said radial configuration, corresponding to the said operating condition of said satellite antenna, as a result of the removal/opening of said means of stabilisation.
Use of a strength composition for increasing wet three-dimensional stability of a moulded pulp article in an alkaline environment, which moulded pulp article is produced by a method, which comprises - obtaining a fibre slurry and feeding it to a forming tank of a moulding apparatus, - forming a moulded pulp article from the fibre slurry, - drying the moulded pulp article, characterised in that the strength composition comprises at least one permanent wet strength resin, which is a cross-linked polyamidoamine-epihalohydrin resin and the strength composition is added to the fibre slurry before the forming of the moulded pulp article in amount that results 1.3 - 26 kg permanent wet strength resin/ton dry fibre slurry. - obtaining a fibre slurry and feeding it to a forming tank of a moulding apparatus, - forming a moulded pulp article from the fibre slurry, - drying the moulded pulp article,
A method of identifying a metabolic pathway in a complex biological sample containing two or more metabolites, comprising: (i) receiving the sample containing metabolites, wherein the sample is exposed to a stimulus; (ii) receiving a standard containing metabolites, wherein the metabolites of the standard are not affected or altered by the stimulus; (iii) analyzing the sample with a mass spectrometer system to generate sample metabolite peaks, wherein each sample metabolite peak has a signal intensity, and at least a mass measurement, wherein the mass spectrometer system comprises an ion mobility separation; (iv) analyzing the standard with a mass spectrometer system to generate standard metabolite peaks, wherein each standard metabolite peak has a signal intensity and at least a mass measurement, wherein the mass spectrometer system comprises an ion mobility separation; (v) comparing the sample metabolite peaks and the standard metabolite peaks to identify two or more altered metabolite peaks having an intensity difference; (vi) generating tentative metabolite identification lists for at least two or more of the altered metabolite peaks, wherein each list comprising potential metabolites having at least substantially the same mass measurement; (vii) comparing the two or more tentative metabolite identification lists with two or more known metabolic pathways; and (viii) identifying at least one metabolic pathway based on the results of the comparison step (vii) that is statistically more likely to include the two or more metabolites. (i) receiving the sample containing metabolites, wherein the sample is exposed to a stimulus; (ii) receiving a standard containing metabolites, wherein the metabolites of the standard are not affected or altered by the stimulus; (iii) analyzing the sample with a mass spectrometer system to generate sample metabolite peaks, wherein each sample metabolite peak has a signal intensity, and at least a mass measurement, wherein the mass spectrometer system comprises an ion mobility separation; (iv) analyzing the standard with a mass spectrometer system to generate standard metabolite peaks, wherein each standard metabolite peak has a signal intensity and at least a mass measurement, wherein the mass spectrometer system comprises an ion mobility separation; (v) comparing the sample metabolite peaks and the standard metabolite peaks to identify two or more altered metabolite peaks having an intensity difference; (vi) generating tentative metabolite identification lists for at least two or more of the altered metabolite peaks, wherein each list comprising potential metabolites having at least substantially the same mass measurement; (vii) comparing the two or more tentative metabolite identification lists with two or more known metabolic pathways; and (viii) identifying at least one metabolic pathway based on the results of the comparison step (vii) that is statistically more likely to include the two or more metabolites.
A system for exchanging information between a plurality of vehicles, said system comprising: a power system capable of providing power to each of the plurality of vehicles (105, 110) via an electric cable; and at least one off-board broadband over power lines module coupled to said power system, said at least one off-board BPL module capable of communicating via the electric cable with an onboard BPL module on each of the plurality of vehicles (105,110) and configured to communicatively couple at least a first vehicle of the plurality of vehicles to a second vehicle of the plurality of vehicles. a power system capable of providing power to each of the plurality of vehicles (105, 110) via an electric cable; and at least one off-board broadband over power lines module coupled to said power system, said at least one off-board BPL module capable of communicating via the electric cable with an onboard BPL module on each of the plurality of vehicles (105,110) and configured to communicatively couple at least a first vehicle of the plurality of vehicles to a second vehicle of the plurality of vehicles.
Handheld air sampler device for enrichment of airborne substances and/or particles, in particular microorganisms, comprising: an inlet configured for air intake into a flow channel; an outlet configured for fluidically connecting the flow channel to an external vacuum device; a permeable backing element arranged in the flow channel, the backing element being configured to receive and support a filter element; and a sealing element configured for sealing a filter element received on the backing element such that, when a negative pressure is applied to the outlet, air entering the inlet forms an airstream passing the filter element and airborne substances and/or particles, in particular microorganisms, are enriched in the filter element. an inlet configured for air intake into a flow channel; an outlet configured for fluidically connecting the flow channel to an external vacuum device; a permeable backing element arranged in the flow channel, the backing element being configured to receive and support a filter element; and a sealing element configured for sealing a filter element received on the backing element such that, when a negative pressure is applied to the outlet, air entering the inlet forms an airstream passing the filter element and airborne substances and/or particles, in particular microorganisms, are enriched in the filter element.
Method of impregnating fibre materials in strip form with a polymer material, wherein the method comprises the following steps: - feeding at least one electrically conductive fibre material in strip form to an impregnation device, wherein the electrically conductive fibre material in strip form fed to the impregnation device is electrically contacted in each case by at least two electrodes (14a, 14b), - feeding a polymer material to the impregnation device, and - applying an electrical voltage to at least one of the electrodes (14a, 14b) to generate a flow of current in an electrified section formed by the contacting of the electrodes (14a, 14b) in such a way that the electrically conductive fibre material in strip form is heated within the electrified section on account of the flow of current and as a result of the internal resistance of the electrically conductive fibre material in strip form, - wherein the polymer material is fed in such that it contacts the electrically conductive fibre material in strip form at least in the electrified section, and - wherein the electrically conductive fibre material in strip form is heated by the application of the electrical voltage in the electrified section in such a way that the polymer material fed in is melted by contact with the fibre material and/or that the already melted polymer material is kept at its melting temperature, characterized in that the two-dimensional fibre material is fed to a vibration unit of the impregnation device, wherein the vibration unit generates a movement or vibration of the fibre material in strip form. - feeding at least one electrically conductive fibre material in strip form to an impregnation device, wherein the electrically conductive fibre material in strip form fed to the impregnation device is electrically contacted in each case by at least two electrodes (14a, 14b), - feeding a polymer material to the impregnation device, and - applying an electrical voltage to at least one of the electrodes (14a, 14b) to generate a flow of current in an electrified section formed by the contacting of the electrodes (14a, 14b) in such a way that the electrically conductive fibre material in strip form is heated within the electrified section on account of the flow of current and as a result of the internal resistance of the electrically conductive fibre material in strip form, - wherein the polymer material is fed in such that it contacts the electrically conductive fibre material in strip form at least in the electrified section, and - wherein the electrically conductive fibre material in strip form is heated by the application of the electrical voltage in the electrified section in such a way that the polymer material fed in is melted by contact with the fibre material and/or that the already melted polymer material is kept at its melting temperature,
A seal structure of an exterior beltline molding for an automobile door, disposed on a door outer panel and in fit with a window glass and a B pillar trim so as to seal the gap between the window glass and door outer panel, comprising an exterior beltline molding body and an weather strip engaged with the outer surface of the exterior beltline molding body, wherein the exterior beltline molding body comprises a U-shaped skeleton and an engaging block disposed at the end of the U-shaped skeleton, the engaging block is provided with an inversed hook portion and the door outer panel is configured with a waist hole for embedding the inversed hook portion, a filler material layer is arranged between the B pillar trim and the exterior beltline molding body, the exterior beltline molding body further comprises a first sealing lip connected with the U-shaped skeleton and the first sealing lip is in fit connection with the B pillar trim, and the filler material layer is arranged within an accommodating space formed by the B pillar trim, first sealing lip, U-shaped skeleton and engaging block, characterized in that the U-shaped skeleton is provided with a first extended portion extending towards the first sealing lip and a gap is formed between the first extended portion and first sealing lip for allowing the weather strip to be embedded.
A mask assembly (150, 150A, 150B) comprising: a mask frame (151, 151A, 151B); at least two mask sheets (152, 152A, 152B) installed on the mask frame (151, 151A, 151B), each of the mask sheets (152, 152A, 152B) having the shape of an extended strip and comprising a plurality of openings (152-1A, 152-1B, 152_A1, 152-B1, 152-B3); and at least two thin shielding plates (153, 153A, 153B) having the form of a plate with a flat shape and installed on the mask frame (151, 151A, 151B) such that the thin shielding plates (153, 153A, 153B) are spaced apart from each other in a lengthwise direction of the mask sheet (152, 152A, 152B) and shield a portion of the plurality of openings (152-1A, 152-1B, 152_A1, 152-B1, 152-B3) of each mask sheet (152, 152A, 152B), wherein at least one of the mask sheets (152, 152A, 152B) and the thin shielding plates (153, 153A, 153B) comprises a shielding portion (153-2, 153B-2, 152A-3, 152B-3) between the thin shielding plates (153, 153A, 153B) spaced apart from each other, the shielding portion (153-2, 153B-2, 152A-3, 152B-3) selectively blocking at least portions of the openings (152-1A, 152-1B, 152_A1, 152-B1, 152-B3) so as to form a deposition region having a shape other than a rectangle or a square. a mask frame (151, 151A, 151B); at least two mask sheets (152, 152A, 152B) installed on the mask frame (151, 151A, 151B), each of the mask sheets (152, 152A, 152B) having the shape of an extended strip and comprising a plurality of openings (152-1A, 152-1B, 152_A1, 152-B1, 152-B3); and at least two thin shielding plates (153, 153A, 153B) having the form of a plate with a flat shape and installed on the mask frame (151, 151A, 151B) such that the thin shielding plates (153, 153A, 153B) are spaced apart from each other in a lengthwise direction of the mask sheet (152, 152A, 152B) and shield a portion of the plurality of openings (152-1A, 152-1B, 152_A1, 152-B1, 152-B3) of each mask sheet (152, 152A, 152B), wherein at least one of the mask sheets (152, 152A, 152B) and the thin shielding plates (153, 153A, 153B) comprises a shielding portion (153-2, 153B-2, 152A-3, 152B-3) between the thin shielding plates (153, 153A, 153B) spaced apart from each other, the shielding portion (153-2, 153B-2, 152A-3, 152B-3) selectively blocking at least portions of the openings (152-1A, 152-1B, 152_A1, 152-B1, 152-B3) so as to form a deposition region having a shape other than a rectangle or a square.
An energy storage module for a suction apparatus, the module comprising a housing (21, 22, 153), an air inlet and an air outlet, the module further comprising a rotor extending along a longitudinal axis, the rotor being configured to be driven in rotation about the longitudinal axis relative to the housing (21, 22, 153) by an air flow circulating between the air inlet and the air outlet, the module further comprising energy storage and restitution means configured: • to store a mechanical energy created by a rotation of the rotor driven by an air flow circulating between the air inlet and the air outlet, • and to supply stored mechanical energy to an actuable device (30, 41), only in the absence of air flow circulating between the air inlet and the air outlet. the module further comprising a rotor extending along a longitudinal axis, the rotor being configured to be driven in rotation about the longitudinal axis relative to the housing (21, 22, 153) by an air flow circulating between the air inlet and the air outlet, the module further comprising energy storage and restitution means configured: • to store a mechanical energy created by a rotation of the rotor driven by an air flow circulating between the air inlet and the air outlet, • and to supply stored mechanical energy to an actuable device (30, 41), only in the absence of air flow circulating between the air inlet and the air outlet. • to store a mechanical energy created by a rotation of the rotor driven by an air flow circulating between the air inlet and the air outlet, • and to supply stored mechanical energy to an actuable device (30, 41), only in the absence of air flow circulating between the air inlet and the air outlet.
Composition comprising, by weight, the total being 100: - 60 to 99.5% of at least one copolyamide of formula X/Y,Ar in which: • Y denotes the residues of an α, ω-diamine having a straight chain comprising from 9 to 14 carbon atoms, • Ar denotes the residues of an aromatic dicarboxylic acid, • X denotes either the residues of aminoundecanoic acid NH 2 -(CH 2) 10 -COOH, or of lactam-12 or of the corresponding amino acid, or X denotes the unit Y,x, residue from the condensation of the diamine with an aliphatic diacid (x) having between 8 and 20 carbon atoms, or X denotes the unit Y,I, residue from the condensation of the diamine with isophthalic acid, - 0.5 to 40% of at least one product chosen from plasticizers, nanofillers, polyolefins, crosslinked polyolefins and additives, - this composition comprising, in addition, an aliphatic polyamide, the amount of the aliphatic polyamide being between 5 and 40% for respectively 95 to 60% of PA X/Y, Ar. - 60 to 99.5% of at least one copolyamide of formula X/Y,Ar in which: • Y denotes the residues of an α, ω-diamine having a straight chain comprising from 9 to 14 carbon atoms, • Ar denotes the residues of an aromatic dicarboxylic acid, • X denotes either the residues of aminoundecanoic acid NH 2 -(CH 2) 10 -COOH, or of lactam-12 or of the corresponding amino acid, or X denotes the unit Y,x, residue from the condensation of the diamine with an aliphatic diacid (x) having between 8 and 20 carbon atoms, or X denotes the unit Y,I, residue from the condensation of the diamine with isophthalic acid, • Y denotes the residues of an α, ω-diamine having a straight chain comprising from 9 to 14 carbon atoms, • Ar denotes the residues of an aromatic dicarboxylic acid, • X denotes either the residues of aminoundecanoic acid NH 2 -(CH 2) 10 -COOH, or of lactam-12 or of the corresponding amino acid, or X denotes the unit Y,x, residue from the condensation of the diamine with an aliphatic diacid (x) having between 8 and 20 carbon atoms, or X denotes the unit Y,I, residue from the condensation of the diamine with isophthalic acid, - 0.5 to 40% of at least one product chosen from plasticizers, nanofillers, polyolefins, crosslinked polyolefins and additives, - this composition comprising, in addition, an aliphatic polyamide, the amount of the aliphatic polyamide being between 5 and 40% for respectively 95 to 60% of PA X/Y, Ar.
A method of sterilization for medical instruments within a chemical sterilization process, the method comprising: housing a medical instrument in a sterilization tray, wherein the sterilization tray is formed from polypropylene and a glass material comprising glass spheres and glass fibers; and subjecting the medical instrument and the sterilization tray to a chemical sterilant, wherein the chemical sterilant comprises a hydrogen peroxide sterilant. housing a medical instrument in a sterilization tray, wherein the sterilization tray is formed from polypropylene and a glass material comprising glass spheres and glass fibers; and subjecting the medical instrument and the sterilization tray to a chemical sterilant, wherein the chemical sterilant comprises a hydrogen peroxide sterilant.
A magnet having a one-piece magnet body (10, 21, 27, 39, 47, 50) comprising a first region with first magnetic properties, a second region with second magnetic properties that are different to the first properties, wherein the first region has at least one of a coercivity and a remanence value that is different from the value of the second region, and wherein the location of the first region and the second region within the magnet body (10, 21, 27, 39, 47, 50) is freely predeterminable, and wherein the first region has a different microstructure than the second region, characterised in that an average size of magnetic grains in the first region is larger than an average size of magnetic grains in the second region.
An air management system for controlling an intake air pressure and an exhaust back pressure of a fuel cell system (1, 2), the air management system comprising: - an air pressurizing device arranged to feed intake air to an air compressor of the fuel cell system (1, 2), - a pressure regulating device arranged for regulating the exhaust back pressure, - a pressure detection device for detecting an ambient air pressure, - a control device configured to control the air pressurizing device and the pressure regulating device in dependence on the detected ambient air pressure, characterised in that the control device is configured to control the intake air pressure to a predetermined first pressure level, and to control the exhaust back pressure to a predetermined second pressure level. - an air pressurizing device arranged to feed intake air to an air compressor of the fuel cell system (1, 2), - a pressure regulating device arranged for regulating the exhaust back pressure, - a pressure detection device for detecting an ambient air pressure, - a control device configured to control the air pressurizing device and the pressure regulating device in dependence on the detected ambient air pressure, characterised in that