mhurhangee/ep-ind-claims huggingface dataset:
A portable containment vessel (100; 200) to perform a pressure test on a test specimen, the portable containment vessel (100; 200) comprising: an optional base skid (116, 118); a ballistic outer enclosure (102; 202) connected to the optional base skid (116, 118) and comprising a plurality of walls (102A-102E; 202A-202E), a door (102F; 202F), and a lock to maintain the door (102F; 202F) in a closed position; a containment fluid to surround the test specimen while a pressurized test fluid is supplied to the test specimen; a sensor to indicate escape of the pressurized test fluid from the test specimen; characterized by a sample tray configured to support the test specimen, wherein the sample tray is operable through a doorway (122; 222) of the ballistic outer enclosure (102; 202) between a retracted position and an extended position; and at least one fluid-tight, at least semi-transparent membrane (240A-240F) positioned within the ballistic outer enclosure, configured to seal the test specimen within the ballistic outer enclosure (102; 202) and to retain the containment fluid. an optional base skid (116, 118); a ballistic outer enclosure (102; 202) connected to the optional base skid (116, 118) and comprising a plurality of walls (102A-102E; 202A-202E), a door (102F; 202F), and a lock to maintain the door (102F; 202F) in a closed position; a containment fluid to surround the test specimen while a pressurized test fluid is supplied to the test specimen; a sensor to indicate escape of the pressurized test fluid from the test specimen; characterized by a sample tray configured to support the test specimen, wherein the sample tray is operable through a doorway (122; 222) of the ballistic outer enclosure (102; 202) between a retracted position and an extended position; and at least one fluid-tight, at least semi-transparent membrane (240A-240F) positioned within the ballistic outer enclosure, configured to seal the test specimen within the ballistic outer enclosure (102; 202) and to retain the containment fluid.
System for measurement of mobile radio relay stations, with a measuring device which has at least one antenna and a processing device, a base station or a mobile station both of which are in each case configured to send a first signal (28, 33) to a relay station, and a relay station which is configured to generate a second signal derived from the first signal (28, 33) and send this out, wherein each antenna of the measuring device is configured to receive the first signal and the second signal, wherein the processing device of the measuring device is configured to compare the received signals (27, 28), characterised in that the processing device is configured to carry out a correlation of the first signal (28, 33) and the second signal to determine a time offset between the second signal and the first signal (28, 33).
Method for authorising the flight of an aircraft provided with a hybrid power plant, said hybrid power plant having at least one heat engine and at least one electric motor each capable of moving a mechanical system, said electric motor being electrically connected to an electric energy source comprising a number (Nbr) of electric accumulators that is greater than or equal to two, the method comprising the following steps of: - ground-based drawing of electric energy or electric power that is to be drawn from the electric energy source for a predetermined duration; - determining, for the electric accumulators, initial values (Vmes) of an operating parameter, respectively within the electric accumulators; - computing an average value (Vav) based on the initial values (Vmes); - determining a minimum value (Vmin), with said minimum value (Vmin) being equal to the lowest initial value (Vmes) from among the measured initial values (Vmes); - authorising a flight of said aircraft when a difference between the average value (Vav) and the minimum value (Vmin) is below a threshold and prohibiting the flight of said aircraft when said difference between the average value (Vav) and the minimum value (Vmin) is greater than or equal to the threshold. - ground-based drawing of electric energy or electric power that is to be drawn from the electric energy source for a predetermined duration; - determining, for the electric accumulators, initial values (Vmes) of an operating parameter, respectively within the electric accumulators; - computing an average value (Vav) based on the initial values (Vmes); - determining a minimum value (Vmin), with said minimum value (Vmin) being equal to the lowest initial value (Vmes) from among the measured initial values (Vmes); - authorising a flight of said aircraft when a difference between the average value (Vav) and the minimum value (Vmin) is below a threshold and prohibiting the flight of said aircraft when said difference between the average value (Vav) and the minimum value (Vmin) is greater than or equal to the threshold.
A turbocharger, comprising: a turbine including a turbine housing; a compressor assembly comprising a compressor housing and a compressor wheel mounted in the compressor housing and connected to a rotatable shaft for rotation therewith, the compressor wheel having blades and defining an inducer portion, the compressor housing having an air inlet wall defining an air inlet for leading air generally axially into the compressor wheel, the air inlet wall defining an annular space therein upstream of the compressor wheel, a radially innermost extremity of the annular space being open to the air inlet; an inlet-adjustment mechanism disposed in the annular space and adjustable between an open position and a closed position, the inlet-adjustment mechanism comprising a plurality of blades disposed about the air inlet and collectively circumscribing an orifice, the blades being movable radially inwardly into the air inlet when the blades are in the closed position so as to cause the orifice to have a reduced diameter relative to a nominal diameter of the inlet; characterized in that a noise-attenuator is disposed in the annular space downstream of the inlet-adjustment mechanism, the noise-attenuator being structured and arranged to define axially consecutive first and second annular cavities, each of which is open to the air inlet such that each one of the first and second annular cavities acts as a quarter-wave resonator, the first annular cavity having a radial height h1 and the second annular cavity having a radial height h2, wherein h1 and h2 are not equal. a turbine including a turbine housing; a compressor assembly comprising a compressor housing and a compressor wheel mounted in the compressor housing and connected to a rotatable shaft for rotation therewith, the compressor wheel having blades and defining an inducer portion, the compressor housing having an air inlet wall defining an air inlet for leading air generally axially into the compressor wheel, the air inlet wall defining an annular space therein upstream of the compressor wheel, a radially innermost extremity of the annular space being open to the air inlet; an inlet-adjustment mechanism disposed in the annular space and adjustable between an open position and a closed position, the inlet-adjustment mechanism comprising a plurality of blades disposed about the air inlet and collectively circumscribing an orifice, the blades being movable radially inwardly into the air inlet when the blades are in the closed position so as to cause the orifice to have a reduced diameter relative to a nominal diameter of the inlet; characterized in that a noise-attenuator is disposed in the annular space downstream of the inlet-adjustment mechanism, the noise-attenuator being structured and arranged to define axially consecutive first and second annular cavities, each of which is open to the air inlet such that each one of the first and second annular cavities acts as a quarter-wave resonator, the first annular cavity having a radial height h1 and the second annular cavity having a radial height h2, wherein h1 and h2 are not equal.
A system comprising: a frame assembly (500, 700, 800, 900) with a first portion (510, 710, 810, 910), a second portion (511, 711, 811, 911), and a gasket (515, 715), wherein: the first portion (510, 710, 810, 910) comprises a groove (512, 712) and a first U-shaped portion (503, 703, 803, 903); the second portion (511, 711, 811, 911) comprises a second U-shaped portion (503, 703, 803, 903); the first U-shaped portion (503, 703, 803, 903) and the second U-shaped portion (503, 703, 803, 903) are upside-down U-shaped portions formed on opposite sides of the frame assembly (500, 700, 800, 900) for receiving wall coverings when the frame assembly (500, 700, 800, 900) is coupled to an end of a wall (509, 709, 809, 909); the second portion (511, 711, 811, 911) is configured to fit within the groove (512, 712) of the first portion (510, 710, 810, 910) so that the frame assembly (500, 700, 800, 900) is adjustable to fit different sized walls; each of the first portion (510, 710, 810, 910) and the second portion (511, 711, 811, 911) is bent into a respective shape from a respective single piece of material; and the gasket (515, 715) acts as a joint between the first portion (510, 710, 810, 910) and the second portion (511, 711, 811, 911) at or near the groove (512, 712) of the first portion (510, 710, 810, 910) when the frame assembly (500, 700, 800, 900) is coupled to the end of the wall (509, 709, 809, 909). the first portion (510, 710, 810, 910) comprises a groove (512, 712) and a first U-shaped portion (503, 703, 803, 903); the second portion (511, 711, 811, 911) comprises a second U-shaped portion (503, 703, 803, 903); the first U-shaped portion (503, 703, 803, 903) and the second U-shaped portion (503, 703, 803, 903) are upside-down U-shaped portions formed on opposite sides of the frame assembly (500, 700, 800, 900) for receiving wall coverings when the frame assembly (500, 700, 800, 900) is coupled to an end of a wall (509, 709, 809, 909); the second portion (511, 711, 811, 911) is configured to fit within the groove (512, 712) of the first portion (510, 710, 810, 910) so that the frame assembly (500, 700, 800, 900) is adjustable to fit different sized walls; each of the first portion (510, 710, 810, 910) and the second portion (511, 711, 811, 911) is bent into a respective shape from a respective single piece of material; and the gasket (515, 715) acts as a joint between the first portion (510, 710, 810, 910) and the second portion (511, 711, 811, 911) at or near the groove (512, 712) of the first portion (510, 710, 810, 910) when the frame assembly (500, 700, 800, 900) is coupled to the end of the wall (509, 709, 809, 909).
A process for purifying recombinant human Galactocerebroside β-Galactosidase (rhGALC) from a cell culture, wherein a fraction of said cell culture comprising rhGALC is subjected to chromatography on resins, the process comprising a) A capture step in which said rhGALC is purified on a first multimodal chromatographic resin which binds through at least hydrophobic and electrostatic interactions and which comprises electrostatic ligands, optionally followed by virus inactivation and/or purification by ionic separation; b) An intermediate step in which said rhGALC is purified on a second multimodal chromatographic resin comprising an anionic and hydrophobic ligand, optionally followed by virus inactivation and/or purification by ionic separation; c) A polishing step in which said rhGALC is purified on a third chromatographic resin which is selected from the group consisting of a multimodal chromatography resin, an anion exchange resin and a hydrophobic interaction chromatography resin and wherein the third chromatographic resin comprises a ligand comprising an ether group. a) A capture step in which said rhGALC is purified on a first multimodal chromatographic resin which binds through at least hydrophobic and electrostatic interactions and which comprises electrostatic ligands, optionally followed by virus inactivation and/or purification by ionic separation; b) An intermediate step in which said rhGALC is purified on a second multimodal chromatographic resin comprising an anionic and hydrophobic ligand, optionally followed by virus inactivation and/or purification by ionic separation; c) A polishing step in which said rhGALC is purified on a third chromatographic resin which is selected from the group consisting of a multimodal chromatography resin, an anion exchange resin and a hydrophobic interaction chromatography resin and wherein the third chromatographic resin comprises a ligand comprising an ether group.
A polypeptide of formula: Z 1 -Z 2 wherein Z 1 is (i) one amino acid selected from the group of amino acids consisting of R and K or (ii) a consecutive series of 2-20 amino acids selected from the group consisting of R and K; and Z 2 is SEQ ID NO:1, provided that the carboxyterminus of Z 1 is covalently attached to the N-terminus of SEQ ID NO: 1. (i) one amino acid selected from the group of amino acids consisting of R and K or (ii) a consecutive series of 2-20 amino acids selected from the group consisting of R and K;
A method for transmitting ions in a mass spectrometer from a region of higher pressure to a region of lower pressure comprising passing the ions through a gating apparatus disposed between said higher pressure region and said lower pressure region, wherein the region of higher pressure is in an ion guide at atmospheric pressure, the gating apparatus comprising: first and second electrostatic lenses, each of said electrostatic lenses being operably controlled by one or more controllers capable of maintaining different voltages on each of said lenses; wherein the first electrostatic lens is disposed adjacent to the region of higher pressure and operates in a continuous mode having a voltage that is fixed at a predetermined value so as to allow traversal of ions through the first lens, and wherein the second electrostatic lens is disposed adjacent to the region of lower pressure and is situated downstream from said first lens, said second electrostatic lens having a voltage that varies between at least two different voltages wherein, at a first voltage, the ions can traverse through said second lens and, at a second voltage, the ions are prevented from traversing through said second electrostatic lens. first and second electrostatic lenses, each of said electrostatic lenses being operably controlled by one or more controllers capable of maintaining different voltages on each of said lenses; wherein the first electrostatic lens is disposed adjacent to the region of higher pressure and operates in a continuous mode having a voltage that is fixed at a predetermined value so as to allow traversal of ions through the first lens, and wherein the second electrostatic lens is disposed adjacent to the region of lower pressure and is situated downstream from said first lens, said second electrostatic lens having a voltage that varies between at least two different voltages wherein, at a first voltage, the ions can traverse through said second lens and, at a second voltage, the ions are prevented from traversing through said second electrostatic lens.
A system for performing a medical intervention in a subject's body, comprising a medical device comprising several segments (12, 15, 25) to be navigated through the body lumens or cavities, one or more external magnets and a control unit connected with the external magnet(s) configured to generate control signals for the external magnet(s) to generate a magnetic field having a direction to orient a magnetically responsive element in the distal end portion of the medical device, causing the distal end portion of the medical device to bend in a given direction, characterized in that, the control unit is configured to store the current direction of the distal end portion or the current direction of the magnetic field as stored direction and to subsequently limit the generation of control signals for the external magnet(s) in a way that the direction of the magnetic field is limited within a field limiting frame around the previously stored direction of the longitudinal axis of the distal end portion of the medical device for improved navigation.
An ink composition comprising: (component A) a high-molecular-weight polymerization initiator having a weight-average molecular weight of equal to or greater than 1,000; (component B) a polymerizable compound; and (component C) a colorant, wherein the component A is a hyperbranched polymer which is a dendrimer, a dendritic polymer or a star polymer having a thioether bond and three to ten of acylphosphine oxide structures, and the acylphosphine oxide structures are linked to a core of the dendrimer, the dendritic polymer or the star polymer on the side of an acyl group thereof which means that the acyl moiety of the acylphosphine oxide structure is bonded to a core of the component A through a linking group. (component A) a high-molecular-weight polymerization initiator having a weight-average molecular weight of equal to or greater than 1,000; (component B) a polymerizable compound; and (component C) a colorant,
Inductive charging device with a charging shell base body which has a coil arrangement for inductive charging of electrical devices and a charging shell surface covering the coil body, and with a support mat which is designed to rest on the charging shell surface, characterized by a magnet insert, which has magnets and a fastening contour and is designed to rest on the charging shell surface and to be fastened to the charging shell surface by means of the fastening contour, and in that the support mat has a recess for receiving the magnetic insert on the underside provided for resting on the charging shell surface.
A fire suppressant mixture comprising: an organic fire suppressant selected from the group consisting of FK 5-1-12 and 2-BTP, wherein FK-5-1-12 is dodecafluoro-2-methylpentane-3-one and 2-BTP is 2-bromo-3,3,3-trifluoropropene; carbon dioxide; and, an inorganic pressurizing gas; wherein the organic fire suppressant and the carbon dioxide are combined such that a boiling point of the fire suppressant mixture is lower than a boiling point of the organic fire suppressant. an organic fire suppressant selected from the group consisting of FK 5-1-12 and 2-BTP, wherein FK-5-1-12 is dodecafluoro-2-methylpentane-3-one and 2-BTP is 2-bromo-3,3,3-trifluoropropene; carbon dioxide; and, an inorganic pressurizing gas; wherein the organic fire suppressant and the carbon dioxide are combined such that a boiling point of the fire suppressant mixture is lower than a boiling point of the organic fire suppressant.
Retracting device, in particular for drawers, sliding doors, hinged doors, etc. having a coupling component, which can be subjected to the action of a spring and can be adjusted between a retracted position and an opened-out position, characterized in that a slide-out arrangement can be coupled directly or indirectly to the coupling component, and in that a sliding component of the slide-out arrangement can be adjusted during actuation of the slide-out arrangement.
A flexible organic electronic device, comprising: a substrate region comprising a base film formed of a thin glass film or a polymer film and a barrier film adhered by a scattering pressure-sensitive adhesive layer under the base film, wherein the scattering pressure-sensitive adhesive layer includes a pressure-sensitive adhesive binder and scattering particles having a higher refractive index than the pressure-sensitive adhesive binder, and a device region including a transparent electrode layer, an organic layer having an emitting unit and a reflective electrode layer, which are sequentially present on the base film of the substrate region, and wherein the base film has a haze of 3% to 30% and the scattering pressure-sensitive adhesive layer has a haze of 40 % or more. a substrate region comprising a base film formed of a thin glass film or a polymer film and a barrier film adhered by a scattering pressure-sensitive adhesive layer under the base film, wherein the scattering pressure-sensitive adhesive layer includes a pressure-sensitive adhesive binder and scattering particles having a higher refractive index than the pressure-sensitive adhesive binder, and a device region including a transparent electrode layer, an organic layer having an emitting unit and a reflective electrode layer, which are sequentially present on the base film of the substrate region, and wherein the base film has a haze of 3% to 30% and the scattering pressure-sensitive adhesive layer has a haze of 40 % or more.
A plasmid vector characterized by comprising: a gene promoter, a first gene that encodes a reporter protein for visualizing the activity of the gene promoter, which is a reporter gene disposed at the downstream of the gene promoter, a second gene that encodes a replication origin-binding protein, which is disposed at the downstream of the gene promoter, an internal ribosome entry site that is disposed between the first gene and the second gene, a transcription termination signal sequence for encoding a signal for terminating the transcription of the first gene and second gene, and a replication origin sequence that is recognized by the replication origin-binding protein. a gene promoter, a first gene that encodes a reporter protein for visualizing the activity of the gene promoter, which is a reporter gene disposed at the downstream of the gene promoter, a second gene that encodes a replication origin-binding protein, which is disposed at the downstream of the gene promoter, an internal ribosome entry site that is disposed between the first gene and the second gene, a transcription termination signal sequence for encoding a signal for terminating the transcription of the first gene and second gene, and a replication origin sequence that is recognized by the replication origin-binding protein.
A biodegradable container comprising a biodegradable material and a reinforced barrier film coated onto the biodegradable material, wherein the biodegradable material is at least one of: paper, cellulose, wood, biodegradable plastic, wherein the reinforced barrier film comprises graphene nanoplatelets dispersed in a biodegradable polymeric substrate, wherein the content of the polymeric substrate is 1 percent of the total weight of the biodegradable material, wherein each of the graphene nanoplatelets has a diameter in the range of approximately 0.5 to 15 micrometres, wherein the graphene nanoplatelets comprises partially reduced graphene oxide and wherein the thickness of coating of the reinforced barrier film is in a range of 5 micrometres to 50 micrometres. wherein the content of the polymeric substrate is 1 percent of the total weight of the biodegradable material, wherein each of the graphene nanoplatelets has a diameter in the range of approximately 0.5 to 15 micrometres, wherein the graphene nanoplatelets comprises partially reduced graphene oxide and wherein the thickness of coating of the reinforced barrier film is in a range of 5 micrometres to 50 micrometres.