mhurhangee/ep-ind-claims huggingface dataset:
Composition characterized in that it comprises, in a physiologically acceptable carrier, pyrrolidone-5-carboxylic acid with at least one of the compounds chosen from citrulline, arginine and asparagine, in racemic form or in D- or L-isomer form, and/or salts thereof, in a form selected from an optionally gelled, oily solution, an optionally two-phase dispersion of the lotion type, an emulsion obtained by dispersion of a fatty phase in an aqueous phase (O/W) or vice versa (W/O), or a triple emulsion (W/O/W or O/W/O) or a vesicular dispersion of ionic and/or non-ionic type, or in the form of suspensions of microspheres or nanospheres or vesicles which may be lipid or polymeric or of hydrogels for controlled release, or in anhydrous form, in aqueous form or in the form of salves, emulsions, creams, milks, ointments, impregnated pads, syndets, solutions, sera, gels, sprays or aerosols, foams, suspensions, lotions or sticks, for its use as medicament in the treatment and/or prevention of atopic dermatitis.
A receiver (40, 80, 100) comprising: a plurality of receiver modules (42, 44, 46, 48; 82, 84, 86, 88; 102, 104), wherein each receiver module comprises a plurality of channels, each channel comprising a receiver antenna (3, 13) and a mixer (5, 15) for converting an output of the respective antenna to an analog intermediate frequency signal having a frequency; a plurality of multiplexer modules, each multiplexer module associated with one of the plurality of receiver modules, wherein each multiplexer module is configured to combine the analog intermediate frequency signals of the respective channels into a receiver module analog intermediate frequency signal; and a power combiner module (50; 90, 92; 106) having a plurality of inputs and an output, the power combiner module configured to receive the receiver module analog intermediate frequency signals from each of the plurality of multiplexer modules and to combine said receiver module intermediate frequency signals to generate a composite output signal at the output of the power combiner module, wherein the power combiner is a passive device, wherein: the frequency of the intermediate frequency signal of each channel of each receiver module is different. a plurality of receiver modules (42, 44, 46, 48; 82, 84, 86, 88; 102, 104), wherein each receiver module comprises a plurality of channels, each channel comprising a receiver antenna (3, 13) and a mixer (5, 15) for converting an output of the respective antenna to an analog intermediate frequency signal having a frequency; a plurality of multiplexer modules, each multiplexer module associated with one of the plurality of receiver modules, wherein each multiplexer module is configured to combine the analog intermediate frequency signals of the respective channels into a receiver module analog intermediate frequency signal; and a power combiner module (50; 90, 92; 106) having a plurality of inputs and an output, the power combiner module configured to receive the receiver module analog intermediate frequency signals from each of the plurality of multiplexer modules and to combine said receiver module intermediate frequency signals to generate a composite output signal at the output of the power combiner module, wherein the power combiner is a passive device, wherein: the frequency of the intermediate frequency signal of each channel of each receiver module is different.
A composite sheeting for protecting field-cultivated crop or horticultural plants comprising: - a first flexible, light-transparent sheet of synthetic material exhibiting at least one perforated zone, - at least one second flexible, air-tight sheet of synthetic material held on the first sheet, wherein said second sheet tightly covers the or each perforated zone of the first sheet, characterised in that the first and second sheets are fastened to one another by at least two fastening lines that are spaced apart from one another, wherein the or each perforated zone is located between two fastening lines, such that due to the greenhouse effect, cushions of warm air may be formed between the two sheets (1, 2) by the expansion of the air imprisoned in the cultivation enclosure formed by the sheeting. - a first flexible, light-transparent sheet of synthetic material exhibiting at least one perforated zone, - at least one second flexible, air-tight sheet of synthetic material held on the first sheet, wherein said second sheet tightly covers the or each perforated zone of the first sheet, characterised in that the first and second sheets are fastened to one another by at least two fastening lines that are spaced apart from one another, wherein the or each perforated zone is located between two fastening lines, such that due to the greenhouse effect, cushions of warm air may be formed between the two sheets (1, 2) by the expansion of the air imprisoned in the cultivation enclosure formed by the sheeting.
A method of generating a dose-response curve for an instrument configured to determine an analyte by ligand-binding analysis with a selected assay lot, the method comprising: measuring response values to one or more calibrators using a plurality of source instruments and a plurality of assay lots; generating a core dose-response curve defined by a model including a model parameter, wherein the core dose-response curve includes at least one parameter estimate of the model parameter that fits the model to the response values of the one or more calibrators, wherein the parameter estimate is associated with at least one probability density, and wherein the probability density is a combination of a lot-specific density contribution and an instrument-specific density contribution; receiving, from the instrument, measured response values of one or more calibration adjusters on the instrument using the selected assay lot; generating an instrument-specific, lot-specific dose-response curve using the model, the at least one parameter estimate, the at least one probability density, and the measured response values of the one or more calibration adjusters; and transmitting the instrument-specific, lot-specific dose-response curve to the instrument. measuring response values to one or more calibrators using a plurality of source instruments and a plurality of assay lots; generating a core dose-response curve defined by a model including a model parameter, wherein the core dose-response curve includes at least one parameter estimate of the model parameter that fits the model to the response values of the one or more calibrators, wherein the parameter estimate is associated with at least one probability density, and wherein the probability density is a combination of a lot-specific density contribution and an instrument-specific density contribution; receiving, from the instrument, measured response values of one or more calibration adjusters on the instrument using the selected assay lot; generating an instrument-specific, lot-specific dose-response curve using the model, the at least one parameter estimate, the at least one probability density, and the measured response values of the one or more calibration adjusters; and transmitting the instrument-specific, lot-specific dose-response curve to the instrument.
A lighting device, in particular a beacon device, to be installed on a tower, the device including: - an electric energy generating unit comprising: - at least one photovoltaic module able to be wound over at least part of the circumference of the tower, preferably over the entire circumference of the tower, - a support keeping the photovoltaic module wound over the tower, the support comprising a third connector and a fourth connector, and - a positive electrode and a negative electrode, - a light energy generating unit configured to be fastened on the tower, the light energy generating unit comprising: - a housing having a periphery, - a storage member storing the electric energy generated by the electric energy generating unit, - a regulating member regulating the charge of the storage member, and - a light-emitting member supplied by the storage member, the light-emitting member extending over the periphery of the housing, wherein the lighting device comprises a body having a upper part, a lower part and a median part defined by the upper part and the lower part, the upper part including a first electrical track and a second electrical track, the third connector being configured to connect electrically the first electrical track to one among the positive electrode and the negative electrode and the fourth connector being configured to connect electrically the second electrical track to one among the positive electrode and the negative electrode. - an electric energy generating unit comprising: - at least one photovoltaic module able to be wound over at least part of the circumference of the tower, preferably over the entire circumference of the tower, - a support keeping the photovoltaic module wound over the tower, the support comprising a third connector and a fourth connector, and - a positive electrode and a negative electrode, - at least one photovoltaic module able to be wound over at least part of the circumference of the tower, preferably over the entire circumference of the tower, - a support keeping the photovoltaic module wound over the tower, the support comprising a third connector and a fourth connector, and - a positive electrode and a negative electrode, - a light energy generating unit configured to be fastened on the tower, the light energy generating unit comprising: - a housing having a periphery, - a storage member storing the electric energy generated by the electric energy generating unit, - a regulating member regulating the charge of the storage member, and - a light-emitting member supplied by the storage member, the light-emitting member extending over the periphery of the housing, - a housing having a periphery, - a storage member storing the electric energy generated by the electric energy generating unit, - a regulating member regulating the charge of the storage member, and - a light-emitting member supplied by the storage member, the light-emitting member extending over the periphery of the housing,
A compressor comprising a casing housing a plurality of compression stages, each comprising a bladed rotor wheel (RM 1 -RM 6) driven in rotation, the first stage being preceded by an inlet stator presenting stationary vanes of adjustable pitch, having pivots that pass through said casing, and an air reinjection circuit, wherein said air reinjection circuit includes injection holes passing through at least some of the vanes of said inlet stator, and opening out internally in the vicinity of their pivots, into the inlet stream of the compressor substantially tangentially relative to the casing, wherein each above-mentioned stationary vane includes a base of circular outline with the pivots projecting outwards from the center thereof, said base is housed in a housing in an outer shroud of the casing, and said injection holes extend in inclined manner through the base, characterized in that air inlet holes extending in said outer shroud of the casing open out into an annular cavity defined around said pivot and defined by the radially outer surface of said inlet stator, said casing outer shroud, a flat annular gasket and a bushing forming the bearing of said pivot, said injection holes extending between said annular cavity and the inside of the casing.
A non-transitory computer-readable storage medium comprising instructions stored thereon that, when executed by at least one processor, are configured to cause a computing system to: receive a representation of a three-dimensional space; determine a first position and a first orientation of a computing device based on the representation of the three-dimensional space while the computing device is aimed at a target location in the three dimensional space; determine a first ray within the representation of the three-dimensional space that extends from the first position of the computing device toward the target location based on the first position and first orientation of the computing device; determine a second position and a second orientation of the computing device based on the representation of the three-dimensional space while the computing device is aimed at the target location; determine a second ray within the representation of the three-dimensional space that extends from the second position of the computing device toward the target location based on the second position and second orientation of the computing device; determine coordinates of the target location within the three-dimensional space based on the first ray and the second ray; and update the representation of the three-dimensional space to include the target location. receive a representation of a three-dimensional space; determine a first position and a first orientation of a computing device based on the representation of the three-dimensional space while the computing device is aimed at a target location in the three dimensional space; determine a first ray within the representation of the three-dimensional space that extends from the first position of the computing device toward the target location based on the first position and first orientation of the computing device; determine a second position and a second orientation of the computing device based on the representation of the three-dimensional space while the computing device is aimed at the target location; determine a second ray within the representation of the three-dimensional space that extends from the second position of the computing device toward the target location based on the second position and second orientation of the computing device; determine coordinates of the target location within the three-dimensional space based on the first ray and the second ray; and update the representation of the three-dimensional space to include the target location.
Device for supplying direct current to a rotor winding of a synchronous electric rotating machine, of the type comprising: - an exciter including a stator electrically connected to the input supply, and a rotor provided with a winding, - a rectifier electrically connected to the output of the winding of the rotor of the exciter for supplying power to the rotor of the synchronous machine, the exciter being an asynchronous electric machine suitable for delivering an alternating output current having q phases, to the rectifier, characterised in that an input supply is a voltage inverter capable of delivering a polyphase alternating current, the number q of phases of the output current of the exciter is equal to 7 or 9, preferably equal to 7, and wherein the rotor of the exciter includes a cylindrical body and Ne notches for receiving the winding, the Ne notches being arranged within the cylindrical body, wherein each coil of the winding includes at least one electrically conducting coil turn, the coil turns being arranged within the notches according to a wave mode and according to a winding pitch Yc and wherein the number of notches Ne and the winding pitch Yc are integers and coprime. - an exciter including a stator electrically connected to the input supply, and a rotor provided with a winding, - a rectifier electrically connected to the output of the winding of the rotor of the exciter for supplying power to the rotor of the synchronous machine,
A liquid supply for an electronic cigarette, the liquid supply being configured for connecting with an atomizing device, the liquid supply comprising: a housing defining a liquid chamber configured for storing tobacco liquid, the housing having an open end configured for connecting with the atomizing device; a liquid outlet defined in the open end; a movable valve being movably arranged in the open end; and an elastic element elastically abutting against the movable valve such that the valve seals the liquid outlet; wherein when the liquid supply is coupled to the atomizing device, the valve is capable of being pushed by the atomizing device to a position where the liquid outlet is opened; wherein the valve is a sealing piece movable along an axial direction of the housing, the elastic element comprises a spring, and an end of the spring abuts against the sealing piece; characterized in that the liquid supply further comprises an assembling holder arranged in the open end, wherein the assembling holder comprises a step portion, when the liquid supply is not engaged with the atomized device, the sealing piece hermetically abuts against the step portion, and no liquid outlet is formed; when the liquid supply is engaged with the atomizing device, an end of the atomizing device is inserted into the open end, and pushes the sealing piece to form the liquid outlet between the sealing piece and the step portion when the sealing piece is pushed open, and the tobacco liquid flows into the atomizing device. a housing defining a liquid chamber configured for storing tobacco liquid, the housing having an open end configured for connecting with the atomizing device; a liquid outlet defined in the open end; a movable valve being movably arranged in the open end; and an elastic element elastically abutting against the movable valve such that the valve seals the liquid outlet; wherein when the liquid supply is coupled to the atomizing device, the valve is capable of being pushed by the atomizing device to a position where the liquid outlet is opened; wherein the valve is a sealing piece movable along an axial direction of the housing, the elastic element comprises a spring, and an end of the spring abuts against the sealing piece; characterized in that the liquid supply further comprises an assembling holder arranged in the open end, wherein the assembling holder comprises a step portion, when the liquid supply is not engaged with the atomized device, the sealing piece hermetically abuts against the step portion, and no liquid outlet is formed; when the liquid supply is engaged with the atomizing device, an end of the atomizing device is inserted into the open end, and pushes the sealing piece to form the liquid outlet between the sealing piece and the step portion when the sealing piece is pushed open, and the tobacco liquid flows into the atomizing device.
A method for reducing iron oxide to metallic iron, comprising: providing a top gas stream from a direct reduction shaft furnace (110, 210, 310); removing carbon dioxide from the top gas stream using a carbon dioxide removal system (140, 240); heating the top gas stream in a gas heater (142, 242) to form a reducing gas stream and providing the reducing gas stream to the direct reduction shaft furnace (110, 210, 310) to reduce the iron oxide to the metallic iron; preheating a natural gas stream in a preheater; reacting the preheated natural gas stream in a thermal reaction system (168, 268, 342) to form a synthesis gas stream, wherein the thermal reaction system (168, 268, 342) comprises a hot oxygen burner (172, 272, 352) and a nozzle (174, 274, 354) that utilize oxygen and a fuel; and adding the synthesis gas stream to the reducing gas stream. providing a top gas stream from a direct reduction shaft furnace (110, 210, 310); removing carbon dioxide from the top gas stream using a carbon dioxide removal system (140, 240); heating the top gas stream in a gas heater (142, 242) to form a reducing gas stream and providing the reducing gas stream to the direct reduction shaft furnace (110, 210, 310) to reduce the iron oxide to the metallic iron; preheating a natural gas stream in a preheater; reacting the preheated natural gas stream in a thermal reaction system (168, 268, 342) to form a synthesis gas stream, wherein the thermal reaction system (168, 268, 342) comprises a hot oxygen burner (172, 272, 352) and a nozzle (174, 274, 354) that utilize oxygen and a fuel; and adding the synthesis gas stream to the reducing gas stream.
A message transmission method performed by a network side device, the method comprising: determining a PTP version of a sending port set by the network side device; sending a first PTP message that uses the PTP version of the sending port through the sending port; wherein the determining the PTP version of the sending port comprises: determining an identified PTP version used by a second PTP message received by a receiving port corresponding to the sending port as the PTP version of the sending port. determining a PTP version of a sending port set by the network side device; sending a first PTP message that uses the PTP version of the sending port through the sending port; wherein the determining the PTP version of the sending port comprises: determining an identified PTP version used by a second PTP message received by a receiving port corresponding to the sending port as the PTP version of the sending port.
A method of making an implantable prosthesis comprising preparing a shell of a breast implant or silicone tissue expander; providing one or more samples of graft material sized and shaped to conform to a portion of a surface of the breast implant or tissue expander; attaching the graft material to the shell of the breast implant or tissue expander prior to curing the shell of the breast implant or tissue expander; and curing the shell of the breast implant or tissue expander and the graft material.
A method of laying solar cell modules together with tiles on the roof of a building, wherein the tiles laid together with solar cell modules in a row are displaced from tiles of an adjacent row of tiles only in which the tiles are arranged side by side, comprising: laying tiles from the right part of the roof towards the left part thereof, thus forming a first row, then laying tiles and solar cell modules in a second, upper row on the roof in a staggered fashion, preparing various types of waterproof members that have different widths, then selecting a waterproof member of any type from said various types of waterproof members, in accordance with the displacement, wherein the second, upper row has (a) adjacent solar cell modules laid side by side or (b) a solar cell module and a tile laid side by side, with the waterproof member interposed therebetween, wherein the waterproof member has a narrower width than a tile. laying tiles from the right part of the roof towards the left part thereof, thus forming a first row, then laying tiles and solar cell modules in a second, upper row on the roof in a staggered fashion, preparing various types of waterproof members that have different widths, then selecting a waterproof member of any type from said various types of waterproof members, in accordance with the displacement, wherein the second, upper row has (a) adjacent solar cell modules laid side by side or (b) a solar cell module and a tile laid side by side, with the waterproof member interposed therebetween, wherein the waterproof member has a narrower width than a tile.