mhurhangee/ep-ind-claims huggingface dataset:
Process of operating the air conditioning system of a cab of a machine, said air conditioning system comprising: - a circuit for supplying said cab with air (F R, F E) coming from a recycling branch fed with air (F R) coming from the interior of said cab and an exterior branch fed with air (F E) coming from the exterior of said cab; - a blowing device for providing an air flow (F E) inside said circuit; - filtration means (11, 11a, 11b,19) for removing pollutants from the air (F R, F E) blown in the cab through said circuit; said air conditioning system being operable to balance, in the supplied air flow, the amount of air coming from the recycling branch versus the amount of air coming from the exterior branch; said process comprising a regular procedure wherein the air conditioning system is operated to balance the air supplied by each of the recycling and exterior branches, said process being characterized in that it comprises the monitoring of a signal indicative of a potential contamination of the cab and, upon the detection of such signal, a flushing procedure wherein the air-conditioning system is operated to: - increase the flow of air (F E) supplied in the cab by the blowing device through the circuit; - balance said flow of air to supply air (F E) coming only from the exterior branch by closing the recycling branch; and - open an exhaust flap within the cab for increasing the flow of air evacuated from said cab, said flushing procedure being performed for a determined period of time before performing again the regular procedure. - a circuit for supplying said cab with air (F R, F E) coming from a recycling branch fed with air (F R) coming from the interior of said cab and an exterior branch fed with air (F E) coming from the exterior of said cab; - a blowing device for providing an air flow (F E) inside said circuit; - filtration means (11, 11a, 11b,19) for removing pollutants from the air (F R, F E) blown in the cab through said circuit; - increase the flow of air (F E) supplied in the cab by the blowing device through the circuit; - balance said flow of air to supply air (F E) coming only from the exterior branch by closing the recycling branch; and - open an exhaust flap within the cab for increasing the flow of air evacuated from said cab,
An aircraft turbine engine, comprising a gas generator and a fan arranged upstream of the gas generator and configured to generate a main gas flow, part of which flows in a duct of the gas generator to form a primary flow, and another part of which flows in a duct around the gas generator to form a secondary flow, the gas generator comprising a low pressure body which comprises a rotor driving the fan by means of a ring gear of a mechanical reduction gear of the planetary type, the turbine engine further comprising an electrical machine which comprises a rotor and a stator extending around the rotor, characterised in that the electrical machine is mounted coaxially around the reduction gear and its rotor is driven in rotation by the ring gear of the reduction gear.
A method of preparing a positive electrode active material for a secondary battery, the method comprising: providing a positive electrode active material precursor containing nickel, cobalt, and manganese and having a nickel content accounting for 60 mol% or more of total metals, wherein the positive electrode active material precursor is represented by [Ni a Co b Mn c M d] 2 where M is one or more metal elements selected from the group consisting of Al, Mg, V, Ti, Zr, W, Sn, and Nb, 0.6≤a<1, a+b+c+d=1, 0<b≤0.4, 0<c≤0.3, and 0≤d≤0.05; and forming a lithium transition metal oxide by mixing the positive electrode active material precursor, a lithium source material, a first firing additive, a second firing additive, and a third firing additive and performing primary firing, wherein the first firing additive is a lithium-containing compound, the second firing additive is a carbonate ion-containing compound and is at least one selected from the group consisting of BaCO 3, NaCO 3, MgCO 3, and CaCO 3, and the third firing additive is a boron-containing compound. providing a positive electrode active material precursor containing nickel, cobalt, and manganese and having a nickel content accounting for 60 mol% or more of total metals, wherein the positive electrode active material precursor is represented by [Ni a Co b Mn c M d] 2 where M is one or more metal elements selected from the group consisting of Al, Mg, V, Ti, Zr, W, Sn, and Nb, 0.6≤a<1, a+b+c+d=1, 0<b≤0.4, 0<c≤0.3, and 0≤d≤0.05; and forming a lithium transition metal oxide by mixing the positive electrode active material precursor, a lithium source material, a first firing additive, a second firing additive, and a third firing additive and performing primary firing, wherein the first firing additive is a lithium-containing compound, the second firing additive is a carbonate ion-containing compound and is at least one selected from the group consisting of BaCO 3, NaCO 3, MgCO 3, and CaCO 3, and the third firing additive is a boron-containing compound.
Gas mixture containing 50% of nitrous oxide (N 2 O) and at least 20% of oxygen (O 2) (mol%) for use as an inhalable drug for treating chronic pain in a human patient treated with several drug substances from at least two different therapeutic classes, said drug substances being chosen from opioids, antiepileptics (AEs), antidepressants (ADs) and local anaesthetics.
A method implemented by computer means of a communicating entity, for inserting a reference signal for phase tracking, said communicating entity using a discrete Fourier transformation spread orthogonal frequency division multiplexing modulator, characterized in that the method comprises: - obtaining a succession of signal samples by inserting said reference signal for phase tracking within a succession of data samples, according to at least one insertion pattern chosen among pre-defined patterns with respect to predetermined criteria of communication conditions, and - feeding said modulator with a succession of signal blocks obtained from said succession of signal samples, so as to apply the discrete Fourier transformation after the insertion of the reference signal for phase tracking; wherein a transformed succession of signal blocks resulting at least from the application of the discrete Fourier transformation to said succession of signal blocks includes transformed signal blocks, each transformed signal block being mapped to active carriers, and wherein said chosen pattern is composed of groups of at least two reference signal for phase tracking, two groups being separated by data samples. characterized in that the method comprises: - obtaining a succession of signal samples by inserting said reference signal for phase tracking within a succession of data samples, according to at least one insertion pattern chosen among pre-defined patterns with respect to predetermined criteria of communication conditions, and - feeding said modulator with a succession of signal blocks obtained from said succession of signal samples, so as to apply the discrete Fourier transformation after the insertion of the reference signal for phase tracking; - obtaining a succession of signal samples by inserting said reference signal for phase tracking within a succession of data samples, according to at least one insertion pattern chosen among pre-defined patterns with respect to predetermined criteria of communication conditions, and - feeding said modulator with a succession of signal blocks obtained from said succession of signal samples, so as to apply the discrete Fourier transformation after the insertion of the reference signal for phase tracking; wherein a transformed succession of signal blocks resulting at least from the application of the discrete Fourier transformation to said succession of signal blocks includes transformed signal blocks, each transformed signal block being mapped to active carriers, and wherein said chosen pattern is composed of groups of at least two reference signal for phase tracking, two groups being separated by data samples.
A catheter comprising a catheter shaft that has at least one lumen (11L, 12L), at least one ring-shaped electrode (201 to 210) that is mounted at an outer peripheral surface of a distal end portion of the catheter shaft, and a lead wire (301 to 310) that is made up of a metal core wire covered with a resin and that is connected to the ring-shaped electrode (201 to 210), wherein the catheter shaft is a braided tube that is made up of a braid (135, 183) that is embedded in a tube wall over an entire length of the catheter shaft, the braid (135, 183) being formed from a metal element wire or a metal element-wire bundle, wherein a side hole that extends from the outer peripheral surface to the lumen (11L, 12L) is formed in the tube wall at the distal end portion of the catheter shaft in correspondence with a mounting position of the ring-shaped electrode (201 to 210) without cutting the metal element wire or the metal element-wire bundle, wherein the lead wire (301 to 310) is connected to the ring-shaped electrode (201 to 210) by joining a distal end portion of the lead wire (301 to 310) to an inner peripheral surface of the ring-shaped electrode (201 to 210), and the lead wire (301 to 310) is inserted into the side hole and thus passes through a mesh of the braid (135, 183), enters the lumen (11L, 12L) of the catheter shaft, and extends in the lumen (11L, 12L), wherein the side hole in which the lead wire (301 to 310) is inserted is filled with a resin material, and wherein, when a diameter of the lead wire (301 to 310) is d and a diagonal length of the mesh of the braid (135, 183) in an axial direction of the catheter shaft is G, a G/d value is 1.2 or greater. wherein the catheter shaft is a braided tube that is made up of a braid (135, 183) that is embedded in a tube wall over an entire length of the catheter shaft, the braid (135, 183) being formed from a metal element wire or a metal element-wire bundle, wherein a side hole that extends from the outer peripheral surface to the lumen (11L, 12L) is formed in the tube wall at the distal end portion of the catheter shaft in correspondence with a mounting position of the ring-shaped electrode (201 to 210) without cutting the metal element wire or the metal element-wire bundle, wherein the lead wire (301 to 310) is connected to the ring-shaped electrode (201 to 210) by joining a distal end portion of the lead wire (301 to 310) to an inner peripheral surface of the ring-shaped electrode (201 to 210), and the lead wire (301 to 310) is inserted into the side hole and thus passes through a mesh of the braid (135, 183), enters the lumen (11L, 12L) of the catheter shaft, and extends in the lumen (11L, 12L), wherein the side hole in which the lead wire (301 to 310) is inserted is filled with a resin material, and wherein, when a diameter of the lead wire (301 to 310) is d and a diagonal length of the mesh of the braid (135, 183) in an axial direction of the catheter shaft is G, a G/d value is 1.2 or greater.
A device (100; 200; 300) for coating a contoured surface comprising: a handle (104; 204; 304); an applicator (102; 202; 302) pliantly affixed to the handle (104; 204; 304), the applicator (102; 202; 302) comprising a plurality of spaced geometries; the applicator (102; 202; 302) characterized by a flexible microreplicated material that comprises the plurality of geometries, wherein the geometries are selected from the group consisting of pins, posts, cones, cylinders, pyramids, mushroom heads, cube corners, and J-hooks; wherein upon contact with the contoured surface, the geometries are in point contact with the contoured surface. a handle (104; 204; 304); an applicator (102; 202; 302) pliantly affixed to the handle (104; 204; 304), the applicator (102; 202; 302) comprising a plurality of spaced geometries; the applicator (102; 202; 302) characterized by a flexible microreplicated material that comprises the plurality of geometries, wherein the geometries are selected from the group consisting of pins, posts, cones, cylinders, pyramids, mushroom heads, cube corners, and J-hooks; wherein upon contact with the contoured surface, the geometries are in point contact with the contoured surface.
Roll-cage comprising at least a "U"-shaped central bar whose ends have a base for the attachment of said central bar to a vehicle bodywork and on each side of the central bar, at least one extension protruding from the descending curve of central bar, connecting to the base, said extension being welded to the central bar by soldering, the roll-cage comprises a finish cover attached to each extension of the roll-cage and embedded in the central bar, said finish cover comprising single body parts shaped in the form of two fitting symmetrical parts (301, 302) attached together via tongue and groove, placed on the exterior edges of the cover, a hollow inner region and having a main segment starting from the base and heading towards the central bar, with a direction coinciding with the direction of an upper portion of the extension and a secondary segment projecting from a vicinity of the base of the main segment, said secondary segment accompanying the direction of a lower portion of the extension of the roll-cage, wherein ends of the main segment and of the secondary segment having an opening with a section coinciding with the diameter of the central bar and of the extension of the roll-cage and the hollow inner region comprising a metal structure having flanges with through holes for positioning of fixing means for attaching the cover to the central bar of the roll-cage, having in the ends of the metal structure semicircular shaped brackets which are positioned adjacent to the openings of the cover.
Blanking device, for blanking off a motor vehicle front face air inlet, comprising: ▪ a support frame in which is installed a set of flaps pivoting between a blanking-off position and an open position, ▪ at least one control element controlling the positioning of the flaps, the control element including: ∘ an electrical actuator, ∘ a sliding element comprising at least one first rack, the flaps including, at least at one of their ends, a pinion placed on their pivot axis and meshing with the first rack, characterized in that the actuator comprises an output pinion and the sliding element comprises a second rack meshing with the outlet pinion of the actuator, characterized in that the outlet pinion turns about a rotation axis perpendicular to the general plane defined by the pivot axes of the flaps and the second rack is then oriented so that its teeth point in a direction parallel to the general plane defined by the pivot axes of the flaps in order to mesh with the outlet pinion. ▪ a support frame in which is installed a set of flaps pivoting between a blanking-off position and an open position, ▪ at least one control element controlling the positioning of the flaps, ∘ an electrical actuator, ∘ a sliding element comprising at least one first rack,
A drainage valve (1,1') comprising an inlet opening and an outlet opening extending in opposite directions from a valve housing, a movable valve member (3,3') within the housing and an operating lever connected to the valve member (3,3'), said valve member (3,3') is movable between an open position in which the valve member (3,3') is arranged to permit flow through the valve (1,1') and a closed position where the valve member (3,3') prevents flow through the valve (1,1'), wherein the valve member (3,3') is configured such that the valve member (3,3') is moved from the closed position to the open position by rotating the operating lever a first rotating angle a between about 2 degrees to about 80 degrees relative to the flow direction in the valve housing, and characterized in that the valve (1,1') has a design in which the operating lever is arranged for being rotated a second rotating angle β after completion of the first rotating angle α, said first and second rotation angles defines an operating angle χ of about 140 to about 180 degrees and wherein the valve is in the open position after rotation of the second rotating angle β, and wherein the valve (1,1') is configured such that the operation lever substantially flushes with one or more elements attached to the inlet opening when the valve is in the closed position and with one or more elements attached to the outlet opening when the valve (1,1') is in the open position.
An ophthalmic treatment device for photobiomodulation of a retina comprising: a treatment light source configured to produce a continuous wave or quasi-continuous wave output beam having: a wavelength in the range of 600nm to 1000nm; and a power in the range of 1mW to 500mW; a beam homogenizing module configured to homogenize the output beam of the treatment light source; a beam shaping module configured to modify the output beam profile to produce a treatment light beam with an annular light beam profile; and a beam delivery and viewing module that allows an operator to observe and operate to deliver the treatment light beam to the treatment location on the retina with an intensity in the range of 1mW/cm 2 to 500mW/cm 2, characterized in that the output beam is an annular light beam profile having a central void with a diameter in the range of 1mm to 2.5mm, preferably in the range of 1.5mm to 2mm, on the retina a treatment light source configured to produce a continuous wave or quasi-continuous wave output beam having: a wavelength in the range of 600nm to 1000nm; and a power in the range of 1mW to 500mW; a wavelength in the range of 600nm to 1000nm; and a power in the range of 1mW to 500mW; a beam homogenizing module configured to homogenize the output beam of the treatment light source; a beam shaping module configured to modify the output beam profile to produce a treatment light beam with an annular light beam profile; and a beam delivery and viewing module that allows an operator to observe and operate to deliver the treatment light beam to the treatment location on the retina with an intensity in the range of 1mW/cm 2 to 500mW/cm 2, characterized in that the output beam is an annular light beam profile having a central void with a diameter in the range of 1mm to 2.5mm, preferably in the range of 1.5mm to 2mm, on the retina
Non-therapeutic use of a composition comprising at least one D-amino acid selected from the group consisting of D-asparagine, D-valine, D-allo-threonine, D-lysine, D-glutamine, D-histidine, D-phenylalanine, and D-tryptophan, as a skin-whitening agent.
Electrodeposition coating material preparable by separately melting at least one externally crosslinking binder and at least one crosslinking agent and supplying the melts to a mixing unit in which the melts are homogenized, introducing the resultant melt into an aqueous medium, and emulsifying it therein, characterized in that the mixing unit is a static mixer.
Winding device for a workstation of a textile machine producing cross-wound bobbins comprising a winding frame for mounting a cross-wound bobbin, the tube of which is clamped during winding operation between tube mounts of the winding frame, means for traversing a thread to be wound and a drive roller, which drives the cross-wound bobbin by frictional connection, wherein a tube mount can be mounted axially against the effect of a loading means into an open position for inserting a new tube and the winding frame has locking means which ensure the spacing of the tube mount from the drive roller, characterised in that the locking means are formed by a spacer with limited mobility and arranged in the winding frame, which spacer is supported in its locking position on a fixed part of the workstation and a clamping device cooperating with the spacer, wherein the clamping device is arranged and charged by the loading means so that it clamps the spacer with a non-inserted tube and fixes it in this way in its current position.
Decoder configured to decode a multi-component picture spatially sampling a scene with respect to different components (206, 208, 210), by reconstructing a first component signal (256 1; 270 1) relating to a first component of the multi-component picture from a data stream; reconstructing a portion of a second component signal (256' 2; 270' 2) relating to a second component of the multi-component picture from a spatially corresponding portion of the reconstructed first component signal (256 1; 270 1) and a correction signal (256 2; 270 2) derived from the data stream, wherein the first and second components are colour components and the first component signal is a prediction residual of a temporal or spatial prediction of the first component of the multi-component picture and the second component signal is a prediction residual of a temporal or spatial prediction of the second component of the multi-component picture, wherein the decoder is configured to, in reconstructing the second component signal, adaptively set a first weight (α 2) at which the spatially corresponding portion of the reconstructed first component signal influences the reconstruction of the second component signal at a sub-picture granularity, depending on signalling in the data stream.
An antenna system for communicating signals having radio frequencies in a plurality of radio frequency, RF, bands, the antenna system comprising: a support assembly; a primary reflector that is coupled to the support assembly, wherein the primary reflector is configured to receive and reflect RF signals in the plurality of RF frequency bands; a feed assembly that is movably coupled to the support assembly; a first feed fixedly coupled to the feed assembly, where the first feed is configured to communicate RF signals in a first frequency band of the plurality of frequency bands; a second feed fixedly coupled to the feed assembly, where the second feed is configured to communicate RF signals in a second frequency band of the plurality of frequency bands; and a first actuator configured to move the feed assembly from a first feed assembly position, where the first feed is positioned along a first signal path with the primary reflector, to a second feed assembly position, where the second feed is positioned along a second signal path with the primary reflector; wherein the antenna system is configured such that: when the feed assembly is in the first feed assembly position, the second feed is not positioned to communicate RF signals in the second frequency band; and when the feed assembly is in the second feed assembly position, the first feed is not positioned to communicate RF signals in the first frequency band. a support assembly; a primary reflector that is coupled to the support assembly, wherein the primary reflector is configured to receive and reflect RF signals in the plurality of RF frequency bands; a feed assembly that is movably coupled to the support assembly; a first feed fixedly coupled to the feed assembly, where the first feed is configured to communicate RF signals in a first frequency band of the plurality of frequency bands; a second feed fixedly coupled to the feed assembly, where the second feed is configured to communicate RF signals in a second frequency band of the plurality of frequency bands; and a first actuator configured to move the feed assembly from a first feed assembly position, where the first feed is positioned along a first signal path with the primary reflector, to a second feed assembly position, where the second feed is positioned along a second signal path with the primary reflector; wherein the antenna system is configured such that: when the feed assembly is in the first feed assembly position, the second feed is not positioned to communicate RF signals in the second frequency band; and when the feed assembly is in the second feed assembly position, the first feed is not positioned to communicate RF signals in the first frequency band. when the feed assembly is in the first feed assembly position, the second feed is not positioned to communicate RF signals in the second frequency band; and when the feed assembly is in the second feed assembly position, the first feed is not positioned to communicate RF signals in the first frequency band.