mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a network node, the method comprising: estimating spatial transmission information, STI, for each of a plurality of wireless devices by logically projecting a spatial channel matrix of received signals from each of said wireless devices onto a set of spatial orthonormal functions or by filtering of said received signals using a set of spatial orthonormal functions; determining spatial separability among the plurality of wireless devices based at least in part on the estimated STI for each of the plurality of wireless devices; and causing scheduling of the plurality of wireless devices on the same communication resources based at least in part on the determined spatial separability. estimating spatial transmission information, STI, for each of a plurality of wireless devices by logically projecting a spatial channel matrix of received signals from each of said wireless devices onto a set of spatial orthonormal functions or by filtering of said received signals using a set of spatial orthonormal functions; determining spatial separability among the plurality of wireless devices based at least in part on the estimated STI for each of the plurality of wireless devices; and causing scheduling of the plurality of wireless devices on the same communication resources based at least in part on the determined spatial separability.
A method for separating lignin from an alcoholic basic lignin solution, comprising the steps (i) adjusting an alcohol content of 50% to 80% by weight in the alcoholic mixture comprising lignin (a) adding sulfuric acid to said solution whereby an alcoholic lignin solution is formed, (b) separating a precipitate comprising an inorganic precipitate, particularly comprising a silicate, from said solution. (c) removing alcohol from said solution, (d) optionally adjusting the pH of the mixture obtained in step (c), and (e) separating lignin from said mixture. (i) adjusting an alcohol content of 50% to 80% by weight in the alcoholic mixture comprising lignin (a) adding sulfuric acid to said solution whereby an alcoholic lignin solution is formed, (b) separating a precipitate comprising an inorganic precipitate, particularly comprising a silicate, from said solution. (c) removing alcohol from said solution, (d) optionally adjusting the pH of the mixture obtained in step (c), and (e) separating lignin from said mixture. (a) adding sulfuric acid to said solution whereby an alcoholic lignin solution is formed, (b) separating a precipitate comprising an inorganic precipitate, particularly comprising a silicate, from said solution. (c) removing alcohol from said solution, (d) optionally adjusting the pH of the mixture obtained in step (c), and (e) separating lignin from said mixture.
A method for generating an infrared beam for illuminating a scene to be imaged, the method comprising: (a) providing at least two IR emitters, including a first IR emitter operable to emit a wide beam component of the IR beam, and a second IR emitter operable to emit a narrow beam component of the IR beam, wherein the wide beam component has a linear profile that has a lower standard deviation than a linear profile of the narrow beam component; (b) determining a current focal length, and using a processor, automatically selecting a power ratio of power directed to the first IR emitter and power directed to the second IR emitter that produces the IR beam with a desired linear profile for the determined current focal length when the narrow beam component and wide beam component are combined, wherein the power ratio is selected from a beam profile-to-focal length map comprising a series of focal length increments and their corresponding power ratios that produce an IR beam with the desired linear profile; and (c) producing the IR beam by directing power to the first and second IR emitters at the selected power ratio to generate the wide and narrow beam components, and combining the generated wide and narrow beam components. (a) providing at least two IR emitters, including a first IR emitter operable to emit a wide beam component of the IR beam, and a second IR emitter operable to emit a narrow beam component of the IR beam, wherein the wide beam component has a linear profile that has a lower standard deviation than a linear profile of the narrow beam component; (b) determining a current focal length, and using a processor, automatically selecting a power ratio of power directed to the first IR emitter and power directed to the second IR emitter that produces the IR beam with a desired linear profile for the determined current focal length when the narrow beam component and wide beam component are combined, wherein the power ratio is selected from a beam profile-to-focal length map comprising a series of focal length increments and their corresponding power ratios that produce an IR beam with the desired linear profile; and (c) producing the IR beam by directing power to the first and second IR emitters at the selected power ratio to generate the wide and narrow beam components, and combining the generated wide and narrow beam components.
Composite construction part, in particular designed as a wall, ceiling or roof element for house construction and in particular for prefabricated houses, having a plurality of, in particular elongate, composite construction part elements which are arranged next to one another in superimposed layers (3a, 3b, 3c), the composite construction part elements of one layer (3a, 3b, 3c) overlapping with the composite construction part elements of at least one adjacent layer (3a, 3b, 3c), in particular the composite construction part elements of a layer (3a, 3b, 3c) each overlap with at least two composite construction part elements of an adjacent layer (3a, 3b, 3c), and the composite construction part elements being connected to one another in their overlapping regions by means of nails, the nails being shot into the composite construction part elements without pre-drilling, characterized in that the nails consist of a predominantly lignocellulosic material.
Stop, in particular numerical aperture stop, obscuration stop or false-light stop, for a lithography apparatus (100A, 100B), comprising a light-transmissive aperture, and at least one stop element (306, 308), in which or at which the aperture is provided, wherein the stop element (306, 308) is opaque and fluid-permeable outside the aperture. a light-transmissive aperture, and at least one stop element (306, 308), in which or at which the aperture is provided, wherein the stop element (306, 308) is opaque and fluid-permeable outside the aperture.
Memory circuit comprising a plurality of memory cells, each memory cell comprising a resistive memory element and a selection transistor of the FDSOI type connected in series with the resistive memory element, the selection transistor comprising a channel region and a buried insulating layer, characterised in that the selection transistor further comprises a back gate separated from the channel region by the buried insulating layer, in that the memory circuit further comprises a circuit for biasing the back gate of the selection transistors, the biasing circuit being configured to apply a forward back-bias to the selection transistor of at least one memory cell during a programming or initialisation operation of said at least one memory cell, and in that: - the selection transistors of the memory cells are arranged in lines (Li) and in columns (Ci); - the lines (Li) of transistors form several groups (Gi) of transistors, each group of transistors comprising at least two lines (Li) of consecutive transistors; - the memory circuit comprises distinct regions of doped silicon called wells, each well comprising the back gates of the selection transistors belonging to a single and same group of transistors (Gi). - the selection transistors of the memory cells are arranged in lines (Li) and in columns (Ci); - the lines (Li) of transistors form several groups (Gi) of transistors, each group of transistors comprising at least two lines (Li) of consecutive transistors; - the memory circuit comprises distinct regions of doped silicon called wells, each well comprising the back gates of the selection transistors belonging to a single and same group of transistors (Gi).
A peptide conjugate comprising an alpha-amino protecting moiety, a peptide consisting of the amino acid sequence selected from the group consisting of Asp-Pro-Arg and SEQ ID NOs: 1-17, and a protease-disabling moiety, wherein the peptide is bound to the alpha-amino protecting moiety and to the protease-disabling moiety, wherein the protease disabling moiety is selected from the group consisting of chloromethylketone, sulfonylfluorides (-SO 2 F), chloromethylketones (-COCH 2 Cl), aldehydes (-CHO), aryl ketones (-CO-Aryl), trifluoromethylketones (-COCF 3) and ketocarboxylic acids (-COCOOH), and wherein the alpha-amino protecting moiety is tosyl or derivatives thereof. wherein the peptide is bound to the alpha-amino protecting moiety and to the protease-disabling moiety, wherein the protease disabling moiety is selected from the group consisting of chloromethylketone, sulfonylfluorides (-SO 2 F), chloromethylketones (-COCH 2 Cl), aldehydes (-CHO), aryl ketones (-CO-Aryl), trifluoromethylketones (-COCF 3) and ketocarboxylic acids (-COCOOH), and wherein the alpha-amino protecting moiety is tosyl or derivatives thereof.
Method for producing electrically conductive passages in a sidewall of a pneumatic vehicle tyre, the electrically conductive passages extending between an electrically conductive tread part, which is in electrically conductive connection with the outer tread surface, and the electrically conductive flange profile that comes into contact with a wheel rim, the sidewall being produced from an extruded sheet of material comprising an electrically nonconductive rubber compound, characterized in that, after its extrusion, the sheet of material is transported away on a transporting device, with its side that forms the inner side of the sidewall as the upper side, a strand or a strip is extruded from an electrically conductive rubber compound and, during the transport of the extruded sheet of material, is applied to the upper side of the sheet of material in a wave form in such a way that, in the finished tyre, the electrically conductive passages formed on the inner side of the sidewall by the strand or the strip are in contact alternately with the electrically conductive tread part and the flange profile in the regions of the maximum deflection of the wave form, respectively.
A device for locking second leaves in the closed configuration, comprising a recessed button, which is pivoted to a corresponding accommodation body and is designed to be pressed and turned towards the inside of the body and of the second leaf, causing, by means of a transmission element, the retraction of a latch that is normally pushed vertically towards the architrave or upper cross-member or towards the floor, in engagement in a corresponding seat for locking the second leaf with which the device is associated, characterized in that said latch is pushed by a helical spring, which in turn is compressed between an axial recess formed inside the body of the latch and a pin which is fixed transversely to a sleeve, said sleeve containing the latch, which is free to perform a translational motion in said sleeve between a fully extracted configuration and a fully retracted configuration, the stroke of the latch being delimited by the height of a slot that passes through it diametrically, is formed in the body of the latch and is designed to be crossed by the pin, said pin defining the stroke limit for the latch in both directions.
A method of demodulating a received signal in a receiving terminal in a MIMO system, said method comprising: Receiving a signal transmitted from a transmitter having two or more transmit antennas, said received signal containing a desired data stream pre-coded with a known precoder and interference attributable to at least one interfering data stream pre-coded with an unknown precoder; Estimating the precoder for the interfering data stream by: testing two or more hypothesized precoders to generate a demodulation performance metric for each hypothesized precoder,; and selecting one of the hypothesized precoders as the estimated precoder based on said demodulation performance metrics; and demodulating the desired data stream using the known decoder of the desired data stream and the estimated precoder for the interfering data stream to reduce said interference and to obtain demodulated symbols corresponding to said desired data stream, the method being characterized in that: the testing two or more hypothesized precoders to generate a demodulation performance metric for each hypothesized precoder comprises demodulating selected test symbols in the desired data stream using each hypothesized precoder and computing, for each hypothesized precoder, a demodulation performance metric for each hypothesized precoder, the computing comprising computing a signal plus noise metric for the demodulated test symbols corresponding to each hypothesized precoder. Receiving a signal transmitted from a transmitter having two or more transmit antennas, said received signal containing a desired data stream pre-coded with a known precoder and interference attributable to at least one interfering data stream pre-coded with an unknown precoder; Estimating the precoder for the interfering data stream by: testing two or more hypothesized precoders to generate a demodulation performance metric for each hypothesized precoder,; and selecting one of the hypothesized precoders as the estimated precoder based on said demodulation performance metrics; and testing two or more hypothesized precoders to generate a demodulation performance metric for each hypothesized precoder,; and selecting one of the hypothesized precoders as the estimated precoder based on said demodulation performance metrics; and demodulating the desired data stream using the known decoder of the desired data stream and the estimated precoder for the interfering data stream to reduce said interference and to obtain demodulated symbols corresponding to said desired data stream, the method being characterized in that: the testing two or more hypothesized precoders to generate a demodulation performance metric for each hypothesized precoder comprises demodulating selected test symbols in the desired data stream using each hypothesized precoder and computing, for each hypothesized precoder, a demodulation performance metric for each hypothesized precoder, the computing comprising computing a signal plus noise metric for the demodulated test symbols corresponding to each hypothesized precoder.
A processing apparatus for processing an upper segment edge of a pylon segment of a concrete pylon for preparing the pylon segment for placement thereon of at least one further pylon segment, including - a processing means for processing the segment edge, characterized by - a carrier apparatus (32, 34), adapted to be fixed to the upper side of the shuttering for producing the pylon segment, wherein the carrier apparatus (32, 34) is adapted for displaceably carrying and guiding the processing means along the segment edge. - a processing means for processing the segment edge, characterized by - a carrier apparatus (32, 34), adapted to be fixed to the upper side of the shuttering for producing the pylon segment, wherein the carrier apparatus (32, 34) is adapted for displaceably carrying and guiding the processing means along the segment edge.
Method for manufacturing a chromium metal - chromium oxide - chromium carbide - chromium sulphate coated substrate by electrolytically depositing a coating layer comprising a plurality of chromium metal - chromium oxide - chromium carbide - chromium sulphate coating layers on an electrically conductive blackplate or tinplate substrate for packaging applications from an electrolyte solution that comprises a trivalent chromium compound comprising basic chromium sulphate, and a chelating agent, wherein the electrolyte solution is free of chloride ions and of a boric acid buffering agent, wherein the electrically conductive substrate acts as a cathode, and wherein an anode comprising a catalytic coating of iridium oxide or a mixed metal oxide is chosen for reducing or eliminating the oxidation of Cr -ions to Cr -ions to avoid the formation of chlorine gas and of hexavalent chromium, wherein during the deposition of each chromium metal - chromium oxide - chromium carbide - chromium sulphate coating layer hydrogen bubbles are formed at the strip surface, and wherein between the deposition of the chromium metal - chromium oxide - chromium carbide - chromium sulphate coating layers, the hydrogen bubbles are removed from the surface of the strip, wherein chromium oxide is distributed throughout each coating layer, and wherein the hydrogen bubbles are removed from the surface of the strip by using a pulse plate rectifier or by a shaking action.
An electronic braking arrangement, comprising: a brake stack assembly; a driver circuit operably connected to the brake stack assembly; and characterized in that it comprises a current limiter circuit and a voltage limiter circuit connected in series between the driver circuit and the brake stack assembly to drive friction brake loads in the brake stack assembly with a voltage limited constant drive current. a brake stack assembly; a driver circuit operably connected to the brake stack assembly; and characterized in that it comprises a current limiter circuit and a voltage limiter circuit connected in series between the driver circuit and the brake stack assembly to drive friction brake loads in the brake stack assembly with a voltage limited constant drive current.
Internal combustion engine having a crankcase and a cylinder head, into which, per cylinder, at least one exhaust gas duct with an exhaust gas duct flange, and a fresh gas duct with a fresh gas duct flange are let, to which in each case one exhaust gas collecting line and one fresh gas line are fastened which are together part of an exhaust gas system and a fresh gas system, an exhaust gas recirculation system being provided with a removable line (15a, 15b, 15c), a control valve housing which has a control valve, and a feed line, the cylinder head having at least one removal duct which branches off from the exhaust gas duct and has a removal duct opening (14a, 14b) which is separate from the exhaust gas duct flange, opens into a cylinder head wall and is connected to the removal line (15a, 15b, 15c), and at least one feed duct which opens into the fresh gas duct and has a feed duct opening which is separate from the fresh gas duct flange, opens into a cylinder head wall and is connected to the feed line, characterized in that the exhaust gas duct and the fresh gas duct open on a cylinder head longitudinal side, and the removal line (15a, 15b) and the feed line are arranged so as to lie above one another along the cylinder head longitudinal side, the removal of the exhaust gas to be recirculated taking place by means of removal line sections, and the removal line sections opening into the removal line (15b, c).
Current sensor (6; 6'), comprising: - an insulating substrate provided with a central opening, the central opening being configured to receive an electrical conductor; - a winding surrounding the central aperture and including a coil (12, 14) wound around a portion of the insulating substrate; in which the current sensor comprises at least one ferromagnetic layer (40, 42) integrated in the portion of the insulating substrate, the coil (12, 14) surrounding the ferromagnetic layer characterised in that the winding further comprises an additional coil wound around a further portion of the substrate offset in a direction perpendicular to the plane of the substrate, the two coils (12, 14) being interleaved and electrically connected in series, and wherein an additional ferromagnetic layer is embedded in said further portion of the insulating substrate, the additional coil surrounding the additional ferromagnetic layer. - an insulating substrate provided with a central opening, the central opening being configured to receive an electrical conductor; - a winding surrounding the central aperture and including a coil (12, 14) wound around a portion of the insulating substrate; in which the current sensor comprises at least one ferromagnetic layer (40, 42) integrated in the portion of the insulating substrate, the coil (12, 14) surrounding the ferromagnetic layer characterised in that the winding further comprises an additional coil wound around a further portion of the substrate offset in a direction perpendicular to the plane of the substrate, the two coils (12, 14) being interleaved and electrically connected in series, and wherein an additional ferromagnetic layer is embedded in said further portion of the insulating substrate, the additional coil surrounding the additional ferromagnetic layer.
A thermal immersion circulator, comprising: a heater including: a main body having a tubular side wall, a first end, a second end spaced from the first end across a length of the main body, the tubular side wall which forms a fluid flow passage at least partially therethrough, the main body having an inlet at least proximate the first end, the inlet which provides fluid communication between the fluid flow passage in an interior of the main body and an exterior of the main body, and an outlet in the tubular side wall, at least a portion of the outlet spaced relative toward the second end with respect to at least a portion of the inlet, the outlet which provides fluid communication between the fluid flow passage in the interior of the main body and the exterior of the main body; a heating element physically coupled to and wrapped at least partially about at least a portion of the external surface of the tubular side wall of the main body; and a switch electrically coupled to control the heating element and physically and thermally conductively coupled to the tubular side wall of the main body, wherein the switch is an active power switch, wherein heat generated by the active power switch is transferred to the fluid; and a housing sized and dimensioned to receive at least a portion of the heater. a main body having a tubular side wall, a first end, a second end spaced from the first end across a length of the main body, the tubular side wall which forms a fluid flow passage at least partially therethrough, the main body having an inlet at least proximate the first end, the inlet which provides fluid communication between the fluid flow passage in an interior of the main body and an exterior of the main body, and an outlet in the tubular side wall, at least a portion of the outlet spaced relative toward the second end with respect to at least a portion of the inlet, the outlet which provides fluid communication between the fluid flow passage in the interior of the main body and the exterior of the main body; a heating element physically coupled to and wrapped at least partially about at least a portion of the external surface of the tubular side wall of the main body; and a switch electrically coupled to control the heating element and physically and thermally conductively coupled to the tubular side wall of the main body, wherein the switch is an active power switch, wherein heat generated by the active power switch is transferred to the fluid; and a housing sized and dimensioned to receive at least a portion of the heater.