mhurhangee/ep-ind-claims huggingface dataset:
A method for a network node configured to transmit wireless communication signals using beam forming and configured to apply any of one or more data carrying beam widths for transmission of data carrying signals dedicated to a specific wireless communication device, the method comprising: determining one or more requirement parameters for transmission of synchronization signals, wherein the one or more requirement parameters comprise a desired synchronization signal beam width and a minimum effective power, where the effective power is defined in terms of actual transmitted power or in terms of equivalent isotropic radiated power, and wherein the determined desired synchronization signal beam width is larger than a minimum one of the data carrying beam widths; calculating beam forming weights based on the one or more requirement parameters, wherein a beam resulting from the calculated beam forming weights has a beam width larger than, or equal to, the determined desired synchronization signal beam width and an effective power larger than, or equal to, the minimum effective power, and wherein the calculation is performed by assigning non-zero value to a number of beam forming weights which exceeds a minimum number of beam forming weights for the determined desired synchronization signal beam width; generating a synchronization signal for transmission; and transmitting the generated synchronization signal using the calculated beam forming weights. determining one or more requirement parameters for transmission of synchronization signals, wherein the one or more requirement parameters comprise a desired synchronization signal beam width and a minimum effective power, where the effective power is defined in terms of actual transmitted power or in terms of equivalent isotropic radiated power, and wherein the determined desired synchronization signal beam width is larger than a minimum one of the data carrying beam widths; calculating beam forming weights based on the one or more requirement parameters, wherein a beam resulting from the calculated beam forming weights has a beam width larger than, or equal to, the determined desired synchronization signal beam width and an effective power larger than, or equal to, the minimum effective power, and wherein the calculation is performed by assigning non-zero value to a number of beam forming weights which exceeds a minimum number of beam forming weights for the determined desired synchronization signal beam width; generating a synchronization signal for transmission; and transmitting the generated synchronization signal using the calculated beam forming weights.
A method of producing aluminum comprising: passing current between a stable anode and a cathode through a bath comprising an electrolyte and aluminum oxide; where the anode comprises a monolithic body of a material comprising iron oxide being a mixture of Fe 3 O 4, Fe 2 0 3 and FeO and optionally an additive or dopant in an amount from 0.1 up to 10% by weight; maintaining the bath at a controlled temperature less than 960°C; controlling current density through the anode; and recovering aluminum from the bath. passing current between a stable anode and a cathode through a bath comprising an electrolyte and aluminum oxide; where the anode comprises a monolithic body of a material comprising iron oxide being a mixture of Fe 3 O 4, Fe 2 0 3 and FeO and optionally an additive or dopant in an amount from 0.1 up to 10% by weight; maintaining the bath at a controlled temperature less than 960°C; controlling current density through the anode; and recovering aluminum from the bath.
Method for detecting and correcting input signals regarding click noise, using a detector unit (2,21) and a correction unit (3,22) coupled to the detector unit (2,21), the method comprising steps of: - inputting an input signal in both detector unit (2,21) and correction unit (3,22), - differentiating the input signal in the detector unit (2,21) and generating a differentiate signal (w i [n]), - extracting a noise signal from the differentiate signal (w i [n]), - comparing (8,33) a sum of two noise samples with a threshold value (35/T2) and generating a detected signal (D[n]) and in case this sum exceeds the threshold value (35/T2) a click is observed, - receiving the detected signal (D[n]) by the correction unit (3,22), - correcting the input signal (4,23) in the phase domain and generating a first corrected signal, - and differentiating the first corrected signal and outputting a second corrected signal, wherein the extraction of noise signal from the differentiate signal (w i [n]) involves subtracting a low pass filtered version of the differentiate signal (w i [n]) from a delayed ( ωi[n]) signal, and wherein the correcting the input signal (4, 23) in the phase domain comprises steps of - delaying the input signal in first series coupled delaying units (37, 38, 39) and generating a first delayed signal; - subtracting a further delayed signal from the first delayed signal. - inputting an input signal in both detector unit (2,21) and correction unit (3,22), - differentiating the input signal in the detector unit (2,21) and generating a differentiate signal (w i [n]), - extracting a noise signal from the differentiate signal (w i [n]), - comparing (8,33) a sum of two noise samples with a threshold value (35/T2) and generating a detected signal (D[n]) and in case this sum exceeds the threshold value (35/T2) a click is observed, - receiving the detected signal (D[n]) by the correction unit (3,22), - correcting the input signal (4,23) in the phase domain and generating a first corrected signal, - and differentiating the first corrected signal and outputting a second corrected signal, wherein the extraction of noise signal from the differentiate signal (w i [n]) involves subtracting a low pass filtered version of the differentiate signal (w i [n]) from a delayed ( ωi[n]) signal, and wherein the correcting the input signal (4, 23) in the phase domain comprises steps of - delaying the input signal in first series coupled delaying units (37, 38, 39) and generating a first delayed signal; - subtracting a further delayed signal from the first delayed signal.
A method of operating a transfer printer, the transfer printer comprising: first and second spool supports Z f (3a, 4a) each being configured to support a spool of ribbon; a ribbon drive configured to cause movement of ribbon from the first spool support to the second spool support along a predetermined ribbon path; and a printhead, the printhead being configured to selectively transfer ink from the ribbon to a substrate Z as the substrate is moved relative to the printhead in a direction of substrate movement, the method comprising: i) driving the ribbon in a direction parallel to the direction of substrate movement; ii) printing a first plurality of images onto a first respective plurality of substrates; iii) driving the ribbon in a direction opposite to the direction of substrate movement; iv) driving the ribbon in the direction parallel to the direction of substrate movement; and v) printing a second plurality of images onto a second respective plurality of substrates; wherein: printing each image of the first and second pluralities of images results in corresponding pluralities of first and second negative images being formed on the ribbon; each negative image of the first plurality of negative images is located adjacent a negative image of the second plurality of negative images on the ribbon; and each of the first plurality of images is offset from each of the other ones of the first plurality of images by a predetermined offset in the direction of substrate movement. i) driving the ribbon in a direction parallel to the direction of substrate movement; ii) printing a first plurality of images onto a first respective plurality of substrates; iii) driving the ribbon in a direction opposite to the direction of substrate movement; iv) driving the ribbon in the direction parallel to the direction of substrate movement; and v) printing a second plurality of images onto a second respective plurality of substrates; wherein: printing each image of the first and second pluralities of images results in corresponding pluralities of first and second negative images being formed on the ribbon; each negative image of the first plurality of negative images is located adjacent a negative image of the second plurality of negative images on the ribbon; and each of the first plurality of images is offset from each of the other ones of the first plurality of images by a predetermined offset in the direction of substrate movement. printing each image of the first and second pluralities of images results in corresponding pluralities of first and second negative images being formed on the ribbon; each negative image of the first plurality of negative images is located adjacent a negative image of the second plurality of negative images on the ribbon; and each of the first plurality of images is offset from each of the other ones of the first plurality of images by a predetermined offset in the direction of substrate movement.
A. circuit breaker module (4, 6) structured to be disposed in an electrically conductive panel, the circuit breaker module (4, 6) comprising: a frame assembly, a faceplate assembly, and a number of circuit breakers; said circuit breakers having an electrically conductive surface and an extending handle; said frame assembly having a front member and a back member, said frame assembly front member and said frame assembly back member being spaced from each other and defining an enclosed space; said frame assembly front member being electrically conductive; said faceplate assembly having an electrically conductive faceplate, said faceplate being a planar member with a number of openings therein; said faceplate coupled to said frame assembly front member; said circuit breaker disposed in said frame assembly enclosed space; wherein said circuit breaker is in electrical communication with said faceplate and said frame assembly front member, whereby a current may pass from said circuit breaker to said frame assembly front member, and wherein the exclusive ground current path for the circuit breakers is via the faceplate. a frame assembly, a faceplate assembly, and a number of circuit breakers; said circuit breakers having an electrically conductive surface and an extending handle; said frame assembly having a front member and a back member, said frame assembly front member and said frame assembly back member being spaced from each other and defining an enclosed space; said frame assembly front member being electrically conductive; said faceplate assembly having an electrically conductive faceplate, said faceplate being a planar member with a number of openings therein; said faceplate coupled to said frame assembly front member; said circuit breaker disposed in said frame assembly enclosed space; wherein said circuit breaker is in electrical communication with said faceplate and said frame assembly front member, whereby a current may pass from said circuit breaker to said frame assembly front member, and wherein the exclusive ground current path for the circuit breakers is via the faceplate.
A method for determining the permeability of a sample through observation of a diffusive process by electrochemical means, the method comprising the following steps: placing the sample between a first and a second volume to form a barrier between the two volumes (18, 20), providing a first medium in the first volume and a second medium in the second volume, wherein at least one of the first and second media contains at least one kind of electrochemically active molecules, and wherein the concentrations of said electrochemically active molecules in said first and second media are different from each other, measuring a first electrical signal between at least two electrodes (102, 104) in contact with the second volume at different points in time while the electrochemically active molecules are allowed to diffuse through the sample, said first electrical signal depending on the concentration of electrochemically active molecules at at least one position in the second volume, determining from said measured first electrical signal at the different points in time a first measure for the permeability of the sample, said first measure characterizing a permeability of the sample with respect to said electrochemically active molecules. placing the sample between a first and a second volume to form a barrier between the two volumes (18, 20), providing a first medium in the first volume and a second medium in the second volume, wherein at least one of the first and second media contains at least one kind of electrochemically active molecules, and wherein the concentrations of said electrochemically active molecules in said first and second media are different from each other, measuring a first electrical signal between at least two electrodes (102, 104) in contact with the second volume at different points in time while the electrochemically active molecules are allowed to diffuse through the sample, said first electrical signal depending on the concentration of electrochemically active molecules at at least one position in the second volume, determining from said measured first electrical signal at the different points in time a first measure for the permeability of the sample, said first measure characterizing a permeability of the sample with respect to said electrochemically active molecules.
A composite vane comprising both a vane body extending in a longitudinal direction between an inner end and an outer end and also at least one fastener base (140, 150) connected to the inner end or to the outer end of the vane body, the vane comprising metal reinforcement associated with an organic matrix, the vane being characterized in that the metal reinforcement defines integrally as a single part both a longitudinal core extending between the inner and outer ends (110b, 110a) of the vane body and also said at least one fastener base (140, 150), the longitudinal core having the organic matrix overmolded thereon, the organic matrix defining the outside shape of the vane, the vane also comprising an inner and outer platform (130, 120) formed by the organic matrix, the vane further comprising an inner fastener base connected to the inner end of the vane body and an outer fastener base connected to the outer end of the vane body, the inner and outer fastener bases (150, 140) both being defined by the metal reinforcement and being made integrally with the longitudinal core.
Cellulose ester preparation, characterized in that it contains a) at least one cellulose ester, and b) at least one phosphorus-containing propionic acid derivative of formula where X represents oxygen or sulphur, preferably oxygen, R represents hydrogen or methyl, preferably hydrogen, A represents oxygen or NH, preferably oxygen, Z represents an n-valent saturated, straight-chain or branched, aliphatic hydrocarbyl moiety of 1 - 20 carbon atoms which is optionally interrupted by one or more heteroatoms from the series oxygen and sulphur, or an n-valent 5- or 6-membered heterocyclic ring which contains one to three nitrogen atoms as heteroatoms and is optionally substituted by one or more identical or different substituents, and n represents an integer from 1 to 4. a) at least one cellulose ester, and b) at least one phosphorus-containing propionic acid derivative of formula where X represents oxygen or sulphur, preferably oxygen, R represents hydrogen or methyl, preferably hydrogen, A represents oxygen or NH, preferably oxygen, Z represents an n-valent saturated, straight-chain or branched, aliphatic hydrocarbyl moiety of 1 - 20 carbon atoms which is optionally interrupted by one or more heteroatoms from the series oxygen and sulphur, or an n-valent 5- or 6-membered heterocyclic ring which contains one to three nitrogen atoms as heteroatoms and is optionally substituted by one or more identical or different substituents, and n represents an integer from 1 to 4. X represents oxygen or sulphur, preferably oxygen, R represents hydrogen or methyl, preferably hydrogen, A represents oxygen or NH, preferably oxygen, Z represents an n-valent saturated, straight-chain or branched, aliphatic hydrocarbyl moiety of 1 - 20 carbon atoms which is optionally interrupted by one or more heteroatoms from the series oxygen and sulphur, or an n-valent 5- or 6-membered heterocyclic ring which contains one to three nitrogen atoms as heteroatoms and is optionally substituted by one or more identical or different substituents,
A beverage preparation machine for preparing a liquid beverage from a cartridge, the machine comprising: a first liquid supply circuit configured for selectively providing liquid of predefined temperature and/or volume from a liquid reservoir of the machine to a cartridge inserted into the machine, a second liquid supply circuit configured for selectively providing liquid of predefined temperature and/or volume from the liquid reservoir, or from another reservoir, of the machine to a liquid delivery outlet of the machine, a control unit for controlling the first and second liquid supply circuit (13,14), and a network unit comprising a network interface for communication with an external electronic device over a network, wherein the control unit is configured to individually control the selective provision of liquid from the first and the second liquid supply circuit (13,14) in response to information obtained via the network unit, characterised in that the control unit is configured to individually control the temperature and volume of the respective liquid delivered from the first and second liquid supply circuit (13,14). a first liquid supply circuit configured for selectively providing liquid of predefined temperature and/or volume from a liquid reservoir of the machine to a cartridge inserted into the machine, a second liquid supply circuit configured for selectively providing liquid of predefined temperature and/or volume from the liquid reservoir, or from another reservoir, of the machine to a liquid delivery outlet of the machine, a control unit for controlling the first and second liquid supply circuit (13,14), and a network unit comprising a network interface for communication with an external electronic device over a network, wherein the control unit is configured to individually control the selective provision of liquid from the first and the second liquid supply circuit (13,14) in response to information obtained via the network unit, characterised in that the control unit is configured to individually control the temperature and volume of the respective liquid delivered from the first and second liquid supply circuit (13,14).
- After treatment system, ATS, module for a vehicle, said ATS module comprising, fluidly connected in series, an inlet, a plurality of chemical reaction modules (11, 12, 14) and an urea mixer module and an outlet, said inlet configured to be fluidly connected to an output of an engine of said vehicle and said outlet configured to be fluidly connected to an outlet tube of said vehicle, said inlet, said chemical reaction modules (11, 12, 14), said urea mixer module and said outlet are arranged to define a path of a flow of exhaust gases flowing in said ATS, wherein said urea mixer module is perpendicular to said plurality of chemical reaction modules (11, 12, 14), and wherein said ATS module comprises deflector means configured to impart a swirling motion to said flow before said flow enters in said urea mixer module, wherein said urea mixer module comprises a dosing module configured to inject urea into said flow of exhaust gases, said dosing module comprising an injector for injecting said urea and a shell defining a volume into which said injector is partially housed and comprising a plurality of openings for allowing said flow of exhaust gases to flow inside said volume, characterised in that each of said openings is provided with a baffle configured to contribute to generate a swirl motion to a portion of said exhaust gas flow passing from said openings. wherein said urea mixer module comprises a dosing module configured to inject urea into said flow of exhaust gases, said dosing module comprising an injector for injecting said urea and a shell defining a volume into which said injector is partially housed and comprising a plurality of openings for allowing said flow of exhaust gases to flow inside said volume, characterised in that each of said openings is provided with a baffle configured to contribute to generate a swirl motion to a portion of said exhaust gas flow passing from said openings.
Micro-fragmented fat or a composition comprising micro-fragmented fat for use in the treatment of a systemic inflammatory, immune or chronic disease/condition or to improve the detrimental health effects thereof, said disease/condition being caused by sepsis; wherein the micro-fragmented fat contains clusters of fat having size ranging from 200 to 2500 μm, more preferably from 300 to 1500 μm, more preferably from 400 to 900 μm; and wherein said clusters of fat comprise Mesenchymal Stem Cells (MSCs) and pericytes and Adipose Stem Cells preferably maintaining their natural/intact stromal vascular niche.
An anchor extender, comprising: an elongated body extending between a proximal end portion and a distal end portion; a first pair of engaging members (166,168) pivotably coupled with said elongated body adjacent said distal end portion, said first pair of engaging members (166,168) being movable between a first configuration for receiving and releasing a first portion of a bone anchor and a second configuration for engaging said first portion of said bone anchor; a second pair of engaging members (170,172) pivotably coupled with said elongated body adjacent said distal end portion and opposite of said first pair of engaging members (166,168), said second pair of engaging members (170,172) being movable between a first configuration for receiving and releasing a second portion of said bone anchor and a second configuration for engaging said second portion of said bone anchor; and a locking mechanism axially displaceable relative to said elongated body, wherein said locking mechanism is configured to lock said first and second pairs of engaging members (166,168,170,172) in said second configuration. an elongated body extending between a proximal end portion and a distal end portion; a first pair of engaging members (166,168) pivotably coupled with said elongated body adjacent said distal end portion, said first pair of engaging members (166,168) being movable between a first configuration for receiving and releasing a first portion of a bone anchor and a second configuration for engaging said first portion of said bone anchor; a second pair of engaging members (170,172) pivotably coupled with said elongated body adjacent said distal end portion and opposite of said first pair of engaging members (166,168), said second pair of engaging members (170,172) being movable between a first configuration for receiving and releasing a second portion of said bone anchor and a second configuration for engaging said second portion of said bone anchor; and a locking mechanism axially displaceable relative to said elongated body, wherein said locking mechanism is configured to lock said first and second pairs of engaging members (166,168,170,172) in said second configuration.