mhurhangee/ep-ind-claims huggingface dataset:
A method for processing a first and a second signal on the basis of an incident composite single comprising said first and second superposed signals, said first signal having a higher amplitude than that of the second signal, said method being characterised in that it comprises a demodulation of said first and second superposed signals comprising: - sampling said incident composite signal; - demodulating then reconstructing binary data of said first signal on the basis of each sample of said incident composite signal; - adaptive-type filtering said first reconstructed signal so as to shape it to said first signal that is included within said incident composite signal; - subtracting said first filtered signal from said incident composite signal so as to obtain a signal that represents said second signal; and - demodulating said second signal using said signal that represents said second signal and by virtue of the fact that, for each sample, k coefficients implemented for filtering said first reconstructed signal, with k being an integer, are updated using a set point signal that is a function of the n-1-k nth sample of said first reconstructed signal, with n being an integer that represents the sampling instant of the considered sample, of the n-1 nth sample of the signal that represents said second signal and of the coefficient with the same rank for the preceding sample of said incident composite signal. - sampling said incident composite signal; - demodulating then reconstructing binary data of said first signal on the basis of each sample of said incident composite signal; - adaptive-type filtering said first reconstructed signal so as to shape it to said first signal that is included within said incident composite signal; - subtracting said first filtered signal from said incident composite signal so as to obtain a signal that represents said second signal; and - demodulating said second signal using said signal that represents said second signal and by virtue of the fact that, for each sample, k coefficients implemented for filtering said first reconstructed signal, with k being an integer, are updated using a set point signal that is a function of the n-1-k nth sample of said first reconstructed signal, with n being an integer that represents the sampling instant of the considered sample, of the n-1 nth sample of the signal that represents said second signal and of the coefficient with the same rank for the preceding sample of said incident composite signal.
A protein mixture in a food product intended for enteral or oral nutrition characterized in that it contains caseinate, pea protein and milk serum proteins and in that it has the following amino acid profile: Ala 4.02; Arg 4.92; Asp 9.20; Cys 1.05; Glu 22.68; Gly 2.50; His 2.52; Ile 5.52; Leu 9.67; Lis 8.32; Met 2.47; Phe 4.87; Pro 9.09; Ser 5.27; Thr 4.85; Trp 1.32; Tyr 4.57; Val 6.10; Met+cystein 3.52; Phe+tyrosine 9.44.
A composition comprising a neurotherapeutic polypeptide comprising a human erythropoietin polypeptide which is at least 80% identical to the amino acid sequence of SEQ ID NO: 9 covalently linked to an IgG antibody that is capable of crossing the blood brain barrier, wherein the IgG antibody is capable of binding to an endogenous BBB receptor.
Kit with hydraulic cylinders of different design (2; 4; 6) for an electro-hydraulic or servo-hydraulic axis and a hydraulic control block, which can be used for all hydraulic cylinders of the kit, for controlling a pressure medium supply of each hydraulic cylinder (2; 4; 6) of the kit, wherein the control block is provided with internal hydraulic interfaces (20, 36), via which piston surfaces of each hydraulic cylinder (2; 4; 6) of the kit can be fluidically connected to a pressure medium source and/or a pressure medium sink of the axis, wherein the internal hydraulic interfaces are provided for the selective supply of pressure medium of the hydraulic cylinders (2; 4; 6), and wherein an insert part (50; 51; 53) which is specifically designed for each hydraulic cylinder of the kit and depending on the design (2; 4; 6) of the corresponding hydraulic cylinder of the kit is provided, by which insert part a respective one of the internal hydraulic interfaces (20, 36) can be tapped and shut off for the fluidic connection. wherein the control block is provided with internal hydraulic interfaces (20, 36), via which piston surfaces of each hydraulic cylinder (2; 4; 6) of the kit can be fluidically connected to a pressure medium source and/or a pressure medium sink of the axis, wherein the internal hydraulic interfaces are provided for the selective supply of pressure medium of the hydraulic cylinders (2; 4; 6), and wherein an insert part (50; 51; 53) which is specifically designed for each hydraulic cylinder of the kit and depending on the design (2; 4; 6) of the corresponding hydraulic cylinder of the kit is provided, by which insert part a respective one of the internal hydraulic interfaces (20, 36) can be tapped and shut off for the fluidic connection.
A method for producing an electronic component comprising barrier layers for the encapsulation of the component, comprising the following steps: - providing a substrate with at least one functional layer, - applying at least one first barrier layer on the functional layer by means of plasma-less atomic layer deposition (PLALD), wherein the first barrier layer comprises one or more materials chosen from: - oxide with tin, zinc, titanium, zirconium, tantalum, niobium and/or hafnium, - nitride with tin, zinc, titanium, zirconium, tantalum, niobium and/or hafnium, - oxynitride with tin, zinc, titanium, zirconium, tantalum, niobium and/or hafnium, - indium tin oxide, - aluminum zinc oxide, and - applying at least one second barrier layer on the functional layer by means of plasma-enhanced chemical vapor deposition (PECVD), a layer sequence composed of at least two layers (41, 42) comprising different materials is applied as the second barrier layer and the at least two layers (41, 42) comprising different materials comprise a layer comprising an oxide and a layer comprising a nitride, - applying a protective layer comprising a plastic material on the first and second barrier layers (3, 4). - providing a substrate with at least one functional layer, - applying at least one first barrier layer on the functional layer by means of plasma-less atomic layer deposition (PLALD), wherein the first barrier layer comprises one or more materials chosen from: - oxide with tin, zinc, titanium, zirconium, tantalum, niobium and/or hafnium, - nitride with tin, zinc, titanium, zirconium, tantalum, niobium and/or hafnium, - oxynitride with tin, zinc, titanium, zirconium, tantalum, niobium and/or hafnium, - indium tin oxide, - aluminum zinc oxide, and - oxide with tin, zinc, titanium, zirconium, tantalum, niobium and/or hafnium, - nitride with tin, zinc, titanium, zirconium, tantalum, niobium and/or hafnium, - oxynitride with tin, zinc, titanium, zirconium, tantalum, niobium and/or hafnium, - indium tin oxide, - aluminum zinc oxide, and - applying at least one second barrier layer on the functional layer by means of plasma-enhanced chemical vapor deposition (PECVD), a layer sequence composed of at least two layers (41, 42) comprising different materials is applied as the second barrier layer and the at least two layers (41, 42) comprising different materials comprise a layer comprising an oxide and a layer comprising a nitride, - applying a protective layer comprising a plastic material on the first and second barrier layers (3, 4).
A digital camera (100, 200, 300, 400) comprising: a) a lens (104, 306) having a lens optical axis; b) an image sensor; c) a first optical path folding element (OPFE) for folding light arriving from an object in a first optical path to a second optical path substantially aligned with the lens optical axis; and d) a second OPFE for folding light from the second optical path to a third optical path toward the image sensor, wherein the third optical path is substantially parallel with the first optical path, wherein the first and third optical paths are substantially orthogonal to the second optical path, wherein the lens is operative to move in a first direction substantially parallel to the lens optical axis and in a second direction substantially perpendicular to both the first and second optical paths, wherein the second OPFE is operative to move in the first direction, and wherein the combined motion of the lens (104, 306) and of the second OPFE is operative to provide focus and to compensate for tilts of the camera around the first and second directions. a) a lens (104, 306) having a lens optical axis; b) an image sensor; c) a first optical path folding element (OPFE) for folding light arriving from an object in a first optical path to a second optical path substantially aligned with the lens optical axis; and d) a second OPFE for folding light from the second optical path to a third optical path toward the image sensor, wherein the third optical path is substantially parallel with the first optical path,
An osteotomy implant (10; 10.1, 10.2, 10.3, 10.4) for bridging an osteotomy opening or resection in a target bone in a substantially countersunk manner, the osteotomy implant (10; 10.1, 10.2, 10.3, 10.4) comprising: a) a proximal portion with at least one aperture (14, 15) for receiving at least one bone fixation element (50a, 50b); b) a distal portion with at least one aperture (23, 24) for receiving at least one bone fixation element (50c, 50d); c) at least one middle strut portion connecting said proximal portion with said distal portion along a length axis of said at least one middle strut portion, characterized in that said at least one middle strut portion spans lengthways across the osteotomy opening or resection from the proximal portion to the distal portion, and wherein said at least one middle strut portion has a width which is equal to or smaller than a thickness of said at least one middle strut portion. a) a proximal portion with at least one aperture (14, 15) for receiving at least one bone fixation element (50a, 50b); b) a distal portion with at least one aperture (23, 24) for receiving at least one bone fixation element (50c, 50d); c) at least one middle strut portion connecting said proximal portion with said distal portion along a length axis of said at least one middle strut portion,
A linear actuation assembly comprising: an electromagnetic coil configured to allow electric current to pass therethrough in either direction creating magnetic flux based on the electric current and its direction, said electromagnetic coil defining a center axis, an inner diameter, and first and second coil sides; a first set of magnets disposed end-to-end adjacent said first coil side of said electromagnetic coil at said inner diameter thereof, said first set of magnets fixedly secured with respect to said electromagnetic coil; a second set of magnets disposed end-to-end adjacent said second coil side of said electromagnetic coil about said inner diameter thereof, said second set of magnets fixedly secured with respect to said electromagnetic coil; and a translator disposed adjacent said first and second sets of magnets opposite said electromagnetic coil, said translator latchable between a first position adjacent said first set of magnets and a second position adjacent said second set of magnets in response to said magnetic flux and the direction in which the electric current is flowing, characterized in that the electromagnetic coil is wrapped around a bobbin having first and second channels complementing each other for receiving said first and second sets of magnets therein, respectively. an electromagnetic coil configured to allow electric current to pass therethrough in either direction creating magnetic flux based on the electric current and its direction, said electromagnetic coil defining a center axis, an inner diameter, and first and second coil sides; a first set of magnets disposed end-to-end adjacent said first coil side of said electromagnetic coil at said inner diameter thereof, said first set of magnets fixedly secured with respect to said electromagnetic coil; a second set of magnets disposed end-to-end adjacent said second coil side of said electromagnetic coil about said inner diameter thereof, said second set of magnets fixedly secured with respect to said electromagnetic coil; and a translator disposed adjacent said first and second sets of magnets opposite said electromagnetic coil, said translator latchable between a first position adjacent said first set of magnets and a second position adjacent said second set of magnets in response to said magnetic flux and the direction in which the electric current is flowing, characterized in that the electromagnetic coil is wrapped around a bobbin having first and second channels complementing each other for receiving said first and second sets of magnets therein, respectively.
A computer readable medium comprising instructions which, when executed by one or more hardware processors, cause performance of steps comprising: identifying an operation, expressed in a first set of module code, that attempts to access a module element of a second set of module code, wherein: the first set of module code corresponds to a first module of a plurality of modules (430, 402) in a module system, the second set of module code corresponds to a second module of the plurality of modules (430, 402) in the module system, and the operation uses an accessibility override configuration available to the first set of module code that overrides non-public modifiers with which accessed module elements are declared; determining whether the module element has been exposed to the first set of module code based on a declaration in a module descriptor associated with the second set of module code; responsive to determining that the module element has not been exposed to the first set of module code based on the declaration in the module descriptor associated with the second set of module code: prohibiting the operation that attempts to access the module element even when the operation attempts to access the module element using said accessibility override configuration. identifying an operation, expressed in a first set of module code, that attempts to access a module element of a second set of module code, wherein: the first set of module code corresponds to a first module of a plurality of modules (430, 402) in a module system, the second set of module code corresponds to a second module of the plurality of modules (430, 402) in the module system, and the operation uses an accessibility override configuration available to the first set of module code that overrides non-public modifiers with which accessed module elements are declared; the first set of module code corresponds to a first module of a plurality of modules (430, 402) in a module system, the second set of module code corresponds to a second module of the plurality of modules (430, 402) in the module system, and the operation uses an accessibility override configuration available to the first set of module code that overrides non-public modifiers with which accessed module elements are declared; determining whether the module element has been exposed to the first set of module code based on a declaration in a module descriptor associated with the second set of module code; responsive to determining that the module element has not been exposed to the first set of module code based on the declaration in the module descriptor associated with the second set of module code: prohibiting the operation that attempts to access the module element even when the operation attempts to access the module element using said accessibility override configuration.
A process for the regeneration of an adsorber comprising the following steps a) to c): a) hydrogenation of a stream comprising at least butane and at least butene to obtain a liquid stream comprising at least butane and a reduced amount of butene compared to the amount in the stream, b) converting the stream from liquid phase into gaseous phase, c) regenerating the adsorber by contact with the gaseous stream obtained in step b) and wherein the stream comprises at least 96 wt.-% butane and not more than 4 wt.-% butene as well as the stream comprises not more than 1000 wt.-ppm of olefin. a) hydrogenation of a stream comprising at least butane and at least butene to obtain a liquid stream comprising at least butane and a reduced amount of butene compared to the amount in the stream, b) converting the stream from liquid phase into gaseous phase, c) regenerating the adsorber by contact with the gaseous stream obtained in step b) and
A charge pump circuit for generating a negative voltage comprising: a two-phase clock generator configured to provide two anti-phase clock signals of a generated clock; wherein the charge pump circuit comprises: a switched capacitor voltage inverter circuit comprising two independent transistor arrangements (450, 460), wherein each transistor arrangement is arranged to receive and be driven by a respective anti-phase clock signal and generate a negative voltage therefrom on each alternate phases of the generated clock; a regulation control loop providing a feedback path from the output of the switched capacitor voltage inverter circuit to a supply input of the switched capacitor voltage inverter circuit, wherein the regulation control loop comprises a filter arranged to filter the generated negative voltage; and an output arranged to output the filtered generated negative voltage. a two-phase clock generator configured to provide two anti-phase clock signals of a generated clock; wherein the charge pump circuit comprises: a switched capacitor voltage inverter circuit comprising two independent transistor arrangements (450, 460), wherein each transistor arrangement is arranged to receive and be driven by a respective anti-phase clock signal and generate a negative voltage therefrom on each alternate phases of the generated clock; a regulation control loop providing a feedback path from the output of the switched capacitor voltage inverter circuit to a supply input of the switched capacitor voltage inverter circuit, wherein the regulation control loop comprises a filter arranged to filter the generated negative voltage; and an output arranged to output the filtered generated negative voltage. a switched capacitor voltage inverter circuit comprising two independent transistor arrangements (450, 460), wherein each transistor arrangement is arranged to receive and be driven by a respective anti-phase clock signal and generate a negative voltage therefrom on each alternate phases of the generated clock; a regulation control loop providing a feedback path from the output of the switched capacitor voltage inverter circuit to a supply input of the switched capacitor voltage inverter circuit, wherein the regulation control loop comprises a filter arranged to filter the generated negative voltage; and an output arranged to output the filtered generated negative voltage.
A power semiconductor device comprising: a heat conducting and insulating ceramic substrate; a circuit pattern which is an unplated Cu pattern formed on a top surface of said substrate; a power semiconductor element (40, 42) bonded to said circuit pattern by a first solder (30, 32) formed in a first reflow process by melting a first alloy consisting of Sn, Sb, and Cu, said first alloy having a weight percent of Cu in the range of 0.5 to 1%, inclusive, and a weight percent of Sb in the range of 6.5 to 8%, inclusive, the remaining weight percents of said first alloy being Sn, and said first alloy having a solidus temperature in the range of 235 to 238°C, inclusive, wherein the Cu content of the first solder (30, 32) is increased by Cu diffused from the circuit pattern into the first solder (30, 32); a terminal circuit pattern formed on said top surface of said substrate; and a terminal bonded to said terminal circuit pattern by a second solder formed in a second reflow process by melting an Sn-Ag-based or Sn-Ag-Cu-based unleaded solder having a liquidus temperature in the range of 215 to 220°C, inclusive, said second reflow process being performed after said first reflow process and being performed at a temperature lower than 235°C, said first solder (30, 32) not having remelted in said second reflow process. a heat conducting and insulating ceramic substrate; a circuit pattern which is an unplated Cu pattern formed on a top surface of said substrate; a power semiconductor element (40, 42) bonded to said circuit pattern by a first solder (30, 32) formed in a first reflow process by melting a first alloy consisting of Sn, Sb, and Cu, said first alloy having a weight percent of Cu in the range of 0.5 to 1%, inclusive, and a weight percent of Sb in the range of 6.5 to 8%, inclusive, the remaining weight percents of said first alloy being Sn, and said first alloy having a solidus temperature in the range of 235 to 238°C, inclusive, wherein the Cu content of the first solder (30, 32) is increased by Cu diffused from the circuit pattern into the first solder (30, 32); a terminal circuit pattern formed on said top surface of said substrate; and a terminal bonded to said terminal circuit pattern by a second solder formed in a second reflow process by melting an Sn-Ag-based or Sn-Ag-Cu-based unleaded solder having a liquidus temperature in the range of 215 to 220°C, inclusive, said second reflow process being performed after said first reflow process and being performed at a temperature lower than 235°C, said first solder (30, 32) not having remelted in said second reflow process.
Process for the production of a clinker having a β-C2S content of > 60% by weight, a C4A3$ content < 5 wt.% and a C3S content < 15 wt.%, the said process comprising the stages of: i) preparing a particulate mixture comprising: - powder having an SO 3 content in the range 2% to 10 wt. % and obtainable through firing the fine fraction of waste concrete having a particle size lower than 500 μm at a temperature in the range 1150 to 1350 °C, in an amount in the range 20 to 90 wt. %, and - limestone in an amount in the range 10 to 65 wt.%, ii) firing the mixture at a temperature of between 1150 and 1350°C. i) preparing a particulate mixture comprising: - powder having an SO 3 content in the range 2% to 10 wt. % and obtainable through firing the fine fraction of waste concrete having a particle size lower than 500 μm at a temperature in the range 1150 to 1350 °C, in an amount in the range 20 to 90 wt. %, and - limestone in an amount in the range 10 to 65 wt.%, - powder having an SO 3 content in the range 2% to 10 wt. % and obtainable through firing the fine fraction of waste concrete having a particle size lower than 500 μm at a temperature in the range 1150 to 1350 °C, in an amount in the range 20 to 90 wt. %, and - limestone in an amount in the range 10 to 65 wt.%, ii) firing the mixture at a temperature of between 1150 and 1350°C.