mhurhangee/ep-ind-claims huggingface dataset:
A method for forming a surface relief microstructure on a polymer banknote substrate comprising the steps of: A) providing a polymer banknote substrate being an opaque substrate allowing UV light transmission and having a thickness of 12 micrometer up to 300 micrometer; B) applying a curable composition which comprises at least a photoinitiator which absorbs in the UV-A region and in addition in the near VIS range to at least a portion of the frontside of the polymer banknote substrate; C) contacting at least a portion of the curable composition with surface relief microstructure; D) curing the composition by using at least one UV lamp having emission peaks in the UV-A range and near VIS range which is arranged on the backside of the polymer banknote substrate. A) providing a polymer banknote substrate being an opaque substrate allowing UV light transmission and having a thickness of 12 micrometer up to 300 micrometer; B) applying a curable composition which comprises at least a photoinitiator which absorbs in the UV-A region and in addition in the near VIS range to at least a portion of the frontside of the polymer banknote substrate; C) contacting at least a portion of the curable composition with surface relief microstructure; D) curing the composition by using at least one UV lamp having emission peaks in the UV-A range and near VIS range which is arranged on the backside of the polymer banknote substrate.
A computer-implemented method for predicting pore pressure in a subsurface geological environment, comprising: receiving velocity data for a target volume, the target volume comprising an array of measurement locations, each measurement location having an associated velocity value; performing geomechanical modeling for the target volume, wherein said geomechanical modeling comprises obtaining a total stress tensor across the target volume; determining, at a subset of measurement locations, a mean effective stress from a pore pressure value and the total stress tensor, wherein the velocity value and the pore pressure value are known at each of the subset of measurement locations; establishing a mathematical regression relationship between the velocity values and a surrogate stress at the subset of measurement locations, wherein the surrogate stress is an equivalent effective stress defined as the mean effective stress for a given porosity where the shear stress is zero; determining, at each measurement location, the surrogate stress based on the established mathematical regression relationship between the velocity values and the surrogate stress at the subset of measurement locations; determining, at each measurement location, a mean effective stress from the surrogate stress at each measurement location and the total stress tensor; determining a prediction of a pore pressure value for each measurement location within the target volume as the difference between a mean total stress from the total stress tensor and the mean effective stress at each measurement location; and outputting the result to an output device. receiving velocity data for a target volume, the target volume comprising an array of measurement locations, each measurement location having an associated velocity value; performing geomechanical modeling for the target volume, wherein said geomechanical modeling comprises obtaining a total stress tensor across the target volume; determining, at a subset of measurement locations, a mean effective stress from a pore pressure value and the total stress tensor, wherein the velocity value and the pore pressure value are known at each of the subset of measurement locations; establishing a mathematical regression relationship between the velocity values and a surrogate stress at the subset of measurement locations, wherein the surrogate stress is an equivalent effective stress defined as the mean effective stress for a given porosity where the shear stress is zero; determining, at each measurement location, the surrogate stress based on the established mathematical regression relationship between the velocity values and the surrogate stress at the subset of measurement locations; determining, at each measurement location, a mean effective stress from the surrogate stress at each measurement location and the total stress tensor; determining a prediction of a pore pressure value for each measurement location within the target volume as the difference between a mean total stress from the total stress tensor and the mean effective stress at each measurement location; and outputting the result to an output device.
Solid fuel boiler burner, comprising a combustion chamber having aeration openings, driven by an electric motor through a transmission gear, a fuel feeder with an electric motor driving a feeder worm, fuel chute elements with an outlet in an initial zone of the rotary feeder worm which supplies the fuel to the combustion chamber, and blower elements arranged to supply air to a zone below and to a zone above a layer of burning fuel, wherein the rotary combustion chamber is mounted in a casing and is equipped with aeration ducts (26, 27) and this unit of combustion chamber and casing is connected by hook catches with a gearwheel which is mounted rotationally between two cage bearings, the gearwheel and a compensating and pressure plate having openings, the burner further comprising a blower chamber and an adjustable screen, wherein said openings are configured for an inflow of air from the blower chamber through the adjustable screen which controls a ratio of primary to secondary air injected into said aeration ducts (26, 27), moreover the feeder worm has a further, axially placed aeration duct, with outlet openings in the combustion chamber
A press for pressing and gluing wooden lamellas into laminated panels comprising a glue applicator, an infeed conveyor, a cut-off saw, a non-driven roller conveyor and parallel running endless chains is characterised by the fact that: - a segment pusher is movably fixed on the infeed conveyor, the segment pusher consisting of separate segments, each of them having its own servo electric drive in a form of a hydraulic cylinder with a measuring system for synchronous operation of all active segments; - pusher dogs are fixed transversely and at a distance along the entire circumference of each of the parallel running endless chains, the pusher dogs being positioned between two support laths, whereby the pusher dogs with bearing wheels run along guide channels formed within support laths, wherein each endless chain has its own drive; - drive wheels are provided, which are positioned in sequence above the non-driven roller conveyor of the infeed conveyor, wherein each drive wheel has its own servo electric drive for pushing wooden lamellas (5, 5.1, 5.2) into the press. - a segment pusher is movably fixed on the infeed conveyor, the segment pusher consisting of separate segments, each of them having its own servo electric drive in a form of a hydraulic cylinder with a measuring system for synchronous operation of all active segments; - pusher dogs are fixed transversely and at a distance along the entire circumference of each of the parallel running endless chains, the pusher dogs being positioned between two support laths, whereby the pusher dogs with bearing wheels run along guide channels formed within support laths, wherein each endless chain has its own drive; - drive wheels are provided, which are positioned in sequence above the non-driven roller conveyor of the infeed conveyor, wherein each drive wheel has its own servo electric drive for pushing wooden lamellas (5, 5.1, 5.2) into the press.
An electrode plate for a flowing electrolyte battery, wherein the electrode plate includes one or more frangible portions connected to the electrode plate, wherein an interface between the one or more frangible portions and a remainder of the electrode plate includes a groove or a series of small indentations, and wherein the remainder of the electrode plate defines a cut-away space that complements a shape of a manifold of the battery.
A method performed by a wireless transmit/receive unit, WTRU, the method comprising: sending, by the WTRU in a CELL_FACH state, data via an enhanced sending, by the WTRU in a CELL_FACH state, data via an enhanced dedicated channel, E-DCH; transitioning, by the WTRU, to a CELL_DCH state from the CELL FACH state; and characterised in that the WTRU transitions, to the CELL DCH state, and sends additional data without performing a synchronization procedure A, by the WTRU and a network device, subsequent to the WTRU transition from the CELL_ACH to the CELL_DCH state. sending, by the WTRU in a CELL_FACH state, data via an enhanced dedicated channel, E-DCH; transitioning, by the WTRU, to a CELL_DCH state from the CELL FACH state; and characterised in that the WTRU transitions, to the CELL DCH state, and sends additional data without performing a synchronization procedure A, by the WTRU and a network device, subsequent to the WTRU transition from the CELL_ACH to the CELL_DCH state.
A fluid manifold apparatus for liquid cooling of electronic devices comprising: a support member; a supply channel; a return channel; a supply port to provide a fluid to the supply channel; a return port to receive the fluid from the return channel; at least two port fittings; characterized by: a first sleeve connectable to one of the at least two port fittings, the first sleeve includes a first length with a first gasket to form a fluid tight seal between the first sleeve and the supply channel; a second sleeve connectable to the other of the at least two port fittings, the second sleeve includes a second length with a second gasket to form a fluid tight seal between the second sleeve and the return channel; whereby: the support member comprises the supply channel and the return channel; at least one sleeve selected from the first sleeve and the second sleeve is to pass through at least one channel selected from the supply channel and the return channel. a support member; a supply channel; a return channel; a supply port to provide a fluid to the supply channel; a return port to receive the fluid from the return channel; at least two port fittings; a first sleeve connectable to one of the at least two port fittings, the first sleeve includes a first length with a first gasket to form a fluid tight seal between the first sleeve and the supply channel; a second sleeve connectable to the other of the at least two port fittings, the second sleeve includes a second length with a second gasket to form a fluid tight seal between the second sleeve and the return channel; whereby: the support member comprises the supply channel and the return channel; at least one sleeve selected from the first sleeve and the second sleeve is to pass through at least one channel selected from the supply channel and the return channel. the support member comprises the supply channel and the return channel; at least one sleeve selected from the first sleeve and the second sleeve is to pass through at least one channel selected from the supply channel and the return channel.
Method for producing a sealing element, which has a thickness dependent on the circumferential position (UP1, UP2,..., UPn), for sealing a connection between two flanges, at least one of which has a non-planar sealing surface, characterized in that, at a plurality of circumferential positions (UP1, UP2,..., UPn) lying in the circumferential direction of at least one flange, a respective spacing value between the opposite sealing surfaces of the flanges is determined at multiple locations lying one after the other in a direction perpendicular to a tangent to the circumference at each of the circumferential positions (UP1, UP2,..., UPn), and a single thickness value is respectively determined for each circumferential position (UP1, UP2,..., UPn) from the multiple spacing values of each circumferential position (UP1, UP2,..., UPn) and the sealing element is produced in dependence on all of the single thickness values determined, wherein the thickness at each of the circumferential positions (UP1, UP2,..., UPn) corresponding to the flanges is constant in a direction perpendicular to the tangent to the circumference and corresponds to the determined thickness value of the respective circumferential position (UP1, UP2,..., UPn).
A method for the automatic determination of machining parameters (P' (x)) for a machining process, in which a machining head is guided along a machining path over at least one workpiece to be machined, and, depending on the respective position (x) along the machining path, certain machining parameters (P' (x)) are selected from stored machining parameters (P(x)) on the basis of predefined conditions (B(x)) for machining the at least one workpiece, characterized in that limit values (P G (x)) for the machining parameters (P(x)) are determined during the machining process to be performed, and new machining parameters (P''(x)) for the machining process to be performed are specified by taking these limit values (P G (x)) into consideration.
An aircraft water tank comprising: a cylindrical section; dome sections provided on both sides of the cylindrical section; and a mouthpiece provided in a center of each of the dome sections; the dome sections being provided with an inner liner and a fiber-reinforced resin layer provided on an outer peripheral surface of the inner liner; the inner liner and the fiber-reinforced resin layer being provided with coaxially positioned first and second openings (22, 24), respectively; each of the mouthpieces being provided with a cylindrical mouthpiece body that passes through the openings (22, 24), and an annular wall section that extends outward in a radial direction from around the entire outer circumference of the mouthpiece body between the inner liner and the fiber-reinforced resin layer, and is attached to the inner liner and the fiber-reinforced resin layer around the circumferences of the openings (22, 24), wherein the annular wall section has an outer surface shape on a side directly attached to the fiber-reinforced resin layer, the surface shape of the annular wall section being formed by a uniform tension curved surface, wherein the entireties of the outer surfaces of the annular wall sections are attached to those portions of the fiber-reinforced resin layer surrounding the second openings; wherein the uniform tension curved surface is a surface by means of which stress caused by internal pressure of the aircraft water tank is uniformly distributed throughout the fiber-reinforced resin layer over the dome sections, and wherein the inner liner is formed from a polyolefin, characterised in that the inner liner is thicker in portions thereof surrounding the first openings than in other portions thereof. a cylindrical section; dome sections provided on both sides of the cylindrical section; and a mouthpiece provided in a center of each of the dome sections;
An in vitro method of preventing, inhibiting or reducing a) incorporation of β-N-methylamino-L-alanine (BMAA), 2,4-diaminobutyric acid (2,4-DAB), 2,3-diaminobutyric acid (2,3-DAB), N-(2-aminoethyl)glycine, or β-amino-N-methyl-alanine (BAMA), into one or more proteins of a mammalian cell, comprising contacting the cell with L-serine, a salt of L-serine or an L-serine ester, in an amount sufficient to prevent, inhibit or reduce incorporation of β-N-methylamino-L-alanine (BMAA), 2,4-diaminobutyric acid (2,4-DAB), 2,3-diaminobutyric acid (2,3-DAB), N-(2- aminoethyl)glycine, or β-amino-N-methyl-alanine (BAMA), into the protein; or b) misfolding or aggregation of one or more proteins in a mammalian cell, comprising contacting the cell with L-serine, a salt of L-serine or an L-serine ester, in an amount sufficient to prevent, inhibit or reduce misfolding or aggregation of the protein, wherein the misfolding or aggregation is caused by incorporation of BMAA, 2,4-diaminobutyric acid (2,4-DAB), 2,3-diaminobutyric acid (2,3-DAB), N-(2-aminoethyl)glycine, or β-amino-N-methyl-alanine (BAMA), into the one or more proteins. a) incorporation of β-N-methylamino-L-alanine (BMAA), 2,4-diaminobutyric acid (2,4-DAB), 2,3-diaminobutyric acid (2,3-DAB), N-(2-aminoethyl)glycine, or β-amino-N-methyl-alanine (BAMA), into one or more proteins of a mammalian cell, comprising contacting the cell with L-serine, a salt of L-serine or an L-serine ester, in an amount sufficient to prevent, inhibit or reduce incorporation of β-N-methylamino-L-alanine (BMAA), 2,4-diaminobutyric acid (2,4-DAB), 2,3-diaminobutyric acid (2,3-DAB), N-(2- aminoethyl)glycine, or β-amino-N-methyl-alanine (BAMA), into the protein; or b) misfolding or aggregation of one or more proteins in a mammalian cell, comprising contacting the cell with L-serine, a salt of L-serine or an L-serine ester, in an amount sufficient to prevent, inhibit or reduce misfolding or aggregation of the protein, wherein the misfolding or aggregation is caused by incorporation of BMAA, 2,4-diaminobutyric acid (2,4-DAB), 2,3-diaminobutyric acid (2,3-DAB), N-(2-aminoethyl)glycine, or β-amino-N-methyl-alanine (BAMA), into the one or more proteins.
Method for remote monitoring of a fire extinguishing device or installation, wherein the fire extinguishing device or installation contains an extinguishing agent under pressure, and at least two manometers each measure a pressure value of the extinguishing agent independently of one another, characterised by the following process steps: a) calculation of the deviation between the measured pressure values of two manometers; b) comparison of a deviation calculated in step a) with a limit value; c) if a deviation of the measured values between two manometers exceeds the limit value: plausibility check of these measured values and identification of one or more defective manometers; d) comparison of the measured pressure values of the manometers with at least one reference value, wherein manometers identified as defective in step c) are excluded from this comparison, e) output of an error or status message from the comparison of the measured pressure values with each other and/or with the reference value. a) calculation of the deviation between the measured pressure values of two manometers; b) comparison of a deviation calculated in step a) with a limit value; c) if a deviation of the measured values between two manometers exceeds the limit value: plausibility check of these measured values and identification of one or more defective manometers; d) comparison of the measured pressure values of the manometers with at least one reference value, wherein manometers identified as defective in step c) are excluded from this comparison, e) output of an error or status message from the comparison of the measured pressure values with each other and/or with the reference value.
Allogeneic chimeric antigen receptor -T cells (CAR-T cells) comprising an anti-human CD19 4-1BB/CD3zeta CAR, for use in treating a subject who has refractory and/or relapsed large B-cell lymphoma or refractory and/or relapsed follicular lymphoma, wherein the CAR-T cells are administered to the subject in at least a first unit dose and optionally a subsequent unit dose, wherein the first unit dose is a unit dose of 120×10 6 cells/dose or 360×10 6 cells/dose.
A method for producing a plate arrangement with two plates (1, 2) which at least in sections have an intermediate space located between them and a constant distance (d) to one another and/or are arranged parallel to one another, and between which a fusible solder material (3, 3') is arranged, characterized in that a pressure difference is produced between the intermediate space between the plates and the outer space surrounding the plates in such a way that the pressure in the outer space is higher than in the intermediate space and in that the temperature of the solder material (3, 3') is at least temporarily raised above its melting temperature or its bonding temperature during the existence of the pressure difference, characterized in that at least one plate, in particular both plates (1, 2), is/are heated at least temporarily to above the softening temperature of its/their material during the time when the pressure in the outer space is higher than in the intermediate space.
A method of sequencing amplified target nucleic acid, comprising (i) contacting a target nucleic acid with a capture probe and an immobilized probe, the capture probe comprising a first segment that binds to the target nucleic acid and a second segment that binds to the immobilized probe, wherein the target nucleic acid binds to the first segment of the capture probe, and the second segment of the capture probe binds to the immobilized probe, thereby capturing the target nucleic acid; (ii) performing a PCR amplification of the captured target nucleic acid without dissociation from the capture probe bound to the immobilized probe before initiating the PCR amplification, wherein the PCR amplification is performed in the same vessel as the contacting step; (iii) sequencing the amplified target nucleic acid; and (iv) identifying at least one mutation that is present in less than 10% of molecules in the target nucleic acid population, (i) contacting a target nucleic acid with a capture probe and an immobilized probe, the capture probe comprising a first segment that binds to the target nucleic acid and a second segment that binds to the immobilized probe, wherein the target nucleic acid binds to the first segment of the capture probe, and the second segment of the capture probe binds to the immobilized probe, thereby capturing the target nucleic acid; (ii) performing a PCR amplification of the captured target nucleic acid without dissociation from the capture probe bound to the immobilized probe before initiating the PCR amplification, wherein the PCR amplification is performed in the same vessel as the contacting step; (iii) sequencing the amplified target nucleic acid; and (iv) identifying at least one mutation that is present in less than 10% of molecules in the target nucleic acid population,
An untethered in-line inspection tool for the non-destructive testing of a tubular test component, the in-line inspection tool comprising one or more partial saturation eddy current testing (PSET) modules (7, 8) configured to locate with an internal surface of the test component, the one or more PSET modules (7, 8) comprising a variable strength permanent magnet for generating a variable DC magnetic field within the test component and at least one eddy current sensor characterised in that the variable permanent magnet comprises a backing plate connected between poles (17, 18) of the variable permanent magnet, the one or more PSET modules (7, 8) being configured to move the backing plate relative to the poles (17, 18) to provide a means for adjusting the strength of the DC magnet field generated by the permanent magnet to a retentivity point of a magnetic hysteresis curve of the tubular test component.