mhurhangee/ep-ind-claims huggingface dataset:
A method of inspecting an extreme ultraviolet reticle, the method comprising: using an optical inspection tool to obtain a phase defect map for the EUV reticle before a pattern is formed on the EUV reticle, wherein the phase defect map identifies a position of each phase defect on the EUV reticle; after the pattern is formed on the EUV reticle, using a charged particle tool to obtain an image of each reticle portion that is proximate to each position of each phase defect as identified in the phase defect map; displaying or storing the phase defect map and one or more images of each reticle portion that is proximate to each position of each phase defect so as to facilitate analysis of whether to repair or discard the EUV reticle; after the pattern is formed on the EUV reticle, using a charged particle tool to obtain a pattern defect map for the EUV reticle, wherein the pattern defect map identifies a position of each pattern defect on the EUV reticle; displaying and/or storing the pattern defect map in association with the phase defect map and one or more images of each reticle portion that is proximate to each position of each phase defect so as to further facilitate analysis of whether to repair or discard the EUV reticle; and forming multiple beam columns by the charged particle inspection tool using a magnetic flux by-pass plate with multiple bores that perturb a large-scale B field so as to produce lensing fields for each of the beam columns. using an optical inspection tool to obtain a phase defect map for the EUV reticle before a pattern is formed on the EUV reticle, wherein the phase defect map identifies a position of each phase defect on the EUV reticle; after the pattern is formed on the EUV reticle, using a charged particle tool to obtain an image of each reticle portion that is proximate to each position of each phase defect as identified in the phase defect map; displaying or storing the phase defect map and one or more images of each reticle portion that is proximate to each position of each phase defect so as to facilitate analysis of whether to repair or discard the EUV reticle; after the pattern is formed on the EUV reticle, using a charged particle tool to obtain a pattern defect map for the EUV reticle, wherein the pattern defect map identifies a position of each pattern defect on the EUV reticle; displaying and/or storing the pattern defect map in association with the phase defect map and one or more images of each reticle portion that is proximate to each position of each phase defect so as to further facilitate analysis of whether to repair or discard the EUV reticle; and forming multiple beam columns by the charged particle inspection tool using a magnetic flux by-pass plate with multiple bores that perturb a large-scale B field so as to produce lensing fields for each of the beam columns.
A double-stranted oligonucleotide characterized in that it is constituted of two complementary oligonucleotide sequences forming a hybrid, each comprising at one of their 3' and 5' ends one to five unpaired nucleotides forming single-strand ends extending beyond the hybrid, and wherein one of said oligonucleotide sequences is substantially complementary to a target sequence belonging to a DNA or RNA molecule to be specifically repressed, said target sequence belonging to a DNA or RNA molecule of a gene coding for an angiogenic factor, one of said oligonucleotide sequence is represented in the list of sequences in annex under the number SEQ ID NO.7 or SEQ ID NO.8.
Method to determine the mass of particles collected on a collection membrane having a first surface and a second surface, whereby the particles to be analysed are deposited on the first surface, wherein in a first step the particles of the first surface are scanned with a Raman spectrometer and a preliminary Raman signal (Rp) is collected, wherein in a second step at least one additional physical property of the particles is determined, wherein the additional physical property is at least one optical property of the particles, said at least one optical property being an absorption property and/or a transmission property, wherein in a third step a correction factor is calculated based on the additional physical property, wherein in a fourth step a final Raman signal (Rf) is calculated based on the correction factor and the preliminary Raman signal (Rp), and wherein in a fifth step the actual mass of the particles is determined based on the final Raman signal (Rf). wherein in a first step the particles of the first surface are scanned with a Raman spectrometer and a preliminary Raman signal (Rp) is collected, wherein in a second step at least one additional physical property of the particles is determined, wherein the additional physical property is at least one optical property of the particles, said at least one optical property being an absorption property and/or a transmission property, wherein in a third step a correction factor is calculated based on the additional physical property, wherein in a fourth step a final Raman signal (Rf) is calculated based on the correction factor and the preliminary Raman signal (Rp), and wherein in a fifth step the actual mass of the particles is determined based on the final Raman signal (Rf).
Device for centerless round grinding of round, cylindrical work pieces, having a grinding wheel with an axis of rotation, a regulation wheel for pressing of the work piece against the grinding wheel with an axis of rotation, a workrest blade for putting on the work piece and/or a truing device for the grinding wheel and/or a truing device for the regulation wheel, these elements arranged in this way on a machine bed, in particular in an assembly surface inclined in the space, that the grinding wheel and the regulation wheel and the workrest blade touch the work piece at the moment of grinding, whereas the work piece is arranged in a grinding gap being formed by the adjoining regulation wheel, grinding wheel and workrest blade, whereas the grinding wheel and/or the regulation wheel and/or the truing device for the grinding wheel and/or the truing device for the regulation wheel respectively are arranged on a hydraulic and/or electromotive driven carriage directly on the machine bed, which is at least longitudinally adjustable along a longitudinal motion axis, whereas the longitudinal motion axis of the carriage of the grinding wheel and/or the longitudinal motion axis of the carriage of the regulation wheel and/or the longitudinal motion axis or the carriage of the truing device for the regulation wheel and/or the longitudinal motion axis of the carriage of the truing device for the grinding wheel is adjustable within the meaning of a rotational movement around a rotation axis of the carriage of the grinding wheel and/or the rotation axis of the carriage of the grinding wheel and/or the rotation axis of the carriage of the truing device for the regulation wheel and/or the rotational axis of the carriage of the truing device of the grinding wheel are arranged.
An extruder head assembly, comprising an extruder head having an extrusion line; said extrusion line being inserted in a cylindrical seat formed in said extruder head; said extruder head comprising a locking means configured to hold said extrusion line in a working position; said locking means being actuated for releasing said extrusion line and allowing the extraction of said extrusion line from said seat; said extruder head assembly being characterized in that said locking means comprises dowels that are radially movable between a locking position and a release position, said release position allowing the extraction of said extrusion line. said extrusion line being inserted in a cylindrical seat formed in said extruder head; said extruder head comprising a locking means configured to hold said extrusion line in a working position; said locking means being actuated for releasing said extrusion line and allowing the extraction of said extrusion line from said seat; said extruder head assembly being characterized in that said locking means comprises dowels that are radially movable between a locking position and a release position, said release position allowing the extraction of said extrusion line.
A method of communicating timing information for light samples that are scanned to form a displayed image in a scanning mirror display system, the method comprising: for a line of light samples, encoding timing information for a first light sample of the line of light samples using a first, greater number of bits to form encoded timing information for the first light sample; sending intensity information and the encoded first timing information for the first light sample across a communications channel; encoding timing information for a subsequent light sample of the line of light samples by computing a derivative based upon a timing of the subsequent light sample and a position of the subsequent light sample compared to a prior light sample, wherein the derivative represents a rate of change of absolute timing values between adjacent light samples, and encoding the derivative using a second, lesser number of bits to form encoded timing information for the subsequent light sample; and sending intensity information and the encoded timing information for the subsequent light sample across the communications channel. for a line of light samples, encoding timing information for a first light sample of the line of light samples using a first, greater number of bits to form encoded timing information for the first light sample; sending intensity information and the encoded first timing information for the first light sample across a communications channel; encoding timing information for a subsequent light sample of the line of light samples by computing a derivative based upon a timing of the subsequent light sample and a position of the subsequent light sample compared to a prior light sample, wherein the derivative represents a rate of change of absolute timing values between adjacent light samples, and encoding the derivative using a second, lesser number of bits to form encoded timing information for the subsequent light sample; and sending intensity information and the encoded timing information for the subsequent light sample across the communications channel.
Casting device for producing a component from a melt, having a plunger, having a casting channel, having a mold cavity, wherein it is possible for the melt to be fed to the mold cavity via the casting channel, wherein it is possible for the plunger to be moved axially in the casting channel, wherein the plunger is movable from a first position to a second position, wherein upon moving the plunger from the first position to the second position, the melt is introduced into the mold cavity, and wherein the volume that the plunger displaces within the casting channel upon moving it from the first position to the second position corresponds to the volume of the mold cavity, wherein the plunger is movable from the second position to a third position, wherein the volume displaced by the plunger in moving from the first position to the second position and from the second position to the third position within the casting channel is greater than the volume of the mold cavity, and wherein, in the region of the casting channel, an outlet is provided through which melt can escape from the mold cavity when the plunger is in the third position, characterized in that the outlet is formed by leakage gaps between the plunger and the casting channel.
A connector assembly having a connector and a mating connector operative to transmit RF signals across an interface, the connectors, comprising an inner conductor surrounded by an outer conductor basket, the outer conductor basket having a plurality of axially projecting fingers separated by an axial slot between adjacent fingers; an annular abutment projecting axially from an annular base between the inner conductor and the outer conductor basket, wherein the annular abutment comprises: an outwardly facing abutment surface opposing a back-side surface of the axially projecting fingers; and an alignment guide integral with the annular abutment; wherein the outwardly facing abutment surface is configured to prevent radially inward displacement, and plastic deformation, of the basket fingers, and wherein the alignment guide is configured to align the mating connector upon joining both connectors, and wherein the connector comprises a coupling member for coupling with the mating connector disposed radially outboard of the alignment guide and the annular abutment characterised in that the alignment guide comprises a flanged end portion projecting radially outboard from the upper end portion of the annular abutment and configured to be disposed forward of the tip ends of each basket finger. signals across an interface, the connectors, comprising an inner conductor surrounded by an outer conductor basket, the outer conductor basket having a plurality of axially projecting fingers separated by an axial slot between adjacent fingers; an annular abutment projecting axially from an annular base between the inner conductor and the outer conductor basket, wherein the annular abutment comprises: an outwardly facing abutment surface opposing a back-side surface of the axially projecting fingers; and an alignment guide integral with the annular abutment; wherein the outwardly facing abutment surface is configured to prevent radially inward displacement, and plastic deformation, of the basket fingers, and wherein the alignment guide is configured to align the mating connector upon joining both connectors, and wherein the connector comprises a coupling member for coupling with the mating connector disposed radially outboard of the alignment guide and the annular abutment characterised in that the alignment guide comprises a flanged end portion projecting radially outboard from the upper end portion of the annular abutment and configured to be disposed forward of the tip ends of each basket finger. an outwardly facing abutment surface opposing a back-side surface of the axially projecting fingers; and an alignment guide integral with the annular abutment; wherein the outwardly facing abutment surface is configured to prevent radially inward displacement, and plastic deformation, of the basket fingers, and wherein the alignment guide is configured to align the mating connector upon joining both connectors, and wherein the connector comprises a coupling member for coupling with the mating connector disposed radially outboard of the alignment guide and the annular abutment
Method to control a powertrain in a vehicle during an acceleration, said powertrain comprising a propulsion unit, a multi-clutch transmission (13, 15) drivingly connected to the propulsion unit, and a control unit for controlling at least the powertrain components, which control unit is provided with a prediction model comprising at least one simulated shift sequence for the multi-clutch transmission (13, 15), the method comprises the steps of: - monitoring at least one operating parameter of the powertrain; the method being characterised by performing the steps of: - estimating the time (t E) between initiation of a first power upshift and initiation of a sequential second power upshift using the prediction model; and, if the estimated time is shorter than a predetermined time limit (t LIM), - controlling the propulsion unit to limit the vehicle acceleration so that the time between the first and second power upshifts is increased to be at least equal to the predetermined time limit (t LIM). - monitoring at least one operating parameter of the powertrain; - estimating the time (t E) between initiation of a first power upshift and initiation of a sequential second power upshift using the prediction model; and, - controlling the propulsion unit to limit the vehicle acceleration so that the time between the first and second power upshifts is increased to be at least equal to the predetermined time limit (t LIM).
Connection module adapted to provide a galvanically isolated connection of field devices to a control facility, comprising a primary side with primary connections (117, 118; 217, 218) for the connection to the control facility, a secondary side with secondary connections (129,..,132; 229,..,232) for the connection to the field device (134, 136, 148,..,152) and coupling means (103,..,109) adapted to operationally connect the primary side to the secondary side and to galvanically isolate the primary side from the secondary side, wherein electronic detecting and adjusting means (260, 261, 262, 270, 275, 276) are adapted to automatically detect properties and/or requirements, e.g. electrical signal properties and/or electrical signal requirements, of a control facility and a field device when the control facility is connected to the primary side and the field device is connected to the secondary side and both, the control facility and the field device, are operative to automatically adjust electrical parameters, e.g. electrical transfer characteristics, of the connection module to comply with detected properties and/or requirements of the control facility and the field device, characterized in that the electronic detecting and adjusting means comprise a primary current measurement device (267, 270) for measuring a primary current through a primary winding, that the electronic detecting and adjusting means comprise a first variable resistor which is connected in series to the primary connections (217, 218) and that the first variable resistor is adjusted in dependence of a primary current measured by the primary current measurement device (267, 270).
Arrangement for charging an electrical vehicle with a DC voltage, comprising an electrical vehicle charging device and the electrical vehicle, whereby the electrical vehicle charging device comprises a power converter having an input side adapted for receiving an AC voltage from an AC grid or a DC voltage from a DC grid and an output side, a transformer having a primary side connected to the output side and a secondary side, a full wave rectifier having a first and a secondary input connected to the secondary side and a positive and a negative output, characterised in that it further comprises at least two output capacitors connected between respective end taps in series via a center tap and between the positive and a negative output, whereby the end taps are adapted for providing the DC voltage to the electrical vehicle, a switch connected in series between the first or the secondary input and the center tap, and a control device adapted for closing and/or opening the switch depending on a DC voltage level signal received from the electrical vehicle and required for charging the electrical vehicle, whereby the electrical vehicle is electrically connectable to the end taps via an electrical connection and adapted for sending a DC voltage level signal comprising the DC voltage level via the electrical connection. an electrical vehicle charging device and the electrical vehicle, whereby the electrical vehicle charging device comprises a power converter having an input side adapted for receiving an AC voltage from an AC grid or a DC voltage from a DC grid and an output side, a transformer having a primary side connected to the output side and a secondary side, a full wave rectifier having a first and a secondary input connected to the secondary side and a positive and a negative output, characterised in that it further comprises at least two output capacitors connected between respective end taps in series via a center tap and between the positive and a negative output, whereby the end taps are adapted for providing the DC voltage to the electrical vehicle, a switch connected in series between the first or the secondary input and the center tap, and a control device adapted for closing and/or opening the switch depending on a DC voltage level signal received from the electrical vehicle and required for charging the electrical vehicle, whereby the electrical vehicle is electrically connectable to the end taps via an electrical connection and adapted for sending a DC voltage level signal comprising the DC voltage level via the electrical connection.
A process for preparing a lipid and protein component-containing composition, which is an infant or follow-on formula or a growing up milk and comprises lipid globules, comprising the steps of: a) providing an aqueous phase with a dry matter content of 10 to 60 wt.% (based on total weight of the aqueous phase), which comprises at least one protein component, b) providing a liquid lipid phase, which comprises at least one lipid and c) mixing the lipid phase with the aqueous phase in a ratio of 5 to 50 % (w/w) using a static mixer so as to obtain a lipid and protein component-containing composition comprising lipid globules, wherein the lipid globules have a volume-weighted mode diameter of less than 15 μm. a) providing an aqueous phase with a dry matter content of 10 to 60 wt.% (based on total weight of the aqueous phase), which comprises at least one protein component, b) providing a liquid lipid phase, which comprises at least one lipid and c) mixing the lipid phase with the aqueous phase in a ratio of 5 to 50 % (w/w) using a static mixer so as to obtain a lipid and protein component-containing composition comprising lipid globules, wherein the lipid globules have a volume-weighted mode diameter of less than 15 μm.
An acid-base addition salt in substantially pure form, having the formula of: (X +) m (U -) n wherein (a) U - is an anionic moiety of ursodeoxycholic acid; (b) X + is a cationic moiety of berberine; and (c) m is 1 and n is 1. (a) U - is an anionic moiety of ursodeoxycholic acid; (b) X + is a cationic moiety of berberine; and (c) m is 1 and n is 1.