mhurhangee/ep-ind-claims huggingface dataset:
An image intensifier device (300; 300'; 500; 600) which comprises an intensifier tube and an electric power supply module (360; 360'; 560), wherein the intensifier tube includes: - at least one photocathode, configured to convert an incident photon beam into an initial electron beam; - a micro-channel plate, configured, in use, to generate a plurality of secondary electrons in response to the reception of an incident electron, and configured to receive said initial electron beam and to generate in response an intensified electron beam; and - a conversion element (330; 530), configured to receive the intensified electron beam and to emit in response an intensified photon beam, with the micro-channel plate located between the photocathode and the conversion element (330; 530); - a first set of lenses, called objective, configured to optically match a focusing surface located outside the intensifier tube, and an initial image forming surface located inside or at the input of the intensifier tube; the electric power supply module (360; 360'; 560) being configured to supply at least one respective polarisation voltage, to each of the photocathode, the micro-channel plate, and the conversion (330; 530); characterised in that the electric power supply module (360; 360'; 560) entirely extends in a region located entirely upstream of the photocathode, on the side of the photocathode opposite to the micro-channel plate, at the periphery of the objective - at least one photocathode, configured to convert an incident photon beam into an initial electron beam; - a micro-channel plate, configured, in use, to generate a plurality of secondary electrons in response to the reception of an incident electron, and configured to receive said initial electron beam and to generate in response an intensified electron beam; and - a conversion element (330; 530), configured to receive the intensified electron beam and to emit in response an intensified photon beam, with the micro-channel plate located between the photocathode and the conversion element (330; 530); - a first set of lenses, called objective, configured to optically match a focusing surface located outside the intensifier tube, and an initial image forming surface located inside or at the input of the intensifier tube; the electric power supply module (360; 360'; 560) being configured to supply at least one respective polarisation voltage, to each of the photocathode, the micro-channel plate, and the conversion (330; 530); characterised in that the electric power supply module (360; 360'; 560) entirely extends in a region located entirely upstream of the photocathode, on the side of the photocathode opposite to the micro-channel plate, at the periphery of the objective
A method, comprising: executing on a processor operations including: generating a first netlist for a circuit design stored in a memory coupled to the processor; determining a placement of the first netlist on a target IC to produce a first placed design; performing a set of optimizations on the first placed design; recording the set of optimizations in an optimization history file by specifying for each optimization in the set of optimizations the type of a physical synthesis optimization performed and names of module instances modified by the optimization; performing one or more optimizations specified in the optimization history file to the first netlist by modifying the designated module instances according to the specified types of physical synthesis optimizations to produce a second netlist that is different than the first netlist; determining placement of the second netlist on the target IC to produce a second placed design that is different than the first placed design; and routing nets of the second placed design to produce a placed and routed circuit design. generating a first netlist for a circuit design stored in a memory coupled to the processor; determining a placement of the first netlist on a target IC to produce a first placed design; performing a set of optimizations on the first placed design; recording the set of optimizations in an optimization history file by specifying for each optimization in the set of optimizations the type of a physical synthesis optimization performed and names of module instances modified by the optimization; performing one or more optimizations specified in the optimization history file to the first netlist by modifying the designated module instances according to the specified types of physical synthesis optimizations to produce a second netlist that is different than the first netlist; determining placement of the second netlist on the target IC to produce a second placed design that is different than the first placed design; and routing nets of the second placed design to produce a placed and routed circuit design.
A method for generating a quality measure for a frequency set for indicating the quality of said frequency set for use in a multi frequency ranging method, said frequency set comprising at least a primary frequency, a first frequency, and a second frequency, said multi frequency ranging method being a method for estimating the range to an object by determining at least a first phase difference and a second phase difference in a received reflected echo signal and processing said first phase difference and said second phase difference, said first phase difference being the phase difference between the primary frequency (FO') and the first frequency (F1') in the received reflected echo signal and said second phase difference being the phase difference between the primary frequency (FO') and the second frequency (F2') in the received reflected echo signal, wherein said method for generating a quality measure comprises the steps of: • determining the smallest distance between any two range lines of a set of range lines in an N-dimensional phase space, wherein the N-dimensional phase space comprises at least a first dimension representing the first phase difference, and a second dimension representing the second phase difference, said N-dimensional phase space having a dimension equal to the number of phase differences used by the multi frequency ranging method, said range lines representing all theoretical possible combinations of the first phase difference, the second phase difference, and potential further phase differences, used by said multi frequency method, each point on a range line corresponding to a specific range to an object within the unambiguous range of the multi frequency ranging method; • determining a quality measure for said specific frequency set based on the determined smallest distance. • determining the smallest distance between any two range lines of a set of range lines in an N-dimensional phase space, wherein the N-dimensional phase space comprises at least a first dimension representing the first phase difference, and a second dimension representing the second phase difference, said N-dimensional phase space having a dimension equal to the number of phase differences used by the multi frequency ranging method, said range lines representing all theoretical possible combinations of the first phase difference, the second phase difference, and potential further phase differences, used by said multi frequency method, each point on a range line corresponding to a specific range to an object within the unambiguous range of the multi frequency ranging method; • determining a quality measure for said specific frequency set based on the determined smallest distance.
An intermediate film for laminated glass with a laminated structure of two or more layers, comprising: a first layer containing a polyvinyl acetal resin and a plasticizer, and a second layer disposed at the side of a first surface of the first layer, the second layer containing a polyvinyl acetal resin and a plasticizer, wherein a degree of acetylation of the polyvinyl acetal resin contained in the first layer exceeds 30 mol%, and a degree of acetylation of the polyvinyl acetal resin contained in the second layer is 5 mol% or lower. a first layer containing a polyvinyl acetal resin and a plasticizer, and a second layer disposed at the side of a first surface of the first layer, the second layer containing a polyvinyl acetal resin and a plasticizer, wherein a degree of acetylation of the polyvinyl acetal resin contained in the first layer exceeds 30 mol%, and a degree of acetylation of the polyvinyl acetal resin contained in the second layer is 5 mol% or lower.
Steering unit for a vehicle, comprising two handles and at least one side mirror having a mirror housing which is connected to a supporting arm, wherein the supporting arm is fixed in a rotatably movable manner to one of the two handles in such a way that the side mirror can be pivoted and/or folded from a folded-in first position located below the horizontal longitudinal axis of the handle into a folded-out second position located above the horizontal longitudinal axis of the handle, wherein the supporting arm can be pivoted and/or folded about a first pivot axis which is formed substantially perpendicular to the horizontal longitudinal axis of the handle, wherein the supporting arm is attached in a rotatably movable manner to the handle by means of a hinge joint, wherein a hinge pin defines the first pivot axis, characterized in in that the hinge joint comprises a latching mechanism with an unlocking element, in particular an unlocking knob, by the actuation of which the hinge pin can be moved in the axial direction against a pretensioning force, in particular against a spring force.
A mobile electronic device article or component, being made of a composition having a dielectric constant ε at 2.4 GHz of less than 3.0, as measured according to ASTM D2520 (2.4 GHz), and/or a dissipation factor (Df) at 2.4 GHz of less than 0.010, as measured according to ASTM D2520 (2.4 GHz) and comprising greater than 30 wt. % of a polyamide, based on the total weight of the composition, said polyamide comprising at least 50 mol.%, based on the total number of moles in the polyamide, of recurring units (R PA) according to formula: wherein n equals 16, and R 1 is p -xylylene. n equals 16, and R 1 is p -xylylene.
A viewing system comprising: a storage device (904, 922); a calibration set stored on the storage device; a temperature sensor; a matrix selector; a geometric change calculator; a data source to receive data representing local content; a render engine; and a display system connected to the render engine and adapted to display a rendering received from the render engine, characterized in that the calibration set includes a plurality of temperatures and a plurality of homography transformation matrices, each respective homography transformation matrix being for a respective temperature range, the matrix selector selects a respective one of the homography transformation matrices corresponding to a temperature detected by the temperature sensor, the geometric change calculator calculates a geometric change based on the selected homography transformation matrix and the render engine is connected to the data source to receive the data and connected to the geometric change calculator to receive the geometric change and render the local content based on the geometric change. a storage device (904, 922); a calibration set stored on the storage device; a temperature sensor; a matrix selector; a geometric change calculator; a data source to receive data representing local content; a render engine; and a display system connected to the render engine and adapted to display a rendering received from the render engine, characterized in that the calibration set includes a plurality of temperatures and a plurality of homography transformation matrices, each respective homography transformation matrix being for a respective temperature range, the matrix selector selects a respective one of the homography transformation matrices corresponding to a temperature detected by the temperature sensor, the geometric change calculator calculates a geometric change based on the selected homography transformation matrix and the render engine is connected to the data source to receive the data and connected to the geometric change calculator to receive the geometric change and render the local content based on the geometric change.
A mechanical blend of powders for brazing, wherein each particle in the blend is either a phosphorous source particle or a silicon source particle, wherein silicon and phosphorous together are present in the blend in at least 25 wt%, wherein the at least one silicon source particle is selected from the group consisting of elemental silicon, ferro-silicon, silicon carbides, and silicon borides and the at least one phosphorous source particle is selected from the group consisting of manganese phosphides, nickel phosphides, potassium phosphides, reducible oxygen-containing phosphorus compounds, ammonium salts of phosphorus compounds, oxides of phosphorous, hypo-phosphoric acids, pyro-phosphoric acid and ammonium salts of phosphorus compounds and wherein the particles in the powder have an average particle size less than 250 μm.
A method for patterning an imprintable medium on a substrate by means of an imprint template having a patterned surface, the method comprising: contacting the patterned surface and the imprintable medium in the presence of a gas; hardening the imprintable medium; and separating the patterned surface and the imprintable medium, wherein trapped gas between the patterned surface and the substrate and/or imprintable medium, escapes to a void space of a nanoporous solid medium, configured to permit escape of the trapped gas, prior to separating the patterned surface and the imprintable medium; wherein the imprintable medium is hardened prior to separating the patterned surface and the imprintable medium; wherein the imprint template comprises the void space; and characterized in that the patterned surface comprises a release layer comprising or consisting essentially of titania, alumina, tantalum oxide, or any mixture thereof. contacting the patterned surface and the imprintable medium in the presence of a gas; hardening the imprintable medium; and separating the patterned surface and the imprintable medium, wherein trapped gas between the patterned surface and the substrate and/or imprintable medium, escapes to a void space of a nanoporous solid medium, configured to permit escape of the trapped gas, prior to separating the patterned surface and the imprintable medium; wherein the imprintable medium is hardened prior to separating the patterned surface and the imprintable medium; wherein the imprint template comprises the void space; and characterized in that the patterned surface comprises a release layer comprising or consisting essentially of titania, alumina, tantalum oxide, or any mixture thereof.
Pivot fitting, in particular for movable furniture parts on items of furniture, having - a first lever and a second lever which are mounted such as to be pivotable relative to one another about a pivot axis out of a basic position through a predetermined angle (α) in an adjustment direction and a restoring direction, - a clamping or latching mechanism, by which the two levers (2, 3) can be fixed relative to one another in different angle positions within the predetermined angle (α) against a torque acting in the restoring direction and can be pivoted in the restoring direction when the clamping or latching mechanism is deactivated, - an overload coupling, by which the first lever can be pivoted relative to the second lever in the restoring direction when a predetermined torque is exceeded while the clamping or latching mechanism is activated, characterized in that - the overload coupling is configured as a claw coupling which is arranged as a structural unit not directly integrated into the clamping to latching mechanism between the first lever and the second lever. - a first lever and a second lever which are mounted such as to be pivotable relative to one another about a pivot axis out of a basic position through a predetermined angle (α) in an adjustment direction and a restoring direction, - a clamping or latching mechanism, by which the two levers (2, 3) can be fixed relative to one another in different angle positions within the predetermined angle (α) against a torque acting in the restoring direction and can be pivoted in the restoring direction when the clamping or latching mechanism is deactivated, - an overload coupling, by which the first lever can be pivoted relative to the second lever in the restoring direction when a predetermined torque is exceeded while the clamping or latching mechanism is activated, - the overload coupling is configured as a claw coupling which is arranged as a structural unit not directly integrated into the clamping to latching mechanism between the first lever and the second lever.
An electric device comprising: an electric element comprising a body, which has a front and a back, and a terminal, a conductive spring being deflected, the spring being electrically connected to the terminal by a fusible joint, where the spring and the terminal are electrically disconnected if the joint fuses, and a housing (21, 23) characterised in that the terminal is bent so that it runs adjacent to the front or the back, and wherein the spring is fixed to the housing (21, 23) so that the spring is deflected and wherein a part of the spring that is connected to the terminal will move away from the terminal when the joint fuses. an electric element comprising a body, which has a front and a back, and a terminal, a conductive spring being deflected, the spring being electrically connected to the terminal by a fusible joint, where the spring and the terminal are electrically disconnected if the joint fuses, and a housing (21, 23) characterised in that the terminal is bent so that it runs adjacent to the front or the back, and wherein the spring is fixed to the housing (21, 23) so that the spring is deflected and wherein a part of the spring that is connected to the terminal will move away from the terminal when the joint fuses.
A radio transmitting device configured to transmit a spread-spectrum radio signal wherein a carrier frequency changes in a predetermined set of radio channels according to a hopping sequence, the radio signal being organized in packets (F0, F1) having each a header (H0-H2) transmitted at a first channel in the hopping sequence comprising a detection sequence, and payload data (P0-P12) encoding a message transmitted at following channels in the hopping sequence(F1, F0) characterised by being configured to begin a transmission of a header (H0-H2) by selecting a binary mask and generate the hopping sequence by generating a pseudorandom permutation of numbers, altering the pseudorandom permutation by bitwise exclusive-or operations with the binary mask, reducing a range of the altered permutation such that the range is contained in the set of radio channels, encoding the binary mask in the header to announce the hopping sequence.
An electrical appliance (100, 100') comprising: a main body including an inlet and an air passage communicating with the inlet; an air moving device disposed inside the main (100,100') body and configured to suck air containing contaminants through the inlet in the main body to the air passage, and exhaust the air to an outside of the main body; a charging device (1, 1', 2, 2', 3) disposed on an outer surface of the main body (100, 100') at an edge of the inlet, the charging device configured to charge the contaminants in the air sucked through the inlet; and a dust collecting device (120, 420) disposed in the air passage, and configured to collect the contaminants charged by the charging device (1, 1', 2, 2', 3), wherein the charging device (1, 1', 2, 2', 3) comprises: a printed circuit board (30, 330); a plurality of carbon fiber electrodes (20, 320) disposed on the printed circuit board (30, 330), protruding toward the inlet, and configured to generate electrons to charge the contaminants in the air sucked through the inlet; and characterized in that: the charging device comprises a ground electrode (40, 40', 340) disposed on an opposite side of the printed circuit board (30, 330) relative to the plurality of carbon fiber electrodes (20, 320). a main body including an inlet and an air passage communicating with the inlet; an air moving device disposed inside the main (100,100') body and configured to suck air containing contaminants through the inlet in the main body to the air passage, and exhaust the air to an outside of the main body; a charging device (1, 1', 2, 2', 3) disposed on an outer surface of the main body (100, 100') at an edge of the inlet, the charging device configured to charge the contaminants in the air sucked through the inlet; and a dust collecting device (120, 420) disposed in the air passage, and configured to collect the contaminants charged by the charging device (1, 1', 2, 2', 3), wherein the charging device (1, 1', 2, 2', 3) comprises: a printed circuit board (30, 330); a plurality of carbon fiber electrodes (20, 320) disposed on the printed circuit board (30, 330), protruding toward the inlet, and configured to generate electrons to charge the contaminants in the air sucked through the inlet; and characterized in that: the charging device comprises a ground electrode (40, 40', 340) disposed on an opposite side of the printed circuit board (30, 330) relative to the plurality of carbon fiber electrodes (20, 320). a printed circuit board (30, 330); a plurality of carbon fiber electrodes (20, 320) disposed on the printed circuit board (30, 330), protruding toward the inlet, and configured to generate electrons to charge the contaminants in the air sucked through the inlet; and characterized in that: the charging device comprises a ground electrode (40, 40', 340) disposed on an opposite side of the printed circuit board (30, 330) relative to the plurality of carbon fiber electrodes (20, 320).