mhurhangee/ep-ind-claims huggingface dataset:
Timepiece wheel set or strike wheel set governor for regulating the pivoting speed (w) of a wheel set about a first pivot axis, around a reference speed value (ωc), wherein said wheel set being arranged to be driven, via transmission means, by an energy source delivering a mechanical torque, said wheel set includes at least one inertia-block pivotally mounted about a primary pivot defining a second pivot axis parallel to said first pivot axis and at a distance therefrom, said governor including a means of returning said at least one inertia block towards said first pivot axis, said at least one inertia block being arranged so that, on the one hand, when said wheel set pivots at a speed lower than or equal to said reference speed (ωc), said at least one inertia block remains confined within a first volume of revolution about said first pivot axis, and on the other hand, when said wheel set pivots at a higher speed than said reference speed (ωc), said at least one inertia block is engaged, at least in a peripheral portion thereof, in a second volume of revolution about said first pivot axis contiguous with said first volume of revolution, and said peripheral portion cooperates in said second volume of revolution with a regulating means arranged for braking said wheel set and returning the pivoting speed (w) thereof to said reference speed (ωc), and for dissipating the surplus energy, characterized in that said peripheral portion is, either electrically conductive and said regulating means is formed by a means of generating at least one variable magnetic field in a chamber at least partially delimited by magnetised parts, said variable magnetic field including field lines oriented so that the interaction between said peripheral portion and said magnetic field generates eddy currents that tend to brake said wheel set by resisting the pivoting thereof, or in that said peripheral portion is made of magnetised material, and the pivoting movement of said wheel set and said inertia block creates a variable, or alternate, or sinusoidal magnetic field in a chamber at least partially delimited by conductive parts, the interaction of which with said magnetic field generates eddy currents that tend to brake said wheel set by resisting the pivoting thereof.
An automated spatial frame, comprising: a first platform; multiple automated struts coupled to the first platform, the struts configured to extend and retract in response to one or more electrical signals; a control unit electrically and/or wirelessly connected to one or more of the multiple automated struts, the control unit configured to provide the one or more electrical signals to the multiple automated struts; a power source for energizing the multiple automated struts; a second platform coupled to the multiple automated struts and including integrated connectivity among two or more of the multiple automated struts, the control unit, and the power source; and a computing device that executes control instructions to: receive a spatial frame treatment plan, and transmit the treatment plan to the control unit for use in determining changes in the multiple automated strut lengths to carry out the treatment plan, characterised in that the second platform comprises a plurality of tabs and the control unit and the power source are arranged and configured to be positioned within spaces formed between adjacent tabs on the second platform. a first platform; multiple automated struts coupled to the first platform, the struts configured to extend and retract in response to one or more electrical signals; a control unit electrically and/or wirelessly connected to one or more of the multiple automated struts, the control unit configured to provide the one or more electrical signals to the multiple automated struts; a power source for energizing the multiple automated struts; a second platform coupled to the multiple automated struts and including integrated connectivity among two or more of the multiple automated struts, the control unit, and the power source; and a computing device that executes control instructions to: receive a spatial frame treatment plan, and transmit the treatment plan to the control unit for use in determining changes in the multiple automated strut lengths to carry out the treatment plan, receive a spatial frame treatment plan, and transmit the treatment plan to the control unit for use in determining changes in the multiple automated strut lengths to carry out the treatment plan, characterised in that the second platform comprises a plurality of tabs and the control unit and the power source are arranged and configured to be positioned within spaces formed between adjacent tabs on the second platform.
A bicomponent extruded mesh (10; 100) comprising: a first layer (1; 112) of parallel strands running in a longitudinal direction; a second layer (2; 116) of an elastic material on one side of the first layer; and a third layer (3; 120) of parallel strands on the opposite side of the second layer (2; 116) as the first layer (1; 112) and running in the same direction as those of the first layer, characterized in that the first (1; 112), second (2; 116), and third (3; 120) layers are co-extruded together such that the strands in the first layer (1; 112) are positioned or aligned within the space between strands in the third layer (3; 120), wherein materials for the first, second, and third layers are selected such that the layers are bonded together as a result of being co-extruded. a first layer (1; 112) of parallel strands running in a longitudinal direction; a second layer (2; 116) of an elastic material on one side of the first layer; and a third layer (3; 120) of parallel strands on the opposite side of the second layer (2; 116) as the first layer (1; 112) and running in the same direction as those of the first layer, characterized in that the first (1; 112), second (2; 116), and third (3; 120) layers are co-extruded together such that the strands in the first layer (1; 112) are positioned or aligned within the space between strands in the third layer (3; 120), wherein materials for the first, second, and third layers are selected such that the layers are bonded together as a result of being co-extruded.
A memory system, comprising: a memory bit cell comprising: a storage circuit configured to store data; one or more P-type Field-effect Transistor, PFET, access transistors configured to pass the stored data from the storage circuit to a respective bit line (514, 514') among one or more bit lines in response to a read operation; and a sense amplifier comprising one or more PFET sense transistors (800, 800') each configured to sense the data on a respective bit line among the one or more bit lines in response to the read operation, characterised in that the gate of each of the one or more PFET sense transistors is configured to be coupled to a respective bit line among the one or more bit lines. a memory bit cell comprising: a storage circuit configured to store data; one or more P-type Field-effect Transistor, PFET, access transistors configured to pass the stored data from the storage circuit to a respective bit line (514, 514') among one or more bit lines in response to a read operation; and a sense amplifier comprising one or more PFET sense transistors (800, 800') each configured to sense the data on a respective bit line among the one or more bit lines in response to the read operation, characterised in that a storage circuit configured to store data; one or more P-type Field-effect Transistor, PFET, access transistors configured to pass the stored data from the storage circuit to a respective bit line (514, 514') among one or more bit lines in response to a read operation; and a sense amplifier comprising one or more PFET sense transistors (800, 800') each configured to sense the data on a respective bit line among the one or more bit lines in response to the read operation, characterised in that the gate of each of the one or more PFET sense transistors is configured to be coupled to a respective bit line among the one or more bit lines.
Protective device (1; 51; 61) for terminal sprouts of trees, having a strip-shaped base body which is designed for elastic deformation between a flatly extended basic position and a curved functional position, the base body having a front side and a rear side facing away from the front side, and having a first functional surface being formed on the front side, in which, along a longest body axis of the base body, a first end region with a locking arrangement, a contact region with a plurality of flexible bristles, and a second end region with a receiving arrangement for locking to the locking arrangement are formed,, wherein the closure arrangement comprises a first closure means and a second closure means arranged spaced therefrom, and wherein the receiving arrangement has a first receiving means for the first closure means and a second receiving means for the second closure means, wherein at least two support rods (7, 8, 9; 52; 62) are fitted, which are each extended along an extension axis (10, 11, 12) aligned parallel to the front side, in particular transversely to the longest body axis of the base body, and the support rods having a plurality of recesses which are each aligned transversely to the extension axis and are arranged along the extension axis, in particular at a constant pitch.
A process for the preparation of Raltegravir of formula, or pharmaceutically acceptable salts thereof, comprising the reaction of an unprotected compound of formula in anhydrous form, or an anhydrous salt thereof, with a compound of formula, wherein X = Cl; or X = OAr wherein Ar is a phenyl group substituted with one or more groups, the same or different from each other, selected from halogen (F, Cl, Br or I), a cyano group or a nitro group; or X is a substituent of formula: wherein Z=H (X = IVa) or Z= (X = IVb) wherein the compound of formula is used in amounts from 1.1 to 1.3 molar equivalent compared with the compound of formula; in a reaction solvent and in the presence of one or more bases, wherein at least one base has a pKa value ≥ 7,4, in a total amount ranging from 1.5 to 2.9 molar equivalent compared with the compound of formula or in total amount ranging from 2.5 to 3.9 molar equivalent compared with the anhydrous salt of the compound of formula which is produced in situ; and at a reaction temperature ranging from 45 to 75°C. X = Cl; or X = OAr wherein Ar is a phenyl group substituted with one or more groups, the same or different from each other, selected from halogen (F, Cl, Br or I), a cyano group or a nitro group; or X is a substituent of formula: wherein Z=H (X = IVa) or Z= (X = IVb) wherein the compound of formula is used in amounts from 1.1 to 1.3 molar equivalent compared with the compound of formula; in a reaction solvent and in the presence of one or more bases, wherein at least one base has a pKa value ≥ 7,4, in a total amount ranging from 1.5 to 2.9 molar equivalent compared with the compound of formula or in total amount ranging from 2.5 to 3.9 molar equivalent compared with the anhydrous salt of the compound of formula which is produced in situ; and at a reaction temperature ranging from 45 to 75°C.
An X-ray fluoroscopic radiography apparatus, comprising: an X-ray emitter having an X-ray tube, configured to emit an X-ray in a pulsed form; an X-ray detector configured to detect the X-ray that is emitted from the X-ray emitter and passes through a test object; an exposure controller configured to control the X-ray emitter; a display unit; characterised in that it further comprises a display controller configured to control the display unit to display a peak value of a tube current flowing through the X-ray tube and an average value of the tube current in a predetermined time period while the X-ray is emitted in the pulsed form. an X-ray emitter having an X-ray tube, configured to emit an X-ray in a pulsed form; an X-ray detector configured to detect the X-ray that is emitted from the X-ray emitter and passes through a test object; an exposure controller configured to control the X-ray emitter; a display unit; characterised in that it further comprises a display controller configured to control the display unit to display a peak value of a tube current flowing through the X-ray tube and an average value of the tube current in a predetermined time period while the X-ray is emitted in the pulsed form.
A method of introducing a linear nucleic acid molecule of interest into a plant cell having a cell wall, the method comprising: providing the plant cell having a cell wall; coating a nanoparticle with a linear nucleic acid molecule of interest; placing the plant cell having a cell wall and the coated nanoparticle in contact with each other; and allowing uptake of the nanoparticle and the linear nucleic acid molecule of interest into the cell comprising a cell wall, wherein the nanoparticle is coated with polyethylene glycol, and wherein the nanoparticle is a quantum dot nanoparticle. providing the plant cell having a cell wall; coating a nanoparticle with a linear nucleic acid molecule of interest; placing the plant cell having a cell wall and the coated nanoparticle in contact with each other; and allowing uptake of the nanoparticle and the linear nucleic acid molecule of interest into the cell comprising a cell wall, wherein the nanoparticle is coated with polyethylene glycol, and wherein the nanoparticle is a quantum dot nanoparticle.
A synchronous machine comprising: a plurality of stator phase windings (113, 115, 117); a rotor; a motor starter including: a plurality of wye semiconductor switches each coupled between a common node and a respective one of the plurality of stator phase windings of the plurality of stator phase windings (113, 115, 117), and a plurality of delta semiconductor switches each coupled between a respective pair of two stator phase windings of the plurality of stator phase windings; and a controller structured to couple the plurality of stator phase windings in a wye configuration in response to the angular speed of the rotor being equal to the synchronous speed, wherein the controller is structured to start the synchronous machine by arranging the plurality of stator phase windings (113, 115, 117) in the wye configuration using the plurality of wye semiconductor switches and the plurality of delta semiconductor switches, determining a motor phase current is less than a delta current threshold, and then arranging the plurality of stator phase windings (113, 115, 117) in the delta configuration using the plurality of wye semiconductor switches and the plurality of delta semiconductor switches until the angular speed of the rotor is equal to the synchronous speed. a plurality of stator phase windings (113, 115, 117); a rotor; a motor starter including: a plurality of wye semiconductor switches each coupled between a common node and a respective one of the plurality of stator phase windings of the plurality of stator phase windings (113, 115, 117), and a plurality of delta semiconductor switches each coupled between a respective pair of two stator phase windings of the plurality of stator phase windings; and a plurality of wye semiconductor switches each coupled between a common node and a respective one of the plurality of stator phase windings of the plurality of stator phase windings (113, 115, 117), and a plurality of delta semiconductor switches each coupled between a respective pair of two stator phase windings of the plurality of stator phase windings; and a controller structured to couple the plurality of stator phase windings in a wye configuration in response to the angular speed of the rotor being equal to the synchronous speed, wherein the controller is structured to start the synchronous machine by arranging the plurality of stator phase windings (113, 115, 117) in the wye configuration using the plurality of wye semiconductor switches and the plurality of delta semiconductor switches, determining a motor phase current is less than a delta current threshold, and then arranging the plurality of stator phase windings (113, 115, 117) in the delta configuration using the plurality of wye semiconductor switches and the plurality of delta semiconductor switches until the angular speed of the rotor is equal to the synchronous speed.
Method for grinding and/or polishing a lens, wherein the lens is clamped at its final diameter in a collet for holding the lens and is then ground or polished by means of an at least partially flexible grinding or polishing tool which adapts to a shape of a region to be machined of the lens, wherein the collet comprises a shank and at least two clamping jaws that are separated from one another by radial slots, wherein a shape of an upper peripheral region of the clamping jaws, which forms a bearing surface for the at least partially flexible grinding or polishing tool, is configured as a radial continuation of a region to be machined of the lens to be held by means of the collet, wherein the grinding or polishing tool rests partially on the upper peripheral region of the clamping jaws while peripheral regions of the lens are being machined, - wherein a distance of a bearing surface for the lens, said bearing surface being formed in an annular manner on a lower outer periphery of a receiving space, formed by the clamping jaws, for the lens, from the upper peripheral region corresponds to a thickness of the lens at its periphery or is smaller than the thickness of the lens by a value which corresponds to the removal of material during grinding and/or polishing that takes place after clamping in the collet, or which corresponds to the removal of material during grinding and/or polishing that takes place after clamping in the collet plus an additional centre thickness tolerance, or - wherein a lens support having a rounded bearing surface is formed in a centred manner in a receiving space, formed by the clamping jaws, for the lens. - wherein a distance of a bearing surface for the lens, said bearing surface being formed in an annular manner on a lower outer periphery of a receiving space, formed by the clamping jaws, for the lens, from the upper peripheral region corresponds to a thickness of the lens at its periphery or is smaller than the thickness of the lens by a value which corresponds to the removal of material during grinding and/or polishing that takes place after clamping in the collet, or which corresponds to the removal of material during grinding and/or polishing that takes place after clamping in the collet plus an additional centre thickness tolerance, or - wherein a lens support having a rounded bearing surface is formed in a centred manner in a receiving space, formed by the clamping jaws, for the lens.
An insertion tool for inserting a catheter into a body of a patient, comprising: a housing in which at least a portion of the catheter is initially disposed; a needle distally extending from the housing, at least a portion of the catheter pre-disposed over the needle; a guidewire; a guidewire advancement assembly for selectively distally advancing the distal end of the guidewire out a distal opening of the needle in preparation for distal advancement of the catheter; and a catheter advancement assembly for selectively advancing the catheter in a distal direction, at least one of the guidewire advancement assembly and the catheter advancement assembly configured to prevent advancement of the catheter until distal advancement of the guidewire is performed. a housing in which at least a portion of the catheter is initially disposed; a needle distally extending from the housing, at least a portion of the catheter pre-disposed over the needle; a guidewire; a guidewire advancement assembly for selectively distally advancing the distal end of the guidewire out a distal opening of the needle in preparation for distal advancement of the catheter; and a catheter advancement assembly for selectively advancing the catheter in a distal direction, at least one of the guidewire advancement assembly and the catheter advancement assembly configured to prevent advancement of the catheter until distal advancement of the guidewire is performed.
Antenna system, having at least two modules, wherein each module contains at least two horn antennas, and the horn antennas support a first and a second polarization and the two polarizations are orthogonal with respect to one another, and the modules are constructed from various layers (22, 23a, 23b, 23c, 24), wherein the antenna system comprises at least one microstrip line network (2, 3) and the at least one microstrip line network (2, 3) is used to feed the horn antennas inside a module, and wherein the antenna system comprises at least one waveguide network (9, 10) and the at least one waveguide network (9, 10) is used to feed the modules, wherein the microstrip line networks for one polarization and the microstrip line networks for the other polarization are situated separately from one another between the layers of the modules, and the horn antennas have a feed consisting of a first microstrip line for the first polarization and a second microstrip line for the second polarization, the microstrip lines for the first polarization and the microstrip lines for the second polarization each form separate intramodular microstrip line networks (2, 3) that are coupled to a respective waveguide network (9, 10), wherein the first waveguide network is designed to combine all of the signals of the first polarization and the second waveguide network is designed to combine all of the signals of the second polarization, wherein the separate intramodular microstrip line networks (2, 3) and the waveguide networks (9, 10) are constructed as binary trees and are designed to feed the horn antennas in parallel, wherein the horn antennas are dimensioned such that for at least four directly adjacent horn antennas situated in at least two directly adjacent modules the interval between the phase centres of the horn antennas is less than or no more than equal to the wavelength of a reference frequency that is in a transmission band of the antenna system.
A method of controlling the temperature of a print blanket within a liquid electro-photographic printing device, comprising: printing a print job; during the printing, sensing a pause phase start trigger; characterized by disengaging at least one of an imaging drum and an impression drum from the print blanket during the pause phase; and, in response to the sensing, changing a set-point of a print blanket heating lamp from a print set-point to a pause set-point to control the print blanket temperature during the pause phase, wherein changing the set-point comprises reducing the set-point from the print set-point to the pause set-point to prevent a temperature overshoot of the print blanket temperature. printing a print job; during the printing, sensing a pause phase start trigger; characterized by disengaging at least one of an imaging drum and an impression drum from the print blanket during the pause phase; and, in response to the sensing, changing a set-point of a print blanket heating lamp from a print set-point to a pause set-point to control the print blanket temperature during the pause phase, wherein changing the set-point comprises reducing the set-point from the print set-point to the pause set-point to prevent a temperature overshoot of the print blanket temperature.
A method of operating a network entity of a network comprising a gateway, wherein the gateway comprises a fast path node including a fast path switch, and wherein the gateway further comprises a cloud comprising a virtual switch connected to the fast path switch; the method comprising receiving data packets by the fast path switch; processing the received data packets by a packet processing resource (204, 227) in the gateway; and characterized by dynamically changing the location of the packet processing resource (204, 227) between the cloud and the fast path node during an ongoing session.