mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for avoiding collisions in a distributed tokenization environment comprising: generating, by a central token management system , a unique set of values for each of a plurality of clients communicatively coupled to the central token management system , wherein each unique set of values is generated by the central token management system for the plurality of clients to avoid collisions between token values generated by the plurality of clients based on the unique sets of values; providing, by the central token management system , each generated unique set of values to a corresponding client of the plurality of clients , each client configured to generate one or more token values based on a value within the unique set of values corresponding to the client and to store the generated token values in a token table mapping the generated token values to corresponding input values; receiving, by the central token management system , a request from a requesting client of the plurality of clients for an additional unique set of values; generating, by the central token management system , the additional unique set of values to avoid collisions with the previously generated unique sets of values; and providing, by the central token management system , the additional unique set of values to the requesting client . generating, by a central token management system , a unique set of values for each of a plurality of clients communicatively coupled to the central token management system , wherein each unique set of values is generated by the central token management system for the plurality of clients to avoid collisions between token values generated by the plurality of clients based on the unique sets of values; providing, by the central token management system , each generated unique set of values to a corresponding client of the plurality of clients , each client configured to generate one or more token values based on a value within the unique set of values corresponding to the client and to store the generated token values in a token table mapping the generated token values to corresponding input values; receiving, by the central token management system , a request from a requesting client of the plurality of clients for an additional unique set of values; generating, by the central token management system , the additional unique set of values to avoid collisions with the previously generated unique sets of values; and providing, by the central token management system , the additional unique set of values to the requesting client .
A method for locating a leak in a distribution system configured to distribute a liquid, the distribution system comprising at least one conduit configured to transport the liquid, the at least one conduit being at least partly buried in ground, the method comprising: receiving (S402) an alarm indicating existence of a leak in the distribution system ; characterized in , in response to the alarm, adjusting (S404) a temperature of the liquid of the distribution system ; and locating (S406) the leak by detecting, using thermography, a position along the at least one conduit at which position a deviation in ground temperature, induced by the adjusted temperature, exists. receiving (S402) an alarm indicating existence of a leak in the distribution system ; characterized in , in response to the alarm, adjusting (S404) a temperature of the liquid of the distribution system ; and locating (S406) the leak by detecting, using thermography, a position along the at least one conduit at which position a deviation in ground temperature, induced by the adjusted temperature, exists.
A turbofan engine comprising: a fan section including a plurality of fan blades rotatable about an engine axis generating an airflow; a bypass passage (B) through which the airflow passes; and a fan exit guide vane assembly including a plurality of airfoils disposed between an inner platform wall and an outer platform wall, wherein at least one of the inner platform wall and the outer platform wall includes a contoured surface between adjacent ones of the plurality of airfoils, and wherein the contoured surface includes at least one concave region and at least one convex region , characterized in that the at least one convex region includes first and second convex regions adjacent to first and second airfoils of the plurality of airfoils, respectively; wherein convex portions are adjacent to the vanes trailing edges and extend toward a midchord region of the vane . a fan section including a plurality of fan blades rotatable about an engine axis generating an airflow; a bypass passage (B) through which the airflow passes; and a fan exit guide vane assembly including a plurality of airfoils disposed between an inner platform wall and an outer platform wall, wherein at least one of the inner platform wall and the outer platform wall includes a contoured surface between adjacent ones of the plurality of airfoils, and wherein the contoured surface includes at least one concave region and at least one convex region , characterized in that the at least one convex region includes first and second convex regions adjacent to first and second airfoils of the plurality of airfoils, respectively; wherein convex portions are adjacent to the vanes trailing edges and extend toward a midchord region of the vane .
A method for coordinating an emergency braking of a platoon of communicatively coupled vehicles , the method comprising: detecting an emergency situation by a vehicle (110-1) of the platoon; in response to detecting the emergency situation , broadcasting an emergency message from the vehicle (110-1) to other vehicles (110-2; 110-3) of the platoon; in response to receiving the emergency message from the vehicle (110-1), building up braking pressure in the other vehicles (110-2; 110-3) of the platoon; in response to the emergency situation , determining individual braking control settings for one or more vehicles of the platoon by a managing entity (110-3) managing the platoon ; communicating the individual braking control settings from the managing entity (110-3) to the one or more vehicles of the platoon ; and the one or more vehicles of the platoon braking in accordance with its respective individual braking control settings received from the managing entity (110-3). detecting an emergency situation by a vehicle (110-1) of the platoon; in response to detecting the emergency situation , broadcasting an emergency message from the vehicle (110-1) to other vehicles (110-2; 110-3) of the platoon; in response to receiving the emergency message from the vehicle (110-1), building up braking pressure in the other vehicles (110-2; 110-3) of the platoon; in response to the emergency situation , determining individual braking control settings for one or more vehicles of the platoon by a managing entity (110-3) managing the platoon ; communicating the individual braking control settings from the managing entity (110-3) to the one or more vehicles of the platoon ; and the one or more vehicles of the platoon braking in accordance with its respective individual braking control settings received from the managing entity (110-3).
Electronic circuit comprising: - a first logic module configured to perform a first function, - a number generator configured to generate at least one series of successive first numbers over a first time period, - a voltage generator connected to the number generator so as to receive a first series of successive data representative of the series of first numbers, the voltage generator being configured to supply the first logic module with a supply voltage comprising a first supply voltage higher than a minimum operating voltage of the first logic module and a variable additional second voltage having electrical characteristics that are functions at least of the first series of successive data, the electronic circuit being characterized in that the voltage generator is configured so as to deliver a variable additional second voltage which comprises at least: - a component representative of a fixed voltage defined by an offset voltage value (VO), - a component representative of a first periodic voltage defined at least by a first frequency (F) and a first amplitude (VA), and in that the voltage generator is configured in such a way that the value of the offset voltage (VO), the first frequency (F) and/or first amplitude (VA) are defined at least from the series of first numbers, over the first time period, taken from a first series of offset voltages comprising several different offset voltage values (VO), a second series of first frequencies (F) comprising several different first frequency values (F) and a third series of first amplitudes (VA) comprising several different first amplitude values (VA). - a first logic module configured to perform a first function, - a number generator configured to generate at least one series of successive first numbers over a first time period, - a voltage generator connected to the number generator so as to receive a first series of successive data representative of the series of first numbers, the voltage generator being configured to supply the first logic module with a supply voltage comprising a first supply voltage higher than a minimum operating voltage of the first logic module and a variable additional second voltage having electrical characteristics that are functions at least of the first series of successive data, - a component representative of a fixed voltage defined by an offset voltage value (VO), - a component representative of a first periodic voltage defined at least by a first frequency (F) and a first amplitude (VA),
A porous silicon-containing composite comprising: a porous core comprising a porous silicon composite secondary particle; and a shell on at least one surface of the porous core, the shell comprising a first graphene, wherein the porous silicon composite secondary particle comprises an aggregate of a first primary particle comprising silicon, a second primary particle comprising a structure, and a second graphene on at least one surface of the first primary particle and the second primary particle, wherein at least one of a shape and a degree of oxidation of the first primary particle and the second primary particle are different, wherein the first primary particle has a plate shape, a needle shape, a cube shape, or a rod shape, and wherein the second primary particle has a spherical form, a nanowire form or a combination thereof. a porous core comprising a porous silicon composite secondary particle; and a shell on at least one surface of the porous core, the shell comprising a first graphene, wherein the porous silicon composite secondary particle comprises an aggregate of a first primary particle comprising silicon, a second primary particle comprising a structure, and a second graphene on at least one surface of the first primary particle and the second primary particle, a first primary particle comprising silicon, a second primary particle comprising a structure, and a second graphene on at least one surface of the first primary particle and the second primary particle, wherein at least one of a shape and a degree of oxidation of the first primary particle and the second primary particle are different, wherein the first primary particle has a plate shape, a needle shape, a cube shape, or a rod shape, and wherein the second primary particle has a spherical form, a nanowire form or a combination thereof.
An implant delivery system , comprising: an elongate tubular member having a lumen ; a tubular implant coaxially disposed within the lumen of the elongate tubular member ; and a delivery assembly having a distal portion coaxially disposed within tubular implant , the delivery assembly comprising: a delivery wire ; an engaging bumper (42; 42'; 42") fixedly coupled to the delivery wire ; and a stopper bumper (44; 44'; 44") fixedly coupled to the delivery wire ; characterized in that the implant delivery system further comprises: a floating element (50; 50'; 50") slidably coupled around the delivery wire and disposed between the bumpers (42, 44; 42', 44'; 42", 44"), the floating element (50; 50'; 50") comprising an engaging portion (52; 52'; 52") configured to engage the engaging bumper (42; 42'; 42") when the delivery wire is axially translated relative to the elongate tubular member in a first direction, wherein the floating element (50; 50'; 50") is configured to radially expand and frictionally engage the implant when the engaging portion (52; 52'; 52") of the floating element (50; 50'; 50") engages the engaging bumper (42; 42'; 42"). an elongate tubular member having a lumen ; a tubular implant coaxially disposed within the lumen of the elongate tubular member ; and a delivery assembly having a distal portion coaxially disposed within tubular implant , the delivery assembly comprising: a delivery wire ; an engaging bumper (42; 42'; 42") fixedly coupled to the delivery wire ; and a stopper bumper (44; 44'; 44") fixedly coupled to the delivery wire ; a delivery wire ; an engaging bumper (42; 42'; 42") fixedly coupled to the delivery wire ; and a stopper bumper (44; 44'; 44") fixedly coupled to the delivery wire ; characterized in that the implant delivery system further comprises: a floating element (50; 50'; 50") slidably coupled around the delivery wire and disposed between the bumpers (42, 44; 42', 44'; 42", 44"), the floating element (50; 50'; 50") comprising an engaging portion (52; 52'; 52") configured to engage the engaging bumper (42; 42'; 42") when the delivery wire is axially translated relative to the elongate tubular member in a first direction, wherein the floating element (50; 50'; 50") is configured to radially expand and frictionally engage the implant when the engaging portion (52; 52'; 52") of the floating element (50; 50'; 50") engages the engaging bumper (42; 42'; 42").
Method for determining an adjustment (A) of at least one roller stand when slabs are being rolled in at least one rolling pass, wherein the slabs pass through a furnace in a conveying direction (y) such that there is a respective plurality of slabs in the furnace , wherein the slabs are heated to a final temperature while passing through the furnace , characterized in that - a determining device receives information (II, 12, 13) showing the regions occupied by the slabs relative to one another when passing through the furnace in at least one direction (x, z) orthogonal to the conveying direction (y), - wherein the determining device uses the information (II, 12, 13) it has received to determine, for at least one rolling pass of the respective slab , the adjustment (A) of the roller stand performing this rolling pass without prior determination of a respective temperature distribution of a respective slab or without utilization of a determined temperature of a respective slab , - wherein the determining device , when determining the adjustment (A) for the respective slab , takes into account the region occupied by the respective preceding slab , seen in the conveying direction (y), relative to the respective slab and/or the region occupied by the respective following slab , seen in the conveying direction (y), relative to the respective slab , - wherein the determining device supplies the respective determined adjustment (A) of the roller stand to a control device , which controls the roller stand when the respective slab is being rolled, taking into account the respective adjustment (A). - a determining device receives information (II, 12, 13) showing the regions occupied by the slabs relative to one another when passing through the furnace in at least one direction (x, z) orthogonal to the conveying direction (y), - wherein the determining device uses the information (II, 12, 13) it has received to determine, for at least one rolling pass of the respective slab , the adjustment (A) of the roller stand performing this rolling pass without prior determination of a respective temperature distribution of a respective slab or without utilization of a determined temperature of a respective slab , - wherein the determining device , when determining the adjustment (A) for the respective slab , takes into account the region occupied by the respective preceding slab , seen in the conveying direction (y), relative to the respective slab and/or the region occupied by the respective following slab , seen in the conveying direction (y), relative to the respective slab , - wherein the determining device supplies the respective determined adjustment (A) of the roller stand to a control device , which controls the roller stand when the respective slab is being rolled, taking into account the respective adjustment (A).
Use of a construction element for a hot solder bond or fusion weld bond consisting of two metallic outer plies and a non-metallic core layer arranged between the outer plies, characterized in that the non-metallic core layer is formed of a silicone-containing material and the silicone-containing core layer comprises deoxidative elements and/or deoxidative alloys which are dispersed in the silicone-containing core layer in an amount of between 0.1% and not more than 5% by weight, based on the core layer.
An amplifier system, comprising: an optical parametric oscillator (OPO) producing femtosecond duration light pulses with a first repetition rate greater than 50 MHz and tuning range between 650 nm to 1400 nm and an average power of > 1W at the peak of the tuning range; a pulse picking device configured to reduce the pulses from the first repetition rate to a second repetition rate less than 10 MHz; a pulse stretching module configured to increase the pulse duration of the pulses from the pulse picking device to picosecond duration pulses; an amplifier configured to provide gains to the longer duration pulses; and a pulse compressing module configured to reduce the pulse duration of the amplified pulses to femtosecond duration pulses; wherein the system generates pulse energies, suitable for 3 photon spectroscopy, on the order of micro Joule, amplifies several 10 nm of bandwidth, and shifts or broadens the tuning range between 650 nm and 1400 nm to a range between 1250 nm and 1800 nm. an optical parametric oscillator (OPO) producing femtosecond duration light pulses with a first repetition rate greater than 50 MHz and tuning range between 650 nm to 1400 nm and an average power of > 1W at the peak of the tuning range; a pulse picking device configured to reduce the pulses from the first repetition rate to a second repetition rate less than 10 MHz; a pulse stretching module configured to increase the pulse duration of the pulses from the pulse picking device to picosecond duration pulses; an amplifier configured to provide gains to the longer duration pulses; and a pulse compressing module configured to reduce the pulse duration of the amplified pulses to femtosecond duration pulses; wherein the system generates pulse energies, suitable for 3 photon spectroscopy, on the order of micro Joule, amplifies several 10 nm of bandwidth, and shifts or broadens the tuning range between 650 nm and 1400 nm to a range between 1250 nm and 1800 nm.
A method for moving a vehicle along a predetermined path , wherein a current location on the predetermined path and a direction of travel (θ) of the vehicle present at this location is cyclically determined by a state observer by merging odometry data of the vehicle with data on the vehicle location from a wireless distance measurement (Z) and subsequently, a course correction for the vehicle is determined from the obtained location with the obtained direction of travel in a trajectory control system, characterized in that processing values are provided with one predetermined basic value respectively for the processing of the odometry data on the one hand and, on the other hand, for the processing of data of the distance measurement in the state observer (Z), and at least one of the processing values is changed with respect to its predetermined basic value depending on the characteristics of the predetermined path at the current location determined so that precise navigation is achieved.
A method for determining at least one random access channel burst used by a user equipment comprising determining a reference resource location on a unlicensed spectrum by receiving a data service; and determining a resource location of the at least one random access channel burst on the unlicensed spectrum according to the reference resource location and an offset, wherein the offset indicates a time interval between the reference resource location and the resource location. determining a reference resource location on a unlicensed spectrum by receiving a data service; and determining a resource location of the at least one random access channel burst on the unlicensed spectrum according to the reference resource location and an offset, wherein the offset indicates a time interval between the reference resource location and the resource location.
A fluid ejection device , comprising: a fluid ejection die including a substrate and a fluid architecture supported by the substrate ; and a molded body molded around the fluid ejection die , the molded body interlocked with the fluid architecture of the fluid ejection die , wherein the fluid architecture includes a barrier layer supported by the substrate and an orifice layer supported by the barrier layer , the barrier layer including a plurality of fluid ejection chambers , the orifice layer including a plurality of fluid ejection orifices communicated with the fluid ejection chambers characterized in that : the orifice layer is recessed relative to the barrier layer , and the molded body is interlocked with the fluid architecture at the orifice layer . a fluid ejection die including a substrate and a fluid architecture supported by the substrate ; and a molded body molded around the fluid ejection die , the molded body interlocked with the fluid architecture of the fluid ejection die , wherein the fluid architecture includes a barrier layer supported by the substrate and an orifice layer supported by the barrier layer , the barrier layer including a plurality of fluid ejection chambers , the orifice layer including a plurality of fluid ejection orifices communicated with the fluid ejection chambers characterized in that : the orifice layer is recessed relative to the barrier layer , and the molded body is interlocked with the fluid architecture at the orifice layer .