mhurhangee/ep-ind-claims huggingface dataset:
A method comprising using at least one hardware processor to: compile source code of an application into a bitcode, wherein the source code comprises an allocation function for allocating memory that calls a dummy function using a plurality of parameters, and wherein the plurality of parameters comprises an identifier of a memory pool and a size of a data type to be stored in the memory pool; scan the bitcode; while scanning the bitcode, detect each call to the dummy function in the bitcode; for each detected call to the dummy function, extract the plurality of parameters used in the detected call to the dummy function, and generate an allocation record comprising the identifier of the memory pool and the size of the data type from the extracted plurality of parameters; generate a list of allocation records from the generated allocation records; generate a header file based on the list of allocation records, wherein the header file comprises a definition of one or more buckets and a definition of each of one or more memory pools, wherein the definition of each of the one or more memory pools identifies at least one of the one or more buckets; and recompile the source code with the header file. compile source code of an application into a bitcode, wherein the source code comprises an allocation function for allocating memory that calls a dummy function using a plurality of parameters, and wherein the plurality of parameters comprises an identifier of a memory pool and a size of a data type to be stored in the memory pool; scan the bitcode; while scanning the bitcode, detect each call to the dummy function in the bitcode; for each detected call to the dummy function, extract the plurality of parameters used in the detected call to the dummy function, and generate an allocation record comprising the identifier of the memory pool and the size of the data type from the extracted plurality of parameters; generate a list of allocation records from the generated allocation records; generate a header file based on the list of allocation records, wherein the header file comprises a definition of one or more buckets and a definition of each of one or more memory pools, wherein the definition of each of the one or more memory pools identifies at least one of the one or more buckets; and recompile the source code with the header file. while scanning the bitcode, detect each call to the dummy function in the bitcode; for each detected call to the dummy function, extract the plurality of parameters used in the detected call to the dummy function, and generate an allocation record comprising the identifier of the memory pool and the size of the data type from the extracted plurality of parameters; generate a list of allocation records from the generated allocation records; generate a header file based on the list of allocation records, wherein the header file comprises a definition of one or more buckets and a definition of each of one or more memory pools, wherein the definition of each of the one or more memory pools identifies at least one of the one or more buckets; and recompile the source code with the header file.
A capacitive powering system constructed to enable wireless power transfers inside a tube-shaped structure, comprising: a capacitive tube including a pair of receiver electrodes (223, 224) connected to a load through a first inductor and the first inductor is coupled to the load to resonate the system; a transmitter device including a pair of transmitter electrodes (213, 214) connected to a power driver, wherein the transmitter device is clipped onto the capacitive tube; and an insulating layer constructed to cover the receiver electrodes and to electrically insulate the capacitive tube from the transmitter device to form a capacitive impedance between the pair of transmitter electrodes and the pair of receiver electrodes, wherein a power signal generated by the power driver is wirelessly transferred from the pair of transmitter electrodes to the pair of receiver electrodes to power the load when a frequency of the power signal substantially matches a series-resonance frequency of the first inductor and the capacitive impedance. a capacitive tube including a pair of receiver electrodes (223, 224) connected to a load through a first inductor and the first inductor is coupled to the load to resonate the system; a transmitter device including a pair of transmitter electrodes (213, 214) connected to a power driver, wherein the transmitter device is clipped onto the capacitive tube; and an insulating layer constructed to cover the receiver electrodes and to electrically insulate the capacitive tube from the transmitter device to form a capacitive impedance between the pair of transmitter electrodes and the pair of receiver electrodes, wherein a power signal generated by the power driver is wirelessly transferred from the pair of transmitter electrodes to the pair of receiver electrodes to power the load when a frequency of the power signal substantially matches a series-resonance frequency of the first inductor and the capacitive impedance.
A mooring leg connector for use with a mooring chain part of a mooring leg extending up from the sea floor to moor a floating structure to the seabed, said connector having an elongate tubular element extending in the mooring leg direction and a latch mechanism for fixation of the mooring chain part to the floating structure to be moored and preventing movement along the mooring leg in the direction of the seabed, the elongate tubular element having a passage for the mooring chain to pass through, characterised in that the connector comprises at the top a double articulation axis comprising a roll articulation and a pitch articulation wherein the roll and pitch articulations are coplanar to accommodate motions of the mooring line in its catenary plane and transverse to this plane.
Crystallizer for the continuous casting of long metal products such as blooms or billets, of the type cooled by an external cooling jacket, and with a polygonal section shape, preferably quadrangular, even more preferably rectangular or square, in which, immediately below the zone of the meniscus, there are means present, made on the walls of the crystallizer, to condition the heat exchange between the walls of the crystallizer and the cast steel, characterized in that said means to condition the heat exchange comprise concavities or depressions made on the internal face of the wall of the crystallizer and having a distribution that, in terms of the overall area occupied by them per surface unit, is reduced until it is canceled toward the bottom at a certain distance from the meniscus, and vertical grooves made on its external surfaces, in the zones near the edges of the polygonal section, for a vertical extension equal to or more than the vertical extension of the concavities/depressions.
A method for producing an array of proteins, comprising (a) providing a library of mRNA molecules, wherein individual mRNA molecules in the library comprise a target sequence and a tag sequence, (b) splitting or fractionating the library of mRNA molecules into a first-sub library and a second sub-library, wherein the first sub-library and the second sub-library comprise mRNA molecules having the target sequence and the tag sequences or complements thereof, (c) attaching the mRNA molecules from the first sub-library to individual features on a solid support, amplifying mRNA molecules from the first sub-library on the solid support to produce amplicons of the mRNA molecules of the first sub-library; and (d) contacting the first sub-library with the second sub-library, thereby attaching mRNA molecules of the second sub-library to said amplicons of the mRNA molecules of the first sub-library on the solid support via hybridization of the tag sequences and the complements thereof; and (e) translating the target sequences of the mRNA molecules on the solid support to produce an array of proteins attached to the individual features. (a) providing a library of mRNA molecules, wherein individual mRNA molecules in the library comprise a target sequence and a tag sequence, (b) splitting or fractionating the library of mRNA molecules into a first-sub library and a second sub-library, wherein the first sub-library and the second sub-library comprise mRNA molecules having the target sequence and the tag sequences or complements thereof, (c) attaching the mRNA molecules from the first sub-library to individual features on a solid support, amplifying mRNA molecules from the first sub-library on the solid support to produce amplicons of the mRNA molecules of the first sub-library; and (d) contacting the first sub-library with the second sub-library, thereby attaching mRNA molecules of the second sub-library to said amplicons of the mRNA molecules of the first sub-library on the solid support via hybridization of the tag sequences and the complements thereof; and (e) translating the target sequences of the mRNA molecules on the solid support to produce an array of proteins attached to the individual features.
Apparatus configured to detect a physical quantity of a flowing fluid, the apparatus including: - a sensor body configured to extend into the flowing fluid, the sensor body comprising a fiber Bragg grating of a fiber Bragg grating sensor (3, 7, FBG), for generating an optical detector signal relating to fluid induced vibrations of at least a flexible part of the sensor body, the fluid induced vibrations including both a vortex shedding frequency and a mechanical eigenfrequency; and - a detector signal processing unit; wherein said sensor body part has a mechanical eigenfrequency that is defined by: f = f 0. 1 + K. rho 1 / 2 wherein f is the eigenfrequency (Hz) of the flexible part in fluid, f 0 is an initial eigenfrequency (Hz) of the flexible part in vacuum, rho is the density of the fluid (kg/m 3) and K is a constant (m 3 /kg) associated with the dimensions and mass of the flexible part, characterized in that the processing unit is configured to detect the mechanical eigenfrequency f of the flexible part of the sensor body using the optical detector signal, and to determine the physical quantity based on the detected mechanical eigenfrequency f, wherein the eigenfrequency of the said sensor body part is associated with a second peak in a frequency spectrum of the detector signal, said second peak being separate from a first, vortex shedding frequency related peak in the frequency spectrum, wherein the processing unit is configured to detect said frequency peaks, and particularly to detect the frequency of said peaks. - a sensor body configured to extend into the flowing fluid, the sensor body comprising a fiber Bragg grating of a fiber Bragg grating sensor (3, 7, FBG), for generating an optical detector signal relating to fluid induced vibrations of at least a flexible part of the sensor body, the fluid induced vibrations including both a vortex shedding frequency and a mechanical eigenfrequency; and - a detector signal processing unit; wherein f is the eigenfrequency (Hz) of the flexible part in fluid, f 0 is an initial eigenfrequency (Hz) of the flexible part in vacuum, rho is the density of the fluid (kg/m 3) and K is a constant (m 3 /kg) associated with the dimensions and mass of the flexible part,
Method for automatically focusing a camera comprising an image sensor, at least one lens configured to project an image onto the sensor and an actuator configured to modify a focusing parameter of the lens (f), the method comprising: - a first phase comprising: ∘ open-loop control of the actuator so that the focusing parameter successively takes a plurality of predefined values; ∘ acquiring a plurality of images by means of the sensor, each corresponding to one predefined value of the focusing parameter; and ∘ calculating a sharpness indicator (n) on the basis of each of the images; characterised in that it also comprises: - a second phase of controlling, in a closed loop, the actuator so as to maximise the sharpness indicator; the second, closed-loop control phase being implemented by making use of a control law and initialisation conditions determined on the basis of the sharpness indicators calculated during the first phase. - a first phase comprising: ∘ open-loop control of the actuator so that the focusing parameter successively takes a plurality of predefined values; ∘ acquiring a plurality of images by means of the sensor, each corresponding to one predefined value of the focusing parameter; and ∘ calculating a sharpness indicator (n) on the basis of each of the images; ∘ open-loop control of the actuator so that the focusing parameter successively takes a plurality of predefined values; ∘ acquiring a plurality of images by means of the sensor, each corresponding to one predefined value of the focusing parameter; and ∘ calculating a sharpness indicator (n) on the basis of each of the images; - a second phase of controlling, in a closed loop, the actuator so as to maximise the sharpness indicator;
A mobile communication method comprising the steps of: transmitting, by a first radio base station (eNB#1), a setting replication instruction and an identifier of a second radio base station (eNB#2) to a mobile station able to execute carrier aggregation using the first radio base station (eNB#1) and the second radio base station (eNB#2), the setting replication instruction instructing the mobile station to establish a second bearer (BEARER#2) with the second base station (eNB#2) by replicating a setting content of a first bearer (BEARER#1) established with the first radio base station (eNB#1); and establishing, by the mobile station, the second bearer (BEARER#2) having the same setting content as the setting content of the first bearer (BEARER#1) between the second radio base station (eNB#2) and the mobile station in accordance with the setting replication instruction, the method characterized in that a setting content of an RLC and a setting content of an LCH are replicated as the setting content of the first bearer (BEARER#1) in accordance with the setting replication instruction. transmitting, by a first radio base station (eNB#1), a setting replication instruction and an identifier of a second radio base station (eNB#2) to a mobile station able to execute carrier aggregation using the first radio base station (eNB#1) and the second radio base station (eNB#2), the setting replication instruction instructing the mobile station to establish a second bearer (BEARER#2) with the second base station (eNB#2) by replicating a setting content of a first bearer (BEARER#1) established with the first radio base station (eNB#1); and establishing, by the mobile station, the second bearer (BEARER#2) having the same setting content as the setting content of the first bearer (BEARER#1) between the second radio base station (eNB#2) and the mobile station in accordance with the setting replication instruction, the method characterized in that a setting content of an RLC and a setting content of an LCH are replicated as the setting content of the first bearer (BEARER#1) in accordance with the setting replication instruction.
Method for adapting a driving-off behaviour of a vehicle to a traffic signal installation, - in which the traffic signal installation permits passing in a first state and prohibits passing in a second state, - in which a state information item and a time information item of the traffic signal installation are received by the vehicle by means of vehicle-to-X communication means and are passed on to a traffic light phase assistance system, - wherein the state information item describes a present state of the traffic signal installation and the time information item describes a time window up to a change in state of the traffic signal installation, - in which the vehicle determines its own position by means of position-determining means, characterized in that - presence information comprising at least position data on vehicles (4, 5) in the surroundings which are enabled for vehicle-to-X communication is also received by the vehicle, and - the vehicle additionally detects the position data on the vehicles (4, 5) in the surroundings by means of a surroundings sensor system, and the vehicles (4, 5) in the surroundings are automatically detected as not being enabled for vehicle-to-X communication if their position data is detected exclusively by means of the surroundings sensor system, and - in that the position data received by means of vehicle-to-X communication are displayed to the driver and - the driving-off behaviour is adapted as a function of the state information item and the time information item and the presence of vehicles (4, 5) in the surroundings which are not enabled for vehicle-to-X communication. - in which the traffic signal installation permits passing in a first state and prohibits passing in a second state, - in which a state information item and a time information item of the traffic signal installation are received by the vehicle by means of vehicle-to-X communication means and are passed on to a traffic light phase assistance system, - wherein the state information item describes a present state of the traffic signal installation and the time information item describes a time window up to a change in state of the traffic signal installation, - in which the vehicle determines its own position by means of position-determining means, - presence information comprising at least position data on vehicles (4, 5) in the surroundings which are enabled for vehicle-to-X communication is also received by the vehicle, and - the vehicle additionally detects the position data on the vehicles (4, 5) in the surroundings by means of a surroundings sensor system, and the vehicles (4, 5) in the surroundings are automatically detected as not being enabled for vehicle-to-X communication if their position data is detected exclusively by means of the surroundings sensor system, and - in that the position data received by means of vehicle-to-X communication are displayed to the driver and - the driving-off behaviour is adapted as a function of the state information item and the time information item and the presence of vehicles (4, 5) in the surroundings which are not enabled for vehicle-to-X communication.
A reinforcing element for a seal, wherein the reinforcing element comprises an annular body of elastomeric material and more than one non-endless twisted cords in an annular arrangement within said elastomeric material; wherein the more than one non-endless cords do not comprise metal or woven fabric; and wherein the more than one non-endless cords comprise glass fibre, carbon fibre, aramid fibre, cotton, cellulose, nylon, polyester, PET or combinations thereof; and wherein the more than one non-endless cords are arranged uniaxially; optionally wherein the seal comprises a rotary lip seal or a hydraulic seal.
An adaptor assembly adapted to be fitted onto a service pipe, where the service pipe comprises a host pipe that is lined with an interior lining pipe; said adaptor assembly including: a body that is adapted to form a seal with the host pipe; a bore extending along a longitudinal axis of said body; a compression element mountable on said body so as to be rotatably and axially displaceable relative to the body; a piston that is axially translatable relative to said body; an annular flange protruding radially inwards from said body into said bore, wherein the annular flange is inclined in a direction generally parallel to said longitudinal axis; a grip ring disposable between said piston and said flange, said grip ring having an inner radial surface adapted to bear against and grip an outer radial surface of the lining pipe during use; and a first slip spacer disposable between the compression element and the piston to allow the transmission of axial load from the compression element to the piston but to substantially prevent the transmission of torque therebetween; wherein the compression element is rotatably and axially moveable relative to said body to axially displace the piston relative to the body causing the grip ring to bear against the inclined annular flange and grip radially inwardly against the outer radial surface of the lining pipe during use. a body that is adapted to form a seal with the host pipe; a bore extending along a longitudinal axis of said body; a compression element mountable on said body so as to be rotatably and axially displaceable relative to the body; a piston that is axially translatable relative to said body; an annular flange protruding radially inwards from said body into said bore, wherein the annular flange is inclined in a direction generally parallel to said longitudinal axis; a grip ring disposable between said piston and said flange, said grip ring having an inner radial surface adapted to bear against and grip an outer radial surface of the lining pipe during use; and a first slip spacer disposable between the compression element and the piston to allow the transmission of axial load from the compression element to the piston but to substantially prevent the transmission of torque therebetween; wherein the compression element is rotatably and axially moveable relative to said body to axially displace the piston relative to the body causing the grip ring to bear against the inclined annular flange and grip radially inwardly against the outer radial surface of the lining pipe during use.
The use of one or more copolymers A), wherein the copolymers contain one or more structural units deriving from a) 19.9% to 75.9% by weight of glycerol b) 0.1% to 30% by weight of at least one dicarboxylic acid, wherein the at least one dicarboxylic acid b) is oxalic acid; a dicarboxylic acid of the formula HOOC-R 2 -COOH and/or a dicarboxylic acid of the formula where R 2 is a (C 1 -C 40) -alkylene bridge or a (C 2 -C 20)-alkenylene bridge and R is H, (C 1 -C 20)-alkyl, (C 2 -C 20)-alkenyl, phenyl, benzyl, halogen, -NO 2, (C 1 -C 6)-alkoxy, -CHO or -CO((C 1 -C 6)-alkyl), and c) 24% to 80% by weight of at least one monocarboxylic acid of the formula R 1 -COOH where R 1 is (C 5 -C 29) -alkyl; (C 7 -C 29)-alkenyl; phenyl or naphthyl, for reducing drift in the application of pesticide formulations. a) 19.9% to 75.9% by weight of glycerol b) 0.1% to 30% by weight of at least one dicarboxylic acid, wherein the at least one dicarboxylic acid b) is oxalic acid; a dicarboxylic acid of the formula HOOC-R 2 -COOH and/or a dicarboxylic acid of the formula where R 2 is a (C 1 -C 40) -alkylene bridge or a (C 2 -C 20)-alkenylene bridge and R is H, (C 1 -C 20)-alkyl, (C 2 -C 20)-alkenyl, phenyl, benzyl, halogen, -NO 2, (C 1 -C 6)-alkoxy, -CHO or -CO((C 1 -C 6)-alkyl), and c) 24% to 80% by weight of at least one monocarboxylic acid of the formula R 1 -COOH where R 1 is (C 5 -C 29) -alkyl; (C 7 -C 29)-alkenyl; phenyl or naphthyl, for reducing drift in the application of pesticide formulations.
Jalousie device comprising a frame of profiles with two opposite profiles (100, 200) which, when pierced with coaxial bores, support and rotationally guide the shafts of a plurality of rotating slats, at least one of the two opposite profiles accommodating a driver bar sliding inside the profile, a crank connecting each shaft of a slat to the said driver bar, the said crank forming an arm with two ends of which: - a first end is secured to the shaft of the slat, - a second end is pierced with an orifice in which there engages a screw comprising a shank and a cylindrical head, CHARACTERIZED IN THAT the screw is fixed to the driver bar by self-drilling, the head having a diameter which is less than the diameter of the said orifice such that the said head serves as a rotational shaft for the second end of the crank. - a first end is secured to the shaft of the slat, - a second end is pierced with an orifice in which there engages a screw comprising a shank and a cylindrical head, CHARACTERIZED IN THAT the screw is fixed to the driver bar by self-drilling, the head having a diameter which is less than the diameter of the said orifice such that the said head serves as a rotational shaft for the second end of the crank.