mhurhangee/ep-ind-claims huggingface dataset:
A method for realizing voice compensation in a mobile communication network, comprising: a. at each time of processing frames, a device at network side judging whether a voice frame received or to be sent is an invalid frame or not, if yes, proceeding to the next step; b. the device at the network side performing voice compensation for the invalid frame; wherein there is the following step after step a: a1. judging if the invalid frame is a frame in the condition of non-1/8-rate or not; if yes, proceeding to the next step; and wherein a manner for judging whether the invalid frame is a frame in the condition of non-1/8-rate or not in step a1 is: judging whether a last valid frame before the invalid frame is non-1/8-rate frame; if yes, the invalid frame is the frame in the condition of non-1/8-rate; otherwise, the invalid frame is not the frame in the condition of non-1/8-rate. a. at each time of processing frames, a device at network side judging whether a voice frame received or to be sent is an invalid frame or not, if yes, proceeding to the next step; b. the device at the network side performing voice compensation for the invalid frame; a1. judging if the invalid frame is a frame in the condition of non-1/8-rate or not; if yes, proceeding to the next step; and wherein a manner for judging whether the invalid frame is a frame in the condition of non-1/8-rate or not in step a1 is: judging whether a last valid frame before the invalid frame is non-1/8-rate frame; if yes, the invalid frame is the frame in the condition of non-1/8-rate; otherwise, the invalid frame is not the frame in the condition of non-1/8-rate. judging whether a last valid frame before the invalid frame is non-1/8-rate frame; if yes, the invalid frame is the frame in the condition of non-1/8-rate; otherwise, the invalid frame is not the frame in the condition of non-1/8-rate.
A method, characterised by: traversing, by a computational memory (104, 204, 304, 404, 504, 604), an operating system page table (316, 416, 516, 616) in the computational memory (104, 204, 304, 404, 504, 604) for a page marked as executable (462, 564, 664, 668); in response to finding a page marked as executable (462, 564, 664, 668), determining whether the page marked as executable (462, 564, 664, 668) has been encrypted; in response to determining that the page marked as executable is not encrypted, generating a key for the page marked as executable; and encrypting the page marked as executable using the key. traversing, by a computational memory (104, 204, 304, 404, 504, 604), an operating system page table (316, 416, 516, 616) in the computational memory (104, 204, 304, 404, 504, 604) for a page marked as executable (462, 564, 664, 668); in response to finding a page marked as executable (462, 564, 664, 668), determining whether the page marked as executable (462, 564, 664, 668) has been encrypted; in response to determining that the page marked as executable is not encrypted, generating a key for the page marked as executable; and encrypting the page marked as executable using the key.
Method for operating a power take-off shaft of an agricultural tractor having an attachment hoist, a power take-off shaft spatially assigned to the attachment hoist, and first and second sensor means (44, 46) for providing operating information which characterizes an operating state of the power take-off shaft and an operating position of the attachment hoist, wherein, on the basis of the provided operating information, an upper operating position of the attachment hoist is restricted to a maximum admissible first maximum value (h 1,max) by a control unit by engagement in a hoist controller if the power take-off shaft is not in operation, and is restricted to a lower second maximum valve (h 2,max) than the first maximum value (h 1,max) if the power take-off shaft is in operation, wherein operation of the power take-off shaft by the control unit is prevented by engagement in a power take-off shaft controller as long as the attachment hoist is located in an operating position which exceeds the second maximum value (h 2,max).
A method for protecting against the failure of a border router between two domains (A1, A2) in a computer network, the method comprising: configuring a next-hop router in the first domain as a protecting router to protect the border router; learning address prefixes (IP1, IP2) reachable at the protecting router from one or more next-hop routers (B, C) in a second domain, NNHOPs, the learning comprising creating, at the protecting router, Multiprotocol Label Switching, MPLS, Traffic Engineering Label Switched Paths, TE-LSPs, to each of the one or more NNHOPs, and using the TE-LSPs to obtain reachability information from the NNHOPs; calculating a backup tunnel (BT1, BT2) to each NNHOP that excludes the border router; associating each backup tunnel with one or more learned address prefixes; and in response to failure of the border router, rerouting traffic directed to the learned address prefix onto an appropriate backup tunnel to a corresponding NNHOP. configuring a next-hop router in the first domain as a protecting router to protect the border router; learning address prefixes (IP1, IP2) reachable at the protecting router from one or more next-hop routers (B, C) in a second domain, NNHOPs, the learning comprising creating, at the protecting router, Multiprotocol Label Switching, MPLS, Traffic Engineering Label Switched Paths, TE-LSPs, to each of the one or more NNHOPs, and using the TE-LSPs to obtain reachability information from the NNHOPs; calculating a backup tunnel (BT1, BT2) to each NNHOP that excludes the border router; associating each backup tunnel with one or more learned address prefixes; and in response to failure of the border router, rerouting traffic directed to the learned address prefix onto an appropriate backup tunnel to a corresponding NNHOP.
System having a dispenser with a cartridge holder and a cartridge, wherein the cartridge holder has at least one guide and/or rotationprevention means (25, 27) for a cartridge receptacle, wherein the cartridge and the cartridge receptacle, which is connected to the cartridge, together form a cartridge system which is insertable into the cartridge holder of the dispenser, wherein the cartridge is provided on or in the cartridge receptacle and has a wall region, one end of which is adjoined by a connecting region closed off by a membrane and at the opposite end of which a bottom region is provided, wherein the wall region and the bottom region define a cavity which accommodates a beverage substrate and/or foodstuff substrate, wherein the cartridge receptacle has a piercing means for perforating the membrane, characterized in that the cartridge receptacle has a spike guide in which the piercing means is displaceably mounted, wherein the piercing means is displaceable between a retracted position, in which the piercing means is spaced apart from the membrane, and an extended position, in which the piercing means pierces the membrane of the cartridge and projects into the cavity of the cartridge.
Use of a metal alloy as a catalyst for an oxygen reduction reaction in fuel cells, wherein the metal alloy is a binary alloy having the composition PdCr, or a ternary alloy consisting of: Pd, Co and Cr; Pd, Fe and Cr; Pd, Au and Cr; or Pd, Cr and W and optional incidental or inevitable impurities.
A method of drafting and building a prestressed concrete structure, the drafting being performed by the use of computers, the method comprising the steps of: a) modeling the problem of finding optimum parameters of prestressing strands in the prestressed concrete structure in a mathematical optimization problem; and b) using a, preferably gradient-based, numerical search method to solve the mathematical optimization problem; and c) building the prestressed concrete structure in accordance with the results of step b); characterized in that in step a) a constrained non-linear optimization problem is modeled, including an objective function to be optimized, equality constraints and inequality constraints; the objective function preferably relating to the total amount of the necessary strands material, in particular steel, in the prestressed concrete structure; and in that mechanical equations used for the objective function and/or for the equality and/or inequality constraints are formulated based on principles of virtual work, preferably involving transforming statically indeterminate load-bearing systems into statically determinate systems through the introduction of virtual hinges; a) modeling the problem of finding optimum parameters of prestressing strands in the prestressed concrete structure in a mathematical optimization problem; and b) using a, preferably gradient-based, numerical search method to solve the mathematical optimization problem; and c) building the prestressed concrete structure in accordance with the results of step b);
A method for determining concentrations of dopant impurities (N A, N D) in a silicon sample comprising the following steps: - providing a silicon ingot comprising dopant impurities of donor type, boron atoms and oxygen atoms; - determining the position (h eq) of a first area of the ingot in which a transition takes place between a first conductivity type and an opposite second conductivity type; - measuring the free charge carrier concentration (q) in a second area of the ingot, of p-type and different from the first area, by monitoring the variation under illumination of the lifetime (τ) of the charge carriers; and - determining the concentrations of dopant impurities in the sample from the position (h eq) of the first area and the free charge carrier concentration (q) in the second area of the ingot - providing a silicon ingot comprising dopant impurities of donor type, boron atoms and oxygen atoms; - determining the position (h eq) of a first area of the ingot in which a transition takes place between a first conductivity type and an opposite second conductivity type; - measuring the free charge carrier concentration (q) in a second area of the ingot, of p-type and different from the first area, by monitoring the variation under illumination of the lifetime (τ) of the charge carriers; and - determining the concentrations of dopant impurities in the sample from the position (h eq) of the first area and the free charge carrier concentration (q) in the second area of the ingot
A compound with the formula I: wherein: R 2 is of formula III: where A is phenyl, and Q 2 is selected from a single bond and -CH 2 -; R 12 is phenyl, substituted by a group selected from OH, CO 2 H, and CO 2 Me; R 6, R 6', R 9 and R 9' are H; R 7 is a C 1-4 alkyloxy; either: (a) R 10 is H, and R 11 is OH, OR A, where R A is C 1-4 alkyl; or (b) R 10 and R 11 form a nitrogen-carbon double bond between the nitrogen and carbon atoms to which they are bound; R" is a C 3-7 alkylene group; Y and Y' are O; R 7' is selected from the same groups as R 7 and R 10' and R 11' are the same as R 10 and R 11, wherein the term alkyl includes the sub-classes alkenyl, alkynyl and cycloalkyl, and the term alkylene includes the sub-classes alkenylene, alkynylene and cycloalkylene. R 2 is of formula III: where A is phenyl, and Q 2 is selected from a single bond and -CH 2 -; R 12 is phenyl, substituted by a group selected from OH, CO 2 H, and CO 2 Me; R 6, R 6', R 9 and R 9' are H; R 7 is a C 1-4 alkyloxy; either: (a) R 10 is H, and R 11 is OH, OR A, where R A is C 1-4 alkyl; or (b) R 10 and R 11 form a nitrogen-carbon double bond between the nitrogen and carbon atoms to which they are bound; (a) R 10 is H, and R 11 is OH, OR A, where R A is C 1-4 alkyl; or (b) R 10 and R 11 form a nitrogen-carbon double bond between the nitrogen and carbon atoms to which they are bound; R" is a C 3-7 alkylene group; Y and Y' are O; R 7' is selected from the same groups as R 7 and R 10' and R 11' are the same as R 10 and R 11, wherein the term alkyl includes the sub-classes alkenyl, alkynyl and cycloalkyl, and the term alkylene includes the sub-classes alkenylene, alkynylene and cycloalkylene.
An apparatus comprising: a first ground switch configured to selectively couple a first terminal of a jack to a ground connection; a second ground switch configured to selectively couple a second terminal of the jack to the ground connection; a first microphone switch configured to selectively couple the first terminal of the jack to a microphone node; a second microphone switch configured to selectively couple the second terminal of the jack to the microphone node, wherein the switches (S1, S2, S3, S4) are configured depending on whether the jack is detected to be of a North American or a European type; and means (S5, S6) for selectively coupling either the first or second terminal of the jack to a ground sensing input based on whether the jack is detected to be of said North American or said European type. a first ground switch configured to selectively couple a first terminal of a jack to a ground connection; a second ground switch configured to selectively couple a second terminal of the jack to the ground connection; a first microphone switch configured to selectively couple the first terminal of the jack to a microphone node; a second microphone switch configured to selectively couple the second terminal of the jack to the microphone node, wherein the switches (S1, S2, S3, S4) are configured depending on whether the jack is detected to be of a North American or a European type; and means (S5, S6) for selectively coupling either the first or second terminal of the jack to a ground sensing input based on whether the jack is detected to be of said North American or said European type.
An attachment system, comprising at least one glass panel and an attachment part for attaching said glass panel by means of said attachment part in attachment points to a fixed support structure, said attachment part comprising a positioning insert which passes in these attachment points through a hole drilled in the glass panel, said attachment system being arranged to define functional clearances enabling relative adjustments of the panel with respect to their attachment points comprising at least one dilatant point enabling a translational movement and a multidirectional free point, characterized in that: - the hole of the panel is provided with a boss to perform blocking in rotation of said positioning insert (17, 17A, 17B, 17C) housed in said hole, and - said positioning insert (17, 17A, 17B, 17C) has an external profile of conjugate shape to that of the hole, and a circular or oblong internal hole (20A, 20B, 20C) able to reproduce one of said attachment points. - the hole of the panel is provided with a boss to perform blocking in rotation of said positioning insert (17, 17A, 17B, 17C) housed in said hole, and - said positioning insert (17, 17A, 17B, 17C) has an external profile of conjugate shape to that of the hole, and a circular or oblong internal hole (20A, 20B, 20C) able to reproduce one of said attachment points.
A full duplex data communication system for simultaneous transmission and reception of data over a forward inductive link and a return inductive link between a vehicle and a charging station, the forward inductive link and the return inductive link employing inductive transmission, the system comprising: a first transmit/receive system (20,30) at the charging station that transmits a first signal over the forward inductive link and receives a second signal over the return inductive link; and a second transmit/receive system (50,60) on the vehicle that receives the first signal over the forward inductive link and transmits the second signal over the return inductive link, wherein said first and second signals are frequency synchronized and a carrier frequency of said second signal is an M/N multiple of a carrier frequency of said first signal, where M and N are both integers and M/N is not equal to 1, wherein said first transmit/receive system includes a harmonic cancellation circuit that cancels integer harmonics of said first signal at a frequency of said second signal to avoid self-interference between the first and second signals, and wherein the first and second signals transmitted over said forward and return inductive links are modulated with data for the operation of a transponder based communications link that controls a wireless inductive power transfer system for charging the vehicle. a first transmit/receive system (20,30) at the charging station that transmits a first signal over the forward inductive link and receives a second signal over the return inductive link; and a second transmit/receive system (50,60) on the vehicle that receives the first signal over the forward inductive link and transmits the second signal over the return inductive link, wherein said first and second signals are frequency synchronized and a carrier frequency of said second signal is an M/N multiple of a carrier frequency of said first signal, where M and N are both integers and M/N is not equal to 1, wherein said first transmit/receive system includes a harmonic cancellation circuit that cancels integer harmonics of said first signal at a frequency of said second signal to avoid self-interference between the first and second signals, and wherein the first and second signals transmitted over said forward and return inductive links are modulated with data for the operation of a transponder based communications link that controls a wireless inductive power transfer system for charging the vehicle.
An extractor cleaning machine comprising: a base movable along a surface to be cleaned, the base including a suction nozzle; a body coupled to the base; a suction source in fluid communication with the suction nozzle, the suction source operable to draw fluid and dirt from the surface through the suction nozzle; a recovery tank configured to store the fluid and dirt drawn through the suction nozzle; a tank tray coupled to at least one of the base and the body, the tank tray including a top surface and a bottom surface, the recovery tank coupled to the tank tray adjacent the top surface; and characterized in that an air duct including a duct inlet and a duct outlet is coupled to the tank tray such that the air duct and the tank tray define a passageway that fluidly couples the recovery tank and the suction nozzle. a base movable along a surface to be cleaned, the base including a suction nozzle; a body coupled to the base; a suction source in fluid communication with the suction nozzle, the suction source operable to draw fluid and dirt from the surface through the suction nozzle; a recovery tank configured to store the fluid and dirt drawn through the suction nozzle; a tank tray coupled to at least one of the base and the body, the tank tray including a top surface and a bottom surface, the recovery tank coupled to the tank tray adjacent the top surface; and characterized in that an air duct including a duct inlet and a duct outlet is coupled to the tank tray such that the air duct and the tank tray define a passageway that fluidly couples the recovery tank and the suction nozzle.
A mobile station comprising: a first antenna; at least one second antenna (865, 870, 965, 971, 1265, 1271); a receiver coupled to the first antenna, the receiver comprising first control logic adapted to generate a notification of the receiver being able to receive a reception frequency band, a dual-mode transceiver (900, 1200, 1300) coupled to the at least one second antenna and the receiver, the transceiver communicating radio frequency signals in a selected one of at least one transmission frequency bands over an RF transmit path to the at least one second antenna, the transceiver comprising: second control logic; at least one duplex filter (860, 960, 961, 1260, 1360, 1361); and at least one switch (1250, 1351, 1352, 1353, 1354) coupled to the RF transmit path, the at least one duplex filter, and the second control logic, the at least one switch adapted to modify the RF transmit path to couple a given one of the at least one duplex filters to or decouple the given duplex filter from the RF transmit path, wherein the second control logic is responsive to the notification to cause the at least one switch to modify the RF transmit path to couple the given duplex filter to the RF transmit path (970, 1270, 1370). a first antenna; at least one second antenna (865, 870, 965, 971, 1265, 1271); a receiver coupled to the first antenna, the receiver comprising first control logic adapted to generate a notification of the receiver being able to receive a reception frequency band, a dual-mode transceiver (900, 1200, 1300) coupled to the at least one second antenna and the receiver, the transceiver communicating radio frequency signals in a selected one of at least one transmission frequency bands over an RF transmit path to the at least one second antenna, the transceiver comprising: second control logic; at least one duplex filter (860, 960, 961, 1260, 1360, 1361); and at least one switch (1250, 1351, 1352, 1353, 1354) coupled to the RF transmit path, the at least one duplex filter, and the second control logic, the at least one switch adapted to modify the RF transmit path to couple a given one of the at least one duplex filters to or decouple the given duplex filter from the RF transmit path, second control logic; at least one duplex filter (860, 960, 961, 1260, 1360, 1361); and at least one switch (1250, 1351, 1352, 1353, 1354) coupled to the RF transmit path, the at least one duplex filter, and the second control logic, the at least one switch adapted to modify the RF transmit path to couple a given one of the at least one duplex filters to or decouple the given duplex filter from the RF transmit path, wherein the second control logic is responsive to the notification to cause the at least one switch to modify the RF transmit path to couple the given duplex filter to the RF transmit path (970, 1270, 1370).
A multithreaded processor comprising: a plurality of threads, each thread of the plurality of threads capable of executing a corresponding task; a priority encoder coupled to a plurality of registers and configured to provide an indication of a lowest priority thread of the plurality of threads, the lowest priority thread having a lowest priority based on a corresponding priority of each thread of the plurality of threads, wherein the priority encoder is configured to receive the corresponding priority of each thread of the plurality of threads from a corresponding register of the plurality of registers; and an interrupt module configured to: receive the indication of the lowest priority thread and to allocate an interrupt to the lowest priority thread, and wherein the lowest priority thread is configured to stop processing a particular corresponding task and to process the interrupt without disrupting execution of other threads, such as high priority threads. a plurality of threads, each thread of the plurality of threads capable of executing a corresponding task; a priority encoder coupled to a plurality of registers and configured to provide an indication of a lowest priority thread of the plurality of threads, the lowest priority thread having a lowest priority based on a corresponding priority of each thread of the plurality of threads, wherein the priority encoder is configured to receive the corresponding priority of each thread of the plurality of threads from a corresponding register of the plurality of registers; and an interrupt module configured to: receive the indication of the lowest priority thread and to allocate an interrupt to the lowest priority thread, and wherein the lowest priority thread is configured to stop processing a particular corresponding task and to process the interrupt without disrupting execution of other threads, such as high priority threads.
The crystalline polymorph Form A of sodium 2-(5-bromo-4-(4-cyclopropylnaphthalen-1-yl)-4H-1,2,4-triazol-3-ylthio)acetate: characterized by peaks at 4.90, 9.83, and 25.29 °2θ±0.1°2θ and by at least two further peaks at 6.86, 8.41, 10.13, 17.92, and 23.10 °2θ±0.1°2θ.