mhurhangee/ep-ind-claims huggingface dataset:
A device, comprising: one or more processors to: determine a first set of hash values corresponding to a first set of files stored by a plurality of client devices; analyze information associated with the first set of hash values to determine a second set of hash values corresponding to a second set of files to be analyzed, the second set of hash values being different from the first set of hash values; for respective hash values of the second set of hash values, determine a quantity of client devices, of the plurality of client devices, that store a respective file associated with a respective hash value of the second set of hash values; prioritize the second set of hash values to form a prioritized set of hash values corresponding to a prioritized set of files, of the second set of files, to be analyzed, the prioritized set of hash values indicating a prioritized order of the second set of hash values that are ordered based on the quantity of client devices that store the respective file, associated with the respective hash value, for the respective hash values of the second set of hash values; request the prioritized set of files from one or more client devices of the plurality of client devices; receive the prioritized set of files; and cause the prioritized set of files to be analyzed. determine a first set of hash values corresponding to a first set of files stored by a plurality of client devices; analyze information associated with the first set of hash values to determine a second set of hash values corresponding to a second set of files to be analyzed, the second set of hash values being different from the first set of hash values; for respective hash values of the second set of hash values, determine a quantity of client devices, of the plurality of client devices, that store a respective file associated with a respective hash value of the second set of hash values; prioritize the second set of hash values to form a prioritized set of hash values corresponding to a prioritized set of files, of the second set of files, to be analyzed, the prioritized set of hash values indicating a prioritized order of the second set of hash values that are ordered based on the quantity of client devices that store the respective file, associated with the respective hash value, for the respective hash values of the second set of hash values; request the prioritized set of files from one or more client devices of the plurality of client devices; receive the prioritized set of files; and cause the prioritized set of files to be analyzed.
A system (200, 300, 400, 500), comprising: an acid gas treatment unit operable to treat an acid gas stream comprising hydrogen sulfide, the acid gas treatment unit comprising: a fuel reactor operable to receive the acid gas stream and calcium oxide, the fuel reactor further operable to react the hydrogen sulfide with the calcium oxide to produce calcium sulfide and a first gas stream comprising water vapor and carbon dioxide; an oxidizer reactor operable to receive the calcium sulfide and a first air stream, the oxidizer reactor further operable to produce calcium sulfate and an oxygen-lean second air stream, the oxygen-lean air stream comprising no more than 15 % by weight oxygen: and a calciner reactor operable to receive the oxygen-lean second air stream and calcium carbonate, the calciner reactor further operable to produce the calcium oxide and a second gas stream, the second gas stream comprising carbon dioxide, and the fuel reactor operable to receive the calcium oxide from the calciner reactor. a fuel reactor operable to receive the acid gas stream and calcium oxide, the fuel reactor further operable to react the hydrogen sulfide with the calcium oxide to produce calcium sulfide and a first gas stream comprising water vapor and carbon dioxide; an oxidizer reactor operable to receive the calcium sulfide and a first air stream, the oxidizer reactor further operable to produce calcium sulfate and an oxygen-lean second air stream, the oxygen-lean air stream comprising no more than 15 % by weight oxygen: and a calciner reactor operable to receive the oxygen-lean second air stream and calcium carbonate, the calciner reactor further operable to produce the calcium oxide and a second gas stream, the second gas stream comprising carbon dioxide, and the fuel reactor operable to receive the calcium oxide from the calciner reactor.
A data conversion program which, when executed by a computer, causes the computer to execute a process comprising: when receiving a plurality of data, acquiring first information and second information from a storage, the first information designating any data among the received plurality of data, the second information designating a predetermined number of data, data formats of which are collectively converted, among the received plurality of data; acquiring, based on the acquired first information and the acquired second information, the predetermined number of conversion target data from the received plurality of data; extracting a predetermined number of pieces of specific information embedded in each of the acquired predetermined number of conversion target data; calculating a specific value to be used as a key by combining the extracted pieces of specific information in a predetermined way; and converting a data format of each of the predetermined number of conversion target data by using the calculated specific value as the key. when receiving a plurality of data, acquiring first information and second information from a storage, the first information designating any data among the received plurality of data, the second information designating a predetermined number of data, data formats of which are collectively converted, among the received plurality of data; acquiring, based on the acquired first information and the acquired second information, the predetermined number of conversion target data from the received plurality of data; extracting a predetermined number of pieces of specific information embedded in each of the acquired predetermined number of conversion target data; calculating a specific value to be used as a key by combining the extracted pieces of specific information in a predetermined way; and converting a data format of each of the predetermined number of conversion target data by using the calculated specific value as the key.
A communication device comprising: a communication section that configured to transmit, as a batch of data blocks, an SPI (Serial Peripheral Interface)-compliant serial signal group transmitted from a Master to the communication section in synchronization with a clock, to a communication partner device within one frame period of a predetermined communication protocol or to transmit the serial signal group as multiple data blocks divided according to multiple frame periods of the predetermined communication protocol, to the communication partner device a memory that is configured to save an SPI-compliant first serial signal group transmitted from the Master in synchronization with the clock and to save an SPI-compliant second serial signal group transmitted from a Slave in synchronization with the clock; a packet encoder that is configured to convert the first serial signal group saved in the memory into a first packet of the predetermined communication protocol, wherein the first packet includes frequency information regarding the clock; and a packet decoder that is configured to convert a second packet of the predetermined communication protocol received from the communication partner device into the second serial signal group; wherein the communication section is configured to transmit the first packet to and to receive the second packet from the communication partner device by the predetermined communication protocol according to TDD (Time Division Duplex) or according to FDD (Frequency Division Duplex). a communication section that configured to transmit, as a batch of data blocks, an SPI (Serial Peripheral Interface)-compliant serial signal group transmitted from a Master to the communication section in synchronization with a clock, to a communication partner device within one frame period of a predetermined communication protocol or to transmit the serial signal group as multiple data blocks divided according to multiple frame periods of the predetermined communication protocol, to the communication partner device a memory that is configured to save an SPI-compliant first serial signal group transmitted from the Master in synchronization with the clock and to save an SPI-compliant second serial signal group transmitted from a Slave in synchronization with the clock; a packet encoder that is configured to convert the first serial signal group saved in the memory into a first packet of the predetermined communication protocol, wherein the first packet includes frequency information regarding the clock; and a packet decoder that is configured to convert a second packet of the predetermined communication protocol received from the communication partner device into the second serial signal group; wherein the communication section is configured to transmit the first packet to and to receive the second packet from the communication partner device by the predetermined communication protocol according to TDD (Time Division Duplex) or according to FDD (Frequency Division Duplex).
A cleaning chemical composition adapted to remove a passivation layer from a substrate (1A, 1B, 4), the passivation layer comprises etching residues resulting from etching said substrate (1A, 1B, 4), the passivation layer comprises one or more of the chemical elements selected from tantalum, hafnium and zirconium, characterised in that the composition comprises: - a weak acid selected from acetic acid and the mixture of acetic acid and formic acid, the content of the weak acid being between 20% by weight and 95% by weight, preferably between 50% by weight and 80% by weight, based on the weight of the chemical composition, - a non-oxidizing strong acid selected from methane sulphonic acid having a concentration of between 60% by weight and 80% by weight, and the mixture of methane sulphonic acid having a concentration of between 60% by weight and 80% by weight and hydrochloric acid, having a concentration of between 30% by weight and 40% by weight, the content of the non-oxidizing strong acid being between 5% by weight and 50% by weight, preferably between 15% by weight and 50% by weight, based on the weight of the chemical composition, - hydrofluoric acid, in a content of between 0.2% by weight and 2% by weight based on the weight of the chemical composition, - water, in a content of between 2% by weight and 20% by weight based on the chemical composition. - a weak acid selected from acetic acid and the mixture of acetic acid and formic acid, the content of the weak acid being between 20% by weight and 95% by weight, preferably between 50% by weight and 80% by weight, based on the weight of the chemical composition, - a non-oxidizing strong acid selected from methane sulphonic acid having a concentration of between 60% by weight and 80% by weight, and the mixture of methane sulphonic acid having a concentration of between 60% by weight and 80% by weight and hydrochloric acid, having a concentration of between 30% by weight and 40% by weight, the content of the non-oxidizing strong acid being between 5% by weight and 50% by weight, preferably between 15% by weight and 50% by weight, based on the weight of the chemical composition, - hydrofluoric acid, in a content of between 0.2% by weight and 2% by weight based on the weight of the chemical composition, - water, in a content of between 2% by weight and 20% by weight based on the chemical composition.
6-way valve comprising two similar 3-way sub-valves (20a, 20b) mechanically coupled with each other, such that both sub-valves (20a, 20b) are always in the same position, whereby each sub-valve (20a, 20b) has three different valve ports (33, 34, 35) and a valve member (22, 22') with an internal connecting channel, which valve member (22, 22') can be moved between first and second end positions via an intermediate position such that in said first end position the first and third valve ports are connected with each other by means of said connecting channel, in said second end position the second and third valve ports are connected with each other by means of said connecting channel, and in said intermediate position said connecting channel is disconnected from said first and second valve ports (33, 34), wherein said sub-valves (20a, 20b) are arranged along a common actuating axis, wherein the valve members (22, 22') can be rotated around said common actuating axis between said first and second end positions via said intermediate position and wherein said valve members (22, 22') are axially symmetric with respect to said common actuating axis, characterised in that a volume/pressure relief means is provided at one of said valve members (22, 22'), which volume/pressure relief means establishes a hydraulic relief connection between said first or second valve port (33, 34) and said third valve port of the respective sub-valve (20a or 20b), when said sub-valves (20a, 20b) are in said intermediate position, and is inactive, when said sub-valves (20a, 20b) are in the first or second end positions, and in that said volume/pressure relief means comprises a groove on the surface of one of said valve members (22, 22').
A device for attaching a bracelet strand on a hooking interface formed for example by a bar of a watch case or of a terminal element of another bracelet strand, comprising: - a receiving piece intended to receive the hooking interface, - a locking piece, movable between: • a locking position, in which the locking piece and the receiving piece are locked on the hooking interface, • an opening position, in which the locking piece and the receiving piece are free to be moved away from the hooking interface, - a control device with at least one actuating button movable in translation, arranged to allow a user to move the locking piece at least from the locking position to the opening position, the locking piece being movable in rotation with reference to the receiving piece, characterized in that the attachment device comprises a return mechanism providing an engagement between the actuating button and the locking piece during the movement of the locking piece from the locking position to the opening position and arranged to transform the translational movement of the actuating button into a rotational movement of the locking piece. - a receiving piece intended to receive the hooking interface, - a locking piece, movable between: • a locking position, in which the locking piece and the receiving piece are locked on the hooking interface, • an opening position, in which the locking piece and the receiving piece are free to be moved away from the hooking interface, • a locking position, in which the locking piece and the receiving piece are locked on the hooking interface, • an opening position, in which the locking piece and the receiving piece are free to be moved away from the hooking interface, - a control device with at least one actuating button movable in translation, arranged to allow a user to move the locking piece at least from the locking position to the opening position, the locking piece being movable in rotation with reference to the receiving piece, characterized in that the attachment device comprises a return mechanism providing an engagement between the actuating button and the locking piece during the movement of the locking piece from the locking position to the opening position and arranged to transform the translational movement of the actuating button into a rotational movement of the locking piece. the locking piece being movable in rotation with reference to the receiving piece, characterized in that the attachment device comprises a return mechanism providing an engagement between the actuating button and the locking piece during the movement of the locking piece from the locking position to the opening position and arranged to transform the translational movement of the actuating button into a rotational movement of the locking piece.
A printer adapted to receive information comprising: a storage unit configured for storing, when the received information is a job patch, including a job name, thus designating the printer as a qualified printer, the job patch; a job patch readout processor configured for reading the job patch stored in the storage unit when the received information is print information; an editing processor configured for determining whether the print information includes a value corresponding to the job name included in the job patch read by the job patch readout processor; and a print processing unit configured for executing printing of the print information when the print information includes the value corresponding to the job name included in the job patch, and discarding the print information when the print information does not include that value. a storage unit configured for storing, when the received information is a job patch, including a job name, thus designating the printer as a qualified printer, the job patch; a job patch readout processor configured for reading the job patch stored in the storage unit when the received information is print information; an editing processor configured for determining whether the print information includes a value corresponding to the job name included in the job patch read by the job patch readout processor; and a print processing unit configured for executing printing of the print information when the print information includes the value corresponding to the job name included in the job patch, and discarding the print information when the print information does not include that value.
A pull wire displacement assembly comprising: a housing (102, 202); a proximal wire stay (104, 204) disposed at a proximal position along the housing and configured to statically affix to a pull wire (106, 206) that extends along the housing and past a distal end of the housing; a distal wire stay (108, 208) disposed at a distal position along the housing and configured to slidably affix to the pull wire in a manner that allows the pull wire to pass through the distal wire stay along a longitudinal axis of the pull wire while substantially constraining radial displacement of the pull wire at the distal wire stay; a slider pin (110, 210) disposed within the housing; and a track (112, 212, 700, 800) disposed within the housing and along which the slider pin is configured to slide in response to a sliding force applied to the slider pin, the track configured to direct the slider pin along a trajectory (114, 214, 702, 706, 710, 712), characterized in that the trajectory crosses a straight line (116, 216) between the proximal and distal wire stays such that, when the slider pin slides along the trajectory in response to an application of the sliding force in a first direction, the slider pin progressively displaces the pull wire away from the straight line to thereby pull a distal portion (120, 220) of the pull wire toward the housing through the distal wire stay, a housing (102, 202); a proximal wire stay (104, 204) disposed at a proximal position along the housing and configured to statically affix to a pull wire (106, 206) that extends along the housing and past a distal end of the housing; a distal wire stay (108, 208) disposed at a distal position along the housing and configured to slidably affix to the pull wire in a manner that allows the pull wire to pass through the distal wire stay along a longitudinal axis of the pull wire while substantially constraining radial displacement of the pull wire at the distal wire stay; a slider pin (110, 210) disposed within the housing; and a track (112, 212, 700, 800) disposed within the housing and along which the slider pin is configured to slide in response to a sliding force applied to the slider pin, the track configured to direct the slider pin along a trajectory (114, 214, 702, 706, 710, 712), characterized in that the trajectory crosses a straight line (116, 216) between the proximal and distal wire stays such that, when the slider pin slides along the trajectory in response to an application of the sliding force in a first direction, the slider pin progressively displaces the pull wire away from the straight line to thereby pull a distal portion (120, 220) of the pull wire toward the housing through the distal wire stay,
Method for multi-pass optical amplification, comprising the steps of: - directing an incoming light radiation into an optical gain medium - passing the light radiation through the optical gain medium several times with predefined combinations of polarization and propagation direction of the light radiation, which undergoes amplification during the passes, wherein during different passes the polarization of the light radiation is the same or is orthogonal with respect to each other, - separating amplified light radiation from the incoming light radiation and directing it away from the optical gain medium, characterized in that the light radiation passes through the optical gain medium three or four times, wherein in the entire sequence of the passes, there is at least one time, when the light radiation passes the optical gain medium in the same direction two times in a sequence, while the polarization of light radiation, which undergoes amplification during those passes is orthogonal, and the combinations of the polarization and propagation directions of the light radiation, which undergoes amplification during the passes, is predetermined to satisfy that identical combinations of the polarization and propagation direction of the light radiation in the different passes do not occur. - directing an incoming light radiation into an optical gain medium - passing the light radiation through the optical gain medium several times with predefined combinations of polarization and propagation direction of the light radiation, which undergoes amplification during the passes, wherein during different passes the polarization of the light radiation is the same or is orthogonal with respect to each other, - separating amplified light radiation from the incoming light radiation and directing it away from the optical gain medium, characterized in that the light radiation passes through the optical gain medium three or four times, wherein in the entire sequence of the passes, there is at least one time, when the light radiation passes the optical gain medium in the same direction two times in a sequence, while the polarization of light radiation, which undergoes amplification during those passes is orthogonal, and the combinations of the polarization and propagation directions of the light radiation, which undergoes amplification during the passes, is predetermined to satisfy that identical combinations of the polarization and propagation direction of the light radiation in the different passes do not occur.
A diagnosing device for a vehicle having a flow passage for circulating a liquid medium for cooling an inverter of the vehicle, and a pump provided on said flow passage to circulate said liquid medium, the diagnosing device comprising: a temperature sensor (108, 110, 112) for measuring a temperature (TW, TC, TI) related to a temperature of said liquid medium; and a calculating unit for calculating a concentration of said liquid medium, characterized in that said calculating unit calculates a viscosity of said liquid medium based on a flow rate of said liquid medium flowing through said flow passage and performance of said pump, and when the calculation as to the viscosity of said liquid medium is executed under a plurality of temperature conditions, said calculating unit calculates the concentration of said liquid medium based on a relationship between the plurality of temperature conditions and the viscosity of the liquid medium. a temperature sensor (108, 110, 112) for measuring a temperature (TW, TC, TI) related to a temperature of said liquid medium; and a calculating unit for calculating a concentration of said liquid medium,