mhurhangee/ep-ind-claims huggingface dataset:
A power control method, wherein the method comprises: a user equipment determining whether information in a Transmit Power Control, TPC, field in first Downlink Control Information, DCI, format is a non-TPC command after receiving the first DCI format; and the user equipment performing Physical Uplink Control Channel, PUCCH, power control with a TPC command in second DCI format when the information in the TPC field in the first DCI format is a non-TPC command and the user equipment receives the second DCI format in a downlink sub-frame in which the first DCI format is received; wherein after the user equipment determines whether the information in the TPC field in first DCI format is a non-TPC command, the method further comprises: when the information in the TPC field in the first DCI format is a TPC command, the user equipment performing Physical Uplink Control Channel, PUCCH, power control with the TPC command in the first DCI format; and when the information in the TPC field in the first DCI format is a non-TPC command and the user equipment does not receive second DCI format in the downlink sub-frame in which the first DCI format is received, the user equipment determining an adjustment value of PUCCH power as zero. a user equipment determining whether information in a Transmit Power Control, TPC, field in first Downlink Control Information, DCI, format is a non-TPC command after receiving the first DCI format; and the user equipment performing Physical Uplink Control Channel, PUCCH, power control with a TPC command in second DCI format when the information in the TPC field in the first DCI format is a non-TPC command and the user equipment receives the second DCI format in a downlink sub-frame in which the first DCI format is received; wherein after the user equipment determines whether the information in the TPC field in first DCI format is a non-TPC command, the method further comprises: when the information in the TPC field in the first DCI format is a TPC command, the user equipment performing Physical Uplink Control Channel, PUCCH, power control with the TPC command in the first DCI format; and when the information in the TPC field in the first DCI format is a non-TPC command and the user equipment does not receive second DCI format in the downlink sub-frame in which the first DCI format is received, the user equipment determining an adjustment value of PUCCH power as zero. when the information in the TPC field in the first DCI format is a TPC command, the user equipment performing Physical Uplink Control Channel, PUCCH, power control with the TPC command in the first DCI format; and when the information in the TPC field in the first DCI format is a non-TPC command and the user equipment does not receive second DCI format in the downlink sub-frame in which the first DCI format is received, the user equipment determining an adjustment value of PUCCH power as zero.
A method for processing an information based on a sequence of instructions, said method comprising the steps of: a) detecting a repeated sub-sequence in said sequence of instructions; b) providing an index information indicating the repetition rate of said repeated sub-sequence; and c) determining an allocation between a processing resource and said repeated sub-sequence based on said index information, characterized in that said index information comprises an integer number set in proportion with a ranking of said repetition rate of said repeated sub-sequence compared to the repetition rate of other detected repeated sub-sequences, and said allocation is determined by comparing said integer number with the number of available processing resources. a) detecting a repeated sub-sequence in said sequence of instructions; b) providing an index information indicating the repetition rate of said repeated sub-sequence; and c) determining an allocation between a processing resource and said repeated sub-sequence based on said index information,
A treatment liquid for a trivalent chromium conversion coating on the surface of a metal substrate comprising: a trivalent chromium compound; titanium lactate; one or more compounds of one or more transition metals other than cobalt; two or more organic acids or organic acid salts; and at least one ion species selected from chloride ions, nitrate ions, and sulfate ions; but no cobalt compound. a trivalent chromium compound; titanium lactate; one or more compounds of one or more transition metals other than cobalt; two or more organic acids or organic acid salts; and at least one ion species selected from chloride ions, nitrate ions, and sulfate ions; but no cobalt compound.
A method for overdriving a display, comprising: receiving a target picture frame that corresponds to target pixel intensity levels to be displayed on a display for each of a plurality of pixels of the display; comparing the target picture frame with a current picture frame that corresponds to current pixel intensity levels currently displayed on the display for each of the plurality of pixels of the display; determining adjustments to be made to the target picture frame based on a comparison of the target picture frame and the current picture frame; and characterized by: generating an adjusted picture frame based on the determined adjustments by overdriving at least one of the plurality of pixels to an overdrive pixel intensity level that exceeds the corresponding at least one target pixel intensity level when it is determined that the at least one target pixel intensity level cannot be reached in a given period of time. receiving a target picture frame that corresponds to target pixel intensity levels to be displayed on a display for each of a plurality of pixels of the display; comparing the target picture frame with a current picture frame that corresponds to current pixel intensity levels currently displayed on the display for each of the plurality of pixels of the display; determining adjustments to be made to the target picture frame based on a comparison of the target picture frame and the current picture frame; and characterized by: generating an adjusted picture frame based on the determined adjustments by overdriving at least one of the plurality of pixels to an overdrive pixel intensity level that exceeds the corresponding at least one target pixel intensity level when it is determined that the at least one target pixel intensity level cannot be reached in a given period of time. generating an adjusted picture frame based on the determined adjustments by overdriving at least one of the plurality of pixels to an overdrive pixel intensity level that exceeds the corresponding at least one target pixel intensity level when it is determined that the at least one target pixel intensity level cannot be reached in a given period of time.
A method for performing a handover procedure at a target base station in a mobile communication system, the method comprising: - receiving, at the target base station, a first message from a serving base station, wherein the first message requests to prepare a handover of a user equipment; - transmitting, from the target base station to the serving base station, a second message as an acknowledgement in response to the first message, the second message including resource allocation information; {p. 16,1.23 - p.17,1.3, 1. 8-9} - transmitting, from the target base station to a core network, a third message for requesting a path update; - performing synchronization with the user equipment based on the transmitted resource allocation information included in the second message; {p.17,1.22-24} - receiving, at the target base station, a fourth message from the user equipment after synchronization between the target base station and the user equipment, wherein the fourth message confirms the handover; - transmitting, from the target base station to the serving base station, a fifth message, wherein the fifth message informs about success of the handover, wherein the first message and the second message are communicated through a first interface between the target base station and the serving base station, the first interface being different from a second interface that is used for communicating the third message between the core network and the target base station. - receiving, at the target base station, a first message from a serving base station, wherein the first message requests to prepare a handover of a user equipment; - transmitting, from the target base station to the serving base station, a second message as an acknowledgement in response to the first message, the second message including resource allocation information; {p. 16,1.23 - p.17,1.3, 1. 8-9} - transmitting, from the target base station to a core network, a third message for requesting a path update; - performing synchronization with the user equipment based on the transmitted resource allocation information included in the second message; {p.17,1.22-24} - receiving, at the target base station, a fourth message from the user equipment after synchronization between the target base station and the user equipment, wherein the fourth message confirms the handover; - transmitting, from the target base station to the serving base station, a fifth message, wherein the fifth message informs about success of the handover, wherein
A system for de-identifying healthcare data (112, 800), the system comprising: a storage device for storing the healthcare data and personally identifiable information for a person; and a processor in communication with the storage device, the processor configured to generate an anonymous linking code using a first keyed hash function and a second hash function, wherein a first output of the first hash function with a key from the first hash function appended thereto is inputted into the second hash function to convert the first output and the appended key into the anonymous linking code, the anonymous linking code based at least in part on a portion of the personally identifiable information, said processor further appending the anonymous linking code to the healthcare data for the person. a storage device for storing the healthcare data and personally identifiable information for a person; and a processor in communication with the storage device, the processor configured to generate an anonymous linking code using a first keyed hash function and a second hash function, wherein a first output of the first hash function with a key from the first hash function appended thereto is inputted into the second hash function to convert the first output and the appended key into the anonymous linking code, the anonymous linking code based at least in part on a portion of the personally identifiable information, said processor further appending the anonymous linking code to the healthcare data for the person.
A compound of Formula 1a, wherein R 1 is halogen, C 1 -C 2 haloalkyl or C 1 -C 2 haloalkoxy; R 2 is H, halogen or cyano; R 3 is H, halogen or CF 3; R 4 is H, C 2 -C 7 alkylcarbonyl or C 2 -C 7 alkoxycarbonyl; and R 5 is C 1 -C 6 alkyl or C 1 -C 6 haloalkyl, each substituted with one substituent independently selected from hydroxy, C 1 -C 6 alkoxy, C 1 -C 6 alkylthio, C 1 -C 6 alkylsulfinyl, C 1 -C 6 alkylsulfonyl, C 2 -C 7 alkylaminocarbonyl, C 3 -C 9 dialkylaminocarbonyl, C 2 -C 7 haloalkylaminocarbonyl and C 3 -C 9 halodialkylaminocarbonyl. R 1 is halogen, C 1 -C 2 haloalkyl or C 1 -C 2 haloalkoxy; R 2 is H, halogen or cyano; R 3 is H, halogen or CF 3; R 4 is H, C 2 -C 7 alkylcarbonyl or C 2 -C 7 alkoxycarbonyl; and R 5 is C 1 -C 6 alkyl or C 1 -C 6 haloalkyl, each substituted with one substituent independently selected from hydroxy, C 1 -C 6 alkoxy, C 1 -C 6 alkylthio, C 1 -C 6 alkylsulfinyl, C 1 -C 6 alkylsulfonyl, C 2 -C 7 alkylaminocarbonyl, C 3 -C 9 dialkylaminocarbonyl, C 2 -C 7 haloalkylaminocarbonyl and C 3 -C 9 halodialkylaminocarbonyl.
Poka-yoke system for mounting of a timing gear of a motor vehicle combustion engine from a family of engines having engines with different octane numbers, each of the engines having: - a crankshaft that is rotatable about an operating axis, - a timing gear mounted at one end of the crankshaft, coaxially with the crankshaft, - a longitudinal key for the angular timing setting of the timing gear on the crankshaft, said key being fixed parallel to the axis of the timing gear on an interior cylindrical wall facing the crankshaft and designed to be housed in a longitudinal groove recessed in the crankshaft from a free end to a longitudinal end edge, said key being associated with a pairing formed by the crankshaft and the timing gear, such that said groove has a fixed width for each octane number and has a radial depth and longitudinal length that vary depending on the octane number of an engine, the variation in said depth is the inverse of the variation in the length of the longitudinal groove. - a crankshaft that is rotatable about an operating axis, - a timing gear mounted at one end of the crankshaft, coaxially with the crankshaft, - a longitudinal key for the angular timing setting of the timing gear on the crankshaft, said key being fixed parallel to the axis of the timing gear on an interior cylindrical wall facing the crankshaft and designed to be housed in a longitudinal groove recessed in the crankshaft from a free end to a longitudinal end edge, said key being associated with a pairing formed by the crankshaft and the timing gear,
Loading wagon suitable for storing one or more goods, which loading wagon is provided with suspension means for shiftable bearing on a suspension system (9, 10) on the roof or on the side walls of a transporting means, characterized in that the loading wagon is further provided with at least one securing element, being a securing pin extending at the side of the loading wagon, which is suitable for securing the loading wagon to a side wall of the transporting means already during transport in the transporting means.
A method for measuring water cut in hydrocarbon fluid, comprising: transmitting a microwave through a first waveguide (120a, 120b) attached to a production pipe, wherein the microwave is directed to the hydrocarbon fluid in the production pipe and wherein the first waveguide uses a first filling material; obtaining measurement results based on reflection or propagation of the microwave, wherein the measurement results are used to determine a water cut of the hydrocarbon fluid; characterised by that the method further includes the steps of: determining that the water cut is within a particular water cut range; in response to determining that the water cut is within a particular water cut range, replacing the first waveguide with a second waveguide (130a, 130b), wherein the second waveguide uses a second filling material that is different than the first filling material; transmitting a second microwave through the second waveguide, wherein the second microwave is directed to the hydrocarbon fluid in the production pipe; and obtaining second measurement results based on the second microwave. transmitting a microwave through a first waveguide (120a, 120b) attached to a production pipe, wherein the microwave is directed to the hydrocarbon fluid in the production pipe and wherein the first waveguide uses a first filling material; obtaining measurement results based on reflection or propagation of the microwave, wherein the measurement results are used to determine a water cut of the hydrocarbon fluid; characterised by that the method further includes the steps of: determining that the water cut is within a particular water cut range; in response to determining that the water cut is within a particular water cut range, replacing the first waveguide with a second waveguide (130a, 130b), wherein the second waveguide uses a second filling material that is different than the first filling material; transmitting a second microwave through the second waveguide, wherein the second microwave is directed to the hydrocarbon fluid in the production pipe; and obtaining second measurement results based on the second microwave. determining that the water cut is within a particular water cut range; in response to determining that the water cut is within a particular water cut range, replacing the first waveguide with a second waveguide (130a, 130b), wherein the second waveguide uses a second filling material that is different than the first filling material; transmitting a second microwave through the second waveguide, wherein the second microwave is directed to the hydrocarbon fluid in the production pipe; and obtaining second measurement results based on the second microwave.
A vehicle safety electronic control system comprising: a first microcontroller; a second microcontroller; and an inter-processor communication path for the transfer of data between said microcontrollers (11,12), the system having: a first simplex mode of inter-processor communication in which said first microcontroller acts as a master and said second microcontroller acts as a slave for the transfer of data from the first microcontroller to the second microcontroller; a second simplex mode of inter-processor communication in which said second microcontroller acts as a master and said first microcontroller acts as a slave for the transfer of data from the second microcontroller to the first microcontroller; and mode selection means configured to select and switch between said first and second modes, wherein said mode selection means includes at least two general-purpose input/output connections (18,19) between said microcontrollers (11,12), said general purpose input/output connections (18,19) being separate from said inter-processor communication path and being configured to handshake the selection of a said communication mode and to synchronise the commencement of data transmission along said inter-processor communication path between said microcontrollers (11,12)
Spike comprising a spike body made of steel and a spike pin made of hard metal inserted into the spike body, the spike body having a hardened outer layer, the hardness of which decreases with increasing thickness of the outer layer, characterized in that the spike body consists of steel with a carbon content of 0.005% to 0.03%, the hardness at an outer layer thickness of 0.3 mm of the spike body being less by at least 15%, in particular by at least 20%, than at an outer layer thickness of 0.1 mm.
A self-leveling light beam generating device comprising: a housing; a pendulum assembly including: a pendulum, and a light source fixed to the pendulum, wherein the light source is operable to generate a light beam along a generally vertical pathway; and a light beam redirection assembly capable of moving from a first position to a second position to selectively redirect the light beam from the generally vertical pathway; characterized in that the light beam redirection assembly comprises a first mirror and a second mirror angularly spaced apart from each other and arranged such that in the first position the first mirror is oriented in the generally vertical pathway of the light beam to redirect the light beam and in the second position the second mirror is oriented in the generally vertical pathway of the light beam to redirect the light beam. a housing; a pendulum assembly including: a pendulum, and a light source fixed to the pendulum, wherein the light source is operable to generate a light beam along a generally vertical pathway; and a pendulum, and a light source fixed to the pendulum, wherein the light source is operable to generate a light beam along a generally vertical pathway; and a light beam redirection assembly capable of moving from a first position to a second position to selectively redirect the light beam from the generally vertical pathway; characterized in that the light beam redirection assembly comprises a first mirror and a second mirror angularly spaced apart from each other and arranged such that in the first position the first mirror is oriented in the generally vertical pathway of the light beam to redirect the light beam and in the second position the second mirror is oriented in the generally vertical pathway of the light beam to redirect the light beam.
A composition comprising 1,1,1,3,3,3-hexafluoroisopropyl methyl ether (HFE-356mmz) and/or 1,1,2,3,3,3-hexafluoropropyl methyl ether (HFE-356mec), and a fluorine oil, which is at least one compound selected from - perfluoropolyether compounds, - mono- or dicarboxylic acid compounds or silane compound, each containing a perfluoropolyether group, and - polymers of chlorotrifluoroethylene having a number average molecular weight of ≤ 10,000, the total amount of and being ≥ 99 mass%, based on the total of the composition. 1,1,1,3,3,3-hexafluoroisopropyl methyl ether (HFE-356mmz) and/or 1,1,2,3,3,3-hexafluoropropyl methyl ether (HFE-356mec), and a fluorine oil, which is at least one compound selected from - perfluoropolyether compounds, - mono- or dicarboxylic acid compounds or silane compound, each containing a perfluoropolyether group, and - polymers of chlorotrifluoroethylene having a number average molecular weight of ≤ 10,000, - perfluoropolyether compounds, - mono- or dicarboxylic acid compounds or silane compound, each containing a perfluoropolyether group, and - polymers of chlorotrifluoroethylene having a number average molecular weight of ≤ 10,000,
An RF lens comprising: a first plurality of radiators (202 1,1 -202 11,11) adapted to radiate electromagnetic waves to power a device (300, 310) positioned away from the RF lens, wherein the plurality of radiators (202 1,1 -202 11,11) operate at a first frequency; and a plurality of locked loop circuits adapted to control phases of the electromagnetic waves radiated by the first plurality of radiators (202 1,1 -202 11,11) such that the phase of the electromagnetic wave radiated by each of the plurality of radiators (202 1,1 -202 11,11) is set in accordance with a distance between the radiator and the device (300, 310), wherein said plurality of locked loop circuits are further adapted to lock a phase or a frequency of the electromagnetic wave radiated by each of the first plurality of radiators (202 1,1 -202 11,11) to a phase or a frequency of a reference signal; wherein each radiator comprises an antenna; characterised in that each radiator comprises a switch (S 1) configured to switch the radiator between power transfer, wherein the switch (S 1) couples the antenna to a power amplifier, and tracking, wherein the switch (S 1) couples the antenna to a receiver amplifier and a phase recovery circuit. a first plurality of radiators (202 1,1 -202 11,11) adapted to radiate electromagnetic waves to power a device (300, 310) positioned away from the RF lens, wherein the plurality of radiators (202 1,1 -202 11,11) operate at a first frequency; and a plurality of locked loop circuits adapted to control phases of the electromagnetic waves radiated by the first plurality of radiators (202 1,1 -202 11,11) such that the phase of the electromagnetic wave radiated by each of the plurality of radiators (202 1,1 -202 11,11) is set in accordance with a distance between the radiator and the device (300, 310), wherein said plurality of locked loop circuits are further adapted to lock a phase or a frequency of the electromagnetic wave radiated by each of the first plurality of radiators (202 1,1 -202 11,11) to a phase or a frequency of a reference signal; wherein each radiator comprises an antenna; characterised in that each radiator comprises a switch (S 1) configured to switch the radiator between power transfer, wherein the switch (S 1) couples the antenna to a power amplifier, and tracking, wherein the switch (S 1) couples the antenna to a receiver amplifier and a phase recovery circuit.