mhurhangee/ep-ind-claims huggingface dataset:
A hydrothermal reactor, comprising: an inlet for receiving an aqueous mixture, positioned at the top part of the reactor interior; a tube-shaped reactor interior, which is inclined at an angle in the range of 1 - 45°; a first zone in the reactor interior comprising means for heating the aqueous mixture to a predetermined temperature, located directly downstream of the inlet a second zone in the reactor interior for keeping the aqueous mixture at the predetermined temperature, located directly downstream of the first zone a third zone in the reactor interior for cooling the aqueous mixture, located directly downstream of the second zone; an outlet for discharging a hydrothermally treated aqueous mixture, positioned at the bottom part of the reactor interior; and an outlet for discharging gas, positioned at the top part of the reactor interior. an inlet for receiving an aqueous mixture, positioned at the top part of the reactor interior; a tube-shaped reactor interior, which is inclined at an angle in the range of 1 - 45°; a first zone in the reactor interior comprising means for heating the aqueous mixture to a predetermined temperature, located directly downstream of the inlet a second zone in the reactor interior for keeping the aqueous mixture at the predetermined temperature, located directly downstream of the first zone a third zone in the reactor interior for cooling the aqueous mixture, located directly downstream of the second zone; an outlet for discharging a hydrothermally treated aqueous mixture, positioned at the bottom part of the reactor interior; and an outlet for discharging gas, positioned at the top part of the reactor interior.
A method for determining working heights which are independent of the type of coupling of a plurality of agricultural implements by means of a sensor system, wherein the sensor system has at least one sensor for receiving measurement data and a control system, wherein the implements can be coupled to an agricultural working machine via at least one equipment interface by means of different types of coupling, wherein the implements are temporarily coupled to the agricultural working machine by means of the different types of coupling, characterized in that the control system determines the coupling type-independent working heights of the differently coupled implements in the coupled state by using the same sensor and in that the control system displays the determined coupling type-independent working heights by means of the agricultural working machine and/or uses the determined coupling type-independent working heights for the control and/or regulation of the agricultural working machine and/or of the agricultural implement, wherein a coupling type-independent working height is a working height which is not calculated relative to the equipment interface.
A method performed by a User Equipment, UE, for encoding Hybrid Automatic Repeat Request, HARQ, Acknowledgements, ACK/NACK, in a multi-antenna wireless communications system, said UE configured in Multiple input Multiple Output, MIMO, mode with four transmit antennas or more, wherein said method comprises the steps of: bundling (S1; S11), a HARQ-ACK/NACK to be sent in response for a transport block of information with a HARQ-ACK/NACK to be sent in response for another transport block of information, when more than two transport blocks of information are used; and encoding (S2; S12) the bundled HARQ-ACK/NACK information, wherein an ACK/NACK for a second transport block of information Is bundled with an ACK/NACK for a third transport block of information, when three or four transport blocks of information are used, corresponding to a rank of three or four, and wherein an ACK for the second transport block of Information and an ACK for the third transport block of information is bundled as an ACK, and the ACK-NACK, NACK-ACK and NACK-NACK combination for the second transport block of information and the third transport block of information, respectively, is bundled as a NACK. bundling (S1; S11), a HARQ-ACK/NACK to be sent in response for a transport block of information with a HARQ-ACK/NACK to be sent in response for another transport block of information, when more than two transport blocks of information are used; and encoding (S2; S12) the bundled HARQ-ACK/NACK information, wherein an ACK/NACK for a second transport block of information Is bundled with an ACK/NACK for a third transport block of information, when three or four transport blocks of information are used, corresponding to a rank of three or four, and wherein an ACK for the second transport block of Information and an ACK for the third transport block of information is bundled as an ACK, and the ACK-NACK, NACK-ACK and NACK-NACK combination for the second transport block of information and the third transport block of information, respectively, is bundled as a NACK.
A method for encoding a Slow Associated Control Channel, SACCH, information block in a wireless network, the method comprising - randomizing a plurality of randomization unit input, R-INPUT, bits derived from at least some of a plurality of payload bits of the SACCH information block using a pseudo-random bit block, thereby yielding a plurality of randomized bits; - ciphering a plurality of ciphering unit input, C-INPUT, bits derived from the at least some of the plurality of randomized bits, thereby yielding an encoded data burst of a SACCH frame; wherein ciphering is based on a ciphering algorithm using a ciphering key Kc and a frame number COUNT of the SACCH frame; and - determining the pseudo-random bit block based on the ciphering key Kc and using a second frame number which is different from the frame number COUNT of the SACCH frame. - randomizing a plurality of randomization unit input, R-INPUT, bits derived from at least some of a plurality of payload bits of the SACCH information block using a pseudo-random bit block, thereby yielding a plurality of randomized bits; - ciphering a plurality of ciphering unit input, C-INPUT, bits derived from the at least some of the plurality of randomized bits, thereby yielding an encoded data burst of a SACCH frame; wherein ciphering is based on a ciphering algorithm using a ciphering key Kc and a frame number COUNT of the SACCH frame; and - determining the pseudo-random bit block based on the ciphering key Kc and using a second frame number which is different from the frame number COUNT of the SACCH frame.
A method for determining, by a radio resource control, RRC, of a user equipment, UE, an RRC state in a wireless communication system, comprising: entering an RRC_INACTIVE state by performing process of leaving RRC_CONNECTED state and releasing all radio resources; receiving core network, CN, paging during the RRC_INACTIVE state from a CN; determining a first UE identifier, ID, of the UE is matched with a second UE ID included in the CN paging; forwarding, during the RRC_INACTIVE state of the UE, the first UE ID of the UE and a CN domain included in the CN paging to a non-access stratum, NAS, of the UE, based on the determination that the first UE ID of the UE is matched with the second UE ID included in the CN paging; receiving an RRC connection release request from the NAS of the UE; deleting UE access stratum, AS, context; entering an RRC_IDLE state; and initiating an RRC connection setup procedure as a response to the CN paging, wherein the RRC connection setup procedure includes transmitting an RRC connection setup complete message to a serving base station, wherein the RRC connection setup complete message includes information informing that the RRC connection setup procedure is a response to the CN paging during the RRC _INACTIVE state, and wherein the first UE ID of the UE is allocated by the NAS of the UE. entering an RRC_INACTIVE state by performing process of leaving RRC_CONNECTED state and releasing all radio resources; receiving core network, CN, paging during the RRC_INACTIVE state from a CN; determining a first UE identifier, ID, of the UE is matched with a second UE ID included in the CN paging; forwarding, during the RRC_INACTIVE state of the UE, the first UE ID of the UE and a CN domain included in the CN paging to a non-access stratum, NAS, of the UE, based on the determination that the first UE ID of the UE is matched with the second UE ID included in the CN paging; receiving an RRC connection release request from the NAS of the UE; deleting UE access stratum, AS, context; entering an RRC_IDLE state; and initiating an RRC connection setup procedure as a response to the CN paging, wherein the RRC connection setup procedure includes transmitting an RRC connection setup complete message to a serving base station, wherein the RRC connection setup complete message includes information informing that the RRC connection setup procedure is a response to the CN paging during the RRC _INACTIVE state, and wherein the first UE ID of the UE is allocated by the NAS of the UE.
A phosphor material comprising a blend of: a first phosphor comprising a composition having a general formula of RE 2-y M 1+y A 2-y Sc y Si n-w Ge w O 12+δ: Ce 3+, wherein RE comprises a lanthanide ion or Y 3+, M comprises Mg, Ca, Sr or Ba, A comprises Mg or Zn; and 0≤y≤ 2, 2.5≤n≤3.5, 0≤w≤1, and -1.5≤δ≤1.5, a second phosphor comprising a complex fluoride doped with manganese (Mn 4+) having a general formula A 2 [MF 6]:Mn 4+, wherein A comprises Na, K, Rb, Cs, NH 4, or a combination thereof; and M comprises Si, Ti, Zr, Mn, or a combination thereof, and a third phosphor comprising a phosphor composition having an emission peak in a range from about 520 nm to about 680 nm. a first phosphor comprising a composition having a general formula of RE 2-y M 1+y A 2-y Sc y Si n-w Ge w O 12+δ: Ce 3+, wherein RE comprises a lanthanide ion or Y 3+, M comprises Mg, Ca, Sr or Ba, A comprises Mg or Zn; and 0≤y≤ 2, 2.5≤n≤3.5, 0≤w≤1, and -1.5≤δ≤1.5, a second phosphor comprising a complex fluoride doped with manganese (Mn 4+) having a general formula A 2 [MF 6]:Mn 4+, wherein A comprises Na, K, Rb, Cs, NH 4, or a combination thereof; and M comprises Si, Ti, Zr, Mn, or a combination thereof, and a third phosphor comprising a phosphor composition having an emission peak in a range from about 520 nm to about 680 nm.
A method for producing an emulsion of a nitrogen atom-containing polymer or a salt thereof, the method comprising: a step of mixing a first solution that includes a nitrogen atom-containing polymer or a salt thereof and a hydrophilic solvent and has a viscosity of 10 to 2,000 mPa·s, and a second solution that includes a hydrophobic solvent and has a viscosity of 1 to 100 mPa·s, stirring the mixture, and thus obtaining an emulsion of the nitrogen atom-containing polymer or a salt thereof, wherein a ratio between the viscosity of the first solution and the viscosity of the second solution is in a range of 0.1:1 to 300:1 wherein the hydrophilic solvent includes water, a lower alcohol, acetone, acetonitrile, and a mixture thereof, and the hydrophobic solvent includes an aromatic hydrocarbon-based solvent, an ester-based solvent, a ketone-based solvent, a halogen-based solvent, a saturated hydrocarbon-based solvent, mineral oil, olive oil and a mixture thereof; the viscosity is measured at 25°C using an R215 type viscometer (RE-215L) wherein when the viscosity is higher than 100 mPa·s, the viscosity is measured with a sample amount of 0.6 mL using a cone rotor for high viscosity (3° × R9.7), and when the viscosity is 100 mPa·s or lower, the viscosity is measured with a sample amount of 0.2 mL using a cone rotor for low viscosity (0.8° × R24), and wherein the speed of rotation is set such that the torque index value is stabilized in the range of 50% to 100%. a step of mixing a first solution that includes a nitrogen atom-containing polymer or a salt thereof and a hydrophilic solvent and has a viscosity of 10 to 2,000 mPa·s, and a second solution that includes a hydrophobic solvent and has a viscosity of 1 to 100 mPa·s, stirring the mixture, and thus obtaining an emulsion of the nitrogen atom-containing polymer or a salt thereof, wherein a ratio between the viscosity of the first solution and the viscosity of the second solution is in a range of 0.1:1 to 300:1 wherein the hydrophilic solvent includes water, a lower alcohol, acetone, acetonitrile, and a mixture thereof, and the hydrophobic solvent includes an aromatic hydrocarbon-based solvent, an ester-based solvent, a ketone-based solvent, a halogen-based solvent, a saturated hydrocarbon-based solvent, mineral oil, olive oil and a mixture thereof; the viscosity is measured at 25°C using an R215 type viscometer (RE-215L) wherein when the viscosity is higher than 100 mPa·s, the viscosity is measured with a sample amount of 0.6 mL using a cone rotor for high viscosity (3° × R9.7), and when the viscosity is 100 mPa·s or lower, the viscosity is measured with a sample amount of 0.2 mL using a cone rotor for low viscosity (0.8° × R24), and wherein the speed of rotation is set such that the torque index value is stabilized in the range of 50% to 100%.
A method, implemented at a computer system that includes one or more processors, for performing breakpoint detection via a cache, the method comprising: detecting an occurrence of a memory access; and based at least on detecting the occurrence of the memory access, identifying whether any cache line of the cache matches an address associated with the memory access, and when a cache line does match the address associated with the memory access, determining that no breakpoint was encountered; or when no cache line matches the address associated with the memory access, identifying whether any cache line matches the address associated with the memory access when one or more flag bits, being part of the cache line, are ignored, and when a cache line does match the address associated with the memory access when the one or more flag bits are ignored, performing a check for whether a breakpoint was encountered; or when no cache line matches the address associated with the memory access when the one or more flag bits are ignored, processing a cache miss. detecting an occurrence of a memory access; and based at least on detecting the occurrence of the memory access, identifying whether any cache line of the cache matches an address associated with the memory access, and when a cache line does match the address associated with the memory access, determining that no breakpoint was encountered; or when no cache line matches the address associated with the memory access, identifying whether any cache line matches the address associated with the memory access when one or more flag bits, being part of the cache line, are ignored, and when a cache line does match the address associated with the memory access when the one or more flag bits are ignored, performing a check for whether a breakpoint was encountered; or when no cache line matches the address associated with the memory access when the one or more flag bits are ignored, processing a cache miss.
A method for sealing a lost circulation zone associated with a subterranean well, the method including: determining geophysical data of the lost circulation zone; providing an available range of lost circulation shape data; providing an available range of lost circulation material data, where the geophysical data, the available range of lost circulation shape data, and the available range of lost circulation material data are part of a fixed data set; determining an initial lost circulation mix from the fixed data set; determining an initial drill string downhole flow rate and an initial annulus uphole flow rate and calculating an initial loss volume; delivering the initial lost circulation mix into the subterranean well; and determining a revised drill string downhole flow rate and a revised annulus uphole flow rate and calculating a revised loss volume. determining geophysical data of the lost circulation zone; providing an available range of lost circulation shape data; providing an available range of lost circulation material data, where the geophysical data, the available range of lost circulation shape data, and the available range of lost circulation material data are part of a fixed data set; determining an initial lost circulation mix from the fixed data set; determining an initial drill string downhole flow rate and an initial annulus uphole flow rate and calculating an initial loss volume; delivering the initial lost circulation mix into the subterranean well; and determining a revised drill string downhole flow rate and a revised annulus uphole flow rate and calculating a revised loss volume.
A hearing device configured to be worn by a wearer, comprising: an electronic circuit (102; 202) configured to receive one or more input signals, produce an output sound using the received one or more input signals, and transmit the output sound to the wearer, the electronic circuit (102; 202) including: a bowtie antenna (104; 204) including a first conductive plate, a second conductive plate, one or more notches in at least one of the first conductive plate and the second conductive plate, and an antenna feed connected to the first conductive plate and the second conductive plate, the one or more notches configured to approximately optimize performance of wireless communication for one or more specified frequency bands; a communication circuit coupled to the antenna feed, the communication circuit configured to perform the wireless communication using the bowtie antenna (104; 204); a rechargeable battery; and a power circuit coupled to the antenna feed, the power circuit configured to receive energy using the bowtie antenna (104; 204) and charge the rechargeable battery using the received energy; and a shell housing at least portions of the electronic circuit (102; 202). a bowtie antenna (104; 204) including a first conductive plate, a second conductive plate, one or more notches in at least one of the first conductive plate and the second conductive plate, and an antenna feed connected to the first conductive plate and the second conductive plate, the one or more notches configured to approximately optimize performance of wireless communication for one or more specified frequency bands; a communication circuit coupled to the antenna feed, the communication circuit configured to perform the wireless communication using the bowtie antenna (104; 204); a rechargeable battery; and a power circuit coupled to the antenna feed, the power circuit configured to receive energy using the bowtie antenna (104; 204) and charge the rechargeable battery using the received energy; and a shell housing at least portions of the electronic circuit (102; 202).
Method for creating prepress files for being processed in a printing operation by means of a computer with a screen, wherein print jobs are provided to the computer in digital form through multiple input channels, wherein having received the digital data of the print jobs via the input channels, the computer subjects the digital data of the print jobs to an immediate analysis and subsequently saves them in a memory, wherein the digital data of the print jobs are not saved in the memory of the computer until they have been analyzed.
A scroll compressor comprising: a fixed scroll; and a movable scroll, wherein a facing surface of the fixed scroll which faces the movable scroll has a fixed oil groove, the fixed oil groove having a fixed circumferential groove portion that extends in a circumferential direction, the fixed circumferential groove portion has a circular-arc portion that extends in the circumferential direction, and a wide portion wider in a radial direction than a groove width of the circular-arc portion, and a facing surface of the movable scroll which faces the fixed scroll has a movable oil groove, the movable oil groove having: a movable circumferential groove portion that extends in the circumferential direction; and a radial groove portion that extends in the radial direction and communicates with the movable circumferential groove portion, characterized in that in a predetermined region of an angle range where the movable scroll, when the scroll compressor is in operation, makes an orbiting motion, a portion of the radial groove portion overlaps the wide portion as viewed from an axial direction. a facing surface of the fixed scroll which faces the movable scroll has a fixed oil groove, the fixed oil groove having a fixed circumferential groove portion that extends in a circumferential direction, the fixed circumferential groove portion has a circular-arc portion that extends in the circumferential direction, and a wide portion wider in a radial direction than a groove width of the circular-arc portion, and a facing surface of the movable scroll which faces the fixed scroll has a movable oil groove, the movable oil groove having: a movable circumferential groove portion that extends in the circumferential direction; and a radial groove portion that extends in the radial direction and communicates with the movable circumferential groove portion, characterized in that in a predetermined region of an angle range where the movable scroll, when the scroll compressor is in operation, makes an orbiting motion, a portion of the radial groove portion overlaps the wide portion as viewed from an axial direction.