mhurhangee/ep-ind-claims huggingface dataset:
An organic sludge treatment method to be applied with a cement burning device, wherein the cement burning device further comprises: a kiln, a calciner furnace, a preheater; and wherein the method comprises the steps of: mixing an organic sludge supplied from a sludge supply device of the cement burning device with a preheated raw material that is fractionated from a third preheater cyclone of the preheater of the cement burning device, wherein the preheater includes four or five stage cyclones; drying the organic sludge with sensible heat of the preheated raw material; and supplying a mixture of the organic sludge and the preheated raw material to the calciner furnace of the cement burning device or to a duct disposed between a kiln inlet portion of the cement kiln and the calciner furnace of the cement burning device, wherein the calcium oxide (CaO) content of the preheated raw material fractionated from the preheater cyclone is less or equal to 20 mass%. wherein the cement burning device further comprises: a kiln, a calciner furnace, a preheater; and a kiln, a calciner furnace, a preheater; and wherein the method comprises the steps of: mixing an organic sludge supplied from a sludge supply device of the cement burning device with a preheated raw material that is fractionated from a third preheater cyclone of the preheater of the cement burning device, wherein the preheater includes four or five stage cyclones; drying the organic sludge with sensible heat of the preheated raw material; and supplying a mixture of the organic sludge and the preheated raw material to the calciner furnace of the cement burning device or to a duct disposed between a kiln inlet portion of the cement kiln and the calciner furnace of the cement burning device, wherein the calcium oxide (CaO) content of the preheated raw material fractionated from the preheater cyclone is less or equal to 20 mass%. mixing an organic sludge supplied from a sludge supply device of the cement burning device with a preheated raw material that is fractionated from a third preheater cyclone of the preheater of the cement burning device, wherein the preheater includes four or five stage cyclones; drying the organic sludge with sensible heat of the preheated raw material; and supplying a mixture of the organic sludge and the preheated raw material to the calciner furnace of the cement burning device or to a duct disposed between a kiln inlet portion of the cement kiln and the calciner furnace of the cement burning device, wherein the calcium oxide (CaO) content of the preheated raw material fractionated from the preheater cyclone is less or equal to 20 mass%.
A method of performing a Connection Admission Control, CAC, process in a Broadband Wireless Access, BWA, system, comprising the steps of: computing a Modulation and Coding Scheme, MCS, distribution probability for each service class; computing an average block capacity for each service class by using the MCS distribution probability; checking a class of a requested service; converting a transmission request rate of the service into the number of required air resource blocks by using the average block capacity of the checked class; determining the number of used air resource blocks for each service class by using the average block capacity; determining the number of available blocks by using the number of used blocks for the service class; and determining whether to admit or deny the connection by comparing the number of required air resource blocks with the number of available blocks. computing a Modulation and Coding Scheme, MCS, distribution probability for each service class; computing an average block capacity for each service class by using the MCS distribution probability; checking a class of a requested service; converting a transmission request rate of the service into the number of required air resource blocks by using the average block capacity of the checked class; determining the number of used air resource blocks for each service class by using the average block capacity; determining the number of available blocks by using the number of used blocks for the service class; and determining whether to admit or deny the connection by comparing the number of required air resource blocks with the number of available blocks.
An organic-inorganic complex-forming composition comprising: a) at least one organic silicon compound represented by formula: R n SiX 4-n... (wherein R represents an organic group having a carbon atom directly bonded to Si, and X represents a hydroxyl group or a hydrolyzable group; and n represents 1 or 2, R may be the same or different when n is 2, and each X may be the same or different when (4 - n) is 2 or more), and/or a condensate thereof; b) a silanol condensation catalyst; c) an electromagnetic ray-curable compound; and d) metal compound particles that are a mixture of.metal compound particles having an isoelectric point of less than 5 as a metal oxide and metal compound particles having an isoelectric point of 5 or more as a metal oxide with a weight ratio of the solids of 50:50 to 99:1, and wherein the metal compound particles having an isoelectric point of less than 5 as a metal oxide are silica particles, and a metal of the metal compound particles having an isoelectric point of 5 or more as a metal oxide is at least one selected from the group consisting of Zr, Al, Ti, and Mg. a) at least one organic silicon compound represented by formula: R n SiX 4-n... (wherein R represents an organic group having a carbon atom directly bonded to Si, and X represents a hydroxyl group or a hydrolyzable group; and n represents 1 or 2, R may be the same or different when n is 2, and each X may be the same or different when (4 - n) is 2 or more), and/or a condensate thereof; b) a silanol condensation catalyst; c) an electromagnetic ray-curable compound; and d) metal compound particles that are a mixture of.metal compound particles having an isoelectric point of less than 5 as a metal oxide and metal compound particles having an isoelectric point of 5 or more as a metal oxide with a weight ratio of the solids of 50:50 to 99:1,
A wall vent comprising a body which provides a duct which includes an inlet and an outlet, and a cover panel assembly comprising a support member, a cover panel which covers the outlet of the duct, characterized in that the wall vent comprises a linkage which hingeably connects the cover panel to the support member, wherein the linkage is configured to allow the cover panel to be hinged clear of the support member and allow access to the duct; wherein the support member includes at least one pivot coupling, the cover panel includes at least one counterpart pivot coupling and the linkage comprises at least one elongate arm which pivotably couples the pivot couplings (23, 25).
A method of determining whether to apply a media specific action to communications in an Internet Protocol Multimedia Subsystem enabled network, the method comprising: at an application server: receiving an instruction comprising a rule, configured using the Extended Mark-up Language, XML, Configuration Access Protocol, XCAP, and wherein the rule comprises a media specific action and conditions for implementing the media specific action, wherein the conditions comprise: a first condition specifying a first set of one or more media types, the first set being a subset of a second set of media types; and a second condition specifying that no media types - comprising video - other than the types in the first set - comprising audio - are present; on receipt of a protocol message setting up or modifying a communication: determining if the protocol message meets the first condition and the second condition; and only if both the first condition and the second condition are met: applying the media specific action to the communication, wherein the media specific action comprises diversion and/or call forwarding instructions. at an application server: receiving an instruction comprising a rule, configured using the Extended Mark-up Language, XML, Configuration Access Protocol, XCAP, and wherein the rule comprises a media specific action and conditions for implementing the media specific action, wherein the conditions comprise: a first condition specifying a first set of one or more media types, the first set being a subset of a second set of media types; receiving an instruction comprising a rule, configured using the Extended Mark-up Language, XML, Configuration Access Protocol, XCAP, and wherein the rule comprises a media specific action and conditions for implementing the media specific action, wherein the conditions comprise: a first condition specifying a first set of one or more media types, the first set being a subset of a second set of media types; a first condition specifying a first set of one or more media types, the first set being a subset of a second set of media types; and a second condition specifying that no media types - comprising video - other than the types in the first set - comprising audio - are present; on receipt of a protocol message setting up or modifying a communication: determining if the protocol message meets the first condition and the second condition; and only if both the first condition and the second condition are met: applying the media specific action to the communication, wherein the media specific action comprises diversion and/or call forwarding instructions. determining if the protocol message meets the first condition and the second condition; and only if both the first condition and the second condition are met: applying the media specific action to the communication, wherein the media specific action comprises diversion and/or call forwarding instructions.
A transmission mechanism (110; 210) comprising: a planet gear (116; 216) configured to be mounted to a synchronization ring for rotation relative to the synchronization ring about a planet gear axis; a set of sun gear teeth (118; 218) meshed with teeth of the planet gear, wherein the set of sun gear teeth is configured to rotate and drive motion of the planet gear in a circumferential direction about an axis of the set of sun gear teeth; a set of ring gear teeth meshed with the teeth of the planet gear, wherein the set of sun gear teeth and the set of ring gear teeth are spaced apart from one another; and an input shaft configured to extend in a radially outward direction with respect to the synchronization ring, the input shaft having a first end and a second end, defining an actuator axis therebetween, wherein the set of sun gear teeth is defined proximate to the first end of the input shaft operatively connecting the input shaft to the planet gear; wherein the set of sun gear teeth is concentric with the input shaft. a planet gear (116; 216) configured to be mounted to a synchronization ring for rotation relative to the synchronization ring about a planet gear axis; a set of sun gear teeth (118; 218) meshed with teeth of the planet gear, wherein the set of sun gear teeth is configured to rotate and drive motion of the planet gear in a circumferential direction about an axis of the set of sun gear teeth; a set of ring gear teeth meshed with the teeth of the planet gear, wherein the set of sun gear teeth and the set of ring gear teeth are spaced apart from one another; and an input shaft configured to extend in a radially outward direction with respect to the synchronization ring, the input shaft having a first end and a second end, defining an actuator axis therebetween, wherein the set of sun gear teeth is defined proximate to the first end of the input shaft operatively connecting the input shaft to the planet gear; wherein the set of sun gear teeth is concentric with the input shaft.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station through first system information, a first frequency band indicator indicating a frequency band supported by the base station and second frequency band indicators indicating multiple frequency bands supported by the base station; identifying whether the first frequency band indicator and the second frequency band indicators include at least one frequency band supported by the terminal; selecting, in case that the second frequency band indicators include two or more frequency bands supported by the terminal, a frequency band indicated first among the two or more frequency bands; and attempting access to the base station based on the frequency band indicated first. receiving, from a base station through first system information, a first frequency band indicator indicating a frequency band supported by the base station and second frequency band indicators indicating multiple frequency bands supported by the base station; identifying whether the first frequency band indicator and the second frequency band indicators include at least one frequency band supported by the terminal; selecting, in case that the second frequency band indicators include two or more frequency bands supported by the terminal, a frequency band indicated first among the two or more frequency bands; and attempting access to the base station based on the frequency band indicated first.
A method for debugging a plurality of runtime debuggees (122, 124, 126) executing in a single debuggee process by an n-way interoperative debugger including a stepping manager module performing top-level step arbitration and a debug monitor module managing a communication channel between the n-way interoperative debugger and the single debuggee process and routing debug events to a corresponding runtime debugger (112, 114, 116), the method comprising: receiving a debug communication from one of the plurality of runtime debuggees, the debug communication conforming to a protocol shared by the plurality of runtime debuggees, wherein the plurality of runtime debuggees comprise runtimes that do not execute debug code, detect transitions from one runtime debuggee to another runtime debuggee and detect exceptions thrown in other debuggee runtimes; determining a current controlling runtime, comprising a runtime debuggee of the plurality of runtime debuggees by contacting in priority order at least one of the plurality of runtime debuggees; receiving a response from a contacted runtime debuggee of the plurality of runtime debuggees claiming ownership of a current debug instruction; and notifying at least one of the plurality of runtime debuggees of the determined current controlling runtime. receiving a debug communication from one of the plurality of runtime debuggees, the debug communication conforming to a protocol shared by the plurality of runtime debuggees, wherein the plurality of runtime debuggees comprise runtimes that do not execute debug code, detect transitions from one runtime debuggee to another runtime debuggee and detect exceptions thrown in other debuggee runtimes; determining a current controlling runtime, comprising a runtime debuggee of the plurality of runtime debuggees by contacting in priority order at least one of the plurality of runtime debuggees; receiving a response from a contacted runtime debuggee of the plurality of runtime debuggees claiming ownership of a current debug instruction; and notifying at least one of the plurality of runtime debuggees of the determined current controlling runtime.
A method for managing plant biomass at harvest, comprising the steps of: a) measuring an amount of fatty acids contained in a plant(s); and b) obtaining a percentage of linolenic acid with respect to a total amount of fatty acids that is found from the measurement; characterized by the further step of: c) estimating the plant biomass at harvest on the basis of the percentage of linolenic acid thus obtained. a) measuring an amount of fatty acids contained in a plant(s); and b) obtaining a percentage of linolenic acid with respect to a total amount of fatty acids that is found from the measurement; characterized by the further step of: c) estimating the plant biomass at harvest on the basis of the percentage of linolenic acid thus obtained. c) estimating the plant biomass at harvest on the basis of the percentage of linolenic acid thus obtained.
A wireless networking device, the device being an initiator device and comprising: an antenna sub-system configured to transmit and receive beamformed wireless transmissions; and a controller configured to perform operations comprising: obtaining, using the antenna sub-system, communication information from a first interferee device (108, 210); transmitting a packet to the first interferee device (108, 210), wherein the packet is a beam refinement phase, BRP, poll and wherein the packet further comprises a training data packet, TRN-T; obtaining a first channel measurement from the first interferee device (108, 210) based on the training data packet; forming a beam in accordance with the first channel measurement; and communicating with a first responder device (104, 204) using a communication link formed using the beam, wherein the first interferee device (108, 210) is a non-participating device with respect to the communication link. an antenna sub-system configured to transmit and receive beamformed wireless transmissions; and a controller configured to perform operations comprising: obtaining, using the antenna sub-system, communication information from a first interferee device (108, 210); transmitting a packet to the first interferee device (108, 210), wherein the packet is a beam refinement phase, BRP, poll and wherein the packet further comprises a training data packet, TRN-T; obtaining a first channel measurement from the first interferee device (108, 210) based on the training data packet; forming a beam in accordance with the first channel measurement; and communicating with a first responder device (104, 204) using a communication link formed using the beam, wherein the first interferee device (108, 210) is a non-participating device with respect to the communication link. obtaining, using the antenna sub-system, communication information from a first interferee device (108, 210); transmitting a packet to the first interferee device (108, 210), wherein the packet is a beam refinement phase, BRP, poll and wherein the packet further comprises a training data packet, TRN-T; obtaining a first channel measurement from the first interferee device (108, 210) based on the training data packet; forming a beam in accordance with the first channel measurement; and communicating with a first responder device (104, 204) using a communication link formed using the beam, wherein the first interferee device (108, 210) is a non-participating device with respect to the communication link.
Drug delivery device, preferably a pen type drug delivery device, with a cartridge of medication and a dose setting mechanism which is operable to select a dose of medication which shall be administered out of said cartridge, the dose setting mechanism comprising: a shaft, a helical groove having a first pitch provided along a first portion of said shaft, and a nut member disposed on said helical groove of said shaft, wherein during dose setting of said drug delivery device, said shaft is rotated relative to said nut member while said nut member traverses in longitudinal direction along said helical groove from a first end of said shaft towards a second end of said shaft, wherein said nut member comprises at least one substantially radial stop face, and means preventing a user of said dose setting mechanism from setting a dose of said medication that is greater than said remaining medication in said cartridge, said means comprising said at least one substantially radial stop face or, said nut member engaging at least one substantially radial stop face on said shaft so that said nut member prevents said shaft from rotating relative to said nut member, said helical groove further comprises a second pitch provided along a second portion of said shaft, wherein said first pitch is different from said second pitch, wherein said second pitch is greater than said first pitch, wherein said helical groove further comprises a third pitch provided along a third portion of said shaft, wherein said first pitch provided along said first portion of said shaft is preferably generally equal to said third pitch. a shaft, a helical groove having a first pitch provided along a first portion of said shaft, and a nut member disposed on said helical groove of said shaft, wherein during dose setting of said drug delivery device, said shaft is rotated relative to said nut member while said nut member traverses in longitudinal direction along said helical groove from a first end of said shaft towards a second end of said shaft, wherein said nut member comprises at least one substantially radial stop face, and means preventing a user of said dose setting mechanism from setting a dose of said medication that is greater than said remaining medication in said cartridge, said means comprising said at least one substantially radial stop face or, said nut member engaging at least one substantially radial stop face on said shaft so that said nut member prevents said shaft from rotating relative to said nut member, said helical groove further comprises a second pitch provided along a second portion of said shaft, wherein said first pitch is different from said second pitch, wherein said second pitch is greater than said first pitch, wherein said helical groove further comprises a third pitch provided along a third portion of said shaft, wherein said first pitch provided along said first portion of said shaft is preferably generally equal to said third pitch.
A method for operating a fluidized bed boiler comprising primary and secondary air ports, characterized by; a) setting the ratio of secondary oxygen containing gas to primary oxygen containing fluidizing gas to a value ranging from 0.0 to 0.4; b) carrying out the combustion of fuel with a fluidized bed comprising ilmenite particles, wherein the ilmenite particles make up at least 10 wt.% of the bed material. a) setting the ratio of secondary oxygen containing gas to primary oxygen containing fluidizing gas to a value ranging from 0.0 to 0.4; b) carrying out the combustion of fuel with a fluidized bed comprising ilmenite particles, wherein the ilmenite particles make up at least 10 wt.% of the bed material.
A wafer lens unit comprising a plurality of wafer lens arrays which are stacked, wherein each wafer lens array comprises a plurality of lens sections arranged one-dimensionally or two-dimensionally and a substrate section connecting the lens sections to each other and formed integrally therewith; and the neighboring wafer lens arrays are bonded through an adhesive layer comprising spacers only in between the substrate sections of the neighboring wafer lens arrays, wherein said spacer is a spherical particle, and wherein the same material constitutes at least 70% by weight of each of the wafer lens array and the adhesive layer.
A device (10, 20, 30) comprising: a searching unit (12, 22, 32) configured to search a set of specific sequences, comprising a set of root sequences and cyclic shifts thereof, wherein the searching unit (12, 22, 32) is configured to start from a root sequence index indicating a root sequence of ordered root sequences, include available cyclic shifts of the root sequence, and continue with a next root sequence if necessary for filling the set, and characterized in that the searching unit (12, 22, 32) is configured to interpret the ordered root sequences in a cyclic manner so that sequence index 1 is considered to be consecutive to sequence index 838. a searching unit (12, 22, 32) configured to search a set of specific sequences, comprising a set of root sequences and cyclic shifts thereof, wherein the searching unit (12, 22, 32) is configured to start from a root sequence index indicating a root sequence of ordered root sequences, include available cyclic shifts of the root sequence, and continue with a next root sequence if necessary for filling the set, and characterized in that the searching unit (12, 22, 32) is configured to interpret the ordered root sequences in a cyclic manner so that sequence index 1 is considered to be consecutive to sequence index 838.