mhurhangee/patent-ind-claim-en huggingface dataset:
A dual mode architectural structure covering comprising: a covering drive shaft ; a covering coupled to rotate with rotation of the covering drive shaft ; a drive motor having a motor drive shaft; and a dual mode operation system , the dual mode operation system including a bearing housing , a slip clutch , and a one-way bearing ; wherein: the bearing housing is coupled to rotate with the motor drive shaft; the slip clutch is coupled to selectively rotate with or slip with respect to the covering drive shaft ; and the one-way bearing is selectively rotatably coupled between the bearing housing and the slip clutch such that, with relative rotation of the bearing housing and the slip clutch in a first direction, the slip clutch and the bearing housing are rotatably coupled with each other so that the slip clutch and the bearing housing rotate together, and, with relative rotation of the bearing housing and the slip clutch in a second direction opposite to said first direction, the slip clutch and the bearing housing are freely rotatable with respect to each other so that the slip clutch and the housing are rotatable with respect to each other. a covering drive shaft ; a covering coupled to rotate with rotation of the covering drive shaft ; a drive motor having a motor drive shaft; and a dual mode operation system , the dual mode operation system including a bearing housing , a slip clutch , and a one-way bearing ; wherein: the bearing housing is coupled to rotate with the motor drive shaft; the slip clutch is coupled to selectively rotate with or slip with respect to the covering drive shaft ; and the one-way bearing is selectively rotatably coupled between the bearing housing and the slip clutch such that, with relative rotation of the bearing housing and the slip clutch in a first direction, the slip clutch and the bearing housing are rotatably coupled with each other so that the slip clutch and the bearing housing rotate together, and, with relative rotation of the bearing housing and the slip clutch in a second direction opposite to said first direction, the slip clutch and the bearing housing are freely rotatable with respect to each other so that the slip clutch and the housing are rotatable with respect to each other. the bearing housing is coupled to rotate with the motor drive shaft; the slip clutch is coupled to selectively rotate with or slip with respect to the covering drive shaft ; and the one-way bearing is selectively rotatably coupled between the bearing housing and the slip clutch such that, with relative rotation of the bearing housing and the slip clutch in a first direction, the slip clutch and the bearing housing are rotatably coupled with each other so that the slip clutch and the bearing housing rotate together, and, with relative rotation of the bearing housing and the slip clutch in a second direction opposite to said first direction, the slip clutch and the bearing housing are freely rotatable with respect to each other so that the slip clutch and the housing are rotatable with respect to each other.
A computer-implemented method for image voxel statistical testing, comprising: obtaining a functional image of a subject for processing via voxel-wise statistical testing; obtaining a subject personalized template image, which is personalized to the subject based on a predetermined characteristic of the subject; stereotactically normalizing the functional image of the subject by registering the functional image with the subject personalized template image; and intensity scaling the stereotactically normalized functional image using an intensity reference image; filtering the intensity scaled, stereotactically normalized functional image; performing voxel-wise statistical testing on the filtered, intensity scaled, stereotactically normalized functional image, using the subject personalized template image registered to the image of the subject; and generating a statistical map based on a result of the voxel-wise statistical test. obtaining a functional image of a subject for processing via voxel-wise statistical testing; obtaining a subject personalized template image, which is personalized to the subject based on a predetermined characteristic of the subject; stereotactically normalizing the functional image of the subject by registering the functional image with the subject personalized template image; and intensity scaling the stereotactically normalized functional image using an intensity reference image; filtering the intensity scaled, stereotactically normalized functional image; performing voxel-wise statistical testing on the filtered, intensity scaled, stereotactically normalized functional image, using the subject personalized template image registered to the image of the subject; and generating a statistical map based on a result of the voxel-wise statistical test.
A method of producing a silicon carbide single crystal, the method comprising: Heating, with an Acheson furnace, a raw material for producing silicon carbide prepared by mixing a siliceous raw material and a carbonaceous raw material, to obtain a massive silicon carbide; pulverizing the massive silicon carbide, followed by classification, to obtain a silicon carbide powder that has a Blaine specific surface area of from 250 cm2/g to 1,000 cm2/g, that has a ratio of a silicon carbide powder having a particle size of from 0.85 mm to 1.70 mm of 90 vol% or more with respect to a total amount of the silicon carbide powder, and that comprises aggregated particles of primary particles having a ratio of particles each having a particle size of 1 μm or more and 1 mm or less of 90 vol% or more; and growing a silicon carbide single crystal on a silicon carbide seed crystal by a sublimation recrystallization method through use of the silicon carbide powder as a raw material. Heating, with an Acheson furnace, a raw material for producing silicon carbide prepared by mixing a siliceous raw material and a carbonaceous raw material, to obtain a massive silicon carbide; pulverizing the massive silicon carbide, followed by classification, to obtain a silicon carbide powder that has a Blaine specific surface area of from 250 cm2/g to 1,000 cm2/g, that has a ratio of a silicon carbide powder having a particle size of from 0.85 mm to 1.70 mm of 90 vol% or more with respect to a total amount of the silicon carbide powder, and that comprises aggregated particles of primary particles having a ratio of particles each having a particle size of 1 μm or more and 1 mm or less of 90 vol% or more; and growing a silicon carbide single crystal on a silicon carbide seed crystal by a sublimation recrystallization method through use of the silicon carbide powder as a raw material.
A method for synthesizing metal particles, comprising: - providing a dielectric barrier discharge (DBD) plasma apparatus, the DBD plasma apparatus comprising an electrolyte vessel, an electrode spaced-apart from the electrolyte vessel, and a dielectric barrier interposed between the electrolyte vessel and the electrode; - introducing an electrolyte solution comprising metal ions inside the electrolyte vessel, the electrolyte solution having an upper surface spaced-apart from the dielectric barrier; - supplying gas into a discharge area extending between the upper surface of the electrolyte solution and the dielectric barrier; and - applying an alternating or pulsed direct electrical potential difference between the electrode and the electrolyte solution, the electrolyte solution acting as a counter-electrode polarized against the electrode, an amplitude of the electrical potential difference being sufficient to produce a plasma onto the electrolyte solution so as to interact with the metal ions and thereby synthesize the metal particles. - providing a dielectric barrier discharge (DBD) plasma apparatus, the DBD plasma apparatus comprising an electrolyte vessel, an electrode spaced-apart from the electrolyte vessel, and a dielectric barrier interposed between the electrolyte vessel and the electrode; - introducing an electrolyte solution comprising metal ions inside the electrolyte vessel, the electrolyte solution having an upper surface spaced-apart from the dielectric barrier; - supplying gas into a discharge area extending between the upper surface of the electrolyte solution and the dielectric barrier; and - applying an alternating or pulsed direct electrical potential difference between the electrode and the electrolyte solution, the electrolyte solution acting as a counter-electrode polarized against the electrode, an amplitude of the electrical potential difference being sufficient to produce a plasma onto the electrolyte solution so as to interact with the metal ions and thereby synthesize the metal particles.
A method for transmitting, by a user equipment, UE, uplink data in a wireless communication system supporting a narrowband-internet of things, NB-IoT, system, the method comprising: receiving (S810), from a base station, configuration information related to a Preconfigured Uplink resource, PUR, for transmitting the uplink data; and transmitting (S820), to the base station, the uplink data using the PUR, wherein the uplink data is transmitted in an RRC idle state, characterized in that the PUR is a dedicated resource and the transmission of the uplink data using the PUR is performed or skipped, wherein the transmission of the uplink data using the PUR is skipped when there is no data to be transmitted in the PUR, wherein the transmission of the uplink data using the PUR is performed based on a validation related to a timing advance, TA, wherein a number of a consecutive skipping of the transmission of the uplink data using the PUR is counted and compared with a number configured by the base station, and wherein, based on that the transmission of the uplink data using the PUR has been skipped consecutively for the configured number, the PUR is released. receiving (S810), from a base station, configuration information related to a Preconfigured Uplink resource, PUR, for transmitting the uplink data; and transmitting (S820), to the base station, the uplink data using the PUR, wherein the uplink data is transmitted in an RRC idle state, characterized in that the PUR is a dedicated resource and the transmission of the uplink data using the PUR is performed or skipped, wherein the transmission of the uplink data using the PUR is skipped when there is no data to be transmitted in the PUR, wherein the transmission of the uplink data using the PUR is performed based on a validation related to a timing advance, TA, wherein a number of a consecutive skipping of the transmission of the uplink data using the PUR is counted and compared with a number configured by the base station, and wherein, based on that the transmission of the uplink data using the PUR has been skipped consecutively for the configured number, the PUR is released.
A multi-direction power actuated head restraint assembly comprising: a head restraint mountable to a vehicle seat ; and a fore-aft power actuation mechanism including a fore-aft electric motor to adjust a fore-aft position of the head restraint , characterized in that the fore-aft electric motor is programmed to adjust the fore-aft position at a first fore-aft speed during manual adjustment of the head restraint and at a second fore-aft speed upon detection of an imminent impact by an impact detection system , the second fore-aft speed greater than the first fore-aft speed. a head restraint mountable to a vehicle seat ; and a fore-aft power actuation mechanism including a fore-aft electric motor to adjust a fore-aft position of the head restraint , characterized in that the fore-aft electric motor is programmed to adjust the fore-aft position at a first fore-aft speed during manual adjustment of the head restraint and at a second fore-aft speed upon detection of an imminent impact by an impact detection system , the second fore-aft speed greater than the first fore-aft speed.
An operating method of a terminal in a wireless communication system, the operating method comprising: identifying a configuration for code block group transmission; receiving downlink control information, DCI, for scheduling physical uplink shared control channel, PUSCH, transmission; determining a number of modulation symbols per layer, Q' ACK for transmission of uplink control information, UCI, wherein the UCI is a hybrid automatic repeat request - acknowledgement, HARQ-ACK, based on, ⌈ O ACK + L ACK ⋅ β offset PUSCH ⋅ ∑ l = 0 N symb , all − 1 PUSCH M SC UCl l ∑ r = 0 C UL − SCH − 1 K r ⌉ a number of code blocks associated with an uplink shared channel, UL-SCH, C UL - SCH , a code block size, K r , for each code block, r, a number of bits of the HARQ-ACK, O ack , a number of CRC bits added to the HARQ-ACK, L ACK , a number of resource elements used for transmission of the UCI, M SC UCl l , a number of symbols assigned for the PUSCH transmission, N symbol , all PUSCH and an offset for the UCI, β offset PUSCH , wherein in case that the DCI includes code block group transmission information, CBGTI, and the CBGTI indicates that an r-th code block associated with the UL-SCH, is not for transmission, the K r is determined as 0, else, the K r is determined as an r-th code block size for the UL-SCH; transmitting, to a base station, the HARQ-ACK on a PUSCH based on the determined number of modulation symbols per layer, Q' ACK . identifying a configuration for code block group transmission; receiving downlink control information, DCI, for scheduling physical uplink shared control channel, PUSCH, transmission; determining a number of modulation symbols per layer, Q' ACK for transmission of uplink control information, UCI, wherein the UCI is a hybrid automatic repeat request - acknowledgement, HARQ-ACK, based on, ⌈ O ACK + L ACK ⋅ β offset PUSCH ⋅ ∑ l = 0 N symb , all − 1 PUSCH M SC UCl l ∑ r = 0 C UL − SCH − 1 K r ⌉ a number of code blocks associated with an uplink shared channel, UL-SCH, C UL - SCH , a code block size, K r , for each code block, r, a number of bits of the HARQ-ACK, O ack , a number of CRC bits added to the HARQ-ACK, L ACK , a number of resource elements used for transmission of the UCI, M SC UCl l , a number of symbols assigned for the PUSCH transmission, N symbol , all PUSCH and an offset for the UCI, β offset PUSCH , wherein in case that the DCI includes code block group transmission information, CBGTI, and the CBGTI indicates that an r-th code block associated with the UL-SCH, is not for transmission, the K r is determined as 0, else, the K r is determined as an r-th code block size for the UL-SCH; transmitting, to a base station, the HARQ-ACK on a PUSCH based on the determined number of modulation symbols per layer, Q' ACK .
A flow metering apparatus, comprising: a fluid conduit having a cone shaped differential pressure producer therein; and a support member securing the cone shaped differential pressure producer to a wall of the fluid conduit ; characterized by at least one angled pressure port in a wall of the fluid conduit ; the at least one angled pressure port being angled downstream of the cone shaped differential pressure producer ; the angle (θ) of the at least one angled pressure port being selected such that the centerline of the at least one angled pressure port extends across the flow in a relatively undisturbed region; and at least one other pressure port ; wherein the at least one angled pressure port and the at least one other pressure port provide pressure signals. a fluid conduit having a cone shaped differential pressure producer therein; and a support member securing the cone shaped differential pressure producer to a wall of the fluid conduit ; at least one angled pressure port in a wall of the fluid conduit ; the at least one angled pressure port being angled downstream of the cone shaped differential pressure producer ; the angle (θ) of the at least one angled pressure port being selected such that the centerline of the at least one angled pressure port extends across the flow in a relatively undisturbed region; and at least one other pressure port ; wherein the at least one angled pressure port and the at least one other pressure port provide pressure signals.
A parallel hybrid propulsion system comprising a control system for an aircraft hybrid propulsion system , the parallel hybrid propulsion system comprising; a gas turbine engine coupled to an electric generator and to a propulsor either directly or via a gearbox, the gas turbine engine comprising a compressor having one or more handling bleeds ; an electric motor coupled to the propulsor; and an electrical energy storage device coupled to the motor and the generator ; wherein the control system comprises a controller configured to operate the propulsion system in one of a first descent mode and a second descent mode, wherein in the first descent mode, for a given thrust, the gas turbine engine is operated at a first engine power level and the generator is operated at a first generator power level, and in the second descent mode, for the given thrust, the gas turbine engine is operated at a second engine power level which is higher than the first engine power level, and the generator is operated at a second generator power level which is higher than the first generator power level, wherein electric power generated by the electric generator during operation in the second descent mode is stored in the electrical energy storage device and wherein the second engine power level comprises a power level at which fewer handling bleeds are open compared to operation at the first engine power level, or where the handling bleeds are open to a lesser extent than at the first engine power level. a gas turbine engine coupled to an electric generator and to a propulsor either directly or via a gearbox, the gas turbine engine comprising a compressor having one or more handling bleeds ; an electric motor coupled to the propulsor; and an electrical energy storage device coupled to the motor and the generator ; wherein the control system comprises a controller configured to operate the propulsion system in one of a first descent mode and a second descent mode, wherein in the first descent mode, for a given thrust, the gas turbine engine is operated at a first engine power level and the generator is operated at a first generator power level, and in the second descent mode, for the given thrust, the gas turbine engine is operated at a second engine power level which is higher than the first engine power level, and the generator is operated at a second generator power level which is higher than the first generator power level, wherein electric power generated by the electric generator during operation in the second descent mode is stored in the electrical energy storage device and wherein the second engine power level comprises a power level at which fewer handling bleeds are open compared to operation at the first engine power level, or where the handling bleeds are open to a lesser extent than at the first engine power level.
A catalyst produced by utilizing a cationic polymer as a structure-directing agent, where the cationic polymer utilized as the structure-directing agent comprises the structure: where A is nitrogen or phosphorus and B is nitrogen or phosphorus; where R5 is a branched or unbranched hydrocarbon chain having a carbon chain length of from 1 to 10,000 carbon atoms; where each of R6, R7, R8, R9, R10, R11, R12, and R13 are hydrogen atoms or hydrocarbons, and where each of the hydrocarbons optionally comprises one or more heteroatoms; and where n is from 10 to 10,000,000. where A is nitrogen or phosphorus and B is nitrogen or phosphorus; where R5 is a branched or unbranched hydrocarbon chain having a carbon chain length of from 1 to 10,000 carbon atoms; where each of R6, R7, R8, R9, R10, R11, R12, and R13 are hydrogen atoms or hydrocarbons, and where each of the hydrocarbons optionally comprises one or more heteroatoms; and where n is from 10 to 10,000,000.
A lubricant recovery system for a vacuum pump, in particular an oil-sealed vacuum pump, comprising: a reservoir to store a lubricant; a supply line connected to the reservoir , wherein the supply line can be connected to the vacuum pump to supply the lubricant to the vacuum pump ; a return line connected to the reservoir to return a lubricant-air mixture from the vacuum pump to the reservoir by the return line; an air filter disposed inside the reservoir to separate lubricant from the lubricant-air mixture, wherein the air filter is connected to a scavenge line , wherein the scavenge line is connectable to a low-pressure region of the vacuum pump such that lubricant separated from the lubricant-air mixture by the air filter is drawn via the scavenge line into the vacuum pump ; and a valve is disposed in the scavenge line to selectively separate the air filter from the vacuum pump , wherein the valve is connected to a control unit; characterized in that : a pressure gauge is arranged at the low-pressure region of the vacuum pump or inside a vacuum apparatus connected to the vacuum pump in order to measure the pressure inside, wherein the control unit is configured to control the valve in dependence on the measured pressure. a reservoir to store a lubricant; a supply line connected to the reservoir , wherein the supply line can be connected to the vacuum pump to supply the lubricant to the vacuum pump ; a return line connected to the reservoir to return a lubricant-air mixture from the vacuum pump to the reservoir by the return line; an air filter disposed inside the reservoir to separate lubricant from the lubricant-air mixture, wherein the air filter is connected to a scavenge line , wherein the scavenge line is connectable to a low-pressure region of the vacuum pump such that lubricant separated from the lubricant-air mixture by the air filter is drawn via the scavenge line into the vacuum pump ; and a valve is disposed in the scavenge line to selectively separate the air filter from the vacuum pump , wherein the valve is connected to a control unit; characterized in that : a pressure gauge is arranged at the low-pressure region of the vacuum pump or inside a vacuum apparatus connected to the vacuum pump in order to measure the pressure inside, wherein the control unit is configured to control the valve in dependence on the measured pressure.
A method of forming a protective hard mask layer on a substrate in a semiconductor etch process, comprising the step of applying by solution deposition on the substrate a solution or colloidal dispersion of an alumina polymer, said solution or dispersion being obtained by hydrolysis and condensation of monomers of at least one aluminium oxide precursor in a solvent or a solvent mixture in the presence of water and a catalyst, wherein the at least one aluminium oxide precursor is peptisized with an agent selected from the group of carboxylic acids, α-hydroxy carboxylic acids, carboxylic acid salts, beta-diketones, esters or beta-ketoesters selected from C 1-12 alkyl groups in which halogen, unsaturated, and aromatic functionalities may be present, in order to produce a stable solution or dispersion of a polymeric material capable of being applied onto the substrate.