mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: a wireless sensor configured to be operatively coupled to a network gateway device that is configured to receive one of a first data packet or a second data packet from the wireless sensor, the wireless sensor configured to send the first data packet at a first time on a first frequency, the first data packet including a payload associated with a value of a measurement that was measured by the wireless sensor, the wireless sensor configured to send the second data packet at a second time on a second frequency different from the first frequency, the second time being after the first time and without substantial delay between an end of the first time and a start of the second time, the second data packet including a payload corresponding to the payload of the first data packet, the wireless sensor configured to send the first data packet and the second data packet independent of an instruction from the network gateway device. a wireless sensor configured to be operatively coupled to a network gateway device that is configured to receive one of a first data packet or a second data packet from the wireless sensor, the wireless sensor configured to send the first data packet at a first time on a first frequency, the first data packet including a payload associated with a value of a measurement that was measured by the wireless sensor, the wireless sensor configured to send the second data packet at a second time on a second frequency different from the first frequency, the second time being after the first time and without substantial delay between an end of the first time and a start of the second time, the second data packet including a payload corresponding to the payload of the first data packet, the wireless sensor configured to send the first data packet and the second data packet independent of an instruction from the network gateway device.
A ballistic resistant material comprising at least, one fibrous ply, each fibrous ply comprising: a plurality of fibers, or a plurality of tapes, or both a plurality of fibers and a plurality of tapes; wherein, one or more of said fibers/tapes have surfaces that are partially covered by raised, discontinuous patches of a polymeric binder bonded to and extending from the fiber/tape surfaces; and wherein the material further comprises a plurality of polymer particles on said fibers/tapes, or between said fibers/tapes, or both on and between said fibers/tapes.
A compound represented by the general formula, or, or a tautomer or a salt thereof, characterized in that R 1 independently and at each occurrence represents H; or -C k H 2k+1, -OC k H 2k+1, -(C=O)C k H 2k+1, -COOC k H 2k+1, -C k H 2k-1, -OC k H 2k-1, -(C=O)C k H 2k-1, or -COOC k H 2k-1, each unsubstituted or substituted by one or more substituents selected from a heterocycle, an aryl, a phenylalkyl, a heterocycloalkyl phenyl, a heterocycloalkyl, a heterocycloalkoxyl, a phenoxyl; a phenoxy phenyl; a halogen, a cyano, a nitro, an alkoxyalkyl, an alkoxycarbonyl, and/or an amido; k represents an integer from 1 to 8; R 2 at each occurrence represents -CH=CH 2, -CH=CHCH 3, -CH 2 CH=CH 2, -CH=CHCH 2 CH 3, -CH 2 CH 2 CH=CH 2, -CH 2 CH=CHCH 3, -CH=CH-CH=CH 2, halogen, -CN, phenyl, halogenated alkyl, cyano-alkyl, halogenoalkenyl, cyanoalkenyl, or phenylalkenyl; R 3 at each occurrence represents H, C n H 2n+1, C n H 2n-1, a halogen, -CN, a phenyl, a halogenated alkyl, a cyano-alkyl, a phenylalkyl, a halogenoalkenyl, a cyanoalkenyl, or a phenylalkenyl; and n represent an integer from 1 to 15. R 1 independently and at each occurrence represents H; or -C k H 2k+1, -OC k H 2k+1, -(C=O)C k H 2k+1, -COOC k H 2k+1, -C k H 2k-1, -OC k H 2k-1, -(C=O)C k H 2k-1, or -COOC k H 2k-1, each unsubstituted or substituted by one or more substituents selected from a heterocycle, an aryl, a phenylalkyl, a heterocycloalkyl phenyl, a heterocycloalkyl, a heterocycloalkoxyl, a phenoxyl; a phenoxy phenyl; a halogen, a cyano, a nitro, an alkoxyalkyl, an alkoxycarbonyl, and/or an amido; k represents an integer from 1 to 8; R 2 at each occurrence represents -CH=CH 2, -CH=CHCH 3, -CH 2 CH=CH 2, -CH=CHCH 2 CH 3, -CH 2 CH 2 CH=CH 2, -CH 2 CH=CHCH 3, -CH=CH-CH=CH 2, halogen, -CN, phenyl, halogenated alkyl, cyano-alkyl, halogenoalkenyl, cyanoalkenyl, or phenylalkenyl; R 3 at each occurrence represents H, C n H 2n+1, C n H 2n-1, a halogen, -CN, a phenyl, a halogenated alkyl, a cyano-alkyl, a phenylalkyl, a halogenoalkenyl, a cyanoalkenyl, or a phenylalkenyl; and n represent an integer from 1 to 15.
A method of performing a circuit-breaking and closing operation in a three-phase system having a first phase, a second phase lagging the first phase by 120°, and a third phase lagging the first phase by 240°, wherein the method comprises: a) opening only one of the first phase, the second phase and the third phase to achieve contact separation in a time range of less than one full cycle of the phase current divided by six to 1 millisecond before a zero crossing of a current of the corresponding phase (L1-L3), b) opening the remaining phases (L1-L3) of the first phase, the second phase and the third phase after step a), and c) closing the first phase, the second phase and the third phase simultaneously or essentially simultaneously at a phase to ground voltage of the phase of the first phase, the second phase and the third phase which is lagging the phase (L1-L3) that was opened in step a) by 120° to achieve contact touch in a time range from 60° before a peak (11, 13) of said phase to 90° after the peak (11, 13). a) opening only one of the first phase, the second phase and the third phase to achieve contact separation in a time range of less than one full cycle of the phase current divided by six to 1 millisecond before a zero crossing of a current of the corresponding phase (L1-L3), b) opening the remaining phases (L1-L3) of the first phase, the second phase and the third phase after step a), and c) closing the first phase, the second phase and the third phase simultaneously or essentially simultaneously at a phase to ground voltage of the phase of the first phase, the second phase and the third phase which is lagging the phase (L1-L3) that was opened in step a) by 120° to achieve contact touch in a time range from 60° before a peak (11, 13) of said phase to 90° after the peak (11, 13).
A polyalkylene carbonate blend composition comprising: aliphatic polycarbonate obtained by reacting carbon dioxide with one or at least two different kinds of epoxide compounds selected from a group consisting of (C2-C10)alkylene oxide substituted or unsubstituted with halogen or alkoxy, (C4-C20)cycloalkylene oxide substituted or unsubstituted with halogen or alkoxy, and (C8-C20)styrene oxide substituted or unsubstituted with halogen, alkoxy, alkyl, or aryl; poly(D,L-lactide-co-glycolide) (PLGA); and polyvinyl acetate. aliphatic polycarbonate obtained by reacting carbon dioxide with one or at least two different kinds of epoxide compounds selected from a group consisting of (C2-C10)alkylene oxide substituted or unsubstituted with halogen or alkoxy, (C4-C20)cycloalkylene oxide substituted or unsubstituted with halogen or alkoxy, and (C8-C20)styrene oxide substituted or unsubstituted with halogen, alkoxy, alkyl, or aryl; poly(D,L-lactide-co-glycolide) (PLGA); and polyvinyl acetate.
A video decoding method comprising: determining whether multiple reference lines can be used for intra prediction of a current image and whether a current block is in contact with an upper boundary of a largest coding unit including the current block; when it is determined that the current block is in contact with the upper boundary of the largest coding unit, not obtaining, from a bitstream, reference line information indicating a location of a reference line for intra prediction of the current block, and determining one reference line in contact with an upper boundary of the current block, as an upper reference line of the current block; when it is determined that the multiple reference lines can be used for intra prediction of the current image and the current block is not in contact with the upper boundary of the largest coding unit, obtaining the reference line information from the bitstream, and determining one reference line indicated by the reference line information from among a plurality of reference lines, as an upper reference line of the current block; and based on the determined upper reference line, performing intra prediction on the current block, wherein the upper reference line is a row of reference samples located above the upper boundary of the current block, wherein the largest coding unit is one among a plurality of largest coding units split from the current image, wherein the current block is split from the largest coding unit. determining whether multiple reference lines can be used for intra prediction of a current image and whether a current block is in contact with an upper boundary of a largest coding unit including the current block; when it is determined that the current block is in contact with the upper boundary of the largest coding unit, not obtaining, from a bitstream, reference line information indicating a location of a reference line for intra prediction of the current block, and determining one reference line in contact with an upper boundary of the current block, as an upper reference line of the current block; when it is determined that the multiple reference lines can be used for intra prediction of the current image and the current block is not in contact with the upper boundary of the largest coding unit, obtaining the reference line information from the bitstream, and determining one reference line indicated by the reference line information from among a plurality of reference lines, as an upper reference line of the current block; and based on the determined upper reference line, performing intra prediction on the current block, wherein the upper reference line is a row of reference samples located above the upper boundary of the current block, wherein the largest coding unit is one among a plurality of largest coding units split from the current image, wherein the current block is split from the largest coding unit.
A method of controlling the operational mode of a radio in a wireless device, the method comprising: executing at least one application in the wireless device, and characterised by: said application providing access information for use by radio control logic to decide an operational mode of the radio from a plurality of operational modes including a plurality of power saving modes, wherein said access information defines usage of the radio by that application, wherein the access information comprises a level of delay tolerance which is adjusted based on at least one transmit delay parameter, and wherein the application determines the type of data to be transmitted and adjusts a periodic interval for transmitting said data based on the type of data, and wherein the periodic interval is adjusted based on transmit delay parameters. said application providing access information for use by radio control logic to decide an operational mode of the radio from a plurality of operational modes including a plurality of power saving modes, wherein said access information defines usage of the radio by that application, wherein the access information comprises a level of delay tolerance which is adjusted based on at least one transmit delay parameter, and wherein the application determines the type of data to be transmitted and adjusts a periodic interval for transmitting said data based on the type of data, and wherein the periodic interval is adjusted based on transmit delay parameters.
A portable power working machine comprising: an air blower and a driving power source for rotationally driving a fan of the air blower, the air blower and the driving power source being disposed on a body portion with a handle; a suction port for intake air, the suction port being provided on one side surface portion of a fan case of the air blower; and a safety guard provided in the suction port, the safety guard having a lattice with a predetermined geometric pattern, characterised in that the one side surface portion of the fan case has attached thereto a block prevention guard, the block prevention guard having a top surface opening that at least partially faces the suction port, and a lattice with a predetermined geometric pattern provided in the top surface opening, and wherein an average opening area of apertures of the lattice provided in the top surface opening of the block prevention guard is larger than an average opening area of apertures of the lattice of the safety guard and wherein the block prevention guard has a top surface portion provided with the top surface opening, and a plurality of leg portions (42A, 42B, 42C) for allowing the top surface opening to face the suction port with a predetermined distance there between and peripheral surface openings (44A, 44B, 44C) are each formed between adjacent leg portions (42A, 42B, 42C) of the plurality of leg portions (42A, 42B, 42C), each of the peripheral surface openings (44A, 44B, 44C) being wider than each of the plurality of leg portions (42A, 42B, 42C) therefore, when the block prevention guard is partially blocked by clothing sucked thereto, the intake amount of air is not reduced, and wherein the average opening area of the apertures of the lattice provided in the top surface opening of the block prevention guard is three times or more that of the apertures of the lattice of the safety guard.
A method for producing a gaseous medium comprising steam, said steam being produced from a first fluid medium separated from the exhaust gas from combustion of a fuel in a steam generating step, said fuel being provided for burning for providing energy for heating said first fluid medium, comprising the step of: - mixing the steam thus produced with exhaust gas from combustion of said fuel; and - wherein the steam in the steam generating step is provided under pressure; characterized in that at least one chemical substance different from air and water is supplied to the pressurized steam produced in the steam generating step prior to the step of mixing the steam with the exhaust gas. - mixing the steam thus produced with exhaust gas from combustion of said fuel; and - wherein the steam in the steam generating step is provided under pressure;
A kit for generating a therapeutic gas including nitric oxide for use in delivering the therapeutic gas to a mammal comprising: a diffusion cell configured to be connected to a source of nitrogen dioxide; a permeation tube connected to the diffusion cell through a diffusion needle; a receptacle configured to attach to the permeation tube, the receptacle including an inlet, an outlet, and a surface-active material coated with an antioxidant, wherein the inlet is configured to receive the flow of nitrogen dioxide from the permeation tube and fluidly communicate the flow to the outlet through the surface-active material to convert the gaseous nitrogen dioxide to nitric oxide at ambient temperature. a diffusion cell configured to be connected to a source of nitrogen dioxide; a permeation tube connected to the diffusion cell through a diffusion needle; a receptacle configured to attach to the permeation tube, the receptacle including an inlet, an outlet, and a surface-active material coated with an antioxidant, wherein the inlet is configured to receive the flow of nitrogen dioxide from the permeation tube and fluidly communicate the flow to the outlet through the surface-active material to convert the gaseous nitrogen dioxide to nitric oxide at ambient temperature. a receptacle configured to attach to the permeation tube, the receptacle including an inlet, an outlet, and a surface-active material coated with an antioxidant, wherein the inlet is configured to receive the flow of nitrogen dioxide from the permeation tube and fluidly communicate the flow to the outlet through the surface-active material to convert the gaseous nitrogen dioxide to nitric oxide at ambient temperature.
A method of reporting, by a user equipment, channel state information, CSI, in a wireless communication system, the method comprising: measuring a CSI-reference signal, CSI-RS, transmitted through multi-panels from a base station, and reporting, to the base station, CSI generated based on the CSI-RS measurement, characterized in that, based on the user equipment being configured with CSI reporting excluding a matrix index for a phase calibration between panels from the base station, codebook indices in the reported CSI comprises only a first matrix index for a wideband, WB, panel compensation and a second matrix index for a subband, SB, panel compensation without any matrix index for the phase calibration between panels, and the reported CSI is calculated using the first matrix index, the second matrix index, and a specific matrix index related to the phase calibration between panels. measuring a CSI-reference signal, CSI-RS, transmitted through multi-panels from a base station, and reporting, to the base station, CSI generated based on the CSI-RS measurement, characterized in that, based on the user equipment being configured with CSI reporting excluding a matrix index for a phase calibration between panels from the base station, codebook indices in the reported CSI comprises only a first matrix index for a wideband, WB, panel compensation and a second matrix index for a subband, SB, panel compensation without any matrix index for the phase calibration between panels, and the reported CSI is calculated using the first matrix index, the second matrix index, and a specific matrix index related to the phase calibration between panels.
A computer implemented method comprising: receiving a computer representation of a printable product part and a plan for the printable product part to be deposited using an additive manufacturing process, the printable product part comprising an accumulation of material deposited by the additive manufacturing process, the plan comprising a tool-path representation of the printable product part and process parameters; estimating the as-printed part at different length scales using one or more physics models by determining a plurality of as-printed shapes of the printable product part after the printable product part has been deposited according to the plan, wherein the plurality of as-printed shapes contribute to the overall shape of the as-printed part; wherein the determining the plurality of as-printed shapes is based on at least one physical state of the deposited material, and wherein the at least one physical state comprises one or more of a spatial distribution of solid and liquid phases of the material, a spatial distribution of temperature, a pressure, and a flow velocity; and determining geometric differences between any of the plurality of as-printed shapes with the computer representation of the product part; displaying the geometric differences on a user interface. receiving a computer representation of a printable product part and a plan for the printable product part to be deposited using an additive manufacturing process, the printable product part comprising an accumulation of material deposited by the additive manufacturing process, the plan comprising a tool-path representation of the printable product part and process parameters; estimating the as-printed part at different length scales using one or more physics models by determining a plurality of as-printed shapes of the printable product part after the printable product part has been deposited according to the plan, wherein the plurality of as-printed shapes contribute to the overall shape of the as-printed part; wherein the determining the plurality of as-printed shapes is based on at least one physical state of the deposited material, and wherein the at least one physical state comprises one or more of a spatial distribution of solid and liquid phases of the material, a spatial distribution of temperature, a pressure, and a flow velocity; and determining geometric differences between any of the plurality of as-printed shapes with the computer representation of the product part; displaying the geometric differences on a user interface.
An exhaust purification device of internal combustion engine comprising an ordinary temperature NOx adsorption catalyst arranged in an engine exhaust passage, the ordinary temperature NOx adsorption catalyst being comprised of a carrier and a metal carried on the carrier and being able to adsorb NO X in a reference state, said carrier of the catalyst being comprised of an oxide of at least one metal element which is selected from Co, Fe, Cu, Ce, and Mn or a complex oxide which contains said metal element, the metal carried on said carrier being comprised of a metal which is selected from Cu, Co, Ag, Fe, Pt, Rh, and Pd and which is different from the metal contained in said carrier, said ordinary temperature NOx adsorption catalyst having a property of adsorbing NOx in the presence of carbon monoxide in the reference state and having a property in which an action of adsorption of NOx is inhibited by an action of deposition or adsorption of hydrocarbons at the catalyst when the hydrocarbons in the exhaust gas flowing into the catalyst are unsaturated hydrocarbons or high boiling point hydrocarbons which become liquid in the reference state, wherein, as a fuel, at least two types of fuel of a catalyst activation use fuel which is used after said ordinary temperature NOx adsorption catalyst is activated and a catalyst nonactivation use fuel which is used before said ordinary temperature NOx adsorption catalyst is activated and which has fewer said high boiling point hydrocarbons and unsaturated hydrocarbons compared with said catalyst activation use fuel are used, and characterised in that said exhaust purification device is adapted such that said catalyst nonactivation use fuel is used as fuel and that an air-fuel ratio is made smaller than the stoichiometric air-fuel ratio in order to maintain a concentration of carbon monoxide in the exhaust gas flowing into the catalyst at a concentration of more than the concentration which is required for adsorption of NO X until said ordinary temperature NO X adsorption catalyst is activated after engine startup.