mhurhangee/patent-ind-claim-en huggingface dataset:
A fire alarm system for use in a building, comprising: a gateway connected to a system control panel for allowing mobile device access to the system; a mobile device used by a technician and connected to the control panel ; a fire alarm system control application on the mobile device , wherein the fire alarm control system application gains access to the control panel via the gateway ; one or more fire alarm system devices including an indicator for generating a physical identification signal; a search utility in the fire alarm control system application for identifying a particular fire alarm system device that is in a specific condition or location; and a database accessible via the fire alarm control system application wherein location and condition information about the plurality of fire alarm system devices is located, such that the search utility can search the database and identify the particular fire alarm system device from the other of the plurality of fire alarm system devices ; and wherein the fire alarm system control application on the mobile device includes a schematic map depicting an actual layout of the part of building the technician is traversing, including a location of the particular fire alarm system device depicted on the map , and wherein, when the particular fire alarm system device is commanded, the indicator of the particular fire alarm system device generates the physical identification signal to help the technician identify the correct device. a gateway connected to a system control panel for allowing mobile device access to the system; a mobile device used by a technician and connected to the control panel ; a fire alarm system control application on the mobile device , wherein the fire alarm control system application gains access to the control panel via the gateway ; one or more fire alarm system devices including an indicator for generating a physical identification signal; a search utility in the fire alarm control system application for identifying a particular fire alarm system device that is in a specific condition or location; and a database accessible via the fire alarm control system application wherein location and condition information about the plurality of fire alarm system devices is located, such that the search utility can search the database and identify the particular fire alarm system device from the other of the plurality of fire alarm system devices ; and wherein the fire alarm system control application on the mobile device includes a schematic map depicting an actual layout of the part of building the technician is traversing, including a location of the particular fire alarm system device depicted on the map , and wherein, when the particular fire alarm system device is commanded, the indicator of the particular fire alarm system device generates the physical identification signal to help the technician identify the correct device.
A switchable lens antenna for transmission of a radio-frequency, RF, wave, the antenna comprising: a parallel-plate waveguide structure ; excitation ports forming a linear phased array operable to radiate the RF wave into the parallel-plate waveguide structure; and a frequency selective structure having frequency selective elements , each frequency selective element comprising: a stub configured to introduce a phase variance to the RF wave when the stub is electrically connected to the parallel-plate waveguide structure; and a switchable element operatively connected to the stub and the parallel-plate waveguide structure, the switchable element configured to selectively electrically disconnect the stub from the parallel-plate waveguide structure when the antenna is in a first operational mode and to electrically connect the stub to the parallel-plate waveguide structure when the antenna is in a second operational mode. a parallel-plate waveguide structure ; excitation ports forming a linear phased array operable to radiate the RF wave into the parallel-plate waveguide structure; and a frequency selective structure having frequency selective elements , each frequency selective element comprising: a stub configured to introduce a phase variance to the RF wave when the stub is electrically connected to the parallel-plate waveguide structure; and a switchable element operatively connected to the stub and the parallel-plate waveguide structure, the switchable element configured to selectively electrically disconnect the stub from the parallel-plate waveguide structure when the antenna is in a first operational mode and to electrically connect the stub to the parallel-plate waveguide structure when the antenna is in a second operational mode. a stub configured to introduce a phase variance to the RF wave when the stub is electrically connected to the parallel-plate waveguide structure; and a switchable element operatively connected to the stub and the parallel-plate waveguide structure, the switchable element configured to selectively electrically disconnect the stub from the parallel-plate waveguide structure when the antenna is in a first operational mode and to electrically connect the stub to the parallel-plate waveguide structure when the antenna is in a second operational mode.
An atomization assembly (A), comprising: two or more heating elements, an e-liquid tank , a mouthpiece , a seal plug , a silicone seal , an isolation seat , an atomizer , a fixed seat , an insulation ring , a plurality of joints , a base , and a stainless iron ; wherein the e-liquid tank comprises two or more compartments, and the two or more heating elements are disposed in the two or more compartments of the e-liquid tank , respectively; characterized in that : the atomizer is disposed on the fixed seat ; the insulation ring is disposed in a bottom end of the fixed seat to separate positive and negative leads of the atomizer ; the fixed seat is disposed in the isolation seat to separate the atomizer ; the silicone seal is disposed on the isolation seat to seal the two or more compartments of the e-liquid tank ; the isolation seat is disposed in the e-liquid tank and is connected to the two or more compartments; the base is disposed on a bottom end of the e-liquid tank , and the positive and negative leads of the atomizer are fixed on the base via the plurality of joints ; the e-liquid tank comprises a top end and an e-liquid injection hole disposed on the top end, and the seal plug is disposed in the e-liquid injection hole of the e-liquid tank ; the mouthpiece is disposed on the top end of the e-liquid tank ; the stainless iron is disposed on a bottom end of the e-liquid tank , is connected to a battery assembly, and contacts the plurality of joints for electric conduction. the atomizer is disposed on the fixed seat ; the insulation ring is disposed in a bottom end of the fixed seat to separate positive and negative leads of the atomizer ; the fixed seat is disposed in the isolation seat to separate the atomizer ; the silicone seal is disposed on the isolation seat to seal the two or more compartments of the e-liquid tank ; the isolation seat is disposed in the e-liquid tank and is connected to the two or more compartments; the base is disposed on a bottom end of the e-liquid tank , and the positive and negative leads of the atomizer are fixed on the base via the plurality of joints ; the e-liquid tank comprises a top end and an e-liquid injection hole disposed on the top end, and the seal plug is disposed in the e-liquid injection hole of the e-liquid tank ; the mouthpiece is disposed on the top end of the e-liquid tank ; the stainless iron is disposed on a bottom end of the e-liquid tank , is connected to a battery assembly, and contacts the plurality of joints for electric conduction.
A system comprising: a shielding assembly that has a plurality of compartments each formed of a shielding material providing a barrier to radioactive radiation, comprising: a first compartment configured to receive a radioisotope generator that generates a radioactive eluate via elution; a second compartment containing a beta detector , and a third compartment containing a gamma detector . a first compartment configured to receive a radioisotope generator that generates a radioactive eluate via elution; a second compartment containing a beta detector , and a third compartment containing a gamma detector .
A method of guiding an aircraft comprising the steps of: (a) selecting an initial predicted flight trajectory as a function of time; (b) identifying an initial Required Time of Arrival (RTA) at a selected waypoint; (c) determining, during flight, an Estimated Time of Arrival (ETA) based upon one or more measured or predicted parameters; and (d) calculating a difference between RTA and ETA; (e) determining whether |RTA-ETA| is greater or less than a threshold time DT; the method further comprising, when it is determined that |RTA-ETA| <DT, the steps of: (f)(i) determining during flight, a deviation between the initial predicted flight trajectory and a measured current trajectory; (f)(ii) generating a revised speed command in order to minimize the determined deviation; (f)(iii) computing modifications to the planned flight speeds, based upon the generated revised speed command; (g) executing the revised speed command so that the aircraft seeks to reduce time and groundspeed deviations with respect to the initial predicted flight trajectory; the method also comprising, when it is determined that |RTA-ETA| > DT, the steps of (f) generating a further revised speed command in order to reduce the difference between RTA and ETA; and (g) executing the further revised speed command so that the aircraft seeks to reduce the difference between RTA and ETA. (a) selecting an initial predicted flight trajectory as a function of time; (b) identifying an initial Required Time of Arrival (RTA) at a selected waypoint; (c) determining, during flight, an Estimated Time of Arrival (ETA) based upon one or more measured or predicted parameters; and (d) calculating a difference between RTA and ETA; (e) determining whether |RTA-ETA| is greater or less than a threshold time DT; (f)(i) determining during flight, a deviation between the initial predicted flight trajectory and a measured current trajectory; (f)(ii) generating a revised speed command in order to minimize the determined deviation; (f)(iii) computing modifications to the planned flight speeds, based upon the generated revised speed command; (f) generating a further revised speed command in order to reduce the difference between RTA and ETA; and (g) executing the further revised speed command so that the aircraft seeks to reduce the difference between RTA and ETA.
A connector interposed between a first member and a second member , the connector comprising: a needle ; a hub that holds the needle ; a housing that protects a tip of the needle ; a tubular first connector member that holds the housing in a slidable manner; a tubular second connector member that holds the first connector member in a slidable manner; and a first lock portion capable of locking sliding of the housing , the hub fitting into a through hole provided in a bottom surface of the second connector member or being formed integral with the second connector member , the first connector member being able to slide in a direction away from the second connector member or in a direction approaching the second connector member , the housing being able to slide in a direction away from the second connector member or in a direction approaching the second connector member , the housing protecting the tip of the needle when sliding of the housing and the first connector member is locked, the first lock portion being provided on an inner circumferential surface of the first connector member , the first lock portion engaging with the second member to thereby unlock the housing , and separating from the second member to thereby maintain the housing locked. a needle ; a hub that holds the needle ; a housing that protects a tip of the needle ; a tubular first connector member that holds the housing in a slidable manner; a tubular second connector member that holds the first connector member in a slidable manner; and a first lock portion capable of locking sliding of the housing , the hub fitting into a through hole provided in a bottom surface of the second connector member or being formed integral with the second connector member , the first connector member being able to slide in a direction away from the second connector member or in a direction approaching the second connector member , the housing being able to slide in a direction away from the second connector member or in a direction approaching the second connector member , the housing protecting the tip of the needle when sliding of the housing and the first connector member is locked, the first lock portion being provided on an inner circumferential surface of the first connector member , the first lock portion engaging with the second member to thereby unlock the housing , and separating from the second member to thereby maintain the housing locked.
A stator core lateral sides gluing device, characterized by comprising: a silicon steel sheet stacking mold internally provided with profiled cavities for arrangement of the silicon steel sheets in an orderly way and configured to be used for stacking iron-core silicon steel sheets in order; and glue spray nozzles symmetrically installed on the silicon steel sheet stacking mold and configured to be aligned with inner sides or outer sides of lateral sides of stator cores arranged in the profiled cavities and to be glued. a silicon steel sheet stacking mold internally provided with profiled cavities for arrangement of the silicon steel sheets in an orderly way and configured to be used for stacking iron-core silicon steel sheets in order; and glue spray nozzles symmetrically installed on the silicon steel sheet stacking mold and configured to be aligned with inner sides or outer sides of lateral sides of stator cores arranged in the profiled cavities and to be glued.
Artificial tears containing a recombinant human lysozyme and a recombinant human epidermal growth factor (rhEGF), said artificial tears comprising main components and an auxiliary material, wherein the main components are a recombinant human lysozyme, an rhEGF, and sodium hyaluronate, and the contents of the recombinant human lysozyme, the rhEGF, and the sodium hyaluronate are 0.075%-0.300%, 0.002%-0.004%, and 0.10%-0.30%, respectively, based on the total mass of the novel artificial tears; wherein the auxiliary material comprises a pH stabilizer, and the pH stabilizer is a buffer consisting of disodium hydrogen phosphate and sodium dihydrogen phosphate; the auxiliary material comprises sodium chloride, and based on the total mass of the artificial tears, the content of sodium chloride is 0.70%-0.76% as measured in terms of pure solid sodium chloride; wherein the novel artificial tears have a pH of 6.4 to 6.6 and an osmolality of 285 to 310 mOsmol/kg. wherein the auxiliary material comprises a pH stabilizer, and the pH stabilizer is a buffer consisting of disodium hydrogen phosphate and sodium dihydrogen phosphate; the auxiliary material comprises sodium chloride, and based on the total mass of the artificial tears, the content of sodium chloride is 0.70%-0.76% as measured in terms of pure solid sodium chloride; wherein the novel artificial tears have a pH of 6.4 to 6.6 and an osmolality of 285 to 310 mOsmol/kg.
A method of wireless communication, comprising: detecting , at a potential interfering node, a clear-to-send, CTS, signal from one or more receivers; and determining , by the potential interfering node, an orthogonal beam for transmissions based on the CTS; detecting , by the potential interfering node, a preamble transmitted from a neighboring transmitter, wherein the preamble identifies one or more broadcast/multicast transmission locations and one or more non-broadcast/multicast transmission locations from the neighboring transmitter to the one or more receivers, wherein the one or more broadcast/multicast transmission locations include one of: one or more broadcast/multicast transmission time intervals, TTIs, or one or more time durations for broadcast/multicast transmissions; refraining , by the potential interfering node, from transmission of data to a served receiver node of the potential interfering node during the one or more broadcast/multicast transmission locations; and transmitting , by the potential interfering node, the data to the served receiver node during the one or more non-broadcast/multicast transmission locations, comprising transmitting the data to the served receiver node using the orthogonal beam. detecting , at a potential interfering node, a clear-to-send, CTS, signal from one or more receivers; and determining , by the potential interfering node, an orthogonal beam for transmissions based on the CTS; detecting , by the potential interfering node, a preamble transmitted from a neighboring transmitter, wherein the preamble identifies one or more broadcast/multicast transmission locations and one or more non-broadcast/multicast transmission locations from the neighboring transmitter to the one or more receivers, wherein the one or more broadcast/multicast transmission locations include one of: one or more broadcast/multicast transmission time intervals, TTIs, or one or more time durations for broadcast/multicast transmissions; refraining , by the potential interfering node, from transmission of data to a served receiver node of the potential interfering node during the one or more broadcast/multicast transmission locations; and transmitting , by the potential interfering node, the data to the served receiver node during the one or more non-broadcast/multicast transmission locations, comprising transmitting the data to the served receiver node using the orthogonal beam. one or more broadcast/multicast transmission time intervals, TTIs, or one or more time durations for broadcast/multicast transmissions; refraining , by the potential interfering node, from transmission of data to a served receiver node of the potential interfering node during the one or more broadcast/multicast transmission locations; and transmitting , by the potential interfering node, the data to the served receiver node during the one or more non-broadcast/multicast transmission locations, comprising transmitting the data to the served receiver node using the orthogonal beam.
A system for reversing a movement direction of a laterally extending conveyor of a draper header of an agricultural machine , said system comprising: a fluid line for delivering fluid to a motor that is configured to drive the laterally extending conveyor ; a directional flow control valve connected to the fluid line and movable between a first state in which the directional flow control valve is configured to deliver the fluid to the motor in a first fluid direction to cause the motor to move the laterally extending conveyor in a first movement direction, and a second state in which the directional flow control valve is configured to deliver the fluid to the motor in a second fluid direction that is different from the first fluid direction to cause the motor to move the laterally extending conveyor in a second movement direction that is opposite to the first movement direction, wherein the directional flow control valve is maintained in the first state during a harvesting operation, and the directional flow control valve is maintained in the second state during an operation to dislodge crop material from the laterally extending conveyor ; a flow control valve connected to the fluid line for controlling a flow rate of the fluid moving downstream of the flow control valve ; and a controller configured to adjust the flow control valve to reduce the flow rate of fluid delivered to the motor prior to switching the directional flow control valve to the second state. a fluid line for delivering fluid to a motor that is configured to drive the laterally extending conveyor ; a directional flow control valve connected to the fluid line and movable between a first state in which the directional flow control valve is configured to deliver the fluid to the motor in a first fluid direction to cause the motor to move the laterally extending conveyor in a first movement direction, and a second state in which the directional flow control valve is configured to deliver the fluid to the motor in a second fluid direction that is different from the first fluid direction to cause the motor to move the laterally extending conveyor in a second movement direction that is opposite to the first movement direction, wherein the directional flow control valve is maintained in the first state during a harvesting operation, and the directional flow control valve is maintained in the second state during an operation to dislodge crop material from the laterally extending conveyor ; a flow control valve connected to the fluid line for controlling a flow rate of the fluid moving downstream of the flow control valve ; and a controller configured to adjust the flow control valve to reduce the flow rate of fluid delivered to the motor prior to switching the directional flow control valve to the second state.
Cosmetic preparation comprising a) 2-ethylhexyl 2-cyano-3,3-diphenylacrylate (octocrylene) b) ethanol and c) propylheptyl caprylate (INCI: Propylheptyl Caprylate), characterized in that the preparation comprises less than 1% by weight water, based on the total weight of the preparation. a) 2-ethylhexyl 2-cyano-3,3-diphenylacrylate (octocrylene) b) ethanol and c) propylheptyl caprylate (INCI: Propylheptyl Caprylate), characterized in that the preparation comprises less than 1% by weight water, based on the total weight of the preparation.
A method to improve security or performance of one or more client computers interacting with a plurality of server computers, comprising a first server computer and a second server computer , the method comprising: generating, at the first server computer, a challenge nonce, wherein the challenge nonce corresponds to a challenge state; generating, at the first server computer, the challenge state based on the challenge nonce, wherein the challenge state comprises a set of instructions which, when executed, generates a corresponding response state; sending, from the first server computer, to a first client computer, the challenge nonce and the challenge state, but not the response state; receiving, at the second server computer, from the first client computer, a test nonce and a test response state, determining, at the second server computer, whether the test response state matches the response state based on the test nonce, wherein determining whether the test response state matches the response state based on the test nonce comprises: generating an expected challenge state based on the test nonce; generating an expected response state based on the expected challenge state, the expected response state being generated by executing the set of instructions comprised in the expected challenge state; and determining whether the test response state matches the response state. generating, at the first server computer, a challenge nonce, wherein the challenge nonce corresponds to a challenge state; generating, at the first server computer, the challenge state based on the challenge nonce, wherein the challenge state comprises a set of instructions which, when executed, generates a corresponding response state; sending, from the first server computer, to a first client computer, the challenge nonce and the challenge state, but not the response state; receiving, at the second server computer, from the first client computer, a test nonce and a test response state, generating an expected challenge state based on the test nonce; generating an expected response state based on the expected challenge state, the expected response state being generated by executing the set of instructions comprised in the expected challenge state; and determining whether the test response state matches the response state.