mhurhangee/patent-ind-claim-en huggingface dataset:
A method for measuring a volumetric flow rate ( dV / dt ) of a gas in a gas flow (G), the method comprising: passing the gas flow (G) through at least one chamber that defines a variable volume, gas being alternatingly admitted into the chamber and being subsequently expelled from the chamber , the alternate admission and expulsion causing oscillations of the gas flow (G); characterised by that the method comprises the steps of: detecting an oscillation signal with a thermal flow sensor , the oscillation signal being indicative of the oscillations of the gas flow (G); and calculating the volumetric flow rate ( dV / dt ) based on the oscillation signal. detecting an oscillation signal with a thermal flow sensor , the oscillation signal being indicative of the oscillations of the gas flow (G); and calculating the volumetric flow rate ( dV / dt ) based on the oscillation signal.
A method for the control of the growth of ALS-resistant plants comprising applying to the plants and/or their locus a herbicidally effective amount of a combination of (A) metribuzin and (B) one or more sulfonyl ureas selected from thifensulfuron, tribenuron, metsulfuron, sulfosulfuron, amidosulfuron, mesosulfuron, iodosulfuron, rimsulfuron, nicosulfuron and halosulfuron; wherein the ALS-tolerant plants comprise Stellaria spp., Papaver spp. or Matricaria spp.
A method for controlling an apparatus being an elevator, an escalator or automatic doors, the method comprising detecting ( S1 ) a fault in the apparatus, characterized in that a fault is recorded in a fault memory or a fault recorder, and the method further comprises receiving ( S2 ) a remote fault clearing command, clearing ( S3 ) one or more faults from the fault memory or fault recorder and exiting a fault state of a controller of the apparatus related to the detected fault, and entering ( S4 ) an operation mode for controlling the apparatus. detecting ( S1 ) a fault in the apparatus, characterized in that a fault is recorded in a fault memory or a fault recorder, and the method further comprises receiving ( S2 ) a remote fault clearing command, clearing ( S3 ) one or more faults from the fault memory or fault recorder and exiting a fault state of a controller of the apparatus related to the detected fault, and entering ( S4 ) an operation mode for controlling the apparatus.
A stocker (S) comprising: a transporter which is configured to travel through a traveling space (SP) within the stocker and to transport an article (F); a pair of rails which flank the traveling space and extend in parallel in a horizontal direction; a plurality of platform members movable along the pair of rails ; and a housing and a door , wherein the housing is provided on a stocker outer side of the door which separates inside and outside of the stocker, and which is adapted to house the plurality of platform members , wherein the pair of rails are arranged so as to extend from the inside of the stocker (S) to the housing through an opening provided directly under the door , characterized in that at least one of the plurality of platform members includes a fence in an upright standing manner, and the platform member which includes the fence is adapted to be arranged across the inside of the stocker (S) and the outside of the stocker (S) via the opening , such that this platform member is partially arranged outside of the door and partially inside of the door while the fence is arranged on a stocker inner side inside of the door , wherein an upper end of the fence is higher than an upper end of the opening , such as to restrict entry of a worker (U) into an inner space of the stocker (S). a transporter which is configured to travel through a traveling space (SP) within the stocker and to transport an article (F); a pair of rails which flank the traveling space and extend in parallel in a horizontal direction; a plurality of platform members movable along the pair of rails ; and a housing and a door , wherein the housing is provided on a stocker outer side of the door which separates inside and outside of the stocker, and which is adapted to house the plurality of platform members , wherein the pair of rails are arranged so as to extend from the inside of the stocker (S) to the housing through an opening provided directly under the door , characterized in that at least one of the plurality of platform members includes a fence in an upright standing manner, and the platform member which includes the fence is adapted to be arranged across the inside of the stocker (S) and the outside of the stocker (S) via the opening , such that this platform member is partially arranged outside of the door and partially inside of the door while the fence is arranged on a stocker inner side inside of the door , wherein an upper end of the fence is higher than an upper end of the opening , such as to restrict entry of a worker (U) into an inner space of the stocker (S).
A system for acclimating a patient to a stimulation therapy, the system comprising: pulse generation circuitry for generating electrical pulses; sensing circuitry for sensing cardiac electrical activity; and a controller for detecting cardiac events that define pacing timing intervals and for controlling the delivery of electrical pulses in accordance with a programmed mode, wherein the controller is programmed to: initiate delivery of the stimulation therapy to a heart of a patient, the stimulation therapy including delivering electrical pulses to a heart of the patient based on a therapy parameter to provide cardiac pacing and/or cardiac resynchronization therapy; and adjust the therapy parameter according to an acclimation profile to acclimate the patient to the delivery of the stimulation therapy, wherein the controller is programmed to adjust the therapy parameter based on a daytime acclimation profile segment and a nighttime acclimation profile segment, the daytime acclimation profile segment having a therapy parameter corresponding to a faster cardiac rhythm than the nighttime acclimation profile segment. pulse generation circuitry for generating electrical pulses; sensing circuitry for sensing cardiac electrical activity; and a controller for detecting cardiac events that define pacing timing intervals and for controlling the delivery of electrical pulses in accordance with a programmed mode, wherein the controller is programmed to: initiate delivery of the stimulation therapy to a heart of a patient, the stimulation therapy including delivering electrical pulses to a heart of the patient based on a therapy parameter to provide cardiac pacing and/or cardiac resynchronization therapy; and adjust the therapy parameter according to an acclimation profile to acclimate the patient to the delivery of the stimulation therapy, initiate delivery of the stimulation therapy to a heart of a patient, the stimulation therapy including delivering electrical pulses to a heart of the patient based on a therapy parameter to provide cardiac pacing and/or cardiac resynchronization therapy; and adjust the therapy parameter according to an acclimation profile to acclimate the patient to the delivery of the stimulation therapy, wherein the controller is programmed to adjust the therapy parameter based on a daytime acclimation profile segment and a nighttime acclimation profile segment, the daytime acclimation profile segment having a therapy parameter corresponding to a faster cardiac rhythm than the nighttime acclimation profile segment.
A composition for temperature sensors including graphene oxide, a duplex in which a DNAzyme strand and a PNA strand are complementarily linked, and a DNAzyme cofactor.
A stapler reload assembly comprising: a cartridge body defining a housing to receive staples, the cartridge body comprising a plurality of staple apertures configured to eject the staples housed in the cartridge body ; and a staple retainer removably coupled to the cartridge body ; wherein the staple retainer comprises: a main body portion configured to at least partially cover the plurality of staple apertures in a position of the staple retainer coupled to the cartridge body , a first handling portion extending from the main body portion at a distal end portion of the staple retainer , characterised in that the staple retainer further comprises: a second handling portion proximal the first handling portion and coupled to the main body portion by a flexure , wherein the second handling portion is elastically deflectable about the flexure and relative to the main body portion of the staple retainer from a neutral, first position to a deflected second position. a cartridge body defining a housing to receive staples, the cartridge body comprising a plurality of staple apertures configured to eject the staples housed in the cartridge body ; and a staple retainer removably coupled to the cartridge body ; wherein the staple retainer comprises: a main body portion configured to at least partially cover the plurality of staple apertures in a position of the staple retainer coupled to the cartridge body , a first handling portion extending from the main body portion at a distal end portion of the staple retainer , a main body portion configured to at least partially cover the plurality of staple apertures in a position of the staple retainer coupled to the cartridge body , a first handling portion extending from the main body portion at a distal end portion of the staple retainer , characterised in that the staple retainer further comprises: a second handling portion proximal the first handling portion and coupled to the main body portion by a flexure , wherein the second handling portion is elastically deflectable about the flexure and relative to the main body portion of the staple retainer from a neutral, first position to a deflected second position. a second handling portion proximal the first handling portion and coupled to the main body portion by a flexure , wherein the second handling portion is elastically deflectable about the flexure and relative to the main body portion of the staple retainer from a neutral, first position to a deflected second position.
An enclosure comprising: a first sensor in the enclosure controlled by a first controller that is within the first sensor or remotely located, and a refrigeration system/air conditioner and a refrigeration system/air conditioner controller controlling the refrigeration system/air conditioner ; the first sensor being an ultra-wide band (UWB) radar sensor, wherein the first controller monitors for cargo in the enclosure by scanning the enclosure, by the first sensor, periodically and/or in response to one or more trigger events, identifying from scanned data one or more of cargo presence, cargo type, cargo distribution and cargo quantity, the refrigeration system/air conditioner controller communicating over a network with the first sensor , characterised in that upon the first controller determining from the scanned data the one or more of the cargo presence, the cargo type, the cargo distribution and the cargo quantity, the first controller determines refrigeration/air conditioning requirements within the enclosure for the cargo , and instructs the refrigeration system/air conditioner to condition air in the enclosure , based on the determination of the refrigeration/air conditioning requirements. a first sensor in the enclosure controlled by a first controller that is within the first sensor or remotely located, and a refrigeration system/air conditioner and a refrigeration system/air conditioner controller controlling the refrigeration system/air conditioner ; the first sensor being an ultra-wide band (UWB) radar sensor, wherein the first controller monitors for cargo in the enclosure by scanning the enclosure, by the first sensor, periodically and/or in response to one or more trigger events, identifying from scanned data one or more of cargo presence, cargo type, cargo distribution and cargo quantity, the refrigeration system/air conditioner controller communicating over a network with the first sensor , characterised in that upon the first controller determining from the scanned data the one or more of the cargo presence, the cargo type, the cargo distribution and the cargo quantity, the first controller determines refrigeration/air conditioning requirements within the enclosure for the cargo , and instructs the refrigeration system/air conditioner to condition air in the enclosure , based on the determination of the refrigeration/air conditioning requirements.
A map rendering method, comprising: transmitting, in a case that a three-dimensional display engine on a terminal receives a mesh update instruction, a block request to a native map module of a terminal system through the three-dimensional display engine, the block request carrying a block identifier corresponding to a target field of view area; obtaining, by the terminal, a block data address based on the block identifier through the native map module, and transmitting the block data address to the three-dimensional display engine; obtaining, by the terminal, block data in the target field of view area based on the block data address through the three-dimensional display engine; invoking, by the terminal, a target map interface through the native map module, to parse the block data, and generating map mesh data based on data obtained through parsing, the map mesh data comprising road data and building data; and performing, by the terminal, map rendering based on the road data and the building data in the map mesh data, characterized in that a target script is added to a main scene camera, when the target script is run, in a case where an OnPreRender event occurs in the main scene camera, rendering is performed by invoking a road rendering interface on a native side, and in a case where an OnPostRender event occurs in the main scene camera, rendering is performed by invoking a building rendering interface on the native side. transmitting, in a case that a three-dimensional display engine on a terminal receives a mesh update instruction, a block request to a native map module of a terminal system through the three-dimensional display engine, the block request carrying a block identifier corresponding to a target field of view area; obtaining, by the terminal, a block data address based on the block identifier through the native map module, and transmitting the block data address to the three-dimensional display engine; obtaining, by the terminal, block data in the target field of view area based on the block data address through the three-dimensional display engine; invoking, by the terminal, a target map interface through the native map module, to parse the block data, and generating map mesh data based on data obtained through parsing, the map mesh data comprising road data and building data; and performing, by the terminal, map rendering based on the road data and the building data in the map mesh data, characterized in that a target script is added to a main scene camera, when the target script is run, in a case where an OnPreRender event occurs in the main scene camera, rendering is performed by invoking a road rendering interface on a native side, and in a case where an OnPostRender event occurs in the main scene camera, rendering is performed by invoking a building rendering interface on the native side.
A method for optimizing the uniformity of performance of inkjet nozzles within a print head containing a plurality of said nozzles, comprising: characterizing one or more performance attributes of said nozzles within said print head; generating a waveform set comprising a plurality of waveforms to compensate for variations of said one or more performance attributes among said nozzles, wherein said waveform set comprises a discrete, finite set of waveforms; using a dithering operation to assign one of the waveforms to each nozzle; and assigning one of the waveforms within said waveform set to each said nozzle to optimize said one or more performance attributes of each said nozzle relative to each other nozzle in said print head; wherein, based upon said waveform assigned to each nozzle, each nozzle in said print head responds substantially uniformly relative to each other nozzle in said print head. characterizing one or more performance attributes of said nozzles within said print head; generating a waveform set comprising a plurality of waveforms to compensate for variations of said one or more performance attributes among said nozzles, wherein said waveform set comprises a discrete, finite set of waveforms; using a dithering operation to assign one of the waveforms to each nozzle; and assigning one of the waveforms within said waveform set to each said nozzle to optimize said one or more performance attributes of each said nozzle relative to each other nozzle in said print head; wherein, based upon said waveform assigned to each nozzle, each nozzle in said print head responds substantially uniformly relative to each other nozzle in said print head.
A force detection device comprising: a diamond piezoresistor including a single-crystal diamond into which boron is introduced as an impurity; a diamond substrate ; and a pair of input electrodes opposed to each other on the diamond piezoresistor, wherein an absolute value of the piezoresistance coefficient of the diamond piezoresistor is greater than an absolute value of a piezoresistance coefficient π11 or π12 in a case in which a major axis is in a <100> direction, wherein the diamond piezoresistor is formed on a plane, a plane, a plane, or a crystal plane equivalent thereto of the diamond substrate and wherein the diamond piezoresistor is grown by step-flow growth on the diamond substrate with a surface having an off angle inclination with respect to a crystal plane that can be epitaxially grown; and wherein the diamond piezoresistor is subjected to a stress applied in a direction that is aligned with or perpendicular to the pair of input electrodes or is a shearing direction with respect to the pair of input electrodes. a diamond piezoresistor including a single-crystal diamond into which boron is introduced as an impurity; a diamond substrate ; and a pair of input electrodes opposed to each other on the diamond piezoresistor, wherein an absolute value of the piezoresistance coefficient of the diamond piezoresistor is greater than an absolute value of a piezoresistance coefficient π11 or π12 in a case in which a major axis is in a <100> direction, wherein the diamond piezoresistor is formed on a plane, a plane, a plane, or a crystal plane equivalent thereto of the diamond substrate and wherein the diamond piezoresistor is grown by step-flow growth on the diamond substrate with a surface having an off angle inclination with respect to a crystal plane that can be epitaxially grown; and wherein the diamond piezoresistor is subjected to a stress applied in a direction that is aligned with or perpendicular to the pair of input electrodes or is a shearing direction with respect to the pair of input electrodes.
A battery module assembly apparatus using vision, the battery module assembly apparatus comprising: a transfer unit configured to move forwards and rearwards or leftwards and rightwards when a battery module having a cylindrical battery cell received therein is seated on the transfer unit ; a vision unit configured to check a position of the battery module ; a bonding unit configured to electrically connect an electrode of the cylindrical battery cell received in the battery module and a busbar to each other; characterized in that the battery module assembly apparatus further comprises a washing unit configured to remove foreign matter from the cylindrical battery cell ; wherein the vision unit comprises a first vision unit and a second vision unit and wherein the first vision unit , the washing unit , and the second vision unit are sequentially located in the named order, or wherein the first vision unit , the second vision unit , and the washing unit are sequentially located in the named order. a transfer unit configured to move forwards and rearwards or leftwards and rightwards when a battery module having a cylindrical battery cell received therein is seated on the transfer unit ; a vision unit configured to check a position of the battery module ; a bonding unit configured to electrically connect an electrode of the cylindrical battery cell received in the battery module and a busbar to each other; characterized in that the battery module assembly apparatus further comprises a washing unit configured to remove foreign matter from the cylindrical battery cell ; wherein the vision unit comprises a first vision unit and a second vision unit and wherein the first vision unit , the washing unit , and the second vision unit are sequentially located in the named order, or wherein the first vision unit , the second vision unit , and the washing unit are sequentially located in the named order.
An optical fiber cable , comprising: a cable jacket ; a rigid tensile reinforcement member centered within the cable jacket ; a plurality of partially bonded optical fiber ribbons around the rigid tensile reinforcement member , wherein the optical fiber cable includes no buffer tubes; and at least one cushioning layer , including a first cushioning layer having a Young's modulus in a range of 10-200 megapascal between the plurality of partially bonded optical fiber ribbons and the cable jacket , the at least one cushioning layer further including a second cushioning layer having a Young's modulus in a range of 10-200 megapascal between the plurality of partially bonded optical fiber ribbons and the rigid tensile reinforcement member, wherein the plurality of partially bonded optical fiber ribbons are retained in a space between the first and second cushioning layers and are adjacent the first and second cushioning layers. a cable jacket ; a rigid tensile reinforcement member centered within the cable jacket ; a plurality of partially bonded optical fiber ribbons around the rigid tensile reinforcement member , wherein the optical fiber cable includes no buffer tubes; and at least one cushioning layer , including a first cushioning layer having a Young's modulus in a range of 10-200 megapascal between the plurality of partially bonded optical fiber ribbons and the cable jacket , the at least one cushioning layer further including a second cushioning layer having a Young's modulus in a range of 10-200 megapascal between the plurality of partially bonded optical fiber ribbons and the rigid tensile reinforcement member, wherein the plurality of partially bonded optical fiber ribbons are retained in a space between the first and second cushioning layers and are adjacent the first and second cushioning layers.