mhurhangee/patent-ind-claim-en huggingface dataset:
An all-vanadium redox flow battery, comprising positive electrolyte and negative electrolyte, wherein both the positive electrolyte and negative electrolyte comprise an additive; wherein the additive is selected from at least one of sulfuric acid, sulfate, phosphoric acid, phosphate, pyrophosphate and polyphosphates; characterized in that the total vanadium ratio of the positive electrolyte to the negative electrolyte is maintained as positive : negative = 1 : 1.3- 1 : 1.2; and the concentration of the additive is 0.01 mol/l - 0.5 mol/l.
An automated device for trimming an untrimmed plant stem comprising: a transport mechanism for holding and moving the plant stem; a camera and an imaging stage ; a cutting armature having cutting structure for trimming the plant stem; and a central processor ; wherein the transport mechanism is able to move the plant stem proximate to the imaging stage for image capture; the camera is disposed toward the imaging stage to capture at least one image of the plant stem; the central processor is adapted to receive the at least one image from the camera to create a trim map using at least some data gathered from the at least one image; and the central processor is adapted to move the cutting armature as guided by the trim map to position the cutting structure against the plant stem for trimming the plant stem whereby the untrimmed plant stem is changed to a trimmed plant stem wherein the transport mechanism includes at least one car mounted to a conveyor system , characterized in that the car has a chuck adapted to releasably hold the plant stem at the imaging stage; and the chuck is rotatably mounted to hold the plant stem at different orientations, and the rotation of the chuck being driven by a motor receiving signals from the central processor. a transport mechanism for holding and moving the plant stem; a camera and an imaging stage ; a cutting armature having cutting structure for trimming the plant stem; and a central processor ; wherein the transport mechanism is able to move the plant stem proximate to the imaging stage for image capture; the camera is disposed toward the imaging stage to capture at least one image of the plant stem; the central processor is adapted to receive the at least one image from the camera to create a trim map using at least some data gathered from the at least one image; and the central processor is adapted to move the cutting armature as guided by the trim map to position the cutting structure against the plant stem for trimming the plant stem whereby the untrimmed plant stem is changed to a trimmed plant stem wherein the transport mechanism includes at least one car mounted to a conveyor system , characterized in that the car has a chuck adapted to releasably hold the plant stem at the imaging stage; and the chuck is rotatably mounted to hold the plant stem at different orientations, and the rotation of the chuck being driven by a motor receiving signals from the central processor.
A passive RFID tag comprising - a wireless communication device comprising two contact pads ; - an antenna connected to said wireless communication device , wherein said antenna comprises a conductive planar surface and a slot extending at least in a part of said conductive planar surface, said slot forming a non-conductive area of the antenna and defining a first part and a second part of the antenna , wherein said two contact pads are electrically connected respectively each to one of the first and second part of the antenna , said slot comprises a closed end formed by a further conductive part connecting said first and second parts of the antenna , said antenna further comprises at least one conductive bridge (19-19′′′, 20, 21 -21") removably formed with and connecting said first and second parts of the antenna , and wherein the passive RFID tag is configured such that removal of said conductive bridge (19-19′′′, 20, 21 -21") changes the resonance frequency of the passive RFID tag by varying the length of the electrical path between said contact pads from the wireless communication device in the antenna . - a wireless communication device comprising two contact pads ; - an antenna connected to said wireless communication device , wherein said antenna comprises a conductive planar surface and a slot extending at least in a part of said conductive planar surface, said slot forming a non-conductive area of the antenna and defining a first part and a second part of the antenna , wherein said two contact pads are electrically connected respectively each to one of the first and second part of the antenna , said slot comprises a closed end formed by a further conductive part connecting said first and second parts of the antenna , said antenna further comprises at least one conductive bridge (19-19′′′, 20, 21 -21") removably formed with and connecting said first and second parts of the antenna , and wherein the passive RFID tag is configured such that removal of said conductive bridge (19-19′′′, 20, 21 -21") changes the resonance frequency of the passive RFID tag by varying the length of the electrical path between said contact pads from the wireless communication device in the antenna . said two contact pads are electrically connected respectively each to one of the first and second part of the antenna , said slot comprises a closed end formed by a further conductive part connecting said first and second parts of the antenna , said antenna further comprises at least one conductive bridge (19-19′′′, 20, 21 -21") removably formed with and connecting said first and second parts of the antenna , and wherein the passive RFID tag is configured such that removal of said conductive bridge (19-19′′′, 20, 21 -21") changes the resonance frequency of the passive RFID tag by varying the length of the electrical path between said contact pads from the wireless communication device in the antenna .
A method of a terminal in a wireless communication system, the method comprising: in case of an initial access, determining a time period (S612) for a synchronization signal based on a periodicity and a mapping pattern for a physical broadcast channel, PBCH; detecting the synchronization signal (S613); and receiving a master information block, MIB, on the PBCH based on the synchronization signal, wherein the periodicity and the mapping pattern for the PBCH including the MIB are predetermined, and the mapping pattern for the PBCH is repetitive transmissions in 2 subframes of a radio frame. in case of an initial access, determining a time period (S612) for a synchronization signal based on a periodicity and a mapping pattern for a physical broadcast channel, PBCH; detecting the synchronization signal (S613); and receiving a master information block, MIB, on the PBCH based on the synchronization signal, wherein the periodicity and the mapping pattern for the PBCH including the MIB are predetermined, and the mapping pattern for the PBCH is repetitive transmissions in 2 subframes of a radio frame.
An electrolyte for a lithium secondary battery comprising: an additive which comprises a compound represented by Formula 1 below or a compound represented by Formula 2 below; an organic solvent; and a lithium salt: (in Formula 1 and Formula 2 above, R 1 to R 7 are each independently a substituted or unsubstituted alkyl group having 1 to 10 carbon atoms, and L is a substituted or unsubstituted alkylene group having 1 to 6 carbon atoms). an additive which comprises a compound represented by Formula 1 below or a compound represented by Formula 2 below; an organic solvent; and a lithium salt: (in Formula 1 and Formula 2 above, R 1 to R 7 are each independently a substituted or unsubstituted alkyl group having 1 to 10 carbon atoms, and L is a substituted or unsubstituted alkylene group having 1 to 6 carbon atoms).
A code reading device for reading optical codes comprising a light-receiving element for detecting image data including an optical code , optics , a focus adjustment unit for adjusting a focus position of the optics , a display device for optical feedback on the focus setting, and a control and evaluation unit configured for reading the code by evaluating the image data using a decoding method, characterized in that the control and evaluation unit is furthermore configured to evaluate a quality of a currently set focus position and to provide feedback about the quality via the display device, and in that the feedback is provided by a light signal or light pattern projected onto the optical code or onto an object with the code .
A method of wireless communication performed by a user equipment, UE,, comprising: identifying a potential collision between a scheduled legacy transmission time interval, TTI, communication and a scheduled shortened TTI, sTTI, communication, the legacy TTI communication having a legacy TTI duration that is longer than an sTTI duration associated with the sTTI communication; determining whether the legacy TTI communication is within a threshold time of being transmitted, the threshold time of being transmitted configured to be equal to or less than an amount of time between a deadline for preparing the legacy TTI communication for transmission and an actual transmission of the legacy TTI communication; and transmitting at least one of the sTTI communication or the legacy TTI communication based at least in part on the determination. identifying a potential collision between a scheduled legacy transmission time interval, TTI, communication and a scheduled shortened TTI, sTTI, communication, the legacy TTI communication having a legacy TTI duration that is longer than an sTTI duration associated with the sTTI communication; determining whether the legacy TTI communication is within a threshold time of being transmitted, the threshold time of being transmitted configured to be equal to or less than an amount of time between a deadline for preparing the legacy TTI communication for transmission and an actual transmission of the legacy TTI communication; and transmitting at least one of the sTTI communication or the legacy TTI communication based at least in part on the determination.
A polypropylene homopolymer with a melting point of less than 147°C, a percentage of 2,1 errors of at least 1% and a xylene soluble fraction of less than 0.5 wt%, both as measured according to the description.
A weather radar integrating system comprising: one or more memory components ; and one or more processors configured to execute instructions stored on the one or more memory components, whereby the one or more processors are configured to: identify one or more leader aircraft and one or more follower aircraft , which are operating in or heading toward a region of interest; send a request for weather radar data to a first aircraft weather radar system onboard at least one of the one or more leader aircraft and a second aircraft weather radar system onboard at least one of either the one or more leader aircraft or the one or more follower aircraft ; receive weather radar data from the first aircraft weather radar system; receive weather radar data from the second aircraft weather radar system; combine the weather radar data from the first aircraft weather radar system and the weather radar data from the second weather radar system into a combined weather radar data set ; and generate an output based on the combined weather radar data set. one or more memory components ; and one or more processors configured to execute instructions stored on the one or more memory components, whereby the one or more processors are configured to: identify one or more leader aircraft and one or more follower aircraft , which are operating in or heading toward a region of interest; send a request for weather radar data to a first aircraft weather radar system onboard at least one of the one or more leader aircraft and a second aircraft weather radar system onboard at least one of either the one or more leader aircraft or the one or more follower aircraft ; receive weather radar data from the first aircraft weather radar system; receive weather radar data from the second aircraft weather radar system; combine the weather radar data from the first aircraft weather radar system and the weather radar data from the second weather radar system into a combined weather radar data set ; and generate an output based on the combined weather radar data set. identify one or more leader aircraft and one or more follower aircraft , which are operating in or heading toward a region of interest; send a request for weather radar data to a first aircraft weather radar system onboard at least one of the one or more leader aircraft and a second aircraft weather radar system onboard at least one of either the one or more leader aircraft or the one or more follower aircraft ; receive weather radar data from the first aircraft weather radar system; receive weather radar data from the second aircraft weather radar system; combine the weather radar data from the first aircraft weather radar system and the weather radar data from the second weather radar system into a combined weather radar data set ; and generate an output based on the combined weather radar data set.
An aerosol delivery device, comprising: a control body ; a cartridge , comprising: a reservoir tank configured to contain an aerosol precursor composition; a masking disc proximate the aerosol precursor composition, the masking disc including an opening configured to permit the aerosol precursor composition to pass therethrough; and a flavor disc proximate the masking disc , the flavor disc including two or more separate sections , wherein at least two of the sections are configured to permit the aerosol precursor composition to pass therethrough, and at least one of the sections comprises a flavor section that contains a flavorant; and an atomizer configured to receive the aerosol precursor composition and produce an aerosol, wherein at least one of the masking disc or the flavor disc is configured to be rotated relative to the other to align the opening of the masking disc with a selected section of the flavor disc so as to allow the aerosol precursor composition to flow from the reservoir tank through the opening of the masking disc and the selected section of the flavor disc to the atomizer such that, when the flavor section is selected, the flavorant is imparted to the aerosol precursor composition delivered to the atomizer . a control body ; a cartridge , comprising: a reservoir tank configured to contain an aerosol precursor composition; a masking disc proximate the aerosol precursor composition, the masking disc including an opening configured to permit the aerosol precursor composition to pass therethrough; and a flavor disc proximate the masking disc , the flavor disc including two or more separate sections , wherein at least two of the sections are configured to permit the aerosol precursor composition to pass therethrough, and at least one of the sections comprises a flavor section that contains a flavorant; and a reservoir tank configured to contain an aerosol precursor composition; a masking disc proximate the aerosol precursor composition, the masking disc including an opening configured to permit the aerosol precursor composition to pass therethrough; and a flavor disc proximate the masking disc , the flavor disc including two or more separate sections , wherein at least two of the sections are configured to permit the aerosol precursor composition to pass therethrough, and at least one of the sections comprises a flavor section that contains a flavorant; and an atomizer configured to receive the aerosol precursor composition and produce an aerosol, wherein at least one of the masking disc or the flavor disc is configured to be rotated relative to the other to align the opening of the masking disc with a selected section of the flavor disc so as to allow the aerosol precursor composition to flow from the reservoir tank through the opening of the masking disc and the selected section of the flavor disc to the atomizer such that, when the flavor section is selected, the flavorant is imparted to the aerosol precursor composition delivered to the atomizer .
A battery module housing for an electric vehicle , comprising: a monocoque ; and a shelving matrix within the monocoque , the shelving matrix for receiving an energy storage means, wherein the monocoque is a structural component of the electric vehicle , characterised in that : the monocoque comprises a rear connection means for receiving a rear suspension assembly and a front connection means for receiving a front suspension assembly; the rear suspension assembly comprises a rear swing arm and a spring-damper assembly arranged between the rear swing arm and the monocoque , and wherein the spring-damper assembly is configured to control the movement of the swing arm relative to the battery module housing ; and the front suspension assembly comprises a front swing arm and a spring-damper assembly arranged between the front swing arm and the monocoque , and wherein the spring-damper assembly is configured to control the movement of the front suspension assembly relative to the battery module housing . a monocoque ; and a shelving matrix within the monocoque , the shelving matrix for receiving an energy storage means, wherein the monocoque is a structural component of the electric vehicle , characterised in that : the monocoque comprises a rear connection means for receiving a rear suspension assembly and a front connection means for receiving a front suspension assembly; the rear suspension assembly comprises a rear swing arm and a spring-damper assembly arranged between the rear swing arm and the monocoque , and wherein the spring-damper assembly is configured to control the movement of the swing arm relative to the battery module housing ; and the monocoque comprises a rear connection means for receiving a rear suspension assembly and a front connection means for receiving a front suspension assembly; the rear suspension assembly comprises a rear swing arm and a spring-damper assembly arranged between the rear swing arm and the monocoque , and wherein the spring-damper assembly is configured to control the movement of the swing arm relative to the battery module housing ; and the front suspension assembly comprises a front swing arm and a spring-damper assembly arranged between the front swing arm and the monocoque , and wherein the spring-damper assembly is configured to control the movement of the front suspension assembly relative to the battery module housing .
Machine for working bars, suitable for working at least one bar (B) having a mainly oblong development, said machine comprising at least two support sliders , of which at least one is mobile reciprocally toward/away from the other along an axis of movement (Z) and each provided with a work plane on which at least one curving unit is installed, suitable to curve at least a longitudinal portion of said bar (B), and at least a first bending unit , provided with a first contrast element having a first bending radius (R1), and with a first bending element selectively rotatable about said first contrast element to bend said bar (B) around the latter, characterized in that at least one of said sliders comprises on said work plane at least a second bending unit provided with a second contrast element and a second bending element selectively rotatable about said second contrast element to bend said bar (B) around the latter, said second contrast element having a bending radius (R2, R3) different from the bending radius (R1) of said first contrast element .
An apparatus comprising: a cable identifier for attachment to a plug and a cable assembly operable to deliver Power over Ethernet, POE, at a power greater than 90 watts, the plug and the cable assembly receivable in a receptacle delivering said PoE; wherein the cable identifier is configured for mating with the receptacle and comprises an electronic identifier indicating a power rating of the cable when the plug and cable assembly is inserted into the receptacle . a cable identifier for attachment to a plug and a cable assembly operable to deliver Power over Ethernet, POE, at a power greater than 90 watts, the plug and the cable assembly receivable in a receptacle delivering said PoE; wherein the cable identifier is configured for mating with the receptacle and comprises an electronic identifier indicating a power rating of the cable when the plug and cable assembly is inserted into the receptacle .
An IC test system, comprising a robot arm for conveying an IC device (D) from a shift plate of a pair of shift plates arranged side by side to each other to a test head disposed between the shift plates, for testing the IC device (D); wherein the test head is provided with a socket having a placement surface onto which the IC device (D) is placed; the robot arm comprises a contact head for holding the IC device (D) while the IC device (D) is conveyed and for pressing the IC device (D) onto the test head during testing, and a non-contact displacement meter ; characterized in that the non-contact displacement meter is arranged to move in association with the movement of the contact head; the contact head includes first and second contact heads , which are arranged oppositely to each other ; and the non-contact displacement meter is mounted on the robot arm between the first and second contact heads so as to move together with the first and second contact heads in a direction along which the pair of shift plates is arranged side by side to each other, and measure a distance (d) to the placement surface in a direction perpendicular to the placement surface .
A method for generating a cement bond log, comprising: transmitting sonic or ultrasonic waves in multiple directions from a multi-directional logging tool disposed in a wellbore; receiving reflected waves at the logging tool and recording waveforms based on said received waves; processing the waveforms to determine numerical values that indicate a degree of bonding associated with multiple portions of a cement sheath disposed in said wellbore; aggregating the numerical values; and generating a composite image based on said aggregated numerical values; characterized in that said numerical values comprise mean absolute value amplitudes at minima and maxima of the waveforms. transmitting sonic or ultrasonic waves in multiple directions from a multi-directional logging tool disposed in a wellbore; receiving reflected waves at the logging tool and recording waveforms based on said received waves; processing the waveforms to determine numerical values that indicate a degree of bonding associated with multiple portions of a cement sheath disposed in said wellbore; aggregating the numerical values; and generating a composite image based on said aggregated numerical values; characterized in that said numerical values comprise mean absolute value amplitudes at minima and maxima of the waveforms.