mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication, comprising: identifying a transport block group size for a transmission to a receiver; and characterized by : determining a retransmission size (415; 420) of one or more code blocks of one or more prior transport blocks to be retransmitted to the receiver during the transmission; and determining whether to transmit a new transport block to the receiver during the transmission based at least in part on the transport block group size and the retransmission size. determining a retransmission size (415; 420) of one or more code blocks of one or more prior transport blocks to be retransmitted to the receiver during the transmission; and determining whether to transmit a new transport block to the receiver during the transmission based at least in part on the transport block group size and the retransmission size.
A method for link aggregation, comprising: (S11) turning off data frame transmitting-receiving functions of all ports; (S12) when a timer of a Transmit machine expires, selecting, by a Selection Logic machine, a TRUNK for a port, setting and starting a timer of a Mux machine, and preparing, by the Mux machine, to add the port to the selected TRUNK; and (S13) adding, by the Mux machine, the port to the selected TRUNK when the timer of the Mux machine and the timer of the Transmit machine expire simultaneously, turning on, by the Mux machine, the data frame transmitting-receiving function of the port according to aggregation state information in a received Link Aggregation Control Protocol Data Unit, LACPDU, message, and performing, by the Mux machine, application message transmission. (S11) turning off data frame transmitting-receiving functions of all ports; (S12) when a timer of a Transmit machine expires, selecting, by a Selection Logic machine, a TRUNK for a port, setting and starting a timer of a Mux machine, and preparing, by the Mux machine, to add the port to the selected TRUNK; and (S13) adding, by the Mux machine, the port to the selected TRUNK when the timer of the Mux machine and the timer of the Transmit machine expire simultaneously, turning on, by the Mux machine, the data frame transmitting-receiving function of the port according to aggregation state information in a received Link Aggregation Control Protocol Data Unit, LACPDU, message, and performing, by the Mux machine, application message transmission.
An End Point, EP, device (EP) for use in an Optical Wireless Communication, OWC, network, comprising an Access Point, AP, device (AP1) and wherein the EP device (EP), is associated with the AP device, the EP device comprising: - an optical wireless transceiver comprising a plurality of photodetectors having different respective fields of view for reception of modulated light signals, and - an apparatus for controlling the optical wireless transceiver , wherein the apparatus is configured to: test one or more of the plurality of photodetectors to determine whether one of the plurality of photodetectors is receiving a modulated light signal with a signal strength above a threshold signal strength; and if a tested photodetector is determined to have received the modulated light signal with a signal strength above the threshold signal strength switch reception to the tested photodetector; the EP device characterized in that the apparatus is configured to: detect a transmission interruption time being a time interval in the OWC network wherein the AP device and EP devices associated to that AP device are not transmitting; and if, during the transmission interruption time, a tested photodetector is determined to have received the modulated light signal with a signal strength above the threshold signal strength, switch reception to the tested photodetector and initiate a handover from the AP device to a further AP device . - an optical wireless transceiver comprising a plurality of photodetectors having different respective fields of view for reception of modulated light signals, and - an apparatus for controlling the optical wireless transceiver , wherein the apparatus is configured to: test one or more of the plurality of photodetectors to determine whether one of the plurality of photodetectors is receiving a modulated light signal with a signal strength above a threshold signal strength; and if a tested photodetector is determined to have received the modulated light signal with a signal strength above the threshold signal strength switch reception to the tested photodetector; test one or more of the plurality of photodetectors to determine whether one of the plurality of photodetectors is receiving a modulated light signal with a signal strength above a threshold signal strength; and if a tested photodetector is determined to have received the modulated light signal with a signal strength above the threshold signal strength switch reception to the tested photodetector; detect a transmission interruption time being a time interval in the OWC network wherein the AP device and EP devices associated to that AP device are not transmitting; and if, during the transmission interruption time, a tested photodetector is determined to have received the modulated light signal with a signal strength above the threshold signal strength, switch reception to the tested photodetector and initiate a handover from the AP device to a further AP device .
A high-thermal-sensitivity ablation catheter tip comprising an electrically-conductive housing having a conductive shell with a domed distal end and a cylindrical body joined to a proximal end of the domed distal end , a plurality of thermal sensors in thermal communication with an inner surface of the cylindrical body of the conductive shell , the plurality of thermal sensors arranged in two circumferential rings within the cylindrical body of the conductive shell , wherein the first circumferential ring is longitudinally offset relative to the second circumferential ring, a flexible electronic circuit (290; 330; 340; 350) distributed around the inner surface of the cylindrical body of the conductive shell , the plurality of thermal sensors positioned on and coupled to the flexible electronic circuit (290; 330; 340; 350), and a wired or wireless communication pathway at least partially disposed on the flexible electronic circuit (290; 330; 340; 350) communicatively connected to the plurality of thermal sensors . an electrically-conductive housing having a conductive shell with a domed distal end and a cylindrical body joined to a proximal end of the domed distal end , a plurality of thermal sensors in thermal communication with an inner surface of the cylindrical body of the conductive shell , the plurality of thermal sensors arranged in two circumferential rings within the cylindrical body of the conductive shell , wherein the first circumferential ring is longitudinally offset relative to the second circumferential ring, a flexible electronic circuit (290; 330; 340; 350) distributed around the inner surface of the cylindrical body of the conductive shell , the plurality of thermal sensors positioned on and coupled to the flexible electronic circuit (290; 330; 340; 350), and a wired or wireless communication pathway at least partially disposed on the flexible electronic circuit (290; 330; 340; 350) communicatively connected to the plurality of thermal sensors .
A state of charge, SOC, estimating apparatus , comprising: a measuring unit configured to measure at least one of voltage, current and temperature of a battery ; characterised in further comprising: a noise generating unit configured to generate noise corresponding to the voltage of the battery based on a plurality of preset voltage regions; a filtering unit configured to receive the noise generated by the noise generating unit and filter the generated noise corresponding to the voltage of the battery based on the plurality of preset voltage regions; and an SOC estimating unit configured to estimate an SOC of the battery based on at least one of voltage, current and temperature of the battery and the noise filtered by the filtering unit . a noise generating unit configured to generate noise corresponding to the voltage of the battery based on a plurality of preset voltage regions; a filtering unit configured to receive the noise generated by the noise generating unit and filter the generated noise corresponding to the voltage of the battery based on the plurality of preset voltage regions; and an SOC estimating unit configured to estimate an SOC of the battery based on at least one of voltage, current and temperature of the battery and the noise filtered by the filtering unit .
A method in a radio access network of a communication system in cloud environment, the radio access network being divided into two or more tiers of different levels partly based on the latency requirements of different operations of the network, the levels having different processing capabilities and each level handling a specific set of functions, comprising a remote radio head tier level and one or more higher tier levels, the system comprising interfaces between different tiers, the method comprising in a tier manager of each tier: gathering and maintaining information on its tier comprising given resources the resources being operationally connected to a set of remote radio heads and configured to process traffic to and from the remote radio heads, wherein said gathering and maintaining comprise gathering and maintaining information of its tier resources based on location, proximity, latency characteristics, mobility patterns and other characteristics; controlling the usage of the tier resources on different connections and services; coordinating with a virtualization infrastructure management of the cloud allocation of processing elements within the tier; communicating with tier managers controlling other tiers regarding the use of resources of the tiers; and allocating resources of the tier for the use of another tier and/or request resources from the tier manager controlling another tier. gathering and maintaining information on its tier comprising given resources the resources being operationally connected to a set of remote radio heads and configured to process traffic to and from the remote radio heads, wherein said gathering and maintaining comprise gathering and maintaining information of its tier resources based on location, proximity, latency characteristics, mobility patterns and other characteristics; controlling the usage of the tier resources on different connections and services; coordinating with a virtualization infrastructure management of the cloud allocation of processing elements within the tier; communicating with tier managers controlling other tiers regarding the use of resources of the tiers; and allocating resources of the tier for the use of another tier and/or request resources from the tier manager controlling another tier.
Process for preparing polyisocyanate mixtures comprising cycloaliphatic structural elements and also, based on the solvent-free form, a linear-aliphatically attached free isocyanate group content of 4.0 to 26.0% by weight and an average NCO functionality of 1.9 to 8.0, wherein A) a polyisocyanate component having an average functionality of 2.0 to 5.0 and a linear-aliphatically attached isocyanate group content (calculated as NCO; molecular weight = 42) of 8.0% to 27.0% by weight is reacted with B) 2 to 80% by weight, based on the total amount of components A) and B) employed, of at least one hydroxyurethane which is based on a cycloaliphatic di- and/or polyisocyanate, is free from isocyanate groups, optionally contains urea groups, has a number-average molecular weight of 260 to 8000 g/mol and has an average OH functionality of 1.0 to 6.0. A) a polyisocyanate component having an average functionality of 2.0 to 5.0 and a linear-aliphatically attached isocyanate group content (calculated as NCO; molecular weight = 42) of 8.0% to 27.0% by weight is reacted with B) 2 to 80% by weight, based on the total amount of components A) and B) employed, of at least one hydroxyurethane which is based on a cycloaliphatic di- and/or polyisocyanate, is free from isocyanate groups, optionally contains urea groups, has a number-average molecular weight of 260 to 8000 g/mol and has an average OH functionality of 1.0 to 6.0.
A method of modifying a vane segment of a gas turbine engine , the method comprising: calculating a throat area of the vane segment by radially dividing the throat area into a plurality of sections (S1-S8); prior to radially dividing the throat area , outlining a boundary of the throat area of the vane segment by referencing a CAD model of the vane segment by selecting a plurality of inspection points (OD1-N, ID1-N, SS1-N, PS1-N) along the boundary of the throat area , wherein the throat area is radially divided into the plurality of sections (S1-28) by at least one radial line (L 1 -L N ) drawn from at least a first portion of the plurality of inspection points (OD 1 - OD N ) to a corresponding second portion of the plurality of inspection points (ID 1 - ID N ); measuring a location of each of the plurality of inspection points (OD1-N...PS1-N) using a coordinate measuring machine (CMM); and calculating an individual area associated with each of the plurality of sections (S1-S8), and summing the individual areas to calculate the throat area , the vane segment including a first platform and a second platform and a first airfoil and a second airfoil extending between the first platform and the second platform ; characterised in that : the method further comprises cutting or trimming a portion of the vane segment based on the calculated throat area . calculating a throat area of the vane segment by radially dividing the throat area into a plurality of sections (S1-S8); prior to radially dividing the throat area , outlining a boundary of the throat area of the vane segment by referencing a CAD model of the vane segment by selecting a plurality of inspection points (OD1-N, ID1-N, SS1-N, PS1-N) along the boundary of the throat area , wherein the throat area is radially divided into the plurality of sections (S1-28) by at least one radial line (L 1 -L N ) drawn from at least a first portion of the plurality of inspection points (OD 1 - OD N ) to a corresponding second portion of the plurality of inspection points (ID 1 - ID N ); measuring a location of each of the plurality of inspection points (OD1-N...PS1-N) using a coordinate measuring machine (CMM); and calculating an individual area associated with each of the plurality of sections (S1-S8), and summing the individual areas to calculate the throat area , the vane segment including a first platform and a second platform and a first airfoil and a second airfoil extending between the first platform and the second platform ; characterised in that : the method further comprises cutting or trimming a portion of the vane segment based on the calculated throat area .
A lithium-doped Pernigraniline-based material (PN-Li), comprising: - at least one polymer chain formed by the succession of C 6 H 4 rings and nitrogen atoms, each nitrogen atom being linked in para position relative to each C 6 H 4 ring; - n repeating units; - a total amount X of lithium cations (Li + ); - an average amount x of lithium cations (Li + ) per repeating unit, with x = X/n; - a total amount Y of anions (A m- ); - an average amount y of charge provided by anions (A m- ) per repeating unit, with y = mY/n; - a charge q of each repeating unit, - a total charge Q of the polymer chain, with Q = ∑ n q i , and Q = mY-X since Q is compensated by the charges of Li + and A m- ; - Q/n represents the formal oxidation state and Q/n = y-x; and wherein said PN-Li responds to the following formula (I): in which: * 4 ≤ n ≤ 500,000, * q is equal to -1, 0 or +1, * the atomic ratio hydrogen/nitrogen (H/N) is such that 4 ≤ H/N <4.5, * -1 ≤ Q/n < 0, * 0.5 ≤ x ≤ 1, * 0 ≤ y ≤ 0.5. - at least one polymer chain formed by the succession of C 6 H 4 rings and nitrogen atoms, each nitrogen atom being linked in para position relative to each C 6 H 4 ring; - n repeating units; - a total amount X of lithium cations (Li + ); - an average amount x of lithium cations (Li + ) per repeating unit, with x = X/n; - a total amount Y of anions (A m- ); - an average amount y of charge provided by anions (A m- ) per repeating unit, with y = mY/n; - a charge q of each repeating unit, - a total charge Q of the polymer chain, with Q = ∑ n q i , and Q = mY-X since Q is compensated by the charges of Li + and A m- ; - Q/n represents the formal oxidation state and Q/n = y-x; and * 4 ≤ n ≤ 500,000, * q is equal to -1, 0 or +1, * the atomic ratio hydrogen/nitrogen (H/N) is such that 4 ≤ H/N <4.5, * -1 ≤ Q/n < 0, * 0.5 ≤ x ≤ 1, * 0 ≤ y ≤ 0.5.
A turbine engine , comprising: a turbo-compressor including a compressor section and a turbine section , wherein the turbo-compressor includes a rotor with a plurality of compressor blades (80-82) and a plurality of turbine blades (84-86) positioned radially outboard of the compressor blades (80-82); a combustor section including a combustor and a plenum adjacent the combustor ; a flow path extending through the compressor section , the combustor section and the turbine section ; a recuperator configured with the flowpath between the combustor section and the turbine section , wherein an inlet duct to the recuperator is fluidly coupled with the flow path upstream of the plenum , and an outlet duct from the recuperator is fluidly coupled with the plenum ; and a second turbine section fluidly coupled between the combustor section and the turbine section and upstream of the recuperator . a turbo-compressor including a compressor section and a turbine section , wherein the turbo-compressor includes a rotor with a plurality of compressor blades (80-82) and a plurality of turbine blades (84-86) positioned radially outboard of the compressor blades (80-82); a combustor section including a combustor and a plenum adjacent the combustor ; a flow path extending through the compressor section , the combustor section and the turbine section ; a recuperator configured with the flowpath between the combustor section and the turbine section , wherein an inlet duct to the recuperator is fluidly coupled with the flow path upstream of the plenum , and an outlet duct from the recuperator is fluidly coupled with the plenum ; and a second turbine section fluidly coupled between the combustor section and the turbine section and upstream of the recuperator .
Drive train system , having at least one internal combustion engine , at least one generator , for generating electrical energy, driven by the internal combustion engine , at least two electrical machines which are connected to the generator , at least one driven front and rear axle which each have output means and which are driven by the internal combustion engine , at least one manual/automatic transmission which is provided in the drive train between the internal combustion engine and the respective axles, at least two epicyclic gear trains which are each connected to the output means of the front axle , to a front axle differential and to a respective one of the electrical machines , so that the drive force of the internal combustion engine and of the electrical machines is added up in the respective epicyclic gear train and passed on to the respective output means of the front axle , and the output drive means of the front axle are driven by the internal combustion engine and by the electrical machines at the same time. having at least one internal combustion engine , at least one generator , for generating electrical energy, driven by the internal combustion engine , at least two electrical machines which are connected to the generator , at least one driven front and rear axle which each have output means and which are driven by the internal combustion engine , at least one manual/automatic transmission which is provided in the drive train between the internal combustion engine and the respective axles, at least two epicyclic gear trains which are each connected to the output means of the front axle , to a front axle differential and to a respective one of the electrical machines , so that the drive force of the internal combustion engine and of the electrical machines is added up in the respective epicyclic gear train and passed on to the respective output means of the front axle , and the output drive means of the front axle are driven by the internal combustion engine and by the electrical machines at the same time.
A liquid electro photographic (LEP) printing composition comprising: a first resin component comprising an ethylene acrylic acid resin, an ethylene methacrylic acid resin or combinations thereof; and a second resin component present in an amount of about 20% to about 80% by weight of total solids content of the composition, the second resin component having a melting point of from about 50°C to about 75°C, which is below the melting point of the first resin component, or from about 140°C to about 180°C, which is above the melting point of the first resin component. a first resin component comprising an ethylene acrylic acid resin, an ethylene methacrylic acid resin or combinations thereof; and a second resin component present in an amount of about 20% to about 80% by weight of total solids content of the composition, the second resin component having a melting point of from about 50°C to about 75°C, which is below the melting point of the first resin component, or from about 140°C to about 180°C, which is above the melting point of the first resin component.
A method of determining an optical parameter of a lens of eyeglasses, the method comprising: processing at least one image of an object captured by an image-capturing device via a lens of eyeglasses; the method being characterized in that it comprises the steps of: determining a distance between the object and the image-capturing device when the image of the object is captured by the image-capturing device ; determining a calculated magnification based on a dimension of the object and an imaged dimension of the object in the image; and determining the optical parameter of the lens based on the determined distance, a power of a lens of the image-capturing device , and the calculated magnification, wherein the optical parameter comprises the power of the lens of the eyeglasses. processing at least one image of an object captured by an image-capturing device via a lens of eyeglasses; the method being characterized in that it comprises the steps of: determining a distance between the object and the image-capturing device when the image of the object is captured by the image-capturing device ; determining a calculated magnification based on a dimension of the object and an imaged dimension of the object in the image; and determining the optical parameter of the lens based on the determined distance, a power of a lens of the image-capturing device , and the calculated magnification, wherein the optical parameter comprises the power of the lens of the eyeglasses. determining a distance between the object and the image-capturing device when the image of the object is captured by the image-capturing device ; determining a calculated magnification based on a dimension of the object and an imaged dimension of the object in the image; and determining the optical parameter of the lens based on the determined distance, a power of a lens of the image-capturing device , and the calculated magnification, wherein the optical parameter comprises the power of the lens of the eyeglasses.