mhurhangee/ep-ind-claims huggingface dataset:
An apparatus configured to estimate a battery state, comprising: a measurement unit for measuring a terminal voltage, a charging/discharging current and a current offset value of a battery; a prediction unit for predicting a state variable and an output variable by using a state equation which includes a state of charge and an overpotential of the battery as state variables and includes a terminal voltage of the battery as an output variable; a correction unit for correcting the predicted state variable by comparing the predicted output variable with an output variable measured by the measurement unit; a SOC estimation unit for estimating SOC of the battery by means of the corrected state variable; and a control unit for selecting a single state variable to estimate SOC of the battery according to the measured current offset value, so that the SOC estimation unit estimates SOC of the battery by means of the selected state variable; and characterized in that when the measured current offset value is greater than a reference value, the control unit is configured to select the overpotential as a state variable for estimating the SOC, so that the SOC estimation unit is configured to estimate SOC of the battery by means of the corrected overpotential. a measurement unit for measuring a terminal voltage, a charging/discharging current and a current offset value of a battery; a prediction unit for predicting a state variable and an output variable by using a state equation which includes a state of charge and an overpotential of the battery as state variables and includes a terminal voltage of the battery as an output variable; a correction unit for correcting the predicted state variable by comparing the predicted output variable with an output variable measured by the measurement unit; a SOC estimation unit for estimating SOC of the battery by means of the corrected state variable; and a control unit for selecting a single state variable to estimate SOC of the battery according to the measured current offset value, so that the SOC estimation unit estimates SOC of the battery by means of the selected state variable; and characterized in that when the measured current offset value is greater than a reference value, the control unit is configured to select the overpotential as a state variable for estimating the SOC, so that the SOC estimation unit is configured to estimate SOC of the battery by means of the corrected overpotential.
A method for preparing a cathode material for lithium ion batteries, comprising: a) dissolving a manganese salt, a nickel salt, and/or a cobalt salt, a lithium compound, a boracic compound, an ethylene glycol, and a citric acid in a deionized water to form a sol; b) allowing the sol to evaporate to form a gel in vacuum; c) drying the gel in vacuum at between 120°C and 150°C for 5-8 hours; calcining the gel at between 400°C and 500°C for 3-6 hours to produce a powder; and sintering the gel at 800-900 °C for 10-16 hours to produce a cathode material for lithium ion batteries, wherein the cathode material comprises Lithium, Manganese, Cobalt, Nickle, and Boron, with compositions defined by a chemical formula of Li[Li a Mn b Co c Ni d B x]O 2, wherein a+b+c+d+x = 1, a, b, x >0, c≥0, d≥0, and c+d>0. a) dissolving a manganese salt, a nickel salt, and/or a cobalt salt, a lithium compound, a boracic compound, an ethylene glycol, and a citric acid in a deionized water to form a sol; b) allowing the sol to evaporate to form a gel in vacuum; c) drying the gel in vacuum at between 120°C and 150°C for 5-8 hours; calcining the gel at between 400°C and 500°C for 3-6 hours to produce a powder; and sintering the gel at 800-900 °C for 10-16 hours to produce a cathode material for lithium ion batteries, wherein the cathode material comprises Lithium, Manganese, Cobalt, Nickle, and Boron, with compositions defined by a chemical formula of Li[Li a Mn b Co c Ni d B x]O 2, wherein a+b+c+d+x = 1, a, b, x >0, c≥0, d≥0, and c+d>0. calcining the gel at between 400°C and 500°C for 3-6 hours to produce a powder; and sintering the gel at 800-900 °C for 10-16 hours to produce a cathode material for lithium ion batteries, wherein the cathode material comprises Lithium, Manganese, Cobalt, Nickle, and Boron, with compositions defined by a chemical formula of Li[Li a Mn b Co c Ni d B x]O 2, wherein a+b+c+d+x = 1, a, b, x >0, c≥0, d≥0, and c+d>0.
A thermistor comprising a functionalised nanoparticle coating bonded thereto, characterised in that the coating comprises a nanoscale molecularly imprinted polymer.
A cooling system comprising: a first section of high temperature superconducting cable configured to receive a flow of coolant flowing at a first rate and to permit said flow of coolant to flow therethrough, said flow of coolant undergoing a temperature increase as it passes through said HTS cable; a first refrigeration module configured to receive said flow of coolant from said first section of HTS cable and to lower the temperature of said flow of coolant, said first refrigeration module configured to divide said flow of coolant into a plurality of coolant streams, each coolant stream flowing at approximately a second rate; a second section of HTS cable configured to receive at least one of said plurality of coolant streams, said second section of HTS cable configured to permit a first coolant stream of said at least one of said plurality of coolant streams to flow therethrough into a second refrigeration module; and a third section of HTS cable configured to receive a second coolant stream of said at least one of said plurality of coolant streams, said third section of HTS cable configured to permit said second coolant stream of at least one of said plurality of coolant streams to flow therethrough into a third refrigeration module; wherein said plurality of coolant streams are combined to form said flow of coolant flowing at said first rate. a first section of high temperature superconducting cable configured to receive a flow of coolant flowing at a first rate and to permit said flow of coolant to flow therethrough, said flow of coolant undergoing a temperature increase as it passes through said HTS cable; a first refrigeration module configured to receive said flow of coolant from said first section of HTS cable and to lower the temperature of said flow of coolant, said first refrigeration module configured to divide said flow of coolant into a plurality of coolant streams, each coolant stream flowing at approximately a second rate; a second section of HTS cable configured to receive at least one of said plurality of coolant streams, said second section of HTS cable configured to permit a first coolant stream of said at least one of said plurality of coolant streams to flow therethrough into a second refrigeration module; and a third section of HTS cable configured to receive a second coolant stream of said at least one of said plurality of coolant streams, said third section of HTS cable configured to permit said second coolant stream of at least one of said plurality of coolant streams to flow therethrough into a third refrigeration module; wherein said plurality of coolant streams are combined to form said flow of coolant flowing at said first rate.
A method of filtering video data in a video coding process comprising: receiving a block of video data, wherein the block of video data includes a plurality of sample values, characterized in that the method further comprises: determining one or more filter coefficients for the block of video data for an adaptive loop filter, wherein determining the one or more filter coefficients for the block of video data includes determining one or more AC coefficients and not determining a DC coefficient; determining a respective offset value for each of the plurality of sample values based at least in part on a value associated with the one or more filter coefficients, wherein the respective offset values are for a sample adaptive offset filter; and filtering the block of video data based on the determined one or more filter coefficients and the determined respective offset values. receiving a block of video data, wherein the block of video data includes a plurality of sample values, characterized in that the method further comprises: determining one or more filter coefficients for the block of video data for an adaptive loop filter, wherein determining the one or more filter coefficients for the block of video data includes determining one or more AC coefficients and not determining a DC coefficient; determining a respective offset value for each of the plurality of sample values based at least in part on a value associated with the one or more filter coefficients, wherein the respective offset values are for a sample adaptive offset filter; and filtering the block of video data based on the determined one or more filter coefficients and the determined respective offset values.
A heat-shrinkable multilayer film for being filled with contents, the film comprising: an outer surface layer comprising a heat-resistant thermoplastic resin; an intermediate layer comprising a polyamide-based resin; and an inner surface layer comprising an ethylene-based copolymer; and an adhesion strength between the inner surface layers after treatment with 80°C hot water being not less than 10 N/15 mm, wherein the polyamide-based resin that constitutes the intermediate layer comprises a mixture of 80 to 90 mass % of aliphatic polyamide and 10 to 20 mass % of amorphous aromatic polyamide, and a layer thickness of the intermediate layer accounts for 25 to 40% of a total thickness of the heat-shrinkable multilayer film, and the ethylene-based copolymer that constitutes in the inner surface layer is an ethylene-vinyl acetate copolymer having a vinyl acetate content from 15 to less than 25 mass% and a melting point measured by a differential scanning calorimeter in conformance with JIS K7121 of 80 to 95°C. an outer surface layer comprising a heat-resistant thermoplastic resin; an intermediate layer comprising a polyamide-based resin; and an inner surface layer comprising an ethylene-based copolymer; and an adhesion strength between the inner surface layers after treatment with 80°C hot water being not less than 10 N/15 mm, wherein the polyamide-based resin that constitutes the intermediate layer comprises a mixture of 80 to 90 mass % of aliphatic polyamide and 10 to 20 mass % of amorphous aromatic polyamide, and a layer thickness of the intermediate layer accounts for 25 to 40% of a total thickness of the heat-shrinkable multilayer film, and the ethylene-based copolymer that constitutes in the inner surface layer is an ethylene-vinyl acetate copolymer having a vinyl acetate content from 15 to less than 25 mass% and a melting point measured by a differential scanning calorimeter in conformance with JIS K7121 of 80 to 95°C.
A method of coding video data, the method comprising: coding at least a portion of a picture of an independently decodable non-base layer of a multi-layer bitstream; coding, in a slice header of the picture, a picture order count, POC, least significant bit, LSB, value indicating the value of the least significant bits of the POC of the picture; coding, in a slice header, a syntax element indicating a POC value reset index, indicating a picture order count, POC, value reset for the POC least significant bits,LSB, value of the picture only when the picture has a POC LSB value for the picture equal to zero; and coding, when the picture has a POC LSB value that is not equal to zero, the POC value reset index syntax element to a value other than 2, wherein the value 2 specifies that both the most significant bits, MSBs, and the LSBs of the POC value for the current picture may be reset. coding at least a portion of a picture of an independently decodable non-base layer of a multi-layer bitstream; coding, in a slice header of the picture, a picture order count, POC, least significant bit, LSB, value indicating the value of the least significant bits of the POC of the picture; coding, in a slice header, a syntax element indicating a POC value reset index, indicating a picture order count, POC, value reset for the POC least significant bits,LSB, value of the picture only when the picture has a POC LSB value for the picture equal to zero; and coding, when the picture has a POC LSB value that is not equal to zero, the POC value reset index syntax element to a value other than 2, wherein the value 2 specifies that both the most significant bits, MSBs, and the LSBs of the POC value for the current picture may be reset.
A method of wireless communication performed by an apparatus, the method comprising: determining an arrangement of multiple synchronization signals for wireless communication between two or more nodes; and determining at least one gap between synchronization signals of the arrangement of multiple synchronization signals to configure the arrangement of multiple synchronization signals for transmission by any communication mode of a plurality of communication modes, wherein each communication mode of the plurality of communication modes implements a different numerology, wherein the at least one gap configures the synchronization signals of the arrangement of synchronization signals to avoid an overlap of any of the multiple synchronization signals with a control signal for the wireless communication; and communicating the multiple synchronization signals and the control signal. determining an arrangement of multiple synchronization signals for wireless communication between two or more nodes; and determining at least one gap between synchronization signals of the arrangement of multiple synchronization signals to configure the arrangement of multiple synchronization signals for transmission by any communication mode of a plurality of communication modes, wherein each communication mode of the plurality of communication modes implements a different numerology, wherein the at least one gap configures the synchronization signals of the arrangement of synchronization signals to avoid an overlap of any of the multiple synchronization signals with a control signal for the wireless communication; and communicating the multiple synchronization signals and the control signal.
A method for analyzing at least one molecular breast image in which a tumor has been identified, wherein the molecular breast images have been created by: a) positioning a breast of the subject, in which a radionuclide imaging agent has been pre-injected, between two opposing, planar gamma detectors; and b) acquiring a number of photons from the breast at each of the gamma detectors to create at least one imaging data set, at least one of the imaging data sets having the tumor reflected therein; wherein the method for analyzing is implemented by a processor and comprises the steps of: c) selecting a plurality of intensity profiles (216,) each intensity profile from said plurality of intensity profiles being defined along a respectively corresponding path extending through the tumor in the image, and d) calculating a size of the tumor from the plurality of corresponding intensity profiles selected in step c), characterized in that step d) is performed by calculating a plurality of size metrics from each intensity profile of said plurality of intensity profiles selected in step c), wherein different size metrics from said plurality of size metrics are calculated at different percentage-of-maximum levels of a corresponding selected intensity profile, and averaging the plurality of size metrics to generate a single size metric for the tumor. a) positioning a breast of the subject, in which a radionuclide imaging agent has been pre-injected, between two opposing, planar gamma detectors; and b) acquiring a number of photons from the breast at each of the gamma detectors to create at least one imaging data set, at least one of the imaging data sets having the tumor reflected therein; c) selecting a plurality of intensity profiles (216,) each intensity profile from said plurality of intensity profiles being defined along a respectively corresponding path extending through the tumor in the image, and d) calculating a size of the tumor from the plurality of corresponding intensity profiles selected in step c),
A mobile object comprising: a camera unit (12, 14) that has an optical system that forms an optical image having a high-resolution region (10a, 12a, 14a) and a low-resolution region (10b, 12b, 14b) on a light receiving surface of an image pickup element and is disposed on a side of the mobile object, wherein the camera unit (12, 14) is installed to meet the following conditions: Atan h / d 1 + x − θ v / 2 < φ v < Atan h / d2 + x + θ v / 2 φ h_limit = max Atan w 1 − y / d 1 + x − θ h / 2, Atan w 2 − y / d 2 + x − θ h / 2 φ h_limit < φ h < − Atan y / d 1 + x + θ h / 2 where θv denotes a vertical field angle of the high-resolution region (10a, 12a, 14a), θh denotes a horizontal field angle of the high-resolution region (10a, 12a, 14a), φv denotes a vertical direction angle of the optical axis of the optical system, φh denotes a horizontal direction angle of the optical axis of the optical system, x denotes an offset between a driver's viewpoint position representing an assumed eye position at a seating position of a driver or a center position of a seat surface of the driver and the camera unit (12, 14) in the long axis direction of the mobile object, y denotes an offset between the camera unit (12, 14) and a side face of the mobile object in the short axis direction of the mobile object, h denotes an offset between the camera unit (12, 14) and the ground in the height direction, d1 and d2 denote distances from the driver's viewpoint position in the long axis direction, and w1 and w2 denote predetermined widths on the ground at the distances d1 and d2. a camera unit (12, 14) that has an optical system that forms an optical image having a high-resolution region (10a, 12a, 14a) and a low-resolution region (10b, 12b, 14b) on a light receiving surface of an image pickup element and is disposed on a side of the mobile object, wherein the camera unit (12, 14) is installed to meet the following conditions: Atan h / d 1 + x − θ v / 2 < φ v < Atan h / d2 + x + θ v / 2 φ h_limit = max Atan w 1 − y / d 1 + x − θ h / 2, Atan w 2 − y / d 2 + x − θ h / 2 φ h_limit < φ h < − Atan y / d 1 + x + θ h / 2 where θv denotes a vertical field angle of the high-resolution region (10a, 12a, 14a), θh denotes a horizontal field angle of the high-resolution region (10a, 12a, 14a), φv denotes a vertical direction angle of the optical axis of the optical system, φh denotes a horizontal direction angle of the optical axis of the optical system, x denotes an offset between a driver's viewpoint position representing an assumed eye position at a seating position of a driver or a center position of a seat surface of the driver and the camera unit (12, 14) in the long axis direction of the mobile object, y denotes an offset between the camera unit (12, 14) and a side face of the mobile object in the short axis direction of the mobile object, h denotes an offset between the camera unit (12, 14) and the ground in the height direction, d1 and d2 denote distances from the driver's viewpoint position in the long axis direction, and w1 and w2 denote predetermined widths on the ground at the distances d1 and d2.
An antifouling coating composition comprising: a triisopropylsilyl (meth)acrylate copolymer of (a) 30 to 65 weight% of triisopropylsilyl (meth)acrylate, (b) 5 to 50 weight% of methyl methacrylate, and (c) 0 to 60 weight% of other (meth)acrylic ester, the triisopropylsilyl (meth)acrylate copolymer having a glass transition temperature of 20 to 70°C and a number average molecular weight of 5,000 to 30,000; at least one salt selected from the group consisting of rosin copper salts and copper salts of rosin derivatives, and optionally at least one salt selected from the group consisting of rosin zinc salts and zinc salts of rosin derivatives; and a cuprous oxide, the antifouling coating composition containing not higher than 1 weight% of rosins and rosin derivatives that contain one or more free carboxyl groups. a triisopropylsilyl (meth)acrylate copolymer of (a) 30 to 65 weight% of triisopropylsilyl (meth)acrylate, (b) 5 to 50 weight% of methyl methacrylate, and (c) 0 to 60 weight% of other (meth)acrylic ester, the triisopropylsilyl (meth)acrylate copolymer having a glass transition temperature of 20 to 70°C and a number average molecular weight of 5,000 to 30,000; (a) 30 to 65 weight% of triisopropylsilyl (meth)acrylate, (b) 5 to 50 weight% of methyl methacrylate, and (c) 0 to 60 weight% of other (meth)acrylic ester, at least one salt selected from the group consisting of rosin copper salts and copper salts of rosin derivatives, and optionally at least one salt selected from the group consisting of rosin zinc salts and zinc salts of rosin derivatives; and a cuprous oxide,
Additional securing device, flexible link and spinal device, wherein the additional securing device allows at least one double-threaded pedicle screw of the spinal device to be connected to the corresponding bone segment prior to fitting an osteosynthesis rod of said spinal device, wherein the additional securing device comprises a main body comprising first securing means which cooperate directly or indirectly with the body of the corresponding pedicle screw and comprising second securing means which ensure the passage and immobilization of the flexible link after it has been tensioned in order to constitute an additional anchoring point, wherein the main body is formed by a sleeve, the first securing means of which consist of a central bore that allows it to be positioned on a hemispherically profiled intermediate head of the double-threaded pedicle screw, while the second securing means are arranged as a lateral extension of said sleeve in order to position and immobilize the flexible link in a plane which is offset from the vertical axis of said pedicle screw, characterized in that the second securing means are formed, as the extension of the sleeve, by a connector having, at its base, two horizontal slots (37; 38) which pass through said connector in two distinct axial directions which intersect at the center of said connector. wherein the additional securing device comprises a main body comprising first securing means which cooperate directly or indirectly with the body of the corresponding pedicle screw and comprising second securing means which ensure the passage and immobilization of the flexible link after it has been tensioned in order to constitute an additional anchoring point, wherein the main body is formed by a sleeve, the first securing means of which consist of a central bore that allows it to be positioned on a hemispherically profiled intermediate head of the double-threaded pedicle screw, while the second securing means are arranged as a lateral extension of said sleeve in order to position and immobilize the flexible link in a plane which is offset from the vertical axis of said pedicle screw, characterized in that the second securing means are formed, as the extension of the sleeve, by a connector having, at its base, two horizontal slots (37; 38) which pass through said connector in two distinct axial directions which intersect at the center of said connector.