mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining the state of charge (SOC) of a chargeable battery pack comprising at least one battery cell , said method comprising the steps of: - providing an initial state of charge value (SOC 1 ) for said battery pack ; - estimating a battery cell voltage value (V est ) using a cell model based on input values representing at least a measured voltage (V meas ) of said battery pack, ; - comparing said estimated battery cell voltage value (V est ) with said measured battery cell voltage value (V meas ) for said at least one battery cell ; and - determining an estimated state of charge value (SOC est ) to update the state of charge (SOC) from the initial state of charge value (SOC 1 ), based on said comparing step and by using an observer module ; wherein: - said observer module comprises an influence factor, said influence factor representing errors in the estimated state of charge (SOC est ) based on parameterization of said cell model , such that the influence factor of the observer module is determined by the errors in the cell model depending on the parameters of the cell model, and further - limiting said update of the state of charge (SOC) value by means of said influence factor. - providing an initial state of charge value (SOC 1 ) for said battery pack ; - estimating a battery cell voltage value (V est ) using a cell model based on input values representing at least a measured voltage (V meas ) of said battery pack, ; - comparing said estimated battery cell voltage value (V est ) with said measured battery cell voltage value (V meas ) for said at least one battery cell ; and - determining an estimated state of charge value (SOC est ) to update the state of charge (SOC) from the initial state of charge value (SOC 1 ), based on said comparing step and by using an observer module ; - said observer module comprises an influence factor, said influence factor representing errors in the estimated state of charge (SOC est ) based on parameterization of said cell model , such that the influence factor of the observer module is determined by the errors in the cell model depending on the parameters of the cell model, and further - limiting said update of the state of charge (SOC) value by means of said influence factor.
A welding or metal additive manufacturing torch , comprising: - a nozzle ; - a shielding gas diffuser located within the nozzle and having a plurality of shielding gas discharge holes spaced annularly around the shielding gas diffuser ; the torch being characterised by : - a contact tip extending from the shielding gas diffuser distal of the shielding gas discharge holes ; - an annular screen located distal of the shielding gas discharge holes , wherein the annular screen is electrically insulated from at least one of the shielding gas diffuser and an outer surface of the nozzle , wherein the annular screen extends radially between the nozzle and the shielding gas diffuser . - a nozzle ; - a shielding gas diffuser located within the nozzle and having a plurality of shielding gas discharge holes spaced annularly around the shielding gas diffuser ; - a contact tip extending from the shielding gas diffuser distal of the shielding gas discharge holes ; - an annular screen located distal of the shielding gas discharge holes , wherein the annular screen is electrically insulated from at least one of the shielding gas diffuser and an outer surface of the nozzle , wherein the annular screen extends radially between the nozzle and the shielding gas diffuser .
A resource indication method, comprising: generating (S101) resource indication information, wherein the resource indication information is used to indicate a reference signal resource allocated to a terminal device in a reference signal resource group in which the terminal device is located among a plurality of reference signal resource groups; and sending (S103) the resource indication information, characterized in that the plurality of reference signal resource groups at least comprises a first reference signal resource group and a second reference signal resource group, the first reference signal resource group corresponds to a first Transceiver Point, TRP, set , and a second reference signal resource group corresponds to a second TRP set , each TRP in the first TRP set is a high-frequency TRP, and each TRP in the second TRP set is a low-frequency TRP. generating (S101) resource indication information, wherein the resource indication information is used to indicate a reference signal resource allocated to a terminal device in a reference signal resource group in which the terminal device is located among a plurality of reference signal resource groups; and sending (S103) the resource indication information, characterized in that the plurality of reference signal resource groups at least comprises a first reference signal resource group and a second reference signal resource group, the first reference signal resource group corresponds to a first Transceiver Point, TRP, set , and a second reference signal resource group corresponds to a second TRP set , each TRP in the first TRP set is a high-frequency TRP, and each TRP in the second TRP set is a low-frequency TRP.
A method of wireless communication at a first wireless communication device , comprising: identifying a beam failure, BF, event at the first wireless communication device that impacts at least one beam pair link, BPL, wherein identifying the BF event comprises detecting and predicting a BF caused by an event initiated by the first wireless communication device , the event causing a configuration change of one or more impacted antenna panels of the first wireless communication device ; and communicating a request to a second wireless communication device to stop communicating on the at least one BPL, the at least one BPL associated with the one or more impacted antenna panels. identifying a beam failure, BF, event at the first wireless communication device that impacts at least one beam pair link, BPL, wherein identifying the BF event comprises detecting and predicting a BF caused by an event initiated by the first wireless communication device , the event causing a configuration change of one or more impacted antenna panels of the first wireless communication device ; and communicating a request to a second wireless communication device to stop communicating on the at least one BPL, the at least one BPL associated with the one or more impacted antenna panels.
Use of a device comprising a joint anchoring shaft and at least one water run-off spike which projects laterally from an upper end region of the joint anchoring shaft and which is designed to drain liquid from the upper side of a tile laid with joints in a laying plane by inserting the joint anchoring shaft into the joint between two tiles and resting the at least one water run-off spike on the upper side of the tile or on the bevelled edge thereof.
An apparatus comprising a support connector in combination with a linear LED lamp of a networked LED lighting system, the support connector for coupling an end of the linear LED lamp to a lighting fixture, the linear LED lamp having a body with a length between spaced first and second ends, a source of illumination comprising at least one LED emitter board on or within the lamp body, a first end connector at the first end of the body, and a lamp modular connector at the first end of the body operable to receive electrical signals for power and data communications according to a network communications protocol, the support connector comprising: a base portion comprising a housing and having a first end portion configured to be coupled to a support of the lighting fixture; a leading end portion extending from the base portion and configured to be coupled to the first end connector of the linear LED lamp; the base portion and the leading end portion defining an internal raceway sized to receive a network cable terminated with a communications plug , with a first opening at the first end portion of the base portion and a second opening at the leading end portion so that the plug can be translated through the first opening, along the raceway, and through the second opening into engagement with the lamp modular connector. a base portion comprising a housing and having a first end portion configured to be coupled to a support of the lighting fixture; a leading end portion extending from the base portion and configured to be coupled to the first end connector of the linear LED lamp; the base portion and the leading end portion defining an internal raceway sized to receive a network cable terminated with a communications plug , with a first opening at the first end portion of the base portion and a second opening at the leading end portion so that the plug can be translated through the first opening, along the raceway, and through the second opening into engagement with the lamp modular connector.
A valve body, comprising: a passage forming body having a passage through which a gas flows, bearing fixing portions configured to fix bearings rotatably supporting a shaft of a valve which adjusts a cross-sectional area of the passage , and a flow path forming body, which comprises a groove released in a flowing direction of gas and surrounding the passage and a plate , is adapted to form a flow path through which a heat-exchange-medium flows, whereby a passage cross-sectional area of a space from positions of an inlet pipe and an outlet pipe to a periphery of the bearings is formed to be larger than a passage cross-sectional area of a space of a portion close to the bearing. a passage forming body having a passage through which a gas flows, bearing fixing portions configured to fix bearings rotatably supporting a shaft of a valve which adjusts a cross-sectional area of the passage , and a flow path forming body, which comprises a groove released in a flowing direction of gas and surrounding the passage and a plate , is adapted to form a flow path through which a heat-exchange-medium flows, whereby a passage cross-sectional area of a space from positions of an inlet pipe and an outlet pipe to a periphery of the bearings is formed to be larger than a passage cross-sectional area of a space of a portion close to the bearing.
A heat-not-burn cigarette product comprising a cigarette product and a heater in matched use with the cigarette product, wherein a sucking resistance when the cigarette product and the heater in matched use with the cigarette product are used together is P 1 , and a sucking resistance of the cigarette product is P 2 , wherein a ratio of P 2 /P 1 is equal to 50%, wherein the cigarette product comprises an aerosol forming matrix section, a smoke gathering section and a mouth contact section, the smoke gathering section is located between the aerosol forming matrix section and the mouth contact section, characterized in that a sucking resistance of the aerosol forming matrix section is P 21 , wherein a ratio of P 21 /P 2 is 66% to 75%.
A building drum , comprising a first mounting portion and a second mounting portion , the first mounting portion is connected to a first side ring , the second mounting portion is connected to a second side ring , and the first side ring and the second side ring form a pair of side rings, the first side ring comprises a first annular portion , a first side of the first annular portion is connected to the first mounting portion , a second side of the first annular portion is provided with a plurality of first tooth-shaped portions along a circumference of the first annular portion , a first tooth gap is formed between every two adjacent of the first tooth-shaped portions ; the second side ring comprises a second annular portion , a first side of the second annular portion is connected to the second mounting portion , a second side of the second annular portion is provided with a plurality of second tooth-shaped portions along a circumference of the second annular portion , a second tooth gap is formed between every two adjacent of the second tooth-shaped portions ; an outer circumferential radius of the first tooth-shaped portions is equal to an outer circumferential radius of the second tooth-shaped portions , and the first tooth-shaped portions are capable of being cross-fitted with the second tooth-shaped portions to form a cylindrical body having a uniform surface, characterised in that ; when cross-fitted, the first tooth-shaped portions and the second tooth-shaped portions are tightly fitted together, and a gap between every two adjacent of the first tooth-shaped portions and the second tooth-shaped portions is 1-2mm; each of the first tooth-shaped portions and the second tooth-shaped portions have a radial thickness d of 5-8 mm.
System for storing a gas, the system comprising at least two tanks, a first tank and a last tank , the first tank comprising an inlet port connected to a system inlet , the last tank comprising an outlet port connected to a system outlet , characterised in that each tank is being provided with an on tank valve (234a, 234b, ... 234j, 234c, 500, 600) comprising an inlet port , an outlet port , and a communication line leading into the tank, each on tank valve comprising a communication line between the inlet port and the outlet port of the on tank valve, the outlet port of the on tank valve of the first tank being connected to the inlet port of the on tank valve of the last tank, the at least two tanks being serially connected.
A thermoplastic resin composition comprising: 100 parts by weight of a thermoplastic resin comprising 20 wt% to 50 wt% of an acrylate-based rubber-modified vinyl graft copolymer and 50 wt% to 80 wt% of an aromatic vinyl copolymer resin; an ultraviolet (UV) stabilizer comprising 0.05 to 2 parts by weight of an HALS (hindered amine light stabilizer)-based UV stabilizer and 0.05 to 2 parts by weight of a benzotriazole-based UV stabilizer; and 0.1 to 5 parts by weight of zinc oxide having an average particle diameter of 0.5 μm to 3 μm as measured according to the description and a BET specific surface area of 1 m 2 /g to 10 m 2 /g, as measured according to the description, wherein the zinc oxide has a peak position (2θ) in the range of 35° to 37° and a crystallite size of 1,000 Å to 2,000 Å, in X-ray diffraction (XRD) analysis, as calculated by Equation 1: Crystallite size D = Kλ β cos θ where K is a shape factor, λ is an X-ray wavelength, β is an FWHM value (degree) of an X-ray diffraction peak, and θ is a peak position degree. 100 parts by weight of a thermoplastic resin comprising 20 wt% to 50 wt% of an acrylate-based rubber-modified vinyl graft copolymer and 50 wt% to 80 wt% of an aromatic vinyl copolymer resin; an ultraviolet (UV) stabilizer comprising 0.05 to 2 parts by weight of an HALS (hindered amine light stabilizer)-based UV stabilizer and 0.05 to 2 parts by weight of a benzotriazole-based UV stabilizer; and 0.1 to 5 parts by weight of zinc oxide having an average particle diameter of 0.5 μm to 3 μm as measured according to the description and a BET specific surface area of 1 m 2 /g to 10 m 2 /g, as measured according to the description, wherein the zinc oxide has a peak position (2θ) in the range of 35° to 37° and a crystallite size of 1,000 Å to 2,000 Å, in X-ray diffraction (XRD) analysis, as calculated by Equation 1: Crystallite size D = Kλ β cos θ where K is a shape factor, λ is an X-ray wavelength, β is an FWHM value (degree) of an X-ray diffraction peak, and θ is a peak position degree.
An intravascular device comprising: an elongated shaft extending along a longitudinal axis and sized to traverse vasculature; a distal section comprising a plurality of electrodes configured to deliver at least 900VDC for irreversible electroporation; and a plurality of wires each electrically joined to a respective electrode of the plurality of electrodes, each of the wires of the plurality of wires extending through at least a portion of the elongated shaft, and each of the wires of the plurality of wires respectively comprising: an electrically conductive core material comprising a first electrical conductivity, an electrically conductive cover material comprising a second electrical conductivity less than the first electrical conductivity, the electrically conductive cover material circumscribing the electrically conductive core material, and an insulative jacket circumscribing the electrically conductive cover material such that no electrical arc is generated between the plurality of wires during delivery of at least 900 Volts to each electrode. an elongated shaft extending along a longitudinal axis and sized to traverse vasculature; a distal section comprising a plurality of electrodes configured to deliver at least 900VDC for irreversible electroporation; and a plurality of wires each electrically joined to a respective electrode of the plurality of electrodes, each of the wires of the plurality of wires extending through at least a portion of the elongated shaft, and each of the wires of the plurality of wires respectively comprising: an electrically conductive core material comprising a first electrical conductivity, an electrically conductive cover material comprising a second electrical conductivity less than the first electrical conductivity, the electrically conductive cover material circumscribing the electrically conductive core material, and an insulative jacket circumscribing the electrically conductive cover material such that no electrical arc is generated between the plurality of wires during delivery of at least 900 Volts to each electrode. an electrically conductive core material comprising a first electrical conductivity, an electrically conductive cover material comprising a second electrical conductivity less than the first electrical conductivity, the electrically conductive cover material circumscribing the electrically conductive core material, and an insulative jacket circumscribing the electrically conductive cover material such that no electrical arc is generated between the plurality of wires during delivery of at least 900 Volts to each electrode.
Apparatus suitable for the dispersion and mixing of an expansion gas, e.g. carbon dioxide, in a reactive resin, of the kind in which a mixing chamber having a supply input for the gas and a supply input for the resin is provided, characterized in that said chamber is a dispersion and containment chamber which is made in a casing with external walls enhanced thickness susceptible to sustain high pressure and is divided into two sections by a head of a dispersion and mixing cylinder-piston group , said sections being further in fluid communication between themselves by means of at least one pouring passage provided with a static mixer , motor means being provided for piston control of said mixing cylinder-piston group , characterized in that one section of said chamber receives said supply inputs to first form said intermediate resin-gas mixture.
A heat resistant ink or coating composition comprising resin, solvent and a heat resistant material, wherein the ink or coating composition, when coated on a substrate, imparts a feel of paper, and the ink or coating composition does not degrade when exposed to temperatures of 120°C to 267 °C; wherein the heat resistant material is present in the composition in an amount of 1.0wt% to 10wt% based on the total weight of the composition; and wherein the heat resistant material comprises nylon particles.
A dispensing apparatus , comprising: • a beverage source containing a carbonated beverage liquid; • a dispensing tap ; • a dispense tube disposing the beverage source in fluid communication with the dispensing tap ; • an infusion chamber arranged in connection with the dispense tube between the beverage source and the dispensing tap to receive the carbonated beverage liquid, the infusion chamber configured to infuse an infusing ingredient with the carbonated beverage liquid; characterised by • a sensing unit configured to determine a level of carbon-dioxide in the carbonated beverage liquid downstream of the infusion chamber; • a carbon-dioxide source coupled to the dispense tube via a valve ; and • a control unit configured to operate the valve to allow flow of carbon-dioxide gas, from the carbon-dioxide source, to the carbonated beverage liquid based on the determined level of carbon-dioxide in the carbonated beverage liquid, so as to bring the level of carbon-dioxide to a pre-defined level. • a beverage source containing a carbonated beverage liquid; • a dispensing tap ; • a dispense tube disposing the beverage source in fluid communication with the dispensing tap ; • an infusion chamber arranged in connection with the dispense tube between the beverage source and the dispensing tap to receive the carbonated beverage liquid, the infusion chamber configured to infuse an infusing ingredient with the carbonated beverage liquid; characterised by • a sensing unit configured to determine a level of carbon-dioxide in the carbonated beverage liquid downstream of the infusion chamber; • a carbon-dioxide source coupled to the dispense tube via a valve ; and • a control unit configured to operate the valve to allow flow of carbon-dioxide gas, from the carbon-dioxide source, to the carbonated beverage liquid based on the determined level of carbon-dioxide in the carbonated beverage liquid, so as to bring the level of carbon-dioxide to a pre-defined level.
A method for changing a subscription (A, B) for a mobile telecommunications network on a security module (CA) inserted in a mobile equipment, where an old subscription (A) being initially activated on the security module (CA) is to be substituted by a new subscription (B), each of the old and new subscriptions (A, B) being associated with a unique subscriber identity (SIA, SIB) and a number code (SNA) being assigned to the old subscription (A), where the number code (SNA) is provided for calling the subscriber identity (SIA) of the old subscription (A) via the mobile telecommunications network, the method comprising the following steps: a) loading the new deactivated subscription (B) on the security module (CA); characterized by b) assigning the number code (SNA) of the old subscription (A) to the new subscription (B) via a number portability service (MNP) while the new subscription (B) loaded on the security module (CA) remains deactivated and the old subscription (A) is still activated; c) upon completion of the number portability service (MNP) in step b), activating the new subscription (B) loaded on the security module (CA), resulting in a substitution of the old subscription (A) by the new subscription (B), wherein the new subscription (B) is activated in step c) by addressing the security module (CA) via the subscriber identity (SIA) of the old subscription (A), wherein steps a) and c) are performed by a subscription manager (SM) within the mobile telecommunications network and wherein the number portability service (MNP) in step b) is invoked by the subscription manager (SM). a) loading the new deactivated subscription (B) on the security module (CA); characterized by b) assigning the number code (SNA) of the old subscription (A) to the new subscription (B) via a number portability service (MNP) while the new subscription (B) loaded on the security module (CA) remains deactivated and the old subscription (A) is still activated; c) upon completion of the number portability service (MNP) in step b), activating the new subscription (B) loaded on the security module (CA), resulting in a substitution of the old subscription (A) by the new subscription (B),