mhurhangee/patent-ind-claim-en huggingface dataset:
A material sorting system , comprising: a base including: a pair of fork pockets adapted to receive a pair of forks from a material handling vehicle ; a top wall ; a bottom wall spaced apart from the top wall ; and a center wall arranged between the top wall and the bottom wall and dividing the pair of fork pockets ; a carousel assembly coupled to the base and including a plurality of storage units and at least one electrical contact within the base and in electrical communication with the carousel assembly , the at least one electrical contact being adapted to transfer power or a communication signal between the material handling vehicle and the carousel assembly . a base including: a pair of fork pockets adapted to receive a pair of forks from a material handling vehicle ; a top wall ; a bottom wall spaced apart from the top wall ; and a center wall arranged between the top wall and the bottom wall and dividing the pair of fork pockets ; a pair of fork pockets adapted to receive a pair of forks from a material handling vehicle ; a top wall ; a bottom wall spaced apart from the top wall ; and a center wall arranged between the top wall and the bottom wall and dividing the pair of fork pockets ; a carousel assembly coupled to the base and including a plurality of storage units and at least one electrical contact within the base and in electrical communication with the carousel assembly , the at least one electrical contact being adapted to transfer power or a communication signal between the material handling vehicle and the carousel assembly .
A system for estimating a moisture content of a gas mixture in a Sample Handling System, SHS , the system comprising: a data pre-processing module configured to: receive data comprising measurements (M1-M6, S1) of the SHS related to the gas mixture, a gas cooler and a coolant and a plurality of parameters related to the gas mixture ; analyze the received data to remove one or more anomalies from the data and a moisture content estimation module configured to: determine thermodynamic properties, heat transfer coefficient (U) and mass transfer coefficient (K) of the gas mixture based on the analyzed data, calculate a surface area (A) of the gas cooler based on the analyzed data and the determined thermodynamic properties, heat transfer coefficient (U) and mass transfer coefficient (K) of the gas mixture, and estimate the moisture content of the gas mixture based on comparison of the calculated surface area (A) of the gas cooler with an actual surface area (CA) of the gas cooler . a data pre-processing module configured to: receive data comprising measurements (M1-M6, S1) of the SHS related to the gas mixture, a gas cooler and a coolant and a plurality of parameters related to the gas mixture ; analyze the received data to remove one or more anomalies from the data and receive data comprising measurements (M1-M6, S1) of the SHS related to the gas mixture, a gas cooler and a coolant and a plurality of parameters related to the gas mixture ; analyze the received data to remove one or more anomalies from the data and a moisture content estimation module configured to: determine thermodynamic properties, heat transfer coefficient (U) and mass transfer coefficient (K) of the gas mixture based on the analyzed data, calculate a surface area (A) of the gas cooler based on the analyzed data and the determined thermodynamic properties, heat transfer coefficient (U) and mass transfer coefficient (K) of the gas mixture, and estimate the moisture content of the gas mixture based on comparison of the calculated surface area (A) of the gas cooler with an actual surface area (CA) of the gas cooler . determine thermodynamic properties, heat transfer coefficient (U) and mass transfer coefficient (K) of the gas mixture based on the analyzed data, calculate a surface area (A) of the gas cooler based on the analyzed data and the determined thermodynamic properties, heat transfer coefficient (U) and mass transfer coefficient (K) of the gas mixture, and estimate the moisture content of the gas mixture based on comparison of the calculated surface area (A) of the gas cooler with an actual surface area (CA) of the gas cooler .
A fire suppression system comprising: at least one spray head ; a drive source coupled to the at least one spray head by a supply line that delivers an extinguishing medium to the at least one spray head; at least three fire location sensors fixedly arranged at known locations configured to detect waves emitted during a fire condition; and a control unit operably coupled to the drive source and the plurality of fire location sensors such that the output of the fire location sensors is transmitted to the control unit for analysis, wherein the control unit includes a timer for each of the at least three fire location sensors, the timer being configured to determine a time at which each fire location sensor detects a wave; and wherein the control unit determines a position of the fire condition based on the known location of the fire location sensors, data collected by the at least three fire location sensors, and the time at which each fire location sensor detects a wave; wherein each of the at least three fire location sensors provides a signal to the control unit based on the detected wave. at least one spray head ; a drive source coupled to the at least one spray head by a supply line that delivers an extinguishing medium to the at least one spray head; at least three fire location sensors fixedly arranged at known locations configured to detect waves emitted during a fire condition; and a control unit operably coupled to the drive source and the plurality of fire location sensors such that the output of the fire location sensors is transmitted to the control unit for analysis, wherein the control unit includes a timer for each of the at least three fire location sensors, the timer being configured to determine a time at which each fire location sensor detects a wave; and wherein the control unit determines a position of the fire condition based on the known location of the fire location sensors, data collected by the at least three fire location sensors, and the time at which each fire location sensor detects a wave; wherein each of the at least three fire location sensors provides a signal to the control unit based on the detected wave.
Cathode base for an electrolytic cell for producing aluminium, comprising at least two cathode blocks and/or at least one cathode block and at least one side wall brick , which are arranged at a predetermined distance from one other, the gap being filled by means of a filler , which can be arranged beforehand on at least one cathode block or at least one side wall brick , characterised in that the filler is a compressed graphite plate which can be compressed further, consisting of expanded graphite and a graphite intercalation compound, the proportion of expanded graphite in the graphite plate being between 70 and 99.5 wt.% and the proportion of the graphite intercalation compound in the graphite plate being between 0.5 and 30 wt.%, and the intercalate of the graphite intercalation compound being an electron acceptor or an electron donor.
A method for joining fibre-reinforced plastics-material components, having the steps: - arranging the components to be joined between a sonotrode and a die , - by a material-formed connection, connecting the components to be joined, by exposing the components to temperature, - shaping the components to be joined in a contact region in which the components to be joined are pressed onto the die with the sonotrode , wherein the form of the operative surface of the sonotrode is imaged in one of the component surfaces, characterised in that the components to be joined are shaped while retaining their original thickness. - arranging the components to be joined between a sonotrode and a die , - by a material-formed connection, connecting the components to be joined, by exposing the components to temperature, - shaping the components to be joined in a contact region in which the components to be joined are pressed onto the die with the sonotrode ,
A rotor blade for a turbine engine , comprising: an airfoil connected to a base , the base including a platform , a neck and a fillet that extends along at least a portion of an intersection between the platform and the neck ; characterised in that : the fillet has a radius (R) that substantially continuously changes as the fillet extends from the platform to the neck . an airfoil connected to a base , the base including a platform , a neck and a fillet that extends along at least a portion of an intersection between the platform and the neck ; characterised in that : the fillet has a radius (R) that substantially continuously changes as the fillet extends from the platform to the neck .
A beverage tap installation comprising: • a tap housing defining an inner cavity ; • a tap head defining a liquid channel having an inlet and an outlet and a valve receiving slot defined in said liquid channel, the tap head comprising a valve actuator and a valve actuator operating mechanism ; • a removable flexible dispense tube having a beverage inlet and a beverage outlet , the flexible dispense tube comprising a liquid valve lodged in the valve receiving slot and cooperates with the valve actuator of the tap head , • a locking mechanism allowing removably mounting the tap head on the tap housing , wherein the flexible dispense tube comprises an abutment surface in proximity of the valve and the tap installation comprises an engaging member provided on the tap head or the tap installation and abuts the abutment surface of the dispense tube when the valve is lodged in the valve receiving slot and the tap head is mounted on the tap housing characterised in that the engaging member is provided on the tap housing . • a tap housing defining an inner cavity ; • a tap head defining a liquid channel having an inlet and an outlet and a valve receiving slot defined in said liquid channel, the tap head comprising a valve actuator and a valve actuator operating mechanism ; • a removable flexible dispense tube having a beverage inlet and a beverage outlet , the flexible dispense tube comprising a liquid valve lodged in the valve receiving slot and cooperates with the valve actuator of the tap head , • a locking mechanism allowing removably mounting the tap head on the tap housing ,
A method of performing a mixed-width single instruction multiple data (SIMD) operation, the method comprising: receiving , by a processor, a SIMD instruction which specifies: a single source vector operand comprising a first set of source data elements of a first bit-width; and a destination vector operand comprising destination data elements of a second bit-width, wherein the second bit-width is twice the first bit-width, wherein the single source vector operand is expressed as a single register, and the destination vector operand is expressed as a pair of registers including a first register comprising a first subset of the destination data elements and a second register comprising a second subset of the destination data elements; and based on a sequential order of the first set of source data elements, executing the SIMD instruction in the processor, comprising: generating the first subset of destination data elements in the first register from even-numbered source data elements of the first set; and generating the second subset of destination data elements in the second register from odd-numbered source data elements of the first set. receiving , by a processor, a SIMD instruction which specifies: a single source vector operand comprising a first set of source data elements of a first bit-width; and a destination vector operand comprising destination data elements of a second bit-width, wherein the second bit-width is twice the first bit-width, wherein the single source vector operand is expressed as a single register, and the destination vector operand is expressed as a pair of registers including a first register comprising a first subset of the destination data elements and a second register comprising a second subset of the destination data elements; and a single source vector operand comprising a first set of source data elements of a first bit-width; and a destination vector operand comprising destination data elements of a second bit-width, wherein the second bit-width is twice the first bit-width, wherein the single source vector operand is expressed as a single register, and the destination vector operand is expressed as a pair of registers including a first register comprising a first subset of the destination data elements and a second register comprising a second subset of the destination data elements; and based on a sequential order of the first set of source data elements, executing the SIMD instruction in the processor, comprising: generating the first subset of destination data elements in the first register from even-numbered source data elements of the first set; and generating the second subset of destination data elements in the second register from odd-numbered source data elements of the first set. generating the first subset of destination data elements in the first register from even-numbered source data elements of the first set; and generating the second subset of destination data elements in the second register from odd-numbered source data elements of the first set.
An operation method of a ladle refining treatment by which the ladle refining treatment of a molten steel is performed while continuously measuring a molten steel temperature during operation of the ladle refining treatment of the molten steel, characterised in that the operation method comprises setting a time earlier than a scheduled ending time of the ladle refining treatment in a continuous measurement period of the molten steel temperature as a determination timing, and estimating the molten steel temperature at the scheduled ending time on the basis of a change with time of the molten steel temperature in continuous measured data of the molten steel temperature from a start of continuous measurement of the molten steel temperature to the determination timing, wherein an estimated value T f of the molten steel temperature is calculated according to the following Formula : T f = BMA td + BMA td − BMA td − α / α × t r where T f is the estimated value in °C of the molten steel temperature at the scheduled ending time, BMA td is a backward moving average value in °C of a continuous temperature measured value at time t d , BMA td- α is a backward moving average value in °C of a continuous temperature measured value at time (t d- α), t d is an operation time in minutes from the start of the continuous measurement of the molten steel temperature to the determination timing, t d- α is an operation time in minutes from the start of the continuous measurement of the molten steel temperature to α minutes before t d , and t r is a time in minutes from obtainment of the estimated value of the molten steel temperature at the scheduled ending time to the scheduled ending time. setting a time earlier than a scheduled ending time of the ladle refining treatment in a continuous measurement period of the molten steel temperature as a determination timing, and estimating the molten steel temperature at the scheduled ending time on the basis of a change with time of the molten steel temperature in continuous measured data of the molten steel temperature from a start of continuous measurement of the molten steel temperature to the determination timing, wherein an estimated value T f of the molten steel temperature is calculated according to the following Formula : T f = BMA td + BMA td − BMA td − α / α × t r where T f is the estimated value in °C of the molten steel temperature at the scheduled ending time, BMA td is a backward moving average value in °C of a continuous temperature measured value at time t d , BMA td- α is a backward moving average value in °C of a continuous temperature measured value at time (t d- α), t d is an operation time in minutes from the start of the continuous measurement of the molten steel temperature to the determination timing, t d- α is an operation time in minutes from the start of the continuous measurement of the molten steel temperature to α minutes before t d , and t r is a time in minutes from obtainment of the estimated value of the molten steel temperature at the scheduled ending time to the scheduled ending time.
A method for routing packet traffic through a network comprising a plurality of network nodes, the nodes supporting RSVP-TE protocol and Segment Routing protocol, wherein each of the two protocols is associated with a separate set of labels, the method comprising: - calculating a path through the network; - checking support for both protocols at nodes along the calculated path; - encoding the calculated path as a set of Adjacency Segment Identifiers; - optimising a label stack of the calculated path by substituting more than one adjacency SIDs with a node SID if a partial path identified by the substituted adjacency SIDs equals a shortest path; and - if all nodes along the calculated path support label stack depth equal to or deeper than the depth of the optimised label stack then the calculated path is setup using segment routing and the optimised label stack ; - if a node along the calculated path does not support a label stack depth equal to or deeper than the depth of the optimised label stack then an Explicit Route Object is used for signalling the calculated path using RSVP-TE . - calculating a path through the network; - checking support for both protocols at nodes along the calculated path; - encoding the calculated path as a set of Adjacency Segment Identifiers; - optimising a label stack of the calculated path by substituting more than one adjacency SIDs with a node SID if a partial path identified by the substituted adjacency SIDs equals a shortest path; and - if all nodes along the calculated path support label stack depth equal to or deeper than the depth of the optimised label stack then the calculated path is setup using segment routing and the optimised label stack ; - if a node along the calculated path does not support a label stack depth equal to or deeper than the depth of the optimised label stack then an Explicit Route Object is used for signalling the calculated path using RSVP-TE .
An in vitro method of differentiating an induced pluripotent stem (iPS) cell into an airway epithelial cell comprising: culturing the iPS cell which is preferably derived from a diseased human cell; more preferably a cystic fibrosis disease-specific human iPS cell, in the absence of serum to induce differentiation into a definitive endoderm (DE) cell; culturing the DE cell in the presence of serum to induce differentiation into an anterior foregut endoderm (AFE) cell, wherein the AFE cell preferably expresses NKX2.1; and culturing the AFE cell in the presence of serum, a cytokine cocktail comprising EGF, KGF, BMP7, BMP4 and IWR-1, and a high concentration of retinoic acid, wherein the high concentration comprises from 0.8 μM to 1.2 μM to induce differentiation of the AFE cell into the airway epithelial cell, wherein the airway epithelial cell expresses Clara cell secretory protein (CCSP), cytokeratin 5 (KRT5), and FOXJ1 airway cell surface markers, and wherein the airway epithelial cell is capable of proliferation in culture for at least 30 days, preferably greater than 30 days, without loss of the airway cell surface markers. culturing the iPS cell which is preferably derived from a diseased human cell; more preferably a cystic fibrosis disease-specific human iPS cell, in the absence of serum to induce differentiation into a definitive endoderm (DE) cell; culturing the DE cell in the presence of serum to induce differentiation into an anterior foregut endoderm (AFE) cell, wherein the AFE cell preferably expresses NKX2.1; and culturing the AFE cell in the presence of serum, a cytokine cocktail comprising EGF, KGF, BMP7, BMP4 and IWR-1, and a high concentration of retinoic acid, wherein the high concentration comprises from 0.8 μM to 1.2 μM to induce differentiation of the AFE cell into the airway epithelial cell, wherein the airway epithelial cell expresses Clara cell secretory protein (CCSP), cytokeratin 5 (KRT5), and FOXJ1 airway cell surface markers, and wherein the airway epithelial cell is capable of proliferation in culture for at least 30 days, preferably greater than 30 days, without loss of the airway cell surface markers.
A shut-off device for a duct , in which a measuring device comprising a transmitter is housed, the shut-off device comprising: - a connecting ring formed of a peripheral wall and an inner rim , present on at least one section of the periphery of the peripheral wall , defining a recess for accommodating at least one portion of the transmitter ; - a cover configured to close the duct and clip onto the connecting ring and thus rigidly connect the transmitter of the measuring device to the shut-off device the shut-off device being characterized in that the peripheral wall of the connecting ring comprises: - on an inner surface, at least one main retaining notch intended to keep the peripheral surface of the transmitter assembled with the connecting ring ; - on an outer surface, at least one secondary retaining notch intended to interact with the cover and keep the transmitter assembled with the cover . - a connecting ring formed of a peripheral wall and an inner rim , present on at least one section of the periphery of the peripheral wall , defining a recess for accommodating at least one portion of the transmitter ; - a cover configured to close the duct and clip onto the connecting ring and thus rigidly connect the transmitter of the measuring device to the shut-off device the shut-off device being characterized in that the peripheral wall of the connecting ring comprises: - on an inner surface, at least one main retaining notch intended to keep the peripheral surface of the transmitter assembled with the connecting ring ; - on an outer surface, at least one secondary retaining notch intended to interact with the cover and keep the transmitter assembled with the cover . - on an inner surface, at least one main retaining notch intended to keep the peripheral surface of the transmitter assembled with the connecting ring ; - on an outer surface, at least one secondary retaining notch intended to interact with the cover and keep the transmitter assembled with the cover .
Abase station signal matching device configured to be included in a distributed antenna system, the base station signal matching device comprising: a power level adjusting unit including a coupler configured to generate first and second branch base station signals by separating a received base station signal, wherein power levels of the first and second branch base station signals are adjusted at a power ratio corresponding to a coupling ratio of the coupler; and a signal matching unit configured to match the first branch base station signal to be suitable for signal processing in the distributed antenna system by variably attenuating the power level of the first branch base station signal, wherein the power level of the first branch base station signal is lower than that of the second branch base station signal. a power level adjusting unit including a coupler configured to generate first and second branch base station signals by separating a received base station signal, wherein power levels of the first and second branch base station signals are adjusted at a power ratio corresponding to a coupling ratio of the coupler; and a signal matching unit configured to match the first branch base station signal to be suitable for signal processing in the distributed antenna system by variably attenuating the power level of the first branch base station signal, wherein the power level of the first branch base station signal is lower than that of the second branch base station signal.