mhurhangee/patent-ind-claim-en huggingface dataset:
A method for generating an identifier for a system of energy storage devices (B i ), the system of energy storage devices (B i ) comprising a plurality of mutually connected energy storage devices (B i ), wherein the method comprises: - providing a standard model for predicting one or more state parameters (S m ) of the energy storage devices (B;) as a function of one or more measurable physical variables (X n ) and of one or more model parameters (P j ); - providing, for each of the energy storage devices (B i ), a set of measured values of each of the one or more physical variables (X n ); - determining, for each of the energy storage devices (B i ), at least one parameter correction (ΔP i j ) based on the corresponding set of measured values, wherein each parameter correction (ΔP i j ) is a correction of a corresponding one of the one or more model parameters (P j ), such that when the one or more model parameters (P j ) are corrected by the corresponding parameter corrections (ΔP i j ), the standard model provides a more accurate prediction of the one or more state parameters (S m ) of the corresponding energy storage device (B i ); - generating an identifier of the system of energy storage devices (B i ) comprising the at least one parameter correction (ΔP i j ) determined for each of the energy storage devices (B i ). - providing a standard model for predicting one or more state parameters (S m ) of the energy storage devices (B;) as a function of one or more measurable physical variables (X n ) and of one or more model parameters (P j ); - providing, for each of the energy storage devices (B i ), a set of measured values of each of the one or more physical variables (X n ); - determining, for each of the energy storage devices (B i ), at least one parameter correction (ΔP i j ) based on the corresponding set of measured values, wherein each parameter correction (ΔP i j ) is a correction of a corresponding one of the one or more model parameters (P j ), such that when the one or more model parameters (P j ) are corrected by the corresponding parameter corrections (ΔP i j ), the standard model provides a more accurate prediction of the one or more state parameters (S m ) of the corresponding energy storage device (B i ); - generating an identifier of the system of energy storage devices (B i ) comprising the at least one parameter correction (ΔP i j ) determined for each of the energy storage devices (B i ).
Mount for a Food Container having a protruding rim, in particular a gastronorm container, in a refrigerator, having at least two opposing supports which can be attached to a shelf suitable for serving as supports for the protruding rim of the food container , wherein the mount being a rigid frame made of an endless loop of a round or flat material, in which two first holders are formed as straight mutually parallel first loop sections located in a first plane and configured to serve as supports for the protruding rim of the food container and in which two second holders are configured as straight, mutually parallel second loop portions in a second plane perpendicular to the two first loop portions and suitable for slidably bearing the frame at a shelf , wherein each neighboring ends of the first and second loop portions are connected to each other by a third loop portion (16a - 16d), wherein each pair of adjacent third loop portions (16a, 16b; 16c, 16d) between the two planes limits an opening having a clear span (W 1 ; W 2 ) which is larger than the clear span of the mutual distance (A) of the first loop portions. wherein the mount being a rigid frame made of an endless loop of a round or flat material, in which two first holders are formed as straight mutually parallel first loop sections located in a first plane and configured to serve as supports for the protruding rim of the food container and in which two second holders are configured as straight, mutually parallel second loop portions in a second plane perpendicular to the two first loop portions and suitable for slidably bearing the frame at a shelf , wherein each neighboring ends of the first and second loop portions are connected to each other by a third loop portion (16a - 16d), wherein each pair of adjacent third loop portions (16a, 16b; 16c, 16d) between the two planes limits an opening having a clear span (W 1 ; W 2 ) which is larger than the clear span of the mutual distance (A) of the first loop portions.
Process for the recovery of valuable metals from a metallurgical charge comprising slag formers, and Li-ion batteries or their derived products containing Co, Ni, metallic Al, and C, comprising the steps of: - providing a metallurgical smelting furnace equipped with means for the submerged injection of an O 2 -bearing gas; - defining an oxidizing level Ox characterizing oxidizing smelting conditions according to the formula: Ox = pCO 2 / pCO + pCO 2 , wherein 0.1 < Ox < 1, pCO and pCO 2 are the partial pressures of CO and CO 2 in contact with the melt; - preparing the metallurgical charge comprising a weight fraction Bf of Li-ion batteries or their derived products, according to the formula: 1 > Bf > 0,3 / 1 + 3.5 * Ox * C + 2.5 * Al ) , wherein Ox is the oxidizing level, and Al and C are the weight fractions of respectively metallic Al and C in said batteries or their derived products; - oxidizing smelting the metallurgical charge by injecting an O2-bearing gas into the melt to reach the defined oxidizing level Ox, thereby obtaining a first alloy with a major part of Ni, and a first slag containing residual Ni and Co; - liquid/liquid separation of the first alloy from the first slag; and, - reducing smelting of the first slag using a heat source and a reducing agent, maintaining a reduction potential ensuring the reduction of Co and Ni, thereby producing a second alloy, and a second slag containing less than 1% by weight of Ni, preferably less than 0.5%, and more preferably less than 0.1%. - providing a metallurgical smelting furnace equipped with means for the submerged injection of an O 2 -bearing gas; - defining an oxidizing level Ox characterizing oxidizing smelting conditions according to the formula: Ox = pCO 2 / pCO + pCO 2 , wherein 0.1 < Ox < 1, pCO and pCO 2 are the partial pressures of CO and CO 2 in contact with the melt; - preparing the metallurgical charge comprising a weight fraction Bf of Li-ion batteries or their derived products, according to the formula: 1 > Bf > 0,3 / 1 + 3.5 * Ox * C + 2.5 * Al ) , wherein Ox is the oxidizing level, and Al and C are the weight fractions of respectively metallic Al and C in said batteries or their derived products; - oxidizing smelting the metallurgical charge by injecting an O2-bearing gas into the melt to reach the defined oxidizing level Ox, thereby obtaining a first alloy with a major part of Ni, and a first slag containing residual Ni and Co; - liquid/liquid separation of the first alloy from the first slag; and, - reducing smelting of the first slag using a heat source and a reducing agent, maintaining a reduction potential ensuring the reduction of Co and Ni, thereby producing a second alloy, and a second slag containing less than 1% by weight of Ni, preferably less than 0.5%, and more preferably less than 0.1%.
A computer-implemented method for determining a disease state prediction relating to a potential disease and/or medical condition of a subject, the method comprising: accessing a set of subject throat images from a subject capturing an inside of the subject's throat; accessing a set of clinical factors from the subject, the clinical factors - collected by a device or a medical practitioner substantially contemporaneously with the capture of the subject throat images, and - including relevant information for diagnosing the subject with the respective potential disease and/or medical condition; characterized in generating the disease state prediction for the subject in a two-step process, comprising: - inputting the subject throat images into a trained image model to generate disease metrics for disease prediction for the subject, the disease prediction related to a pathogen presence prediction for the subject, the image model trained using a set of training images and a set of training labels associated with a first set of training subjects; - inputting the disease metrics and the clinical factors into a classifier to determine the disease state prediction; and returning the disease state prediction. accessing a set of subject throat images from a subject capturing an inside of the subject's throat; accessing a set of clinical factors from the subject, the clinical factors - collected by a device or a medical practitioner substantially contemporaneously with the capture of the subject throat images, and - including relevant information for diagnosing the subject with the respective potential disease and/or medical condition; - collected by a device or a medical practitioner substantially contemporaneously with the capture of the subject throat images, and - including relevant information for diagnosing the subject with the respective potential disease and/or medical condition; characterized in generating the disease state prediction for the subject in a two-step process, comprising: - inputting the subject throat images into a trained image model to generate disease metrics for disease prediction for the subject, the disease prediction related to a pathogen presence prediction for the subject, the image model trained using a set of training images and a set of training labels associated with a first set of training subjects; - inputting the disease metrics and the clinical factors into a classifier to determine the disease state prediction; and - inputting the subject throat images into a trained image model to generate disease metrics for disease prediction for the subject, the disease prediction related to a pathogen presence prediction for the subject, the image model trained using a set of training images and a set of training labels associated with a first set of training subjects; - inputting the disease metrics and the clinical factors into a classifier to determine the disease state prediction; and returning the disease state prediction.
A system for supplying a backup product in an air separation apparatus, the system comprising: a storage tank for storing a cryogenic liquid product; a speed-adjustable cryogenic liquid pump , which pressurizes the cryogenic liquid product sent out from the storage tank; a liquid pump back-flow control valve , and a fluid circuit for extracting the cryogenic liquid product from the storage tank and sending same back to the storage tank via the speed-adjustable cryogenic liquid pump and the liquid pump back-flow control valve a liquid pump outlet control valve , and a delivery pipeline which extracts the cryogenic liquid product from the storage tank and is connected to a product supply pipeline of a user via the cryogenic liquid pump and the liquid pump outlet control valve; and the product supply pipeline of the user located downstream of the delivery pipeline; the product supply pipeline of the user at least comprising a first product supply pipeline characterized in that the product supply pipeline of the user comprises a second product supply pipeline ; the delivery pipeline being connected to the first product supply pipeline and the second product supply pipeline separately, and an operating pressure of the first product supply pipeline being lower than an operating pressure of the second product supply pipeline. a storage tank for storing a cryogenic liquid product; a speed-adjustable cryogenic liquid pump , which pressurizes the cryogenic liquid product sent out from the storage tank; a liquid pump back-flow control valve , and a fluid circuit for extracting the cryogenic liquid product from the storage tank and sending same back to the storage tank via the speed-adjustable cryogenic liquid pump and the liquid pump back-flow control valve a liquid pump outlet control valve , and a delivery pipeline which extracts the cryogenic liquid product from the storage tank and is connected to a product supply pipeline of a user via the cryogenic liquid pump and the liquid pump outlet control valve; and the product supply pipeline of the user located downstream of the delivery pipeline; the product supply pipeline of the user at least comprising a first product supply pipeline characterized in that the product supply pipeline of the user comprises a second product supply pipeline ; the delivery pipeline being connected to the first product supply pipeline and the second product supply pipeline separately, and an operating pressure of the first product supply pipeline being lower than an operating pressure of the second product supply pipeline.
A nanoparticle comprising a poly(alkyl cyanoacrylate) homopolymer, or copolymer, at least one active agent and an anionic and radical inhibitor, wherein the anionic and radical inhibitor is a compound having the following formula: wherein R 1 is H; and R 3 , R 4 , R 5 , R 6 and R 7 are independently selected from the group consisting of -H, -OH, C 1 -C 6 alkoxide, C 1 -C 6 alkyl, halides, carboxylic acid, ketone or aldehyde; wherein the anionic and radical inhibitor is present in an amount of 0.001 to 15 wt%. R 1 is H; and R 3 , R 4 , R 5 , R 6 and R 7 are independently selected from the group consisting of -H, -OH, C 1 -C 6 alkoxide, C 1 -C 6 alkyl, halides, carboxylic acid, ketone or aldehyde; wherein the anionic and radical inhibitor is present in an amount of 0.001 to 15 wt%.
A system comprising: a distributed CMTS comprising a root CMTS node and a plurality of branch CMTS nodes (121, .., 129) for distributing downstream signals from the root CMTS node to a plurality of CMs (131, .., 139) and for relaying upstream signals from the plurality of CMs (131, .., 139) to the root CMTS node ; each branch CMTS node (121, .., 129) configured to receive upstream signals from a corresponding set of CMs by using a set of physical upstream channels, wherein a first CM is configured to transmit a first upstream signal on a first physical upstream channel of a first branch CMTS node by using a first transmission opportunity that is identified by a first service flow identifier, wherein a second CM is configured to transmit a second upstream signal on a second physical upstream channel of a second branch CMTS node by using a second transmission opportunity that is identified by a second service flow identifier, characterized by the first and second service flow identifiers being identical. a distributed CMTS comprising a root CMTS node and a plurality of branch CMTS nodes (121, .., 129) for distributing downstream signals from the root CMTS node to a plurality of CMs (131, .., 139) and for relaying upstream signals from the plurality of CMs (131, .., 139) to the root CMTS node ; each branch CMTS node (121, .., 129) configured to receive upstream signals from a corresponding set of CMs by using a set of physical upstream channels, wherein a first CM is configured to transmit a first upstream signal on a first physical upstream channel of a first branch CMTS node by using a first transmission opportunity that is identified by a first service flow identifier, wherein a second CM is configured to transmit a second upstream signal on a second physical upstream channel of a second branch CMTS node by using a second transmission opportunity that is identified by a second service flow identifier, characterized by the first and second service flow identifiers being identical.
An aircraft power distribution system , comprising: a power source ; a load ; and a power distribution panel receiving power from the power source and selectively providing power to the load , wherein the power source is connected to the power panel by a lug having a heat sink portion , the heat sink portion having at least one increased dimension relative to the remainder of the lug , wherein the at least one increased dimension includes an increased width (D3), and wherein the lug has a first width (D2) at first and second ends, the heat sink with the second width between the first and second ends, the second width (D3) greater than the first width (D2). a power source ; a load ; and a power distribution panel receiving power from the power source and selectively providing power to the load , wherein the power source is connected to the power panel by a lug having a heat sink portion , the heat sink portion having at least one increased dimension relative to the remainder of the lug , wherein the at least one increased dimension includes an increased width (D3), and wherein the lug has a first width (D2) at first and second ends, the heat sink with the second width between the first and second ends, the second width (D3) greater than the first width (D2).
A process for producing a sprouted grain comprising: steeping at least one grain at a temperature from 2°C to 29°C for a period of time less than 24 hours to a moisture content from 29% to 38%; germinating the at least one grain for a period of time of 0 hours to less than 24 hours; and kilning with controlled air circulation the at least one grain at a temperature from 49°C to 93°C for a period of time less than 20 hours to a moisture content of 7% to 16%. steeping at least one grain at a temperature from 2°C to 29°C for a period of time less than 24 hours to a moisture content from 29% to 38%; germinating the at least one grain for a period of time of 0 hours to less than 24 hours; and kilning with controlled air circulation the at least one grain at a temperature from 49°C to 93°C for a period of time less than 20 hours to a moisture content of 7% to 16%.
Method for operating an energy converter which can be connected to an electric machine and which is configured to electrically couple the electric machine to a d.c. link , for which purpose at least one semiconductor module thermally coupled to a cooling device interacts with at least one energy store electrically coupled to the semiconductor module and is operated for electrically coupling the d.c. link to the electric machine in a predefinable switching mode, wherein the remaining usability of the at least one semiconductor module in normal use is determined, in that: - a predefined electrical load is applied to the semiconductor module in normal operation while predefined cooling is effected by the cooling device , wherein the predefined electrical load comprises predefined switching patterns with a predefined voltage stress and/or current stress, - a temperature of a semiconductor element of the semiconductor module is sensed at least for the predefined electrical load of the semiconductor module , - the sensed temperature is compared with a comparison temperature in a first comparison, wherein the comparison temperature is assigned to the predefined electrical load while the predefined cooling is effected, and - prediction data for the remaining usability of the semiconductor module in normal use up to an end of usability is determined at least as a function of the first comparison, wherein the electrical load of the semiconductor module and the cooling during normal operation are sensed and the comparison is carried out as soon as the predefined electrical load during the predefined cooling is determined, wherein the electric machine is controlled in accordance with a vector controller and an exclusively field-forming current is set in respect of the electric machine as a predefinable electrical load . - a predefined electrical load is applied to the semiconductor module in normal operation while predefined cooling is effected by the cooling device , wherein the predefined electrical load comprises predefined switching patterns with a predefined voltage stress and/or current stress, - a temperature of a semiconductor element of the semiconductor module is sensed at least for the predefined electrical load of the semiconductor module , - the sensed temperature is compared with a comparison temperature in a first comparison, wherein the comparison temperature is assigned to the predefined electrical load while the predefined cooling is effected, and - prediction data for the remaining usability of the semiconductor module in normal use up to an end of usability is determined at least as a function of the first comparison,
An electronic device comprising: a circuit board ; at least one electronic component mounted on a surface of the circuit board ; a shielding sheet attached to the surface of the circuit board to cover the at least one electronic component; a thermal interface material, TIM , stacked on the shielding sheet to overlap the at least one electronic component; and a heat dissipation member disposed to face the surface of the circuit board , being in surface contact with the thermal interface material , and fastened to at least a portion of the circuit board by a fixing member; wherein the shielding sheet includes an adhesive layer , an insulating layer , and a conductive layer disposed between the adhesive layer and the insulating layer ; wherein the insulating layer is removed from a portion of the shielding sheet overlapping the at least one electronic component, and wherein a portion of the conductive layer is exposed and is in surface contact with the thermal interface material , the thermal interface material being disposed above the portion of the conductive layer. a circuit board ; at least one electronic component mounted on a surface of the circuit board ; a shielding sheet attached to the surface of the circuit board to cover the at least one electronic component; a thermal interface material, TIM , stacked on the shielding sheet to overlap the at least one electronic component; and a heat dissipation member disposed to face the surface of the circuit board , being in surface contact with the thermal interface material , and fastened to at least a portion of the circuit board by a fixing member; wherein the shielding sheet includes an adhesive layer , an insulating layer , and a conductive layer disposed between the adhesive layer and the insulating layer ; wherein the insulating layer is removed from a portion of the shielding sheet overlapping the at least one electronic component, and wherein a portion of the conductive layer is exposed and is in surface contact with the thermal interface material , the thermal interface material being disposed above the portion of the conductive layer.