mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a beverage preparation machine, such as a fully automatic coffee machine or a fully automatic tea machine, comprising a housing and at least one flow-line system which comprises at least one water container, which contains or can be filled with water, or a water supply, at least one pump for conveying the water through line portions (L1, L2, L3, L4) and components of the flow-line system, at least one heating device for heating the water, at least one valve arrangement (V3, V4) and at least one discharge device (21, 22), comprising the steps of: a) detecting a beverage or steam extraction; b) raising an evaluation index by a predetermined numerator; characterised by the further steps of c) detecting a further beverage or steam extraction; d) detecting the time between the two beverage or steam extractions; e) raising the evaluation index by a further predetermined numerator, the value of the predetermined numerator being dependent on the detected time between the two most recent beverage or steam extractions; f) repeating steps c to e, a descaling process being prompted as soon as the evaluation index has reached or exceeded a predetermined threshold value. a) detecting a beverage or steam extraction; b) raising an evaluation index by a predetermined numerator; c) detecting a further beverage or steam extraction; d) detecting the time between the two beverage or steam extractions; e) raising the evaluation index by a further predetermined numerator, the value of the predetermined numerator being dependent on the detected time between the two most recent beverage or steam extractions; f) repeating steps c to e, a descaling process being prompted as soon as the evaluation index has reached or exceeded a predetermined threshold value.
A method for controlling an autonomous driving apparatus of a vehicle, the method comprising: receiving a destination for setting a driving route; obtaining driving history of a user and traffic information; determining a driving route to the destination based on input data comprising information regarding the destination, information regarding the driving history, and the traffic information, wherein the input data is provided to a model trained through an artificial intelligence algorithm as input data; wherein the artificial intelligence algorithm is embodied as a hardware or software module in a data training unit that uses data including destination information, driving history, traffic information, pre-stored map information, state information of the vehicle, or state information of the surroundings of the vehicle as training data to generate or train the model; and performing (S 1240) autonomous driving along the determined driving route; based on a user input for changing a driving route being received while the vehicle drives based on the determined driving route, determining a new driving route to the destination by inputting, to the neural network model, the input data and information regarding a driving route change corresponding to the user input; and performing autonomous driving based on the determined new driving route. receiving a destination for setting a driving route; obtaining driving history of a user and traffic information; determining a driving route to the destination based on input data comprising information regarding the destination, information regarding the driving history, and the traffic information, wherein the input data is provided to a model trained through an artificial intelligence algorithm as input data; wherein the artificial intelligence algorithm is embodied as a hardware or software module in a data training unit that uses data including destination information, driving history, traffic information, pre-stored map information, state information of the vehicle, or state information of the surroundings of the vehicle as training data to generate or train the model; and performing (S 1240) autonomous driving along the determined driving route; based on a user input for changing a driving route being received while the vehicle drives based on the determined driving route, determining a new driving route to the destination by inputting, to the neural network model, the input data and information regarding a driving route change corresponding to the user input; and performing autonomous driving based on the determined new driving route.
An arrangement of a plurality of container handling modules or of container treating modules and container transport modules coupled with each other and being in a treatment sequence immediately following one another, the arrangement comprising at least one first container treating module and/or container handling module and at least one transport module disposed immediately downstream therefrom, as well as feeder devices and at least one packaging module, the transport module being designed for conveying and distributing individual containers and/or groups of two or more containers in a controlled and sorted manner onto or, as applicable, on the feeder devices to the at least one packaging module, which is prepared for combining groups, bundles, and/or pallet layers of same or different containers and/or bundles and/or bundles of, in each instance, different containers, wherein the paths of movement in the area of the at least one transport module have at least one branching point for the controlled guiding and/or dividing of the product stream and/or container stream to the at least one packaging module, wherein the at least one branching point is formed by a divider switch, which divides the incoming container stream or bundle stream into two or more lanes, wherein a pick-and-place system is associated with the at least one packaging module, wherein in each case one pick-and-place system is provided for a plurality of parallel lanes, wherein the conveyor streams are fed to the pick-and-place system, and wherein the divider switch supplies a preformation of the containers by dividing containers into the particular lanes, wherein in each instance one single pick-and-place system is responsible for a plurality of parallel lanes, characterised in that at least the transport module immediately downstream from the at least one first container treating module and/or container handling module comprises a plurality of separate transport units, in each instance for one or more containers, the transport units being movable and controllable independently of one another, wherein the transport units are in each instance linked to specified paths of movement, and in that the transport module is formed by a plurality of in each instance autonomous, semi-autonomous, track-based, or track-independent transport units (28, 62), which are in each instance suspended at the top, at the sides, or at the bottom and/or guided on a track system or a track pad, which in each instance specifies the paths of movement, and in that the paths of movement for the separate transport units are in each instance provided with magnetic or electromagnetic drives, wherein the paths of movement are designed as long stators of linear motor sections.
A refrigeration system comprising: a vapor compression cycle including a condenser, an expansion valve, an evaporator, and a compressor having a refrigerant circulating there through; and an absorption refrigeration cycle including an absorber and a desorber arranged in a generally closed-loop configuration such that an absorption solution circulates there through, wherein the vapor compression cycle and the absorption refrigeration cycle are substantially integrated such that the absorber is fluidly coupled to the compressor and is configured to generate a mixture including refrigerant and absorbing solution and the desorber is fluidly coupled to the condenser, the desorber being configured to separate the refrigerant vapor from the mixture and increase a pressure of the refrigerant vapor, characterized in that the absorber is configured as a liquid-liquid mixer, and in that a first heat exchanger is arranged generally downstream from the compressor and generally upstream from the desorber, the first heat exchanger being configured to transfer heat between the refrigerant and the mixture such that the refrigerant supplied to the absorber condenses to a liquid. a vapor compression cycle including a condenser, an expansion valve, an evaporator, and a compressor having a refrigerant circulating there through; and an absorption refrigeration cycle including an absorber and a desorber arranged in a generally closed-loop configuration such that an absorption solution circulates there through, wherein the vapor compression cycle and the absorption refrigeration cycle are substantially integrated such that the absorber is fluidly coupled to the compressor and is configured to generate a mixture including refrigerant and absorbing solution and the desorber is fluidly coupled to the condenser, the desorber being configured to separate the refrigerant vapor from the mixture and increase a pressure of the refrigerant vapor, characterized in that the absorber is configured as a liquid-liquid mixer, and in that a first heat exchanger is arranged generally downstream from the compressor and generally upstream from the desorber, the first heat exchanger being configured to transfer heat between the refrigerant and the mixture such that the refrigerant supplied to the absorber condenses to a liquid.
A method of forming an optical component comprising: depositing slurry including glass powder material onto a facesheet; fusing the glass powder material to the facesheet to form a first core material layer on the facesheet; and successively depositing and fusing glass powder material in at least one additional core material layer to build a core material structure on the facesheet; and characterised by further comprising positioning the facesheet on a mandrel prior to fusing glass powder material to the facesheet; wherein fusing glass powder material to a facesheet includes fusing glass powder material to a facesheet that is contoured for optical properties; wherein the mandrel is contoured to match the facesheet, and wherein the contoured facesheet serves as a build plate and becomes a part of the finished product. depositing slurry including glass powder material onto a facesheet; fusing the glass powder material to the facesheet to form a first core material layer on the facesheet; and successively depositing and fusing glass powder material in at least one additional core material layer to build a core material structure on the facesheet; wherein fusing glass powder material to a facesheet includes fusing glass powder material to a facesheet that is contoured for optical properties; wherein the mandrel is contoured to match the facesheet, and wherein the contoured facesheet serves as a build plate and becomes a part of the finished product.
Snap mechanism for fixing a PCB (LP1 - LP5) in a housing shell (GH1 - GH4), wherein the geometry of the housing shell (GH1 - GH4) has a connector body (SK1 - SK4) with a first (ESE1 - ESE5) and a second (ZSE1 - ZSE4) plug-in element, wherein a plug-in element (ESE1 - ESE5, ZSE1 - ZSE4) has an insertion element (EE1 - EE3) which is chamfered towards the PCB (LP1 - LP5) and a snap-in lug (SN1 - SN5) pointing towards the edge of the PCB; wherein the connector body (SK1 - SK4) has a web (ST1 - ST5) with a wall chamfered towards the PCB (LP1 - LP5) between the first (ESE1 - ESE5) and the second (ZSE1 - ZSE4) plug-in element, whereby a retaining edge is formed on the inner wall of the connector body (SK1 - SK4); wherein the PCB (LP1 - LP5) has two recesses (A1 - A7), into which the first (ESE1 - ESE5) and the second (ZSE1 - ZSE4) plug-in element engage; wherein the PCB (LP1 - LP5) has a snap tongue (SZ1 - SZ4) between the recesses (A1 - A7); wherein by mechanically pressing the PCB (LP1 - LP5) into the connector body (SK1 - SK4) by abutting the snap tongue (SZ1 - SZ4) against the retaining edge and by form-fit connection of the snap lugs (SN1 - SN5) to the PCB (LP1 - LP5) the housing shell (GH1 - GH4) is fixed to the PCB (LP1 - LP5), characterised in that in the mounted state of the PCB (LP1 - LP5) the snap lugs (SN1 - SN5) project from the recesses (A1 - A7) out over the surface of a section of the PCB to the edge of the PCB (LP1 - LP5) and thus form the form-fit connection. wherein the geometry of the housing shell (GH1 - GH4) has a connector body (SK1 - SK4) with a first (ESE1 - ESE5) and a second (ZSE1 - ZSE4) plug-in element, wherein a plug-in element (ESE1 - ESE5, ZSE1 - ZSE4) has an insertion element (EE1 - EE3) which is chamfered towards the PCB (LP1 - LP5) and a snap-in lug (SN1 - SN5) pointing towards the edge of the PCB; wherein the connector body (SK1 - SK4) has a web (ST1 - ST5) with a wall chamfered towards the PCB (LP1 - LP5) between the first (ESE1 - ESE5) and the second (ZSE1 - ZSE4) plug-in element, whereby a retaining edge is formed on the inner wall of the connector body (SK1 - SK4); wherein the PCB (LP1 - LP5) has two recesses (A1 - A7), into which the first (ESE1 - ESE5) and the second (ZSE1 - ZSE4) plug-in element engage; wherein the PCB (LP1 - LP5) has a snap tongue (SZ1 - SZ4) between the recesses (A1 - A7); wherein by mechanically pressing the PCB (LP1 - LP5) into the connector body (SK1 - SK4) by abutting the snap tongue (SZ1 - SZ4) against the retaining edge and by form-fit connection of the snap lugs (SN1 - SN5) to the PCB (LP1 - LP5) the housing shell (GH1 - GH4) is fixed to the PCB (LP1 - LP5), characterised in that in the mounted state of the PCB (LP1 - LP5) the snap lugs (SN1 - SN5) project from the recesses (A1 - A7) out over the surface of a section of the PCB to the edge of the PCB (LP1 - LP5) and thus form the form-fit connection.
A method of determining a level of a liquid in a metering tank of a beverage forming system, comprising: providing a tank in which a liquid level is variable measuring a baseline characteristic of a probe circuit including a probe associated with the tank while the probe is out of contact with the liquid in the tank; starting an intentional filling of the tank from a level at which the probe is out of contact with the liquid; measuring a first characteristic of the probe circuit after measuring the baseline characteristic and during filling of the tank; determining the liquid level in the tank corresponding to about a time that the first characteristic is measured based on the first characteristic and the baseline characteristic and, if the step of determining determines that the liquid is out of contact with the probe, the method further comprises: assigning an updated value as the baseline characteristic based on a characteristic measured during filling of the tank; measuring a second characteristic of the probe circuit after measuring the first characteristic and during filling of the tank; and determining the liquid level in the tank corresponding to about a time that the second characteristic is measured based on the second characteristic and the updated baseline characteristic. providing a tank in which a liquid level is variable measuring a baseline characteristic of a probe circuit including a probe associated with the tank while the probe is out of contact with the liquid in the tank; starting an intentional filling of the tank from a level at which the probe is out of contact with the liquid; measuring a first characteristic of the probe circuit after measuring the baseline characteristic and during filling of the tank; determining the liquid level in the tank corresponding to about a time that the first characteristic is measured based on the first characteristic and the baseline characteristic and, if the step of determining determines that the liquid is out of contact with the probe, the method further comprises: assigning an updated value as the baseline characteristic based on a characteristic measured during filling of the tank; measuring a second characteristic of the probe circuit after measuring the first characteristic and during filling of the tank; and determining the liquid level in the tank corresponding to about a time that the second characteristic is measured based on the second characteristic and the updated baseline characteristic. assigning an updated value as the baseline characteristic based on a characteristic measured during filling of the tank; measuring a second characteristic of the probe circuit after measuring the first characteristic and during filling of the tank; and determining the liquid level in the tank corresponding to about a time that the second characteristic is measured based on the second characteristic and the updated baseline characteristic.
A process, comprising: reacting a compound of Formula II: wherein PG is a protecting group and LG 1 is a leaving group, with ethylene oxide in the presence of (a) an alkyl lithium and a copper salt; or (b) an alkyl lithium and a Lewis acid, and a solvent, to give a compound of Formula III: reacting a compound of Formula II: wherein PG is a protecting group and LG 1 is a leaving group, with ethylene oxide in the presence of (a) an alkyl lithium and a copper salt; or (b) an alkyl lithium and a Lewis acid, and (a) an alkyl lithium and a copper salt; or (b) an alkyl lithium and a Lewis acid, and a solvent, to give a compound of Formula III:
A sweetener, satisfying Relation below: 15 ≥ RAG 1 + RAG 2 / RA ≥ 3.87 wherein RA represents a proportion (%) of non-glycosylated rebaudioside A in total rebaudioside A, RAG1 represents a proportion (%) of rebaudioside A having one glycosyl group attached thereto, and RAG2 represents a proportion (%) of rebaudioside A having two glycosyl groups attached thereto.
A method in a data-parallel adaptive filter system, the method comprising: obtaining parameters for each of a plurality of branches of the adaptive filter system, each branch comprising a power amplifier block, the parameters being model parameters for describing each of the plurality of branches; computing gradient-based information for a selected one of the plurality of branches, wherein the gradient-based information relates to a gradient operator applied to a cost function; and updating the parameters for each of the plurality of branches based on the gradient-based information for the selected branch, wherein the parameter for the selected one of the plurality of branches is updated by adding parameter for the selected branch to a product of the gradient-based information and a first ratio, the first ratio being larger than zero; and the parameter for a respective one of the plurality of branches other than the selected branch is updated by adding parameter for the respective branch to a product of the gradient-based information and a second ratio, the second ratio being larger than zero and dependent on a similarity between the respective branch and the selected branch. obtaining parameters for each of a plurality of branches of the adaptive filter system, each branch comprising a power amplifier block, the parameters being model parameters for describing each of the plurality of branches; computing gradient-based information for a selected one of the plurality of branches, wherein the gradient-based information relates to a gradient operator applied to a cost function; and updating the parameters for each of the plurality of branches based on the gradient-based information for the selected branch, wherein the parameter for the selected one of the plurality of branches is updated by adding parameter for the selected branch to a product of the gradient-based information and a first ratio, the first ratio being larger than zero; and the parameter for a respective one of the plurality of branches other than the selected branch is updated by adding parameter for the respective branch to a product of the gradient-based information and a second ratio, the second ratio being larger than zero and dependent on a similarity between the respective branch and the selected branch.
An axle for a commercial vehicle, having an axle tube and at least one axle link, which is connected to the axle tube by at least one force-transmitting means, characterised in that the force-transmitting means is connected to the axle tube by an positive locking connection for transmitting a torque and by a clamping connection for transmitting a normal force, wherein the positive locking connection and the clamping connection are spaced from each other in the longitudinal direction of the axle tube.
A method for producing a 5-hydroxy-1H-imidazole-4-carboxamide•3/4 hydrate, comprising: reacting an acidic salt of 5-hydroxy-1H-imidazole-4-carboxamide or a hydrate thereof with a base selected from the group consisting of a phosphate and an amino acid in the presence of an acidic solvent to obtain a 5-hydroxy-1H-imidazole-4-carboxamide•3/4 hydrate.
A method for in vitro predicting the outcome of an individual having a multiple myeloma,comprising the steps of: - a) measuring the expression level of 16 genes encoding a ROS detoxifying protein consisting of AKR1B1, ARNT, CAT, CBR1, DHCR24, EGLN1, GLRX2, HIF1A, MGST1, MSRB1, PRDX6, SLC7A11, SOD1, SRXN1, TALDO1 and TXN, and/or the expression level of 11 genes encoding ROS producing protein consisting of CYBA, CYB5A, CYC1, NCF4, NCF1B, NCF1C, NDUFA12, NDUFS2, NDUFS8, SHC1 and UQCR10, is measured at step a), in a biological sample obtained from said individual; - b) calculating an AOX score value and/or a ROS score value from the said respective expression level(s) obtained at step a); - c) classifying the said individual as having a good prognosis status or a bad prognosis status, by comparing the score value obtained at step b) with a reference score value. - a) measuring the expression level of 16 genes encoding a ROS detoxifying protein consisting of AKR1B1, ARNT, CAT, CBR1, DHCR24, EGLN1, GLRX2, HIF1A, MGST1, MSRB1, PRDX6, SLC7A11, SOD1, SRXN1, TALDO1 and TXN, and/or the expression level of 11 genes encoding ROS producing protein consisting of CYBA, CYB5A, CYC1, NCF4, NCF1B, NCF1C, NDUFA12, NDUFS2, NDUFS8, SHC1 and UQCR10, is measured at step a), in a biological sample obtained from said individual; - b) calculating an AOX score value and/or a ROS score value from the said respective expression level(s) obtained at step a); - c) classifying the said individual as having a good prognosis status or a bad prognosis status, by comparing the score value obtained at step b) with a reference score value.