mhurhangee/ep-ind-claims huggingface dataset:
Method for the automatic operation of a steam cooking appliance, the steam cooking appliance at least comprising: a cooking chamber which is designed to accommodate food to be cooked, a cooking chamber door for closing the cooking chamber, a fan which is designed to generate an air flow emerging from the steam cooking appliance, and at least one distance sensor which is designed to detect the presence or absence of a user at least within a first distance from the distance sensor, the method comprising at least the following steps: operating the fan at a first speed, and detecting the presence of a user within the first distance from the distance sensor, characterised by the following step: operating the fan at a second speed, which is greater than the first speed, when the presence of the user is detected within the first distance from the distance sensor, the fan being a cooling air fan and the second speed being designed, when the cooking chamber door is opened, to influence the hot water vapour in such a way that only a permissible amount of hot water vapour can escape from the cooking chamber and/or the hot water vapour is cooled and/or the direction of flow of the water vapour is influenced. the steam cooking appliance at least comprising: a cooking chamber which is designed to accommodate food to be cooked, a cooking chamber door for closing the cooking chamber, a fan which is designed to generate an air flow emerging from the steam cooking appliance, and at least one distance sensor which is designed to detect the presence or absence of a user at least within a first distance from the distance sensor, a cooking chamber which is designed to accommodate food to be cooked, a cooking chamber door for closing the cooking chamber, a fan which is designed to generate an air flow emerging from the steam cooking appliance, and at least one distance sensor which is designed to detect the presence or absence of a user at least within a first distance from the distance sensor, the method comprising at least the following steps: operating the fan at a first speed, and detecting the presence of a user within the first distance from the distance sensor, operating the fan at a first speed, and detecting the presence of a user within the first distance from the distance sensor, characterised by the following step: operating the fan at a second speed, which is greater than the first speed, when the presence of the user is detected within the first distance from the distance sensor, the fan being a cooling air fan and the second speed being designed, when the cooking chamber door is opened, to influence the hot water vapour in such a way that only a permissible amount of hot water vapour can escape from the cooking chamber and/or the hot water vapour is cooled and/or the direction of flow of the water vapour is influenced. only a permissible amount of hot water vapour can escape from the cooking chamber and/or the hot water vapour is cooled and/or the direction of flow of the water vapour is influenced.
System for withdrawing a cryogenic gas liquid mixture from an inter barrier space of a cryogenic storage tank by vaporizing the cryogenic gas-liquid mixture comprising: - A cryogenic gas-liquid mixture supply line connectable to an inter barrier space of a cryogenic storage tank for withdrawing a cryogenic gas liquid mixture from an inter barrier space of a cryogenic storage tank; - A vaporizer for vaporizing the cryogenic gas-liquid mixture, the vaporizer being arranged downstream the cryogenic gas-liquid mixture supply line; - A cryogenic liquid supply line; - First spraying means for spraying a cryogenic liquid from the cryogenic liquid supply line into the vaporized cryogenic gas-liquid mixture downstream the vaporizer, obtaining a resulting cold mixture; - A mist separator for separating droplets of the cryogenic liquid from the cold mixture, the mist separator being located downstream the first spraying means; - A compressor located downstream a gas outlet of the mist separator, the aspiration of the compressor creating a depressurization within the system for vaporizing the cryogenic gas-liquid mixture. - A cryogenic gas-liquid mixture supply line connectable to an inter barrier space of a cryogenic storage tank for withdrawing a cryogenic gas liquid mixture from an inter barrier space of a cryogenic storage tank; - A vaporizer for vaporizing the cryogenic gas-liquid mixture, the vaporizer being arranged downstream the cryogenic gas-liquid mixture supply line; - A cryogenic liquid supply line; - First spraying means for spraying a cryogenic liquid from the cryogenic liquid supply line into the vaporized cryogenic gas-liquid mixture downstream the vaporizer, obtaining a resulting cold mixture; - A mist separator for separating droplets of the cryogenic liquid from the cold mixture, the mist separator being located downstream the first spraying means; - A compressor located downstream a gas outlet of the mist separator, the aspiration of the compressor creating a depressurization within the system for vaporizing the cryogenic gas-liquid mixture.
A method for handover of at least one packet switched, PS, service to wireless local access network, WLAN, if PS service would be suspended due to circuit switched fallback, CSFB, comprising: when determining by a user equipment, UE, (100, 1000) that camps on a first access network of an evolved packet system, EPS, and initiates execution of CSFB from the first access network to a target radio access technology, RAT, that the target RAT does not support handover of the PS service and WLAN is available, transmitting, from the UE, to a Mobility Management Entity, MME, (400, 2000) of the EPS, an extended service request message comprising information notifying that the PS service is selectively subjected to handover to WLAN; upon receipt of the extended service request message, initiating, by the MME (400, 2000), a timer, which, upon expiry, causes the MME (400, 2000) to suspend the PS service; performing by the UE (100, 1000), at the same time, CSFB and handover of the PS service to WLAN; upon successful completion of the handover, while still camping on the first access network, transmitting by the UE (100, 1000) a message to the MME (400, 2000) including information indicating completion of the handover of the PS service to WLAN; upon receipt of the message by the MME (400, 2000) before expiry of the timer, the MME (400, 2000) informs at least one node of the EPS core network of the completion of the handover of the PS service to WLAN. when determining by a user equipment, UE, (100, 1000) that camps on a first access network of an evolved packet system, EPS, and initiates execution of CSFB from the first access network to a target radio access technology, RAT, that the target RAT does not support handover of the PS service and WLAN is available, transmitting, from the UE, to a Mobility Management Entity, MME, (400, 2000) of the EPS, an extended service request message comprising information notifying that the PS service is selectively subjected to handover to WLAN; upon receipt of the extended service request message, initiating, by the MME (400, 2000), a timer, which, upon expiry, causes the MME (400, 2000) to suspend the PS service; performing by the UE (100, 1000), at the same time, CSFB and handover of the PS service to WLAN; upon successful completion of the handover, while still camping on the first access network, transmitting by the UE (100, 1000) a message to the MME (400, 2000) including information indicating completion of the handover of the PS service to WLAN; upon receipt of the message by the MME (400, 2000) before expiry of the timer, the MME (400, 2000) informs at least one node of the EPS core network of the completion of the handover of the PS service to WLAN.
A cable-linked brake pedal assembly for an airplane, the cable-linked brake pedal assembly comprising: a first cable assembly with a first end attached to a pilot-side brake pedal (106, 116) and a second end attached to a first bell crank assembly; a second cable assembly with a first end attached to a copilot-side brake pedal (108, 118) and a second end attached to a second bell crank assembly; a first connecting rod (112, 122) with a first rod end attached to the first bell crank assembly and a second rod end attached to the second bell crank assembly; the connection between the first and second cable assemblies, first and second bell crank assemblies, and first connecting rod being configured such that depressing the pilot-side brake pedal (106, 116) moves the first cable assembly, first connecting rod, and second cable assembly in such a way as to cause a corresponding depression of the copilot-side brake pedal (108, 118). a first cable assembly with a first end attached to a pilot-side brake pedal (106, 116) and a second end attached to a first bell crank assembly; a second cable assembly with a first end attached to a copilot-side brake pedal (108, 118) and a second end attached to a second bell crank assembly; a first connecting rod (112, 122) with a first rod end attached to the first bell crank assembly and a second rod end attached to the second bell crank assembly; the connection between the first and second cable assemblies, first and second bell crank assemblies, and first connecting rod being configured such that depressing the pilot-side brake pedal (106, 116) moves the first cable assembly, first connecting rod, and second cable assembly in such a way as to cause a corresponding depression of the copilot-side brake pedal (108, 118).
An energy-storing container produced using a lightweight construction steel having the following chemical composition (in wt %): C 0.04 - 2% Mn 14 - 30% Al 1.5 - 12% Si 0.3 - 3% Cr 0.12 - 6%, and additionally one or more of the elements Ti, V, Nb, B, Zr, Mo, Ni, Cu, W, Co, P and N with up to 5% of each and up to 10% in total, the remainder being Fe including common steel tramp elements, wherein the specific alloy composition is selected to limit the α'-martensite content to no more than 3% before or after a deformation, with the proviso that the α'-martensite equivalent according to 0.1 * wt.% Mn + wt.% C + 0.5 * wt-% Al + 0.05 * wt.% Si is between 3.4 and 10.5. C 0.04 - 2% Mn 14 - 30% Al 1.5 - 12% Si 0.3 - 3% Cr 0.12 - 6%,
An image analysis apparatus for determining whether or not an image of a cancer tissue is included in a captured image comprising: space number calculation means configured to calculate, in the captured image (i) in which a tissue is captured and (ii) which has been binarized by use of a prescribed reference value as a threshold, the one-dimensional Betti number which is the number of spaces, each of which is surrounded by an outer edge(s) of a component(s) which is a graphic having a closed outer edge; characterized in that it further comprises determination means configured to determine, by comparing the one-dimensional Betti number, calculated by the space number calculation means, with predetermined reference values defining a range of one-dimensional Betti numbers of a normal tissue, whether or not an image of a cancer tissue is included in the captured image, wherein the determination means is configured to: determine that the captured image includes an image of a differentiated cancer tissue if the one-dimensional Betti number is above the range; and determine that the captured image includes an image of a poorly-differentiated cancer tissue if the one-dimensional Betti number is below the range, determine that the captured image is that of a normal tissue if the one-dimensional Betti number is within the range. space number calculation means configured to calculate, in the captured image (i) in which a tissue is captured and (ii) which has been binarized by use of a prescribed reference value as a threshold, the one-dimensional Betti number which is the number of spaces, each of which is surrounded by an outer edge(s) of a component(s) which is a graphic having a closed outer edge; characterized in that it further comprises determination means configured to determine, by comparing the one-dimensional Betti number, calculated by the space number calculation means, with predetermined reference values defining a range of one-dimensional Betti numbers of a normal tissue, whether or not an image of a cancer tissue is included in the captured image, wherein the determination means is configured to: determine that the captured image includes an image of a differentiated cancer tissue if the one-dimensional Betti number is above the range; and determine that the captured image includes an image of a poorly-differentiated cancer tissue if the one-dimensional Betti number is below the range, determine that the captured image is that of a normal tissue if the one-dimensional Betti number is within the range. determine that the captured image includes an image of a differentiated cancer tissue if the one-dimensional Betti number is above the range; and determine that the captured image includes an image of a poorly-differentiated cancer tissue if the one-dimensional Betti number is below the range, determine that the captured image is that of a normal tissue if the one-dimensional Betti number is within the range.
A system comprising: an image depth prediction neural network implemented by one or more computers, wherein the image depth prediction neural network is a recurrent neural network that is configured to receive a sequence of images and, for each image in the sequence: process the image in accordance with a current internal state of the recurrent neural network to (i) update the current internal state and (ii) generate a current depth map that characterizes a current depth of the image in the sequence; and an image generation subsystem configured to, for each image in the sequence: receive the current depth map that characterizes the current depth of the image, construct, based on the current depth map and the image, a plurality of three-dimensional points, each of the plurality of 3D points corresponding to a different pixel in the image, and generate a depth output that characterizes a predicted depth of a future image in the sequence by applying one or more transformation layers to the plurality of 3D points, wherein the depth output comprises a set of values defining the topology of a scene represented by the future image in a third, depth dimension. an image depth prediction neural network implemented by one or more computers, wherein the image depth prediction neural network is a recurrent neural network that is configured to receive a sequence of images and, for each image in the sequence: process the image in accordance with a current internal state of the recurrent neural network to (i) update the current internal state and (ii) generate a current depth map that characterizes a current depth of the image in the sequence; and an image generation subsystem configured to, for each image in the sequence: receive the current depth map that characterizes the current depth of the image, construct, based on the current depth map and the image, a plurality of three-dimensional points, each of the plurality of 3D points corresponding to a different pixel in the image, and generate a depth output that characterizes a predicted depth of a future image in the sequence by applying one or more transformation layers to the plurality of 3D points, wherein the depth output comprises a set of values defining the topology of a scene represented by the future image in a third, depth dimension. receive the current depth map that characterizes the current depth of the image, construct, based on the current depth map and the image, a plurality of three-dimensional points, each of the plurality of 3D points corresponding to a different pixel in the image, and generate a depth output that characterizes a predicted depth of a future image in the sequence by applying one or more transformation layers to the plurality of 3D points, wherein the depth output comprises a set of values defining the topology of a scene represented by the future image in a third, depth dimension.
A composite particle comprising: a fluorescent semiconductor core/shell nanoparticle; and a phthalic acid derivative attached to the core/shell nanoparticle outer surface, wherein the phthalic acid derivative has the following Formula: wherein: each R is independently a linear or branched alkyl group having 6 or more carbon atoms; and n is 1 or 2. a fluorescent semiconductor core/shell nanoparticle; and a phthalic acid derivative attached to the core/shell nanoparticle outer surface, wherein the phthalic acid derivative has the following Formula: wherein: each R is independently a linear or branched alkyl group having 6 or more carbon atoms; and n is 1 or 2. each R is independently a linear or branched alkyl group having 6 or more carbon atoms; and n is 1 or 2.
Ruminal by-pass composition suitable for ingestion by a ruminant, comprising - a non-protein nitrogen compound, and - a rumen by-pass agent, which allows ruminal by-pass of the non-protein nitrogen compound, wherein the rumen by-pass agent is a coating surrounding the non-protein nitrogen compound and said coating essentially consists of a hydrogenated vegetable oil, and the non-protein nitrogen compound is one or more compounds selected from the group consisting of urea; ammonium salts; methylene urea, biuret, acetamide, butyramide, dicyanoamide, formamide, ethylene urea, isobutanol diurea, lactosyl urea, propionamide, uric acid and urea phosphate, wherein the ratio of NPN compound to coating is from 83:17 to 75:25. - a non-protein nitrogen compound, and - a rumen by-pass agent, which allows ruminal by-pass of the non-protein nitrogen compound,
A coupled block copolymer composition comprising: (i) a diblock copolymer comprising one block of a monovinylaromatic hydrocarbon and one block of a conjugated diene having a peak molecular weight from 30,000 to 78,000, each block copolymer has a vinyl content from 8 to 80 mol percent based on the number of repeat monomer units in the conjugated diene block, (ii) a linear triblock copolymer having a peak molecular weight that is 1.5 to 3.0 times the peak molecular weight of the diblock copolymer, and (iii) a multi-arm coupled block copolymer having a peak molecular weight that is 1.5 to 9.0 times the peak molecular weight of the diblock copolymer, wherein the composition has a sufficient coupling efficiency to have a melt viscosity at less than 110°C of greater than 2.0E7 Poise; wherein the composition is prepared by coupling a diblock copolymer with a coupling agent such that the composition decouples at a temperature at or above 180°C and after 24 hours for a coupling efficiency of less than 25%. wherein the composition has a sufficient coupling efficiency to have a melt viscosity at less than 110°C of greater than 2.0E7 Poise; wherein the composition is prepared by coupling a diblock copolymer with a coupling agent such that the composition decouples at a temperature at or above 180°C and after 24 hours for a coupling efficiency of less than 25%.
A method for the diagnosis of tumoural conditions and/or of the corresponding state of advance, comprising the steps of: a. enriching a specimen of an organic fluid obtained from a patient, said organic fluid having a high probability of containing at least one circulating tumour cell or disseminated tumour cell or portions thereof in at least one population of cells comprising at least one type of circulating tumour cells or disseminated tumour cells or portions thereof; b. obtaining a purified specimen from amongst said at least one type of circulating tumour cells or disseminated tumour cells or portions thereof; c. performing a molecular analysis on said purified specimen, in such a way as to highlight at least one characteristic of said at least one cell suited to enabling said diagnosis; said method being characterized in that - said step of obtaining a purified specimen is carried out by isolating in a non-manual way at least one cell or portion of cell from amongst said at least one type of circulating tumour cells or disseminated tumour cells or portions thereof by individually selecting single cells or portions of cells on the basis of the evaluation of images of said cells in a microfluidic device so as to obtain a purified specimen having a purity of at least 90%; and - by comprising a step of labelling the circulating tumour cells or disseminated tumour cells or portions thereof with at least one type of tracer. a. enriching a specimen of an organic fluid obtained from a patient, said organic fluid having a high probability of containing at least one circulating tumour cell or disseminated tumour cell or portions thereof in at least one population of cells comprising at least one type of circulating tumour cells or disseminated tumour cells or portions thereof; b. obtaining a purified specimen from amongst said at least one type of circulating tumour cells or disseminated tumour cells or portions thereof; c. performing a molecular analysis on said purified specimen, in such a way as to highlight at least one characteristic of said at least one cell suited to enabling said diagnosis; - said step of obtaining a purified specimen is carried out by isolating in a non-manual way at least one cell or portion of cell from amongst said at least one type of circulating tumour cells or disseminated tumour cells or portions thereof by individually selecting single cells or portions of cells on the basis of the evaluation of images of said cells in a microfluidic device so as to obtain a purified specimen having a purity of at least 90%; and - by comprising a step of labelling the circulating tumour cells or disseminated tumour cells or portions thereof with at least one type of tracer.
Method for preparing for and carrying out a quality check on brushes, in particular toothbrushes and/or round brushes, during the production of brushes using an AI-based classifier, wherein the classifier is configured to classify brushes to be checked as defective brushes based on images of the brushes to be checked, characterized in that the classifier is trained using a training data set comprising images of defective brushes before carrying out the quality check.
A method for the simultaneous production of a solid transformation product of the substrate and crude ethanol comprising the following steps: • preparing a substrate from milled or flaked biomass comprising proteinaceous matter which originates from soya bean, rape seed, or mixtures thereof, optionally in further mixture with proteinaceous matter originating from fava beans, peas, sunflower seeds, lupine, cereals, and/or grasses, • mixing said substrate with live yeast in a dry matter ratio of from 1:1 to 10,000:1 and adding water in an amount which provides a water content from 35 % to 70 % by weight and a ratio of wet bulk density to dry bulk density from 0.60 to 1.45 in the resulting mixture; • incubating said mixture for 1-48 hours at a temperature of about 20-60 °C; and • separating crude ethanol and wet solid transformation product from said mixture; further comprising that said incubation is performed as a continuous plug-flow process in a vertical, non-agitated, closed incubation tank with inlet means for said mixture and additives and outlet means for said solid transformation product and crude ethanol. • preparing a substrate from milled or flaked biomass comprising proteinaceous matter which originates from soya bean, rape seed, or mixtures thereof, optionally in further mixture with proteinaceous matter originating from fava beans, peas, sunflower seeds, lupine, cereals, and/or grasses, • mixing said substrate with live yeast in a dry matter ratio of from 1:1 to 10,000:1 and adding water in an amount which provides a water content from 35 % to 70 % by weight and a ratio of wet bulk density to dry bulk density from 0.60 to 1.45 in the resulting mixture; • incubating said mixture for 1-48 hours at a temperature of about 20-60 °C; and • separating crude ethanol and wet solid transformation product from said mixture;