mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented method, comprising: obtaining a first image that depicts first text written in a source language; inputting the first image into an image feature extractor that is trained to extract, from an input image, a set of image features that are a description of a portion of the input image in which the text is depicted; obtaining, from the feature extractor and in response to inputting the first image into the feature extractor, a first set of image features representing the first text present in the first image; inputting the first set of image features into a decoder, wherein the decoder is trained to infer text in a target language from an input set of image features, wherein the inferred text is a predicted translation of text represented by the input set of image features; and obtaining, from the decoder and in response to inputting the first set of image features into the decoder, a second text that is in a target language and is predicted to be a translation of the first text; wherein the feature extractor and the decoder are trained using a single loss function. obtaining a first image that depicts first text written in a source language; inputting the first image into an image feature extractor that is trained to extract, from an input image, a set of image features that are a description of a portion of the input image in which the text is depicted; obtaining, from the feature extractor and in response to inputting the first image into the feature extractor, a first set of image features representing the first text present in the first image; inputting the first set of image features into a decoder, wherein the decoder is trained to infer text in a target language from an input set of image features, wherein the inferred text is a predicted translation of text represented by the input set of image features; and obtaining, from the decoder and in response to inputting the first set of image features into the decoder, a second text that is in a target language and is predicted to be a translation of the first text; wherein the feature extractor and the decoder are trained using a single loss function.
Method for lane change assistance, wherein a motor vehicle is driving on a first lane of a road in a direction with a lane change request, wherein at least one object in an area surrounding the motor vehicle on a second lane adjacent to the first lane is identified with the aid of environmental sensors , wherein a relative position (P) of the at least one object to the motor vehicle is determined in motor vehicle coordinates , wherein a course of a lane marking which separates the first lane and the second lane from one another is determined in motor vehicle coordinates in the direction of travel in front of the motor vehicle , wherein a trajectory of the motor vehicle is determined in motor vehicle coordinates using motor vehicle sensors , wherein for the at least one object an object zone (λp, δp) is determined, wherein a motor vehicle zone is determined within which there is a risk of collision, wherein the motor vehicle zone lies on the second lane , wherein it is checked whether the motor vehicle zone and the object zone (λp, δp) overlap, wherein, if the motor vehicle zone and the object zone (λp, δp) overlap, a signal defining a risk of collision is generated, wherein the motor vehicle zone and the object zone (λp, δp) are specified in λ - δ coordinates, wherein δ describes a distance of a point (P) of the object zone (λp, δp) from the lane marking , wherein λ describes a length along the lane marking , characterized in that the motor vehicle zone in λ- δ coordinates along the lane marking in a predetermined width (b2), wherein a length ( λK ) of the lane marking is determined as the product of a maximum time and the relative speed (v2x-v42) of the motor vehicle and the at least one object to one another.
A method for predicting responsiveness of a house dust mite allergic patient to immunotherapy, which method comprises a) measuring the abundance of IL-10 mRNA in a whole blood cell sample from said patient, b) comparing said abundance of IL-10 mRNA with a control, c) identifying said patient as likely to be a responder or non-responder to immunotherapy based on the comparison with the control, wherein said whole blood cell sample is taken before the commencement of immunotherapy, and wherein said immunotherapy comprises administration of a house dust mite allergen to said patient in order to treat house dust mite allergy, wherein step c) is performed by: (i) determining that the patient is likely to be a responder to immunotherapy if the control is derived from a responder subject, or group of responder subjects, known to respond to said immunotherapy, and if abundance of IL-10 mRNA in the patient sample is equal to or greater than the level of expression in the control; or (ii) determining that the patient is likely to be a responder to immunotherapy if the control is derived from a non-responder subject, or group of non-responder subjects, and if abundance of IL-10 mRNA in the patient sample is greater than the level of expression in the control; or (iii) determining that the patient is likely to be a responder to immunotherapy if the control is derived from a randomly selected group of subjects, and if abundance of IL-10 mRNA in the patient sample is greater than the level of expression in the control. a) measuring the abundance of IL-10 mRNA in a whole blood cell sample from said patient, b) comparing said abundance of IL-10 mRNA with a control, c) identifying said patient as likely to be a responder or non-responder to immunotherapy based on the comparison with the control, (i) determining that the patient is likely to be a responder to immunotherapy if the control is derived from a responder subject, or group of responder subjects, known to respond to said immunotherapy, and if abundance of IL-10 mRNA in the patient sample is equal to or greater than the level of expression in the control; or (ii) determining that the patient is likely to be a responder to immunotherapy if the control is derived from a non-responder subject, or group of non-responder subjects, and if abundance of IL-10 mRNA in the patient sample is greater than the level of expression in the control; or (iii) determining that the patient is likely to be a responder to immunotherapy if the control is derived from a randomly selected group of subjects, and if abundance of IL-10 mRNA in the patient sample is greater than the level of expression in the control.
An apparatus for characterizing a tissue in a first region of a subject, the apparatus comprising: a receiving unit configured to receive ultrasound data of the tissue in the first region and ultrasound data of a pre-determined target reference tissue of said subject; a deriving unit configured to derive a subject-specific model of the target reference tissue on the basis of the ultrasound data of the target reference tissue; and a characterizing unit configured to determine a match between the tissue in the first region and the target reference tissue on the basis of the derived subject-specific model and the ultrasound data of the tissue in the first region. a receiving unit configured to receive ultrasound data of the tissue in the first region and ultrasound data of a pre-determined target reference tissue of said subject; a deriving unit configured to derive a subject-specific model of the target reference tissue on the basis of the ultrasound data of the target reference tissue; and a characterizing unit configured to determine a match between the tissue in the first region and the target reference tissue on the basis of the derived subject-specific model and the ultrasound data of the tissue in the first region.
An inline substrate processing system for processing a plurality of substrates, comprising: a vacuum processing chamber ; a first loadlock chamber coupled to a first side of the vacuum processing chamber ; a first exchange station coupled to the first loadlock chamber opposite the vacuum processing chamber ; a second loadlock chamber coupled to a second side of the vacuum processing chamber , opposite the first side; a second exchange station coupled to the second loadlock chamber opposite the vacuum processing chamber ; a first exchange mechanism positioned in the first exchange station and operable to load fresh substrates into the first exchange station and remove processed substrates from the first exchange station; an upper hanger comprising drive rails and a plate structured to support a plurality of substrates; a lower hanger comprising drive rails and a plate structured to a plurality of substrates, and a transport mechanism structured to move the upper hanger and the lower hanger into and out of the vacuum processing chamber ; a susceptor positioned on a pedestal within the vacuum processing chamber , the pedestal comprising a heater ; an exchanger structured to exchange a plurality of substrates between the upper hanger and the susceptor and between the lower hanger and the susceptor , the exchanger comprising a plurality of lift pins , one lift pin for each substrate position, such that the plurality of lift pins are positioned for lifting each individual substrate of the plurality of substrates from the upper or lower hanger, and deposit the plurality of substrates onto the susceptor. a vacuum processing chamber ; a first loadlock chamber coupled to a first side of the vacuum processing chamber ; a first exchange station coupled to the first loadlock chamber opposite the vacuum processing chamber ; a second loadlock chamber coupled to a second side of the vacuum processing chamber , opposite the first side; a second exchange station coupled to the second loadlock chamber opposite the vacuum processing chamber ; a first exchange mechanism positioned in the first exchange station and operable to load fresh substrates into the first exchange station and remove processed substrates from the first exchange station; an upper hanger comprising drive rails and a plate structured to support a plurality of substrates; a lower hanger comprising drive rails and a plate structured to a plurality of substrates, and a transport mechanism structured to move the upper hanger and the lower hanger into and out of the vacuum processing chamber ; a susceptor positioned on a pedestal within the vacuum processing chamber , the pedestal comprising a heater ; an exchanger structured to exchange a plurality of substrates between the upper hanger and the susceptor and between the lower hanger and the susceptor , the exchanger comprising a plurality of lift pins , one lift pin for each substrate position, such that the plurality of lift pins are positioned for lifting each individual substrate of the plurality of substrates from the upper or lower hanger, and deposit the plurality of substrates onto the susceptor.
A method of identifying inflow locations and fluid phase along a wellbore , the method comprising: obtaining an acoustic signal from a sensor within the wellbore , wherein the acoustic signal comprises acoustic samples across a portion of a depth of the wellbore ; determining a plurality of frequency domain features from the acoustic signal, wherein the plurality of frequency domain features are obtained across a plurality of depth intervals within the portion of the depth of the wellbore ; and characterized by identifying , using an output of a plurality of fluid flow models, a presence of at least one of a gas phase inflow, an aqueous phase inflow, or a hydrocarbon liquid phase inflow at one or more fluid inflow locations, wherein each fluid flow model of the plurality of fluid flow models uses, as inputs, one or more frequency domain features of the plurality of the frequency domain features, wherein each fluid flow model of the plurality of fluid flow models is a machine learning model, wherein each of the fluid flow models of the plurality of fluid flow models identifies as an output one of: a presence of at least one of a gas phase inflow, an aqueous phase inflow, and a hydrocarbon liquid phase inflow at one or more depth intervals of the plurality of depth intervals along the wellbore, and wherein at least two of the plurality of fluid flow models are different. obtaining an acoustic signal from a sensor within the wellbore , wherein the acoustic signal comprises acoustic samples across a portion of a depth of the wellbore ; determining a plurality of frequency domain features from the acoustic signal, wherein the plurality of frequency domain features are obtained across a plurality of depth intervals within the portion of the depth of the wellbore ; and characterized by identifying , using an output of a plurality of fluid flow models, a presence of at least one of a gas phase inflow, an aqueous phase inflow, or a hydrocarbon liquid phase inflow at one or more fluid inflow locations, wherein each fluid flow model of the plurality of fluid flow models uses, as inputs, one or more frequency domain features of the plurality of the frequency domain features, wherein each fluid flow model of the plurality of fluid flow models is a machine learning model, wherein each of the fluid flow models of the plurality of fluid flow models identifies as an output one of: a presence of at least one of a gas phase inflow, an aqueous phase inflow, and a hydrocarbon liquid phase inflow at one or more depth intervals of the plurality of depth intervals along the wellbore, and wherein at least two of the plurality of fluid flow models are different.
An isolated peptide being no longer than ten amino acids comprising the amino acid sequence as set forth in SEQ ID NO: 21 wherein the peptide is capable of reducing the amount of dexamethasone-induced spleen and/or thymus weight loss in a mouse.
Steering column for a motor vehicle, comprising a support unit , an adjustment unit which rotatably supports a steering spindle and is adjustably mounted on the support unit , an adjusting device for moving the adjustment unit relative to the support unit , a control unit for operating the adjusting device , and a monitoring device which is set up to influence the movement of the adjustment unit , when a fault is detected, characterized in that the fault is determined by detecting a thermal overload, a computing unit being provided which determines the thermal overload with the aid of a dynamic thermal model , the dynamic thermal model being designed in such a way that heat dissipation to the environment via housing parts of the steering column and/or the adjusting device is taken into account.
A compound of formula: or a pharmaceutical composition comprising said compound for use in a method of treating cancer resulting from a premature stop codon in a patient, wherein said cancer is head and neck, eye, skin, mouth, throat, esophagus, chest, bone, lung, colon, sigmoid, rectum, stomach, prostate, breast, ovaries, kidney, liver, pancreas, brain, intestine, heart, adrenals, a solid tumor, sarcoma, carcinomas, fibrosarcoma, myxosarcoma, liposarcoma, chondrosarcoma, osteogenic sarcoma, chordoma, angiosarcoma, endotheliosarcoma, lymphangiosarcoma, lymphangioendotheliosarcoma, synovioma, mesothelioma, Ewing's tumor, leiomyosarcoma, rhabdomyosarcoma, squamous cell carcinoma, basal cell carcinoma, adenocarcinoma, sweat gland carcinoma, sebaceous gland carcinoma, papillary carcinoma, papillary adenocarcinomas, cystadenocarcinoma, medullary carcinoma, bronchogenic carcinoma, renal cell carcinoma, hepatoma, bile duct carcinoma, choriocarcinoma, seminoma, embryonal carcinoma, Wilms' tumor, cervical cancer, testicular tumor, lung carcinoma, small cell lung carcinoma, bladder carcinoma, epithelial carcinoma, glioma, astrocytoma, medulloblastoma, craniopharyngioma, ependymoma, Kaposi's sarcoma, pinealoma, hemangioblastoma, acoustic neuroma, oligodendroglioma, menangioma, melanoma, neuroblastoma, retinoblastoma, a blood-born tumor, acute lymphoblastic leukemia, acute lymphoblastic B-cell leukemia, acute lymphoblastic T-cell leukemia, acute myeloblastic leukemia, acute promyelocytic leukemia, acute monoblastic leukemia, acute erythroleukemic leukemia, acute megakaryoblastic leukemia, acute myelomonocytic leukemia, acute nonlymphocyctic leukemia, acute undifferentiated leukemia, chronic myelocytic leukemia, chronic lymphocytic leukemia, hairy cell leukemia, multiple myeloma, or p53 -associated.
A Bluetooth earphone , comprising an earbud portion and an earphone handle portion , wherein an earpiece module is disposed in the earbud portion , the earphone handle portion comprises a connecting section connected to the earbud portion , and a top section and a bottom section located on both sides of the connecting section , and a battery is disposed in the bottom section of the earphone handle portion ; and the Bluetooth earphone comprises an antenna architecture , the antenna architecture comprises: an antenna , the antenna extends from the connecting section of the earphone handle portion to the top section of the earphone handle portion ; and a flexible circuit board , comprising a feeding part and a first extension part connected to the feeding part , wherein the feeding part and the first extension part are conductive, and wherein the feeding part is located in the connecting section of the earphone handle portion , and is coupled to the antenna , and the first extension part extends into the earbud portion , wherein the antenna comprises a feeding end and a tail end that is away from the feeding end , the feeding end is coupled to the feeding part wherein the feeding part comprises a feeding position coupled to the antenna , the first extension part comprises a first end portion that is away from the feeding part . an antenna , the antenna extends from the connecting section of the earphone handle portion to the top section of the earphone handle portion ; and a flexible circuit board , comprising a feeding part and a first extension part connected to the feeding part , wherein the feeding part and the first extension part are conductive, and wherein the feeding part is located in the connecting section of the earphone handle portion , and is coupled to the antenna , and the first extension part extends into the earbud portion , wherein the antenna comprises a feeding end and a tail end that is away from the feeding end , the feeding end is coupled to the feeding part wherein the feeding part comprises a feeding position coupled to the antenna , the first extension part comprises a first end portion that is away from the feeding part .
Sensor for measuring heart sounds, circulatory effects and core temperature of an organism comprising a first layer with electrodes in electrical connection with the organism, a second layer comprising a thermally insulating material and placed on top of the first layer , a third layer provided on the second layer, a first temperature sensor in thermal connection with the first layer via a thermal conductor through the second layer , a second temperature sensor thermally insulated from the organism and in thermal connection with the third layer, wherein the first and second temperature sensors are located above the second layer , a sensor instrumental amplifier ECG device operatively connected to the electrodes , located on the first layer , wherein the electrodes function as ECG electrodes , and a sound sensor located on the third layer in the bottom of a cut out of the first and second layer, forming a cavity for sound to more optimally travel to the sound sensor. a first layer with electrodes in electrical connection with the organism, a second layer comprising a thermally insulating material and placed on top of the first layer , a third layer provided on the second layer, a first temperature sensor in thermal connection with the first layer via a thermal conductor through the second layer , a second temperature sensor thermally insulated from the organism and in thermal connection with the third layer, wherein the first and second temperature sensors are located above the second layer , a sensor instrumental amplifier ECG device operatively connected to the electrodes , located on the first layer , wherein the electrodes function as ECG electrodes , and a sound sensor located on the third layer in the bottom of a cut out of the first and second layer, forming a cavity for sound to more optimally travel to the sound sensor.
An adhesive composition for use in a method of adhering tissue or organs in vivo, the adhesive composition comprising: tannin; poly(ethylene glycol); and a C1-C6 alcohol, wherein the poly(ethylene glycol) has a molecular weight of 1,000-100,000 Dalton.
A mirror system comprising: a protective portion ; a mirror assembly configured to be at least partially receivable by the protective portion , and to be completely separable from the protective portion , the mirror assembly comprising: a housing portion ; a mirror coupled with the housing portion ; a light source ; a light conveying channel ; and an actuator configured to automatically activate the light source when at least a portion of the mirror assembly is removed from the protective portion as the mirror assembly is completely separated from the protective portion , and to automatically deactivate the light source when the mirror assembly is received by the protective portion . a protective portion ; a mirror assembly configured to be at least partially receivable by the protective portion , and to be completely separable from the protective portion , the mirror assembly comprising: a housing portion ; a mirror coupled with the housing portion ; a light source ; a light conveying channel ; and an actuator configured to automatically activate the light source when at least a portion of the mirror assembly is removed from the protective portion as the mirror assembly is completely separated from the protective portion , and to automatically deactivate the light source when the mirror assembly is received by the protective portion . a housing portion ; a mirror coupled with the housing portion ; a light source ; a light conveying channel ; and an actuator configured to automatically activate the light source when at least a portion of the mirror assembly is removed from the protective portion as the mirror assembly is completely separated from the protective portion , and to automatically deactivate the light source when the mirror assembly is received by the protective portion .
A bonding body comprising: an aluminum member composed of aluminum; and a metal member composed of one of copper and silver, wherein the aluminum member and the metal member are bonded together, wherein in a bonding portion between the aluminum member and the metal member, a Ti layer and an Al-Ti-Si layer are formed, the Ti layer being disposed at the metal member side; and the Al-Ti-Si layer being disposed between the Ti layer and the aluminum member and containing Si which is solid-solubilized into Al 3 Ti, and wherein the Al-Ti-Si layer includes: a first Al-Ti-Si layer formed at the Ti layer side; and a second Al-Ti-Si layer formed at the aluminum member side and a Si concentration of which is lower than a Si concentration of the first Al-Ti-Si layer. an aluminum member composed of aluminum; and a metal member composed of one of copper and silver, wherein the aluminum member and the metal member are bonded together, wherein in a bonding portion between the aluminum member and the metal member, a Ti layer and an Al-Ti-Si layer are formed, the Ti layer being disposed at the metal member side; and the Al-Ti-Si layer being disposed between the Ti layer and the aluminum member and containing Si which is solid-solubilized into Al 3 Ti, and wherein the Al-Ti-Si layer includes: a first Al-Ti-Si layer formed at the Ti layer side; and a second Al-Ti-Si layer formed at the aluminum member side and a Si concentration of which is lower than a Si concentration of the first Al-Ti-Si layer. a first Al-Ti-Si layer formed at the Ti layer side; and a second Al-Ti-Si layer formed at the aluminum member side and a Si concentration of which is lower than a Si concentration of the first Al-Ti-Si layer.