mhurhangee/patent-ind-claim-en huggingface dataset:
Autologous genetically modified cells for use in a method for treating a patient suffering from a type VII collagen (C7) deficiency, wherein said method comprises: (i) contacting cells, obtained from the dermis or epidermis of the C7-deficient patient, with a transducing lentiviral vector comprising a nucleotide sequence encoding COL7A1 or a functional variant thereof to form the autologous genetically modified cells having a vector copy number wherein said lentiviral vector has a transducing vector copy number in the range of 0.1 to 5.0 copies per cell; (ii) culturing said autologous genetically modified cells; and (iii) administering an effective amount of the genetically modified cells to the C7-deficient patient, wherein the transducing lentiviral vector further comprises (a) a modified 5' long terminal repeat (LTR), wherein the promoter of the modified 5' LTR is a cytomegalovirus promoter, (b) at least one lentiviral central polypurine tract element, and (c) a modified 3' LTR, wherein the modified 3' LTR comprises a deletion relative to the wild-type 3' LTR, wherein a hepatitis virus post-transcriptional regulatory element (PRE) has been deleted. (i) contacting cells, obtained from the dermis or epidermis of the C7-deficient patient, with a transducing lentiviral vector comprising a nucleotide sequence encoding COL7A1 or a functional variant thereof to form the autologous genetically modified cells having a vector copy number wherein said lentiviral vector has a transducing vector copy number in the range of 0.1 to 5.0 copies per cell; (ii) culturing said autologous genetically modified cells; and (iii) administering an effective amount of the genetically modified cells to the C7-deficient patient,
A high pressure carbamate condenser comprising a shell-and-tube heat exchanger which comprises a vessel which comprises a shell and at least one tube bundle , wherein the shell encloses a vessel space , wherein the tube bundle comprises tubes having ends , and wherein a shell space is provided between the tubes and the shell , wherein the heat exchanger further comprises a redistribution chamber located in said vessel space , wherein said redistribution chamber comprises a wall for separating a first fluid in the shell space from a second fluid inside the redistribution chamber , wherein a plurality of said tubes are connected to a single redistribution chamber such that said second fluid can flow between said tubes and said redistribution chamber , wherein the condenser further comprises a duct extending from an opening for the second fluid in said shell through said vessel space to said redistribution chamber , such that the second fluid can flow between a tube end and said opening for the second fluid in said shell through said redistribution chamber and said duct . wherein the heat exchanger further comprises a redistribution chamber located in said vessel space , wherein said redistribution chamber comprises a wall for separating a first fluid in the shell space from a second fluid inside the redistribution chamber , wherein a plurality of said tubes are connected to a single redistribution chamber such that said second fluid can flow between said tubes and said redistribution chamber , wherein the condenser further comprises a duct extending from an opening for the second fluid in said shell through said vessel space to said redistribution chamber , such that the second fluid can flow between a tube end and said opening for the second fluid in said shell through said redistribution chamber and said duct .
Apparatus for determining and/or monitoring the flow of a medium through a measuring tube , with a sensor housing and with an ultrasonic sensor arranged in the sensor housing , said ultrasonic sensor having a coupling element and an electromechanical ultrasonic transducer element , characterized in that the sensor housing has a slot in a first interior area of the sensor housing, wherein the ultrasonic sensor projects into said slot and wherein the ultrasonic sensor is mounted in the sensor housing parallel to the first interior area of the sensor housing in a manner in which it can move in the longitudinal direction of the sensor housing, wherein the slot extends in the longitudinal direction of the sensor housing, wherein the coupling element is applied using stop lugs on the first interior area of the sensor housing , and in that a guide bracket of the sensor housing rests against a second interior area of the sensor housing , situated opposite the first interior area , wherein the ultrasonic sensor is mounted in the guide bracket perpendicular to the first interior area in a manner in which it can be moved, wherein a spring of the sensor housing between the guide bracket and the ultrasonic sensor acts perpendicular to the first interior area , wherein at least a part of the coupling element projects into the slot with a surface for coupling and/or decoupling the ultrasonic signals of the ultrasonic sensor , wherein the surface is designed to be in contact with the measuring tube.
A composite fertilizer, comprising two functional components of polyglutamic acid and magnesium ammonium phosphate, wherein a weight ratio of the polyglutamic acid to the magnesium ammonium phosphate is 1: 100 to 10,000.
A method for predicting cancer progression in a subject having cancer comprising determining the size of circulating cancer associated macrophage-like cells (CAMLs) in a biological sample obtained from a subject having cancer, and making a prediction based thereon, wherein when each CAML in the sample is less than about 50 μm in size, the cancer is predicted not to progress, and wherein when at least one CAML in the sample is about 50 μm or more in size, the cancer is predicted to progress.
A computing device, comprising: a processor configured to: identify a timing parameter synchronized to a media timeline; receive an MPEG-DASH event scheme comprising a payload, the payload indicating a uniform resource locator, URL, template for enabling the computing device to respond to an MPEG-DASH callback event using at least one client-side URL parameter; compute the at least one client-side URL parameter; generate, at a time based on the timing parameter, a URL based on the URL template that is received in the payload of the MPEG-DASH event scheme and the at least one computed client-side URL parameter; send, at a time based on the timing parameter, an HTTP GET Request using the generated URL to respond to the MPEG-DASH callback event; receive an HTTP Response in response to the HTTP GET Request; and disregard the HTTP Response received in response to the HTTP GET Request without parsing contents of the HTTP Response. identify a timing parameter synchronized to a media timeline; receive an MPEG-DASH event scheme comprising a payload, the payload indicating a uniform resource locator, URL, template for enabling the computing device to respond to an MPEG-DASH callback event using at least one client-side URL parameter; compute the at least one client-side URL parameter; generate, at a time based on the timing parameter, a URL based on the URL template that is received in the payload of the MPEG-DASH event scheme and the at least one computed client-side URL parameter; send, at a time based on the timing parameter, an HTTP GET Request using the generated URL to respond to the MPEG-DASH callback event; receive an HTTP Response in response to the HTTP GET Request; and disregard the HTTP Response received in response to the HTTP GET Request without parsing contents of the HTTP Response.
A method executed on a processor for selectively presenting augmented reality, AR, information, said method comprising: detecting a plurality of real-world objects in a field of view of a user; selecting from the plurality of real-world objects a first group of at least one real-world object less than a first distance from the user in the field of view; selecting from the plurality of real-world objects a second group of at least one real-world object in the field of view of the user between the first distance and a second distance from the user greater than the first distance; augmenting the first group of real-world objects at a first time; and augmenting the second group of real-world objects at a second time after the first time; wherein the augmenting of at least the first and second group of real-world objects is performed cyclically, each group being augmented at different times in each of a plurality of cycles. detecting a plurality of real-world objects in a field of view of a user; selecting from the plurality of real-world objects a first group of at least one real-world object less than a first distance from the user in the field of view; selecting from the plurality of real-world objects a second group of at least one real-world object in the field of view of the user between the first distance and a second distance from the user greater than the first distance; augmenting the first group of real-world objects at a first time; and augmenting the second group of real-world objects at a second time after the first time; wherein the augmenting of at least the first and second group of real-world objects is performed cyclically, each group being augmented at different times in each of a plurality of cycles.
A system for operating a vehicle, said system comprising: an object-detector used to detect one or more targets proximate to a host-vehicle , said host-vehicle operable in an autonomous-mode and a manual-mode ; and an operator-monitor used to detect a gaze-direction of an operator of the host-vehicle , characterized in that the system further comprises a controller-circuit in communication with the object-detector and the operator-monitor , said controller-circuit configured to determine a classification of each target detected by the object-detector , said classification includes a primary-target and an ignored-target , determine that a hand-over of operation of the host-vehicle from the autonomous-mode to the manual-mode is recommended, perform a verification that the operator has gazed at each primary-target more recently than a primary-time , and in response to the verification , execute the hand-over . an object-detector used to detect one or more targets proximate to a host-vehicle , said host-vehicle operable in an autonomous-mode and a manual-mode ; and an operator-monitor used to detect a gaze-direction of an operator of the host-vehicle , characterized in that the system further comprises a controller-circuit in communication with the object-detector and the operator-monitor , said controller-circuit configured to determine a classification of each target detected by the object-detector , said classification includes a primary-target and an ignored-target , determine that a hand-over of operation of the host-vehicle from the autonomous-mode to the manual-mode is recommended, perform a verification that the operator has gazed at each primary-target more recently than a primary-time , and in response to the verification , execute the hand-over .
A method of recovering products from slag generated from an iron or steel making process comprising: collecting an amount of slag generated from an iron or steel making process; isolating a non-magnetic-material-enriched portion from said slag; collecting a leachate from said non-magnetic-material-enriched portion comprising metal oxides, metal carbonates, and rare-earth elements; precipitating at least one of said metal oxides and said metal carbonates from said leachate; and collecting waste water and rare-earth elements from said leachate. collecting an amount of slag generated from an iron or steel making process; isolating a non-magnetic-material-enriched portion from said slag; collecting a leachate from said non-magnetic-material-enriched portion comprising metal oxides, metal carbonates, and rare-earth elements; precipitating at least one of said metal oxides and said metal carbonates from said leachate; and collecting waste water and rare-earth elements from said leachate.
Dental suction arrangement for the removal of saliva and other fluids, where the suction arrangement includes a suction line and an absorption body to be placed for the removal of saliva and other fluids, whereby the suction line includes a suction part which is arranged in the absorption body and which is equipped with hole members (104, 904a-e) communicating with the absorption body, wherein the suction line has a prefabricated form and size for positioning said absorption body at the bottom of a cavity, or close to said bottom, wherein the absorption body is made of elastically deformable and adaptable material in order to adapt it to the desired shape, and said hole members (104, 904a-e) are distributed along the longitudinal extent of said suction part as well as on its periphery, and that the suction part is detachable connected with the rest of the suction line together with its associated absorption body and the suction tube 101 has an exposed part 102 which is visible and bent to be fixed around the patient's chin and said suction line is configured to extend along an elevated portion upward from said bottom, and at least partially surrounding said portion for secure fixing, and the dental suction arrangement comprises a tongue holder that has a structured surface.
A method of implementing a photo filter module with instructions executed by a processor in a server , the server being operative in a networked environment with a plurality of mobile client devices (100_1-100_N), the method comprising: the server identifying when one of said client device (100_1) captures a photograph; the server selecting photograph filters based upon attributes of the client device and attributes of the photograph, wherein the attributes of the client device include geolocation of the client device wherein each photograph filter is in the form of an overlay on top of the photograph to augment the photograph, and wherein at least one photograph filter is configured for the geolocation; the server supplying the photograph filters to the client device, wherein the photograph filters are configured to be independently selectable by the user, the client device in response to a gesture successively applied by a user to the photograph as presented on a display of the client device successively applying the photograph filters to the photograph and presenting the filtered photograph to the user without previously being selected by the user, the filters then being independently selectable by the user; and in response to a photograph with a selected one or more photograph filters being received from the client device, the server routing the one or more photograph filters and the photograph to another client device (100-2). the server identifying when one of said client device (100_1) captures a photograph; the server selecting photograph filters based upon attributes of the client device and attributes of the photograph, wherein the attributes of the client device include geolocation of the client device wherein each photograph filter is in the form of an overlay on top of the photograph to augment the photograph, and wherein at least one photograph filter is configured for the geolocation; the server supplying the photograph filters to the client device, wherein the photograph filters are configured to be independently selectable by the user, the client device in response to a gesture successively applied by a user to the photograph as presented on a display of the client device successively applying the photograph filters to the photograph and presenting the filtered photograph to the user without previously being selected by the user, the filters then being independently selectable by the user; and in response to a photograph with a selected one or more photograph filters being received from the client device, the server routing the one or more photograph filters and the photograph to another client device (100-2).
A method for performing a machine vision process for finding and decoding a symbol in an image using a camera having a multi-focus lens having a lens field of view where the lens can be set at different focus positions the method comprising the steps of: positioning at least one of the camera and a symbol to be imaged so the lens field of view is directed at the symbol to be imaged; and setting an image formation setting; characterized in that the method further comprises the steps of: obtaining a subset of images at each of a plurality of different lens focus positions where the image formation setting is different for each of the images obtained at each lens focus position; and after each image is obtained and while obtaining additional images, attempting to perform the machine vision process on the images; wherein the machine vision process includes one of locating a symbol in obtained images and decoding a symbol in obtained images. positioning at least one of the camera and a symbol to be imaged so the lens field of view is directed at the symbol to be imaged; and setting an image formation setting; characterized in that the method further comprises the steps of: obtaining a subset of images at each of a plurality of different lens focus positions where the image formation setting is different for each of the images obtained at each lens focus position; and after each image is obtained and while obtaining additional images, attempting to perform the machine vision process on the images; wherein the machine vision process includes one of locating a symbol in obtained images and decoding a symbol in obtained images. obtaining a subset of images at each of a plurality of different lens focus positions where the image formation setting is different for each of the images obtained at each lens focus position; and after each image is obtained and while obtaining additional images, attempting to perform the machine vision process on the images; wherein the machine vision process includes one of locating a symbol in obtained images and decoding a symbol in obtained images.
A method of correcting eye coordinates, the method being performed by a 3D rendering apparatus for generating an image to be displayed on a panel of a 3D display to generate a light field in a 3D space, the method comprising: detecting eye coordinates of positions of eyes of a user from an image of the user, the user using a 3D display; calculating a first result value by applying a Snell's law formula to rays output from first pixels passing through positions of a surface plane , wherein the surface plane corresponds to a surface of the 3D display, wherein the surface is a boundary between two transparent materials with different optical properties, and wherein the first pixels are a portion of pixels in a single frame; calculating a second result value by applying a paraxial approximation to the rays output from the first pixels; adjusting the eye coordinates to corrected eye coordinates to minimize an evaluation function that is based on a difference between the first result value and the second result value, wherein the corrected eye coordinates reduce crosstalk caused by refraction of light. detecting eye coordinates of positions of eyes of a user from an image of the user, the user using a 3D display; calculating a first result value by applying a Snell's law formula to rays output from first pixels passing through positions of a surface plane , wherein the surface plane corresponds to a surface of the 3D display, wherein the surface is a boundary between two transparent materials with different optical properties, and wherein the first pixels are a portion of pixels in a single frame; calculating a second result value by applying a paraxial approximation to the rays output from the first pixels; adjusting the eye coordinates to corrected eye coordinates to minimize an evaluation function that is based on a difference between the first result value and the second result value, wherein the corrected eye coordinates reduce crosstalk caused by refraction of light.
A fast coupling for manufacturing a separable connection in a fluid line with a coupling body , an insertion part , a holder and a securing element , wherein the coupling body has a through bore , wherein the holder can be used to preferably reversibly secure the insertion part introduced into the through bore in the through bore , wherein the holder has an annular carcass , wherein the securing element has an annular body , wherein the annular carcass and annular body circle around the insertion part and/or coupling body , and wherein the securing element can be displaced in an axial direction in relation to the through bore from a free position into a securing position when the insertion part is secured in the through bore with the holder , characterized in that a securing element-side coupling element is designed as a coupling projection , wherein a holder-side complementary coupling element is designed as a coupling opening , and wherein the coupling projection is arranged in the coupling opening in the free position of the securing element and interacts with the latter.
Optically sampled Analog-to-Digital Converter comprising - an optical source providing radiation of one single wavelength; - an electro-optic modulator sampling an analogue signal provided at an electrical input; - a de-multiplexer de-multiplexing the optically sampled signal; - photodetectors converting the optically sampled signal into electrical signals; - transimpedance amplifiers amplifying the electrical signals and - electrical analogue-to-digital converters converting the amplified signals into digital signals; whereby except to the optical source all electrical and photonic components are integrated on one chip, characterized by additionally comprising a multi wavelength generator as a ring resonator generating several wavelengths of the single wavelength radiation of the optical source and a chromatic dispersion element shifting the generated several wavelengths in time and introducing different delays to each of the several wavelengths. - an optical source providing radiation of one single wavelength; - an electro-optic modulator sampling an analogue signal provided at an electrical input; - a de-multiplexer de-multiplexing the optically sampled signal; - photodetectors converting the optically sampled signal into electrical signals; - transimpedance amplifiers amplifying the electrical signals and - electrical analogue-to-digital converters converting the amplified signals into digital signals; whereby except to the optical source all electrical and photonic components are integrated on one chip,