mhurhangee/patent-ind-claim-en huggingface dataset:
A photographing apparatus for photographing an image through a multiple exposure sensor, the photographing apparatus comprising: an image sensor including a plurality of pixels comprising a plurality of colors; input circuitry configured to receive an input of a photographing command; and a processor configured to: control exposure times to be different for each of a plurality of pixel groups in which the plurality of pixels are grouped by color, in response to a photographing command being input through the input circuitry; and acquire, through the image sensor during a single aperture opening time, a multiple exposure image in which segmented motions of a moving subject are represented by different colors and/or brightness, based on the different exposure times for each of the plurality of pixel groups. an image sensor including a plurality of pixels comprising a plurality of colors; input circuitry configured to receive an input of a photographing command; and a processor configured to: control exposure times to be different for each of a plurality of pixel groups in which the plurality of pixels are grouped by color, in response to a photographing command being input through the input circuitry; and acquire, through the image sensor during a single aperture opening time, a multiple exposure image in which segmented motions of a moving subject are represented by different colors and/or brightness, based on the different exposure times for each of the plurality of pixel groups. control exposure times to be different for each of a plurality of pixel groups in which the plurality of pixels are grouped by color, in response to a photographing command being input through the input circuitry; and acquire, through the image sensor during a single aperture opening time, a multiple exposure image in which segmented motions of a moving subject are represented by different colors and/or brightness, based on the different exposure times for each of the plurality of pixel groups.
Device for levelling out a screed recess for the installation of a shower tray or bathtub comprising a supporting structure , which receives at least one support plate , wherein the supporting structure has a support frame adjustable in length and/or width, on which at least four supports infinitely adjustable in length are arranged and which is provided with intermediate struts , whose position is adjustable within the support frame and to which the at least one support plate can be attached, wherein the supporting structure has at least two support plates and wherein the frame struts and the intermediate struts have support webs complementing each other to form receptacles, into which at least one support plate is inserted in each case.
Coupling, in particular for a rail vehicle, with a coupling head which has a housing , which in turn has on its front side an impact surface for a flat-surface contact with an impact surface of another coupling head which is to be coupled, and arranged on the rear side of which is a connection flange , by means of which securing can take place with a drawbar or similar element of a coupling device, wherein, mounted in the interior of the housing is a pivoting locking piece , capable of pivoting about a perpendicular axis in relation to the base wall of the housing , out of a starting position into a working position and vice-versa, integrated in which is a locking and unlocking mechanism , assigned to which is an unlocking element for uncoupling, actuated by control means, which can be moved during coupling by the locking piece , pivoted by the other coupling head, into a first position, and can be moved by an actuated drive movement into a second position in which it causes the unlocking and, following that, the uncoupling of the locking piece , wherein a main air line with a sustained operating pressure for the brakes and/or a main container air line for the compressed air supply of the rail vehicles are guided through the coupling head , wherein this unlocking element assigned to the locking or unlocking mechanism can be connected to the main air line and/or to the main container air line, and, by the compressed air in these lines, an unlocking of this locking or unlocking mechanism takes place, and therefore the uncoupling of the coupling, characterized in that the unlocking element is operationally connected in a jointed manner, by means of a raising linkage arranged in the housing , a cam lever and a roller lever , to the locking piece , such that this unlocking element can release and unlock the locking piece .
A computer-implemented method for forming a dataset comprising training patterns, the training patterns being configured for learning a function, the function being configured to classify 2D images according to predetermined types of 3D arrangement of objects visible in the 2D images, each predetermined type of 3D arrangement corresponding to a manner to align objects in 3D, the predetermined types of 3D arrangement comprising the Manhattan type and/or the Atlanta type, the method comprising for each respective type of 3D arrangement: - constructing 3D scenes each comprising 3D modeled objects arranged according to the respective type of 3D arrangement; - generating 2D images each representing a respective 2D perspective of a respective constructed 3D scene where visible 3D modeled objects are among the 3D modeled objects of the respective constructed 3D scene which are arranged according to the respective type of 3D arrangement; and - adding to the dataset training patterns each including a respective generated 2D image and information indicative of the respective type of 3D arrangement; wherein the function is configured to take as an input a 2D image and to output information indicative of a respective predetermined type of 3D arrangement. - constructing 3D scenes each comprising 3D modeled objects arranged according to the respective type of 3D arrangement; - generating 2D images each representing a respective 2D perspective of a respective constructed 3D scene where visible 3D modeled objects are among the 3D modeled objects of the respective constructed 3D scene which are arranged according to the respective type of 3D arrangement; and - adding to the dataset training patterns each including a respective generated 2D image and information indicative of the respective type of 3D arrangement;
Method of recycling a cellulose-comprising textile material for manufacturing regenerated cellulosic molded bodies , wherein the method comprises: comminuting the textile material; separating at least a part of non-fiber constituents of the comminuted textile material from fiber constituents of the comminuted textile material; mechanically separating at least a part of non-cellulosic fibers of the fiber constituents from cellulosic fibers of the fiber constituents, and subsequently chemically separating at least one further part of the non-cellulosic fibers from the cellulosic fibers; generating the molded bodies based on the cellulosic fibers after mechanically separating and chemically separating . comminuting the textile material; separating at least a part of non-fiber constituents of the comminuted textile material from fiber constituents of the comminuted textile material; mechanically separating at least a part of non-cellulosic fibers of the fiber constituents from cellulosic fibers of the fiber constituents, and subsequently chemically separating at least one further part of the non-cellulosic fibers from the cellulosic fibers; generating the molded bodies based on the cellulosic fibers after mechanically separating and chemically separating .
A method for inhibiting bloom formation on frozen bakery products, the method comprising: (i) providing a bakery substrate comprising flour, sugar, fat and water; (ii) providing a frosting containing a biopolymer wherein the bakery substrate and frosting are formulated such that the water potential between them is from -4% to 1.25%, wherein a positive water potential is the moisture content that flows from the substrate to the frosting and a negative water potential is the moisture content that flows from the frosting to the substrate, and the frosting has a glass transition temperature of -10°C to -20°C; (iii) providing the bakery substrate with the frosting disposed thereon, (iv) freezing the resulting bakery product; and (v) storing the frozen product. (i) providing a bakery substrate comprising flour, sugar, fat and water; (ii) providing a frosting containing a biopolymer wherein the bakery substrate and frosting are formulated such that the water potential between them is from -4% to 1.25%, wherein a positive water potential is the moisture content that flows from the substrate to the frosting and a negative water potential is the moisture content that flows from the frosting to the substrate, and the frosting has a glass transition temperature of -10°C to -20°C; (iii) providing the bakery substrate with the frosting disposed thereon, (iv) freezing the resulting bakery product; and (v) storing the frozen product.
Authentication element , in the form of a key or a Keyless Go means for a vehicle , which can be used to prevent a relay attack on an emergency start function of a vehicle, in which the authentication element is supplied with energy and communication for authentication takes place between the authentication element and an apparatus of a vehicle , also called transponding, wherein the authentication element comprises: • a transponding interface for transmitting an authentication signal and for receiving energy and data in order to set up a radio connection and to not only transmit authentication signals but also to receive energy and data for the authentication element from an apparatus in the vehicle via said radio connection, and • a sensor element for capturing a movement and/or inclination, • wherein the authentication element is designed in such a manner that authentication signals are transmitted via the transponding interface if the sensor element captures a stored movement and/or inclination. • a transponding interface for transmitting an authentication signal and for receiving energy and data in order to set up a radio connection and to not only transmit authentication signals but also to receive energy and data for the authentication element from an apparatus in the vehicle via said radio connection, and • a sensor element for capturing a movement and/or inclination, • wherein the authentication element is designed in such a manner that authentication signals are transmitted via the transponding interface if the sensor element captures a stored movement and/or inclination.
A BTNL3 antagonist for use in treating a cancer patient or a patient infected with a pathogen, wherein the BTNL3 antagonist is: (a) an antagonistic antibody that binds to a protein consisting of amino acids 18-236 of SEQ ID NO:2 and/or amino acids 18-166 of SEQ ID NO:9, or (b) a variant BTNL3 protein that comprises a polypeptide comprising an amino acid sequence at least 90% identical in an alignment window to amino acids 18-236 of SEQ ID NO:2 or amino acids 18-166 of SEQ ID NO:9, wherein the alignment window of the amino acid sequence with amino acids 18-236 of SEQ ID NO:2 or amino acids 18-166 of SEQ ID NO:9 is at least 150 amino acids long, wherein the variant BTNL3 protein does not comprise the amino acid sequence of amino acids 18-236 of SEQ ID NO:2 or amino acids 18-166 of SEQ ID NO:9, and wherein the variant BTNL3 protein can antagonize the inhibition of proliferation of a T cell stimulated by an immobilized anti-CD3 antibody and a BTNL3 protein comprising the amino acid sequence of SEQ IN NO:7. (a) an antagonistic antibody that binds to a protein consisting of amino acids 18-236 of SEQ ID NO:2 and/or amino acids 18-166 of SEQ ID NO:9, or (b) a variant BTNL3 protein that comprises a polypeptide comprising an amino acid sequence at least 90% identical in an alignment window to amino acids 18-236 of SEQ ID NO:2 or amino acids 18-166 of SEQ ID NO:9, wherein the alignment window of the amino acid sequence with amino acids 18-236 of SEQ ID NO:2 or amino acids 18-166 of SEQ ID NO:9 is at least 150 amino acids long,
A method for forwarding a packet of data within a wireless network from a source node to a destination node via an intermediate node , the method comprising the intermediate node: receiving, from a first source node , a first poll message via a first channel within a channel group, the first poll message requesting availability information for the intermediate node to determine whether the intermediate node is available to accept a first set of payload data; transmitting to the first source node a first acknowledgement message that includes the availability information for the intermediate node via a second channel within the channel group; receiving from the first source node a first data message that includes the first set of payload data to be forwarded to a first destination node via a third channel within the channel group; transmitting to the first source node a first data-acknowledge message that indicates successful receipt of the first data message via a fourth channel within the channel group; forwarding the first set of payload data to the first destination node, and periodically changing a central channel (C) around which the channel group is centered, the central channel (C) also being within the channel group; wherein the channel group maps onto a plurality of allocated channels, and each allocated channel is a channel allocated to a particular radio communications service. receiving, from a first source node , a first poll message via a first channel within a channel group, the first poll message requesting availability information for the intermediate node to determine whether the intermediate node is available to accept a first set of payload data; transmitting to the first source node a first acknowledgement message that includes the availability information for the intermediate node via a second channel within the channel group; receiving from the first source node a first data message that includes the first set of payload data to be forwarded to a first destination node via a third channel within the channel group; transmitting to the first source node a first data-acknowledge message that indicates successful receipt of the first data message via a fourth channel within the channel group; forwarding the first set of payload data to the first destination node, and periodically changing a central channel (C) around which the channel group is centered, the central channel (C) also being within the channel group; wherein the channel group maps onto a plurality of allocated channels, and each allocated channel is a channel allocated to a particular radio communications service.
A control method of a hybrid vehicle provided with an engine , a power-generation motor generator , and a travel motor generator , the hybrid vehicle having a series hybrid mode in which the power-generation motor generator is driven by the engine to generate electric power and the travel motor generator is driven by the electric power generated by the power-generation motor generator , and the hybrid vehicle having a filter configured to collect a particulate matter in exhaust gas from the engine , the control method comprising: shifting an operating point (PE) of the engine to an operating point at which an exhaust-gas temperature (Tex) increases in a case where a loaded amount (S) of the particulate matter in the filter is greater than a first predetermined amount (SL) and a temperature (T) of the filter is lower than a refreshment-allowing temperature (TR) of the filter ; and characterized by : performing a motoring of the engine by the power-generation motor generator in a case where the loaded amount (S) is equal to or greater than a second predetermined amount (Sb) which is a loaded amount smaller than the first predetermined amount (SL) and the temperature (T) of the filter is equal to or higher than the refreshment-allowing temperature (TR) of the filter .
A method of retrofitting an existing portable oxygen concentrator for use in a patient ventilation system, the existing portable oxygen concentrator having at least one compressor , one or more sieve beds downstream of the compressor , an existing product tank downstream of the sieve beds , the existing product tank having an internal capacity of less than 300 ml, and a downstream gas path in fluid communication with the existing product tank , the downstream gas path having at least one pressure regulator integrated therein, the method comprising: replacing or supplementing the existing product tank to define a retrofit set of one or more product tanks, the retrofit set of one or more product tanks including either i) the existing product tank and one or more supplemental product tanks or ii) one or more replacement product tanks , the aggregate internal capacity of the retrofit set of one or more product tanks being 300 ml or more; placing a ventilation gas path in fluid communication with the retrofit set of one or more product tanks; and configuring the portable oxygen concentrator such that all of the gas flowing from the retrofit set of one or more product tanks flows to the ventilation gas path and none flows through the at least one pressure regulator . replacing or supplementing the existing product tank to define a retrofit set of one or more product tanks, the retrofit set of one or more product tanks including either i) the existing product tank and one or more supplemental product tanks or ii) one or more replacement product tanks , the aggregate internal capacity of the retrofit set of one or more product tanks being 300 ml or more; placing a ventilation gas path in fluid communication with the retrofit set of one or more product tanks; and configuring the portable oxygen concentrator such that all of the gas flowing from the retrofit set of one or more product tanks flows to the ventilation gas path and none flows through the at least one pressure regulator .
A method of printing a three-dimensional "3D" article from a 3D design file describing a three-dimensional "3D" design, the method comprising the steps of: receiving the 3D design file in encrypted format, the 3D design file comprising a unique design file identifier, a 3D printer configuration file , the 3D printer configuration file defining one or more 3D printer configuration settings required to print the article in accordance with the 3D design; constructing an authentication request for authenticating use of the 3D design file with a 3D printer the request including the unique design file identifier; transmitting the authentication request to an authentication server; receiving an authentication response from the authentication server, the response enabling printing of the article from the 3D design file on the 3D printer, the response comprising an authentication confirmation enabling decryption of the encrypted 3D design file; decrypting the received encrypted 3D design file, and sending the decrypted 3D design file to the 3D printer; configuring the 3D printer in accordance with the configuration settings defined in the 3D printer configuration file; and printing the 3D article in accordance with the decrypted 3D design file at the 3D printer. receiving the 3D design file in encrypted format, the 3D design file comprising a unique design file identifier, a 3D printer configuration file , the 3D printer configuration file defining one or more 3D printer configuration settings required to print the article in accordance with the 3D design; constructing an authentication request for authenticating use of the 3D design file with a 3D printer the request including the unique design file identifier; transmitting the authentication request to an authentication server; receiving an authentication response from the authentication server, the response enabling printing of the article from the 3D design file on the 3D printer, the response comprising an authentication confirmation enabling decryption of the encrypted 3D design file; decrypting the received encrypted 3D design file, and sending the decrypted 3D design file to the 3D printer; configuring the 3D printer in accordance with the configuration settings defined in the 3D printer configuration file; and printing the 3D article in accordance with the decrypted 3D design file at the 3D printer.
A frozen dessert composition, comprising (A) about 6 to 15% by weight of palatinose based on the total weight of the composition; and (B) about 10 to 30% by weight of a dextrin or a combination of a dextrin and a soluble dietary fiber based on the total weight of the composition. (A) about 6 to 15% by weight of palatinose based on the total weight of the composition; and (B) about 10 to 30% by weight of a dextrin or a combination of a dextrin and a soluble dietary fiber based on the total weight of the composition.
A method for determining at least one characteristic dimension of a ship , such as the length or the width of the ship , the method being implemented by an electronic system , the electronic system comprising a radar device and a calculator , the radar device comprising at least two separate channels (A, B) for receiving a radar signal, the method comprising the following steps: - acquiring, for each of the two receiving channels (A, B) of the radar device , a synthetic aperture radar image (I A (x, y), I B (x, y)) imaging the ship in an environment, the two radar images (I A (x, y), I B (x, y)) resulting from radar signals coming from a same radar emission signal and respectively received by each of the two receiving channels (A, B) of the radar device , each radar image (I A (x, y), I B (x, y)) being a matrix of pixels, each pixel having an amplitude and coordinates called distance box and doppler box, - summing of the respective amplitudes of the pixels of the two radar images (I A (x, y), I B (x, y)) to obtain a sum image (I Σ (x, y)), - extracting pixels from the sum image (I Σ (x, y)) imaging the ship to obtain a mask (M(x, y)) of the ship , - determining a range (Δφ) of phase differences between the radar signals received by each of the two receiving channels (A, B), and - determining a characteristic dimension of the ship as a function of the mask (M(x, y)) of the ship and the determined range (Δφ) of phase differences. - acquiring, for each of the two receiving channels (A, B) of the radar device , a synthetic aperture radar image (I A (x, y), I B (x, y)) imaging the ship in an environment, the two radar images (I A (x, y), I B (x, y)) resulting from radar signals coming from a same radar emission signal and respectively received by each of the two receiving channels (A, B) of the radar device , each radar image (I A (x, y), I B (x, y)) being a matrix of pixels, each pixel having an amplitude and coordinates called distance box and doppler box, the two radar images (I A (x, y), I B (x, y)) resulting from radar signals coming from a same radar emission signal and respectively received by each of the two receiving channels (A, B) of the radar device , each radar image (I A (x, y), I B (x, y)) being a matrix of pixels, each pixel having an amplitude and coordinates called distance box and doppler box, - summing of the respective amplitudes of the pixels of the two radar images (I A (x, y), I B (x, y)) to obtain a sum image (I Σ (x, y)), - extracting pixels from the sum image (I Σ (x, y)) imaging the ship to obtain a mask (M(x, y)) of the ship , - determining a range (Δφ) of phase differences between the radar signals received by each of the two receiving channels (A, B), and - determining a characteristic dimension of the ship as a function of the mask (M(x, y)) of the ship and the determined range (Δφ) of phase differences.