mhurhangee/ep-ind-claims huggingface dataset:
An electronic device comprising: a first camera and a second camera, wherein one of the first or second cameras is a macro camera, and the other one of the first and second camera is a non-macro camera; and a display unit; a processor configured to: while obtaining a first plurality of images via the first camera and a second plurality of images via the second camera, control the display unit to display a first preview based on the first plurality of images; while the first preview based on the first plurality of images is being displayed on the display unit, analyze the first and second plurality of images based on at least one of focus data, blur detection, face-detection and lighting to obtain first information via the first camera and second information via the second camera, and based on the first information and the second information, control the display unit to switch from displaying the first preview based on the first plurality of images to displaying a second preview based on the second plurality of images. a first camera and a second camera, wherein one of the first or second cameras is a macro camera, and the other one of the first and second camera is a non-macro camera; and a display unit; a processor configured to: while obtaining a first plurality of images via the first camera and a second plurality of images via the second camera, control the display unit to display a first preview based on the first plurality of images; while the first preview based on the first plurality of images is being displayed on the display unit, analyze the first and second plurality of images based on at least one of focus data, blur detection, face-detection and lighting to obtain first information via the first camera and second information via the second camera, and based on the first information and the second information, control the display unit to switch from displaying the first preview based on the first plurality of images to displaying a second preview based on the second plurality of images. while obtaining a first plurality of images via the first camera and a second plurality of images via the second camera, control the display unit to display a first preview based on the first plurality of images; while the first preview based on the first plurality of images is being displayed on the display unit, analyze the first and second plurality of images based on at least one of focus data, blur detection, face-detection and lighting to obtain first information via the first camera and second information via the second camera, and based on the first information and the second information, control the display unit to switch from displaying the first preview based on the first plurality of images to displaying a second preview based on the second plurality of images.
A pharmaceutical composition for use in preventing or treating diabetic nephropathy comprising a compound represented by following Chemical Formula 1 or a pharmaceutically acceptable salt thereof as an active ingredient: wherein, A is S, R is benzyl substituted with one substituent selected from the group consisting of F, Br, and I, and Y is Cl. wherein, A is S, R is benzyl substituted with one substituent selected from the group consisting of F, Br, and I, and Y is Cl.
Catalyst composition for a polyester manufacturing process, comprising a titanium catalyst and/or an antimony catalyst as main catalyst, and either (i) at least one co-catalyst A, or (ii) at least one co-catalyst B and at least one co-catalyst C, or (iii) a combination of at least one co-catalyst A, at least one co-catalyst B and at least one co-catalyst C, and wherein co-catalyst A is selected from the group consisting of a metal salt of an alkyl or an aryl phosphinic acid, or a metal salt of an alkyl or aryl diphosphinic acid, or a combination thereof, and co-catalyst B is selected from the group consisting of an alkyl or aryl phosphinic acid, an alkyl or aryl diphosphinic acid a combination thereof, and co-catalyst C selected from the group of a metal salt, a metal hydroxide or a metal organyl compound. (i) at least one co-catalyst A, or (ii) at least one co-catalyst B and at least one co-catalyst C, or (iii) a combination of at least one co-catalyst A, at least one co-catalyst B and at least one co-catalyst C, and wherein co-catalyst A is selected from the group consisting of a metal salt of an alkyl or an aryl phosphinic acid, or a metal salt of an alkyl or aryl diphosphinic acid, or a combination thereof, and co-catalyst B is selected from the group consisting of an alkyl or aryl phosphinic acid, an alkyl or aryl diphosphinic acid a combination thereof, and co-catalyst C selected from the group of a metal salt, a metal hydroxide or a metal organyl compound. co-catalyst A is selected from the group consisting of a metal salt of an alkyl or an aryl phosphinic acid, or a metal salt of an alkyl or aryl diphosphinic acid, or a combination thereof, and co-catalyst B is selected from the group consisting of an alkyl or aryl phosphinic acid, an alkyl or aryl diphosphinic acid a combination thereof, and co-catalyst C selected from the group of a metal salt, a metal hydroxide or a metal organyl compound.
A system for forming a three-dimensional article, the system including a powder dispenser for sequentially dispensing individual layers of powder, a fusing apparatus for generating and scanning a plurality of energy beams including a first beam and a second beam to selectively melt the layers of powder, and a controller, the controller including a processor coupled to a non-volatile memory, the memory storing software instructions, in response to execution by the processor the software instructions cause the controller to: operate the powder dispenser to dispense a layer of powder; operate the fusing apparatus to selectively fuse the layer of powder including: operate the first beam to fuse a first hatch pattern over a first area of the layer of powder; and operate at least the second beam to fuse a contour that bounds the hatch pattern, the contour is formed from N scans along the contour, N is an integer that is greater than or equal to one, N is determined by a lateral alignment uncertainty between at least two of the energy beams, wherein the lateral alignment uncertainty for two beams is equal to the joint lateral location variability of the two beams. operate the powder dispenser to dispense a layer of powder; operate the fusing apparatus to selectively fuse the layer of powder including: operate the first beam to fuse a first hatch pattern over a first area of the layer of powder; and operate at least the second beam to fuse a contour that bounds the hatch pattern, the contour is formed from N scans along the contour, N is an integer that is greater than or equal to one, N is determined by a lateral alignment uncertainty between at least two of the energy beams, wherein the lateral alignment uncertainty for two beams is equal to the joint lateral location variability of the two beams. operate the first beam to fuse a first hatch pattern over a first area of the layer of powder; and operate at least the second beam to fuse a contour that bounds the hatch pattern, the contour is formed from N scans along the contour, N is an integer that is greater than or equal to one, N is determined by a lateral alignment uncertainty between at least two of the energy beams, wherein the lateral alignment uncertainty for two beams is equal to the joint lateral location variability of the two beams.
A resin composition comprising a glyoxalated polyacrylamide resin and a polyamide-epihalohydrin resin, wherein the polyamide-epihalohydrin resin has azetidinium ions and comprises a polyamine partially crosslinked with a bridging moiety, wherein the bridging moiety is derived from a functionally symmetric crosslinker.
A method for writing and reading data in a main nonvolatile memory comprising target pages (Pi, P1-P3) in which data are to be written and read, the method comprising: - providing a nonvolatile buffer having an erased area, - providing a volatile cache memory, - receiving a write command aiming to update a target page with updating data ([W4']) the length of which can be less than the length of a page, and, characterized in that it comprises, in response to the write command: - writing (S11-S12) the updating data ([W4']) into the erased area of the nonvolatile buffer, together with management data of a first type comprising a physical page address (ADi) of the target page in the main nonvolatile memory and the location of the updating data in the target page, and - recording an updated version of the target page in the cache memory or updating in the cache memory a previous updated version of the target page, and it comprises a page transfer cycle (S31-S34, S51-S55) comprising: - erasing, in the main nonvolatile memory, at least one target page comprising updating data located in the nonvolatile buffer, and - transferring an updated version of the at least one target page from the cache memory to the location of the at least one target page that has just been erased in the main nonvolatile memory. - providing a nonvolatile buffer having an erased area, - providing a volatile cache memory, - receiving a write command aiming to update a target page with updating data ([W4']) the length of which can be less than the length of a page, and, - writing (S11-S12) the updating data ([W4']) into the erased area of the nonvolatile buffer, together with management data of a first type comprising a physical page address (ADi) of the target page in the main nonvolatile memory and the location of the updating data in the target page, and - recording an updated version of the target page in the cache memory or updating in the cache memory a previous updated version of the target page, - erasing, in the main nonvolatile memory, at least one target page comprising updating data located in the nonvolatile buffer, and - transferring an updated version of the at least one target page from the cache memory to the location of the at least one target page that has just been erased in the main nonvolatile memory.
A system comprising: a first portable electronic device carried on an agricultural harvester, the first portable electronic device including a positioning component for determining a first geographic position of the first portable electronic device; and a second portable electronic device carried on a crop transport vehicle, the second portable electronic device including a positioning component for determining a second geographic position of the second portable electronic device; at least one of the first portable electronic device and the second portable electronic device being configured to - receive the geographic position of the other portable electronic device, using only the first geographic position and the second geographic position, identify a harvesting operation performed by the agricultural harvester, determine a harvesting distance, a harvesting duration of time, or both of the harvesting operation, and estimate a current fill level of the crop transport vehicle based on the harvesting distance, the harvesting duration of time, or both. a first portable electronic device carried on an agricultural harvester, the first portable electronic device including a positioning component for determining a first geographic position of the first portable electronic device; and a second portable electronic device carried on a crop transport vehicle, the second portable electronic device including a positioning component for determining a second geographic position of the second portable electronic device; at least one of the first portable electronic device and the second portable electronic device being configured to - receive the geographic position of the other portable electronic device, using only the first geographic position and the second geographic position, identify a harvesting operation performed by the agricultural harvester, determine a harvesting distance, a harvesting duration of time, or both of the harvesting operation, and estimate a current fill level of the crop transport vehicle based on the harvesting distance, the harvesting duration of time, or both. receive the geographic position of the other portable electronic device, using only the first geographic position and the second geographic position, identify a harvesting operation performed by the agricultural harvester, determine a harvesting distance, a harvesting duration of time, or both of the harvesting operation, and estimate a current fill level of the crop transport vehicle based on the harvesting distance, the harvesting duration of time, or both.
A management method for controlling an injection-moulding overall system for processing plastics and other plasticisable materials, comprising at least two system parts, which are connected to an intermediate circuit and which each have a power demand and/or a power feedback, which, when summed, give a total power demand and/or a total power feedback of the overall system, wherein the power demand and/or the power feedback of at least two system parts are determined and analysed in relation to one another and the total power demand and/or the total power feedback is then controlled, by controlling at least one system part, such that the total power demand and/or the total power feedback of the overall system, at least at one specific moment in time or within at least one specific time interval, is less than or equal to at least one predefined value, preferably is less than or equal to a greatest maximum of the power demand and/or the power feedback of the system part that has the greatest maximum of the power demand and/or the power feedback at the at least one specific moment in time or within the at least one specific time interval, wherein the determination, the analysis and the control are performed by at least one system part, and wherein the at least one system part controls at least itself, and wherein the power demands and/or the power feedbacks are determined online.
Multi-pole connector system, comprising: - a first contact element, a second contact element, and one or more other contact elements (K2, K3); - a turning device, on which the first contact element and the second contact element are arranged, so that their positions in relation to the connector system housing can, optionally, be exchanged, wherein the turning device is formed as an insulating rotor which is mounted rotatably at the remaining connector system insert, in which the one or more other contact elements (K2, K3) are fixed; wherein the first contact element and the second contact element are different in terms of their plug compatibility and are formed in such a way that they cannot both be plugged together with the same complementary contact element. - a first contact element, a second contact element, and one or more other contact elements (K2, K3); - a turning device, on which the first contact element and the second contact element are arranged, so that their positions in relation to the connector system housing can, optionally, be exchanged, wherein the turning device is formed as an insulating rotor which is mounted rotatably at the remaining connector system insert, in which the one or more other contact elements (K2, K3) are fixed;
Outer fuel tank access cover (FTAC) being adapted for being used to cover the outer opening of a void area of a manhole arranged in a lower wing skin of an aircraft for accessing the interior of the wing, which comprises a fuel tank, the outer FTAC comprising an inner surface (4.1), an outer surface (4.2) and a plurality of mounting holes peripherally distributed for fixing the outer FTAC to the lower wing skin such that, in a mounted state of the outer FTAC, the void area is located between the outer FTAC and an inner fuel tank access cover, which is in the fuel tank and sealed with fuel seals to the lower wing skin, characterised by absorption means adapted for absorbing an impact energy of an object impacting against the outer FTAC and comprising - two aluminium layers (10, 11) and - at least one piece made of foam sandwiched between said two layers (10,11). - two aluminium layers (10, 11) and - at least one piece made of foam sandwiched between said two layers (10,11).
A system comprising: a computer processor and a computer storage device configured to: store an engine simulation model; incorporate an inferential sensor module into the engine simulation model; and calibrate one or more parameters for the inferential sensor module using engine measurement data and the engine simulation model such that a calibration of the engine simulation model is leveraged to calibrate the inferential sensor module, and such that a difference between an inferred signal predicted by the inferential sensor module and a signal measured on an engine is minimized.; wherein the engine simulation model is calibrated using measured on-engine data, the on-engine data comprising model input signals and measurements of a plurality of engine properties; and wherein the computer processor is configured to calibrate the inferential sensor module when all inputs to the inferential sensor module are available via the engine measurement data but a subset of these inputs are replaced by signals predicted by the engine simulation model; or wherein the computer processor is configured to calibrate the inferential sensor module when one or more inputs to the inferential sensor module are unavailable in the engine measurement data that is used for calibration of the inferential sensor module, and to receive signals predicted by the engine simulation model and to substitute the engine simulation model signals for the unavailable engine measurement data. store an engine simulation model; incorporate an inferential sensor module into the engine simulation model; and calibrate one or more parameters for the inferential sensor module using engine measurement data and the engine simulation model such that a calibration of the engine simulation model is leveraged to calibrate the inferential sensor module, and such that a difference between an inferred signal predicted by the inferential sensor module and a signal measured on an engine is minimized.; wherein the engine simulation model is calibrated using measured on-engine data, the on-engine data comprising model input signals and measurements of a plurality of engine properties; and wherein the computer processor is configured to calibrate the inferential sensor module when all inputs to the inferential sensor module are available via the engine measurement data but a subset of these inputs are replaced by signals predicted by the engine simulation model; or wherein the computer processor is configured to calibrate the inferential sensor module when one or more inputs to the inferential sensor module are unavailable in the engine measurement data that is used for calibration of the inferential sensor module, and to receive signals predicted by the engine simulation model and to substitute the engine simulation model signals for the unavailable engine measurement data.
A user authentication method for an image forming apparatus connectable via a network to an authentication apparatus that performs authentication of a user, said user authentication method comprising: a user authentication information obtaining step of obtaining user authentication information for performing the authentication of the user; an authentication party determination step of determining whether to perform the authentication of the user in the authentication apparatus or in the image forming apparatus, based on authentication set information which is set or stored in said image forming apparatus and sets whether to perform the authentication in said authentication apparatus or in said image forming apparatus; an authentication step of performing the authentication of the user in an authentication party determined in the authentication party determination step by using the user authentication information; an authentication result obtaining step of obtaining a result of the authentication of the user in the authentication step; and an authentication result specifying step of specifying the obtained authentication result to the user. a user authentication information obtaining step of obtaining user authentication information for performing the authentication of the user; an authentication party determination step of determining whether to perform the authentication of the user in the authentication apparatus or in the image forming apparatus, based on authentication set information which is set or stored in said image forming apparatus and sets whether to perform the authentication in said authentication apparatus or in said image forming apparatus; an authentication step of performing the authentication of the user in an authentication party determined in the authentication party determination step by using the user authentication information; an authentication result obtaining step of obtaining a result of the authentication of the user in the authentication step; and an authentication result specifying step of specifying the obtained authentication result to the user.
A method performed by a first node, the method comprising: transmitting a wireless signal to a second node, wherein a first sidelink is established between the first node and the second node, and the wireless signal carries configuration information for adding a second sidelink between the first node and the second node; and transmitting data on at least one of the first sidelink and the second sidelink to the second node, the method characterized in that two types of sidelink resources are utilized for transmitting data on the first and second sidelinks, respectively; and in that the two types of sidelink resources have different sidelink frame structures, have different sidelink resource bitmaps, or are scheduled by two base stations under same or different radio access technologies, RATs. transmitting a wireless signal to a second node, wherein a first sidelink is established between the first node and the second node, and the wireless signal carries configuration information for adding a second sidelink between the first node and the second node; and transmitting data on at least one of the first sidelink and the second sidelink to the second node, the method characterized in that two types of sidelink resources are utilized for transmitting data on the first and second sidelinks, respectively; and in that the two types of sidelink resources have different sidelink frame structures, have different sidelink resource bitmaps, or are scheduled by two base stations under same or different radio access technologies, RATs.