mhurhangee/ep-ind-claims huggingface dataset:
An information processing apparatus connected to a video display apparatus used by being worn on the head by a user, the information processing apparatus comprising: a first display control section configured to display a planar video on the video display apparatus in a first display mode in which the planar video is displayed in the front direction of the user irrespective of the change in position and/or orientation of the video display apparatus; a second display control section configured to display the planar video on the video display apparatus in a second display mode in which the planar video is displayed in a manner that changes with the change in position and/or orientation of the video display apparatus; characterised by a switching control section configured to switch between the first display mode and the second display mode in accordance with the display size of the planar video. a first display control section configured to display a planar video on the video display apparatus in a first display mode in which the planar video is displayed in the front direction of the user irrespective of the change in position and/or orientation of the video display apparatus; a second display control section configured to display the planar video on the video display apparatus in a second display mode in which the planar video is displayed in a manner that changes with the change in position and/or orientation of the video display apparatus; characterised by a switching control section configured to switch between the first display mode and the second display mode in accordance with the display size of the planar video.
A method for producing at least one structure (13, 15) by the action of a laser on at least one wall component of a container wall of a plastic container product that is produced by means of a blow-moulding, filling and sealing process, the respective structure (13, 15) being introduced as a linear depression (17, 37) into the one wall component by the action of a laser, taking into account at least the - laser power, - the duration of the action of the laser, - the type of plastic material, and - the type of structure that is desired, in such a way that this depression (17, 37) is bordered by a respective elevation (27, 39) along the edge following the course of the linear depression (17, 37), said elevation (27, 39) being produced under the influence of the inherent material tension of the plastic material, characterised in that the container wall made of plastic material is heated locally by the action of the laser, without plastic fibres or molecule chains of this kind being cut through in the region of the linear depression (17, 37), and also without the plastic material in the region of the depression (17, 37) being substantially vaporized by the action of the laser, so that therefore, despite the production of the structure, the container wall is not weakened. - laser power, - the duration of the action of the laser, - the type of plastic material, and - the type of structure that is desired,
A railroad communication system (100, 200) comprising: a wayside control device in communication with at least one railroad crossing warning device (140, 145) located at a railroad grade crossing, the at least one railroad crossing warning device (140, 145) being activated in response to a signal of the wayside control device, and an autonomous motor vehicle approaching the railroad grade crossing, wherein the wayside control device is configured to communicate information that the at least one railroad crossing warning device (140, 145) is activated, a crossing identification/location and data related to a railroad vehicle (120a, 120b) approaching the grade crossing in response to an activation of the at least one railroad crossing warning device (140, 145), wherein the data relating to the railroad vehicle (120a, 120b) approaching the railroad grade crossing is selected from a group comprising of railroad vehicle speed, direction of railroad vehicle, estimated time of arrival of railroad vehicle at the railroad grade crossing, time the railroad vehicle takes to pass the railroad grade crossing, or a combination thereof, wherein the autonomous motor vehicle is configured to receive both the crossing identification/location and data related to a railroad vehicle, and wherein the autonomous motor vehicle comprises a messaging unit for providing based on the crossing identification/location and data related to a railroad vehicle (120a, 120b) approaching the grade crossing an audio message or visual message. a wayside control device in communication with at least one railroad crossing warning device (140, 145) located at a railroad grade crossing, the at least one railroad crossing warning device (140, 145) being activated in response to a signal of the wayside control device, and an autonomous motor vehicle approaching the railroad grade crossing, wherein the wayside control device is configured to communicate information that the at least one railroad crossing warning device (140, 145) is activated, a crossing identification/location and data related to a railroad vehicle (120a, 120b) approaching the grade crossing in response to an activation of the at least one railroad crossing warning device (140, 145), wherein the data relating to the railroad vehicle (120a, 120b) approaching the railroad grade crossing is selected from a group comprising of railroad vehicle speed, direction of railroad vehicle, estimated time of arrival of railroad vehicle at the railroad grade crossing, time the railroad vehicle takes to pass the railroad grade crossing, or a combination thereof, wherein the autonomous motor vehicle is configured to receive both the crossing identification/location and data related to a railroad vehicle, and wherein the autonomous motor vehicle comprises a messaging unit for providing based on the crossing identification/location and data related to a railroad vehicle (120a, 120b) approaching the grade crossing an audio message or visual message.
Lifting support assembly for a preferably motorized road vehicle having a chassis, in particular for mobile homes, sales vehicles or special-purpose vehicles, and a front and rear axle assembly (26, 26'), wherein the lifting support assembly has a plurality of, in particular four, lifting supports (4, 7) with a control device, characterized in that the lifting support assembly has a safety device (73, 86, 94) for the lifting support assembly and/or the road vehicle, wherein the safety device has a detection device for weight features of the road vehicle, in particular for the front and rear axle loads.
A method performed by a hub in a satellite communication system, the method comprising: receiving a block of symbols; determining a first group of samples, the first group of samples corresponding to a group of symbols included in said block of symbols, the first group of samples corresponding to a time interval between adjacent symbols of the first group of symbols, wherein the time interval is determined in accordance with a maximum frequency offset; determining, in accordance with said first group of samples, a first frequency offset estimation associated with the block of symbols; correcting one or more symbols in said block of symbols in accordance with at least the first frequency offset estimation; producing a second group of samples, the second group of samples corresponding to a group of symbols that are based at least in part on symbols that are back rotated according to the first frequency offset estimation, wherein the second group of samples correspond to a time interval between adjacent symbols of the group of symbols that are based at least in part on symbols that are back rotated according to the first frequency offset estimation that is longer than the time interval between adjacent symbols of the first group of symbols determined in accordance with the maximum frequency offset; and determining, in accordance with said second group of samples, a second frequency offset estimation associated with the block of symbols. receiving a block of symbols; determining a first group of samples, the first group of samples corresponding to a group of symbols included in said block of symbols, the first group of samples corresponding to a time interval between adjacent symbols of the first group of symbols, wherein the time interval is determined in accordance with a maximum frequency offset; determining, in accordance with said first group of samples, a first frequency offset estimation associated with the block of symbols; correcting one or more symbols in said block of symbols in accordance with at least the first frequency offset estimation; producing a second group of samples, the second group of samples corresponding to a group of symbols that are based at least in part on symbols that are back rotated according to the first frequency offset estimation, wherein the second group of samples correspond to a time interval between adjacent symbols of the group of symbols that are based at least in part on symbols that are back rotated according to the first frequency offset estimation that is longer than the time interval between adjacent symbols of the first group of symbols determined in accordance with the maximum frequency offset; and determining, in accordance with said second group of samples, a second frequency offset estimation associated with the block of symbols.
A glycated human hemoglobin (%) assay method for measuring glycated human hemoglobin (%) in a human sample, comprising steps of: adsorbing the glycated human hemoglobin in the human sample to an insoluble carrier by bringing the human sample into contact with the insoluble carrier; wherein the insoluble carrier is latex; forming a complex of an anti-glycated human hemoglobin monoclonal antibody, the glycated human hemoglobin, and the insoluble carrier by bringing the glycated human hemoglobin adsorbed to the insoluble carrier into contact with the anti-glycated human hemoglobin monoclonal antibody; agglutinating the insoluble carrier by bringing the complex into contact with a monoclonal antibody reacting with the anti-glycated human hemoglobin monoclonal antibody and not reacting with human IgG; and optically detecting a degree of agglutination. adsorbing the glycated human hemoglobin in the human sample to an insoluble carrier by bringing the human sample into contact with the insoluble carrier; wherein the insoluble carrier is latex; forming a complex of an anti-glycated human hemoglobin monoclonal antibody, the glycated human hemoglobin, and the insoluble carrier by bringing the glycated human hemoglobin adsorbed to the insoluble carrier into contact with the anti-glycated human hemoglobin monoclonal antibody; agglutinating the insoluble carrier by bringing the complex into contact with a monoclonal antibody reacting with the anti-glycated human hemoglobin monoclonal antibody and not reacting with human IgG; and optically detecting a degree of agglutination.
A storage system for storing objects of plastic material processed in a bottling line comprising: - a plurality of drawers configured to contain groups of the objects; - a frame which defines a plurality of compartments configured to house the drawers; - a conveyor movable in the storage system itself and configured to access the compartments in such a way as to withdraw and place drawers from and into the compartments; - a loading bay having one or more loading compartments for receiving corresponding drawers and having a loading manipulator configured to place in the drawers the loose objects received from an infeed conveyor; - an unloading bay having at least one unloading compartment for receiving a corresponding drawer and having an unloading manipulator configured to place onto an outfeed conveyor the loose objects stored in the drawer, characterized in that the loading bay comprises: - an outfeed conveyor belt oriented along a longitudinal direction and set up to receive objects from the outside of the storage system and to convey them along the longitudinal direction; - a pushing element which is movable in a direction having at least one component transversal to the longitudinal direction and which acts in conjunction with the outfeed conveyor belt to push the objects out from one side of the belt, the one or more loading compartments being positioned laterally of the belt at a level below the belt. - a plurality of drawers configured to contain groups of the objects; - a frame which defines a plurality of compartments configured to house the drawers; - a conveyor movable in the storage system itself and configured to access the compartments in such a way as to withdraw and place drawers from and into the compartments; - a loading bay having one or more loading compartments for receiving corresponding drawers and having a loading manipulator configured to place in the drawers the loose objects received from an infeed conveyor; - an unloading bay having at least one unloading compartment for receiving a corresponding drawer and having an unloading manipulator configured to place onto an outfeed conveyor the loose objects stored in the drawer, - an outfeed conveyor belt oriented along a longitudinal direction and set up to receive objects from the outside of the storage system and to convey them along the longitudinal direction; - a pushing element which is movable in a direction having at least one component transversal to the longitudinal direction and which acts in conjunction with the outfeed conveyor belt to push the objects out from one side of the belt,
A forklift (110; 400), comprising: a working state monitoring module, a container image capturing module (113; 420), and a processing module (114; 430); wherein the container image capturing module (113; 420) is electrically connected to the working state monitoring module and the processing module (114; 430); the working state monitoring module is configured to monitor a working state of the forklift (110; 400) while the forklift (110; 400) is carrying and moving a stock container to be moved, and to control the container image capturing module (113; 420)to capture images based on the working state; the container image capturing module (113; 420) is configured to capture red-green-blue-depth (RGBD) image frames containing the stock container to be moved in response to a trigger from the working state monitoring module, and to transmit the RGBD image frames to the processing module (114; 430); and the processing module (114; 430) is configured to receive the RGBD image frames, detect a pose deviation degree of the stock container to be moved based on the RGBD image frames; provide an alarm and/or a prompt based on a detection result of the pose deviation degree for adjusting the pose of the stock container to be moved on the forklift (110; 400). the container image capturing module (113; 420) is electrically connected to the working state monitoring module and the processing module (114; 430); the working state monitoring module is configured to monitor a working state of the forklift (110; 400) while the forklift (110; 400) is carrying and moving a stock container to be moved, and to control the container image capturing module (113; 420)to capture images based on the working state; the container image capturing module (113; 420) is configured to capture red-green-blue-depth (RGBD) image frames containing the stock container to be moved in response to a trigger from the working state monitoring module, and to transmit the RGBD image frames to the processing module (114; 430); and the processing module (114; 430) is configured to receive the RGBD image frames, detect a pose deviation degree of the stock container to be moved based on the RGBD image frames; provide an alarm and/or a prompt based on a detection result of the pose deviation degree for adjusting the pose of the stock container to be moved on the forklift (110; 400).
A system comprising a single-stranded nucleic acid caliper, a reference splint, a target splint, and a reference molecule, wherein: the single-stranded nucleic acid caliper is a single-stranded nucleic acid having a reference domain and a target domain, wherein the reference domain comprises non-contiguous nucleotide sequences, RS1 and RS2, complementary to a reference splint and non-contiguous nucleotide sequences, RR1 and RR2, each complementary to distinct single-stranded nucleic acid handles, RH1 and RH2, flanking a reference molecule, and wherein the target domain comprises non-contiguous nucleotide sequences, TS1 and TS2, complementary to a target splint and non-contiguous nucleotide sequences, TT1 and TT2, each complementary to distinct single-stranded nucleic acid handles, TH1 and TH2, flanking a target; the reference splint is a single stranded oligonucleotide having partial sequence complementarity to the single-stranded nucleic acid caliper and a RS toehold sequence that remains single-stranded when the reference splint is bound to the single-stranded nucleic acid caliper; the target splint is a single-stranded oligonucleotide having partial sequence complementarity to the single-stranded nucleic acid caliper, wherein the reference and target splints bind to separate distinct sequences of the single-stranded nucleic acid caliper and a TS toehold sequence that remains single-stranded when the target splint is bound to the single-stranded nucleic acid caliper; and the reference molecule is flanked by two single-stranded nucleic acid handles, RH1 and RH2. the single-stranded nucleic acid caliper is a single-stranded nucleic acid having a reference domain and a target domain, wherein the reference domain comprises non-contiguous nucleotide sequences, RS1 and RS2, complementary to a reference splint and non-contiguous nucleotide sequences, RR1 and RR2, each complementary to distinct single-stranded nucleic acid handles, RH1 and RH2, flanking a reference molecule, and wherein the target domain comprises non-contiguous nucleotide sequences, TS1 and TS2, complementary to a target splint and non-contiguous nucleotide sequences, TT1 and TT2, each complementary to distinct single-stranded nucleic acid handles, TH1 and TH2, flanking a target; the reference splint is a single stranded oligonucleotide having partial sequence complementarity to the single-stranded nucleic acid caliper and a RS toehold sequence that remains single-stranded when the reference splint is bound to the single-stranded nucleic acid caliper; the target splint is a single-stranded oligonucleotide having partial sequence complementarity to the single-stranded nucleic acid caliper, wherein the reference and target splints bind to separate distinct sequences of the single-stranded nucleic acid caliper and a TS toehold sequence that remains single-stranded when the target splint is bound to the single-stranded nucleic acid caliper; and the reference molecule is flanked by two single-stranded nucleic acid handles, RH1 and RH2.
An elevator apparatus comprising: a detecting portion which detects the magnitude of the tension of a main rope suspending a car; characterised by a plurality of braking devices which brake ascent/descent of the car by methods that are different from each other; and an abnormality control device which is capable of ascertaining the magnitude of the tension based on information from the detecting portion and which, when the magnitude of the tension becomes abnormal, selectively outputs a braking command signal to any one of the braking devices according to the magnitude of the tension. a detecting portion which detects the magnitude of the tension of a main rope suspending a car; characterised by a plurality of braking devices which brake ascent/descent of the car by methods that are different from each other; and an abnormality control device which is capable of ascertaining the magnitude of the tension based on information from the detecting portion and which, when the magnitude of the tension becomes abnormal, selectively outputs a braking command signal to any one of the braking devices according to the magnitude of the tension.
A method for device to device synchronization signal, D2DSS, generation by a terminal, the method comprising: determining (500, 600) whether the terminal is in a coverage of a base station; generating (520, 620) a D2DSS based on a first root index and a first combination value equal to or less than 167, if the terminal is in the coverage of the base station; and generating (505, 510, 525, 610, 625) a D2DSS based on a second root index different from the first root index and a second combination value equal to or greater than 168, if the terminal is out of coverage of the base station, wherein the first root index and the second root index are different from a root index used by the base station, and wherein the first combination value and the second combination value is used to determine cyclic shift m0 and m1 values for the D2DSS. determining (500, 600) whether the terminal is in a coverage of a base station; generating (520, 620) a D2DSS based on a first root index and a first combination value equal to or less than 167, if the terminal is in the coverage of the base station; and generating (505, 510, 525, 610, 625) a D2DSS based on a second root index different from the first root index and a second combination value equal to or greater than 168, if the terminal is out of coverage of the base station, wherein the first root index and the second root index are different from a root index used by the base station, and wherein the first combination value and the second combination value is used to determine cyclic shift m0 and m1 values for the D2DSS.