mhurhangee/ep-ind-claims huggingface dataset:
A processor-implemented method for planar target creation and tracking, the method comprising: determining a planar target in a first reference image captured at a first camera pose of a camera, wherein the camera is positioned approximately in front of the planar target and wherein the planar target includes one or more features; initializing the planar target based on the first reference image; displaying an augmented reality representation of the planar target based upon the initialization; tracking the planar target in images captured by the camera as the camera moves from the first camera pose to a second camera pose; displaying a distorted augmented reality representation of the planar target as the camera moves from the first camera pose according to the tracking and using the captured images; selecting a second reference image based on an amount of movement or change in a camera pose from the first camera pose to the second camera pose meeting a threshold; and displaying a more accurate augmented reality representation of the planar target based on the tracked planar target and the second reference image. determining a planar target in a first reference image captured at a first camera pose of a camera, wherein the camera is positioned approximately in front of the planar target and wherein the planar target includes one or more features; initializing the planar target based on the first reference image; displaying an augmented reality representation of the planar target based upon the initialization; tracking the planar target in images captured by the camera as the camera moves from the first camera pose to a second camera pose; displaying a distorted augmented reality representation of the planar target as the camera moves from the first camera pose according to the tracking and using the captured images; selecting a second reference image based on an amount of movement or change in a camera pose from the first camera pose to the second camera pose meeting a threshold; and displaying a more accurate augmented reality representation of the planar target based on the tracked planar target and the second reference image.
A method of diagnosing or monitoring non-alcoholic steatohepatitis (NASH) in a subject, comprising: determining an amount of one or more lipid metabolites in one or more blood, serum, or plasma samples from the subject, wherein: the lipid metabolites PC22:6n3, PCLC, PC18:3n3, TG18:3n3, TG20:3n9, TG22:6n3, TG24:0, PE22:6n3, LY22:6n3, PE14:0, PELC, FA16:0, CE22:6n3, LY18:1n9, LY18:2n6, LY18:3n3, and/or 19,20-DiHDPA are negatively associated with NASH; and the lipid metabolites PC22:5n6, PC18:3n6, PC20:3n6, PC20:4n3, PC22:1n9, PCdml8:ln7, PC18:0, PC22:5n3, CE 18:0, CE24:0, CE18:1n7, CE18:3n6, TG18:1n7, LY16:0, FA18:1n7, SM18:0, SM22:1n9, CE20:3n6, TG20:3n6, LY18:0, LY20:3n6, PE18:3n6, PE20:3n6, PE22:5n3, FA18:1n9, FA20:3n6, 15-HETE, PGB2, PGE2, PGF2α, 15-keto-PGF2α, 5-HETE, 8-HETE, 9-HETE, 11-HETE, 12-HETE, 12-HEPE, 11,12-EpETrE, and/or 8,9-DiHETrE, are positively associated with NASH; and correlating the amount(s) of the one or more lipid metabolites with the presence, absence or progression of non-alcoholic steatohepatitis (NASH). determining an amount of one or more lipid metabolites in one or more blood, serum, or plasma samples from the subject, wherein: the lipid metabolites PC22:6n3, PCLC, PC18:3n3, TG18:3n3, TG20:3n9, TG22:6n3, TG24:0, PE22:6n3, LY22:6n3, PE14:0, PELC, FA16:0, CE22:6n3, LY18:1n9, LY18:2n6, LY18:3n3, and/or 19,20-DiHDPA are negatively associated with NASH; and the lipid metabolites PC22:5n6, PC18:3n6, PC20:3n6, PC20:4n3, PC22:1n9, PCdml8:ln7, PC18:0, PC22:5n3, CE 18:0, CE24:0, CE18:1n7, CE18:3n6, TG18:1n7, LY16:0, FA18:1n7, SM18:0, SM22:1n9, CE20:3n6, TG20:3n6, LY18:0, LY20:3n6, PE18:3n6, PE20:3n6, PE22:5n3, FA18:1n9, FA20:3n6, 15-HETE, PGB2, PGE2, PGF2α, 15-keto-PGF2α, 5-HETE, 8-HETE, 9-HETE, 11-HETE, 12-HETE, 12-HEPE, 11,12-EpETrE, and/or 8,9-DiHETrE, are positively associated with NASH; and the lipid metabolites PC22:6n3, PCLC, PC18:3n3, TG18:3n3, TG20:3n9, TG22:6n3, TG24:0, PE22:6n3, LY22:6n3, PE14:0, PELC, FA16:0, CE22:6n3, LY18:1n9, LY18:2n6, LY18:3n3, and/or 19,20-DiHDPA are negatively associated with NASH; and the lipid metabolites PC22:5n6, PC18:3n6, PC20:3n6, PC20:4n3, PC22:1n9, PCdml8:ln7, PC18:0, PC22:5n3, CE 18:0, CE24:0, CE18:1n7, CE18:3n6, TG18:1n7, LY16:0, FA18:1n7, SM18:0, SM22:1n9, CE20:3n6, TG20:3n6, LY18:0, LY20:3n6, PE18:3n6, PE20:3n6, PE22:5n3, FA18:1n9, FA20:3n6, 15-HETE, PGB2, PGE2, PGF2α, 15-keto-PGF2α, 5-HETE, 8-HETE, 9-HETE, 11-HETE, 12-HETE, 12-HEPE, 11,12-EpETrE, and/or 8,9-DiHETrE, are positively associated with NASH; and correlating the amount(s) of the one or more lipid metabolites with the presence, absence or progression of non-alcoholic steatohepatitis (NASH).
A magnetic resonance imaging apparatus comprising a magnet assembly and a bore for accommodating a patient, and an illuminator unit installed on the inside of the bore, characterized by: a photographing unit configured for acquiring images of a patient in the bore; an illuminator control unit which is configured to determine a state of the patient by recognizing the pupils of the patient in the acquired image and comparing a current pupil size with a pupil size of the patient at the initial stage of magnetic resonance imaging, and to adjust the color to a predetermined colour of illuminators comprised in the illuminator unit based on a difference between the initial pupil size and the current pupil size of the patient. a photographing unit configured for acquiring images of a patient in the bore; an illuminator control unit which is configured to determine a state of the patient by recognizing the pupils of the patient in the acquired image and comparing a current pupil size with a pupil size of the patient at the initial stage of magnetic resonance imaging, and to adjust the color to a predetermined colour of illuminators comprised in the illuminator unit based on a difference between the initial pupil size and the current pupil size of the patient.
A computer-implemented method comprising: presenting, on a first device, a first user-interface that includes a user-selectable menu of multiple virtual personal assistant service providers; receiving a user-selection identifying a particular VPA service provider; receiving, at the first device, a first signal representing input speech data; processing, using one or more processors of the first device, the first signal to generate a first electronic file that includes at least a portion of the input speech data, the first electronic file being generated in accordance with a specification of the particular VPA service provider, wherein said processing comprises: determining that a request included in the input speech data is addressable at the first device, processing the request by the one or more processors of the first device, and excluding the request from the input speech data included in the first electronic file; transmitting the first electronic file to one or more remote computing devices associated with the particular VPA service provider; receiving at least a second electronic file including a response to the input speech data included in the first electronic file; and causing an acoustic transducer to generate an acoustic output based on the second electronic file. presenting, on a first device, a first user-interface that includes a user-selectable menu of multiple virtual personal assistant service providers; receiving a user-selection identifying a particular VPA service provider; receiving, at the first device, a first signal representing input speech data; processing, using one or more processors of the first device, the first signal to generate a first electronic file that includes at least a portion of the input speech data, the first electronic file being generated in accordance with a specification of the particular VPA service provider, wherein said processing comprises: determining that a request included in the input speech data is addressable at the first device, processing the request by the one or more processors of the first device, and excluding the request from the input speech data included in the first electronic file; transmitting the first electronic file to one or more remote computing devices associated with the particular VPA service provider; receiving at least a second electronic file including a response to the input speech data included in the first electronic file; and causing an acoustic transducer to generate an acoustic output based on the second electronic file.
A dummy pixel comprising: a photodiode; and a reset transistor connected to the photodiode, wherein the reset transistor is configured to be biased in a soft reset mode by having a gate and drain connected to a reset line set to a first predetermined voltage and wherein the reset line is not connected to a reset bus. a photodiode; and a reset transistor connected to the photodiode, wherein the reset transistor is configured to be biased in a soft reset mode by having a gate and drain connected to a reset line set to a first predetermined voltage and wherein the reset line is not connected to a reset bus.
Process for producing a ceramic semiconductor material having a nonlinear electrical resistance with a positive temperature coefficient, wherein a) a precursor composition comprising a donor-doped ferroelectric material having a Perovskite structure and the general formula A x B y O 3 and having an average primary particle size of not more than 50 nm is sintered in a reducing atmosphere at temperatures of not more than 1200°C, wherein the sintered material has an average grain size in the submicron range and 80% of the grains are smaller than 800 nm; and b) the sintered material is reoxidized at its grain boundaries at temperatures of not more than 600°C. a) a precursor composition comprising a donor-doped ferroelectric material having a Perovskite structure and the general formula A x B y O 3 and having an average primary particle size of not more than 50 nm is sintered in a reducing atmosphere at temperatures of not more than 1200°C, wherein the sintered material has an average grain size in the submicron range and 80% of the grains are smaller than 800 nm; and b) the sintered material is reoxidized at its grain boundaries at temperatures of not more than 600°C.
Apparatus for an automated exploitation of cells from a sample, comprising: a plurality of dispensing containers for the separated storage of fluid media, each dispensing container comprising an outlet wherein a media delivery arrangement is associated to each of the dispensing containers and a first valve is connected to each of the outlets, a plurality of collecting containers for the collection of fluid media, each collecting container comprising an inlet, wherein a second valve is connected to the inlet of each collecting container, a control unit controlling at least the second valve for the execution of individual cell exploiting steps, and a mounting device for mounting the sample, the mounting device comprising: a housing being sealable such that the sample is stored/treated within a defined atmosphere, a closable inlet being connected to the first valve, and a closable outlet, wherein the outlet of the mounting device is connected to the second valve, and a fixation apparatus at the inlet of the mounting device and the outlet of the mounting device for removable fixing of the end(s) of the sample. a plurality of dispensing containers for the separated storage of fluid media, each dispensing container comprising an outlet wherein a media delivery arrangement is associated to each of the dispensing containers and a first valve is connected to each of the outlets, a plurality of collecting containers for the collection of fluid media, each collecting container comprising an inlet, wherein a second valve is connected to the inlet of each collecting container, a control unit controlling at least the second valve for the execution of individual cell exploiting steps, and a mounting device for mounting the sample, the mounting device comprising: a housing being sealable such that the sample is stored/treated within a defined atmosphere, a closable inlet being connected to the first valve, and a closable outlet, wherein the outlet of the mounting device is connected to the second valve, and a fixation apparatus at the inlet of the mounting device and the outlet of the mounting device for removable fixing of the end(s) of the sample. a housing being sealable such that the sample is stored/treated within a defined atmosphere, a closable inlet being connected to the first valve, and a closable outlet, wherein the outlet of the mounting device is connected to the second valve, and a fixation apparatus at the inlet of the mounting device and the outlet of the mounting device for removable fixing of the end(s) of the sample.
Arrangement having a railway power supply (PF1, PF2, NF1, NF2) for a railway track for connection to a three-phase supply network (L1, L2, L3), wherein the arrangement has a three-phase AC transformer (42-44, 55-62, 64, 65) and a balancing device for a uniform electric load of the three phases of the three-phase supply network (L1, L2, L3), wherein the three-phase AC transformer (42-44, 55-62, 64, 65) can be connected to the three-phase supply network (L1, L2, L3) on the primary side and is connected to the balancing device on the secondary side, wherein the three-phase AC transformer (42-44, 55-62, 64, 65) is connected to the railway power supply, characterised in that the railway power supply has an autotransformer system with two contact lines (PF1, PF2) and two conductors (NF1, NF2) that are carried along the railway track in an insulated manner, wherein the two conductors (NF1, NF2) that are carried along in an insulated manner are connected to the balancing device.
An electric game apparatus for use by a player in a live combat simulation, the apparatus including a firearm-like device, transmission means configured to transmit first and second signals, and wherein the transmission means comprise an infrared transmitter, provided on the firearm-like device, for transmitting the first signal as an infrared signal and a radio transmitter for transmitting the second signal as a digital radio signal, a target receiver, wherein, in use, a first such apparatus is used by a first player and a second such apparatus is used by a second player, the first signal is transmitted towards the target receiver of the second apparatus of the second player in response to firing the firearm-like device of said first apparatus when aimed at the target receiver of the second apparatus, the second signal is transmitted in response to the target receiver of the second apparatus being hit by a said first signal from the first apparatus to indicate the hit to the player using that first apparatus, and the radio transmitter is capable of transmitting the second signal so as to indicate to the first player that a kill results from the hit, and to indicate to the first player that a wound results from the hit, the apparatus being characterised in that it is configured to transmit the second signal so as to further indicate to the first player that the second apparatus is already in an inactive or dead state.
A wheel position specifying device arranged on a vehicle mounted with a pulse detecting unit that detects rotation of a wheel as pulses, and a wheel rotation number storage unit that stores a number of pulses detected by the pulse detecting unit in correspondence with time, a tire state detecting device being arranged on each of a plurality of wheels of the vehicle, and the wheel position specifying device specifying on which of the wheels the tire state detecting device is arranged, the wheel position specifying device comprising: a reception unit that receives a transmission signal, transmitted from each tire state detecting device; and a specifying unit that specifies on which wheel each tire state detecting device is arranged, characterized in that, the transmission signal received by the reception unit includes a time required for the wheel to make a predetermined number of rotations, transmitted from each tire state detecting device, wherein the specifying unit specifies on which wheel each tire state detecting device is arranged from a difference of the number of pulses counted during the time included in the transmission signal, and a number of counts of a pulse detected by the pulse detecting unit while the wheel makes the predetermined number of rotations, wherein the predetermined number of rotations is two, three, four or more, wherein the predetermined number of rotations may not be a number of rotations of integral multiples, and may be 3.5 rotations, or the like, wherein the predetermined number of rotations may vary, and wherein data indicating what number of rotations the predetermined number of rotations corresponds to is included in the transmission signal in addition to the time required to make the predetermined number of rotations. a reception unit that receives a transmission signal, transmitted from each tire state detecting device; and a specifying unit that specifies on which wheel each tire state detecting device is arranged, characterized in that, the transmission signal received by the reception unit includes a time required for the wheel to make a predetermined number of rotations, transmitted from each tire state detecting device, wherein the specifying unit specifies on which wheel each tire state detecting device is arranged from a difference of the number of pulses counted during the time included in the transmission signal, and a number of counts of a pulse detected by the pulse detecting unit while the wheel makes the predetermined number of rotations, wherein the predetermined number of rotations is two, three, four or more, wherein the predetermined number of rotations may not be a number of rotations of integral multiples, and may be 3.5 rotations, or the like, wherein the predetermined number of rotations may vary, and wherein data indicating what number of rotations the predetermined number of rotations corresponds to is included in the transmission signal in addition to the time required to make the predetermined number of rotations.
A filter device, which is electrically connectable between a power supply and a power converter that includes a converter unit for rectifying inputs and an inverter unit for inversely converting outputs of the converter unit, characterized in that the filter device is configured such that a filter reactor for removing a high-frequency component and a booster reactor for boosting a voltage of a current having passed through the filter reactor are stored in a casing, wherein the filter reactor is configured by wrapping a coil around an iron core, wherein the booster reactor is disposed immediately below the filter reactor, and the booster reactor configures an air passage for air introduced into the casing, between an inner circumferential portion and an outer circumferential portion of a coil by wrapping the coil around an iron core, with spacers interposed appropriately, and the booster reactor is stored in the casing in such a manner that air that has passed through the air passage passes through a periphery of the filter reactor disposed immediately above the booster reactor.
A brake system for a vehicle, the brake system comprises a control module (20A, 20B) and an electromechanical brake (311, 321, 331, 341) providing braking force to a wheel (31, 32, 33, 34), wherein the control module a) receives rotation speed information of at least one drive motor, which provides a driving torque to the vehicle, and wheel speed sensor information of at least one wheel (31, 32, 33, 34), characterized in that the control module b) compares a refresh rate of the rotation speed information of the drive motor and a refresh rate of the wheel speed sensor information of the wheel (31, 32, 33, 34), c) generates a wheel rotational speed by use of the information of a higher refresh rate and d) is configured such that, when the wheel rotational speed generated from the rotation speed information of the drive motor or that generated from the wheel speed sensor information of the wheel is used, it will use the wheel rotational speed generated from the other one for validation. a) receives rotation speed information of at least one drive motor, which provides a driving torque to the vehicle, and wheel speed sensor information of at least one wheel (31, 32, 33, 34), characterized in that the control module b) compares a refresh rate of the rotation speed information of the drive motor and a refresh rate of the wheel speed sensor information of the wheel (31, 32, 33, 34), c) generates a wheel rotational speed by use of the information of a higher refresh rate and d) is configured such that, when the wheel rotational speed generated from the rotation speed information of the drive motor or that generated from the wheel speed sensor information of the wheel is used, it will use the wheel rotational speed generated from the other one for validation.