mhurhangee/ep-ind-claims huggingface dataset:
A data generation method, performed by a data generation device, comprising: generating video data according to an Advanced Video Coding, AVC, standard and a second opto-electrical transfer function, OETF; storing video usability information, VUI, including a first value indicating a first OETF; and storing supplemental enhancement information, SEI, including a second value indicating the second OETF, wherein VUI and SEI are included in the video data; wherein the first OETF and the second OETF support a standard dynamic range, SDR, and a high dynamic range, HDR, respectively; the first value is to be referred to by a decoding device that does not support HDR, when the decoding device decodes the video data; and the second OETF has compatibility with the first OETF; wherein the first OETF is an OETF defined in one of BT. 709 and BT. 2020; and the SEI is in an IRAP NAL unit or an I-picture. generating video data according to an Advanced Video Coding, AVC, standard and a second opto-electrical transfer function, OETF; storing video usability information, VUI, including a first value indicating a first OETF; and storing supplemental enhancement information, SEI, including a second value indicating the second OETF, wherein VUI and SEI are included in the video data; wherein the first OETF and the second OETF support a standard dynamic range, SDR, and a high dynamic range, HDR, respectively; the first value is to be referred to by a decoding device that does not support HDR, when the decoding device decodes the video data; and the second OETF has compatibility with the first OETF; wherein the first OETF is an OETF defined in one of BT. 709 and BT. 2020; and the SEI is in an IRAP NAL unit or an I-picture.
A method to manage platform management messages in a root complex, the root complex including message logic, decoder logic, extraction logic and management logic, the method comprising: the message logic receiving a serial differential, point-to-point interconnect management message, the serial differential, point-to-point interconnect management message to be transmitted as a media-independent protocol packet, wherein the media-independent protocol packet utilizes a format allowing an extension of the serial, differential, point-to-point interconnect; the decoder logic determining whether to interpret a portion of destination field of the format allowing an extension of the serial, differential, point-to-point interconnect of the serial differential, point-to-point interconnect management message that is to be received as a serial differential, point-to-point interconnect bus segment identifier; the extraction logic extracting the serial differential, point-to-point interconnect bus segment identifier when a portion of destination field of the format allowing an extension of the serial, differential, point-to-point interconnect is determined to be interpreted as a serial differential, point-to-point interconnect bus segment identifier; and the management logic routing the received serial differential, point-to-point interconnect management message to a serial differential, point-to point interconnect bus segment to be specified by the serial differential, point-to-point interconnect bus segment identifier within the portion of the destination field of the format allowing an extension of the serial, differential, point-to-point interconnect. the message logic receiving a serial differential, point-to-point interconnect management message, the serial differential, point-to-point interconnect management message to be transmitted as a media-independent protocol packet, wherein the media-independent protocol packet utilizes a format allowing an extension of the serial, differential, point-to-point interconnect; the decoder logic determining whether to interpret a portion of destination field of the format allowing an extension of the serial, differential, point-to-point interconnect of the serial differential, point-to-point interconnect management message that is to be received as a serial differential, point-to-point interconnect bus segment identifier; the extraction logic extracting the serial differential, point-to-point interconnect bus segment identifier when a portion of destination field of the format allowing an extension of the serial, differential, point-to-point interconnect is determined to be interpreted as a serial differential, point-to-point interconnect bus segment identifier; and the management logic routing the received serial differential, point-to-point interconnect management message to a serial differential, point-to point interconnect bus segment to be specified by the serial differential, point-to-point interconnect bus segment identifier within the portion of the destination field of the format allowing an extension of the serial, differential, point-to-point interconnect.
An apparatus, comprising: an interface, which is configured to receive user input indicative of a spectral slice selected from a frequency band and to receive measured electrical activity from a catheter navigation and tracking system via a catheter that is configured to contact a surface of a heart at multiple points and to measure respective electro-cardiac signals at the respective multiple points; and a processor, which is configured to calculate respective levels of the received electrical activity within the selected spectral slice, and to output to a display the calculated levels on a map of the heart. an interface, which is configured to receive user input indicative of a spectral slice selected from a frequency band and to receive measured electrical activity from a catheter navigation and tracking system via a catheter that is configured to contact a surface of a heart at multiple points and to measure respective electro-cardiac signals at the respective multiple points; and a processor, which is configured to calculate respective levels of the received electrical activity within the selected spectral slice, and to output to a display the calculated levels on a map of the heart.
An object information acquiring apparatus, comprising: a photoacoustic image acquiring unit configured to emit measuring light to an object, receive photoacoustic waves generated in the object, and generate a first image which visualizes information related to optical characteristics within the object based on the photoacoustic waves; an ultrasonic image acquiring unit configured to transmit ultrasonic waves to the object, receive an ultrasonic echo reflected in the object, and generate a second image which visualizes information related to acoustic characteristics within the object based on the ultrasonic echo; a region of interest designating unit configured to receive designation of a region of interest with regard to the first image; an image processing unit configured to perform image processing on the first image inside the designated region of interest and outside the designated region of interest, respectively, using different image processing parameters; and an image synthesizing unit configured to superimpose and synthesize the first image, which has been subjected to the image processing, and the second image; characterized by a transparency designating unit configured to receive designation of transparency outside the region of interest of the first image, wherein the image processing unit is configured to set the designated transparency to pixels outside the region of interest of the first image. a photoacoustic image acquiring unit configured to emit measuring light to an object, receive photoacoustic waves generated in the object, and generate a first image which visualizes information related to optical characteristics within the object based on the photoacoustic waves; an ultrasonic image acquiring unit configured to transmit ultrasonic waves to the object, receive an ultrasonic echo reflected in the object, and generate a second image which visualizes information related to acoustic characteristics within the object based on the ultrasonic echo; a region of interest designating unit configured to receive designation of a region of interest with regard to the first image; an image processing unit configured to perform image processing on the first image inside the designated region of interest and outside the designated region of interest, respectively, using different image processing parameters; and an image synthesizing unit configured to superimpose and synthesize the first image, which has been subjected to the image processing, and the second image; characterized by a transparency designating unit configured to receive designation of transparency outside the region of interest of the first image, wherein the image processing unit is configured to set the designated transparency to pixels outside the region of interest of the first image.
A self-aligning union for elevator guides, of the type comprised of a core-mushroom element and wings, where the contact faces are perfectly machined at 90° with respect to the mushroom element of the guide; the guides are provided with through holes in their union zone, and there is a lower plate placed under the wings; this lower plate being of extra-flat configuration and provided with four through holes in correspondence with said holes of the two guides to be joined; characterized in that: a) there are upper plates arranged on top of the wings; each plate being of extra-flat configuration and provided with two through holes in correspondence with two holes of two guides to be joined; b) the holes of the upper plates are of larger diameter than the holes of the wings: Ø 3 >Ø 1; c) the distance between the holes of the upper plates is shorter than the distance between the two holes of the wings of the same side, which interrelate said plate: d 3 <d 1; d) there are means of retention in said holes, and which, due to the differences between diameters Ø 3 >Ø 1, and distances d 3 <d 1, apply pressure and compress the wings between the upper plates and the lower plate while exerting a light frontal pressure on the guides to produce their alignment. a) there are upper plates arranged on top of the wings; each plate being of extra-flat configuration and provided with two through holes in correspondence with two holes of two guides to be joined; b) the holes of the upper plates are of larger diameter than the holes of the wings: Ø 3 >Ø 1; c) the distance between the holes of the upper plates is shorter than the distance between the two holes of the wings of the same side, which interrelate said plate: d 3 <d 1; d) there are means of retention in said holes, and which, due to the differences between diameters Ø 3 >Ø 1, and distances d 3 <d 1, apply pressure and compress the wings between the upper plates and the lower plate while exerting a light frontal pressure on the guides to produce their alignment.
A system for introducing a surgical instrument through a tissue lumen, the system comprising: a cone capable of navigating the surgical instrument through a tissue lumen, wherein said cone engages the distal end of the surgical instrument and wherein said cone comprises a conical body having a proximal end and a distal end, wherein said conical body tapers from the proximal end to the distal end to facilitate insertion of the cone through the tissue lumen, wherein the conical body contains an axial bore, wherein said axial bore extends longitudinally through said cone and receives an anvil retainer, characterized in that the cone comprises a collar, wherein said collar defines a cavity, wherein said cavity is configured to receive the distal end of the surgical instrument.
A fusion splicer comprising: a device main body comprising a heater which is configured to heat a pair of optical fibers (F1, F2); a pair of glass holders on which grooves that are configured to place respective glass parts of the pair of optical fibers (F1, F2) thereon are formed; a pair of openable and closable first clamps which are configured to hold the glass parts between the first clamps and the glass holders; a pair of openable and closable second clamps which are configured to press respective coated parts of the pair of optical fibers (F1, F2) from above; an openable and closable third clamp fixed to the device main body and configured to restrict movement of at least one of the pair of optical fibers (F1, F2) in a closed state; and an openable and closable windproof cover which is configured to cover the heater, the pair of glass holders, the pair of first clamps, the pair of second clamps, and the third clamp, wherein the device main body comprises a cover driver which is configured to open and close the windproof cover and a clamp driver which is configured to open and close the pair of second clamps, an opening and closing operation of the pair of first clamps is in conjunction with an opening and closing operation of the windproof cover, and the third clamp is configured to maintain the closed state even after the windproof cover is opened. a device main body comprising a heater which is configured to heat a pair of optical fibers (F1, F2); a pair of glass holders on which grooves that are configured to place respective glass parts of the pair of optical fibers (F1, F2) thereon are formed; a pair of openable and closable first clamps which are configured to hold the glass parts between the first clamps and the glass holders; a pair of openable and closable second clamps which are configured to press respective coated parts of the pair of optical fibers (F1, F2) from above; an openable and closable third clamp fixed to the device main body and configured to restrict movement of at least one of the pair of optical fibers (F1, F2) in a closed state; and an openable and closable windproof cover which is configured to cover the heater, the pair of glass holders, the pair of first clamps, the pair of second clamps, and the third clamp, wherein the device main body comprises a cover driver which is configured to open and close the windproof cover and a clamp driver which is configured to open and close the pair of second clamps, an opening and closing operation of the pair of first clamps is in conjunction with an opening and closing operation of the windproof cover, and the third clamp is configured to maintain the closed state even after the windproof cover is opened.
Glass-ceramic solid electrolyte, characterized in that the solid electrolyte is LAGP, Li 1+x Al x Ge 2-x (PO 4) 3 wherein 0 ≤ x ≤ 2, modified by a crystal nucleation agent, wherein said crystal nucleation agent is chosen from inert ceramics, and wherein said inert ceramics is Y 2 O 3.
A developing cartridge comprising: a housing configured to store a developing agent; a developing roller rotatable about a first axis extending in a first direction, the developing roller positioned at one end portion of the housing in a second direction; a lever swingable between a first position and a second position about a second axis extending in the first direction; and a storage medium swingable together with the lever in a swing direction, the storage medium including an electric contact surface crossing the swing direction, the electric contact surface being swingable between a retreat position and an advance position, the electric contact surface being positioned at the retreat position in a case where the lever is positioned at the first position, the electric contact surface being positioned at the advance position in a case where the lever is positioned at the second position; characterized in that the housing is movable in the second direction relative to the lever and the electric contact surface in a case where the electric contact surface is positioned at the advance position. a housing configured to store a developing agent; a developing roller rotatable about a first axis extending in a first direction, the developing roller positioned at one end portion of the housing in a second direction; a lever swingable between a first position and a second position about a second axis extending in the first direction; and a storage medium swingable together with the lever in a swing direction, the storage medium including an electric contact surface crossing the swing direction, the electric contact surface being swingable between a retreat position and an advance position, the electric contact surface being positioned at the retreat position in a case where the lever is positioned at the first position, the electric contact surface being positioned at the advance position in a case where the lever is positioned at the second position; characterized in that the housing is movable in the second direction relative to the lever and the electric contact surface in a case where the electric contact surface is positioned at the advance position.
A method for preparing an oligomer, the method comprising: performing an oligomerization reaction by feeding a feed stream containing a monomer to a reactor; feeding a first discharge stream containing a gas-phase monomer of the reactor to a distillation column as a first separation device and feeding a second discharge stream containing a liquid-phase monomer of the reactor to a distillation column as a second separation device; feeding a lower discharge stream containing liquid-phase monomer, the oligomer and solvent of the second separation device to a third separation device and separating into an upper discharge stream containing gas-phase monomer and a lower discharge stream containing the solvent and the oligomer; feeding the upper discharge stream containing the gas-phase monomer of the third separation device to a monomer dissolution device and dissolving the upper discharge stream in a solvent fed to the monomer dissolution device; and feeding a discharge stream of the monomer dissolution device to the reactor. performing an oligomerization reaction by feeding a feed stream containing a monomer to a reactor; feeding a first discharge stream containing a gas-phase monomer of the reactor to a distillation column as a first separation device and feeding a second discharge stream containing a liquid-phase monomer of the reactor to a distillation column as a second separation device; feeding a lower discharge stream containing liquid-phase monomer, the oligomer and solvent of the second separation device to a third separation device and separating into an upper discharge stream containing gas-phase monomer and a lower discharge stream containing the solvent and the oligomer; feeding the upper discharge stream containing the gas-phase monomer of the third separation device to a monomer dissolution device and dissolving the upper discharge stream in a solvent fed to the monomer dissolution device; and feeding a discharge stream of the monomer dissolution device to the reactor.
Surge arrester, comprising a device socket with a U-shaped insertion part retainer, wherein the device socket is provided for fastening to a mounting rail, characterised in that at least two insertion parts are interchangeably arranged in the insertion part receiving element, wherein each of the insertion parts comprises at least one surge protection element, that the at least two insertion parts are connected in parallel, that the insertion parts each comprise a function display, that the function display comprises one indication lever for each insertion part, and that the function displays are coupled such that the failure of one of the surge protection elements indicates a total failure of the surge arrester.
A conveyor toaster comprising: a conveyor assembly comprising: a first gear; a second gear; and a conveyor belt in engagement with the first gear and the second gear; a drive motor operably connected to the first gear, wherein the drive motor operates the first gear to move the conveyor belt about the first and second gears; and a platen, configured to be heated, positioned relative to the conveyor belt; characterized in that the conveyor assembly further comprises a bracket to which the first gear and the second gear are rotatably connected and the conveyor toaster further comprises: a mounting bracket connected to the bracket of the conveyor assembly, wherein movement of the mounting bracket changes the position of the conveyor assembly relative to the platen. a conveyor assembly comprising: a first gear; a second gear; and a conveyor belt in engagement with the first gear and the second gear; a first gear; a second gear; and a conveyor belt in engagement with the first gear and the second gear; a drive motor operably connected to the first gear, wherein the drive motor operates the first gear to move the conveyor belt about the first and second gears; and a platen, configured to be heated, positioned relative to the conveyor belt; characterized in that the conveyor assembly further comprises a bracket to which the first gear and the second gear are rotatably connected and the conveyor toaster further comprises: a mounting bracket connected to the bracket of the conveyor assembly, wherein movement of the mounting bracket changes the position of the conveyor assembly relative to the platen.
MEMS temperature sensor comprising two or more double-ended-tuning-fork (DETF) resonators (1, 2) placed next to each other and an additional compressive beam attached to the resonators (1,2) at one end, characterized in that two or more DETF resonators (1, 2) differ from each other with their sizes which will be designated as long DETF resonator and short DETF resonator.
A method of controlling a following aircraft by providing instructions to a flight management system of the following aircraft, operating according to a following aircraft planned path, in reference to a target aircraft, and operating according to a target aircraft planned path, the method comprising: receiving, in the flight management system, information related to the target aircraft; setting, in the flight management system, a required time of arrival at an achieve-by-point on the following aircraft planned path abeam a target aircraft target reference point, the target aircraft target reference point being on the target aircraft planned path; engaging, in the flight management system, a required time of arrival function and enabling flight of the following aircraft according to the required time of arrival function, so as to reach the achieve-by-point by the required time of arrival; and after the achieve-by-point is reached by the following aircraft, maintaining a fixed separation between the following aircraft and the target aircraft. receiving, in the flight management system, information related to the target aircraft; setting, in the flight management system, a required time of arrival at an achieve-by-point on the following aircraft planned path abeam a target aircraft target reference point, the target aircraft target reference point being on the target aircraft planned path; engaging, in the flight management system, a required time of arrival function and enabling flight of the following aircraft according to the required time of arrival function, so as to reach the achieve-by-point by the required time of arrival; and after the achieve-by-point is reached by the following aircraft, maintaining a fixed separation between the following aircraft and the target aircraft.