mhurhangee/ep-ind-claims huggingface dataset:
An X-ray scanning system comprising: a pulsed linac-based X-ray source having a peak current of electrons in the linac; a plurality of detectors; a source intensity controller, wherein said source intensity controller is configured to: - receive and identify a minimum X-ray transmission level detected by at least one of said plurality of detectors; - compare said minimum X-ray transmission level to at least one predetermined threshold transmission level; and - based on said comparison, generate an adjustment signal, wherein said pulsed linac-based X-ray source is configured to receive said adjustment signal and adjust the peak current based on said adjustment signal; a source intensity control receiver, wherein said source intensity control receiver is configured to: - determine a change in beam loading characteristics, wherein a change in the beam loading characteristics results in a change in the final energy to which the electrons are accelerated; and - cause a change to modulator and RF source settings in the X-ray source in order to compensate for the change in beam loading characteristics. a pulsed linac-based X-ray source having a peak current of electrons in the linac; a plurality of detectors; a source intensity controller, wherein said source intensity controller is configured to: - receive and identify a minimum X-ray transmission level detected by at least one of said plurality of detectors; - compare said minimum X-ray transmission level to at least one predetermined threshold transmission level; and - based on said comparison, generate an adjustment signal, wherein said pulsed linac-based X-ray source is configured to receive said adjustment signal and adjust the peak current based on said adjustment signal; - receive and identify a minimum X-ray transmission level detected by at least one of said plurality of detectors; - compare said minimum X-ray transmission level to at least one predetermined threshold transmission level; and - based on said comparison, generate an adjustment signal, wherein said pulsed linac-based X-ray source is configured to receive said adjustment signal and adjust the peak current based on said adjustment signal; a source intensity control receiver, wherein said source intensity control receiver is configured to: - determine a change in beam loading characteristics, wherein a change in the beam loading characteristics results in a change in the final energy to which the electrons are accelerated; and - cause a change to modulator and RF source settings in the X-ray source in order to compensate for the change in beam loading characteristics. - determine a change in beam loading characteristics, wherein a change in the beam loading characteristics results in a change in the final energy to which the electrons are accelerated; and - cause a change to modulator and RF source settings in the X-ray source in order to compensate for the change in beam loading characteristics.
Device for processing surfaces with a frame or a support structure and at least two endless belts (11 ', 11"), with at least one guide and / or drive element (12, 13) to form a floor-contacting belt strands (100', 100") and at least one deflection element (14', 14", 14"") for immersing the at least two endless belts (11', 11") in at least one basin filled with a liquid circulate, characterized in that the at least two endless belts (11', 11") are guided on different guide ways (F', F"), which are aligned at an angle to each other.
A reel-up for receiving and winding into a roll a paper web that arrives from a drying cylinder in a paper making machine and for starting a new roll from a tail formed by cutting the paper web, the reel-up comprising: a rotatably mounted reel spool onto which a paper web can be wound to create a paper roll of increasing diameter; and an endless flexible belt mounted for rotation along a predetermined path of travel such that the flexible belt forms a loop, the flexible belt being positioned adjacent to the reel spool to engage the paper web against the reel spool during winding such that the flexible belt is deflected from the predetermined path of travel by an amount relative to the amount of paper material wound on the reel spool, characterized in that a pair of water nozzles (14, 15) is arranged such that each water nozzle (14, 15) can direct a web-cutting water jet stream against the paper web to cut the paper web at a point before the paper web reaches the flexible belt such that a tail is created, each water nozzle (14, 15) being arranged to be movable in a direction which is transverse to the direction of movement of the paper web and in that a glue nozzle is arranged to direct a stream of glue against the reel spool or against the tail.
A non-return device for an exhaust line of a combustion device, in particular a heating burner, having a valve seat, a float, which is allocated to the valve seat and is guided in an axially displaceable manner on a guide surface by means of a guide section, and having a condensation collection gutter, characterized in that the valve seat is formed on an installation component, which is fastened detachably and/or detached to a holding part, which comprises the guide surface for guiding the guide section of the float and is separate from the installation component, and in that the condensation collection gutter is provided at the holding part, and in that the condensation collection gutter is realized as a siphon and connects a tube section in a flow direction of an exhaust gas in front of the float to a tube section in the flow direction of the exhaust gas behind the float so as to conduct condensation even when the float rests on the valve seat, and in that the siphon opens into the holding part via an axial gap between the component and the holding part, said axial gap being disposed in front of the valve seat in the flow direction of the exhaust gas, and in that the holding part can be inserted in an exhaust line and can be sealed in the radial direction with respect to the exhaust line, in particular by means of an annular seal on the outer-circumferential side.
A method for enhancing power saving performance of a user equipment, UE, comprising the following steps: the UE receiving downlink data transmitted by an evolved node B (eNB); the UE starts a corresponding HARQ round trip time, RTT, Timer according to the received downlink data; the UE controlling a discontinuous reception, DRX, process according to the RTT Timer characterised in that the timing of the RTT Timer is determined by the UE based on the uplink/downlink, UL/DL, configuration, the sub-frame number of the downlink sub-frame carrying the downlink data, and the timing is determined as k+4 sub-frames based on the UL/DL configuration and the sub-frame number of the downlink sub-frame carrying the downlink data, wherein k represents the interval between the downlink data transmission and the related HARQ feedback transmission. the UE receiving downlink data transmitted by an evolved node B (eNB); the UE starts a corresponding HARQ round trip time, RTT, Timer according to the received downlink data; the UE controlling a discontinuous reception, DRX, process according to the RTT Timer characterised in that the timing of the RTT Timer is determined by the UE based on the uplink/downlink, UL/DL, configuration, the sub-frame number of the downlink sub-frame carrying the downlink data, and the timing is determined as k+4 sub-frames based on the UL/DL configuration and the sub-frame number of the downlink sub-frame carrying the downlink data, wherein k represents the interval between the downlink data transmission and the related HARQ feedback transmission.
An apparatus for securing a tail end of a spirally wound roll of nonwoven, web material, characterized in that the apparatus is for securing the tail end of a polymer-based web material and in that the apparatus comprises: an ultrasonic welding assembly having a converter operably connected to a tool to oscillate the tool along an oscillation axis; and a fixture configured to selectively move the tool into momentary contact with an outermost winding of the spirally wound roll in a manner in which the oscillation axis is generally tangential to the roll. an ultrasonic welding assembly having a converter operably connected to a tool to oscillate the tool along an oscillation axis; and a fixture configured to selectively move the tool into momentary contact with an outermost winding of the spirally wound roll in a manner in which the oscillation axis is generally tangential to the roll.
Tread for a heavy vehicle tyre, this tread having a total width W and being provided with two main grooves of circumferential overall orientation, these main grooves dividing the tread into three regions, a middle region and two edge regions axially on each side of the middle region, the middle region having an axial width Lm at least equal to 45% and at most 70% of the total width W of the tread, this tread having a total void volume when new V0, the middle part of this tread having a total void volume Vm when new, the volume void ratio of the tread when new is less than 17%, this void ratio being calculated as the ratio between the total void volume V0 and a total volume including all the voids and evaluated between the tread surface when new and an internal surface extending in the tread parallel to the tread surface when new, this internal surface being in contact radially on the inside with the innermost points of the deepest main grooves, the middle part comprising a plurality of transverse or oblique sipes having a depth at least equal to 75% of the depth of the main grooves, these transverse or oblique sipes opening into the main grooves delimiting the middle region and being formed at a mean spacing Pm, this tread being such that the middle region has a volume void ratio when new less than half the total volume void ratio of the tread when new, this tread being characterized in that at least one continuous circumferential channel is formed under the tread surface when new so that it appears when the tread becomes part worn and forms a new groove in that and the tread further comprises, in its middle region, at least two circumferential sipes (41, 42, 43), these two circumferential sipes being extended into the tread by widened parts forming channels (51, 52, 53), these channels being intended to form new grooves when the tread reaches a predetermined level of part wear.
Vehicle cockpit component, of the type comprising at least a padding (20a, 20b) and/or an upholstery (40a, 40b, 40c), wherein at least one of said padding (20a, 20b) and said upholstery (40a, 40b, 40c) comprises at least a foam element, said foam element forming the padding or the upholstery of said vehicle cockpit component, respectively, at least at one or more regions of said padding or said upholstery, respectively, wherein said foam element comprises a first face, facing the space inside the cockpit, and a second face, opposite to said first face, wherein said vehicle cockpit component comprises a heating and cooling device, characterized in that said foam element comprises intrinsically electrically conductive polymers (ICPs), which are treated so as to form alternated p-type and n-type regions within said foam element, and in that said heating and cooling device comprises first electrodes arranged at said first face of said foam element and second electrodes arranged at said second face of said foam element, as well as means for supplying an electrical supply voltage to said first electrodes and said second electrodes, the polarity of said electrical supply voltage being reversible.
An aerosol generating device comprising: a battery; a power supply unit configured to control power supply of the battery; and a controller configured to, when a first mode switching condition is satisfied, control the power supply unit such that the aerosol generating device switches from a first power mode in which power is supplied to the controller to a second power mode in which no power is supplied to the controller, characterised in that the first power mode is a standby mode being a power saving mode, and the second power mode is a ship mode being a mode in which power supplied to the controller is blocked. a battery; a power supply unit configured to control power supply of the battery; and a controller configured to, when a first mode switching condition is satisfied, control the power supply unit such that the aerosol generating device switches from a first power mode in which power is supplied to the controller to a second power mode in which no power is supplied to the controller, characterised in that the first power mode is a standby mode being a power saving mode, and the second power mode is a ship mode being a mode in which power supplied to the controller is blocked.
Piston, comprising a piston head, a ring zone and a piston skirt, consisting of load-bearing skirt wall sections and recessed connecting walls, which connect the skirt wall sections to one another, and piston-pin bosses, which run in the direction of a pin axis that is set back from a piston axis and penetrate the connecting walls, wherein the connecting walls are formed convexly in relation to an axis in the region of their peripheral lower edge and concavely in relation to the axis in the region of their upper edge, preferably below the ring zone, wherein in the region of the connecting walls the lower edge of the ring zone projects beyond this region and has a projection and is at least partially hollowed out there, characterized in that, in the region of the piston head, the piston is provided with a reinforcement running around radially behind the ring zone above the projection.
A method for gas detection and quantification comprising receiving infrared radiation from a scene at a single sensor array comprising first and second sets of infrared sensors (230A, 230B) used to capture first and second wavelength ranges of the infrared radiation, respectively, wherein the second wavelength range is different from the first wavelength range; capturing (615; 710, 730) first and second images by the first and second sets of infrared sensors respectively, wherein the second image is captured at a different time and position from the first image; detecting (715, 735) a background object in the first image; tracking (715, 735) the background object to identify the background object in the second image; determining first and second radiometric values associated with the first and the second images and correlated to a same location of the background object in the scene; updating a radiometric scene map with the first and second radiometric values; capturing third and fourth images by the first and second sets of infrared sensors, respectively; processing the third and fourth images to detect a gas in the scene prior to performing the gas quantification; and performing gas quantification using the updated radiometric scene map and the third and fourth images. receiving infrared radiation from a scene at a single sensor array comprising first and second sets of infrared sensors (230A, 230B) used to capture first and second wavelength ranges of the infrared radiation, respectively, wherein the second wavelength range is different from the first wavelength range; capturing (615; 710, 730) first and second images by the first and second sets of infrared sensors respectively, wherein the second image is captured at a different time and position from the first image; detecting (715, 735) a background object in the first image; tracking (715, 735) the background object to identify the background object in the second image; determining first and second radiometric values associated with the first and the second images and correlated to a same location of the background object in the scene; updating a radiometric scene map with the first and second radiometric values; capturing third and fourth images by the first and second sets of infrared sensors, respectively; processing the third and fourth images to detect a gas in the scene prior to performing the gas quantification; and performing gas quantification using the updated radiometric scene map and the third and fourth images.
A method executed in a system, wherein the system comprises a terminal and an identifier obtaining device, for obtaining an identifier of a terminal, wherein the method comprises: obtaining (Step 102), by the terminal, an identifier of a processor of the terminal when the terminal is connected to the identifier obtaining device, or when the terminal receives an obtaining request sent by the identifier obtaining device, wherein the obtaining request is used to obtain the identifier of the processor; and sending (Step 103), by the terminal, the identifier of the processor to the identifier obtaining device; receiving, by the identifier obtaining device, the identifier of the processor; obtaining (Step 104), by the identifier obtaining device, the identifier of the terminal according to the identifier of the processor and a correspondence between the identifier of the processor and the identifier of the terminal. obtaining (Step 102), by the terminal, an identifier of a processor of the terminal when the terminal is connected to the identifier obtaining device, or when the terminal receives an obtaining request sent by the identifier obtaining device, wherein the obtaining request is used to obtain the identifier of the processor; and sending (Step 103), by the terminal, the identifier of the processor to the identifier obtaining device; receiving, by the identifier obtaining device, the identifier of the processor; obtaining (Step 104), by the identifier obtaining device, the identifier of the terminal according to the identifier of the processor and a correspondence between the identifier of the processor and the identifier of the terminal.
A computing device (101, 201, 236, 302, 402, 502, 602, 802, 902, 1002, 1102, 1202, 1302, 1602) comprising: a deformable surface; a position sensor (132, 232) configured to detect a position of the deformable surface and transmit a position sensor signal associated with the position; a deformation sensor (134, 240) configured to determine a deformation of the deformable surface and transmit a deformation sensor signal associated with the deformation; a processor (102, 202) in communication with the position sensor and deformation sensor, the processor configured to: receive the position sensor signal and receive the deformation sensor signal: determine a haptic effect based at least in part on the deformation sensor signal; and transmit a haptic signal associated with the haptic effect; a haptic output device (118, 218) in communication with the processor and configured to receive the haptic signal and to output the haptic effect; characterised in that: the detected position comprises an orientation of the computing device with respect to a remote object (404, 506, 604, 804, 904, 1104, 1306); and the computing device is configured to interact with the remote object based on the deformation and on a determination that the computing device is oriented toward the remote object. a deformable surface; a position sensor (132, 232) configured to detect a position of the deformable surface and transmit a position sensor signal associated with the position; a deformation sensor (134, 240) configured to determine a deformation of the deformable surface and transmit a deformation sensor signal associated with the deformation; a processor (102, 202) in communication with the position sensor and deformation sensor, the processor configured to: receive the position sensor signal and receive the deformation sensor signal: determine a haptic effect based at least in part on the deformation sensor signal; and transmit a haptic signal associated with the haptic effect; receive the position sensor signal and receive the deformation sensor signal: determine a haptic effect based at least in part on the deformation sensor signal; and transmit a haptic signal associated with the haptic effect; a haptic output device (118, 218) in communication with the processor and configured to receive the haptic signal and to output the haptic effect; characterised in that: the detected position comprises an orientation of the computing device with respect to a remote object (404, 506, 604, 804, 904, 1104, 1306); and the computing device is configured to interact with the remote object based on the deformation and on a determination that the computing device is oriented toward the remote object.
A polyurethane yarn, characterized in containing a partially hindered phenol compound having at least one partially hindered hydroxyphenyl and a molecular weight of 300 or greater, and a synthetic carbonate comprising one metal selected from among a group consisting of alkali metals and alkaline earth metals; wherein the partially hindered phenol compound is ethylene-1,2-bis(3,3-bis[3-t-butyl-4-hydroxyphenyl]butyrate.
A method for erasure decoding an ECC coded bitstream that comprises DC control bit patterns formed from DC control bits of the bitstream together with preceding and subsequent data bits from the bitstream, comprising using the DC control bit patterns as self-checkable erasure clues needing no other information than the clue itself to derive if the clue has been corrupted or not by looking up the value of the clue in a table showing which values constitute negative clues and which values constitute positive clues, wherein the erasure clues constitute an erasure information where negative erasure clues indicate no error, and positive erasure clues indicate the occurrence of an error, the method further comprising a postprocessing of the erasure information in order to detect further errors.
A terminal operating method, comprising: generating at least one contact on a screen interface of a terminal; and displaying a preset function interface on the screen interface, characterised in that: if the at least one contact is located at a gap having multiple operation areas (102, 104) between a bottom edge of the screen interface and a function identifier displayed on the screen interface, and if a preset gesture track is formed from the contact as a start point through a slit between multiple function identifiers displayed on the screen interface, the preset function interface is displayed, wherein the preset function interface corresponds to either the slit through which the preset gesture track is formed or to the operation area from which the preset gesture track is started. generating at least one contact on a screen interface of a terminal; and displaying a preset function interface on the screen interface, characterised in that: if the at least one contact is located at a gap having multiple operation areas (102, 104) between a bottom edge of the screen interface and a function identifier displayed on the screen interface, and if a preset gesture track is formed from the contact as a start point through a slit between multiple function identifiers displayed on the screen interface, the preset function interface is displayed, wherein the preset function interface corresponds to either the slit through which the preset gesture track is formed or to the operation area from which the preset gesture track is started. if the at least one contact is located at a gap having multiple operation areas (102, 104) between a bottom edge of the screen interface and a function identifier displayed on the screen interface, and if a preset gesture track is formed from the contact as a start point through a slit between multiple function identifiers displayed on the screen interface, the preset function interface is displayed, wherein the preset function interface corresponds to either the slit through which the preset gesture track is formed or to the operation area from which the preset gesture track is started.