mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manipulating a photographic image captured by a camera of an inspection system, in which the photographic image captured by the camera is displayed visually on a screen which has a control unit and a touch-sensitive screen surface , wherein the control unit displays a positionally variable operating element which has a marking device on the screen , wherein at any position in the photographic image displayed on the screen an object having an object surface area of less than 1 mm 2 is selected by positioning the marking device of the operating element at the position of the selected object by changing the position of said operating element , characterized in that the control unit , triggered by this positioning of the marking device of the operating element , activates a manipulation tool, wherein the manipulation tool is used to manipulate the selected object independently of the remainder of the photographic image displayed on the screen , wherein the operating element is positioned by means of at least one control element displayed on the screen by the control unit , wherein the operating element displayed on the screen is divided into a plurality of segments , wherein touching each of these segments triggers a different manipulation of the object .
A multilayer absorbent core, the core comprising: a first, bodyside nonwoven; a second nonwoven; a first absorbent material layer positioned between the first and second nonwovens, embedded within the first nonwoven, embedded within the second nonwoven, or combinations thereof; a third nonwoven; and a second absorbent material layer positioned between the second and third nonwovens, embedded within the second nonwoven, embedded within the third nonwoven, or combinations thereof, wherein the nonwovens have a gradient of basis weight such that a basis weight of the first nonwoven is higher than a basis weight of the third nonwoven, and wherein the first and second absorbent material layers have a gradient of basis weight such that a basis weight of the second absorbent material layer is higher than a basis weight of the first absorbent material layer. a first, bodyside nonwoven; a second nonwoven; a first absorbent material layer positioned between the first and second nonwovens, embedded within the first nonwoven, embedded within the second nonwoven, or combinations thereof; a third nonwoven; and a second absorbent material layer positioned between the second and third nonwovens, embedded within the second nonwoven, embedded within the third nonwoven, or combinations thereof, wherein the nonwovens have a gradient of basis weight such that a basis weight of the first nonwoven is higher than a basis weight of the third nonwoven, and wherein the first and second absorbent material layers have a gradient of basis weight such that a basis weight of the second absorbent material layer is higher than a basis weight of the first absorbent material layer.
A computer implemented method, comprising: obtaining, using a processor, image data from a target coating ; performing, using the processor, an image analysis to determine sparkle points from the image data ; performing, using the processor, a hue analysis that comprises applying a series of hue-based band pass filters to the image data to determine a sparkle color from each sparkle point by identifying individual hue regions independent of lightness and/or brightness, and using regional labeling and analysis of chroma and lightness and/or brightness of the regions to isolate individual sparkle points within each hue band; calculating from the determined sparkle colors, using the processor, a sparkle color distribution of the sparkle points by averaging similar sparkle points into a single color point; and generating, using the processor, a coating formulation that is the same or substantially matching in appearance to the target coating , wherein generating the coating formulation comprises comparing the sparkle color distribution to a plurality of known coating formulations or toners in a database . obtaining, using a processor, image data from a target coating ; performing, using the processor, an image analysis to determine sparkle points from the image data ; performing, using the processor, a hue analysis that comprises applying a series of hue-based band pass filters to the image data to determine a sparkle color from each sparkle point by identifying individual hue regions independent of lightness and/or brightness, and using regional labeling and analysis of chroma and lightness and/or brightness of the regions to isolate individual sparkle points within each hue band; calculating from the determined sparkle colors, using the processor, a sparkle color distribution of the sparkle points by averaging similar sparkle points into a single color point; and generating, using the processor, a coating formulation that is the same or substantially matching in appearance to the target coating , wherein generating the coating formulation comprises comparing the sparkle color distribution to a plurality of known coating formulations or toners in a database .
A method for measuring the cerebral perfusion of a living being by means of magnetic resonance (="MR") imaging, wherein the change in the MR signal during passage of a contrast medium bolus in a measurement volume in the brain of the living being is measured, wherein additionally in a slice that is pervaded by an artery that supplies blood to the brain , further MR signals are recorded for determining the temporal progression of the concentration of the contrast medium during the bolus passage in the artery, and wherein during recording of the further MR signals from the slice , a magnetic field gradient is applied in such a manner that a one-dimensional projection image of the slice along the magnetic field gradient is generated for each excitation, characterized in that in the time intervals between the excitations of the further MR signals at least one radio frequency (="RF") pulse is irradiated in each case, which causes saturation of the nuclear spin magnetization in the slice , and that the artificial position shift of the artery position in the projection images of the slice compared with the actual position of the artery, which is caused by a change in a Larmor frequency of proton spins in the blood due to the contrast medium, is used for determination of the concentration of the contrast medium during the bolus passage in the artery.
A first communication device operating as access point and comprising a wireless communication unit configured to - set first information identifying a basic service set, BSS, of the first communication device, wherein the first information is BSS Color information of the first communication device, - set second information specifying another BSS included in a same extended service set, ESS, wherein the second information is ESS Color mask information expressing the BSS Color information of all the other second communication devices, operating as access points, set in the same ESS by a format of a bit mask for a bitmap indicating the BSS Color information of the first communication device, the ESS Color mask information having the same bit length as the BSS Color information, wherein all pieces of BSS Color information in the ESS can be derived with the bit mask format, and - notify a third communication device, operating as station, of the first information and the second information. - set first information identifying a basic service set, BSS, of the first communication device, wherein the first information is BSS Color information of the first communication device, - set second information specifying another BSS included in a same extended service set, ESS, wherein the second information is ESS Color mask information expressing the BSS Color information of all the other second communication devices, operating as access points, set in the same ESS by a format of a bit mask for a bitmap indicating the BSS Color information of the first communication device, the ESS Color mask information having the same bit length as the BSS Color information, wherein all pieces of BSS Color information in the ESS can be derived with the bit mask format, and - notify a third communication device, operating as station, of the first information and the second information.
Electronic unit for controlling one or more fire sensors (SEN) of a fire detection system , comprising: - a processing stage ; - a managing stage which can be connected, during a first interval of time (tl), to a data communication line configured to connect said one or more sensors (SEN) to one another, said managing stage being activated by the processing stage to generate, during said first interval of time (t1), first digital querying signals (S1) to be sent to said one or more sensors (SEN) through the data communication line to check the operating status of the sensors (SEN), said managing stage comprising a switching circuit controlled by the processing stage during said first interval of time (t1) in which the receiver circuitry block is connected to the data communication line by the switching circuit , to receive and measure, during said first interval of time (t1), second digital signals (S2) sent by said one or more sensors (SEN) in reply to said first digital querying signals (S1) and to detect transmission faults through the data communication line , characterized in that said managing stage further comprises an operating status checking circuitry block of the receiver circuitry block directly connected to an output (OUT) of the receiver circuitry block , said operating status checking circuitry block being activated by the processing stage to check the operating status of the receiver circuitry block during a second interval of time (t2) in which the receiver circuitry block is disconnected from the data communication line by the switching circuit . - a processing stage ; - a managing stage which can be connected, during a first interval of time (tl), to a data communication line configured to connect said one or more sensors (SEN) to one another, said managing stage being activated by the processing stage to generate, during said first interval of time (t1), first digital querying signals (S1) to be sent to said one or more sensors (SEN) through the data communication line to check the operating status of the sensors (SEN),
An isolated or purified, KRAS G12D-specific TCR comprising the amino acid sequences of SEQ ID NOs: 9-11 and (i) SEQ ID NOs: 12-14 or (ii) SEQ ID NOs: 20-22.
Aerosol-generating system comprising an aerosol-generating device and at least two consumables comprising an aerosol-forming substrate, the device comprising a device housing comprising at least two receiving chambers , wherein each of the at least two consumables is accommodated in one of the at least two receiving chambers ; the system further comprising at least two mouthpieces , wherein each of the at least two mouthpieces is aligned with one of the at least two consumables and wherein an airflow into and out of each of the at least two mouthpieces is kept separate from the airflow into and out of each of the other of the at least two mouthpieces .
A shroud assembly , comprising: a first ring ; a second ring aft of the first ring ; and a shroud disposed between the first ring and the second ring , the shroud comprising a plurality of circumferentially adjacent shroud segments , wherein each shroud segment of the plurality of circumferentially adjacent shroud segments extends axially from the first ring to the second ring , wherein a first shroud segment defines a first number of vane apertures , characterised in that a second shroud segment defines a second number of vane apertures different from the first number of vane apertures . a first ring ; a second ring aft of the first ring ; and a shroud disposed between the first ring and the second ring , the shroud comprising a plurality of circumferentially adjacent shroud segments , wherein each shroud segment of the plurality of circumferentially adjacent shroud segments extends axially from the first ring to the second ring , wherein a first shroud segment defines a first number of vane apertures , characterised in that a second shroud segment defines a second number of vane apertures different from the first number of vane apertures .
A belt tensioning system for tensioning a belt of a belt drive system for transferring torque from a drive unit of a door operating system to a sliding door leaf of a sliding door assembly , the belt tensioning system comprising: a belt wheel connectable to the belt for torque transfer between said belt wheel and an additional belt wheel of the belt drive system ; a belt wheel guiding arrangement , the belt wheel being movably connected to said belt wheel guiding arrangement ; and a belt tensioning arrangement operatively connecting the belt wheel and the belt wheel guiding arrangement for adjusting the position of the belt wheel relative the belt wheel guiding arrangement , wherein the belt tensioning arrangement comprises an engagement member and a tensioning member , whereby the engagement member comprises an eccentric cam structure and the tensioning member is arranged to engage said eccentric cam structure of the engagement member , the engagement member and the tensioning member being adjustable relative each other to adjust the position of the belt wheel relative the belt wheel guiding arrangement , characterized in that the engagement member is mounted to the belt wheel and the belt wheel is rotatable relative said engagement member . a belt wheel connectable to the belt for torque transfer between said belt wheel and an additional belt wheel of the belt drive system ; a belt wheel guiding arrangement , the belt wheel being movably connected to said belt wheel guiding arrangement ; and a belt tensioning arrangement operatively connecting the belt wheel and the belt wheel guiding arrangement for adjusting the position of the belt wheel relative the belt wheel guiding arrangement ,
A process for providing piroctone olamine granules having a target particle size range, wherein the target particle size range is a target d 50 range, wherein the target d 50 range, based on a volume distribution, is from 0.3mm to 6mm, and wherein the piroctone olamine granules have an average D/l ratio, of diameter (D) to length (l) from 0.6 to 1.0, comprising: a) Compressing piroctone olamine crystals to form a compactate; b) Milling the compactate to form bulk granules of piroctone olamine. a) Compressing piroctone olamine crystals to form a compactate; b) Milling the compactate to form bulk granules of piroctone olamine.
A downlink data sending method, comprising: determining (S901) P physical downlink shared channels, PDSCHs, in a first time unit, wherein the P PDSCHs comprise a PDSCH that has no corresponding physical downlink control channel, PDCCH, at least two of the P PDSCHs overlap in time domain, and P is an integer greater than 1; sending data (S902) to a terminal device only on M PDSCHs in the P PDSCHs, wherein M is equal to 1, or M is an integer greater than 1 and less than P, and the M PDSCHs do not overlap in time domain; and receiving (S906) feedback information corresponding to the M PDSCHs from the terminal device ; and wherein a first PDSCH is the last repetition in PDSCH repetitions of first data, and the first PDSCH is a PDSCH other than the M PDSCHs in the P PDSCHs and overlaps at least one of the M PDSCHs in time domain; and the method further comprises: when the first data is sent to the terminal device on a second PDSCH, receiving feedback information for the first data from the terminal device in a feedback time unit corresponding to the first PDSCH, wherein the second PDSCH is any repetition of the first data before the first PDSCH. determining (S901) P physical downlink shared channels, PDSCHs, in a first time unit, wherein the P PDSCHs comprise a PDSCH that has no corresponding physical downlink control channel, PDCCH, at least two of the P PDSCHs overlap in time domain, and P is an integer greater than 1; sending data (S902) to a terminal device only on M PDSCHs in the P PDSCHs, wherein M is equal to 1, or M is an integer greater than 1 and less than P, and the M PDSCHs do not overlap in time domain; and receiving (S906) feedback information corresponding to the M PDSCHs from the terminal device ; and wherein a first PDSCH is the last repetition in PDSCH repetitions of first data, and the first PDSCH is a PDSCH other than the M PDSCHs in the P PDSCHs and overlaps at least one of the M PDSCHs in time domain; and the method further comprises: when the first data is sent to the terminal device on a second PDSCH, receiving feedback information for the first data from the terminal device in a feedback time unit corresponding to the first PDSCH, wherein the second PDSCH is any repetition of the first data before the first PDSCH.
A hydraulic clutch assembly, comprising: a shaft defining a shaft channel , one or more hydraulic ports defined through the shaft, and one or more lubrication holes defined through the shaft; and a porting manifold disposed at least partially within the shaft channel, wherein the porting manifold includes a control pressure path in fluid communication with the one or more hydraulic ports and a lubrication flow path in fluid communication with the one or more lubrication holes, wherein the control pressure path and the lubrication path are fluidly isolated in the porting manifold; a backstop and a piston disposed on the shaft, wherein the backstop is fixed to the shaft, wherein the piston is slidably engaged to the shaft to move relative to the shaft and the backstop, wherein the backstop and the piston define a hydraulic cavity therebetween in fluid communication with the one or more hydraulic ports of the shaft, wherein the piston is configured to move between a retracted position and an engaged position wherein the piston engages a clutch pack, wherein the piston is slidably sealed to an outer diameter of the backstop; and characterized by : a balance dam fixed to the piston and disposed around a portion of the backstop to define a lubrication cavity between a back side of the backstop and the balance dam. a shaft defining a shaft channel , one or more hydraulic ports defined through the shaft, and one or more lubrication holes defined through the shaft; and a porting manifold disposed at least partially within the shaft channel, wherein the porting manifold includes a control pressure path in fluid communication with the one or more hydraulic ports and a lubrication flow path in fluid communication with the one or more lubrication holes, wherein the control pressure path and the lubrication path are fluidly isolated in the porting manifold; a backstop and a piston disposed on the shaft, wherein the backstop is fixed to the shaft, wherein the piston is slidably engaged to the shaft to move relative to the shaft and the backstop, wherein the backstop and the piston define a hydraulic cavity therebetween in fluid communication with the one or more hydraulic ports of the shaft, wherein the piston is configured to move between a retracted position and an engaged position wherein the piston engages a clutch pack, wherein the piston is slidably sealed to an outer diameter of the backstop; and characterized by : a balance dam fixed to the piston and disposed around a portion of the backstop to define a lubrication cavity between a back side of the backstop and the balance dam.
A rolling device , comprising: - a feed conveyor configured to transversely feed groups of pieces of cigarettes/filters and patches for connecting the groups, each group being defined by at least two axially aligned pieces and each patch being positioned tangentially to a group of pieces starting from an end of it preferably glued to the group itself, wherein said feed conveyor is a drum provided with suction flutes disposed on a radially external surface of the drum , each suction flute being configured to receive and retain a group of pieces, - a rolling channel delimited, at one end, by a rolling portion of the drum , and at the other end, by a rolling unit located at a distance from the rolling portion such as to define a width of the rolling channel which is approximately the same as the diameter of the groups , said drum being adapted to be set in rotation about its horizontal axis to feed the groups to the rolling channel , wherein the rolling channel is adapted, in a use configuration of the rolling device, to be travelled transversely by each group of pieces which, as they advance in a travelling direction (D) between an infeed station (I) and an outfeed station (U) of the rolling channel , rolls on the rolling portion and on the rolling unit rotating about its longitudinal axis, characterized in that the rolling unit comprises an infeed rolling bed and an outfeed rolling bed located in succession along the travelling direction (D) of the rolling channel and defining an infeed stretch and an outfeed stretch of the rolling channel , respectively, adapted to roll each group of pieces by an infeed rolling angle (δ) and an outfeed rolling angle, respectively, and in that the infeed rolling bed is movable along the travelling direction (D) independently of the outfeed rolling bed to produce different rolling modes along the infeed stretch and along the outfeed stretch . - a feed conveyor configured to transversely feed groups of pieces of cigarettes/filters and patches for connecting the groups, each group being defined by at least two axially aligned pieces and each patch being positioned tangentially to a group of pieces starting from an end of it preferably glued to the group itself, wherein said feed conveyor is a drum provided with suction flutes disposed on a radially external surface of the drum , each suction flute being configured to receive and retain a group of pieces, - a rolling channel delimited, at one end, by a rolling portion of the drum , and at the other end, by a rolling unit located at a distance from the rolling portion such as to define a width of the rolling channel which is approximately the same as the diameter of the groups , said drum being adapted to be set in rotation about its horizontal axis to feed the groups to the rolling channel , wherein the rolling channel is adapted, in a use configuration of the rolling device, to be travelled transversely by each group of pieces which, as they advance in a travelling direction (D) between an infeed station (I) and an outfeed station (U) of the rolling channel , rolls on the rolling portion and on the rolling unit rotating about its longitudinal axis,