mhurhangee/ep-ind-claims huggingface dataset:
A device (120;500), comprising: at least one memory that stores computer-executable instructions; and at least one processor configured to access the at least one memory, wherein the at least one processor is configured to execute the computer-executable instructions to: identify a beacon frame received from a first device, the beacon frame indicating information relating to a first awake window, AW; suspend one or more first backoff timers for a duration of the first AW regardless of whether the device (120;500) is associated with a basic service set, BSS, of the first device; and associate a second backoff timer with a management frame. at least one memory that stores computer-executable instructions; and at least one processor configured to access the at least one memory, wherein the at least one processor is configured to execute the computer-executable instructions to: identify a beacon frame received from a first device, the beacon frame indicating information relating to a first awake window, AW; suspend one or more first backoff timers for a duration of the first AW regardless of whether the device (120;500) is associated with a basic service set, BSS, of the first device; and associate a second backoff timer with a management frame. identify a beacon frame received from a first device, the beacon frame indicating information relating to a first awake window, AW; suspend one or more first backoff timers for a duration of the first AW regardless of whether the device (120;500) is associated with a basic service set, BSS, of the first device; and associate a second backoff timer with a management frame.
A method of preparing water-soluble metal oxide nanoparticles, comprising the steps of synthesizing water-insoluble metal oxide nanoparticles in an organic solvent; dissolving the water-insoluble metal nanoparticles in a first solvent and dissolving a phase transfer ligand in a second solvent; and mixing the two solutions realized in step to thus exchange the surface of the water-insoluble metal oxide nanoparticles with the phase transfer ligand, wherein the phase transfer ligand comprises an adhesive region, an adhesive region-crosslinking region, or an adhesive region-reactive region, and the phase transfer ligand is selected from a group consisting of a sugar, a chemical monomer, and a polymer with the proviso that in case that the metal oxide nanoparticles consist of iron oxide the phase transfer ligand does not comprise an adhesive region.
An uplock for selectively retaining a capture pin of a movable element, the uplock comprising: a hook which is movable between a release position and a position for retaining a capture pin of the movable element; a locking member interacting with the hook and movable between a locked position in which it immobilizes the hook in the retaining position and an unlocked position in which the hook is free to be displaced under the force of the capture pin of the movable element; detection means adapted to detect a situation in which the hook is in the retaining position and whether the capture pin is present in the hook, wherein the detection means comprise a first sensor which cooperates with the hook or the locking member in order to detect whether the hook is in the retaining position, characterized in that the detection means further comprise a second sensor which is disposed to cooperate with a portion of the movable element (31; 42) which is distinct from the capture pin in order to detect the presence of the movable element in the immediate proximity of the uplock in the position occupied by the movable element when the capture pin is present in the hook. a hook which is movable between a release position and a position for retaining a capture pin of the movable element; a locking member interacting with the hook and movable between a locked position in which it immobilizes the hook in the retaining position and an unlocked position in which the hook is free to be displaced under the force of the capture pin of the movable element; detection means adapted to detect a situation in which the hook is in the retaining position and whether the capture pin is present in the hook,
A flexible display device, comprising: an outer frame; a first supporting plate mounted on the outer frame; a second supporting plate extendably connected to the first supporting plate; a roller device connected to the second supporting plate and disposed on a lateral edge of the second supporting plate away from the first supporting plate; rotating shaft assemblies mounted on the outer frame; and a transmission assembly, wherein one end of the transmission assembly is connected to the rotating shaft assemblies, and another end of the transmission assembly is connected to the roller device, wherein when the second supporting plate and the first supporting plate are expanded relatively or merged with each other, the transmission assembly guides the roller device and the rotating shaft assemblies to rotate simultaneously; wherein the transmission assembly comprises: a pair of racks disposed on a bottom surface of the second supporting plate in parallel, wherein the rotating shaft assemblies are rotatably connected to the racks; and a guy, wherein one end of the guy is wound on the rotating shaft assemblies, and another end of the guy is wound on the roller device. an outer frame; a first supporting plate mounted on the outer frame; a second supporting plate extendably connected to the first supporting plate; a roller device connected to the second supporting plate and disposed on a lateral edge of the second supporting plate away from the first supporting plate; rotating shaft assemblies mounted on the outer frame; and a transmission assembly, wherein one end of the transmission assembly is connected to the rotating shaft assemblies, and another end of the transmission assembly is connected to the roller device, wherein when the second supporting plate and the first supporting plate are expanded relatively or merged with each other, the transmission assembly guides the roller device and the rotating shaft assemblies to rotate simultaneously; wherein the transmission assembly comprises: a pair of racks disposed on a bottom surface of the second supporting plate in parallel, wherein the rotating shaft assemblies are rotatably connected to the racks; and a guy, wherein one end of the guy is wound on the rotating shaft assemblies, and another end of the guy is wound on the roller device. a pair of racks disposed on a bottom surface of the second supporting plate in parallel, wherein the rotating shaft assemblies are rotatably connected to the racks; and a guy, wherein one end of the guy is wound on the rotating shaft assemblies, and another end of the guy is wound on the roller device.
A blood sample collection and separation device comprising a sample collection unit having an inside space for holding a sample and having openings at the top and the bottom, wherein the inside space, the bottom opening and the top opening communicate, the inner diameter thereof increases from the bottom opening toward the top opening, and the wall surface defining the inside space into which a sample is placed forms a gradient continuing from the bottom opening toward the top opening, an analyte storage unit having a housing into which the sample collection unit is inserted and having a sample collection unit bottom cap tightly sealing the bottom opening of the sample collection unit, wherein the sample collection unit bottom cap has an agent holding portion containing an agent, and it is configured that when the sample collection unit is inserted into the analyte storage unit and the bottom opening is inserted into the agent holding portion, then, at least a part of the agent enters into the sample collection unit, and an analyte sealing cap for plugging the top opening of the sample collection unit, wherein when the analyte sealing cap plugs the top opening under condition of insertion of the sample collection unit into the analyte storage unit, the sample is sealed, wherein the agent is a separating agent or an anticoagulant.
Hydraulic arrangement having a first hydraulic machine with adjustable displacement volume (V g), which, for the adjustment of the displacement volume (V g), has an actuating cylinder (26; 126) with an actuating piston, by means of which an actuating chamber is formed in the actuating cylinder (26; 126), having a first control valve, by means of the control function of which a pressure medium feed into the actuating chamber and a pressure medium discharge out of the actuating chamber are controllable in a first operating mode of the first hydraulic machine, wherein an actuatable means (46; 146), by the actuation of which the control function of the first control valve is deactivatable and a control function of a second control valve of the arrangement, by means of which the pressure medium feed and pressure medium discharge to and from the actuating chamber are controllable, is activatable in a second operating mode of the first hydraulic machine.
A braking device of at least one rotary shaft (S; S1, S2) extending along a longitudinal axis X, the braking device comprising at least: - an actuation unit comprising at least one winding (B; B1, B2; B1', B2') and two series of springs (R1, R2) mounted in a fixed housing, - two friction discs (D1, D2) mounted axially slidable on said at least one rotary shaft (S; S1, S2), - a rotationally fixed end flange, - an intermediate flange that is rotationally fixed but mounted axially slidable between the two friction discs (D1, D2), - two magnetic armatures (A1, A2) that are rotationally fixed, but mounted axially slidable and biased respectively, when idle, by the two series of springs (R1, R2), in such a way that one of the two magnetic armatures (A1, A2) is pushed against one of the two friction discs (D1, D2), which then engages the intermediate flange, which in turn engages the other friction disc, which engages the end flange, and when the winding (B; B1, B2; B1', B2') is supplied with current, the magnetic armatures (A1, A2) are magnetically biased towards the winding (B; B1, B2; B1', B2'), the magnetic armatures (A1, A2) being arranged in series along the longitudinal axis X, with each of the series of springs (R1, R2) respectively biasing a magnetic armature (A1, A2), a series of springs passing through the thickness of one of the two magnetic armatures in order to bias the other magnetic armature, characterized in that a non-magnetic intermediate gap separates the two magnetic armatures (A1, A2). - an actuation unit comprising at least one winding (B; B1, B2; B1', B2') and two series of springs (R1, R2) mounted in a fixed housing, - two friction discs (D1, D2) mounted axially slidable on said at least one rotary shaft (S; S1, S2), - a rotationally fixed end flange, - an intermediate flange that is rotationally fixed but mounted axially slidable between the two friction discs (D1, D2), - two magnetic armatures (A1, A2) that are rotationally fixed, but mounted axially slidable and biased respectively, when idle, by the two series of springs (R1, R2), in such a way that one of the two magnetic armatures (A1, A2) is pushed against one of the two friction discs (D1, D2), which then engages the intermediate flange, which in turn engages the other friction disc, which engages the end flange, and when the winding (B; B1, B2; B1', B2') is supplied with current, the magnetic armatures (A1, A2) are magnetically biased towards the winding (B; B1, B2; B1', B2'), the magnetic armatures (A1, A2) being arranged in series along the longitudinal axis X, with each of the series of springs (R1, R2) respectively biasing a magnetic armature (A1, A2), a series of springs passing through the thickness of one of the two magnetic armatures in order to bias the other magnetic armature,
A structure for blocking outflow of a fluid for a washing machine comprising: - a housing of a detergent supply unit provided with an outlet from which detergent and washing water is discharged, - a water supply bellows provided with one end connected to the outlet of the housing and another end connected to a water supply hole of a washing tub; and - a door installed to be opened and closed, opened by wash water flowing from the outlet of the housing and closed by fluid generated from the washing tub towards the detergent supply unit, wherein the door is installed at the outlet of the housing, said door comprising a stationary member inserted into the outlet and provided with a hole communicating with the outlet, and a shielding member rotatably connected to one side of the stationary member for shielding the hole of the stationary member, characterized in that an insert-preventing unit for preventing the shielding member from being inserted into the water supply bellows when the door is opened is formed on the door, wherein the insert-preventing unit includes a plurality of ribs protruded from the shielding member so that the ribs are latched on the water supply bellows when the shielding member is rotated. - a housing of a detergent supply unit provided with an outlet from which detergent and washing water is discharged, - a water supply bellows provided with one end connected to the outlet of the housing and another end connected to a water supply hole of a washing tub; and - a door installed to be opened and closed, opened by wash water flowing from the outlet of the housing and closed by fluid generated from the washing tub towards the detergent supply unit,
A vehicle display device comprising: an upper-side segment display comprising three or more number-displaying elements arranged in a line in a lateral direction for displaying numerical values using a plurality of segments (39a-39g), the upper-side segment display being disposed in a vehicle instrument panel; a lower-side segment display comprising three or more number-displaying elements arranged in a line in the lateral direction for displaying numerical values using a plurality of segments (39a-39g), the lower-side segment display being disposed below the upper-side segment display; and a display control means for combining the number-displaying elements in the upper-side and lower-side segment displays (37, 38) and displaying vehicle information, characterized in that the display control means is configured to display a vehicle body using two upper and lower number-displaying elements near the lateral center in the upper-side and lower-side segment displays (37, 38), and to display a state of drive force distribution between wheels using number-displaying elements left and right of the upper and lower number-displaying elements that show the vehicle body. an upper-side segment display comprising three or more number-displaying elements arranged in a line in a lateral direction for displaying numerical values using a plurality of segments (39a-39g), the upper-side segment display being disposed in a vehicle instrument panel; a lower-side segment display comprising three or more number-displaying elements arranged in a line in the lateral direction for displaying numerical values using a plurality of segments (39a-39g), the lower-side segment display being disposed below the upper-side segment display; and a display control means for combining the number-displaying elements in the upper-side and lower-side segment displays (37, 38) and displaying vehicle information, characterized in that the display control means is configured to display a vehicle body using two upper and lower number-displaying elements near the lateral center in the upper-side and lower-side segment displays (37, 38), and to display a state of drive force distribution between wheels using number-displaying elements left and right of the upper and lower number-displaying elements that show the vehicle body.
A method for use with a lateral tube assembly, comprising: deploying downhole into a wellbore a lateral tube assembly coupled with a running string having a running sub, a window finder, and an extension sub; orienting a lateral tube window of the lateral tube assembly with a main window of a main bore casing by moving an engagement feature of the window finder into the main window and engaging a casing wall portion; and releasing the running string from the lateral tube assembly by: extending the extension sub to move the engagement feature away from the casing wall portion; locking the extension sub in an extended position; and applying a set down force to the running string to release the running sub from the lateral tube assembly. deploying downhole into a wellbore a lateral tube assembly coupled with a running string having a running sub, a window finder, and an extension sub; orienting a lateral tube window of the lateral tube assembly with a main window of a main bore casing by moving an engagement feature of the window finder into the main window and engaging a casing wall portion; and releasing the running string from the lateral tube assembly by: extending the extension sub to move the engagement feature away from the casing wall portion; locking the extension sub in an extended position; and applying a set down force to the running string to release the running sub from the lateral tube assembly.
A moving picture coding method for performing inter prediction coding on a coding target block included in a coding target picture, the moving picture coding method comprising: coding the coding target block using a motion vector; generating a plurality of motion vector predictors; and coding the motion vector using one of the plurality of motion vector predictors generated in the generating, wherein, in the generating, (i) it is determined whether it is prohibited to obtain a temporal motion vector predictor from a co-located block which is included in a coded picture different from the coding target picture and corresponds to the coding target block, the prohibition being applied for coded pictures that can be referred to by other pictures and which refer to other pictures, and (ii) when it is prohibited to obtain the temporal motion vector predictor from the co-located block (Yes in S12), a replacement vector which replaces the temporal motion vector predictor is included in the plurality of motion vector predictors. coding the coding target block using a motion vector; generating a plurality of motion vector predictors; and coding the motion vector using one of the plurality of motion vector predictors generated in the generating, wherein, in the generating, (i) it is determined whether it is prohibited to obtain a temporal motion vector predictor from a co-located block which is included in a coded picture different from the coding target picture and corresponds to the coding target block, the prohibition being applied for coded pictures that can be referred to by other pictures and which refer to other pictures, and (ii) when it is prohibited to obtain the temporal motion vector predictor from the co-located block (Yes in S12), a replacement vector which replaces the temporal motion vector predictor is included in the plurality of motion vector predictors.
A method for determining regional compliance C.REG i of a lung in spontaneous breathing, wherein the following steps are performed: - determining a lung extensibility value C.M by triggering an inspiratory maneuver, as well as either by measuring a compliance of the entire lung or by measuring a surrogate for the compliance of the entire lung, - detecting an electrical impedance distribution along at least one two-dimensional section through a human thorax by means of an apparatus for electrical impedance tomography, - dividing the detected electrical impedance distribution at various points in time into a plurality of BIT pixels, characterized by: - determining an end-expiratory electrical impedance Z.EXSP of each of the EIT pixels and an end-inspiratory electrical impedance Z.INSP of each of the EIT pixels, - determining an impedance difference ΔZ of each of the EIT pixels by forming a difference between the end-inspiratory electrical impedance Z.INSP and the end-expiratory electrical impedance Z.EXSP, - providing multiple impedance value ranges and assigning the EIT pixels to the impedance value ranges as a function of the respective impedance difference ΔZ of the EIT pixels, - determining the regional compliance C.REG i for specific EIT pixels that are assigned to an impedance value range i, as a function of a frequency distribution of all EIT pixels over the impedance value ranges and as a function of the lung extensibility value C.M. - determining a lung extensibility value C.M by triggering an inspiratory maneuver, as well as either by measuring a compliance of the entire lung or by measuring a surrogate for the compliance of the entire lung, - detecting an electrical impedance distribution along at least one two-dimensional section through a human thorax by means of an apparatus for electrical impedance tomography, - dividing the detected electrical impedance distribution at various points in time into a plurality of BIT pixels, characterized by: - determining an end-expiratory electrical impedance Z.EXSP of each of the EIT pixels and an end-inspiratory electrical impedance Z.INSP of each of the EIT pixels, - determining an impedance difference ΔZ of each of the EIT pixels by forming a difference between the end-inspiratory electrical impedance Z.INSP and the end-expiratory electrical impedance Z.EXSP, - providing multiple impedance value ranges and assigning the EIT pixels to the impedance value ranges as a function of the respective impedance difference ΔZ of the EIT pixels, - determining the regional compliance C.REG i for specific EIT pixels that are assigned to an impedance value range i, as a function of a frequency distribution of all EIT pixels over the impedance value ranges and as a function of the lung extensibility value C.M.
A self-cooled orifice structure comprising: a hot side panel; a cold side panel spaced from the hot side panel; a continuous inner wall extending between the hot and cold side panels and defining an orifice having a centerline and communicating axially through the hot and cold side panels; and a plurality of end walls in a first cooling cavity that is defined in-part by the hot and cold side panels and the inner wall, wherein each end wall of the plurality of end walls extend between and are engaged to the hot and cold side panels and are circumferentially spaced from the next adjacent end wall, and a plurality of inlet apertures tend through the cold side panel and are in fluid communication with the first cooling cavity with each one of the plurality of inlet apertures being proximate to a first side of a respective one of the plurality of end walls, and a plurality of outlet apertures extend through the hot side panel and are in fluid communication with the first cooling cavity with each one of the plurality of outlet apertures being associated with an opposite second side of a respective one of the plurality of end walls. a hot side panel; a cold side panel spaced from the hot side panel; a continuous inner wall extending between the hot and cold side panels and defining an orifice having a centerline and communicating axially through the hot and cold side panels; and a plurality of end walls in a first cooling cavity that is defined in-part by the hot and cold side panels and the inner wall, wherein each end wall of the plurality of end walls extend between and are engaged to the hot and cold side panels and are circumferentially spaced from the next adjacent end wall, and a plurality of inlet apertures tend through the cold side panel and are in fluid communication with the first cooling cavity with each one of the plurality of inlet apertures being proximate to a first side of a respective one of the plurality of end walls, and a plurality of outlet apertures extend through the hot side panel and are in fluid communication with the first cooling cavity with each one of the plurality of outlet apertures being associated with an opposite second side of a respective one of the plurality of end walls.