mhurhangee/ep-ind-claims huggingface dataset:
A method for capturing an image that is applicable to a terminal, comprising: acquiring a current motion parameter of the terminal and a current ambient light parameter; wherein the current motion parameter indicates a motion state of the terminal, and the current motion parameter comprises a rotational angular velocity and a motion acceleration, the current ambient light parameter indicates a current ambient light intensity, and a current exposure parameter comprises a shutter value, an aperture value and a sensitivity; characterized in that the method comprises further acquiring an exposure parameter corresponding to the current ambient light parameter from a stored corresponding relationship between light parameters and exposure parameters; searching a non-zero motion parameter from the rotational angular velocity and the motion acceleration, the searching step comprises: determining whether the rotational angular velocity is equal to 0 and whether the motion acceleration is equal to 0, and determining at least one of the rotational angular velocity and the motion acceleration being not equal to 0 as the searched non-zero motion parameter; setting the current exposure parameter of the terminal based on the exposure parameter corresponding to the current ambient light parameter and the searched non-zero motion parameter; and capturing the image based on the set current exposure parameter of the terminal. acquiring a current motion parameter of the terminal and a current ambient light parameter; wherein the current motion parameter indicates a motion state of the terminal, and the current motion parameter comprises a rotational angular velocity and a motion acceleration, the current ambient light parameter indicates a current ambient light intensity, and a current exposure parameter comprises a shutter value, an aperture value and a sensitivity; characterized in that the method comprises further acquiring an exposure parameter corresponding to the current ambient light parameter from a stored corresponding relationship between light parameters and exposure parameters; searching a non-zero motion parameter from the rotational angular velocity and the motion acceleration, the searching step comprises: determining whether the rotational angular velocity is equal to 0 and whether the motion acceleration is equal to 0, and determining at least one of the rotational angular velocity and the motion acceleration being not equal to 0 as the searched non-zero motion parameter; setting the current exposure parameter of the terminal based on the exposure parameter corresponding to the current ambient light parameter and the searched non-zero motion parameter; and capturing the image based on the set current exposure parameter of the terminal.
A method comprising: transmitting traffic over an Ethernet link coupling a first Ethernet link partner to a second Ethernet link partner; updating, in response to a network interface re-configuration event, a configuration of a Media Access Channel Layer, MAC, circuitry of the first Ethernet link partner; pausing transmitting traffic over the Ethernet link while keeping a Physical Layer, PHY, circuitry of the first Ethernet link partner active; updating the configuration of the MAC circuitry of the first Ethernet link partner while traffic transmitted over the Ethernet link is paused and the PHY circuitry of the first Ethernet link partner is active, wherein updating the configuration of the MAC circuitry while traffic transmitted over the Ethernet link is paused includes resetting at least a portion of the MAC circuitry, wherein power to the MAC and PHY is implemented such that power for the MAC circuitry and for the PHY circuitry can be controlled independently, and wherein resetting, at least, a portion of the MAC circuitry comprises cycling power to the MAC circuitry while maintaining power to the PHY circuitry; and resuming transmitting traffic over the Ethernet link. transmitting traffic over an Ethernet link coupling a first Ethernet link partner to a second Ethernet link partner; updating, in response to a network interface re-configuration event, a configuration of a Media Access Channel Layer, MAC, circuitry of the first Ethernet link partner; pausing transmitting traffic over the Ethernet link while keeping a Physical Layer, PHY, circuitry of the first Ethernet link partner active; updating the configuration of the MAC circuitry of the first Ethernet link partner while traffic transmitted over the Ethernet link is paused and the PHY circuitry of the first Ethernet link partner is active, wherein updating the configuration of the MAC circuitry while traffic transmitted over the Ethernet link is paused includes resetting at least a portion of the MAC circuitry, wherein power to the MAC and PHY is implemented such that power for the MAC circuitry and for the PHY circuitry can be controlled independently, and wherein resetting, at least, a portion of the MAC circuitry comprises cycling power to the MAC circuitry while maintaining power to the PHY circuitry; and wherein power to the MAC and PHY is implemented such that power for the MAC circuitry and for the PHY circuitry can be controlled independently, and wherein resetting, at least, a portion of the MAC circuitry comprises cycling power to the MAC circuitry while maintaining power to the PHY circuitry; and resuming transmitting traffic over the Ethernet link.
A framework for use with an air duct system (10, 12, 112, 130) having an air duct, the framework comprising: a shaft; and a plurality of radial support members, each radial support member comprising: a hub to be coupled to the shaft, a rib at least partially encircling the hub, the rib to be positioned adjacent an inner surface of the air duct to substantially maintain the air duct in an open position; a first spoke coupling the rib to a first side of the hub; and a second spoke coupling the rib to a second side of the hub, the first side being opposite the second side, the framework having a variable length between first and second ends corresponding to a first and a second radial support member, positioned within the air duct, the first and second ends of the framework being configured to tension the pliable sidewall material along a length of the air duct as the variable length of the framework is increased, such that the tension in the pliable sidewall material is maintained to keep the pliable sidewall material taut. a shaft; and a plurality of radial support members, each radial support member comprising: a hub to be coupled to the shaft, a rib at least partially encircling the hub, the rib to be positioned adjacent an inner surface of the air duct to substantially maintain the air duct in an open position; a first spoke coupling the rib to a first side of the hub; and a second spoke coupling the rib to a second side of the hub, the first side being opposite the second side, the framework having a variable length between first and second ends corresponding to a first and a second radial support member, positioned within the air duct, the first and second ends of the framework being configured to tension the pliable sidewall material along a length of the air duct as the variable length of the framework is increased, such that the tension in the pliable sidewall material is maintained to keep the pliable sidewall material taut. a hub to be coupled to the shaft, a rib at least partially encircling the hub, the rib to be positioned adjacent an inner surface of the air duct to substantially maintain the air duct in an open position; a first spoke coupling the rib to a first side of the hub; and a second spoke coupling the rib to a second side of the hub, the first side being opposite the second side, the framework having a variable length between first and second ends corresponding to a first and a second radial support member, positioned within the air duct, the first and second ends of the framework being configured to tension the pliable sidewall material along a length of the air duct as the variable length of the framework is increased, such that the tension in the pliable sidewall material is maintained to keep the pliable sidewall material taut.
A power switch (100; 400) comprising: an outer housing (110; 300; 310; 410) including a first power terminal (111; 411) and a second power terminal (113; 413); a power electronics board (120; 420) disposed within the outer housing and including a semiconductor switch (127, 129) structured to selectively conduct a current between the first power terminal and the second power terminal; a first heat sink (130; 200; 430) coupled to a first side of the power electronics board; a plurality of thermally conductive connectors (140; 440) each including a first end coupled to a second side of the power electronics board, the second side of the power electronics board being opposite the first side of the power electronics board; a second heat sink (150; 200; 450) coupled to a second end of each of the plurality of thermally conductive connectors; and a control electronics board (160; 460) structured to control the semiconductor switch, the control electronics board being located within an enclosure formed of the second heat sink, the plurality of thermally conductive connectors, and the power electronics board. an outer housing (110; 300; 310; 410) including a first power terminal (111; 411) and a second power terminal (113; 413); a power electronics board (120; 420) disposed within the outer housing and including a semiconductor switch (127, 129) structured to selectively conduct a current between the first power terminal and the second power terminal; a first heat sink (130; 200; 430) coupled to a first side of the power electronics board; a plurality of thermally conductive connectors (140; 440) each including a first end coupled to a second side of the power electronics board, the second side of the power electronics board being opposite the first side of the power electronics board; a second heat sink (150; 200; 450) coupled to a second end of each of the plurality of thermally conductive connectors; and a control electronics board (160; 460) structured to control the semiconductor switch, the control electronics board being located within an enclosure formed of the second heat sink, the plurality of thermally conductive connectors, and the power electronics board.
A negative electrode active material for lithium ion secondary battery comprising a silicon-containing alloy having a composition represented by the following Chemical Formula [Chemical Formula 1] Si x Sn y M z A a, wherein in Chemical Formula above, A is an unavoidable impurity, M is titanium (Ti), x, y, z, and a represent values in terms of percent by mass, and 0 < x < 100, 0 < y < 100, 7 < z < 100, and 0 ≤ a < 0.5 and x + y + z + a = 100; wherein a ratio value (B/A) of a diffraction peak intensity B of a plane of Sn in a range of 2θ = 26 to 35° to a diffraction peak intensity A of a plane of Si in a range of 2θ = 24 to 33° is 0.3 or more and 3.7 or less in an X-ray diffraction measurement of the silicon-containing alloy using a CuKα1 ray, the diffraction peak intensities A and B being determined according to the description; wherein a full width at half maximum of a diffraction peak of a plane of Sn in a range of 2θ = 26 to 35° is 0.6° or greater in an X-ray diffraction measurement of the silicon-containing alloy using a CuKα1 ray, the full width at half maximum being determined according to the description; and wherein the silicon-containing alloy has a structure comprising a parent phase containing amorphous or low crystalline silicon as a main component and a silicide phase containing a silicide of titanium (Ti), the silicide phase being dispersed in the parent phase, wherein tin (Sn) is dispersed in silicon (Si) of the parent phase. M is titanium (Ti), x, y, z, and a represent values in terms of percent by mass, and 0 < x < 100, 0 < y < 100, 7 < z < 100, and 0 ≤ a < 0.5 and x + y + z + a = 100; wherein a ratio value (B/A) of a diffraction peak intensity B of a plane of Sn in a range of 2θ = 26 to 35° to a diffraction peak intensity A of a plane of Si in a range of 2θ = 24 to 33° is 0.3 or more and 3.7 or less in an X-ray diffraction measurement of the silicon-containing alloy using a CuKα1 ray, the diffraction peak intensities A and B being determined according to the description; wherein a full width at half maximum of a diffraction peak of a plane of Sn in a range of 2θ = 26 to 35° is 0.6° or greater in an X-ray diffraction measurement of the silicon-containing alloy using a CuKα1 ray, the full width at half maximum being determined according to the description; and wherein the silicon-containing alloy has a structure comprising a parent phase containing amorphous or low crystalline silicon as a main component and a silicide phase containing a silicide of titanium (Ti), the silicide phase being dispersed in the parent phase, wherein tin (Sn) is dispersed in silicon (Si) of the parent phase.
A combination of a fixing system with at least one mini riser sleeve comprising a linear cavity through which a fluid material can be passed for the feeding process and which is defined by at least one cavity wall, and at least one opening by which said cavity communicates with the outer environment, wherein said fixing system is suitable for fixing the mini riser sleeve to a mould characterized in that; said fixing system comprises; • at least one nozzle suitable for being placed to the cavity by passing through said opening, being able to move inside said cavity by the load applied during the moulding process, comprising at least one expansion at the end that is close to said mini riser sleeve, and rubbing on said cavity wall while moving forward in said cavity; • at least one housing positioned on said expansion. • at least one nozzle suitable for being placed to the cavity by passing through said opening, being able to move inside said cavity by the load applied during the moulding process, comprising at least one expansion at the end that is close to said mini riser sleeve, and rubbing on said cavity wall while moving forward in said cavity; • at least one housing positioned on said expansion.
Method for determining the temperature in a flow channel of a gas turbine positioned on a testing bench, wherein the method comprises: - arranging at least one rod-shaped element provided with a thermal paint coating inside the flow channel, - operating the gas turbine on the testing bench in a defined operating mode, wherein the thermal paint coating of the at least one rod-shaped element changes color depending on the temperature that the thermal paint coating is exposed to, - detecting the color distribution of the thermal paint coating of the at least one rod-shaped element, and - determining the temperature that had been present in the flow channel along the at least one rod-shaped element in the defined operating mode based on the detected color distribution, - wherein the at least one rod-shaped element that is provided with a thermal paint coating is arranged in a radially extending manner inside the flow channel, and the temperature profile of the flow in the flow channel along the radial direction is detected at a given circumferential position and a given axial position based on the color distribution. - arranging at least one rod-shaped element provided with a thermal paint coating inside the flow channel, - operating the gas turbine on the testing bench in a defined operating mode, wherein the thermal paint coating of the at least one rod-shaped element changes color depending on the temperature that the thermal paint coating is exposed to, - detecting the color distribution of the thermal paint coating of the at least one rod-shaped element, and - determining the temperature that had been present in the flow channel along the at least one rod-shaped element in the defined operating mode based on the detected color distribution, - wherein the at least one rod-shaped element that is provided with a thermal paint coating is arranged in a radially extending manner inside the flow channel, and the temperature profile of the flow in the flow channel along the radial direction is detected at a given circumferential position and a given axial position based on the color distribution.
A medical system comprising: a memory storing information of a four-dimensional computer model of an anatomical structure of a patient, wherein the four-dimensional computer model includes information of a plurality of three-dimensional computer models of the anatomical structure, wherein each of the plurality of three-dimensional computer models is for a different point in time than others of the plurality of three-dimensional computer models so that the fourth dimension is time, wherein the plurality of three-dimensional computer models indicate movement of the anatomical structure, wherein each of the plurality of three-dimensional computer models defines a plurality of passages, and wherein each of the plurality of passages has a shape; a medical device having a flexible body and a plurality of sensors (1310a-1310k) distributed along the length of the flexible body; and a processor (130; 140; 150; 160) programmed to determine the pose and shape of the flexible body while disposed in a passage of the anatomical structure using information provided by the plurality of sensors at the same point in time and register the medical device to the four-dimensional computer model of the anatomical structure by matching at least the determined shape of the flexible body to a best fitting one of the shapes of the pluralities of passages in the four-dimensional computer model of the anatomical structure. a memory storing information of a four-dimensional computer model of an anatomical structure of a patient, wherein the four-dimensional computer model includes information of a plurality of three-dimensional computer models of the anatomical structure, wherein each of the plurality of three-dimensional computer models is for a different point in time than others of the plurality of three-dimensional computer models so that the fourth dimension is time, wherein the plurality of three-dimensional computer models indicate movement of the anatomical structure, wherein each of the plurality of three-dimensional computer models defines a plurality of passages, and wherein each of the plurality of passages has a shape; a medical device having a flexible body and a plurality of sensors (1310a-1310k) distributed along the length of the flexible body; and a processor (130; 140; 150; 160) programmed to determine the pose and shape of the flexible body while disposed in a passage of the anatomical structure using information provided by the plurality of sensors at the same point in time and register the medical device to the four-dimensional computer model of the anatomical structure by matching at least the determined shape of the flexible body to a best fitting one of the shapes of the pluralities of passages in the four-dimensional computer model of the anatomical structure.
A foamed article comprising a polymer composition, wherein the polymer composition comprises a first heterophasic propylene copolymer (a) and an inorganic filler, wherein the xylene soluble part of the first heterophasic propylene copolymer (a) is in the range from 18.1 to 27.6 wt% as determined by ISO16152:2005 based on the total amount of the first heterophasic propylene copolymer (a), wherein the intrinsic viscosity of the xylene soluble part of the first heterophasic propylene copolymer (a) is in the range from 2.9 to 4.8 dl/g as measured according to ISO1628-1:2009 in decalin at 135 °C; wherein the melt flow index of the first heterophasic propylene copolymer (a) is in the range from 5.6 to 65.0 dg/min as determined according to ISO1133-1:2011 at 230°C with 2.16 kg load, wherein the amount of the first heterophasic propylene copolymer (a) is in the range from 18.2 to 79.7 wt% based on the total amount of the polymer composition, wherein the ash content of the polymer composition as measured according to ISO 3451-1:2008 at 600°C for 4 hours is in the range from 3.5 to 30.2 wt% based on the total amount of the polymer composition, wherein the foamed article according to the present invention has an expansion ratio in the range from 1.05 to 2.14, preferably in the range from 1.38 to 1.97, more preferably in the range from 1.49 to 1.82, wherein the expansion ratio is the ratio between the density of the polymer composition before foaming and that of the foamed article and wherein the density is measured according to ISO 1183-1:2012. wherein the xylene soluble part of the first heterophasic propylene copolymer (a) is in the range from 18.1 to 27.6 wt% as determined by ISO16152:2005 based on the total amount of the first heterophasic propylene copolymer (a), wherein the intrinsic viscosity of the xylene soluble part of the first heterophasic propylene copolymer (a) is in the range from 2.9 to 4.8 dl/g as measured according to ISO1628-1:2009 in decalin at 135 °C; wherein the melt flow index of the first heterophasic propylene copolymer (a) is in the range from 5.6 to 65.0 dg/min as determined according to ISO1133-1:2011 at 230°C with 2.16 kg load, wherein the amount of the first heterophasic propylene copolymer (a) is in the range from 18.2 to 79.7 wt% based on the total amount of the polymer composition, wherein the ash content of the polymer composition as measured according to ISO 3451-1:2008 at 600°C for 4 hours is in the range from 3.5 to 30.2 wt% based on the total amount of the polymer composition,
An in vitro method of inducing differentiation of mesenchymal stem cells to chondrocytes, comprising: incubating the mesenchymal stem cells in a medium containing a compound represented by the following Formula 1: wherein R 1 and R 2 are each independently hydrogen, or are joined together to form a pyridine ring; R 3 is hydrogen, phenyl, or C 1-4 alkyl, or is joined together with R 2 to form a benzene ring; R 4 and R 5 are each independently hydrogen, R 6 is phenyl, naphthalyl, C 5-10 cycloalkyl, or C 1-4 alkyl group substituted with phenyl, and wherein R 6 is further substituted with hydroxyl or hydroxyl C 1-4 alkyl, R 7 is hydrogen or C 1-4 alkyl, and R 1 to R 3 is each independently unsubstituted, or further substituted with at least one substituent selected from the group consisting of C 1-4 alkyl, hydroxyl, hydroxyl C 1-4 alkyl, nitro, carboxyl, and halogen. incubating the mesenchymal stem cells in a medium containing a compound represented by the following Formula 1: wherein R 1 and R 2 are each independently hydrogen, or are joined together to form a pyridine ring; R 3 is hydrogen, phenyl, or C 1-4 alkyl, or is joined together with R 2 to form a benzene ring; R 4 and R 5 are each independently hydrogen, R 6 is phenyl, naphthalyl, C 5-10 cycloalkyl, or C 1-4 alkyl group substituted with phenyl, and wherein R 6 is further substituted with hydroxyl or hydroxyl C 1-4 alkyl, R 7 is hydrogen or C 1-4 alkyl, and R 1 to R 3 is each independently unsubstituted, or further substituted with at least one substituent selected from the group consisting of C 1-4 alkyl, hydroxyl, hydroxyl C 1-4 alkyl, nitro, carboxyl, and halogen. wherein R 1 and R 2 are each independently hydrogen, or are joined together to form a pyridine ring; R 3 is hydrogen, phenyl, or C 1-4 alkyl, or is joined together with R 2 to form a benzene ring; R 4 and R 5 are each independently hydrogen, R 6 is phenyl, naphthalyl, C 5-10 cycloalkyl, or C 1-4 alkyl group substituted with phenyl, and wherein R 6 is further substituted with hydroxyl or hydroxyl C 1-4 alkyl, R 7 is hydrogen or C 1-4 alkyl, and R 1 to R 3 is each independently unsubstituted, or further substituted with at least one substituent selected from the group consisting of C 1-4 alkyl, hydroxyl, hydroxyl C 1-4 alkyl, nitro, carboxyl, and halogen.