mhurhangee/ep-ind-claims huggingface dataset:
A method for drawing command replay in memory for video format conversion by a video server, comprising: intercepting an operating system graphics call from a video stream; passing the operating system graphics call to a video processing module; setting a frame buffer in the memory as a target of a drawing command associated with the operating system graphics call; replaying the drawing command to create a virtual copy of the video stream by retaining a state of images in the frame buffer; performing a screen capture operation after the replaying of the drawing command in the frame buffer; and encoding an output of the screen capture operation into a video streaming protocol. intercepting an operating system graphics call from a video stream; passing the operating system graphics call to a video processing module; setting a frame buffer in the memory as a target of a drawing command associated with the operating system graphics call; replaying the drawing command to create a virtual copy of the video stream by retaining a state of images in the frame buffer; performing a screen capture operation after the replaying of the drawing command in the frame buffer; and encoding an output of the screen capture operation into a video streaming protocol.
A solid oxide fuel cell (10, 10'), comprising: a solid electrolyte layer; a fuel electrode layer that is disposed on one surface of the solid electrolyte layer; an oxygen electrode layer that is disposed on the other surface of the solid electrolyte layer; and an intermediate layer that is disposed between the solid electrolyte layer and the oxygen electrode layer and that includes ceria-based particles containing rare earth elements other than cerium, and ceramic particles consisting of oxide of a metallic element different from that of the ceria-based particles, characterized in that the ceramic particles have a smaller average particle diameter than that of the ceria-based particles and exist in grain boundaries of the ceria-based particles of the intermediate layer, and the porosity of the intermediate layer is in the range from 20% to 40%. a solid electrolyte layer; a fuel electrode layer that is disposed on one surface of the solid electrolyte layer; an oxygen electrode layer that is disposed on the other surface of the solid electrolyte layer; and an intermediate layer that is disposed between the solid electrolyte layer and the oxygen electrode layer and that includes ceria-based particles containing rare earth elements other than cerium, and ceramic particles consisting of oxide of a metallic element different from that of the ceria-based particles, characterized in that the ceramic particles have a smaller average particle diameter than that of the ceria-based particles and exist in grain boundaries of the ceria-based particles of the intermediate layer, and the porosity of the intermediate layer is in the range from 20% to 40%.
A thermal foldback control circuit (120, 130) for being electrically connected to a light emitting diode driver, the thermal foldback control circuit (120, 130) comprising: a voltage divider including a first resistor component having a first resistance, a second resistor component having a second resistance, and an output electrically connected between the first and second resistor components, and configured to output a reference voltage based on the first resistance and the second resistance; and a shunt regulator (126, 136) in a parallel-type configuration with the voltage divider, the shunt regulator (126, 136) configured to receive the reference voltage, and control a driver output of the LED driver based on the reference voltage, wherein the first resistance varies in response to a temperature at a reference point, and the second resistor component is in a series-type configuration with the first resistor component, characterised in that the second resistance varies in response to the temperature at the reference point. a voltage divider including a first resistor component having a first resistance, a second resistor component having a second resistance, and an output electrically connected between the first and second resistor components, and configured to output a reference voltage based on the first resistance and the second resistance; and a first resistor component having a first resistance, a second resistor component having a second resistance, and an output electrically connected between the first and second resistor components, and configured to output a reference voltage based on the first resistance and the second resistance; and a shunt regulator (126, 136) in a parallel-type configuration with the voltage divider, the shunt regulator (126, 136) configured to receive the reference voltage, and control a driver output of the LED driver based on the reference voltage, wherein the first resistance varies in response to a temperature at a reference point, and the second resistor component is in a series-type configuration with the first resistor component, characterised in that the second resistance varies in response to the temperature at the reference point. receive the reference voltage, and control a driver output of the LED driver based on the reference voltage, wherein the first resistance varies in response to a temperature at a reference point, and the second resistor component is in a series-type configuration with the first resistor component,
A method for imaging particles in flow cytometry using an optical system for imaging the particles, comprising: transmitting a light beam at a fluidic channel carrying a fluid sample containing particles, such that the light beam is scattered by the particles or causes fluorescent emission from the particles in the fluidic channel; receiving the scattered or fluorescently-emitted light at a spatial optical filter (111, 611, 711A) positioned in an optical path and an imaging plane of an optical detector, the spatial optical filter including a surface having a plurality of apertures arranged in a pattern along a transverse direction opposite to particle flow and a longitudinal direction parallel to particle flow, such that different portions of a particle flowing over the pattern of the apertures pass different apertures at different times and scatter the light beam or emit fluorescent light at locations associated with the apertures; encoding an optical signal including spatial and temporal information of the particle based on at least some of the received scattered or emitted fluorescent light from the fluidic channel carrying the fluid sample; detecting the encoded optical signal by the optical detector; and processing the detected optical signal, at a data processing unit in communication with the optical detector, to produce image data associated with the particle flowing through the fluidic channel, wherein the produced image data includes information of a physical characteristic of the particle. transmitting a light beam at a fluidic channel carrying a fluid sample containing particles, such that the light beam is scattered by the particles or causes fluorescent emission from the particles in the fluidic channel; receiving the scattered or fluorescently-emitted light at a spatial optical filter (111, 611, 711A) positioned in an optical path and an imaging plane of an optical detector, the spatial optical filter including a surface having a plurality of apertures arranged in a pattern along a transverse direction opposite to particle flow and a longitudinal direction parallel to particle flow, such that different portions of a particle flowing over the pattern of the apertures pass different apertures at different times and scatter the light beam or emit fluorescent light at locations associated with the apertures; encoding an optical signal including spatial and temporal information of the particle based on at least some of the received scattered or emitted fluorescent light from the fluidic channel carrying the fluid sample; detecting the encoded optical signal by the optical detector; and processing the detected optical signal, at a data processing unit in communication with the optical detector, to produce image data associated with the particle flowing through the fluidic channel, wherein the produced image data includes information of a physical characteristic of the particle.
Hydraulic clutch or brake actuating system, having a cylinder, having a piston which is axially movable in a housing of the cylinder, and having a sensor system for sensing the position of the piston in the cylinder, wherein the sensor system comprises at least one signal element which can be assigned to the piston, and at least one fixedly arranged sensor, wherein the sensor is arranged in/on a protrusion (2.1) of the housing, which protrusion (2.1) projects into a recess present on the end side of the piston, characterized in that the protrusion (2.1) is formed with a hollow ellipsoidal shape and the recess is formed with an ellipsoidal shape.
A heat pump system control device configured to control a heat pump system that selectively supplies heat from a heat pump device to a hot water supply device or a room heating device, the heat pump system control device comprising: a determiner configured to determine start time of a suppressing period for suppressing electric power consumption of the heat pump device; and a controller characterized in that the controller is in a preparatory period prior to the suppressing period, cause the heat pump system to start supply of heat from the heat pump device to the hot water supply device when hot water in the hot water supply device is at a first temperature, and in the preparatory period, control the heat pump system in such a manner that, when heat is supplied from the heat pump device to the room heating device, the quantity of the heat per unit time is larger than the quantity of heat per unit time in a normal operation mode, wherein supply of heat from the heat pump device to the hot water supply device is not started when hot water in the hot water supply device is at the first temperature in the normal operation mode for a normal period prior to the preparatory period. a determiner configured to determine start time of a suppressing period for suppressing electric power consumption of the heat pump device; and a controller
A computer-implemented method for mounting one or more printing plate segments on a carrier sheet in a predetermined arrangement of one or more printing plate segment locations and orientations, each printing plate segment having a printing plate segment identifier (S-1), at least two registration marks spaced a distance apart from one another, and a characteristic pattern configured to print on a medium using the printing plate segment, the method comprising the steps of: (a) importing a mounting file into a computer associated with a mounting unit (300, 350) for mounting the one or more printing plate segments on the carrier sheet, the mounting file comprising computer-readable information comprising, for each printing plate segment: (a) the 10 printing plate segment identifier (S-1), (b) information regarding alignment of the two registration marks relative to the carrier sheet; and (c) image data corresponding to the characteristic pattern associated with each printing plate segment; (b) displaying on a display connected to the computer, a composite image depicting the image data corresponding to the characteristic patterns associated with the one or more printing plate segments in the predetermined arrangement of one or more printing plate segment locations and orientations in which they are to be mounted on the carrier sheet. (a) importing a mounting file into a computer associated with a mounting unit (300, 350) for mounting the one or more printing plate segments on the carrier sheet, the mounting file comprising computer-readable information comprising, for each printing plate segment: (a) the 10 printing plate segment identifier (S-1), (b) information regarding alignment of the two registration marks relative to the carrier sheet; and (c) image data corresponding to the characteristic pattern associated with each printing plate segment; (b) displaying on a display connected to the computer, a composite image depicting the image data corresponding to the characteristic patterns associated with the one or more printing plate segments in the predetermined arrangement of one or more printing plate segment locations and orientations in which they are to be mounted on the carrier sheet.
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station, configuration information via radio resource control, RRC, signaling; identifying whether guardband information is included in the configuration information; receiving, from the base station, bitmap information indicating an available subband among a plurality of subbands, wherein each of the plurality of subbands is separated based on the guardband information in case that the guardband information is included in the configuration information, and wherein a subband consists of resource blocks, RBs; and receiving, from the base station, data based on the available subband indicated by the bitmap information. receiving, from a base station, configuration information via radio resource control, RRC, signaling; identifying whether guardband information is included in the configuration information; receiving, from the base station, bitmap information indicating an available subband among a plurality of subbands, wherein each of the plurality of subbands is separated based on the guardband information in case that the guardband information is included in the configuration information, and wherein a subband consists of resource blocks, RBs; and receiving, from the base station, data based on the available subband indicated by the bitmap information.
A polycarbonate-modified acrylic resin obtained by reacting an unsaturated monomer mixture, which contains, as essential components, methyl methacrylate, an unsaturated monomer having a hydroxyl group, an unsaturated monomer having a carboxyl group, and an unsaturated monomer having an alkyl group of 2 to 8 carbon atoms, in the presence of a polycarbonate diol which is produced using 1,5-pentanediol and 1,6-hexanediol as starting materials, characterized in that the mass ratio of the unsaturated monomer in the unsaturated monomer mixture is in the range of 0.1% to 1.6% by mass.
A protector with a sensor comprising: a hollow part having core wires (31, 32), a plurality of conductive parts and a space provided therein, the plurality of conductive parts having the core wires (31, 32) embedded therein respectively, the space being positioned between the plurality of conductive parts; and an installation base member formed on said hollow part, wherein: said plurality of conductive parts include a conductive part on a lower part of the hollow part and a conductive part on an upper part of the hollow part, the conductive part on the lower part of the hollow part being formed on a side of said installation base member, and said hollow part includes an oblique side on an inner-cabin side and an oblique side on an outer-cabin side, the oblique side on the inner-cabin side extending from an inner-cabin side end to a tip, the oblique side on the outer-cabin side extending from an outer-cabin side end to said tip, the inner-cabin side end being connected with said installation base member, the outer-cabin side end being connected with said installation base member, wherein said conductive part on the lower part of the hollow part has a convex shape and said conductive part on the upper part of the hollow part has a concave shape in cross section of said hollow part, and a distance is uniform between said conductive part on the lower part of the hollow part and the conductive part on the upper part of the hollow part, characterized in that the conductive part on the upper part of the hollow part is being separated from the side of said installation base member by the space, and that said hollow part has a triangular shaped cross section. said plurality of conductive parts include a conductive part on a lower part of the hollow part and a conductive part on an upper part of the hollow part, the conductive part on the lower part of the hollow part being formed on a side of said installation base member, and said hollow part includes an oblique side on an inner-cabin side and an oblique side on an outer-cabin side, the oblique side on the inner-cabin side extending from an inner-cabin side end to a tip, the oblique side on the outer-cabin side extending from an outer-cabin side end to said tip, the inner-cabin side end being connected with said installation base member, the outer-cabin side end being connected with said installation base member, wherein said conductive part on the lower part of the hollow part has a convex shape and said conductive part on the upper part of the hollow part has a concave shape in cross section of said hollow part, and a distance is uniform between said conductive part on the lower part of the hollow part and the conductive part on the upper part of the hollow part, characterized in that the conductive part on the upper part of the hollow part is being separated from the side of said installation base member by the space, and that said hollow part has a triangular shaped cross section.
An implantable biodegradable medical device comprising: a plurality of layers composed of at least one biodegradable material, wherein the plurality of layers are coated with at least one drug; and at least one inert layer composed of a biodegradable material, the at least one inert layer is degraded in response to introduction of at least one external trigger when the implantable biodegradable medical device is placed within a living organism, wherein at least one layer of the plurality of layers having a position above an inert layer and wherein at least one layer of the plurality of layers having a position below the inert layer, wherein the biodegradable material present in the at least one inert layer is lauric acid. a plurality of layers composed of at least one biodegradable material, wherein the plurality of layers are coated with at least one drug; and at least one inert layer composed of a biodegradable material, the at least one inert layer is degraded in response to introduction of at least one external trigger when the implantable biodegradable medical device is placed within a living organism, wherein at least one layer of the plurality of layers having a position above an inert layer and wherein at least one layer of the plurality of layers having a position below the inert layer, wherein the biodegradable material present in the at least one inert layer is lauric acid.
A valve comprising: a valve body; a valve element arranged within the valve body to selectively inhibit flow through the valve body; and a seal assembly including a body gasket and a retaining ring, the retaining ring including a cutter that is arranged to cut the body gasket during installation to form a two-plane seal by cutting the body gasket between the retaining ring and the valve body, wherein the body gasket is cut into first and second segments that are spaced apart along a flow axis of the valve. a valve body; a valve element arranged within the valve body to selectively inhibit flow through the valve body; and a seal assembly including a body gasket and a retaining ring, the retaining ring including a cutter that is arranged to cut the body gasket during installation to form a two-plane seal by cutting the body gasket between the retaining ring and the valve body, wherein the body gasket is cut into first and second segments that are spaced apart along a flow axis of the valve.
A curable hard-coat composition comprising a (meth)acryloyl polymer and inorganic oxide nanoparticles, wherein: the (meth)acryloyl polymer has a double bond equivalent of 150-800 g/eq and a weight average molecular weight of 5,000-200,000; and the average particle size of the inorganic oxide nanoparticles is 6 nm to less than 95 nm; wherein the weight average molecular weight is determined as defined in the description, and wherein the hard-coat composition comprises the (meth)acryloyl polymer in an amount of 30-70 wt% and the inorganic oxide nanoparticles in an amount of 70-30 wt% with respect to the total weight of the hard-coat composition. the (meth)acryloyl polymer has a double bond equivalent of 150-800 g/eq and a weight average molecular weight of 5,000-200,000; and the average particle size of the inorganic oxide nanoparticles is 6 nm to less than 95 nm; wherein the weight average molecular weight is determined as defined in the description, and wherein the hard-coat composition comprises the (meth)acryloyl polymer in an amount of 30-70 wt% and the inorganic oxide nanoparticles in an amount of 70-30 wt% with respect to the total weight of the hard-coat composition.
A method for installing an auxiliary unit on a host computer, wherein, with respect to type, the auxiliary unit is a resource-limited computer that cooperates with the host computer in accordance with the "master-slave" principle, wherein the host computer has an interface suitable for connecting the auxiliary unit and is adapted to carry out a registration routine upon detecting the connection of a new auxiliary unit to the interface, within which registration routine the installation of an operating routine required for operating the auxiliary unit is executed, after the installation of which the auxiliary unit is switchable from a basic mode to an auxiliary-unit specific mode, wherein the operating routine, if not yet present in the host computer, is first transmitted from the auxiliary unit to the host computer, characterized in that for determining whether a required operating routine has to be transmitted, on the host computer a background process is installed that, upon connecting an auxiliary unit, checks whether identification information and an associated operating system routine transmitted back by the auxiliary unit upon request by the host computer is already stored in a list associated with the background process in the host computer, and that the background process prompts the auxiliary unit by sending a control signal to switch to the auxiliary-unit specific operating mode if the identification information is contained in the list.
Component having: at least two synthetic components (10, 12) made of a fibre-reinforced thermoplastic, which are connected to one another in a connection zone; and a reinforcing element, which comprises a multiplicity of wires (20, 22) that bridge the connection zone and are bent into identical coils to form a spiral of constant diameter, wherein the coils are provided perpendicular to a longitudinal axis of the resulting spiral and angled portions are provided between the individual coils, the length of which defines the spacing between the individual coils, wherein the wires (20, 22) are arranged next to one another and thus form an areal structure of constant thickness; wherein the wires (20; 22) are embedded into the synthetic components (10; 12) and the synthetic components (10; 12) have fibres located between individual coils or sections of the reinforcing element (10, 12). at least two synthetic components (10, 12) made of a fibre-reinforced thermoplastic, which are connected to one another in a connection zone; and a reinforcing element, which comprises a multiplicity of wires (20, 22) that bridge the connection zone and are bent into identical coils to form a spiral of constant diameter, wherein the coils are provided perpendicular to a longitudinal axis of the resulting spiral and angled portions are provided between the individual coils, the length of which defines the spacing between the individual coils, wherein the wires (20, 22) are arranged next to one another and thus form an areal structure of constant thickness; wherein the wires (20; 22) are embedded into the synthetic components (10; 12) and the synthetic components (10; 12) have fibres located between individual coils or sections of the reinforcing element (10, 12).