mhurhangee/ep-ind-claims huggingface dataset:
A media content rendering method, wherein the method is applied in a user equipment in a rendering system, the rendering system further comprises a cloud device, and the method comprises: determining, according to a rendering requirement of to-be-rendered media content, wherein the to-be-rendered media content comprises a first part and a second part, that the first part of the to-be-rendered media content is to be rendered by the cloud device; sending, to the cloud device, a rendering indication message and first media content that needs to be rendered by the cloud device, wherein the rendering indication message is used to instruct the cloud device to render the first media content, and the first media content is the first part of the to-be-rendered media content; receiving a cloud processing result returned by the cloud device for the first media content; rendering, by the user equipment, second media content to obtain a rendering result of the second media content, wherein the second media content is the second part of the to-be-rendered media content; and synthesizing the cloud processing result and the rendering result of the second media content to obtain a synthesis result of the to-be-rendered media content, wherein the cloud processing result is a rendering result of the first media content. determining, according to a rendering requirement of to-be-rendered media content, wherein the to-be-rendered media content comprises a first part and a second part, that the first part of the to-be-rendered media content is to be rendered by the cloud device; sending, to the cloud device, a rendering indication message and first media content that needs to be rendered by the cloud device, wherein the rendering indication message is used to instruct the cloud device to render the first media content, and the first media content is the first part of the to-be-rendered media content; receiving a cloud processing result returned by the cloud device for the first media content; rendering, by the user equipment, second media content to obtain a rendering result of the second media content, wherein the second media content is the second part of the to-be-rendered media content; and synthesizing the cloud processing result and the rendering result of the second media content to obtain a synthesis result of the to-be-rendered media content, wherein the cloud processing result is a rendering result of the first media content.
A power semiconductor module comprising a printed circuit board which comprises a power semiconductor device (32, 33) and an island of thermally conducting foam embedded in the printed circuit board, wherein the power semiconductor device (32; 33) and the island of thermally conducting foam are positioned on top of each other, and the island is arranged to form a path for a flowing coolant cooling the power semiconductor device (32; 33), wherein the foam comprises portions (38, 39) having different average pore sizes or bulk densities, and wherein a portion of foam closest to the power semiconductor device has a higher average pore size in order to achieve a larger flow of coolant in the portion of foam closest to the power semiconductor device (32; 33).
Chamber for a rainwater drain, comprising a main body with a bottom, an inlet for collecting rainwater and an outlet for routing the rainwater, wherein the chamber is manufactured by blow moulding, wherein: - the outlet comprises a cylindrical first pipe connection with a first outer diameter for a pipe to be attached to and a cylindrical second pipe connection with a second outer diameter for a pipe to be attached to, wherein the second pipe connection is adjacent to the first pipe connection and wherein the first diameter is larger than the second diameter, and - rotational axes of symmetry (12, 13) of the first pipe connection and the second pipe connection are arranged parallel offset characterized in that the offset is such that cross sections of both pipe connections (9, 10) touch each other in at least one bottom point, if the cross sections are projected in a plane that runs normally to both rotational axes of symmetry (12, 13). - the outlet comprises a cylindrical first pipe connection with a first outer diameter for a pipe to be attached to and a cylindrical second pipe connection with a second outer diameter for a pipe to be attached to, wherein the second pipe connection is adjacent to the first pipe connection and wherein the first diameter is larger than the second diameter, and - rotational axes of symmetry (12, 13) of the first pipe connection and the second pipe connection are arranged parallel offset characterized in that the offset is such that cross sections of both pipe connections (9, 10) touch each other in at least one bottom point, if the cross sections are projected in a plane that runs normally to both rotational axes of symmetry (12, 13).
A groundwater radon reduction apparatus comprising: a housing in which groundwater falls down; a rotating member installed in the housing and rotated by a falling force of the groundwater to form the groundwater into water drops for discharging radon gases to the air inside the housing; a plurality of power transmission members connected to both ends of the rotating member to transmit power, and receiving the rotating force of the rotating member; and a plurality of ventilation units coupled to one ends of the power transmission members inside the housing, respectively, and rotated together with the power transmission members by the rotation force of the rotating member to discharge radon gases within the water drops to the outside. a housing in which groundwater falls down; a rotating member installed in the housing and rotated by a falling force of the groundwater to form the groundwater into water drops for discharging radon gases to the air inside the housing; a plurality of power transmission members connected to both ends of the rotating member to transmit power, and receiving the rotating force of the rotating member; and a plurality of ventilation units coupled to one ends of the power transmission members inside the housing, respectively, and rotated together with the power transmission members by the rotation force of the rotating member to discharge radon gases within the water drops to the outside.
A device for detecting ionizing radiation comprising a network comprising: a first material for transporting positive electrical charges; a second material for transporting negative electrical charges, the first and second materials being dispersed within the network to form a plurality of electrical junctions; and a plurality of nanoparticles dispersed within the network, characterized in that said nanoparticles have: a) at least one dimension larger than twice an exciton Bohr radius for said nanoparticles and the at least one dimension being less than 100nm; or b) at least one dimension larger than twice an exciton Bohr radius for said nanoparticles and a further at least one dimension being less than 100nm, and wherein, in use, said nanoparticles convert incoming ionizing radiation into free positive and negative electrical charges for transportation by said first and second materials respectively. a first material for transporting positive electrical charges; a second material for transporting negative electrical charges, the first and second materials being dispersed within the network to form a plurality of electrical junctions; and a plurality of nanoparticles dispersed within the network, characterized in that said nanoparticles have: a) at least one dimension larger than twice an exciton Bohr radius for said nanoparticles and the at least one dimension being less than 100nm; or b) at least one dimension larger than twice an exciton Bohr radius for said nanoparticles and a further at least one dimension being less than 100nm, and wherein, in use, said nanoparticles convert incoming ionizing radiation into free positive and negative electrical charges for transportation by said first and second materials respectively. a) at least one dimension larger than twice an exciton Bohr radius for said nanoparticles and the at least one dimension being less than 100nm; or b) at least one dimension larger than twice an exciton Bohr radius for said nanoparticles and a further at least one dimension being less than 100nm,
Casing (11; 20) for a busway, comprising: - two profiled members, wherein each profiled member comprises: - a first wall and a second wall defining a first pair of mutually opposite and parallel walls, - a third wall and a fourth wall, each extending between said first and second walls (2, 3), defining a second pair of mutually opposite and parallel walls; the casing being characterized in that said first and second pairs of walls of each of the two profiled members delimit a respective longitudinal channel, and in that one of said first and second walls (2, 3) of each of the two profiled member is provided with an respective opening longitudinally extending according to the length of the respective profiled member, said opening having a height lower than said first or second wall and being interposed between said third and fourth walls and arranged at predetermined relative distances therefrom; the casing further comprising combining means for assembling said profiled members; wherein said two profiled members are arranged at a predetermined distance from each other to form a compartment for a plurality of parallel conductor rails, and wherein said combining means are substantially orthogonal to said two profiled members and constitute means for closing said compartment; and wherein said first or second wall provided with said longitudinally extending opening of each of said two profiled members is directed either towards said compartment or away from said compartment, toward the sides of the casing. - two profiled members, wherein each profiled member comprises: - a first wall and a second wall defining a first pair of mutually opposite and parallel walls, - a third wall and a fourth wall, each extending between said first and second walls (2, 3), defining a second pair of mutually opposite and parallel walls; - a first wall and a second wall defining a first pair of mutually opposite and parallel walls, - a third wall and a fourth wall, each extending between said first and second walls (2, 3), defining a second pair of mutually opposite and parallel walls;
A process for the preparation of an orodispersible tablet comprising sildenafil base, the process comprising the steps of preparing an intermediate comprising the steps of (i) mixing of (a-i) sildenafil base, (b-i) a wicking agent, (c-i) a disintegrant, and (d-i) optionally a glidant, (ii) compacting the mixture using mechanical pressure, and (iii) milling the compacted mixture, mixing the intermediate further pharmaceutical additives; and compressing the mixture of step to form an orodispersible tablet, wherein the orodispersible tablet does not contain polacrilin potassium. preparing an intermediate comprising the steps of (i) mixing of (a-i) sildenafil base, (b-i) a wicking agent, (c-i) a disintegrant, and (d-i) optionally a glidant, (ii) compacting the mixture using mechanical pressure, and (iii) milling the compacted mixture, (i) mixing of (a-i) sildenafil base, (b-i) a wicking agent, (c-i) a disintegrant, and (d-i) optionally a glidant, (a-i) sildenafil base, (b-i) a wicking agent, (c-i) a disintegrant, and (d-i) optionally a glidant, (ii) compacting the mixture using mechanical pressure, and (iii) milling the compacted mixture, mixing the intermediate further pharmaceutical additives; and compressing the mixture of step to form an orodispersible tablet, wherein the orodispersible tablet does not contain polacrilin potassium.
A method for making a skin-tanning composition which comprises: (a) an effective amount of a skin-tanning agent, preferably selected from dihydroxyacetone, erythrulose, and mixtures thereof; (b) from 0.1% to 10%, preferably from 2% to 8%, of an odor-mitigating material selected from processed starch-based polysaccharides that contain at least 50% amylopectin; and (c) a cosmetically acceptable carrier; characterized in that said processed starch-based polysaccharides that contain at least 50% amylopectin are expanded non-crystalline starch-based polysaccharides, wherein their crystal structure is not present; wherein a starch that contains at least 50% amylopectin is heated in water to a temperature of from 70°C to 80°C, for from 10 minutes to 60 minutes, adding said water phase to an oil phase with stirring to form an emulsion, and then adding the skin-tanning agent to said emulsion; and wherein the water phase is subjected to high shear mixing during the heating step. (a) an effective amount of a skin-tanning agent, preferably selected from dihydroxyacetone, erythrulose, and mixtures thereof; (b) from 0.1% to 10%, preferably from 2% to 8%, of an odor-mitigating material selected from processed starch-based polysaccharides that contain at least 50% amylopectin; and (c) a cosmetically acceptable carrier;
A gold complex, having formula: wherein: R 1 is independently selected from aryl and amine; R 2 is independently selected from alkyl and cycloalkyl; R 3 is independently selected from hydrogen, halogen, nitro, cyano, alkyl, alkyloxy, alkylamino, aminodialkyl, hydroxyalkyl, trialkylsilyl, aryldialkylsilyl, alkylthio, cycloalkyl, aryl, heterocycle, polycycle, amino acid, peptide and carbohydrate derivative; and R 4 is independently selected from alkyl, cycloalkyl, alkylalkoxy, alkylamino, dialkylamino, alkylthio, trialkylphosphino, dialkylarylphosphino, alkyldiarylphosphino, triarylphosphino, aryl, heterocycle, polycycle, amino acid, peptide and carbohydrate derivative. R 1 is independently selected from aryl and amine; R 2 is independently selected from alkyl and cycloalkyl; R 3 is independently selected from hydrogen, halogen, nitro, cyano, alkyl, alkyloxy, alkylamino, aminodialkyl, hydroxyalkyl, trialkylsilyl, aryldialkylsilyl, alkylthio, cycloalkyl, aryl, heterocycle, polycycle, amino acid, peptide and carbohydrate derivative; and R 4 is independently selected from alkyl, cycloalkyl, alkylalkoxy, alkylamino, dialkylamino, alkylthio, trialkylphosphino, dialkylarylphosphino, alkyldiarylphosphino, triarylphosphino, aryl, heterocycle, polycycle, amino acid, peptide and carbohydrate derivative.
Door component with at least one controllable damper device containing a magnetorheological fluid as the working fluid, comprising two connecting units (51, 52) movable relative to one another, one of the two connecting units (51, 52) being provided for connection with a supporting structure and the other of the two connecting units (51, 52), with a movable door device in particular of a vehicle, to at least partially control the damping of a movement of the movable door device between a closed position and an open position, wherein the magnetorheological damper device comprises a piston unit and a cylinder unit surrounding the piston unit, the piston unit subdividing the cylinder volume in two chambers (33, 34), wherein the piston unit includes a first piston rod extending through the first chamber and a second piston rod extending through the second chamber, characterized in that the damper device comprises at least one equalizing device with an automatic lock valve.
Fastening device for vehicle child seats in motor vehicles, at least comprising a first fastening belt and a second fastening belt, characterized in that the first fastening belt and the second fastening belt have a common fastening section which is designed to be fastened to a corresponding fastening device of a motor vehicle behind a vehicle seat in the direction of travel, wherein the first fastening belt and the second fastening belt are designed to be guided over an upper section of the backrest of the vehicle seat of the motor vehicle, wherein the first fastening belt is attachable via a first fastening means to an upper section of the backrest of a vehicle child seat which is arranged on the vehicle seat, and wherein the second fastening belt is attachable via a second fastening means to a lower base part of the vehicle child seat, and wherein the first fastening belt and the second fastening belt each comprise control devices (2, 7) by means of which the length of the fastening belts (3, 6) between the common fastening section and the fastening means (1, 5) is variable.
An amorphous carbon-type lamination film, characterized by including: a nitrogen-containing amorphous carbon-type film formed on a sliding surface of a sliding member by a physical vapor deposition method, the film, characterized by consisting of hydrogen in an amount of 8.0 at% or more and 12.0 at% or less, and nitrogen in an amount of 3.0 at% or more and 14.0 at% or less, and optionally one or more metal elements and/or semimetal elements selected from the group consisting of group 4A elements, group 5A elements, group 6A elements, Fe, Si, Al, and B, with the balance consisting of carbon, wherein the ratio of the metal elements and/or the semimetal elements relative to the total of carbon contained in the film and the metal elements and/or the semimetal elements is 2 at% or more and 20 at% or less; and an amorphous carbon-type film consisting of hydrogen in an amount of 5.0 at% or more and 25 at% or less, and substantially not containing nitrogen, and optionally one or more metal elements and/or semimetal elements selected from the group consisting of group 4A elements, group 5A elements, group 6A elements, Fe, Si, Al, and B, with the balance consisting of carbon, wherein the ratio of the metal elements and/or the semimetal elements relative to the total of carbon contained in the film and the metal elements and/or the semimetal elements is 2 at% or more and 20 at% or less, formed immediately thereunder. a nitrogen-containing amorphous carbon-type film formed on a sliding surface of a sliding member by a physical vapor deposition method, the film, characterized by consisting of hydrogen in an amount of 8.0 at% or more and 12.0 at% or less, and nitrogen in an amount of 3.0 at% or more and 14.0 at% or less, and optionally one or more metal elements and/or semimetal elements selected from the group consisting of group 4A elements, group 5A elements, group 6A elements, Fe, Si, Al, and B, with the balance consisting of carbon, wherein the ratio of the metal elements and/or the semimetal elements relative to the total of carbon contained in the film and the metal elements and/or the semimetal elements is 2 at% or more and 20 at% or less; and an amorphous carbon-type film consisting of hydrogen in an amount of 5.0 at% or more and 25 at% or less, and substantially not containing nitrogen, and optionally one or more metal elements and/or semimetal elements selected from the group consisting of group 4A elements, group 5A elements, group 6A elements, Fe, Si, Al, and B, with the balance consisting of carbon, wherein the ratio of the metal elements and/or the semimetal elements relative to the total of carbon contained in the film and the metal elements and/or the semimetal elements is 2 at% or more and 20 at% or less, formed immediately thereunder.
A method for processing immersive video, said method comprising: a network-implemented video processing server generating an immersive video sub-stream by: processing, based on information representing a user's current field of vision received over a control channel between said network-implemented video processing server and a user device, video data from at least a portion of multiple video streams carrying video data corresponding to a full immersive video scene, said immersive video sub-stream carrying encoded video data corresponding to a sub-portion of said full immersive video scene, selecting a sub portion of said multiple video streams based on said information, comprises selecting video streams of said multiple video streams carrying video data corresponding to a scene that is broader than said user's current field of vision but is smaller than said full immersive video scene, stitching together video data from said selected sub-portion of said multiple video streams; the network-implemented video processing server generating an interactive media content based on a sensor data received from the user device over a device-to-server media channel and inserting the interactive media content in the immersive video sub-stream; and transmitting the immersive video sub-stream carrying encoded video data and interactive content to the user device. processing, based on information representing a user's current field of vision received over a control channel between said network-implemented video processing server and a user device, video data from at least a portion of multiple video streams carrying video data corresponding to a full immersive video scene, said immersive video sub-stream carrying encoded video data corresponding to a sub-portion of said full immersive video scene, selecting a sub portion of said multiple video streams based on said information, comprises selecting video streams of said multiple video streams carrying video data corresponding to a scene that is broader than said user's current field of vision but is smaller than said full immersive video scene, stitching together video data from said selected sub-portion of said multiple video streams; the network-implemented video processing server generating an interactive media content based on a sensor data received from the user device over a device-to-server media channel and inserting the interactive media content in the immersive video sub-stream; and transmitting the immersive video sub-stream carrying encoded video data and interactive content to the user device.
A method for operating a sheet handling system including the processing steps of feeding singulated sheets from a stack of sheet material and accumulating select sheets into a completed collation of sheets along a conveyance feed path, the method operative to minimize the conveyance feed path of the sheet handling system and characterised by comprising the steps of: determining a location of a next collation mark (Nn) on select sheets fed from the stack of material to be processed; selecting an operating mode based upon the proximity of the next collation mark (Nn) to a leading or trailing edge of each of the select sheets, and processing the singulated sheets in a first operating mode when the next collation mark (Nn) is proximal to the leading edge of each of the select sheets, and in a second operating mode, when the next collation mark (Nn) is proximal to a trailing edge of each of the select sheets, wherein the processing step includes buffering each of the select sheets along the conveyance feed path to change the spatial relationship between each of the select sheets and each completed collation of sheets along the feed path. determining a location of a next collation mark (Nn) on select sheets fed from the stack of material to be processed; selecting an operating mode based upon the proximity of the next collation mark (Nn) to a leading or trailing edge of each of the select sheets, and processing the singulated sheets in a first operating mode when the next collation mark (Nn) is proximal to the leading edge of each of the select sheets, and in a second operating mode, when the next collation mark (Nn) is proximal to a trailing edge of each of the select sheets, wherein the processing step includes buffering each of the select sheets along the conveyance feed path to change the spatial relationship between each of the select sheets and each completed collation of sheets along the feed path.