mhurhangee/ep-ind-claims huggingface dataset:
A connector (1, 1', 1", 2, 3) for connecting ceramic components of a dental implant (100, 100', 200, 300), with a base section (11, 11', 11", 21, 31) on which a base thread (111, 111', 111", 211, 311) is formed for screwing the connector (1, 1', 1", 2, 3) into a base body (130, 230, 330) of the dental implant (100, 100', 200, 300), and a retaining section (12, 12',12", 22, 32) on which a retaining thread (121, 121', 121", 221, 321) is formed for screwing a prosthetic (120, 120', 220, 320) of the dental implant (100, 100', 200, 300) onto the connector (1, 1', 1", 2, 3), wherein at least one engagement means is formed on the connector for actuating the connector with a tool, characterized in that the connector comprises at least one shoulder element between the base section and the retaining section, said shoulder element protruding at least in sections in a radial direction beyond an outer circumference of the retaining section of the connector; the at least one engagement means comprises at least in sections an outer contour that is shaped to interact with a tool, in order to transmit torque to the connector by means of the tool; and said engagement means and said shoulder element are formed on a ring collar having an outer diameter that is larger than the outer diameter of the retaining section. with a base section (11, 11', 11", 21, 31) on which a base thread (111, 111', 111", 211, 311) is formed for screwing the connector (1, 1', 1", 2, 3) into a base body (130, 230, 330) of the dental implant (100, 100', 200, 300), and a retaining section (12, 12',12", 22, 32) on which a retaining thread (121, 121', 121", 221, 321) is formed for screwing a prosthetic (120, 120', 220, 320) of the dental implant (100, 100', 200, 300) onto the connector (1, 1', 1", 2, 3), wherein at least one engagement means is formed on the connector for actuating the connector with a tool, characterized in that the connector comprises at least one shoulder element between the base section and the retaining section, said shoulder element protruding at least in sections in a radial direction beyond an outer circumference of the retaining section of the connector; the at least one engagement means comprises at least in sections an outer contour that is shaped to interact with a tool, in order to transmit torque to the connector by means of the tool; and said engagement means and said shoulder element are formed on a ring collar having an outer diameter that is larger than the outer diameter of the retaining section.
A generation method of a media file including a metadata box containing metadata and a media data box containing media data, the method comprising: - obtaining video data, the video data comprising scalable layers and a plurality of image tiles and being structured as NAL units; - obtaining at least one image tile from amongst the plurality of image tiles of obtained video data, the obtained image tiles forming a subset of the plurality of image tiles of the obtained video data; - creating a track comprising a plurality of NAL units structuring video data related to at least one obtained image tile; and - generating a media file containing a media data box in which the plurality of NAL units comprised in the created track are contained and a metadata box in which scalable layer information and tile information relating to the plurality of NAL units contained in media data box are contained, the scalable layer information indicating a scalable layer corresponding to one or more NAL units comprised in the created track, and the tile information indicating an image tile corresponding to one or more NAL units comprised in the created track, wherein: - the media file contains NAL units of a plurality of scalable layers whose quality or resolution is different from each other; and - tile information comprising a piece of information for signaling the decoding dependencies of the at least one obtained image tile. - obtaining video data, the video data comprising scalable layers and a plurality of image tiles and being structured as NAL units; - obtaining at least one image tile from amongst the plurality of image tiles of obtained video data, the obtained image tiles forming a subset of the plurality of image tiles of the obtained video data; - creating a track comprising a plurality of NAL units structuring video data related to at least one obtained image tile; and - generating a media file containing a media data box in which the plurality of NAL units comprised in the created track are contained and a metadata box in which scalable layer information and tile information relating to the plurality of NAL units contained in media data box are contained, the scalable layer information indicating a scalable layer corresponding to one or more NAL units comprised in the created track, and the tile information indicating an image tile corresponding to one or more NAL units comprised in the created track, - the media file contains NAL units of a plurality of scalable layers whose quality or resolution is different from each other; and - tile information comprising a piece of information for signaling the decoding dependencies of the at least one obtained image tile.
A method for localizing a mobile device having a processor and a memory, the method being executed by the processor and comprising: detecting, using a temperature sensor of the mobile device at a first sampling rate, an ambient temperature anomaly along an indoor route within an indoor facility being traversed; characterised by determining, based on switching to a second sampling rate, that the ambient temperature anomaly persists over a sequence of positions along the indoor route, the second sampling rate being higher than the first sampling rate; filtering a set of barometric ambient pressure measurements contemporaneously associated with the sequence of positions, the set obtained using a barometric pressure sensor of the mobile device; and localizing the mobile device based at least partly on the filtered set of barometric ambient pressure measurements. detecting, using a temperature sensor of the mobile device at a first sampling rate, an ambient temperature anomaly along an indoor route within an indoor facility being traversed; characterised by determining, based on switching to a second sampling rate, that the ambient temperature anomaly persists over a sequence of positions along the indoor route, the second sampling rate being higher than the first sampling rate; filtering a set of barometric ambient pressure measurements contemporaneously associated with the sequence of positions, the set obtained using a barometric pressure sensor of the mobile device; and localizing the mobile device based at least partly on the filtered set of barometric ambient pressure measurements.
A method for testing an electric system comprising a first inverter and one or more second inverters (11, 12, 1N), the method comprising: a) starting the first inverter and connecting a DC input of the first inverter to at least one DC power source; b) providing and sustaining with the first inverter an AC voltage of a predetermined magnitude and a predetermined frequency at the AC output of the first inverter; c) starting at least one second inverter (11, 12, 1N) and connecting an AC output of the started at least one second inverter to the AC output of the first inverter; and d) supplying with the first inverter reactive power to the started at least one second inverter (11, 12, 1N). a) starting the first inverter and connecting a DC input of the first inverter to at least one DC power source; b) providing and sustaining with the first inverter an AC voltage of a predetermined magnitude and a predetermined frequency at the AC output of the first inverter; c) starting at least one second inverter (11, 12, 1N) and connecting an AC output of the started at least one second inverter to the AC output of the first inverter; and d) supplying with the first inverter reactive power to the started at least one second inverter (11, 12, 1N).
A driver arrangement for driving a lighting arrangement, comprising: a housing; a connection head, comprising: - a first end for mounting outside the housing of the device; - a second end for mounting inside the housing of the device; and - a closed loop antenna having at least one coil and a pair of feed lines, wherein the feed lines extend from the first end to the second end, and the at least one coil is located within the first end; a supply cable for supplying power, passing from outside the housing to inside the housing through the connection head; a receiver circuit within the housing, coupled to the antenna via the pair of feed lines for receiving wireless control signals; and a driver circuit within the housing, for obtaining power from the supply cable and driving the lighting arrangement using the obtained power, wherein the driver circuit is coupled to said receiver circuit and configurable based on the wireless control signals received by the antenna and forwarded by the receiver circuit. a housing; a connection head, comprising: - a first end for mounting outside the housing of the device; - a second end for mounting inside the housing of the device; and - a closed loop antenna having at least one coil and a pair of feed lines, wherein the feed lines extend from the first end to the second end, and the at least one coil is located within the first end; - a first end for mounting outside the housing of the device; - a second end for mounting inside the housing of the device; and - a closed loop antenna having at least one coil and a pair of feed lines, wherein the feed lines extend from the first end to the second end, and the at least one coil is located within the first end; a supply cable for supplying power, passing from outside the housing to inside the housing through the connection head; a receiver circuit within the housing, coupled to the antenna via the pair of feed lines for receiving wireless control signals; and a driver circuit within the housing, for obtaining power from the supply cable and driving the lighting arrangement using the obtained power, wherein the driver circuit is coupled to said receiver circuit and configurable based on the wireless control signals received by the antenna and forwarded by the receiver circuit.
Apparatus configured to decode a bitstream into which a picture represented as an array of samples is coded, the array of samples of the picture being partitioned into sample sets each of which is associated with respective coding parameters, the apparatus being configured to set, for a current sample set, the coding parameters associated with the current sample set in accordance with a merge candidate by merging with the merge candidate or retrieve the coding parameters associated with the current sample set from the bitstream, and being configured to reconstruct the current sample set of the picture based on a prediction signal depending on the coding parameters associated with the current sample set, without any residual data, or reconstruct the current sample set by refining the prediction signal depending on the coding parameters associated with the current sample set by means of residual data within the bitstream, wherein the apparatus is configured to be commonly responsive to a first flag within the bitstream having a first flag state so as to obtain the coding parameters associated with the current sample set by merging with the merge candidate, and reconstruct the current sample set of the picture based on a prediction signal depending on the coding parameters without any residual data, and wherein the apparatus is configured to be responsive to the first flag having a second flag state so as to decode a second flag from the bitstream in case of the first flag having a second flag state characterized in that the apparatus is configured to be responsive to the second flag in the bitstream having a first flag state so as to extract the coding parameters associated with the current sample set from the bitstream, obtain residual data for the current sample set from the bitstream and reconstruct the current sample set of the picture based on the prediction signal and the residual data, and the second flag having a second flag state so as to obtain the coding parameters associated with the current sample set by setting said coding parameters by merging with a merge candidate, obtain residual data for the current sample set from the bitstream and reconstruct the current sample set of the picture based on the prediction signal and the residual data.
Firestop device (1, 101) comprising: - a collar (4, 104) to be mounted to a partition surface (2, 102) at a location where a plastic pipe (3, 103) or other non-fire resistant duct penetrates the partition, the collar (4, 104) including a first collar half (5, 105) and a second collar half (6, 106), the first collar half (5, 105) and the second collar half (6, 106) having corresponding end portions which are connected to each other; - a fire resistant foldable cap (15, 115) circumferentially connected to the collar (4, 104) and for closing off the penetration location when the pipe (3, 103) or duct is collapsed or destroyed by the fire; and - an actuation assembly (6, 106, 11) for moving the fire resistant foldable cap (15, 115) over the penetration location to close it off; characterized in that the collar (4, 104) is a fold-out collar in which said corresponding ends of the first and second collar halves (5, 6, 105, 106) are hingedly connected to each other so as to be moveable from a folded state, in which the second collar half (6, 106) substantially overlaps the first collar half (5, 105), to a folded out state, in which the first collar half (5, 105) and the second collar half (6, 106) form a ring shaped collar, wherein the first collar half (5, 105) is adapted to be mounted to the partition surface (2, 102), wherein the fire resistant foldable cap (15, 115) is attached to the first collar half (5, 105) and the second collar half (6, 106), and wherein the actuation assembly (6, 106, 11) includes the second collar half (6, 106), said second collar half (6, 106) pulling the fire resistant foldable cap (15, 115) over the penetration location when moving from the folded state to the folded out state. - a collar (4, 104) to be mounted to a partition surface (2, 102) at a location where a plastic pipe (3, 103) or other non-fire resistant duct penetrates the partition, the collar (4, 104) including a first collar half (5, 105) and a second collar half (6, 106), the first collar half (5, 105) and the second collar half (6, 106) having corresponding end portions which are connected to each other; - a fire resistant foldable cap (15, 115) circumferentially connected to the collar (4, 104) and for closing off the penetration location when the pipe (3, 103) or duct is collapsed or destroyed by the fire; and - an actuation assembly (6, 106, 11) for moving the fire resistant foldable cap (15, 115) over the penetration location to close it off;
A method of fabricating a semiconductor structure, the method comprising: forming a first patterned hardmask on a semiconductor substrate, the first patterned hardmask having features spaced apart by a pitch; forming a second hardmask layer on the semiconductor substrate, between the features of the first patterned hardmask; forming a segregated di-block co-polymer (114, 116) on the first patterned hardmask and on the second hardmask layer, the segregated di-block co-polymer comprising alternating first and second polymer blocks (114, 116) having a pitch between first blocks approximately equal to half the pitch of the features of the first patterned hardmask; removing the second polymer blocks from the segregated di-block co-polymer; subsequent to removing the second polymer blocks, forming a second patterned hardmask from the second hardmask layer and forming a plurality of semiconductor fins in the semiconductor substrate using the first polymer blocks as a mask, the semiconductor fins having a pitch approximately equal to half the pitch of the features of the first patterned hardmask, wherein alternating fins of the plurality of semiconductor fins have corresponding alternating portions of the first patterned hardmask and the second patterned hardmask, respectively; removing a first fin of the plurality of semiconductor fins, the first fin having a portion of the first patterned hardmask thereon; and subsequent to removing the first fin, removing a second fin of the plurality of semiconductor fins, the second fin having a portion of the second patterned hardmask thereon. forming a first patterned hardmask on a semiconductor substrate, the first patterned hardmask having features spaced apart by a pitch; forming a second hardmask layer on the semiconductor substrate, between the features of the first patterned hardmask; forming a segregated di-block co-polymer (114, 116) on the first patterned hardmask and on the second hardmask layer, the segregated di-block co-polymer comprising alternating first and second polymer blocks (114, 116) having a pitch between first blocks approximately equal to half the pitch of the features of the first patterned hardmask; removing the second polymer blocks from the segregated di-block co-polymer; subsequent to removing the second polymer blocks, forming a second patterned hardmask from the second hardmask layer and forming a plurality of semiconductor fins in the semiconductor substrate using the first polymer blocks as a mask, the semiconductor fins having a pitch approximately equal to half the pitch of the features of the first patterned hardmask, wherein alternating fins of the plurality of semiconductor fins have corresponding alternating portions of the first patterned hardmask and the second patterned hardmask, respectively; removing a first fin of the plurality of semiconductor fins, the first fin having a portion of the first patterned hardmask thereon; and subsequent to removing the first fin, removing a second fin of the plurality of semiconductor fins, the second fin having a portion of the second patterned hardmask thereon.
Manufacturing plant for manufacturing a component by means of an additive manufacturing process, in which a formless material is applied layer-wise and selectively cured on the basis of a digital data model, wherein the manufacturing plant comprises: = a material reservoir in which a primary material is provided, = a component space in which the primary material is applied layer-wise and selectively cured, = at least one squeegee which can be moved over the component space and is formed for a layer-wise application of the primary material, which is provided by the material reservoir, over the component space during movement, and = an energy source formed for selectively curing the layer-wise applied primary material in the component space, = a squeegee is provided which can be moved over the component space and is formed for applying at least one further secondary material during the movement over the component space, characterised in that = the squeegee has a material removal device formed for selectively removing within at least one predetermined secondary material section an already applied primary material of an material layer applied or to be applied during movement of the squeegee over the component space, = wherein the squeegee having a material nozzle which, during movement of the doctor blade over the component space, is formed for applying the secondary material provided to the squeegee into the at least one secondary material section of the material layer applied or to be applied, and = wherein the energy source being formed for curing the at least one applied secondary material. = a material reservoir in which a primary material is provided, = a component space in which the primary material is applied layer-wise and selectively cured, = at least one squeegee which can be moved over the component space and is formed for a layer-wise application of the primary material, which is provided by the material reservoir, over the component space during movement, and = an energy source formed for selectively curing the layer-wise applied primary material in the component space, = a squeegee is provided which can be moved over the component space and is formed for applying at least one further secondary material during the movement over the component space, characterised in that = the squeegee has a material removal device formed for selectively removing within at least one predetermined secondary material section an already applied primary material of an material layer applied or to be applied during movement of the squeegee over the component space, = wherein the squeegee having a material nozzle which, during movement of the doctor blade over the component space, is formed for applying the secondary material provided to the squeegee into the at least one secondary material section of the material layer applied or to be applied, and = wherein the energy source being formed for curing the at least one applied secondary material.
A paper sheet handling apparatus comprising: an upper assembly having at least one of a receiving unit configured to receive a paper sheet and an ejecting unit configured to eject the paper sheet; and a transporting unit configured to transport the paper sheet; and a lower assembly having a storage unit configured to store the paper sheet and an inside which is accessible, wherein a plurality of first communication parts is arranged in a bottom part of the upper assembly and a plurality of second communication parts is arranged in an upper part of the lower assembly for exchanging the paper sheet between the upper assembly and the lower assembly, the number of the first communication parts and the number of the second communication parts are the same, the positions of the first communication parts and the positions of the second communication parts match when the lower assembly is reversed in a front-back direction against the upper assembly, and when the lower assembly is not reversed in the front-back direction against the upper assembly, characterized in that the paper sheet sent from the first communication parts of the upper assembly to the second communication parts of the lower assembly is stored in the storage unit of the lower assembly without being diverted. an upper assembly having at least one of a receiving unit configured to receive a paper sheet and an ejecting unit configured to eject the paper sheet; and a transporting unit configured to transport the paper sheet; and at least one of a receiving unit configured to receive a paper sheet and an ejecting unit configured to eject the paper sheet; and a transporting unit configured to transport the paper sheet; and a lower assembly having a storage unit configured to store the paper sheet and an inside which is accessible, wherein a plurality of first communication parts is arranged in a bottom part of the upper assembly and a plurality of second communication parts is arranged in an upper part of the lower assembly for exchanging the paper sheet between the upper assembly and the lower assembly, the number of the first communication parts and the number of the second communication parts are the same, the positions of the first communication parts and the positions of the second communication parts match when the lower assembly is reversed in a front-back direction against the upper assembly, and when the lower assembly is not reversed in the front-back direction against the upper assembly, characterized in that the paper sheet sent from the first communication parts of the upper assembly to the second communication parts of the lower assembly is stored in the storage unit of the lower assembly without being diverted.