mhurhangee/ep-ind-claims huggingface dataset:
A transmission device comprising: a transmission unit configured to transmit a transport stream in a predetermined format, the transport stream comprising a video elementary stream including encoded image data, an event information table, and a program map table; and an auxiliary information inserting unit configured to insert spatial auxiliary information into the video elementary stream as a supplemental enhancement information, SEI, message, characterized in that spatial downscaling information indicating an available ratio in downscaling the spatial resolution is inserted under a video elementary loop of the program map table, wherein the transmission device further comprises a resolution information inserting unit configured to insert spatial resolution information of the encoded image data under the event information table, wherein the spatial auxiliary information indicates a limit of accuracy for a motion vector included in the encoded image data by indicating that the limit of accuracy is changeable from 1/4 pixel accuracy to 1/2 pixel accuracy or 1 pixel accuracy wherein the encoded image data are transmitted without scalable coding. a transmission unit configured to transmit a transport stream in a predetermined format, the transport stream comprising a video elementary stream including encoded image data, an event information table, and a program map table; and an auxiliary information inserting unit configured to insert spatial auxiliary information into the video elementary stream as a supplemental enhancement information, SEI, message, characterized in that spatial downscaling information indicating an available ratio in downscaling the spatial resolution is inserted under a video elementary loop of the program map table, wherein the transmission device further comprises a resolution information inserting unit configured to insert spatial resolution information of the encoded image data under the event information table, wherein the spatial auxiliary information indicates a limit of accuracy for a motion vector included in the encoded image data by indicating that the limit of accuracy is changeable from 1/4 pixel accuracy to 1/2 pixel accuracy or 1 pixel accuracy wherein the encoded image data are transmitted without scalable coding.
A bearing device comprising: a bearing portion supporting a rotor shaft in a bearing housing (8, 8A, 8B); a circular oil path formed in a circumferential direction between the bearing housing and the bearing portion; and an oil hole (76, 58, 58A) penetrating through the bearing portion from an outer circumference to an inner circumference of the bearing portion so as to receive a supply of oil from the circular oil path, wherein a foreign matter regulating gap (91, 91A) comprising a gap between the bearing portion and the bearing housing (8, 8A, 8B) is formed between the circular oil path and the oil hole, and wherein a maximum value of a gap of a radial direction of the foreign matter regulating gap is smaller than a minimum value of an internal diameter of the oil hole, wherein the bearing portion supports the rotor shaft in the bearing housing (8, 8A, 8B) with an oil film damper formed between the bearing portion (5, 5A, 5B) and the bearing housing, characterized in that a sum of a flow path area of the oil hole (76, 58, 58A) and a flow path area of an oil film damper forming gap (9, 9A, 9B, 9C) that forms the oil film damper in a downstream side of the foreign matter regulating gap (91, 91A) is smaller than a flow path area of the foreign matter regulating gap (91, 91A). a bearing portion supporting a rotor shaft in a bearing housing (8, 8A, 8B); a circular oil path formed in a circumferential direction between the bearing housing and the bearing portion; and an oil hole (76, 58, 58A) penetrating through the bearing portion from an outer circumference to an inner circumference of the bearing portion so as to receive a supply of oil from the circular oil path, wherein a foreign matter regulating gap (91, 91A) comprising a gap between the bearing portion and the bearing housing (8, 8A, 8B) is formed between the circular oil path and the oil hole, and wherein a maximum value of a gap of a radial direction of the foreign matter regulating gap is smaller than a minimum value of an internal diameter of the oil hole, wherein the bearing portion supports the rotor shaft in the bearing housing (8, 8A, 8B) with an oil film damper formed between the bearing portion (5, 5A, 5B) and the bearing housing, characterized in that a sum of a flow path area of the oil hole (76, 58, 58A) and a flow path area of an oil film damper forming gap (9, 9A, 9B, 9C) that forms the oil film damper in a downstream side of the foreign matter regulating gap (91, 91A) is smaller than a flow path area of the foreign matter regulating gap (91, 91A).
A method of connecting an impeller to a shaft through a tie rod, wherein a bayonet coupling couples the tie rod to the impeller, wherein a hirth coupling or a spline coupling couples the shaft to the impeller.
A method for filling a polymeric container comprising: blow molding the container from a preform to provide the container with at least one horizontal compression rib (36a-e) and a base with a constrained geometry; filling the container; capping the container; cooling the container; labeling the container; and applying a top load force along a longitudinal axis of the container; wherein applying the top load force reduces the overall height of the container, compresses the horizontal compression ribs (36a-e), and increases pressure within the container to invert one or more dents formed on a sidewall of the container; characterized in that the filling of the container is configured as a hot filling operation; the top load force is applied after cooling the container and before labeling the container; upon capping and cooling the container, fluid pressure within the container drops from an initial atmospheric pressure causing a vacuum in the container until a maximum vacuum is reached, until the top load force is applied; applying the top load force increases the fluid pressure above the intial atmospheric pressure to a maximum top load, after maximum top load is reached and the top load force is unloaded; upon unloading the top load force the fluid pressure decreases below the initial atmospheric pressure, until a final unload reduced vacuum is reached in the container that is less than the maximum vacuum realized prior to applying the top load. blow molding the container from a preform to provide the container with at least one horizontal compression rib (36a-e) and a base with a constrained geometry; filling the container; capping the container; cooling the container; labeling the container; and applying a top load force along a longitudinal axis of the container; wherein applying the top load force reduces the overall height of the container, compresses the horizontal compression ribs (36a-e), and increases pressure within the container to invert one or more dents formed on a sidewall of the container; characterized in that the filling of the container is configured as a hot filling operation; the top load force is applied after cooling the container and before labeling the container; upon capping and cooling the container, fluid pressure within the container drops from an initial atmospheric pressure causing a vacuum in the container until a maximum vacuum is reached, until the top load force is applied; applying the top load force increases the fluid pressure above the intial atmospheric pressure to a maximum top load, after maximum top load is reached and the top load force is unloaded; upon unloading the top load force the fluid pressure decreases below the initial atmospheric pressure, until a final unload reduced vacuum is reached in the container that is less than the maximum vacuum realized prior to applying the top load.
A high strength steel sheet consisting of 0.02 to 0.12 wt% of carbon, 0.5 to 2.0 wt% of manganese (Mn), 0.05 to 0.5 wt% of silicon (Si), 0.05 to 1.0 wt% of nickel (Ni), 0.005 to 0.1 wt% of titanium (Ti), 0.005 to 0.5 wt% of aluminum (Al), 0.015 wt% or less of phosphorus, 0.015 wt% or less of sulfur, and the balance of Fe and other inevitable impurities, wherein the steel sheet optionally further includes one or two or more selected from a group consisting of 0.01 to 0.5 wt% of copper (Cu), 0.005 to 0.1 wt% of niobium (Nb), and 0.005 to 0.5 wt% of molybdenum (Mo) wherein the microstructure thereof consists of 70% to 90% of ultrafine ferrite and 10% to 30% of MA (martensite/austenite) structure by area fraction, and the yield ratio (YS/TS) thereof is 0.8 or less.
A method of suppressing a parasite signal received with a useful signal by an array of elementary antennas (A 1 -A N) of a payload of a satellite, said suppression method including a step of analog formation of beams, termed "analog beams", by means of an analog beam forming network and from elementary signals supplied by said elementary antennas, and a step of digital formation of a beam, termed a "digital beam", characterized in that the analog formation step includes: - the formation of at least one analog beam, termed a "useful beam", for which the gain of the array of elementary antennas in the direction of arrival of the useful signal is higher than the gain in the direction of arrival of the parasite signal, - the formation of at least one analog beam, termed an "auxiliary beam", in which the gain of the array of elementary antennas in the direction of arrival of the parasite signal is higher than the gain in the direction of arrival of the useful signal, the digital beam being obtained, during the digital formation step, by combining digital signals obtained by digitization of at least said auxiliary beam and said useful beam using weighting coefficients determined in order to suppress the parasite signal in said digital beam. - the formation of at least one analog beam, termed a "useful beam", for which the gain of the array of elementary antennas in the direction of arrival of the useful signal is higher than the gain in the direction of arrival of the parasite signal, - the formation of at least one analog beam, termed an "auxiliary beam", in which the gain of the array of elementary antennas in the direction of arrival of the parasite signal is higher than the gain in the direction of arrival of the useful signal,
Electronic circuit arrangement with components of a circuit module that emit lost heat and with - a circuit carrier, on which the components are arranged; - a plastic housing mass, in which the components are embedded, the plastic housing mass at least partially surrounding the circuit carrier and the plastic housing mass and the circuit carrier having different coefficients of thermal expansion; - at least one spring element, with which the circuit module comprising the plastic housing mass and the circuit carrier is fixed resiliently on a heat sink, a heat-conducting cooling element being arranged between the heat sink and the circuit module, and the cooling element being adapted to distortions of the circuit module at different operating temperatures, characterized in that the cooling element comprises a heat-conducting shape memory material, the shape memory of which is adapted to the temperature-dependent distortions of the circuit module, or the cooling element is segmented, and the segments of the cooling element are arranged tiltably on a surface of the heat sink. - a circuit carrier, on which the components are arranged; - a plastic housing mass, in which the components are embedded, the plastic housing mass at least partially surrounding the circuit carrier and the plastic housing mass and the circuit carrier having different coefficients of thermal expansion; - at least one spring element, with which the circuit module comprising the plastic housing mass and the circuit carrier is fixed resiliently on a heat sink,
A method for imaging a substrate, said method comprising: providing a substrate; depositing a liquid wet photopolymer onto at least part of the substrate to form a layer of liquid wet film of photopolymer on the substrate; applying a protective film (316, 318) onto the layer of liquid wet film of photopolymer on the substrate; providing a direct imaging unit (430, 432); and directly applying radiation from the direct imaging unit (430, 432) onto the liquid wet photopolymer through the protective film (316, 318); wherein an imaged pattern of cured photopolymer is formed on the substrate; and wherein prior to the imaging of the liquid wet photopolymer in the direct writing process and after the deposition of the film or films onto the liquid wet photopolymer there is an intermediate process where a curing process occurs which forms a frame, border and/or perimeter of cured photopolymer (320, 322, 324, 326) around a region of uncured liquid wet photopolymer. providing a substrate; depositing a liquid wet photopolymer onto at least part of the substrate to form a layer of liquid wet film of photopolymer on the substrate; applying a protective film (316, 318) onto the layer of liquid wet film of photopolymer on the substrate; providing a direct imaging unit (430, 432); and directly applying radiation from the direct imaging unit (430, 432) onto the liquid wet photopolymer through the protective film (316, 318); wherein an imaged pattern of cured photopolymer is formed on the substrate; and wherein prior to the imaging of the liquid wet photopolymer in the direct writing process and after the deposition of the film or films onto the liquid wet photopolymer there is an intermediate process where a curing process occurs which forms a frame, border and/or perimeter of cured photopolymer (320, 322, 324, 326) around a region of uncured liquid wet photopolymer.
Nozzle device for emitting at least one viscous emission medium onto a component, preferably onto a fold, an edge or a transition joint of the component, wherein the nozzle device comprises at least two nozzle plates (10, 20, 30) arranged adjoining one another, wherein a first nozzle plate comprises at least one emission opening (1.1, 1.2) for emitting at least one emission jet (S1.1, 51.2) consisting of the viscous emission medium and a second nozzle plate comprises at least two emission openings (2.1, 2.2, 2.3) for emitting at least two emission jets (S2.1, S2.2, S2.3) consisting of the viscous emission medium, and wherein the nozzle plates (10, 20) comprise entry openings (E1, E2) by means of which the viscous emission medium is fed to the emission openings (1.1, 1.2, 2.1, 2.2, 2.3), characterised in that the at least one emission jet (S1.1, 51.2) from the first nozzle plate defines a jet width (B1, B2) and the first nozzle plate comprises an opening configuration for forming the at least one opening (1.1, 1.2) and the opening configuration is formed concave, in order to bring about a narrowing of the jet width (B1, B2) toward the emission side, and/or that the at least two emission openings (2.1, 2.2) of the second nozzle plate are oriented inwardly so that the at least two emission jets (S2.1, S2.2) of the second nozzle plate consisting of the viscous emission medium converge to one another toward the emission side. characterised in that the at least one emission jet (S1.1, 51.2) from the first nozzle plate defines a jet width (B1, B2) and the first nozzle plate comprises an opening configuration for forming the at least one opening (1.1, 1.2) and the opening configuration is formed concave, in order to bring about a narrowing of the jet width (B1, B2) toward the emission side, and/or that the at least two emission openings (2.1, 2.2) of the second nozzle plate are oriented inwardly so that the at least two emission jets (S2.1, S2.2) of the second nozzle plate consisting of the viscous emission medium converge to one another toward the emission side.
Method for configuring a network node of a telecommunications network, wherein the telecommunications network comprises a plurality of network nodes (101, 102, 103), wherein the telecommunications network is an IP, Internet Protocol, data network, wherein the network node provides a routing and/or forwarding and/or switching operation on the network layer, layer 3, according to the OSI model, Open Systems Interconnection model, such that a data packet, being an IPv6 data packet and being received by the network node from a further network node of the plurality of network nodes (101, 102, 103), is -- either rejected, -- or routed and/or forwarded and/or switched to a third network node of the plurality of network nodes (101, 102, 103) of the telecommunications network, wherein the method comprises at least the following step: transmitting, as part of a configuration process of the network node, routing address information comprising source address information and/or destination address information, and wherein the routing address information is, at least partly, defined based on an address information and a bit mask, the bit mask defining at least a first relevant binary digit of the routing address information and/or the address information, and a second relevant binary digit of the routing address information and/or the address information such that the first and second relevant binary digits (311, 312) of the bit mask are separated - within the bit mask - by at least one non-relevant binary digit of the bit mask. -- either rejected, -- or routed and/or forwarded and/or switched to a third network node of the plurality of network nodes (101, 102, 103) of the telecommunications network,
An orthodontic appliance comprising a base having a bonding surface; a body extending outwardly from the base, the body including a mesial-distally extending archwire slot having a bottom wall and a channel oriented generally perpendicular to the wire slot; and a door slidably coupled to the body, the door moveable between an open state in which an archwire can be ligated in the archwire slot and a closed state in which an archwire can be retained in the archwire slot, wherein the door includes a strut extending from a lingual surface, wherein the strut is slidably received in the channel, and wherein the strut includes a first rail, the first rail having a first mesial-distal rail height h 1 of 0.0254 mm to 0.200 mm, the first rail extending along a mesial or a distal side of the strut, and wherein the channel includes a first concave recess, and wherein the first rail is slidably engaged in the first concave recess. a base having a bonding surface; a body extending outwardly from the base, the body including a mesial-distally extending archwire slot having a bottom wall and a channel oriented generally perpendicular to the wire slot; and a door slidably coupled to the body, the door moveable between an open state in which an archwire can be ligated in the archwire slot and a closed state in which an archwire can be retained in the archwire slot, wherein the door includes a strut extending from a lingual surface, wherein the strut is slidably received in the channel, and wherein the strut includes a first rail, the first rail having a first mesial-distal rail height h 1 of 0.0254 mm to 0.200 mm, the first rail extending along a mesial or a distal side of the strut, and wherein the channel includes a first concave recess, and wherein the first rail is slidably engaged in the first concave recess.
A method of operating a network control node, the method comprising: participating in an initialization of a communication connection between at least two parties comprising a calling party and a called party; executing forking of the communication connection at the network control node to a plurality of branches in a forward direction of the network node towards the called party; receiving response messages from destination nodes of at least one branch of the plurality of branches; forwarding a first successful response message from one of the destination nodes in a backward direction of the forking network control node towards the calling party; generating a connection terminating message in response to a receipt of further successful response messages from at least one other destination node differing to the first successful response; and forwarding the connection terminating message to the at least one other destination node for terminating a dialog with the at least one other destination node; further comprising: initializing a charging of the communication connection, and effecting charging for the branch from which the first successful response message is received while terminating a charging for the branches other than the branch from which the first successful response message is received. participating in an initialization of a communication connection between at least two parties comprising a calling party and a called party; executing forking of the communication connection at the network control node to a plurality of branches in a forward direction of the network node towards the called party; receiving response messages from destination nodes of at least one branch of the plurality of branches; forwarding a first successful response message from one of the destination nodes in a backward direction of the forking network control node towards the calling party; generating a connection terminating message in response to a receipt of further successful response messages from at least one other destination node differing to the first successful response; and forwarding the connection terminating message to the at least one other destination node for terminating a dialog with the at least one other destination node; further comprising: initializing a charging of the communication connection, and effecting charging for the branch from which the first successful response message is received while terminating a charging for the branches other than the branch from which the first successful response message is received. initializing a charging of the communication connection, and effecting charging for the branch from which the first successful response message is received while terminating a charging for the branches other than the branch from which the first successful response message is received.
A method for reducing the content of residual ethyl acrylate and/or acrylonitrile monomer in a polymeric dispersion, the method comprising: contacting a stable aqueous dispersion of a polymer that contains a) polymerized units of acrylonitrile and/or ethyl acrylate and b) at least 5 ppm of ethyl acrylate and/or acrylonitrile monomers; with 0.01 wt% to 2 wt% of an ethyl acrylate/acrylonitrile scavenging compound based on the dry weight of the aqueous dispersion of the polymer, wherein the ethyl acrylate/acrylonitrile scavenging compound is selected from the group consisting of bisulfite salts, sulfite salts, and combinations thereof to form a polymeric dispersion that contains less than 1 ppm of ethyl acrylate and/or less than 1 ppm acrylonitrile; and wherein prior to, concurrent with, or subsequent to contacting the ethyl acrylate/acrylonitrile scavenging compound with the aqueous dispersion of the polymer, one or more redox pairs are contacted with the aqueous dispersion of the polymer.