mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator shelving system comprising: a first shelf having an upper surface, defining tracks below the upper surface, and having at least one inwardly protruding tab disposed below the upper surface; rollers disposed within the tracks; hangers rotatably secured the rollers; and a second shelf rotatably secured to the hangers and having at least one outwardly protruding tab, wherein (i) the second shelf is configured to rotate upward and forward about the rollers upon engagement between the rollers and at least one stop to transition from a first position to a second position, and (ii) the second shelf is configured to slide rearward from the second position to a third position such that the at least one outwardly protruding tab engages the at least one inwardly protruding tab to nest the second shelf to the first shelf, wherein (iii) at least one rail is disposed within the tracks, (iv) the rollers define at least one groove, (v) the at least one rail is disposed within the at least one groove to guide the rollers within the tracks and (vi) the at least one stop comprises at least one protrusion extending from the at least one rail. a first shelf having an upper surface, defining tracks below the upper surface, and having at least one inwardly protruding tab disposed below the upper surface; rollers disposed within the tracks; hangers rotatably secured the rollers; and a second shelf rotatably secured to the hangers and having at least one outwardly protruding tab, wherein (i) the second shelf is configured to rotate upward and forward about the rollers upon engagement between the rollers and at least one stop to transition from a first position to a second position, and (ii) the second shelf is configured to slide rearward from the second position to a third position such that the at least one outwardly protruding tab engages the at least one inwardly protruding tab to nest the second shelf to the first shelf, wherein (iii) at least one rail is disposed within the tracks, (iv) the rollers define at least one groove, (v) the at least one rail is disposed within the at least one groove to guide the rollers within the tracks and (vi) the at least one stop comprises at least one protrusion extending from the at least one rail. (i) the second shelf is configured to rotate upward and forward about the rollers upon engagement between the rollers and at least one stop to transition from a first position to a second position, and (ii) the second shelf is configured to slide rearward from the second position to a third position such that the at least one outwardly protruding tab engages the at least one inwardly protruding tab to nest the second shelf to the first shelf, wherein (iii) at least one rail is disposed within the tracks, (iv) the rollers define at least one groove, (v) the at least one rail is disposed within the at least one groove to guide the rollers within the tracks and (vi) the at least one stop comprises at least one protrusion extending from the at least one rail.
An aircraft wing, comprising: a spoiler constructed substantially of a monolithic structural body wherein the monolithic structural body includes: an upper side that defines a portion of an airfoil surface of the aircraft wing when the spoiler is in a stowed position; and a lower side, opposite the upper side, that includes a plurality of stiffening ribs that define a plurality of open voids, characterized in that the monolithic structural body defines at least one integral lug configured for attachment to one or more respective spoiler deployment mechanisms. a spoiler constructed substantially of a monolithic structural body wherein the monolithic structural body includes: an upper side that defines a portion of an airfoil surface of the aircraft wing when the spoiler is in a stowed position; and a lower side, opposite the upper side, that includes a plurality of stiffening ribs that define a plurality of open voids, an upper side that defines a portion of an airfoil surface of the aircraft wing when the spoiler is in a stowed position; and a lower side, opposite the upper side, that includes a plurality of stiffening ribs that define a plurality of open voids, characterized in that the monolithic structural body defines at least one integral lug configured for attachment to one or more respective spoiler deployment mechanisms.
A method of communicating with a plurality of subscriber units (110-1, 110-2,..., 110-n), the method comprising: associating a respective plurality of data queues (410-1-1,.., 410-n-m) with each of the plurality of subscriber units, wherein incoming traffic is separated into individual traffic flows destined for separate subscriber units; monitoring each traffic flow associated with the respective subscriber unit to store data belonging to different transport layer sessions in the respective plurality of data queues (401-1-1,.., 401-n-m) associated with the respective subscriber unit; prioritizing data in at least one of the plurality of data queues; combining the data in the respective plurality of data queues associated with the respective subscriber unit into a respective data flow (440-1,.., 440-n) based on the prioritization of the data; determining an urgency factor for each subscriber unit to receive data on available forward link radio channels based on characteristic information concerning how much data is queued collectively in all data queues (401-1-1,..401-n-m) associated with the respective subscriber unit; dynamically assigning, with a channel resource assignor, a plurality of physical wireless channels to a first subscriber unit of the plurality of subscriber units based on the urgency factor associated with the first subscriber unit; and transmitting a selected data flow to the first subscriber unit via the plurality of dynamically assigned physical wireless channels. associating a respective plurality of data queues (410-1-1,.., 410-n-m) with each of the plurality of subscriber units, wherein incoming traffic is separated into individual traffic flows destined for separate subscriber units; monitoring each traffic flow associated with the respective subscriber unit to store data belonging to different transport layer sessions in the respective plurality of data queues (401-1-1,.., 401-n-m) associated with the respective subscriber unit; prioritizing data in at least one of the plurality of data queues; combining the data in the respective plurality of data queues associated with the respective subscriber unit into a respective data flow (440-1,.., 440-n) based on the prioritization of the data; determining an urgency factor for each subscriber unit to receive data on available forward link radio channels based on characteristic information concerning how much data is queued collectively in all data queues (401-1-1,..401-n-m) associated with the respective subscriber unit; dynamically assigning, with a channel resource assignor, a plurality of physical wireless channels to a first subscriber unit of the plurality of subscriber units based on the urgency factor associated with the first subscriber unit; and transmitting a selected data flow to the first subscriber unit via the plurality of dynamically assigned physical wireless channels.
A process for isolating a monophenolic-bisaryl triazine compound of Formula 1 from a product mixture in solid form comprising trisaryl-triazine impurities, wherein in formula 1, Ar 1 and Ar 2 are the same or different and are radicals of the compound of Formula 2 and wherein R 1 is hydrogen and R 2, R 3, R 4 and R 5, are the same or different and are hydrogen, alkyl of 1 to 24 carbon atoms, haloalkyl of 1 to 24 carbon atoms, aryl of 6 to 24 carbon atoms, alkenyl of 2 to 24 carbon atoms, acyl of 1 to 24 carbon atoms, cycloalkyl of up to 24 carbon atoms, cycloacyl of 5 to 24 carbon atoms, aralkyl of 7 to 24 carbon atoms, or aracyl of 6 to 24 carbons atoms, substituted or unsubstituted biphenylene, substituted or unsubstituted naphthalene, OR, NRR', CONRR', OCOR, CN, SR, SO 2 R, and optionally with either of R 3 and R 4 or R 4 and R 5 taken together being a part of a saturated or unsaturated fused carbocyclic ring and wherein each R, R', R 6, R 7, R 8, R 9, and R 10 are the same or different and each is hydrogen, alkyl of 1 to 24 carbon atoms, haloalkyl of 1 to 24 carbon atoms, aryl of 6 to 24 carbon atoms, alkenyl of 2 to 24 carbon atoms, acyl of 1 to 24 carbon atoms, cycloalkyl of up to 24 carbon atoms, cycloacyl of 5 to 24 carbon atoms, aralkyl of 7 to 24 carbon atoms, or aracyl of 6 to 24 carbons atoms, substituted or unsubstituted biphenylene, substituted or unsubstituted naphthalene, and optionally with either of R 6 and R 7, R 7 and R 8, R 8 and R 9, or R 9 and R 10, taken together being a part of a saturated or unsaturated fused carbocyclic ring optionally containing O, N, or S atoms in the ring, and R 6, R 7, R 8, R 9, and R 10, may be an alkoxy of 1 to 24 carbons, and Y is a direct bond, O, NR", or SR", wherein R" is hydrogen, alkyl of 1 to 24 carbon atoms, haloalkyl of 1 to 24 carbon atoms, aryl of 6 to 24 carbon atoms, alkenyl of 2 to 24 carbon atoms, acyl of 1 to 24 carbon atoms, cycloalkyl of up to 24 carbon atoms, cycloacyl of 5 to 24 carbon atoms, aralkyl of 7 to 24 carbon atoms, or aracyl of 6 to 24 carbons atoms; wherein said process comprises the steps of: solubilising the tris-aryl triazine impurities by contacting the said product mixture in solid form comprising trisaryl-triazine impurities with a hydrocarbon solvent selected from the group consisting of saturated and unsaturated, cyclic and non-cyclic, aromatic and aliphatic hydrocarbon compounds having from one to twenty carbon atoms to form an isolation blend, and filtering the isolation blend, thereby isolating the compound of formula 1. solubilising the tris-aryl triazine impurities by contacting the said product mixture in solid form comprising trisaryl-triazine impurities with a hydrocarbon solvent selected from the group consisting of saturated and unsaturated, cyclic and non-cyclic, aromatic and aliphatic hydrocarbon compounds having from one to twenty carbon atoms to form an isolation blend, and filtering the isolation blend, thereby isolating the compound of formula 1.
A valve device including: a flow passage through which fluid in vapor phase flows; a main valve which blocks or opens the flow passage; and an excess flow valve which block the flow passage when the fluid in vapor phase flows from one side to opposite side of the flow passage at a predetermined flow rate or more, characterized in that the valve device comprises: a pressure chamber into which the fluid in liquid phase flows; and an isolation member which maintains the excess flow valve in an open state by using pressure of the fluid in liquid phase flowing into the pressure chamber. a pressure chamber into which the fluid in liquid phase flows; and an isolation member which maintains the excess flow valve in an open state by using pressure of the fluid in liquid phase flowing into the pressure chamber.
A liquid-containing container manufacturing method of manufacturing a liquid-containing container containing a content liquid from a synthetic resin-made preform using a nozzle unit and a mold for blow molding, the nozzle unit having a common path of a liquid extending from a pressurized liquid supply source to a branch, a supply path of the liquid extending from the branch to a blow nozzle, and a discharge path of the liquid extending from the branch to a discharge port of a discharge rod, the liquid-containing container manufacturing method comprising: a liquid blow molding step of molding the preform into the liquid-containing container of a shape along an inner surface of the mold for blow molding, by supplying the liquid pressurized by the pressurized liquid supply source from the supply path into the preform in a state in which the blow nozzle engages with a mouth part of the preform; and a headspace formation step of forming a headspace in the liquid-containing container, by operating the pressurized liquid supply source in a suction direction to discharge the liquid from inside the liquid-containing container through the supply path, thereafter closing the supply path, and discharging the liquid from inside the liquid-containing container through the discharge port of the discharge rod extending into the liquid-containing container through the blow nozzle. a liquid blow molding step of molding the preform into the liquid-containing container of a shape along an inner surface of the mold for blow molding, by supplying the liquid pressurized by the pressurized liquid supply source from the supply path into the preform in a state in which the blow nozzle engages with a mouth part of the preform; and a headspace formation step of forming a headspace in the liquid-containing container, by operating the pressurized liquid supply source in a suction direction to discharge the liquid from inside the liquid-containing container through the supply path, thereafter closing the supply path, and discharging the liquid from inside the liquid-containing container through the discharge port of the discharge rod extending into the liquid-containing container through the blow nozzle.
A composition wherein said composition comprises each of elements a) to c) in the following amounts: a. An amount of +/-30% of from 243.8 mg to 731.4 mg of Omega-3 polyunsaturated fatty acids (PUFAs) EPA and DHA, in a weight ratio of EPA:DHA of from 1.2 to 1.8; b. An amount of +/-30% of from 12.5 mg to 37.5 mg of hydroxytyrosol; and c. An amount of +/-30% of from 40 mg to 120 mg of curcumin. a. An amount of +/-30% of from 243.8 mg to 731.4 mg of Omega-3 polyunsaturated fatty acids (PUFAs) EPA and DHA, in a weight ratio of EPA:DHA of from 1.2 to 1.8; b. An amount of +/-30% of from 12.5 mg to 37.5 mg of hydroxytyrosol; and c. An amount of +/-30% of from 40 mg to 120 mg of curcumin.
Method for the provision of time-critical services by means of a flow control environment, in which - at least one server component is assigned in each case to the services, said server component being formed by a flow control component loadable into and executable in the flow control environment, - a configuration unit for at least one gateway component of a subnetwork comprising the flow control environment in each case determines globally valid access information assigned to addressing information of the server components that is valid within the subnetwork, - on the basis of an operating mode predefined by means of the configuration unit, one or more gateway components connected in parallel and/or in series are used, wherein the at least one gateway component is a load balancer and/or a reverse proxy, - a number and a connection of load balancers (121, 121a-121b) and/or reverse proxies (122a-122c) are predefined by the operating mode, - the configuration unit transmits forwarding and/or filter rules mapping the access information to the at least one gateway component, - an aggregator component makes the globally valid access information available for use of the services outside the subnetwork, - the at least one gateway component forwards service access requests to the server components according to the forwarding and/or filter rules and the operating mode. - at least one server component is assigned in each case to the services, said server component being formed by a flow control component loadable into and executable in the flow control environment, - a configuration unit for at least one gateway component of a subnetwork comprising the flow control environment in each case determines globally valid access information assigned to addressing information of the server components that is valid within the subnetwork, - on the basis of an operating mode predefined by means of the configuration unit, one or more gateway components connected in parallel and/or in series are used, wherein the at least one gateway component is a load balancer and/or a reverse proxy, - a number and a connection of load balancers (121, 121a-121b) and/or reverse proxies (122a-122c) are predefined by the operating mode, - the configuration unit transmits forwarding and/or filter rules mapping the access information to the at least one gateway component, - an aggregator component makes the globally valid access information available for use of the services outside the subnetwork, - the at least one gateway component forwards service access requests to the server components according to the forwarding and/or filter rules and the operating mode.
A decoder for sequentially decoding a data signal received through a transmission channel in a communication system, said data signal carrying transmitted symbols, said decoder comprising a symbol estimation unit configured to determine estimated symbols representative of the transmitted symbols carried by the data signal from information stored in a stack, said symbol estimation unit being configured to iteratively fill the stack by expanding child nodes of a selected node of a decoding tree comprising a plurality of nodes, each node of the decoding tree corresponding to a candidate component of a symbol of said received data signal and each node being assigned a metric, the stack being filled at each iteration with a set of expanded child nodes and being ordered by increasing values of the metrics assigned to the nodes, the selected node for each iteration corresponding to the node being assigned the lowest metric in the stack, the decoder comprising a metric determination unit configured to determine an initial metric for each child node of said set of expanded child nodes, wherein the decoder further comprises a modified metric calculation unit configured to calculate a modified metric for at least one of the expanded child nodes from the metric associated with said expanded child node and a weighting coefficient, said weighting coefficient being a function of the level of said node in the decoding tree, wherein the weighting coefficient at a given level I is a function of the i th diagonal entry of the upper triangular matrix R obtained from the QR decomposition of the equivalent channel matrix representing said transmission channel, the decoder assigning said modified metric to said at least one of the expanded child nodes.
A filter head (40, 40') suitable for a filter assembly comprising a spin-on filter cartridge (10, 10') comprising a housing having a closed end, an open end, and an interior volume; a filter element operably oriented in the housing interior volume; a baffle plate (30, 30') operably oriented over the housing open end; the baffle plate defining a central flow aperture; and a seal arrangement secured to the baffle plate; the baffle plate (30, 30') defining a continuous groove (50, 50') immediately adjacent to and circumscribing the central flow aperture; the continuous groove defining a sealing surface (52, 54); and the seal arrangement being spaced from and circumscribing the continuous groove (50, 50'); the spin-on filter cartridge being removably mountable on the filter head; the filter head including a central spud defining outer threads; wherein, when the spin-on filter cartridge (10, 10') is operably oriented on the filter head, the seal member (60, 60') is received within the continuous groove (50, 50') forming a secondary seal (80, 80') between the cartridge and the filter head, and the seal arrangement forms a primary seal between and against the baffle plate (30, 30') and the filter head (40, 40'); the filter head (40, 40') comprising a block defining fluid flow channels; the filter head being characterized by: (a) a seal member (60, 60') being secured against and circumscribing the central spud. the baffle plate (30, 30') defining a continuous groove (50, 50') immediately adjacent to and circumscribing the central flow aperture; the continuous groove defining a sealing surface (52, 54); and the seal arrangement being spaced from and circumscribing the continuous groove (50, 50'); the spin-on filter cartridge being removably mountable on the filter head; the filter head including a central spud defining outer threads; wherein, when the spin-on filter cartridge (10, 10') is operably oriented on the filter head, the seal member (60, 60') is received within the continuous groove (50, 50') forming a secondary seal (80, 80') between the cartridge and the filter head, and the seal arrangement forms a primary seal between and against the baffle plate (30, 30') and the filter head (40, 40'); the filter head (40, 40') comprising a block defining fluid flow channels; the filter head being characterized by: (a) a seal member (60, 60') being secured against and circumscribing the central spud. (a) a seal member (60, 60') being secured against and circumscribing the central spud.
A method for autofocusing a microscope at a correct autofocus position in a sample comprising the steps: - generating a reference pattern by an autofocus light device (20, 21, 22), - projecting, by the autofocus light device, the reference pattern through a microscope objective and towards a sample, whereby the reference pattern is backscattered by at least two interfaces (70, 71, 72) being located at or close to the sample, - projecting the backscattered reference pattern through the microscope objective and towards a detector which provides spatial resolution, - obtaining, by the detector, a superposition of a number of detection patterns (80, 81, 82), each detection pattern related to one of the at least two interfaces (70, 71, 72), - analyzing the superposition of detection patterns (80, 81, 82) to identify at least one autofocus detection pattern (80, 81) related to at least one of the interfaces (70, 71, 72), and - analyzing the at least one autofocus detection pattern (80, 81) to determine the direction and/or magnitude of deviation of the microscope objective's current focus position from a correct focus position, the method characterized in that the detector being a camera of the microscope to acquire a sample image. - generating a reference pattern by an autofocus light device (20, 21, 22), - projecting, by the autofocus light device, the reference pattern through a microscope objective and towards a sample, whereby the reference pattern is backscattered by at least two interfaces (70, 71, 72) being located at or close to the sample, - projecting the backscattered reference pattern through the microscope objective and towards a detector which provides spatial resolution, - obtaining, by the detector, a superposition of a number of detection patterns (80, 81, 82), each detection pattern related to one of the at least two interfaces (70, 71, 72), - analyzing the superposition of detection patterns (80, 81, 82) to identify at least one autofocus detection pattern (80, 81) related to at least one of the interfaces (70, 71, 72), and - analyzing the at least one autofocus detection pattern (80, 81) to determine the direction and/or magnitude of deviation of the microscope objective's current focus position from a correct focus position,