mhurhangee/ep-ind-claims huggingface dataset:
A system for real-time backup of a target cloud computing environment, comprising a first processing circuitry in communication with the target cloud computing environment, the first processing circuitry configured to: identify a set of static backup rules specified in a rule repository; attach the set of static backup rules to computing entities of the target cloud computing environment; receive a plurality of operating status of the target cloud computing environment; perform analytics on the plurality of operating status using a multilayer analytics stack to obtain a set of parameters; obtain at least one triggering signal for one or more levels of the target cloud computing environment identified based on the set of parameters for performing a backup for the target cloud computing environment separate from a backup specified according to the set of static backup rules, wherein at least one of the one or more levels is one of: individual software application level, software stack level, virtual machine level, and entire cloud computing environment level; identify a cloud computing platform (102, 104) associated with the one or more levels of the target cloud computing environment; automatically generate a backup command corresponding to the cloud computing platform; and communicate the backup command to the cloud computing platform to cause the cloud computing platform to create a backup of one or more of the identified levels of the target cloud computing environment. identify a set of static backup rules specified in a rule repository; attach the set of static backup rules to computing entities of the target cloud computing environment; receive a plurality of operating status of the target cloud computing environment; perform analytics on the plurality of operating status using a multilayer analytics stack to obtain a set of parameters; obtain at least one triggering signal for one or more levels of the target cloud computing environment identified based on the set of parameters for performing a backup for the target cloud computing environment separate from a backup specified according to the set of static backup rules, wherein at least one of the one or more levels is one of: individual software application level, software stack level, virtual machine level, and entire cloud computing environment level; identify a cloud computing platform (102, 104) associated with the one or more levels of the target cloud computing environment; automatically generate a backup command corresponding to the cloud computing platform; and communicate the backup command to the cloud computing platform to cause the cloud computing platform to create a backup of one or more of the identified levels of the target cloud computing environment.
A chargeable battery state detection apparatus configured to detect a state of a chargeable battery, the apparatus comprising: one or a plurality of processors; and one or a plurality of memories communicatively connected to the one or the plurality of processors, wherein the one or the plurality of processors read out a group of instructions stored in the one or the plurality of memories, and execute a detection process for detecting a voltage and a current of the chargeable battery based on signals output from a voltage detecting unit and a current detecting unit, a storage process for storing a plurality of voltage values (V(n)) detected at different times by the detection process after charge and discharge of the chargeable battery is stopped, a fitting process for fitting, with respect to the plurality of voltage values (V(n)) stored by the storage process, by adjusting coefficients (A1~A9) of a predetermined function (F), a calculation process for calculating an open circuit voltage based on the function (F), the coefficients (A1~A9) of the function (F) being adjusted by the fitting process, wherein the apparatus is characterised in that the one or the plurality of processors execute a discard process for discarding at least a part of the plurality of voltage values (V(n)) stored by the storage process when a current value or a voltage value detected by the detection process fluctuates by a predetermined threshold value (Th) or greater. one or a plurality of processors; and one or a plurality of memories communicatively connected to the one or the plurality of processors, wherein the one or the plurality of processors read out a group of instructions stored in the one or the plurality of memories, and execute a detection process for detecting a voltage and a current of the chargeable battery based on signals output from a voltage detecting unit and a current detecting unit, a storage process for storing a plurality of voltage values (V(n)) detected at different times by the detection process after charge and discharge of the chargeable battery is stopped, a fitting process for fitting, with respect to the plurality of voltage values (V(n)) stored by the storage process, by adjusting coefficients (A1~A9) of a predetermined function (F), a calculation process for calculating an open circuit voltage based on the function (F), the coefficients (A1~A9) of the function (F) being adjusted by the fitting process, wherein the apparatus is characterised in that the one or the plurality of processors execute a discard process for discarding at least a part of the plurality of voltage values (V(n)) stored by the storage process when a current value or a voltage value detected by the detection process fluctuates by a predetermined threshold value (Th) or greater.
Forming belt for a machine for producing or processing a paper web, wherein the forming belt has a paper side and a running side, comprising a basic structure and at least one further structure, wherein the at least one further structure is composed of or comprises a tier of polymer foam and said tier of polymer foam provides the paper side of the forming belt, characterized in that in a compressive stressing of the forming belt of 50 kPa the tier of polymer foam in the thickness direction is compressed by more than 10%, preferably by more than 15%, as compared to an initial thickness at a compressive stress of 6 kPa.
A method of performing a procedure for a Proximity-based Service, ProSe, by a first ProSe-enabled User Equipment, UE, served by a base station in a cellular communication system, the method comprising: receiving, from the base station, system information including authorization of announcing network reachability information indicating that available network is in proximity; broadcasting the network reachability information including a hop count which is set to a maximum number of allowed relay hops and decreased by one per hop by another ProSe-enabled UE, when Pa which is strength of downlink signals from the base station measured by the first ProSe-enabled UE is lower than a first threshold value for a predetermined period; and receiving, from a second ProSe-enabled UE which is an out-of-coverage ProSe-enabled UE, a request for connecting with the base station via the first ProSe-enabled UE, wherein the request includes information indicating Pb which is strength of downlink signals from the base station measured by the second ProSe-enabled UE, wherein only if the value of Pa - Pb, which is a subtraction of the Pb from the Pa, is greater than or equal to a second threshold value, a response including information indicating whether the request is granted or not is transmitted to the second ProSe-enabled UE by the first ProSe-enabled UE. receiving, from the base station, system information including authorization of announcing network reachability information indicating that available network is in proximity; broadcasting the network reachability information including a hop count which is set to a maximum number of allowed relay hops and decreased by one per hop by another ProSe-enabled UE, when Pa which is strength of downlink signals from the base station measured by the first ProSe-enabled UE is lower than a first threshold value for a predetermined period; and receiving, from a second ProSe-enabled UE which is an out-of-coverage ProSe-enabled UE, a request for connecting with the base station via the first ProSe-enabled UE, wherein the request includes information indicating Pb which is strength of downlink signals from the base station measured by the second ProSe-enabled UE, wherein only if the value of Pa - Pb, which is a subtraction of the Pb from the Pa, is greater than or equal to a second threshold value, a response including information indicating whether the request is granted or not is transmitted to the second ProSe-enabled UE by the first ProSe-enabled UE.
A shedding apparatus for a weaving machine, in particular for a ribbon weaving machine, comprising at least one heddle apparatus (2, 2 1 -2 6) and a heddle frame, which is connected to a spring drive (14, 16) and magnetically acting holding means (24, 26, 30, 32; 36, 38, 130, 132), which are opposed to the driving force of the spring drive (14, 16) and are able to hold the heddle frame in an upper shed position and a lower shed position counter to the spring force, the heddle frame also being connected to a linear motor, by the activation of which a heddle motion can be initiated, the sum of the forces of the spring drive (14, 16) and the linear motor being able to overcome the action of the holding means (24, 26, 30, 32; 36, 38, 130, 132), characterized in that the spring drive (14, 16) is formed as a tension/compression spring which is designed such that, when the heddle frame is operated at the resonant frequency of the spring drive (14, 16), the greater part of the kinetic energy can be obtained from the spring drive (14, 16).
A stable Saccharomyces cerevisiae strain chosen from the strain deposited with the CNCM under number I-4073, the strain deposited with the CNCM under number I-4074 or the strain deposited with the CNCM under number I-4075.
A route advertisement method, applied to a network in which a cross-domain end-to-end tunnel carries a service, wherein the cross-domain end-to-end tunnel crosses at least two interior gateway protocol, IGP, network domains, the at least two IGP network domains comprise a first network device, a second network device, and a third network device, and the method comprises: receiving, by the first network device, a first message from a control and management device, wherein the first message comprises the first policy information, the first policy information indicates the first network device not to perform route recursion; receiving, by the first network device, border gateway protocol, BGP, service routing information from the second network device, wherein the BGP service routing information comprises a destination address and a next-hop address to the destination address; skipping, by the first network device, performing route recursion on the next-hop address before advertising the BGP service routing information to the third network device; and sending, by the first network device, the BGP service routing information to the third network device. receiving, by the first network device, a first message from a control and management device, wherein the first message comprises the first policy information, the first policy information indicates the first network device not to perform route recursion; receiving, by the first network device, border gateway protocol, BGP, service routing information from the second network device, wherein the BGP service routing information comprises a destination address and a next-hop address to the destination address; skipping, by the first network device, performing route recursion on the next-hop address before advertising the BGP service routing information to the third network device; and sending, by the first network device, the BGP service routing information to the third network device.
Multimode fuel injector for combustion chambers of the type comprising two coaxial fuel atomisation systems fed respectively by two circuits, a primary circuit with permanent flowrate and a secondary circuit with intermittent flowrate, the fuel injector comprising an atomisation head in which said secondary circuit is connected to an annular distribution chamber perforated with a plurality of fuel ejection orifices distributed at regular intervals along the circumference and in which said primary circuit comprises at least one passage section adjacent said distribution chamber, for its cooling, and said passage section comprises an external annular section arranged radially on the outside relative to said distribution chamber and an internal annular section arranged radially on the inside relative to said distribution chamber.
A method for cleaning a tubular cavity by means of a passive, contour-adaptive pig, the pig consisting of at least one solid suspension (2, 4, 6) formed by a solid phase and a liquid phase and having a high solid content compared to the product suspension usually processed in the cavity, and being forced into a dense packing by a subsequent propellant or by prior compaction, and the dense packing of the at least one solid suspension (2, 4, 6) having such a density and stability that the product suspension of the predecessor product is expelled without the formation of mixed phases between the at least one solid suspension (2, 4, 6), the predecessor product and/or the propellant, the solid phase of the solid suspension (2, 4, 6) consisting of particles which do not dissolve in the liquid phase or dissolve only to such an extent that the expulsion of the predecessor product is not impaired, the pig having a material composition which varies across its length, each region of composition performing a different subfunction, characterized in that a front third in the direction of travel of the pig consists of the first solid suspension, the solid phase of which consists of fine particles of a first particle size which seal the pig against ingress of the product suspension of the predecessor product, a middle part of the pig consists of the second solid suspension, the solid phase of which has coarse crystals of a second particle size which is larger than the first particle size and produces a high abrasive cleaning effect on a pipe wall and absorption of the detached contamination, and a rear third consists of the solid suspension, the solid phase of which is formed by fine particles of a third particle size which is smaller than the second particle size, which seal the pig with respect to the propellant and clean the pipe wall from remaining contamination residues of low layer thickness.
A dispenser (100; 200) comprising: a tape roll housing (110; 210) including a side wall (111; 211a) and a surrounding wall (120; 220); a cutting edge support (140; 240) spaced from the roll housing (110; 210); a tape core support (114; 214) extending in a direction generally orthogonal to the side wall (111; 211a); and a base (130; 230) comprising a portion of the surrounding wall (120; 220) and a portion of the cutting edge support (140; 240), characterized in that at least a portion of the surface of the surrounding wall (120; 220) comprises a first texture (122; 221) and a second texture (121; 222). a tape roll housing (110; 210) including a side wall (111; 211a) and a surrounding wall (120; 220); a cutting edge support (140; 240) spaced from the roll housing (110; 210); a tape core support (114; 214) extending in a direction generally orthogonal to the side wall (111; 211a); and a base (130; 230) comprising a portion of the surrounding wall (120; 220) and a portion of the cutting edge support (140; 240),
A process for manufacturing a photonic circuit comprising: - manufacturing a first layer stack on a first wafer, said first layer stack comprising an underclad oxide layer and a high refractive index waveguide layer, i.e. a waveguide layer with refractive index above 1.8; - patterning said high refractive index waveguide layer to thereby generate a patterned high refractive index waveguide layer containing passive photonic structures; - planarizing said first layer stack on said first wafer with a planarizing oxide layer having a thickness below 300 nanometers above said high refractive index waveguide layer; - annealing said patterned high refractive index waveguide layer before and/or after said planarizing oxide layer to thereby generate an annealed and patterned high refractive index waveguide layer (103") and planarizing oxide layer; - manufacturing a second layer stack on a second wafer, said second layer stack comprising a detachable mono-crystalline silicon waveguide layer; - transferring said second wafer with second layer stack (202, 203) onto said first wafer with first layer stack (102, 103", 104) and bonding said first layer stack and said second layer stack; - removing a substrate of said second wafer; - manufacturing active photonic devices in said mono-crystalline silicon waveguide layer to thereby generate a mono-crystalline silicon waveguide layer with active photonic devices; and - realizing evanescent coupling between said mono-crystalline silicon waveguide layer with active photonic devices and said annealed and patterned high refractive index waveguide layer (103"). - manufacturing a first layer stack on a first wafer, said first layer stack comprising an underclad oxide layer and a high refractive index waveguide layer, i.e. a waveguide layer with refractive index above 1.8; - patterning said high refractive index waveguide layer to thereby generate a patterned high refractive index waveguide layer containing passive photonic structures; - planarizing said first layer stack on said first wafer with a planarizing oxide layer having a thickness below 300 nanometers above said high refractive index waveguide layer; - annealing said patterned high refractive index waveguide layer before and/or after said planarizing oxide layer to thereby generate an annealed and patterned high refractive index waveguide layer (103") and planarizing oxide layer; - manufacturing a second layer stack on a second wafer, said second layer stack comprising a detachable mono-crystalline silicon waveguide layer; - transferring said second wafer with second layer stack (202, 203) onto said first wafer with first layer stack (102, 103", 104) and bonding said first layer stack and said second layer stack; - removing a substrate of said second wafer; - manufacturing active photonic devices in said mono-crystalline silicon waveguide layer to thereby generate a mono-crystalline silicon waveguide layer with active photonic devices; and - realizing evanescent coupling between said mono-crystalline silicon waveguide layer with active photonic devices and said annealed and patterned high refractive index waveguide layer (103").
A non-planar flexible integrated circuit device comprising: a planar flexible structure curved in a three-dimensional desired deformation, and at least one fixture structure bonded to the flexible structure, wherein the flexible structure includes a plurality of contact areas, and the flexible structure includes circuitry embedded herein to perform processing operations; wherein the at least one fixture structure provides holding constraints allowing the at least one flexible structure to remain curved by bonding to the at least one flexible structure via the contact areas; the planar flexible structure comprises one or more slots to form narrow openings in the flexible structure, the slots reduce in-plane stress of the flexible structure across the narrow openings and allow the curving in the three-dimensional desired deformation; the fixture structures are curved according to the desired deformation and bonded with the flexible structure to provide mutual holding constraints allowing the fixture structure to remain curved; and the flexible structure includes a surface and the slots are arranged on the surface. a planar flexible structure curved in a three-dimensional desired deformation, and at least one fixture structure bonded to the flexible structure, wherein the flexible structure includes a plurality of contact areas, and the flexible structure includes circuitry embedded herein to perform processing operations; wherein the at least one fixture structure provides holding constraints allowing the at least one flexible structure to remain curved by bonding to the at least one flexible structure via the contact areas; the planar flexible structure comprises one or more slots to form narrow openings in the flexible structure, the slots reduce in-plane stress of the flexible structure across the narrow openings and allow the curving in the three-dimensional desired deformation; the fixture structures are curved according to the desired deformation and bonded with the flexible structure to provide mutual holding constraints allowing the fixture structure to remain curved; and the flexible structure includes a surface and the slots are arranged on the surface.
A method in a communication network node (15, 31, 33) of enabling automatic planning and handling of root sequences used at random access in a communication network system, wherein user equipments are accessing a cell being served by said communication network node (15, 31, 33), the method comprises the steps of: - acquiring root sequence usage information from neighbouring cells; - detecting root sequence conflicts between root sequences used in said served cell and root sequences used in said neighbouring cells; - when no conflict is detected, selecting one or more new root sequences; - otherwise, resolving detected root sequence conflicts by deriving a new set of root sequences. - acquiring root sequence usage information from neighbouring cells; - detecting root sequence conflicts between root sequences used in said served cell and root sequences used in said neighbouring cells; - when no conflict is detected, selecting one or more new root sequences; - otherwise, resolving detected root sequence conflicts by deriving a new set of root sequences.