mhurhangee/ep-ind-claims huggingface dataset:
A method for establishing and maintaining a recovery network for a service, wherein each network includes one or more farms which are basic groupings of machines used to coordinate applications that need tightly bound relationships, comprising: deploying a secondary location of a service that acts as a recovery network for a primary location of the service that substantially mirrors the primary location; automatically applying content changes and system changes made to the primary location of the service to the secondary location of the service while the primary location of the service is actively receiving requests from users to maintain the substantial mirroring; detecting a failure of the primary location of the service; and setting the secondary location of the service as the primary location in response to the failure; wherein automatically applying content changes and system changes made to the primary location of the service to the secondary location comprises updating a new farm at the primary location and the secondary location before transferring requests to the new farm at the primary location. deploying a secondary location of a service that acts as a recovery network for a primary location of the service that substantially mirrors the primary location; automatically applying content changes and system changes made to the primary location of the service to the secondary location of the service while the primary location of the service is actively receiving requests from users to maintain the substantial mirroring; detecting a failure of the primary location of the service; and setting the secondary location of the service as the primary location in response to the failure; wherein automatically applying content changes and system changes made to the primary location of the service to the secondary location comprises updating a new farm at the primary location and the secondary location before transferring requests to the new farm at the primary location.
A male touch fastener product, comprising a flexible fabric base having a broad side; and fibers forming loops of fibers, each loop connected at two spaced-apart points in the base; and fiber segments extending from the base to respective distal fiber ends spaced from the base, each distal fiber end forming an enlarged head of fiber resin for snagging other fibers; wherein there are at least one-sixteenth as many loops as fiber segments, characterized in that at least some of the loops extend to a height from the broad side of the base greater than an average height of the enlarged heads of the fiber segments, and wherein at least most of the enlarged heads are disposed within a loft defined by the loops. a flexible fabric base having a broad side; and fibers forming loops of fibers, each loop connected at two spaced-apart points in the base; and fiber segments extending from the base to respective distal fiber ends spaced from the base, each distal fiber end forming an enlarged head of fiber resin for snagging other fibers; loops of fibers, each loop connected at two spaced-apart points in the base; and fiber segments extending from the base to respective distal fiber ends spaced from the base, each distal fiber end forming an enlarged head of fiber resin for snagging other fibers; wherein there are at least one-sixteenth as many loops as fiber segments, characterized in that at least some of the loops extend to a height from the broad side of the base greater than an average height of the enlarged heads of the fiber segments, and wherein at least most of the enlarged heads are disposed within a loft defined by the loops.
A method for determining a particular position of at least one type area on a material web to be imprinted with at least one print image in a printing press, wherein the at least one print image is printed on the usable area on the material web defined by the respective type area, wherein the respective position of the at least one type area is determined within a section of said material web, wherein said section is delimited by two boundary lines (14; 17) successively spaced in the running direction of the material web and arranged transversely to said running direction of the material web, wherein the respective section having a folding line located at a position determined between its two boundary lines (14; 17) is provided with a transverse folding unit arranged in parallel to said boundary lines (14; 17), wherein it is provided that a plurality of said sections each to be provided with a transverse folding unit are successively arranged in the running direction of the material web, wherein in the plurality of said sections the respective position of the at least one type area to be defined, arranged between the respective boundary lines (14; 17), is determined by a control or regulation event performed by a control unit, characterized in that the position of the boundary lines (14; 17), arranged transversely to the material web running direction and delimiting each section, are not moved with respect to their relative distance from one another, thereby ensuring that a respective length of successive sections within one production run remains the same, wherein in the event the position of the folding line for the transverse folding unit to be provided between the boundary lines (14; 17), arranged transversely to the running direction of the material web, is moved by a distance (x; y) in direction of one of said boundary lines (14; 17), the respective position of the at least one type area to be defined, arranged between the two boundary lines (14; 17), is each moved in the same direction as the moved position of the folding line for the transverse folding unit, wherein for at least one of several successive sections an existing or expected deviation from the position of the folding line from its target position is determined by a recording device delivering data to the control unit, wherein the control or regulation of said deviation having been determined by the control unit is counteracted in a manner such that in the section in which the deviation was determined and/or in at least one section following said section a relative position of the type area to be arranged in the respective section, having been established prior to said respective deviation having been determined, is restored relative to the target position of the folding line for the transverse folding unit, taking into account the valid tolerance region for said relative position.
A cross-flow fan comprising: a plurality of blades radially disposed relative to a rotation axis, the plurality of blades being spaced from each other along a circumference direction; and a supporting plate supporting the blades, wherein each blade includes: a blade body having a negative-pressure surface defining an outer surface of the cross-flow fan and a positive-pressure surface formed at a surface opposite to the negative-pressure surface; and an uplift portion formed at the blade body, wherein the uplift portion further protrudes from the negative-pressure surface of the blade body, characterized in that the uplift portion extends from an inner end of the blade to an outer end, and the outer end of the uplift portion is curved with the same curvature as that of an outer peripheral arc of the cross-flow fan, and the uplift portion has a shape having a width gradually decreasing upward. a blade body having a negative-pressure surface defining an outer surface of the cross-flow fan and a positive-pressure surface formed at a surface opposite to the negative-pressure surface; and an uplift portion formed at the blade body, wherein the uplift portion further protrudes from the negative-pressure surface of the blade body, characterized in that the uplift portion extends from an inner end of the blade to an outer end, and the outer end of the uplift portion is curved with the same curvature as that of an outer peripheral arc of the cross-flow fan, and the uplift portion has a shape having a width gradually decreasing upward.
A refrigerant circuit, including a refrigerant compressor unit, a heat exchanger that emits heat and is arranged in the refrigerant circuit on the pressure side of the refrigerant compressor unit, a high-pressure conduit which connects a pressure connector of the refrigerant compressor unit with an input of the heat exchanger that emits heat an expansion unit and a cooling stage having at least one heat-absorbing heat exchanger, wherein the expansion unit comprises an expansion system having a subcooling unit for subcooling a mass flow of a refrigerant that is supplied to the expansion unit, having an expansion/compression unit including an expander stage and a compressor stage, having a branching point that splits off a subcooling mass flow from a total mass flow supplied to the expansion unit and that is connected to a supply conduit that guides the subcooling mass flow to an inlet of the subcooling unit, having an expansion member (122, 124) that is provided in the supply conduit and that expands the subcooling mass flow to a subcooling pressure, having a connection conduit that supplies the subcooling mass flow exiting from the subcooling unit to the compression stage, which for its part compresses the subcooling mass flow to a return high pressure, characterised in that the expander stage and the compressor stage of the expansion/compression unit are coupled in a mechanically functional manner, in that the refrigerant circuit comprises a high-pressure return conduit, which connects a high-pressure outlet connector of the expansion unit with the high-pressure conduit, in that the return high pressure corresponds at least to a high pressure of a compressor mass flow, to which the subcooling mass flow is supplied from the high-pressure outlet connector via the high-pressure return conduit, and in that an electrically operated controller that detects an ambient temperature and/or a temperature of the mass flow of refrigerant that is supplied to the expansion unit and/or the expander stage, and in accordance with this temperature adjusts an inlet pressure of the expansion unit or the expansion/compression unit by controlling the subcooling mass flow using the expansion member that is electrically controlled by the controller.
Method for pulsed injection of gaseous fuel by means of at least one injector in at least one outlet adapted to deliver at least one jet of gaseous fuel, and positioned in a corresponding peephole in at least one hollow partition of a chamber type ring furnace said to have "advancing fires" and intended for baking carbonaceous blocks, characterized in that the average speed of said gaseous fuel at said at least one outlet of said at least one injector is given a value of between 5 m/s and 80 m/s on the axis of said at least one jet.
A monolithic, wideband, millimeter-wave radome, comprising: a solid layer (11,13) formed of a single material; and a lattice layer formed of the single material and disposed on an exterior surface of the solid layer (11,13), characterised in that the lattice layer comprises: first beams that are arranged in a non-abutting side-by-side pattern to extend in a first direction and second beams that are arranged in a non-abutting side-by-side pattern to extend in a second direction, and the first beams and second beams cooperatively form solid regions and spaces between the adjacent first beams and proximal adjacent second beams define void regions formed from selective omission of the single material during lattice layer buildup. a solid layer (11,13) formed of a single material; and a lattice layer formed of the single material and disposed on an exterior surface of the solid layer (11,13), characterised in that the lattice layer comprises: first beams that are arranged in a non-abutting side-by-side pattern to extend in a first direction and second beams that are arranged in a non-abutting side-by-side pattern to extend in a second direction, and the first beams and second beams cooperatively form solid regions and spaces between the adjacent first beams and proximal adjacent second beams define void regions formed from selective omission of the single material during lattice layer buildup. first beams that are arranged in a non-abutting side-by-side pattern to extend in a first direction and second beams that are arranged in a non-abutting side-by-side pattern to extend in a second direction, and the first beams and second beams cooperatively form solid regions and spaces between the adjacent first beams and proximal adjacent second beams define void regions formed from selective omission of the single material during lattice layer buildup.
A method of production of a grain-oriented electrical steel sheet excellent in magnetic properties comprising the steps of focusing a laser beam in an elliptical spot having a long axis and a short axis on grain-oriented electrical steel, sheet moving at a predetermined speed and scanning, irradiating the grain-oriented electrical steel sheet in the width direction by the focused elliptical spot having a laser beam irradiated width equal to the short axis length at all times to improve the magnetic properties, and providing a slant angle θs between a scan direction of said elliptical spot and a long axis direction of the elliptical spot, characterized by further comprising the steps of finding said slant angle θs from a production line speed Vl of the grain-oriented electrical steel sheet and a scan speed Vc of the elliptical spot of the laser beam on the grain-oriented electrical steel sheet based on the following equation and adjusting the long axis direction of said elliptical spot based on the found θs value: so that the laser irradiated width on the grain-oriented electrical steel sheet becomes smaller. θs = tan − 1 Vl / Vc
A secure device implemented by a secure tamper-resistant platform including a tamper-resistant hardware platform and a virtual primary platform (12, 1P) operating with a low level operating system performing an abstraction of resources of the hardware platform, and a secondary platform with a high level operating system providing a further abstraction of resources to applications in which respective internal hosts are embedded, said secure device including an internal host domain including said internal hosts, said secure device including a plurality of physical and/or logical input/output interfaces through which externals hosts (311, 341) can access said internal hosts, said virtual primary platform (12, 1P) being configured to set interactions between said externals hosts (311, 341) and said internal hosts, wherein said internal host domain includes a further set of virtual hosts each configured to operate as a proxy between an input/output interface and an application, each input/output interface being configured to address only one among the virtual hosts. said secure device including a plurality of physical and/or logical input/output interfaces through which externals hosts (311, 341) can access said internal hosts, said virtual primary platform (12, 1P) being configured to set interactions between said externals hosts (311, 341) and said internal hosts, wherein said internal host domain includes a further set of virtual hosts each configured to operate as a proxy between an input/output interface and an application, each input/output interface being configured to address only one among the virtual hosts.
A solid electrolyte of formula: Na 3+x M x Zr 2-x Si 2 PO 12 wherein M is a metal ion selected from the group consisting of Al 3+, Fe 3+, Sb 3+, Yb 3+, Dy 3+, and Er 3+, and x is between 0.01 and 2 when M is Sb 3+, Dy 3+, or Er 3+ and x is between 1.1 and 2 when M is Al 3+, Fe 3+, or Yb 3+. M is a metal ion selected from the group consisting of Al 3+, Fe 3+, Sb 3+, Yb 3+, Dy 3+, and Er 3+, and x is between 0.01 and 2 when M is Sb 3+, Dy 3+, or Er 3+ and x is between 1.1 and 2 when M is Al 3+, Fe 3+, or Yb 3+.
An apparatus for modifying colours of a focal stack of a scene according to a colour palette comprising a processor configured to: - applying the colour palette to an all-in-focus image generated from said focal stack, - generating a recoloured focal stack from the obtained recoloured all-in-focus image of the scene by replacing pixels of the all-in-focus image in a layer of said recoloured focal stack in which said pixel is in focus, - estimating (611,612) the colour of a not-in-focus pixel in a layer of said recoloured focal stack based on a weighted average of colours associated to said not-in-focus pixel in at least one layer of said recoloured focal stack. - applying the colour palette to an all-in-focus image generated from said focal stack, - generating a recoloured focal stack from the obtained recoloured all-in-focus image of the scene by replacing pixels of the all-in-focus image in a layer of said recoloured focal stack in which said pixel is in focus, - estimating (611,612) the colour of a not-in-focus pixel in a layer of said recoloured focal stack based on a weighted average of colours associated to said not-in-focus pixel in at least one layer of said recoloured focal stack.
A method for amplifying and detecting a target nucleic acid that may be present in a sample, said target nucleic acid comprising subgroups with sequence variations and/or individual mutations, said method comprising the steps of: a) contacting nucleic acids from said sample with amplification reagents comprising a polymerase, nucleotide monomers, primers for generating an amplicon and at least two detectable probes specific for different sequence portions of said amplicon, wherein the detectable probes specific for different sequence portions of said amplicon carry the same label; b) incubating said nucleic acids with said amplification reagents for a period of time and under conditions sufficient for an amplification reaction to occur; c) detecting the presence or absence of said amplicon by detecting hybridization of said detectable probes to said different sequence portions of said amplicon wherein the signals originating from the individual probes are not distinguished; and further comprising the step of determining the quantity of the target nucleic acid comprising subgroups with sequence variations and/or individual mutations after and/or during step c), wherein the presence of said amplicon is indicative of the presence of said target nucleic acid comprising subgroups with sequence variations and/or individual mutations in said sample. a) contacting nucleic acids from said sample with amplification reagents comprising a polymerase, nucleotide monomers, primers for generating an amplicon and at least two detectable probes specific for different sequence portions of said amplicon, wherein the detectable probes specific for different sequence portions of said amplicon carry the same label; b) incubating said nucleic acids with said amplification reagents for a period of time and under conditions sufficient for an amplification reaction to occur; c) detecting the presence or absence of said amplicon by detecting hybridization of said detectable probes to said different sequence portions of said amplicon wherein the signals originating from the individual probes are not distinguished;
An axial flow fan comprising: a plurality of blades, each of the blades including a leading edge formed in front in a direction of rotation of the axial flow fan, an inner circumferential edge formed at an inner circumference of the blades, and an outer circumferential edge formed at an outer circumference of the blades, the outer circumferential edge being located at downstream in a flow direction of a fluid, forced to move by the axial flow fan, than the inner circumferential edge, the blade being reflexed toward upstream of the fluid at a portion adjacent to the outer circumferential edge, and having a local angle-decrease section having a blade inlet angle at the leading edge decreasing from neighborhood, the local angle-decrease section being formed at a side of the leading edge and being located closer to the outer circumferential edge than to the inner circumferential edge, the local angle-decrease section having, at a leading edge of the local angle-decrease section, a minimum point at which the blade inlet angle is a minimum, the local angle-decrease section having an intermediate point located at an intermediate position between both ends of the local angle-decrease section, the minimum point being formed closer to a rotation axis than the intermediate point. a plurality of blades, each of the blades including a leading edge formed in front in a direction of rotation of the axial flow fan, an inner circumferential edge formed at an inner circumference of the blades, and an outer circumferential edge formed at an outer circumference of the blades, the outer circumferential edge being located at downstream in a flow direction of a fluid, forced to move by the axial flow fan, than the inner circumferential edge, a leading edge formed in front in a direction of rotation of the axial flow fan, an inner circumferential edge formed at an inner circumference of the blades, and an outer circumferential edge formed at an outer circumference of the blades, the outer circumferential edge being located at downstream in a flow direction of a fluid, forced to move by the axial flow fan, than the inner circumferential edge, the blade being reflexed toward upstream of the fluid at a portion adjacent to the outer circumferential edge, and having a local angle-decrease section having a blade inlet angle at the leading edge decreasing from neighborhood, the local angle-decrease section being formed at a side of the leading edge and being located closer to the outer circumferential edge than to the inner circumferential edge, the local angle-decrease section having, at a leading edge of the local angle-decrease section, a minimum point at which the blade inlet angle is a minimum, the local angle-decrease section having an intermediate point located at an intermediate position between both ends of the local angle-decrease section, the minimum point being formed closer to a rotation axis than the intermediate point.
A method for secure communication, the method comprising: receiving a network packet comprising an encrypted network address comprising an unencrypted network address encrypted by a first GPS time and a first pseudo random number; decrypting the encrypted network address using the first GPS time and the first pseudo random number to provide the unencrypted network address; transmitting the network packet based on the unencrypted network address; and calculating a next stage network address for the network packet through a closed commercial network; and encrypting the next stage network address using a second GPS time and a second pseudo random number to provide the encrypted network address. receiving a network packet comprising an encrypted network address comprising an unencrypted network address encrypted by a first GPS time and a first pseudo random number; decrypting the encrypted network address using the first GPS time and the first pseudo random number to provide the unencrypted network address; transmitting the network packet based on the unencrypted network address; and calculating a next stage network address for the network packet through a closed commercial network; and encrypting the next stage network address using a second GPS time and a second pseudo random number to provide the encrypted network address.
Powder pressing device, in particular metal powder and/or ceramic powder pressing device, comprising at least one die and at least one first punch which, in a pressing position, is arranged such that it can plunge from a first, upper side into a powder-filled cavity of the die, characterized in that the powder pressing device has at least one powder sealing device which is formed of at least two parts and which, in the pressing position, can be arranged at least partially, preferably entirely, around an upper edge of the cavity.