mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: generating, at a network controller, an interference map based at least on co-channel interference reported in a number of neighbor lists, wherein each of the neighbor lists is associated with a respective one of a plurality of compliant wireless access points included in one of a local area network, LAN, and a portion of a virtual LAN, VLAN, and wherein the compliant wireless access points operate in accordance with instructions from the network controller, wherein the interference map includes interference weights based on co-channel overlap, and wherein an interference weight associated with a first wireless access point on a particular channel is a function of a normalized ratio characterizing how much channel usage of a second wireless access point overlaps with channel usage of the first wireless access point; and determining a respective transmit power adjustment for each of the plurality of compliant wireless access points included in the interference map based on at least one interference criterion characterizing the interference on each of the plurality of compliant wireless access points included in the interference map and respective neighboring wireless access points. generating, at a network controller, an interference map based at least on co-channel interference reported in a number of neighbor lists, wherein each of the neighbor lists is associated with a respective one of a plurality of compliant wireless access points included in one of a local area network, LAN, and a portion of a virtual LAN, VLAN, and wherein the compliant wireless access points operate in accordance with instructions from the network controller, wherein the interference map includes interference weights based on co-channel overlap, and wherein an interference weight associated with a first wireless access point on a particular channel is a function of a normalized ratio characterizing how much channel usage of a second wireless access point overlaps with channel usage of the first wireless access point; and determining a respective transmit power adjustment for each of the plurality of compliant wireless access points included in the interference map based on at least one interference criterion characterizing the interference on each of the plurality of compliant wireless access points included in the interference map and respective neighboring wireless access points.
Device for bending at least one glass pane, at least comprising - a gravity bending mould with a supporting surface, which is suitable for arranging at least one glass pane thereon, - an upper shaping tool arranged opposite the supporting surface, which upper shaping tool is suitable for producing an overpressure on the surface of the at least one glass pane arranged on the supporting surface, which surface faces away from the supporting surface, wherein the shaping tool has a cover that forms a hollow space open in the direction of the gravity bending mould and is equipped with a sealing lip arranged on an edge section of the cover for making contact with the surface of the at least one glass pane, which surface faces away from the supporting surface, and wherein the shaping tool is equipped with means for introducing a gas into the hollow space in order to produce the overpressure. - a gravity bending mould with a supporting surface, which is suitable for arranging at least one glass pane thereon, - an upper shaping tool arranged opposite the supporting surface, which upper shaping tool is suitable for producing an overpressure on the surface of the at least one glass pane arranged on the supporting surface, which surface faces away from the supporting surface,
A heat exchanger including multiple hollow fiber membranes that each have a hollow portion through which a heat medium can pass, and exhibiting a shape of a cylinder body as a whole shape in which the multiple hollow fiber membranes are integrated, wherein each of the hollow fiber membranes is tilted with respect to a central axis of the cylinder body and is wound around the central axis of the cylinder body, wherein a tilt angle θ with respect to the central axis of the cylinder body of each of the hollow fiber membranes ranges from 22° to smaller than 67°, and wherein a constituent material of each of the hollow fiber membranes has a Young's modulus E of 2.6 GPa or smaller. wherein each of the hollow fiber membranes is tilted with respect to a central axis of the cylinder body and is wound around the central axis of the cylinder body, wherein a tilt angle θ with respect to the central axis of the cylinder body of each of the hollow fiber membranes ranges from 22° to smaller than 67°, and wherein a constituent material of each of the hollow fiber membranes has a Young's modulus E of 2.6 GPa or smaller.
A device for reinforcing a monopole comprising: a plurality of reinforcing bars disposed to be secured to a surface of the monopole, each of said reinforcing bars having a surface, wherein the plurality of reinforcing bars comprises a first reinforcing bar and a second reinforcing bar and the first reinforcing bar includes at least one load transfer connector disposed along the surface of the first reinforcing bar, wherein the at least one load transfer connector is rectangular, square or triangular; and a link plate having at least one opening shaped to mate with said at least one load transfer connector, wherein the link plate is attached to the second reinforcing bar, such that the first and second reinforcing bars may be spliced by overlaying said link plate over the first reinforcing bar and mating said at least one opening in said link plate with said at least one load transfer connector. a plurality of reinforcing bars disposed to be secured to a surface of the monopole, each of said reinforcing bars having a surface, wherein the plurality of reinforcing bars comprises a first reinforcing bar and a second reinforcing bar and the first reinforcing bar includes at least one load transfer connector disposed along the surface of the first reinforcing bar, wherein the at least one load transfer connector is rectangular, square or triangular; and a link plate having at least one opening shaped to mate with said at least one load transfer connector, wherein the link plate is attached to the second reinforcing bar, such that the first and second reinforcing bars may be spliced by overlaying said link plate over the first reinforcing bar and mating said at least one opening in said link plate with said at least one load transfer connector.
A method of manufacturing a rotor system comprising a casing and a rotor, the method comprising: designing the casing with stall enhancement features; fabricating the rotor with a number of blades, each blade having a tip, the rotor configured to rotate in a flow stream; constructing the casing to be configured to fit over the rotor so that tips of the blades are configured to pass proximate the casing when the rotor rotates about an axis; forming, by additive manufacturing, the casing with a series of grooves in the casing, wherein the grooves extend into the casing radially outward relative to the axis and are oriented to extend longitudinally at an acute angle relative to the axis to provide stall enhancement; optimizing, by analysis, aerodynamic performance of the grooves to avoid stall; and assembling the rotor in the casing with the grooves extending over at least a portion of the blade tips so that the blade tips are configured to pass across the grooves when the rotor rotates, wherein the method comprises: forming a section of the casing that contains the grooves as a number of separate segments; fitting the segments to the casing to encircle the rotor; and forming, integrally during the additive manufacturing, a manifold in the section, wherein the manifold includes the grooves and an annular channel connecting with each of the grooves. designing the casing with stall enhancement features; fabricating the rotor with a number of blades, each blade having a tip, the rotor configured to rotate in a flow stream; constructing the casing to be configured to fit over the rotor so that tips of the blades are configured to pass proximate the casing when the rotor rotates about an axis; forming, by additive manufacturing, the casing with a series of grooves in the casing, wherein the grooves extend into the casing radially outward relative to the axis and are oriented to extend longitudinally at an acute angle relative to the axis to provide stall enhancement; optimizing, by analysis, aerodynamic performance of the grooves to avoid stall; and assembling the rotor in the casing with the grooves extending over at least a portion of the blade tips so that the blade tips are configured to pass across the grooves when the rotor rotates, wherein the method comprises: forming a section of the casing that contains the grooves as a number of separate segments; fitting the segments to the casing to encircle the rotor; and forming, integrally during the additive manufacturing, a manifold in the section, wherein the manifold includes the grooves and an annular channel connecting with each of the grooves. forming a section of the casing that contains the grooves as a number of separate segments; fitting the segments to the casing to encircle the rotor; and forming, integrally during the additive manufacturing, a manifold in the section, wherein the manifold includes the grooves and an annular channel connecting with each of the grooves.
A method for oxygen delignification of a medium consistency cellulose pulp suspension having a kappa number exceeding 18, said pulp suspension passing through a first and a second oxygen delignification phases located between 2 wash positions (W 1, W 2) for the pulp where said phases are separated by heating the pulp at least 5°C using steam after the first phase and ahead of the second phase, and both phases includes charge of oxygen to each of said first and second phase; characterized in that both the first and second phase is pressurized to an initial pressure exceeding 5 bar, and after the first phase is the pulp depressurized to an excess pressure below 0.5 bar, preferably depressurized to atmospheric pressure, i.e. within a pressure interval between 0 to 0.5 bar and residual gases released from the pulp during depressurization are vented away before the start of the second phase, and wherein the charge of oxygen to the second phase is charged to the pulp after the residual gases has been vented away, and wherein the charge of oxygen to the second phase is distributed into the pulp using a mixer, thus establishing increased partial pressure of the oxygen in the pulp suspension. said pulp suspension passing through a first and a second oxygen delignification phases located between 2 wash positions (W 1, W 2) for the pulp where said phases are separated by heating the pulp at least 5°C using steam after the first phase and ahead of the second phase, and both phases includes charge of oxygen to each of said first and second phase; characterized in that both the first and second phase is pressurized to an initial pressure exceeding 5 bar, and after the first phase is the pulp depressurized to an excess pressure below 0.5 bar, preferably depressurized to atmospheric pressure, i.e. within a pressure interval between 0 to 0.5 bar and residual gases released from the pulp during depressurization are vented away before the start of the second phase, and wherein the charge of oxygen to the second phase is charged to the pulp after the residual gases has been vented away, and wherein the charge of oxygen to the second phase is distributed into the pulp using a mixer, thus establishing increased partial pressure of the oxygen in the pulp suspension.
A card feeder for a processing machine, the card feeder comprising: - a frame; - a reservoir at the base of which a tray is arranged, and above the tray, a support intended to receive a stack of cards; - a separation system including a separation roll arranged at a level of the tray and a drive system arranged so as to move the separation roll in rotation; - a ballast movably mounted on the frame between a support position in which the ballast bears on a top of the stack of cards and a stowed position in which the ballast is on one side of the stack of cards; - a door movably mounted on the frame between an open position enabling access to the reservoir and a closed position preventing access to the reservoir; - a transmission system arranged so as to move the ballast from the support position into the stowed position when the door passes from the closed position into the open position; and - a return system arranged so as to bring the ballast back into the support position when it is in the stowed position, characterized in that the ballast is mounted movable in rotation about a tilting axis parallel to an axis of the separation roll, wherein the tilting axis is arranged so that a center of gravity of the ballast is vertically above the tilting axis and horizontally between the tilting axis and the reservoir when the ballast is in the stowed position, and wherein the return system is gravity. - a frame; - a reservoir at the base of which a tray is arranged, and above the tray, a support intended to receive a stack of cards; - a separation system including a separation roll arranged at a level of the tray and a drive system arranged so as to move the separation roll in rotation; - a ballast movably mounted on the frame between a support position in which the ballast bears on a top of the stack of cards and a stowed position in which the ballast is on one side of the stack of cards; - a door movably mounted on the frame between an open position enabling access to the reservoir and a closed position preventing access to the reservoir; - a transmission system arranged so as to move the ballast from the support position into the stowed position when the door passes from the closed position into the open position; and - a return system arranged so as to bring the ballast back into the support position when it is in the stowed position, characterized in that the ballast is mounted movable in rotation about a tilting axis parallel to an axis of the separation roll, wherein the tilting axis is arranged so that a center of gravity of the ballast is vertically above the tilting axis and horizontally between the tilting axis and the reservoir when the ballast is in the stowed position, and wherein the return system is gravity.
Superstructure, comprising: - a through-hole extending along a longitudinal axis of the superstructure; and - an interface arranged at a front end of the superstructure for fastening the superstructure to a dental implant; wherein the interface comprises a concave curvature extending around the longitudinal axis over an angular range of at least 90°, and a support surface arranged radially outwardly relative to the concave curvature, wherein the support surface has at least one annular portion that is oriented transversely to the longitudinal axis, and characterized in that, in a longitudinal section along the longitudinal axis of the superstructure, a tangent to a radially outer edge of the concave curvature that faces the annular portion of the support surface is oriented parallel to the annular portion of the support surface. - a through-hole extending along a longitudinal axis of the superstructure; and - an interface arranged at a front end of the superstructure for fastening the superstructure to a dental implant;
MEMS transducer for interacting with a volume flow of a fluid, comprising: a substrate which comprises a layer stack having a plurality of layers (32a-b, 34a-b, 36) which form a plurality of substrate planes, and which comprises a cavity within the layer stack; an electromechanical transducer (18; 18a-f) connected to the substrate within the cavity and comprising an element (22; 22a-f; 30; 40; 150; 160) which is deformable within at least one plane of movement of the plurality of substrate planes, deformation of the deformable element (22; 22a-f; 30; 40; 150; 160) within the plane of movement and the volume flow of the fluid being causally correlated; characterized in that an electronic circuit (17; 17a-b) arranged within at least one layer (32a-b) of the layer stack, the electronic circuit (17; 17a-b) being connected to the electromechanical transducer (18; 18a-f) and being configured to provide a conversion between a deformation of the deformable element (22; 22a-f; 30; 40; 150; 160) and an electric signal; wherein the electronic circuit (17; 17a-b) is configured to convert an electric control signal (In 1) to a deflection of the deformable element (22; 22a-f; 30; 40; 150; 160), wherein the circuit includes a switching amplifier configured to provide a digital pulse-width modulated control signal for the deformable element (22; 22a-f; 30; 40; 150; 160). a substrate which comprises a layer stack having a plurality of layers (32a-b, 34a-b, 36) which form a plurality of substrate planes, and which comprises a cavity within the layer stack; an electromechanical transducer (18; 18a-f) connected to the substrate within the cavity and comprising an element (22; 22a-f; 30; 40; 150; 160) which is deformable within at least one plane of movement of the plurality of substrate planes, deformation of the deformable element (22; 22a-f; 30; 40; 150; 160) within the plane of movement and the volume flow of the fluid being causally correlated; characterized in that an electronic circuit (17; 17a-b) arranged within at least one layer (32a-b) of the layer stack, the electronic circuit (17; 17a-b) being connected to the electromechanical transducer (18; 18a-f) and being configured to provide a conversion between a deformation of the deformable element (22; 22a-f; 30; 40; 150; 160) and an electric signal; wherein the electronic circuit (17; 17a-b) is configured to convert an electric control signal (In 1) to a deflection of the deformable element (22; 22a-f; 30; 40; 150; 160), wherein the circuit includes a switching amplifier configured to provide a digital pulse-width modulated control signal for the deformable element (22; 22a-f; 30; 40; 150; 160).
Method for operating a hump-shunting system, wherein - a sensor device is used to detect at least one measured value which relates to at least one kinematic measured variable of a shunted vehicle in the form of a carriage or a set of carriages (41, 42), and - by taking into account the at least one detected measured variable and at least one reference value, a plausibility check of a separation behaviour of the shunted vehicle from at least one further vehicle is performed, characterised in that if, on the basis of the at least one detected measured value of the kinematic measured variable or on the basis of at least one value determined from the at least one detected measured value and on the basis of the at least one reference value, it emerges that the at least one detected measured value or the at least one value determined herefrom is in an expected value range, it is inferred that the separation behaviour of the shunted vehicle corresponds to the expectation. - a sensor device is used to detect at least one measured value which relates to at least one kinematic measured variable of a shunted vehicle in the form of a carriage or a set of carriages (41, 42), and - by taking into account the at least one detected measured variable and at least one reference value, a plausibility check of a separation behaviour of the shunted vehicle from at least one further vehicle is performed,
A method for determining a permeability of a rock sample that includes two or more pore systems, comprising: measuring (204, 402) a first set of Nuclear Magnetic Resonance relaxation times for the rock sample saturated with regular water, i.e.,HzO; injecting (206, 404) heavy water, i.e, D 2 O, into the rock sample; measuring (208, 406) a second set of NMR relaxation times for the rock sample after injecting D 2 O; calculating (210, 408) a pore connectivity factor based on the first set of NMR relaxation times and the second set of NMR relaxation times, wherein the pore connectivity factor is calculated based on a ratio between a first volume displacement of a first pore system and a second volume displacement of a second pore system; and calculating (212, 410) the permeability of the rock sample based on the pore connectivity factor. measuring (204, 402) a first set of Nuclear Magnetic Resonance relaxation times for the rock sample saturated with regular water, i.e.,HzO; injecting (206, 404) heavy water, i.e, D 2 O, into the rock sample; measuring (208, 406) a second set of NMR relaxation times for the rock sample after injecting D 2 O; calculating (210, 408) a pore connectivity factor based on the first set of NMR relaxation times and the second set of NMR relaxation times, wherein the pore connectivity factor is calculated based on a ratio between a first volume displacement of a first pore system and a second volume displacement of a second pore system; and calculating (212, 410) the permeability of the rock sample based on the pore connectivity factor.
A method for manufacturing a bacterium-produced cellulose carbon by carbonizing cellulose produced by bacterium by thermally treating, the method comprising: a cellulose forming step of forming bacterium-produced cellulose that cellulose nanofibers are dispersed using an acetic acid bacterium; an impregnating step of impregnating the bacterium-produced cellulose with a supercritical fluid, the fluid comprising one, two or more selected from the group consisting of carbon dioxide, water, methane, ethane, propane, ethylene, propylene, methanol, ethanol, acetone, and fluorine type liquid; a drying step of vaporizing the supercritical fluid from the bacterium-produced cellulose containing the supercritical fluid and obtaining a dry product; and a carbonizing step of heating and carbonizing the dry product in an atmosphere not causing combustion of the dry product at 500°C to 2000°C, wherein the atmosphere is an inert gas atmosphere, a carbon dioxide gas atmosphere or a carbon monoxide gas atmosphere. a cellulose forming step of forming bacterium-produced cellulose that cellulose nanofibers are dispersed using an acetic acid bacterium; an impregnating step of impregnating the bacterium-produced cellulose with a supercritical fluid, the fluid comprising one, two or more selected from the group consisting of carbon dioxide, water, methane, ethane, propane, ethylene, propylene, methanol, ethanol, acetone, and fluorine type liquid; a drying step of vaporizing the supercritical fluid from the bacterium-produced cellulose containing the supercritical fluid and obtaining a dry product; and a carbonizing step of heating and carbonizing the dry product in an atmosphere not causing combustion of the dry product at 500°C to 2000°C, wherein the atmosphere is an inert gas atmosphere, a carbon dioxide gas atmosphere or a carbon monoxide gas atmosphere.
Charged multilayer media that comprises: a) a fibrous filtration layer that contains a plurality of intertwined nanofibers that have a length of 12 to 300 mm, wherein the fibrous filtration layer comprises a basis weight of 0.5 to 300 gsm, and b) a porous roll-to-roll processable support layer, wherein the support layer comprises a basis weight of 5 to 300 gsm and wherein the multilayer media is corona charged or plasma fluorinated followed by hydrocharging. a) a fibrous filtration layer that contains a plurality of intertwined nanofibers that have a length of 12 to 300 mm, wherein the fibrous filtration layer comprises a basis weight of 0.5 to 300 gsm, and b) a porous roll-to-roll processable support layer, wherein the support layer comprises a basis weight of 5 to 300 gsm and