mhurhangee/ep-ind-claims huggingface dataset:
A method for use by an apparatus which is able to communicate based on at least two communication methods, wherein each communication method is configured to communicate with access networks by using at least one subflow, the method comprising: acquiring information from at least one of the communication methods for at least one of the subflows, wherein the information comprises measurement reporting event triggers configured previously by the access networks and triggered measurement reporting event(s), wherein at least one of the communication methods is configured with offsets according to its measurement reporting event triggers; providing the information to a subflow control entity at a higher layer of the apparatus, the higher layer comprising at least one layer used for controlling the at least one subflow, of a communication protocol used in the apparatus for communicating with the access networks; based on the information, evaluating by the subflow control entity whether a change will occur in the at least one of the subflows; in case the change is evaluated to occur in the at least one of the subflows, evaluating by the subflow control entity when the change will occur; evaluating by the subflow control entity whether the change evaluated to occur impacts a specific requirement of delivering packets by using the at least one of the subflows; and in case the change is evaluated to impact the specific requirement, changing, by the subflow control entity, usage of the subflows for delivering packets. acquiring information from at least one of the communication methods for at least one of the subflows, wherein the information comprises measurement reporting event triggers configured previously by the access networks and triggered measurement reporting event(s), wherein at least one of the communication methods is configured with offsets according to its measurement reporting event triggers; providing the information to a subflow control entity at a higher layer of the apparatus, the higher layer comprising at least one layer used for controlling the at least one subflow, of a communication protocol used in the apparatus for communicating with the access networks; based on the information, evaluating by the subflow control entity whether a change will occur in the at least one of the subflows; in case the change is evaluated to occur in the at least one of the subflows, evaluating by the subflow control entity when the change will occur; evaluating by the subflow control entity whether the change evaluated to occur impacts a specific requirement of delivering packets by using the at least one of the subflows; and in case the change is evaluated to impact the specific requirement, changing, by the subflow control entity, usage of the subflows for delivering packets.
Operating system (10, 60, 110, 160, 210, 260) for a plurality of devices of a vehicle, which operating system has a display apparatus (20, 70, 120, 170, 220, 270) and in which an actuator unit (30, 80, 130, 180, 230) is provided, wherein the display apparatus (20, 70, 120, 170, 220, 270) has at least two planar display regions (21, 23, 25, 71, 73, 121, 123, 171, 173, 175, 221, 271, 273, 275) arranged one behind the other in a viewing direction of an operator and which extend transversely to the viewing direction, and the actuator unit (30, 80, 130, 180, 230) is configured to navigate between the display regions (21, 23, 25, 71, 73, 121, 123, 171, 173, 175, 221, 271, 273, 275) and within each of the display regions (21, 23, 25, 71, 73, 121, 123, 171, 173, 175, 221, 271, 273, 275).
An Enterococcus faecalis strain devoid of prophages, characterized in that it is the Enterococcus faecalis 1854wph strain deposited in the PCM as B/00075.
A method comprising the steps of: receiving, by an interconnection platform for a cloud exchange, an indication to perform at least one of a hot swap service, a hot scaling service, or a disaster recovery service of a first container (125, 126, 129) of a first host computing device of a first private network (118, 122) of a plurality of private networks (118, 122) to a second container (125, 126, 129) of a second host computing device of a second private network (118, 122) of the plurality of private networks (118, 122), wherein the second private network (118, 122) is different from the first private network (118, 122), wherein the cloud exchange is configured with one or more virtual circuits to interconnect private networks of the plurality of private networks (118, 122), and wherein the interconnection platform is configured for execution by processing circuitry; and directing, by the interconnection platform in response to receiving the indication, application traffic from the first container (125, 126, 129) of the first private network (118, 122) to the second container (125, 126, 129) of the second private network (118, 122). receiving, by an interconnection platform for a cloud exchange, an indication to perform at least one of a hot swap service, a hot scaling service, or a disaster recovery service of a first container (125, 126, 129) of a first host computing device of a first private network (118, 122) of a plurality of private networks (118, 122) to a second container (125, 126, 129) of a second host computing device of a second private network (118, 122) of the plurality of private networks (118, 122), wherein the second private network (118, 122) is different from the first private network (118, 122), wherein the cloud exchange is configured with one or more virtual circuits to interconnect private networks of the plurality of private networks (118, 122), and wherein the interconnection platform is configured for execution by processing circuitry; and directing, by the interconnection platform in response to receiving the indication, application traffic from the first container (125, 126, 129) of the first private network (118, 122) to the second container (125, 126, 129) of the second private network (118, 122).
Lock of a door, tailgate or a tank cover of a motor vehicle, having a shell forming a handle recess, wherein a cover flap which can be pivoted by hand is articulated on the outer side of the shell, said cover flap being connected to the mechanism of the lock in order to open the door, the tailgate or the tank cover, characterized - in that the shell and/or the outer edge of the shell has, as reinforcement, a composite material composed of thermoplastic polypropylene or polyester with at least one in particular textile reinforcing layer comprising strips, fibres or threads composed of polypropylene, polyester, metal, carbon or an aramid, and - in that the material of the shell and/or of the outer edge of the shell is a self-reinforced thermoplastic composite material which has layers composed of thermoplastic polypropylene, polyester or aramid that lie above one another, and - in that layers composed of homogeneous polypropylene film, copolymer-containing polyolefin film, homogeneous polyester film or copolymer-containing polyester film alternate with reinforcing layers, in the case of which either the polypropylene or the polyester is in the form of strips, fibres or threads, or in the case of which one, two or more reinforcing layers comprise polypropylene or polyester strips and/or polypropylene or polyester fibres and/or polypropylene or polyester threads. - in that the shell and/or the outer edge of the shell has, as reinforcement, a composite material composed of thermoplastic polypropylene or polyester with at least one in particular textile reinforcing layer comprising strips, fibres or threads composed of polypropylene, polyester, metal, carbon or an aramid, and - in that the material of the shell and/or of the outer edge of the shell is a self-reinforced thermoplastic composite material which has layers composed of thermoplastic polypropylene, polyester or aramid that lie above one another, and - in that layers composed of homogeneous polypropylene film, copolymer-containing polyolefin film, homogeneous polyester film or copolymer-containing polyester film alternate with reinforcing layers, in the case of which either the polypropylene or the polyester is in the form of strips, fibres or threads, or in the case of which one, two or more reinforcing layers comprise polypropylene or polyester strips and/or polypropylene or polyester fibres and/or polypropylene or polyester threads.
A method comprising: accessing a Device Abstraction Proxy from a Digital Subscriber Line, DSL, service provider via a management interface; receiving, at the management interface of the Device Abstraction Proxy, a request for operational data relating to DSL communication services provided to one or more DSL terminals; a communications interface of the Device Abstraction Proxy obtaining the operational data from one or more DSL Access Multiplexers, DSLAMs, communicably interfaced with the Device Abstraction Proxy, wherein the operational data comprises performance data; and providing access to the operational data via the management interface. accessing a Device Abstraction Proxy from a Digital Subscriber Line, DSL, service provider via a management interface; receiving, at the management interface of the Device Abstraction Proxy, a request for operational data relating to DSL communication services provided to one or more DSL terminals; a communications interface of the Device Abstraction Proxy obtaining the operational data from one or more DSL Access Multiplexers, DSLAMs, communicably interfaced with the Device Abstraction Proxy, wherein the operational data comprises performance data; and providing access to the operational data via the management interface.
A process for producing a reconstituted wheat gluten protein-based flour (WGPF) containing less than or equal to 1200mg of Fermentable Oligosaccharides, Disaccharides, Monosaccharides And Polyols (FODMAPS) per 100g on a dry solids basis, suitable for use in a food product for a wheat intolerant consumer, said process including the steps of: dispersing a source wheat flour in an aqueous solution at a temperature at which starch particles in said source flour are not hydrated or dissolved; recovering the wheat gluten protein from said dispersion: washing said wheat gluten protein whereby the FODMAPS content thereof is depleted sufficiently for use in said WGPF; combining said wheat gluten protein with one or more, insoluble suspended materials and one or more soluble materials which have been recovered either from wheat flour or other non-wheat source and have been depleted of FODMAPS sufficiently for use in said WGPF; wherein said one or more insoluble suspended materials includes a washed low-FODMAPS starch, and wherein said one or more soluble materials includes a low-FODMAPS Wheat Albumin Concentrate containing soluble wheat protein in a range of about 40% to 90% on a N% x 6.25 dry solids basis, or wheat gluten protein modified by proteolytic enzymes and constituted predominantly by gluten-derived peptides containing 30 - 90% soluble wheat protein and peptides. dispersing a source wheat flour in an aqueous solution at a temperature at which starch particles in said source flour are not hydrated or dissolved; recovering the wheat gluten protein from said dispersion: washing said wheat gluten protein whereby the FODMAPS content thereof is depleted sufficiently for use in said WGPF; combining said wheat gluten protein with one or more, insoluble suspended materials and one or more soluble materials which have been recovered either from wheat flour or other non-wheat source and have been depleted of FODMAPS sufficiently for use in said WGPF; wherein said one or more insoluble suspended materials includes a washed low-FODMAPS starch, and wherein said one or more soluble materials includes a low-FODMAPS Wheat Albumin Concentrate containing soluble wheat protein in a range of about 40% to 90% on a N% x 6.25 dry solids basis, or wheat gluten protein modified by proteolytic enzymes and constituted predominantly by gluten-derived peptides containing 30 - 90% soluble wheat protein and peptides.
A cable jack comprising: - a chassis; - a screw mounted on the chassis and extending along a first axis (Oy); - a nut collaborating with the screw; - a first cable coupled to the nut or to the screw and intended to be functionally connected to an element that is to be moved; - a motor (3, 91) designed to drive the rotation of the screw or the nut; - the first cable comprises at least a first portion (6.1) extending substantially parallel to the first axis (Ox), and - the first cable is designed to apply forces that oppose a rotational driving of the nut by the screw or of the screw by the nut so as to constitute anti-rotation means so that a rotation of the screw or of the nut under the action of the motor (3, 91) gives rise to a relative movement of the nut and of the screw Being characterized in that it comprises a second cable that is coupled to the nut or to the screw, the second cable being designed to exert forces opposing a rotational driving of the nut by the screw or of the screw by the nut to constitute anti-rotation means so that a rotation of the screw or of the nut under the action of the motor (3, 91) gives rise to a relative movement of the nut and of the screw, wherein a portion (6.1) of the first cable and a portion (93.1) of the second cable extend one on each side of the first axis (Ox). - a chassis; - a screw mounted on the chassis and extending along a first axis (Oy); - a nut collaborating with the screw; - a first cable coupled to the nut or to the screw and intended to be functionally connected to an element that is to be moved; - a motor (3, 91) designed to drive the rotation of the screw or the nut; - the first cable comprises at least a first portion (6.1) extending substantially parallel to the first axis (Ox), and - the first cable is designed to apply forces that oppose a rotational driving of the nut by the screw or of the screw by the nut so as to constitute anti-rotation means so that a rotation of the screw or of the nut under the action of the motor (3, 91) gives rise to a relative movement of the nut and of the screw Being characterized in that it comprises a second cable that is coupled to the nut or to the screw, the second cable being designed to exert forces opposing a rotational driving of the nut by the screw or of the screw by the nut to constitute anti-rotation means so that a rotation of the screw or of the nut under the action of the motor (3, 91) gives rise to a relative movement of the nut and of the screw,
A method of manufacturing a silicon carbide semiconductor apparatus which forms an impurity region in a surface layer of a silicon carbide substrate, comprising the steps of: implanting an impurity into the surface layer of the silicon carbide substrate; forming a carbon film (7, 7') on the surface of the silicon carbide substrate; preliminarily heating the silicon carbide substrate with the carbon film (7, 7') as a protective film; and thermally activating the silicon carbide substrate with the carbon film (7, 7') as a protective film, wherein the thermal activation is carried out at a heating temperature of 1600 to 2000°C for a heating time of 1 to 5 minutes, characterized in that the preliminary heating is carried out at a heating temperature of 800 to 1200°C for a heating time of 10 to 60 minutes. implanting an impurity into the surface layer of the silicon carbide substrate; forming a carbon film (7, 7') on the surface of the silicon carbide substrate; preliminarily heating the silicon carbide substrate with the carbon film (7, 7') as a protective film; and thermally activating the silicon carbide substrate with the carbon film (7, 7') as a protective film, wherein the thermal activation is carried out at a heating temperature of 1600 to 2000°C for a heating time of 1 to 5 minutes, characterized in that the preliminary heating is carried out at a heating temperature of 800 to 1200°C for a heating time of 10 to 60 minutes.
A filter formed of an antifouling composite material comprising: a substrate formed of a resin; and an inorganic fine particle layer disposed on a surface of the substrate, the inorganic fine particle layer including inorganic fine particles being coated with silane monomer, each having an unsaturated bond, and a binder component comprising a fluorinated compound which enters gaps between the silane monomer-coated inorganic fine particles and combines silane monomer that do not participate in the bonding between the fine particles, wherein the content of the binder component in the inorganic fine particle layer is in the range of 0.1% by mass to 40% by mass to the content of the inorganic fine particles coated with the silane monomer, the unsaturated bonds of the silane monomer disposed on the inorganic fine particles in the inorganic fine particle layer form chemical bonds, thereby forming the inorganic fine particle layer, and the unsaturated bonds of the silane monomer disposed on the inorganic fine particles in the inorganic fine particle layer are bound to the surface of the substrate through the chemical bonds, thereby fixing the inorganic fine particle layer onto the substrate. a substrate formed of a resin; and an inorganic fine particle layer disposed on a surface of the substrate, the inorganic fine particle layer including inorganic fine particles being coated with silane monomer, each having an unsaturated bond, and a binder component comprising a fluorinated compound which enters gaps between the silane monomer-coated inorganic fine particles and combines silane monomer that do not participate in the bonding between the fine particles, wherein the content of the binder component in the inorganic fine particle layer is in the range of 0.1% by mass to 40% by mass to the content of the inorganic fine particles coated with the silane monomer, the unsaturated bonds of the silane monomer disposed on the inorganic fine particles in the inorganic fine particle layer form chemical bonds, thereby forming the inorganic fine particle layer, and the unsaturated bonds of the silane monomer disposed on the inorganic fine particles in the inorganic fine particle layer are bound to the surface of the substrate through the chemical bonds, thereby fixing the inorganic fine particle layer onto the substrate.
A segmented turbine shroud radially encasing a turbine in a gas turbine engine, said shroud comprising: a carrier; and a ceramic matrix composite seal segment carried by said carrier by a plurality of elongated pins, said ceramic matrix composite seal segment comprising an arcuate flange having an inner surface facing the turbine and an opposing outer surface and a plurality of radial members extending radially away from said outer surface, each of said radial members defining an elongated pin-receiving bore at the distal end thereof, a radial dimension of said arcuate flange being a dimension between said inner surface and said opposing outer surface, wherein each of said radial members defines a pin-receiving bore having an axial length greater than the minimum radial dimension of said arcuate flange. a carrier; and a ceramic matrix composite seal segment carried by said carrier by a plurality of elongated pins, said ceramic matrix composite seal segment comprising an arcuate flange having an inner surface facing the turbine and an opposing outer surface and a plurality of radial members extending radially away from said outer surface, each of said radial members defining an elongated pin-receiving bore at the distal end thereof, a radial dimension of said arcuate flange being a dimension between said inner surface and said opposing outer surface, wherein each of said radial members defines a pin-receiving bore having an axial length greater than the minimum radial dimension of said arcuate flange.
A two-dimensional code having a rectangular region delineated from a background by a single border consisting of a plurality of border lines (6a, 6b, 6c, 6d), comprising: code blocks (10 (11, 12)) each composed of a plurality of cells which are aggregated; a first specific pattern configured to specify the positions of the cells; and a second specific pattern (3,4) configured to distinguish the code blocks (10 (11, 12)) from the background of the code, wherein the code blocks (10 (11, 12)), the first specific pattern, and the second specific pattern (3,4) are arranged in the rectangular region, the first specific pattern is located at a designated corner of the rectangular region, the second specific pattern (3, 4) is located along one or more of first border lines (6a, 6b) along which the first specific pattern is located, the first border lines (6a, 6b) being part of the border lines (6a, 6b, 6c, 6d) of the rectangular region, the code blocks (10 (11, 12)) include error-correction code blocks for correcting an error of blocks of codes of data being decoded, characterized in that the error-correction code blocks are located along second border lines (6c, 6d) of the border lines (6a, 6b, 6c, 6d), the second border lines (6c, 6d) being other than the first border lines (6a, 6b) in the border lines (6a, 6b, 6c, 6d), the cells composing the second specific pattern (3, 4) is square in shape, and a specific type of cells designated among the cells composing, at least, any one of the first specific pattern and the code blocks (10 (11, 12)) have a shape other than the square shape. code blocks (10 (11, 12)) each composed of a plurality of cells which are aggregated; a first specific pattern configured to specify the positions of the cells; and a second specific pattern (3,4) configured to distinguish the code blocks (10 (11, 12)) from the background of the code, wherein the code blocks (10 (11, 12)), the first specific pattern, and the second specific pattern (3,4) are arranged in the rectangular region, the first specific pattern is located at a designated corner of the rectangular region, the second specific pattern (3, 4) is located along one or more of first border lines (6a, 6b) along which the first specific pattern is located, the first border lines (6a, 6b) being part of the border lines (6a, 6b, 6c, 6d) of the rectangular region, the code blocks (10 (11, 12)) include error-correction code blocks for correcting an error of blocks of codes of data being decoded, characterized in that the error-correction code blocks are located along second border lines (6c, 6d) of the border lines (6a, 6b, 6c, 6d), the second border lines (6c, 6d) being other than the first border lines (6a, 6b) in the border lines (6a, 6b, 6c, 6d), the cells composing the second specific pattern (3, 4) is square in shape, and a specific type of cells designated among the cells composing, at least, any one of the first specific pattern and the code blocks (10 (11, 12)) have a shape other than the square shape.