mhurhangee/ep-ind-claims huggingface dataset:
A sound-absorbing panel to be attached to and used with a jet engine of an aircraft, the sound-absorbing panel comprising: a core layer including a first surface, a second surface at a side opposite to the first surface, and a plurality of partition walls extending between the first surface and the second surface and partitioning a plurality of cells; a first skin layer laminated on the first surface of the core layer; and a second skin layer laminated on the second surface of the core layer, wherein the first skin layer is exposed to an external space when in use and includes a plurality of through holes connecting an internal space of the cells and the external space to which the first skin layer is exposed, and the core layer includes a plurality of openings connecting the internal space of the cells and the external space of the core layer, characterized in that the core layer is formed from a polyamide resin, the first skin layer is formed from a polyamide resin, the second skin layer is formed from a polyamide resin, among the core layer, the first skin layer, and the second skin layer, at least the first skin layer is formed from a polyamide elastomer resin in which an elastomer is mixed with a polyamide resin. a core layer including a first surface, a second surface at a side opposite to the first surface, and a plurality of partition walls extending between the first surface and the second surface and partitioning a plurality of cells; a first skin layer laminated on the first surface of the core layer; and a second skin layer laminated on the second surface of the core layer, wherein the first skin layer is exposed to an external space when in use and includes a plurality of through holes connecting an internal space of the cells and the external space to which the first skin layer is exposed, and the core layer includes a plurality of openings connecting the internal space of the cells and the external space of the core layer, characterized in that the core layer is formed from a polyamide resin, the first skin layer is formed from a polyamide resin, the second skin layer is formed from a polyamide resin, among the core layer, the first skin layer, and the second skin layer, at least the first skin layer is formed from a polyamide elastomer resin in which an elastomer is mixed with a polyamide resin.
A wire j oint, comprising a wire and a joint; wherein the wire comprises a plurality of strands of core wires and a first wire skin, each strand of the core wires is respectively wrapped by the first wire skin, the first wire skin outside the each strand of the core wires is stripped within a threshold interval, the each strand of the core wires in the threshold interval is subjected to a tin-impregnation treatment, and an insulating wire fastener is provided between the each strand of the core wires in the threshold interval; the joint comprises a connection section and an extraposition section, the insulating wire fastener is wrapped in the extraposition section, and the connection section is connected at one end of the extraposition section and wraps around the outer circumference of the first wire skin of the plurality of strands of core wires; characterized in that a cross-sectional dimension of the extraposition section is larger than a cross-sectional dimension of the connection section, a circumference of the connection section is provided with a thread, and a notch is formed on the thread along a length direction of the connection section; a first breathing channel is provided in the extraposition section, one port of the first breathing channel is in communication with the notch, and the other port is located on a surface of the extraposition section, and a first breathing film is provided in the first breathing channel. wherein the wire comprises a plurality of strands of core wires and a first wire skin, each strand of the core wires is respectively wrapped by the first wire skin, the first wire skin outside the each strand of the core wires is stripped within a threshold interval, the each strand of the core wires in the threshold interval is subjected to a tin-impregnation treatment, and an insulating wire fastener is provided between the each strand of the core wires in the threshold interval; the joint comprises a connection section and an extraposition section, the insulating wire fastener is wrapped in the extraposition section, and the connection section is connected at one end of the extraposition section and wraps around the outer circumference of the first wire skin of the plurality of strands of core wires; characterized in that a cross-sectional dimension of the extraposition section is larger than a cross-sectional dimension of the connection section, a circumference of the connection section is provided with a thread, and a notch is formed on the thread along a length direction of the connection section; a first breathing channel is provided in the extraposition section, one port of the first breathing channel is in communication with the notch, and the other port is located on a surface of the extraposition section, and a first breathing film is provided in the first breathing channel.
A detection system configured to detect water in a fan case, said detection system comprising: a heater configured to apply heat to the fan case, wherein any water within the fan case generates a local transient thermal gradient in response to the applied heat; a monitoring camera configured to be positioned proximate the fan case and configured to acquire a plurality of images of the heated fan case; and a computing device configured to: receive the plurality of images from said monitoring camera; and analyze the plurality of images to detect the water in the fan case; the detection system being characterised in that: said heater comprises a heat lamp configured to heat an inner radial surface of said fan case and further comprises a heating blanket configured to heat an outer radial surface of said fan case. a heater configured to apply heat to the fan case, wherein any water within the fan case generates a local transient thermal gradient in response to the applied heat; a monitoring camera configured to be positioned proximate the fan case and configured to acquire a plurality of images of the heated fan case; and a computing device configured to: receive the plurality of images from said monitoring camera; and analyze the plurality of images to detect the water in the fan case; the detection system being characterised in that: said heater comprises a heat lamp configured to heat an inner radial surface of said fan case and further comprises a heating blanket configured to heat an outer radial surface of said fan case. receive the plurality of images from said monitoring camera; and analyze the plurality of images to detect the water in the fan case; the detection system being characterised in that: said heater comprises a heat lamp configured to heat an inner radial surface of said fan case and further comprises a heating blanket configured to heat an outer radial surface of said fan case.
Filling system for the aseptic filling of liquid products, comprising: - a machine block with a blow molding machine for producing bottles and supplying them as a bottle stream, with at least a first and second transport line (9a, 10a) each comprising a filling machine (5, 6) for filling the bottles, and with a distribution unit for distributing the bottle stream to the transport lines when transport is fully occupied, such that the bottles can be filled continuously at all circulating filling positions (5a, 6a) of the filling machines; - at least one clean room enclosure surrounding the machine block; and - a central product distributor for supplying the filling machines (5, 6) with product to be filled from a common product supply and/or a central closure cap distributor for supplying closure caps from a common supply container to closure machines (29, 30) assigned to the filling machines, wherein at least one of the filling machines is designed as a tabletop filler with a central star column. - a machine block with a blow molding machine for producing bottles and supplying them as a bottle stream, with at least a first and second transport line (9a, 10a) each comprising a filling machine (5, 6) for filling the bottles, and with a distribution unit for distributing the bottle stream to the transport lines when transport is fully occupied, such that the bottles can be filled continuously at all circulating filling positions (5a, 6a) of the filling machines; - at least one clean room enclosure surrounding the machine block; and - a central product distributor for supplying the filling machines (5, 6) with product to be filled from a common product supply and/or a central closure cap distributor for supplying closure caps from a common supply container to closure machines (29, 30) assigned to the filling machines, wherein at least one of the filling machines is designed as a tabletop filler with a central star column.
A method performed by a cloud management node for enabling usage of a virtual machine in a distributed cloud of resources for processing and storing of data, the method comprising: - receiving (2:1, 300) a VM image from a client, the VM image represented as one generic data block comprising a set of files of an operating system for running the virtual machine, - distributing (2:2a-d, 302) the generic data block of the VM image to a plurality of local data centers forming the distributed cloud by means of local image service agents associated with the respective local data centers, - receiving local identifications of the VM image from the local data centers, - creating (2:3, 306) a mapping between the received local identifications and a global identification of the VM image, - returning (2:4, 308) the global identification to the client, thereby enabling the client to change the VM image in the local data centers by adding at least one adaptation block and referring to the global identification for the VM image comprising the generic data block already installed in the communication with the cloud management node wherein the cloud management node receives the global identification from the client, checks the mapping between the received global identification and the local identifications of the VM image to determine the local identifications of the VM image valid in each of the plurality of local data centers, and sends a message to the local image service agents associated with the respective local data centers to perform the update of the VM image. - receiving (2:1, 300) a VM image from a client, the VM image represented as one generic data block comprising a set of files of an operating system for running the virtual machine, - distributing (2:2a-d, 302) the generic data block of the VM image to a plurality of local data centers forming the distributed cloud by means of local image service agents associated with the respective local data centers, - receiving local identifications of the VM image from the local data centers, - creating (2:3, 306) a mapping between the received local identifications and a global identification of the VM image, - returning (2:4, 308) the global identification to the client, thereby enabling the client to change the VM image in the local data centers by adding at least one adaptation block and referring to the global identification for the VM image comprising the generic data block already installed in the communication with the cloud management node wherein the cloud management node receives the global identification from the client, checks the mapping between the received global identification and the local identifications of the VM image to determine the local identifications of the VM image valid in each of the plurality of local data centers, and sends a message to the local image service agents associated with the respective local data centers to perform the update of the VM image.
A solution for forming a solid electrolyte, the solution comprising: • a plurality of silicon oxide particles dissolved in a liquid medium, the silicon oxide particles being functionalized with organic moieties comprising: ∘ at least four non-hydrogen atoms, of which one atom is covalently bonded to a silicon atom of the silicon oxide particles, and ∘ a linkable functional group capable, after activation by a radical species, of forming a covalent bond by reaction with another identical linkable functional group, wherein the organic moiety comprises at least two atoms, not part of the linkable functional group, that are bonded by a π bond to each other, wherein a ratio of the number of said organic moieties to the number of silicon atoms comprised in the plurality of silicon oxide particles is at least 0.3, and • an electrolyte compound. • a plurality of silicon oxide particles dissolved in a liquid medium, the silicon oxide particles being functionalized with organic moieties comprising: ∘ at least four non-hydrogen atoms, of which one atom is covalently bonded to a silicon atom of the silicon oxide particles, and ∘ a linkable functional group capable, after activation by a radical species, of forming a covalent bond by reaction with another identical linkable functional group, wherein the organic moiety comprises at least two atoms, not part of the linkable functional group, that are bonded by a π bond to each other, wherein a ratio of the number of said organic moieties to the number of silicon atoms comprised in the plurality of silicon oxide particles is at least 0.3, and ∘ at least four non-hydrogen atoms, of which one atom is covalently bonded to a silicon atom of the silicon oxide particles, and ∘ a linkable functional group capable, after activation by a radical species, of forming a covalent bond by reaction with another identical linkable functional group, wherein the organic moiety comprises at least two atoms, not part of the linkable functional group, that are bonded by a π bond to each other, wherein a ratio of the number of said organic moieties to the number of silicon atoms comprised in the plurality of silicon oxide particles is at least 0.3, and • an electrolyte compound.
A method for manufacturing a carburized part, comprising: vacuum carburizing a steel under a reduced pressure of 2 kPa or less, so that a surface carbon concentration after slow cooling performed after carburizing falls in a range of, in mass percent, 0.9 to 1.5%, where the steel has a composition consisting of, by mass percent, C: 0.15 to 0.25%, Si: 0.90 to 1.30%, Mn: 0.70 to 1.10%, P: 0.030% or less, S: 0.100% or less, Cu: 0.01 to 0.50%, Ni: 0.01 to 0.50%, Cr: 0.20 to 0.50%, Mo: 0.50% or less, Al: 0.30% or less, N: 0.05% or less, Nb: 0.02 to 0.20% as an optional element, Ti: 0.02 to 0.20% as an optional element, B: 0.0005 to 0.0100% as an optional element, and a balance of Fe and unavoidable impurities, and satisfying following Expression [Si] + [Ni] + [Cu] - [Cr] > 0.5... where each element symbol in Expression represents a content in mass percent of the element; performing the slow cooling by air cooling at a cooling rate of 5°C/s to 0.2°C/s that causes pearlite transformation, to transform a surface structure into pearlite; and thereafter, performing induction hardening under such heating and cooling conditions that produce fine carbides in a range of up to 0.1 mm from a surface by finely dividing cementite in the pearlite structure, where the fine carbides contain, in area ratio, 90% or more of carbides of 1 μm or less, the induction hardening being performed at a heating temperature of 750 to 850°C. C: 0.15 to 0.25%, Si: 0.90 to 1.30%, Mn: 0.70 to 1.10%, P: 0.030% or less, S: 0.100% or less, Cu: 0.01 to 0.50%, Ni: 0.01 to 0.50%, Cr: 0.20 to 0.50%, Mo: 0.50% or less, Al: 0.30% or less, N: 0.05% or less, Nb: 0.02 to 0.20% as an optional element, Ti: 0.02 to 0.20% as an optional element, B: 0.0005 to 0.0100% as an optional element, and a balance of Fe and unavoidable impurities, and satisfying following Expression [Si] + [Ni] + [Cu] - [Cr] > 0.5... where each element symbol in Expression represents a content in mass percent of the element; performing the slow cooling by air cooling at a cooling rate of 5°C/s to 0.2°C/s that causes pearlite transformation, to transform a surface structure into pearlite; and thereafter, performing induction hardening under such heating and cooling conditions that produce fine carbides in a range of up to 0.1 mm from a surface by finely dividing cementite in the pearlite structure, where the fine carbides contain, in area ratio, 90% or more of carbides of 1 μm or less, the induction hardening being performed at a heating temperature of 750 to 850°C.
Flying object comprising at least one brake parachute, - wherein the flying object (1; 1') is provided with a plurality of fixing devices (3; 3', 3") for the brake parachute; - wherein a dragline is provided between the fixing devices (3; 3', 3") and the brake parachute; - wherein the fixing devices (3; 3', 3") are mounted on the flying object (1; 1') in such a way that the imaginary extension of a straight line formed by the dragline in the deployed state of the air-impinged brake parachute runs through the centre of gravity of the flying object (1; 1'), and - wherein the dragline is provided at its front end directed towards the flying object with a plurality of connecting lines (5, 6) which in each case lead to a fixing device (3', 3"); characterized in that - the fixing devices (3; 3', 3") have a respective triggering mechanism for synchronous separation of the mechanical connections between the flying object (1; 1') and the brake parachute. - wherein the flying object (1; 1') is provided with a plurality of fixing devices (3; 3', 3") for the brake parachute; - wherein a dragline is provided between the fixing devices (3; 3', 3") and the brake parachute; - wherein the fixing devices (3; 3', 3") are mounted on the flying object (1; 1') in such a way that the imaginary extension of a straight line formed by the dragline in the deployed state of the air-impinged brake parachute runs through the centre of gravity of the flying object (1; 1'), and - wherein the dragline is provided at its front end directed towards the flying object with a plurality of connecting lines (5, 6) which in each case lead to a fixing device (3', 3"); characterized in that - the fixing devices (3; 3', 3") have a respective triggering mechanism for synchronous separation of the mechanical connections between the flying object (1; 1') and the brake parachute.
Method for the power control of a combustion engine of a cogeneration plant which produces electricity and heat, having an air-fuel gas line to the combustion engine, having a generator for the conversion of the mechanical power of the combustion engine into electrical power, an exhaust gas line, wherein the air-fuel gas line and the exhaust gas line are connected via an exhaust gas recirculation line in which a control device is located, wherein exhaust gas is produced from the air-fuel gas mixture supplied to the combustion engine and the exhaust gas is discharged from the combustion engine via the exhaust gas line, characterised in that, for the reduction of power, one part of the discharged exhaust gas is supplied to the air-fuel gas mixture in the air-fuel gas line via the exhaust gas recirculation line and the control device.
A device for dosing or discontinuously delivering liquid or molten material comprising one or more launder elements (5, 6a, 6b) for guiding the material, characterized in that at least one blasting nozzle (8, 9a, 9b) is disposed on at least one of the launder elements on the bottom thereof.
Water supply system with a device for dispensing and/or distributing a water volume flow, the device having a hand shower, with an outlet opening formed in the hand shower, with a connection formed for the water supply, the connection being connected to the outlet opening via a channel, with an electronic water volume flow control unit and with a hand shower holder, characterized in that an electric operating element is arranged in the hand shower, the operating element being designed for signal connection to the water volume flow control unit, and the hand shower holder being designed for determining the position and/or orientation of the hand shower.
A system comprising: an ingestible event marker device configured to communicate a conductive signal via a body tissue; a hub including a receiver, the receiver adapted to be associated with a body of an individual and configured to receive the conductive signal from the ingestible event marker device via the body tissue, wherein the conductive signal comprises ingestible event marker data associated with medication prescribed to the individual and wherein the body acts as a conductive medium to communicate the conductive signal from the ingestible event marker device to the receiver; and at least one ingestible event marker data system to receive, directly or indirectly, the ingestible event marker data from the hub, the receiver configured to communicate a unique identifier to the ingestible event marker data system, the unique identifier comprising a predetermined physiologic data sample associated with the individual; characterised by at least one of the hub and the ingestible event marker data system identifies the individual based on the unique identifier, wherein: the unique identifier is associated with predetermined physiologic data, and the at least one of the hub and the ingestible event marker data system compares the predetermined physiologic data and actual physiologic data to verify that the medication was actually ingested by the particular individual for whom it was prescribed. an ingestible event marker device configured to communicate a conductive signal via a body tissue; a hub including a receiver, the receiver adapted to be associated with a body of an individual and configured to receive the conductive signal from the ingestible event marker device via the body tissue, wherein the conductive signal comprises ingestible event marker data associated with medication prescribed to the individual and wherein the body acts as a conductive medium to communicate the conductive signal from the ingestible event marker device to the receiver; and at least one ingestible event marker data system to receive, directly or indirectly, the ingestible event marker data from the hub, the receiver configured to communicate a unique identifier to the ingestible event marker data system, the unique identifier comprising a predetermined physiologic data sample associated with the individual; characterised by at least one of the hub and the ingestible event marker data system identifies the individual based on the unique identifier, wherein: the unique identifier is associated with predetermined physiologic data, and the at least one of the hub and the ingestible event marker data system compares the predetermined physiologic data and actual physiologic data to verify that the medication was actually ingested by the particular individual for whom it was prescribed. the unique identifier is associated with predetermined physiologic data, and the at least one of the hub and the ingestible event marker data system compares the predetermined physiologic data and actual physiologic data to verify that the medication was actually ingested by the particular individual for whom it was prescribed.