mhurhangee/ep-ind-claims huggingface dataset:
A device for amplifying a Radio Frequency signal, the device comprising: a decompression module arranged to receive radio frequency data and to decompress the received radio frequency data to generate decompressed radio frequency data; a delay module arranged to introduce a delay; an analysis module arranged to analyze the decompressed radio frequency data and to create a modulation signal; amplifier arranged to amplify the decompressed radio frequency data, the amplifier having a power supply; wherein the power supply is modulated by the modulation signal such that a bias point of the amplifier is modulated in a synchronous manner with the decompressed radio frequency data so that the bias point is raised as the signal experiences a peak and is lowered as the signal falls from the peak; wherein the analysis module includes a linearizer, the linearizer arranged to apply a linearization function in the delayed signal path to drive the amplifier, and wherein parameters of the linearizer are controlled by the bias point of the amplifier. a decompression module arranged to receive radio frequency data and to decompress the received radio frequency data to generate decompressed radio frequency data; a delay module arranged to introduce a delay; an analysis module arranged to analyze the decompressed radio frequency data and to create a modulation signal; amplifier arranged to amplify the decompressed radio frequency data, the amplifier having a power supply; wherein the power supply is modulated by the modulation signal such that a bias point of the amplifier is modulated in a synchronous manner with the decompressed radio frequency data so that the bias point is raised as the signal experiences a peak and is lowered as the signal falls from the peak; wherein the analysis module includes a linearizer, the linearizer arranged to apply a linearization function in the delayed signal path to drive the amplifier, and wherein parameters of the linearizer are controlled by the bias point of the amplifier.
A radio access network node for a wireless communication system, wherein the radio access network node is configured to be implemented as a clustered system comprising a cluster of at least two interconnected network node sub-modules, each of which comprises a processing unit and memory, and the memory comprises a data structure, wherein at least one of the network node sub-modules is configured to manage at least one radio and/or antenna unit, wherein the radio access network node has a communication mechanism for communication between the network node sub-modules, and the communication mechanism is configured to enable a remote direct memory write operation from at least one network node sub-module into the data structure of at least one other network node sub-module, wherein the processing unit of at least one of said network node sub-modules is configured to directly address a storage location in the data structure of at least one other network node sub-module and perform a remote direct memory write operation for storing data into the data structure of said at least one other network node sub-module. wherein the radio access network node is configured to be implemented as a clustered system comprising a cluster of at least two interconnected network node sub-modules, each of which comprises a processing unit and memory, and the memory comprises a data structure, wherein at least one of the network node sub-modules is configured to manage at least one radio and/or antenna unit, wherein the radio access network node has a communication mechanism for communication between the network node sub-modules, and the communication mechanism is configured to enable a remote direct memory write operation from at least one network node sub-module into the data structure of at least one other network node sub-module, wherein the processing unit of at least one of said network node sub-modules is configured to directly address a storage location in the data structure of at least one other network node sub-module and perform a remote direct memory write operation for storing data into the data structure of said at least one other network node sub-module.
An apparatus for determining an arousal level of a subject, the apparatus comprising: (i) a receiver for receiving a bio-signal from the subject; (ii) a processor for calculating respective statistical variations of at least two physiological parameters derived from the bio-signal, one of which includes pulse pressure; and (iii) determining an arousal level of the subject based on the calculated statistical variations of the at least two physiological parameters, wherein the other of the at least two physiological parameters is selected from the group consisting of respiration rate and heart rate, wherein calculating the statistical variation of the at least two physiological parameter includes calculating the standard deviation of the pulse pressure, and characterised in that the arousal level is determined to be in a stress level if the calculated standard deviation of the pulse pressure is greater than a threshold value, in which the threshold value is within a range of about 3.0-12.0 mmHg mercury level. (i) a receiver for receiving a bio-signal from the subject; (ii) a processor for calculating respective statistical variations of at least two physiological parameters derived from the bio-signal, one of which includes pulse pressure; and (iii) determining an arousal level of the subject based on the calculated statistical variations of the at least two physiological parameters, wherein the other of the at least two physiological parameters is selected from the group consisting of respiration rate and heart rate, wherein calculating the statistical variation of the at least two physiological parameter includes calculating the standard deviation of the pulse pressure, and characterised in that the arousal level is determined to be in a stress level if the calculated standard deviation of the pulse pressure is greater than a threshold value, in which the threshold value is within a range of about 3.0-12.0 mmHg mercury level.
A construction machine having an undercarriage and a superstructure rotatably mounted on the undercarriage about a vertical axis, wherein - An engine with hydraulic and current supply is provided in the superstructure, - In the undercarriage there is provided a track travelling gear rotationally driven via two track drive hydraulic motors acted upon by the hydraulic supply, - At the undercarriage, an hydraulically raisable and lowerable earth levelling bucket is arranged at at least one end face of the undercarriage, - An hydraulic through drive with three hydraulic line pairs (41 to 43) is provided, wherein the three hydraulic line pairs (41, 42 and 43) are: - A first and second pair (41, 42) for the two track hydraulic motors of the track travelling gear and - A third hydraulic line pair for an earth leveling bucket hydraulic cylinder of the hydraulically raisable and lowerable earth levelling bucket, characterised in that - The hydraulic through drive has at least one fourth hydraulic line pair, attached to the hydraulic supply, for a further hydraulic function, which at the undercarriage and close to the earth levelling bucket runs to an hydraulic quick coupling and - A quick change device is provided at the earth levelling bucket, so that hydraulically drivable attachments are attachable to the quick change device at the earth levelling bucket of the undercarriage. - An engine with hydraulic and current supply is provided in the superstructure, - In the undercarriage there is provided a track travelling gear rotationally driven via two track drive hydraulic motors acted upon by the hydraulic supply, - At the undercarriage, an hydraulically raisable and lowerable earth levelling bucket is arranged at at least one end face of the undercarriage, - An hydraulic through drive with three hydraulic line pairs (41 to 43) is provided, wherein the three hydraulic line pairs (41, 42 and 43) are: - A first and second pair (41, 42) for the two track hydraulic motors of the track travelling gear and - A third hydraulic line pair for an earth leveling bucket hydraulic cylinder of the hydraulically raisable and lowerable earth levelling bucket, characterised in that - A first and second pair (41, 42) for the two track hydraulic motors of the track travelling gear and - A third hydraulic line pair for an earth leveling bucket hydraulic cylinder of the hydraulically raisable and lowerable earth levelling bucket, - The hydraulic through drive has at least one fourth hydraulic line pair, attached to the hydraulic supply, for a further hydraulic function, which at the undercarriage and close to the earth levelling bucket runs to an hydraulic quick coupling and - A quick change device is provided at the earth levelling bucket,
A mask structure, comprising: a first mask body; a main filtering layer, disposed at said first mask body, and having an area smaller than the area of said first mask body; an air-isolator, disposed at said first mask body, and having an inner periphery overlapping the periphery of said main filtering layer; and a second mask body, bonding with said air-isolator and said first mask body; wherein said first mask body includes a filtering region and a bonding region and said second mask body includes a filtering region and a bonding region; said filtering region of said first mask body corresponding to said filtering region of said second mask body; said bonding region of said first mask body corresponding to said bonding region of said second mask body; said main filtering layer being located between the two filtering regions (101, 131); said air-isolator being connected with said bonding region of said first mask body and said bonding region of said second mask body; and wherein said main filtering layer is not located in said two bonding regions (102, 132) and the bonding part of said first mask body, said air-isolator, and said second mask body. a first mask body; a main filtering layer, disposed at said first mask body, and having an area smaller than the area of said first mask body; an air-isolator, disposed at said first mask body, and having an inner periphery overlapping the periphery of said main filtering layer; and a second mask body, bonding with said air-isolator and said first mask body; wherein said first mask body includes a filtering region and a bonding region and said second mask body includes a filtering region and a bonding region; said filtering region of said first mask body corresponding to said filtering region of said second mask body; said bonding region of said first mask body corresponding to said bonding region of said second mask body; said main filtering layer being located between the two filtering regions (101, 131); said air-isolator being connected with said bonding region of said first mask body and said bonding region of said second mask body; and wherein said main filtering layer is not located in said two bonding regions (102, 132) and the bonding part of said first mask body, said air-isolator, and said second mask body.
A housing for a plug having a contact space for contacts, wherein the housing is configured in such a way that it may be plugged together with a counter-plug, having a display unit, wherein the display unit is provided to indicate a complete plugging of the counter-plug into the housing, wherein the display unit is borne in a shiftable manner along a longitudinal axis of the housing between an initial position and an assembly position, wherein the display unit comprises a locking element and a guide element, wherein the locking element comprises a resilient bridge, wherein the bridge is fixed to the guide element by one end, wherein in the initial position of the display unit a first stop of the housing prevents the display unit from shifting by abutment of the free end of the bridge on the first stop of the housing, wherein the free end of the bridge is bent in a bending plane in the direction of the guide element when shifting in the direction of the first stop, wherein a supporting element is arranged between the bridge and the guide element in the bending plane wherein the supporting element on the bridge of the locking element is formed as a further bridge, wherein the further bridge extends starting from the bridge in the direction of a abutment surface (14, 46) of the guide element, wherein the further bridge is arranged in such a way that, when the bridge deforms in the direction of the guide element, the bridge is supported at the guide element via the supporting element and a deformation of the bridge away from the abutment on the first stop is prevented by abutting the further bridge on the abutment surface (14, 46) of the guide element.
Method of notifying a client process of the detection of a failure of a server process, said detection being carried out in an operating system of an individual computer, the method comprising: - sending a request from the client process to the server process through a router, - storing a token at the router, and - in the absence of failure in the server process, carrying out the request at the server process, and returning a reply from the server process to the client process through the router, or - in response to a failure in the server process, generating at the router an error reply based on the token and returning the error reply from the router to the client process, characterized in that said client process, said server process and said router are inside said computer. - sending a request from the client process to the server process through a router, - storing a token at the router, and - in the absence of failure in the server process, carrying out the request at the server process, and returning a reply from the server process to the client process through the router, or - in response to a failure in the server process, generating at the router an error reply based on the token and returning the error reply from the router to the client process,
Method of manufacturing a molded article of a curable composition, comprising combining at least the following components: a cyclic olefin; a metathesis catalyst for polymerizing the cyclic olefin; 0.1 - 30 wt.% of a compound comprising at least one vinyl group; and 0.1-10 wt.% of a curing agent for compound, wherein the wt.% are relative to the total weight of the composition to form the composition; and subjecting the composition to conditions effective to promote an olefin metathesis reaction of the cyclic olefin and a radical polymerization of compound. a cyclic olefin; a metathesis catalyst for polymerizing the cyclic olefin; 0.1 - 30 wt.% of a compound comprising at least one vinyl group; and 0.1-10 wt.% of a curing agent for compound,
Assembly for preparing and presenting an edible composition intended to be puffed, comprising: - an upper face and a lower face, - at least one non-puffed composition containing at least one fatty substance, - a portion defining a chamber intended to allow the puffed composition to be presented and referred to as the presentation chamber, - a portion defining a storage chamber intended to contain at least the said non-puffed composition, the said portion being arranged inside the portion, and - a removable portion intended to be detached from the presentation chamber so as to open the assembly and allow access to the puffed composition, the said removable portion being attached to the storage chamber, characterized in that the assembly is arranged in such a way that it allows the composition to be puffed with little or no soiling of the presentation chamber when the assembly is resting on its upper face and in that the said removable portion is connected to the storage chamber in such a way as to allow the fatty substance-soiled storage chamber to be removed at the time of opening of the assembly without the presentation chamber becoming soiled with the fatty substance of the composition. - an upper face and a lower face, - at least one non-puffed composition containing at least one fatty substance, - a portion defining a chamber intended to allow the puffed composition to be presented and referred to as the presentation chamber, - a portion defining a storage chamber intended to contain at least the said non-puffed composition, the said portion being arranged inside the portion, and - a removable portion intended to be detached from the presentation chamber so as to open the assembly and allow access to the puffed composition, the said removable portion being attached to the storage chamber,
Plasma post-discharge deposition device (100; 200) for depositing crystalline metal oxide derivative on a substrate (112; 212), said device comprising: a) a gas source (116; 216) with a substrate inlet (102; 202), b) a post-discharge deposition chamber (110; 210) with a substrate outlet (104; 204), said substrate inlet (102; 202) and said substrate outlet (104; 204) defining a longitudinal central axis, c) a dielectric tube (108; 208) placed between said gas source (116; 216) and said deposition chamber (110; 210) on said longitudinal central axis; said dielectric tube (108; 208) being configured to confine a plasma discharge; wherein said dielectric tube (108; 208) comprises a discharge zone lying on the internal surface of said dielectric tube (108; 208) and a central zone centred on said longitudinal central axis, said central zone being located at a distance comprised between 1 mm and 2.5 mm from the internal surface of said dielectric tube (108; 208) and wherein said dielectric tube (108; 208) is surrounded by a surface wave launcher (106; 206) configured to generate the plasma discharge. a) a gas source (116; 216) with a substrate inlet (102; 202), b) a post-discharge deposition chamber (110; 210) with a substrate outlet (104; 204), said substrate inlet (102; 202) and said substrate outlet (104; 204) defining a longitudinal central axis, c) a dielectric tube (108; 208) placed between said gas source (116; 216) and said deposition chamber (110; 210) on said longitudinal central axis; said dielectric tube (108; 208) being configured to confine a plasma discharge;
A process for making fluid delivery in flow-injection based sensing measurements, wherein samples are introduced into a flow cell where sensing measurements are taken, the process comprising: (a) loading a first sample into a first holding line; (b) injecting the first sample from the first holding line into the flow cell; (c) loading a second sample into a second holding line, wherein said second sample is loaded simultaneously with step (b); (d) injecting said second sample from the second holding line into the flow cell; (e) loading a third sample into the first holding line, wherein the third sample is loaded simultaneously with step (d); and (f) continuing the loading and the injecting of samples by alternatively loading samples into the first holding line and second holding line and by simultaneously loading one sample while the other sample is being injected into the flow cell, wherein the loading of the samples into the first holding line and the second holding line is through a first multiport valve and the injecting of the samples to the flow cell is through the first multiport valve and a second multiport valve; and wherein the samples pass through a dispersion loop situated between the first multiport valve and the second multiport valve, and the dispersion loop forms a gradient in concentration of the sample prior to injection of the sample to the flow cell. (a) loading a first sample into a first holding line; (b) injecting the first sample from the first holding line into the flow cell; (c) loading a second sample into a second holding line, wherein said second sample is loaded simultaneously with step (b); (d) injecting said second sample from the second holding line into the flow cell; (e) loading a third sample into the first holding line, wherein the third sample is loaded simultaneously with step (d); and (f) continuing the loading and the injecting of samples by alternatively loading samples into the first holding line and second holding line and by simultaneously loading one sample while the other sample is being injected into the flow cell, wherein the loading of the samples into the first holding line and the second holding line is through a first multiport valve and the injecting of the samples to the flow cell is through the first multiport valve and a second multiport valve; and wherein the samples pass through a dispersion loop situated between the first multiport valve and the second multiport valve, and the dispersion loop forms a gradient in concentration of the sample prior to injection of the sample to the flow cell.
An aircraft having at least one first and one second engine (3a, 3b), each engine (3a, 3b) comprising a main air inlet opening (9a, 9b), a by-pass air inlet opening and a bleed air outlet (18a, 18b), said main air inlet opening (9a, 9b) being provided with an inlet barrier filter for filtering a main air stream through said main air inlet opening (9a, 9b) into the engine (3a, 3b), said by-pass air inlet opening being provided with a by-pass door that is operable by an associated operating element to enable a by-pass air stream through said by-pass air inlet opening into the engine (3a, 3b), and said bleed air outlet (18a, 18b) being provided for creating an outgoing bleed air stream (18c, 18d) going out of the engine (3a, 3b) in operation, characterized in that the associated operating element of the at least one first engine is connected to the bleed air outlet of the at least one second engine and controllable by the outgoing bleed air stream that goes out of the at least one second engine in operation, and the associated operating element of the at least one second engine is connected to the bleed air outlet of the at least one first engine and controllable by the outgoing bleed air stream that goes out of the at least one first engine in operation.
A support for at least one bearing for a hot section of a turboshaft engine, the support comprising at least a central hub incorporating an outer bearing seat for receiving said bearing, an annular casing segment around the central hub, and a plurality of radial arms connecting said central hub to said annular casing segment, and inclined in an axial direction and in a tangential direction characterized in that said radial arms are integrated as a single piece with the central hub and with the annular casing segment.