mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a Synchrophasor Data Management System (SDMS) comprising: a Synchrophasor Processor System comprising: a Phasor Data Concentrator configured to receive a first plurality of inputs from a Phasor Measurement Unit, transform at least one of the first plurality of inputs into a first sychrophasor-related output by processing the at least one of the first plurality of inputs; and a pseudo-PMU configured to gather and check data desired to transmitted, to map the data to be transmitted including the first sychrophasor-related output into a defined field of a PMU dataset format to generate a pseudo-PMU dataset and to transmit the dataset to an output stream processor of the PDC to be aggregated into an output signal, wherein the SPS is further configured to transmit the output signal to an external PDC, a super PDC, or a combination thereof. a Synchrophasor Data Management System (SDMS) comprising: a Synchrophasor Processor System comprising: a Phasor Data Concentrator configured to receive a first plurality of inputs from a Phasor Measurement Unit, transform at least one of the first plurality of inputs into a first sychrophasor-related output by processing the at least one of the first plurality of inputs; and a pseudo-PMU configured to gather and check data desired to transmitted, to map the data to be transmitted including the first sychrophasor-related output into a defined field of a PMU dataset format to generate a pseudo-PMU dataset and to transmit the dataset to an output stream processor of the PDC to be aggregated into an output signal, wherein the SPS is further configured to transmit the output signal to an external PDC, a super PDC, or a combination thereof. a Synchrophasor Processor System comprising: a Phasor Data Concentrator configured to receive a first plurality of inputs from a Phasor Measurement Unit, transform at least one of the first plurality of inputs into a first sychrophasor-related output by processing the at least one of the first plurality of inputs; and a pseudo-PMU configured to gather and check data desired to transmitted, to map the data to be transmitted including the first sychrophasor-related output into a defined field of a PMU dataset format to generate a pseudo-PMU dataset and to transmit the dataset to an output stream processor of the PDC to be aggregated into an output signal, a Phasor Data Concentrator configured to receive a first plurality of inputs from a Phasor Measurement Unit, transform at least one of the first plurality of inputs into a first sychrophasor-related output by processing the at least one of the first plurality of inputs; and a pseudo-PMU configured to gather and check data desired to transmitted, to map the data to be transmitted including the first sychrophasor-related output into a defined field of a PMU dataset format to generate a pseudo-PMU dataset and to transmit the dataset to an output stream processor of the PDC to be aggregated into an output signal, wherein the SPS is further configured to transmit the output signal to an external PDC, a super PDC, or a combination thereof.
A substrate processing apparatus, comprising: a chamber body defining a process volume, wherein a major axis of the process volume is oriented vertically and a minor axis of the process volume is oriented horizontally; a moveable door coupled to the chamber body; a first electrode coupled to the door, the first electrode configured to support a substrate thereon; a second electrode coupled to the chamber body, the second electrode at least partially defining the process volume; a first plurality of fluid ports formed in a sidewall of the chamber body adjacent the process volume; and a second plurality of fluid ports formed in the sidewall of the chamber body adjacent the process volume opposite the first plurality of fluid ports. a chamber body defining a process volume, wherein a major axis of the process volume is oriented vertically and a minor axis of the process volume is oriented horizontally; a moveable door coupled to the chamber body; a first electrode coupled to the door, the first electrode configured to support a substrate thereon; a second electrode coupled to the chamber body, the second electrode at least partially defining the process volume; a first plurality of fluid ports formed in a sidewall of the chamber body adjacent the process volume; and a second plurality of fluid ports formed in the sidewall of the chamber body adjacent the process volume opposite the first plurality of fluid ports.
A position sensor (100, 400, 1150, 1300), comprising: a transmission coil (106, 404, 1030, 1152); receive coils (104, 430, 1000) comprising a first receive coil (112, 408, 528, 1006, 1154) and a second receive coil (110, 406, 530, 1004, 1156), at least one of said two receive coils (104, 110, 222, 406, 408, 430, 528, 530, 1000, 1004, 1006, 1154, 1156) including at least one polarity change; a target (124, 402, 1308) configured to transit across the receive coils (104, 430, 1000); and a controller (102, 1306) configured to drive the transmission coil (106, 404, 1030, 1152), receive signals from the receive coils (104, 430, 1000), and provide a position response indicative of the target (124, 402, 1308) position over the receive coils (104, 430, 1000), wherein the position response exhibits a first linear region of a first positive slope and a second linear region of a second negative slope, along with a flat zone. a transmission coil (106, 404, 1030, 1152); receive coils (104, 430, 1000) comprising a first receive coil (112, 408, 528, 1006, 1154) and a second receive coil (110, 406, 530, 1004, 1156), at least one of said two receive coils (104, 110, 222, 406, 408, 430, 528, 530, 1000, 1004, 1006, 1154, 1156) including at least one polarity change; a target (124, 402, 1308) configured to transit across the receive coils (104, 430, 1000); and a controller (102, 1306) configured to drive the transmission coil (106, 404, 1030, 1152), receive signals from the receive coils (104, 430, 1000), and provide a position response indicative of the target (124, 402, 1308) position over the receive coils (104, 430, 1000), wherein the position response exhibits a first linear region of a first positive slope and a second linear region of a second negative slope, along with a flat zone.
Leak protection sheet for lining a fluid tank, which sheet is made of a flexible, airproof, fluid resistant material for adaptation to an inner shape of the tank, wherein the sheet has knobs on an outer side (S a), which knobs are directly formed out of the sheet material, for facing the tank wall, for supporting the sheet on the tank wall in the lined tank, and for forming a continuous cavity between the tank wall and the sheet, characterized in that the sheet further has ribs on its outer side (S a), which ribs are directly formed out of the sheet material such that the sheet material is made thinner in vats which form between the ribs, on which ribs the knobs are formed further protruding therefrom, wherein either the ribs are arranged parallel with each other in at least two groups (G i) crossing each other and a knob is formed on each crossing point, or the ribs are arranged in a honeycomb structure and a knob is formed on each honeycomb corner.
An assembly comprising: - a tank (3, 33, 43) containing a liquid, such as oil, - means for guiding a float along a way, - a fluid level sensor comprising: -- the float which, movable on said way along the guide means, is floating on the liquid of the tank or on a volume of the liquid in communication with the liquid in the tank, according to the principle of communicating vessels, so that the float can move with the liquid level in the tank, -- at least one permanent magnet movable with the float, -- an electronic card provided with magnetic switches sensitive to said magnet, the being elongated and disposed, with the magnetic switches, on all the way along which the float is movable. characterized in that: the tank has a globally longitudinal profile which is curved, and not only rectilinear, the guide means of the float are positioned about the float and the contacts thereof with said float are limited to three substantially linear zones (17a,17b,17c), and the electronic card, which is maintained along said guide means, is elongated according to said profile and located laterally apart from the volume limited by the three contact zones (17a,17b,17c). - a tank (3, 33, 43) containing a liquid, such as oil, - means for guiding a float along a way, - a fluid level sensor comprising: -- the float which, movable on said way along the guide means, is floating on the liquid of the tank or on a volume of the liquid in communication with the liquid in the tank, according to the principle of communicating vessels, so that the float can move with the liquid level in the tank, -- at least one permanent magnet movable with the float, -- an electronic card provided with magnetic switches sensitive to said magnet, the being elongated and disposed, with the magnetic switches, on all the way along which the float is movable. characterized in that: -- the float which, movable on said way along the guide means, is floating on the liquid of the tank or on a volume of the liquid in communication with the liquid in the tank, according to the principle of communicating vessels, so that the float can move with the liquid level in the tank, -- at least one permanent magnet movable with the float, -- an electronic card provided with magnetic switches sensitive to said magnet, the being elongated and disposed, with the magnetic switches, on all the way along which the float is movable. the tank has a globally longitudinal profile which is curved, and not only rectilinear, the guide means of the float are positioned about the float and the contacts thereof with said float are limited to three substantially linear zones (17a,17b,17c), and the electronic card, which is maintained along said guide means, is elongated according to said profile and located laterally apart from the volume limited by the three contact zones (17a,17b,17c).
Sanitary insert unit having an insert housing which is insertable into the water outlet of a sanitary outlet fitting and in at least a part-region has a rectangular cross section, in such a manner that the longitudinal sides (3, 4) of the insert housing in comparison with the narrow sides (5, 6) that are oriented so as to be transverse to the longitudinal extent of the insert housing have a greater magnitude, and having a flow regulator which is provided in the insert housing of the insert unit and which has at least one water-perfused flow duct in which flow duct a throttle body which is disposed in an installation plane that is oriented so as to be transverse to the perfusion direction is provided, wherein at least one control gap which is disposed between an at least, in portions, profiled wall that delimits the flow duct and an adjacent external side of the throttle body is provided, and wherein the throttle body under the pressure of the perfusing medium is elastically deformable in such a manner that the available flow cross section of the control gap is constricted by the throttle body being moulded into the profiled feature of the at least, in portions, profiled wall, characterized in that the throttle body is annularly configured and is held in the insert unit in such a manner that the annular throttle body in the longitudinal extent thereof is subdivided into two first annular portions (9, 10) that are oriented in the longitudinal direction, and into two curved second annular portions (11, 12) that interconnect the first annular portions (9, 10) on both sides, and in that a control gap is provided between each of the first annular portions (9, 10) and an adjacent and at least, in portions, profiled wall.
A cooling arrangement for a gas turbine engine component, the cooling arrangement comprising: a first row of airfoils, wherein adjacent first row airfoils form respective first segments of respective cooling channels; and a second row of airfoils, wherein adjacent second row airfoils form respective second segments of the respective cooling channels; characterised in that an axial extension of an outlet of each respective first segment aligns with an inlet of the respective second segment to define the respective cooling channel, each comprising a serpentine flow axis, wherein the cooling arrangement further comprises pin fins downstream of a last row of airfoils, wherein the gas turbine engine component comprises a blade or vane, and wherein the rows of airfoils are disposed in a trailing edge of the blade or vane. a first row of airfoils, wherein adjacent first row airfoils form respective first segments of respective cooling channels; and a second row of airfoils, wherein adjacent second row airfoils form respective second segments of the respective cooling channels; characterised in that an axial extension of an outlet of each respective first segment aligns with an inlet of the respective second segment to define the respective cooling channel, each comprising a serpentine flow axis, wherein the cooling arrangement further comprises pin fins downstream of a last row of airfoils, wherein the gas turbine engine component comprises a blade or vane, and wherein the rows of airfoils are disposed in a trailing edge of the blade or vane.
A component of a gas turbine engine, the component having a leading edge with two air-washed surfaces extending rearwardly therefrom to define opposing sides of the component; the component having a leading edge protector formed as a plurality of protector segments which succeed in a line along the leading edge, each protector segment including a sheath which covers the leading edge and the air-washed surfaces at regions adjacent the leading edge, and which overlaps with the neighbouring sheath of the succeeding segment; characterized in that each protector segment further includes a former which defines the external shape of the component at the leading edge, the sheath of the protector segment wrapping around the former; and in that a clearance gap is provided between the formers of succeeding protector segments.
A hearing device comprising: a memory storing instructions; and a processor communicatively coupled to the memory and configured to execute the instructions to: receive an input audio signal having a range of input frequencies; adaptively adjust a cut-off frequency for the input audio signal such that the value of the cut-off frequency varies between a predefined minimum cut-off frequency value and a predefined maximum cut-off frequency value as a continuous function of the input audio signal; and generate an output audio signal by mapping the range of input frequencies to a range of output frequencies determined based on the adaptively adjusted cut-off frequency, characterized in that the adaptively adjusting of the cut-off frequency as the continuous function of the input audio signal includes adaptively adjusting the cut-off frequency as a continuous function of an instantaneous input bandwidth of the input audio signal. a memory storing instructions; and a processor communicatively coupled to the memory and configured to execute the instructions to: receive an input audio signal having a range of input frequencies; adaptively adjust a cut-off frequency for the input audio signal such that the value of the cut-off frequency varies between a predefined minimum cut-off frequency value and a predefined maximum cut-off frequency value as a continuous function of the input audio signal; and generate an output audio signal by mapping the range of input frequencies to a range of output frequencies determined based on the adaptively adjusted cut-off frequency, characterized in that receive an input audio signal having a range of input frequencies; adaptively adjust a cut-off frequency for the input audio signal such that the value of the cut-off frequency varies between a predefined minimum cut-off frequency value and a predefined maximum cut-off frequency value as a continuous function of the input audio signal; and generate an output audio signal by mapping the range of input frequencies to a range of output frequencies determined based on the adaptively adjusted cut-off frequency, characterized in that the adaptively adjusting of the cut-off frequency as the continuous function of the input audio signal includes adaptively adjusting the cut-off frequency as a continuous function of an instantaneous input bandwidth of the input audio signal.
An optical scanning device for scanning light, comprising: a swingable reflection unit, configured to swing while reflecting light rays from a light source for changing a light travelling direction and scan light; a blocking plate that is provided in the reflection unit and configured to swing in linkage with the reflection unit; and a sensor unit that includes an output unit configured to output light or electromagnetic waves as a detection target and a detection unit configured to detect the detection target; wherein the blocking plate is made of a material through which the light or electromagnetic waves do not pass, and, when the reflection unit is in a predetermined swing angle range, the blocking plate blocks a path of the detection target between the output unit and the detection unit; characterized in that the sensor unit includes at least a first sensor unit and a second sensor unit along a swing trajectory of the blocking plate, and wherein, when the reflection unit is at a first position, the blocking plate is positioned between the output unit and the detection unit of the first sensor unit, and when the reflection unit is at a second position, the blocking plate is positioned between the output unit and the detection unit of the second sensor unit. a swingable reflection unit, configured to swing while reflecting light rays from a light source for changing a light travelling direction and scan light; a blocking plate that is provided in the reflection unit and configured to swing in linkage with the reflection unit; and a sensor unit that includes an output unit configured to output light or electromagnetic waves as a detection target and a detection unit configured to detect the detection target; wherein the blocking plate is made of a material through which the light or electromagnetic waves do not pass, and, when the reflection unit is in a predetermined swing angle range, the blocking plate blocks a path of the detection target between the output unit and the detection unit; characterized in that the sensor unit includes at least a first sensor unit and a second sensor unit along a swing trajectory of the blocking plate, and wherein, when the reflection unit is at a first position, the blocking plate is positioned between the output unit and the detection unit of the first sensor unit, and when the reflection unit is at a second position, the blocking plate is positioned between the output unit and the detection unit of the second sensor unit.
Reinforcing structure for an underbody of a motor vehicle, - wherein the motor vehicle has an axle support, in particular a rear axle support, wherein the axle support has a first and a second holder (81, 82) which are spaced apart from one another in a transverse direction of the vehicle, - wherein the reinforcing structure has a transverse connecting strut and a first and a second axle support linkage (61, 62), characterized in that - the transverse connecting strut is connected both to the first and to the second axle support linkage (61, 62), and - the first holder of the axle support can be connected to the first axle support linkage and the second holder of the axle support can be connected to the second axle support linkage. - wherein the motor vehicle has an axle support, in particular a rear axle support, wherein the axle support has a first and a second holder (81, 82) which are spaced apart from one another in a transverse direction of the vehicle, - wherein the reinforcing structure has a transverse connecting strut and a first and a second axle support linkage (61, 62), - the transverse connecting strut is connected both to the first and to the second axle support linkage (61, 62), and - the first holder of the axle support can be connected to the first axle support linkage and the second holder of the axle support can be connected to the second axle support linkage.
An apparatus for slicing up a crepe on a paper plate, wherein the apparatus consists of three main parts: a mainboard, a knife unit and a bite stabilizer, wherein the bite stabilizer comprises a mainboard with the shape of a U-profile with a lower handle fitted on one side and bearings fitted on the opposite side, wherein inside the bearings the axis is located and wherein the knife unit consists of a number of blades and swings 125° on the axis and the bite stabilizer consists of a number of D-rings and swings 160° on the axis.
A composite silicon carbide cladding in a light water nuclear reactor, comprising: a silicon carbide substrate having an outer surface, the silicon carbide substrate comprising a silicon carbide ceramic matrix composite; and a coating applied to the outer surface of the silicon carbide substrate, characterized in that the coating comprises: an aluminum coating applied to the outer surface of the silicon carbide substrate, and a FeCrAl alloy coating applied to the aluminum coating; or an intermixed coating comprising Al 4 C 3 +Si and Fe-Al alloy applied to the outer surface of the silicon carbide substrate, a FeCrAl alloy coating applied to the intermixed coating, and a Cr 2 O 3 coating applied to the FeCrAl alloy coating; or a CrN layer applied to the outer surface of the silicon carbide substrate and a chromium layer applied to the CrN layer, and one or more additional layers of alternating CrN and chromium layers. a silicon carbide substrate having an outer surface, the silicon carbide substrate comprising a silicon carbide ceramic matrix composite; and a coating applied to the outer surface of the silicon carbide substrate, an aluminum coating applied to the outer surface of the silicon carbide substrate, and a FeCrAl alloy coating applied to the aluminum coating; or an intermixed coating comprising Al 4 C 3 +Si and Fe-Al alloy applied to the outer surface of the silicon carbide substrate, a FeCrAl alloy coating applied to the intermixed coating, and a Cr 2 O 3 coating applied to the FeCrAl alloy coating; or a CrN layer applied to the outer surface of the silicon carbide substrate and a chromium layer applied to the CrN layer, and one or more additional layers of alternating CrN and chromium layers.
A process for isolating cells of interest from a sample mixture comprising polluting cells comprising one or more known surface markers, the process comprising a filtration step through a membrane, wherein the sample mixture is passing through a membrane following a filtration flow, wherein the membrane is provided with pores and with linkers, characterized in that the process comprises a crosslinking step allowing to bind the polluting cells to the membrane by the mean of a crosslinking element and to maintain the cells of interest unbound and a retrieving step, allowing to collect the cells of interest, wherein said crosslinking element comprises at least one binding element able to specifically bind to said one or more surface marker of the polluting cells or a subpopulation of polluting cells, and at least one linking element adapted to cooperate with the linkers of the membrane and wherein the filtration step provides a waste mixture eluted through the membrane and a retrieved mixture remaining within the membrane, and in that the size and the shape of the pores are determined in a way to maintain the cells of interest within the retrieved mixture.