mhurhangee/ep-ind-claims huggingface dataset:
A method of fault diagnosis during testing of a turbine unit in a turbine testing system, the turbine unit comprising a plurality of turbine components and turbine sensors, the turbine testing system comprising a plurality of testing sensors, the method comprising obtaining measurement data from the turbine sensors and the testing sensors, calculating at least one parameter value based on the measurement data, determining a deviation of the measurement data and the at least one parameter value by comparing the measurement data and the at least one parameter value with predetermined reference data, and matching the determined deviation to a plurality of predetermined fault signatures in order to detect a fault, characterised in that the plurality of predetermined fault signatures comprises a first set of fault signatures and a second set of fault signatures, the first set of fault signatures corresponding to turbine sensor faults and/or testing sensor faults and assumed fault-free turbine components, the second set of fault signatures corresponding to turbine component faults and assumed fault-free turbine sensors and testing sensors.
A gas turbine engine comprising a first component (113, 813, 913, 1013, 1113) formed to include a first anchor-receiving space therein, the anchor-receiving space being arranged to extend along an installation axis through a portion of the first component, a second component (117, 817, 917, 1017, 1117) coupled to the first component to move therewith, the second component being formed to include a second anchor-receiving space therein, and the second anchor-receiving space is arranged to extend along the installation axis through the second component and be aligned with the first anchor-receiving space, and an anchor (10, 810,910, 1010, 1110) arranged to interconnect and couple the first component to the second component, the anchor including a bushing (16, 916, 1016) located in the second anchor-receiving space and arranged to extend out of the anchor-receiving space toward the first component to engage the first component, a washer (14, 814, 914) positioned to engage the bushing along the installation axis to locate the second anchor-receiving space between the washer and the first component, a fastener (12, 812, 912, 1012, 1112) arranged to extend through a fastener-receiving aperture formed in the washer, through a fastener-receiving space formed in the bushing, and through the first anchor-receiving space, and a fastener retainer (18, 818, 918, 1018, 1118) coupled to the fastener to block movement of the fastener relative to the first and second components while locating the second component and the bushing between the fastener retainer and the washer, wherein the anchor is configured to provide means for minimizing stress formed in the fastener during operation of the gas turbine engine as a result of the first component having a different thermal or mechanical expansion rate than the second component, wherein the first component is a fan disk arranged to hold a plurality of fan blades for rotation about a central axis of the gas turbine engine, and wherein the second component is a windage shield arranged to guide incoming air provided by the fan blades through the gas turbine engine.
Automatic applicator device of anchorage points to be welded on the surface of a polyethylene film, comprising storage means of almost circular shaped elastic elements, welding means of plastic stiffener elements, further storage means of said plastic stiffener elements, anchorage and actuation means (7, 8) for said storage and welding means, said device being such that - said anchorage and actuation means comprise at least a support plate able to translate horizontally to a basic frame, both in orthogonal position to said polyethylene film; - said storage means of the elastic elements and said welding means of the plastic stiffener elements are anchored to said support plate and are configured to move along a plane parallel to the polyethylene film. - said anchorage and actuation means comprise at least a support plate able to translate horizontally to a basic frame, both in orthogonal position to said polyethylene film; - said storage means of the elastic elements and said welding means of the plastic stiffener elements are anchored to said support plate and are configured to move along a plane parallel to the polyethylene film.
An antiperspirant cosmetic agent in the form of an aqueous emulsion, containing: - aluminum sesquichlorohydrate and - citric acid triethyl ester, • wherein the cosmetic agent has a pH of 3.5 to 4.0 and • wherein the aluminum sesquichlorohydrate is contained in an amount of from 5.0 to 15.0 wt.% and the citric acid triethyl ester is contained in an amount of from 0.1 to 7 wt.%, wherein the amounts given in wt.% are based in each case on the total weight of the agent according to the invention, without taking into account the optionally present propellant and • wherein the aluminum sesquichlorohydrate has a molar AI/CI ratio of 1.5:1 to 1.8:1. - aluminum sesquichlorohydrate and - citric acid triethyl ester, • wherein the cosmetic agent has a pH of 3.5 to 4.0 and • wherein the aluminum sesquichlorohydrate is contained in an amount of from 5.0 to 15.0 wt.% and the citric acid triethyl ester is contained in an amount of from 0.1 to 7 wt.%, wherein the amounts given in wt.% are based in each case on the total weight of the agent according to the invention, without taking into account the optionally present propellant and • wherein the aluminum sesquichlorohydrate has a molar AI/CI ratio of 1.5:1 to 1.8:1. • wherein the cosmetic agent has a pH of 3.5 to 4.0 and • wherein the aluminum sesquichlorohydrate is contained in an amount of from 5.0 to 15.0 wt.% and the citric acid triethyl ester is contained in an amount of from 0.1 to 7 wt.%, wherein the amounts given in wt.% are based in each case on the total weight of the agent according to the invention, without taking into account the optionally present propellant and • wherein the aluminum sesquichlorohydrate has a molar AI/CI ratio of 1.5:1 to 1.8:1.
A self-propelling soil cultivating implement with an implement housing, a drive device for propelling the soil cultivating implement within an environment, a detection device for detecting environmental features within the environment and a computing device which is set up to transmit control commands to the drive device based on the environmental features detected by the detection device, wherein the detection device has at least one fall sensor (8, 9, 10, 11, 12, 13, 14, 15) arranged on an underside of the implement housing facing an underground, which fall sensor (8, 9, 10, 11, 12, 13, 14, 15) is set up to detect a distance (a) of the soil cultivating implement from the underground, and wherein the computing device is arranged to control the drive device to change a movement of the soil cultivating implement when the distance (a) detected by the fall sensor (8, 9, 10, 11, 12, 13, 14, 15) is greater than a limit value defining a slope, wherein the ground processing device has on the underside of the device housing a plurality of outer fall sensors (8, 9, 10, 11, 12, 13, 14, 15) arranged one behind the other in the direction of a circumferential contour of the underside and a plurality of outer fall sensors (8, 9, 10, 12, 13, 14, 15) arranged one behind the other in the direction of a circumferential contour of the underside, 11) and a plurality of inner crash sensors (12, 13, 14, 15) offset inwards with respect to the arrangement of the outer crash sensors (8, 9, 10, 11), the crash sensors (8, 9, 10, 11, 12, 13, 14, 15) being connected in an evaluation circuit of the detection device in such a manner that the detection signals of the totality of inner crash sensors (12, 13, 14, 15) can be evaluated independently of the detection signals of the totality of outer crash sensors (8, 9, 10, 11), wherein the totality of inner crash sensors (12, 13, 14, 15) are connected in a common first evaluation circuit of the detection device (4, 15), and wherein the totality of external crash sensors (8, 9, 10, 11) are connected into a common second evaluation circuit formed separately from the first evaluation circuit.
A motor vehicle supply network, in particular 48V on-board network of a motor vehicle, comprising a power source, a power distributor, which is connected to the power source via a supply current path, and at least one load which is connected to the power distributor via a load current path with an integrated semiconductor switch and is connected to the power source via the power distributor, wherein a current measurement unit, a voltage measurement unit and a monitoring unit is integrated into the power distributor, and wherein the monitoring unit is arranged in such a way as to detect an impending fault on the basis of the measurement data of the current measurement unit and/or the measurement data of the voltage measurement unit and that it initiates a disconnection of the at least one load by means of the semiconductor switch, wherein both imminent overcurrent faults and imminent arc faults are detected as an imminent fault, wherein the supply current path in the power distributor divides into a plurality of load current paths and a load is connected to the power distributor via each of these load current paths, wherein a semiconductor switch is integrated in each load current path, and wherein the monitoring unit is arranged to monitor all the load current paths independently of one another, so that in the event of a fault in one of the load current paths only the load connected thereto is switched off. wherein a current measurement unit, a voltage measurement unit and a monitoring unit is integrated into the power distributor, and wherein the monitoring unit is arranged in such a way as to detect an impending fault on the basis of the measurement data of the current measurement unit and/or the measurement data of the voltage measurement unit and that it initiates a disconnection of the at least one load by means of the semiconductor switch, wherein both imminent overcurrent faults and imminent arc faults are detected as an imminent fault, wherein the supply current path in the power distributor divides into a plurality of load current paths and a load is connected to the power distributor via each of these load current paths, wherein a semiconductor switch is integrated in each load current path, and wherein the monitoring unit is arranged to monitor all the load current paths independently of one another, so that in the event of a fault in one of the load current paths only the load connected thereto is switched off.
Bathtub, in particular lying bathtub, and the like, comprising an inner wall, wherein the inner wall has a side wall (6, 7) at the foot and/or head end, and a tub base with an ergonomic moulding, the tub base has at least one ergonomically shaped depression, the ergonomic depression of the tub base is designed such that it forms an end support for the ischial tuberosity of a bather, and the depression comprises at least one part of the side wall (7, 6) at the foot end or head end, wherein a transition region is designed between the tub base and the side wall (7, 6) at the head and/or foot end, wherein the ergonomically shaped depression comprises at least one part of the transition region, and an angle (β) between the side wall (6, 7) and the transition region is between 150 and 170 degrees. an inner wall, wherein the inner wall has a side wall (6, 7) at the foot and/or head end, and a tub base with an ergonomic moulding, the tub base has at least one ergonomically shaped depression, the ergonomic depression of the tub base is designed such that it forms an end support for the ischial tuberosity of a bather, and the depression comprises at least one part of the side wall (7, 6) at the foot end or head end, wherein a transition region is designed between the tub base and the side wall (7, 6) at the head and/or foot end, wherein the ergonomically shaped depression comprises at least one part of the transition region, and an angle (β) between the side wall (6, 7) and the transition region is between 150 and 170 degrees.
A method for a computing device including a storage memory, a volatile memory and a non-volatile random access memory, NVRAM, comprising: determining for a software application program an expense metric value based on a size value, a power consumption value and a startup time value; determining whether a software application program is a candidate for a power saving mode based on the expense metric value; in response to determining that the software application program is a candidate for the power saving mode: loading (722, 734) the software application program into the NVRAM and setting a power saving mode indicator operable to enable a subsequent startup of the computing device in the power saving mode; determining whether the low power mode indicator is set after restarting the computing device; and operating the computing device in the power saving mode including executing the software application program from the NVRAM in response to determining that the power saving mode indicator is set. determining for a software application program an expense metric value based on a size value, a power consumption value and a startup time value; determining whether a software application program is a candidate for a power saving mode based on the expense metric value; in response to determining that the software application program is a candidate for the power saving mode: loading (722, 734) the software application program into the NVRAM and setting a power saving mode indicator operable to enable a subsequent startup of the computing device in the power saving mode; determining whether the low power mode indicator is set after restarting the computing device; and operating the computing device in the power saving mode including executing the software application program from the NVRAM in response to determining that the power saving mode indicator is set.
Temporary stent, in particular for applying medicaments to a vascular wall, having a mesh structure in which the individual loops are delimited by bridges (9, 5), wherein the bridges converge in intersection points and at least part of the bridges and/or of the intersection points on the external side have depressions in which medicaments are contained, and having means for fixing an extraction apparatus at the proximal end, characterized in that the intersection points are formed by mutually crossing bridges in such a manner that the tips of loops which are sequential in the longitudinal profile of the stent are mutually offset, wherein the means for fixing the extraction apparatus are disposed so as to be centrical to the stent axis and are configured as hooks, wherein at least two proximal bridge ends are gathered such that the latter form a noose of which the proximal end, bent in the distal direction, forms the hook.
A method of manufacturing a shelf board for a shelving system for displaying goods, the shelving system comprising a) at least one shelf board extending in a planar manner along a shelf board plane for depositing the goods thereon and b) at least one shelving body for receiving the shelf board, c) wherein the at least one shelf board is detachably held on the shelving body by at least one holding means and d) comprises two electrical luminescent layers for illuminating the goods, e) wherein the at least one shelf board comprises at least one induction layer for inductively obtaining electrical energy for supplying the two luminescent layers, and f) wherein the shelving body comprises at least one transmission device for inductive energy transmission to the at least one induction layer of the at least one shelf board, g) wherein the two luminescent layers and the at least one induction layer each comprise a plurality of material layers aligned along the shelf board plane and having different material compositions from one another, h) the two luminescent layers being arranged perpendicular to the shelf board plane above and below the at least one induction layer, and i) wherein the at least one induction layer is arranged between the two luminescent layers, the manufacturing method comprising the following steps: j) providing a flat support element for the shelf board; and k) screen printing the two luminescent layers and the at least one induction layer of the shelf board onto the support element. a) at least one shelf board extending in a planar manner along a shelf board plane for depositing the goods thereon and b) at least one shelving body for receiving the shelf board, c) wherein the at least one shelf board is detachably held on the shelving body by at least one holding means and d) comprises two electrical luminescent layers for illuminating the goods, e) wherein the at least one shelf board comprises at least one induction layer for inductively obtaining electrical energy for supplying the two luminescent layers, and f) wherein the shelving body comprises at least one transmission device for inductive energy transmission to the at least one induction layer of the at least one shelf board, g) wherein the two luminescent layers and the at least one induction layer each comprise a plurality of material layers aligned along the shelf board plane and having different material compositions from one another, h) the two luminescent layers being arranged perpendicular to the shelf board plane above and below the at least one induction layer, and i) wherein the at least one induction layer is arranged between the two luminescent layers, j) providing a flat support element for the shelf board; and k) screen printing the two luminescent layers and the at least one induction layer of the shelf board onto the support element.
A percutaneous gas diffusion device, the percutaneous gas diffusion device comprising: (a) a core layer, the core layer having a length, a bottom, a top and a periphery, the core layer being gas-permeable and liquid-impermeable; and (b) an outer layer, the outer layer comprising a tissue-integrating material, characterized in that the percutaneous gas diffusion device is suitable for providing a percutaneous pathway for diffusion of one or more gases between an interior of a body and a location outside the body, in that the core layer is percutaneously positionable in a body so that the top of the core layer faces outside the body and the bottom of the core layer faces the interior of the body, and in that the outer layer surrounds the periphery of the core layer for at least a portion of the length of the core layer. (a) a core layer, the core layer having a length, a bottom, a top and a periphery, the core layer being gas-permeable and liquid-impermeable; and (b) an outer layer, the outer layer comprising a tissue-integrating material, characterized in that the percutaneous gas diffusion device is suitable for providing a percutaneous pathway for diffusion of one or more gases between an interior of a body and a location outside the body, in that the core layer is percutaneously positionable in a body so that the top of the core layer faces outside the body and the bottom of the core layer faces the interior of the body, and in that the outer layer surrounds the periphery of the core layer for at least a portion of the length of the core layer.
A storage-stable composition suitable for administration to a subject comprising: a) a PTHrP analogue having the sequence [Glu 22,25, Leu 23,28,31, Aib 29, Lys 26,30] hPTHrP NH 2 (SEQ ID NO.: 2); and b) an effective amount of buffer to maintain the pH in a range of about 4.5 to about 5.6. a) a PTHrP analogue having the sequence [Glu 22,25, Leu 23,28,31, Aib 29, Lys 26,30] hPTHrP NH 2 (SEQ ID NO.: 2); and b) an effective amount of buffer to maintain the pH in a range of about 4.5 to about 5.6.
An organic light emitting display comprising: light emitting elements disposed on an active area of a substrate; an encapsulation unit disposed on the light emitting elements and including at least one inorganic encapsulation layer (142, 146) and at least one organic encapsulation layer; a touch sensor (152, 154) disposed on the encapsulation unit; dams (162, 164) surrounding the active area and forming a boundary for the at least one organic encapsulation layer; a compensation film covering the dams (162, 164), wherein the compensation film is provided between a touch pad (170, 180) and the at least one organic encapsulation layer and between the touch pad (170, 180) and the at least one inorganic encapsulation layer and have different thicknesses (d1, d2) in a region above the dams (162, 164) and in a boundary region between the dams (162, 164) and the at least one organic encapsulation layer, and routing lines (156, 186) disposed on the compensation film. light emitting elements disposed on an active area of a substrate; an encapsulation unit disposed on the light emitting elements and including at least one inorganic encapsulation layer (142, 146) and at least one organic encapsulation layer; a touch sensor (152, 154) disposed on the encapsulation unit; dams (162, 164) surrounding the active area and forming a boundary for the at least one organic encapsulation layer; a compensation film covering the dams (162, 164), wherein the compensation film is provided between a touch pad (170, 180) and the at least one organic encapsulation layer and between the touch pad (170, 180) and the at least one inorganic encapsulation layer and have different thicknesses (d1, d2) in a region above the dams (162, 164) and in a boundary region between the dams (162, 164) and the at least one organic encapsulation layer, and routing lines (156, 186) disposed on the compensation film.