mhurhangee/ep-ind-claims huggingface dataset:
A method for identifying a spinning rotor on a rotor spinning machine, wherein the spinning rotor is mounted in a suspended manner in an at least radially acting electromagnetic bearing and rotates in the bearing during a spinning operation, wherein at least one radial position of the spinning rotor is actively influenced by the bearing, and wherein at least one variable system variable is compared to at least one reference value, characterized in that the at least one variable system variable is an energy consumption of the bearing, the radial position of the spinning rotor, detected by at least one sensor and/or by the bearing and/or a resonant frequency of the spinning rotor.
A lens body for a vehicle headlamp comprising a first lens unit (12A1) and a second lens unit (12A2) disposed along a first reference axis which, in use, extends in the longitudinal direction of a vehicle, and configured such that light from a light source entering the first lens unit through a first entry surface (12a, 12A1b) of the first lens unit (12A1), exits through a first exit surface (12A1a) of the first lens unit (12A1), further enters the second lens unit (12A2) through a second entry surface (12A2a) of the second lens unit (12A2), then exits through a second exit surface (12A2b) of the second lens unit (12A2), and is irradiated forward, so as to form a predetermined light distribution pattern (P1a, P Hi), characterized in that the second exit surface (12A2b) is a semicircular cylindrical surface, a cylindrical axis thereof extending in a direction inclined (θ1) with respect to the first reference axis when viewed from the top, and wherein the first exit surface (12A1a) is a semicircular cylindrical surface, and the surface shapes of the first exit surface (12A1a) and of the second exit surface (12A2b) are adjusted such that the predetermined light distribution pattern (P1a, P Hi) is generally condensed, wherein condensing light in the horizontal direction is mainly performed by the first exit surface and condensing light in the vertical direction is mainly performed by the second exit surface, and/or wherein the first exit surface (12A1a) condenses light in a first direction and the second exit surface (12A2b) condenses light in a second direction, wherein the first and second directions are orthogonal. the second exit surface (12A2b) is a semicircular cylindrical surface, a cylindrical axis thereof extending in a direction inclined (θ1) with respect to the first reference axis when viewed from the top, and wherein the first exit surface (12A1a) is a semicircular cylindrical surface, and the surface shapes of the first exit surface (12A1a) and of the second exit surface (12A2b) are adjusted such that the predetermined light distribution pattern (P1a, P Hi) is generally condensed, wherein condensing light in the horizontal direction is mainly performed by the first exit surface and condensing light in the vertical direction is mainly performed by the second exit surface, and/or wherein the first exit surface (12A1a) condenses light in a first direction and the second exit surface (12A2b) condenses light in a second direction, wherein the first and second directions are orthogonal.
Capsule, cartridge or film pouch containing a chemical two-component mortar composition comprising a resin component, which contains at least one radically curable, ethylenically unsaturated compound (a) as a curable component, and a hardener component, which contains a hardener for the resin of the resin component, at least one inorganic filler being contained in the resin component and/or in the hardener component, characterized by a content of 0.2 to 10 wt.% of at least one (meth)acryloxyalkylsiloxane and/or poly((meth)acryloxyalkylsilsesquioxane) as a further constituent (b) of the resin component, characterized in that the capsule, cartridge or the film pouch comprises two or more separate chambers in which the resin component and the hardener component are arranged separately in a reaction-inhibiting manner and in that the resin component also contains a hydraulically setting or polycondensable inorganic compound in addition to the resin and the hardener component also contains water in addition to the hardener.
Storage medium for storing hydrogen chloride (HCl) comprising at least one ionic compound of the general formulae [NR 1 a R 2 b R 3 c][Cl(HCl) n] Wherein R 1, R 2, R 3 being independent from each other an alkyl moiety selected from the group of methyl, ethyl, n-propyl, iso-propyl, n-butyl, iso-butyl and sec-butyl, preferably methyl, ethyl, n-propyl, n-butyl; Wherein at least one of the moieties R 1, R 2, R 3 differs from each of the others moieties R 1, R 2, R 3; Wherein a, b, c are independently from each other 0, 1, 2 or 3, wherein the sum of a+b+c always has to be 4; Wherein n >= 1, preferably n = 1-6, more preferably n = 1, 2, 3, 4, and With a viscosity in a range between 5 and 50 mPas, preferably between 10 and 20 mPas (25°C, 1000 hPa). Wherein R 1, R 2, R 3 being independent from each other an alkyl moiety selected from the group of methyl, ethyl, n-propyl, iso-propyl, n-butyl, iso-butyl and sec-butyl, preferably methyl, ethyl, n-propyl, n-butyl; Wherein at least one of the moieties R 1, R 2, R 3 differs from each of the others moieties R 1, R 2, R 3; Wherein a, b, c are independently from each other 0, 1, 2 or 3, wherein the sum of a+b+c always has to be 4; Wherein n >= 1, preferably n = 1-6, more preferably n = 1, 2, 3, 4, and With a viscosity in a range between 5 and 50 mPas, preferably between 10 and 20 mPas (25°C, 1000 hPa).
Aluminium alloy strip having an aluminium alloy for vehicle applications with the following alloy constituents in percent by weight: 0.40 wt% ≤ Si ≤ 0.55 wt%, 0.15 wt% ≤ Fe ≤ 0.25 wt%, Cu ≤ 0.06 wt%, 0.15 wt% ≤ Mn ≤ 0.40 wt%, 0.33 wt% ≤ Mg ≤ 0.40 wt%, Cr ≤ 0.03 wt%, 0.005 wt% ≤ Ti ≤ 0.10 wt%, the remainder Al and unavoidable impurities, individually at most 0.05 wt%, in total at most 0.15 wt%. 0.40 wt% ≤ Si ≤ 0.55 wt%, 0.15 wt% ≤ Fe ≤ 0.25 wt%, Cu ≤ 0.06 wt%, 0.15 wt% ≤ Mn ≤ 0.40 wt%, 0.33 wt% ≤ Mg ≤ 0.40 wt%, Cr ≤ 0.03 wt%, 0.005 wt% ≤ Ti ≤ 0.10 wt%,
An exposure apparatus for exposing a substrate with exposure light via a projection optical system and liquid in a space under the projection optical system, comprising: a stage configured to hold the substrate; a supply mechanism configured to supply liquid to the space via a supply flow path; a first recovery mechanism configured to recover the supplied liquid from above the stage; a second recovery mechanism configured to recover the supplied liquid via a flow path provided in the stage; and a third recovery mechanism configured to remove liquid from the supply flow path after the supply of liquid to the space via the supply flow path has ceased. a stage configured to hold the substrate; a supply mechanism configured to supply liquid to the space via a supply flow path; a first recovery mechanism configured to recover the supplied liquid from above the stage; a second recovery mechanism configured to recover the supplied liquid via a flow path provided in the stage; and a third recovery mechanism configured to remove liquid from the supply flow path after the supply of liquid to the space via the supply flow path has ceased.
A turbomachine for transmitting energy between a flowing fluid and a drive/output shaft, on which a motor or generator is arranged and which can be utilized both as a propulsion system and for energy generation, characterized in that it comprises a first, a second, a third and a fourth oscillating aerofoil (2a, 2b, 2c, 2d) which perform oscillating thrusting movements about their transverse axis, wherein the axes of rotation (5a, 5d; 5b, 5c) of two aerofoils (2a, 2d; 2b, 2c) are respectively connected by two frame structure arms (3a, 3d; 3b, 3c) and are arranged diagonally one behind the other in the direction of flow, wherein the axes of rotation (5a, 5c; 5b, 5d) of the aerofoils respectively lying upstream (2a, 2c) and downstream (2b, 2d) are arranged so as to be parallel, two frame structures (4a, 4b) on the frame structure arms (3a, 3d; 3b, 3c) of which the aerofoils (2a, 2d; 2b, 2c) are rotatably mounted and their oscillating rotational movements are coupled to one another about a common axis of rotation, a power transmission device as a drive which converts the unidirectional rotational movement of the drive shaft into oscillating rotational movements of the frame structures (4a, 4b) and a same power transmission device for energy generation which couples the oscillating rotational movements of the two frame structures (4a, 4b) and converts them into a unidirectional rotational movement to be provided to the output shaft, a device for fixation in the environment or for connecting the turbomachine (1, 16, 23) to a vessel, to a floating structure or to a structure located in the water, and a frame structure mount.
A system for automatically fusing data from a medical procedure and displaying the fused data to a surgeon during the medical procedure, the system comprising: a medical hub comprising at least one processor and at least one memory, and a remote server communicatively coupled to the medical hub, wherein the at least one processor is configured to: access a first dataset generated by a first surgical device comprising data sampled at a first data sampling rate recorded during a sampling time period; access a second dataset generated by a second surgical device comprising data sampled at a second data sampling rate that is slower than the first data sampling rate and is recorded during the sampling time period; upscale the second data sampling rate of the second dataset to be aligned with the first data sampling rate; fuse the first dataset and the second dataset into a composite dataset; align the first dataset and the second dataset in the composite dataset, such that data from both the first dataset and the second dataset is sequentially ordered in the composite dataset in an order in which the data was recorded; cause display of the composite dataset; generate a graphical overlay on top of the display of the composite dataset that provides an interpretation of the composite dataset; and transmit the composite dataset to the remote server. access a first dataset generated by a first surgical device comprising data sampled at a first data sampling rate recorded during a sampling time period; access a second dataset generated by a second surgical device comprising data sampled at a second data sampling rate that is slower than the first data sampling rate and is recorded during the sampling time period; upscale the second data sampling rate of the second dataset to be aligned with the first data sampling rate; fuse the first dataset and the second dataset into a composite dataset; align the first dataset and the second dataset in the composite dataset, such that data from both the first dataset and the second dataset is sequentially ordered in the composite dataset in an order in which the data was recorded; cause display of the composite dataset; generate a graphical overlay on top of the display of the composite dataset that provides an interpretation of the composite dataset; and transmit the composite dataset to the remote server.
An extruded, formulated, complete feed for aquatic species, where said formulated, complete feed comprising: - at least one non-hydrolysed protein source; - at least one fat source; - fibers; - a vitamin additive; - a mineral additive; - water; - a binder comprising at least partly an edible, starch containing, tuberous-originating thickening agent; - a hydrolysed plant protein source; and - a plasticizer, and said formulated, complete feed comprises a moisture content from about 12.5% to about 25% (w/w) of the complete feed. - at least one non-hydrolysed protein source; - at least one fat source; - fibers; - a vitamin additive; - a mineral additive; - water; - a binder comprising at least partly an edible, starch containing, tuberous-originating thickening agent; - a hydrolysed plant protein source; and - a plasticizer,
A cooking appliance comprising a cavity and means for implementing a cycle of cleaning by pyrolysis in which the temperature of the cavity increases from an initial temperature (T i) to a pyrolysis temperature (T p), the temperature rise over time being implemented according to a first temperature curve ( temp1), representing the change in temperature over time, said cooking appliance being characterized in that said means for implementing a pyrolysis cycle comprise means for checking the prior implementation of a cooking cycle comprising means for determining the period of time elapsed between the end of a cooking cycle and the start of the cycle of cleaning by pyrolysis and means for comparing said determined period of time with a predetermined period of time, said means for implementing a pyrolysis cycle further comprising comparison means for comparing said initial temperature (T i) with a predetermined temperature, and being configured to implement said temperature rise over time according to said temperature curve ( temp1) when the initial temperature (T i) is less than said predetermined temperature and according to a second temperature curve ( temp2) representing the temperature change over time when a cooking cycle has been implemented in advance and said initial temperature (T i) is greater than or substantially equal to said predetermined temperature, said second temperature curve ( temp2) comprising at least one substantially linear portion ( temp2) corresponding to a range of temperatures (I T), said portion ( temp2) having a slope (α2) of greater value than the value of the slope (α1) of a portion ( temp1) of said first temperature curve ( temp1) corresponding to said range of temperatures (I T).
An optical fibre ribbon comprising: a plurality of optical fibres having a diameter of 180 microns and bonded with a matrix material, wherein the matrix material is applied along a longitudinal length of the plurality of optical fibres, wherein the matrix material is applied discontinuously along a longitudinal length of the plurality of optical fibres, wherein each of plurality of optical fibres is defined by a geometrical centre and diameter, wherein the plurality of optical fibres has a predefined distance between geometrical centres (106, 108) of any two adjacent optical fibres of the plurality of optical fibres, wherein the predefined distance between geometrical centres (106, 108) of any two adjacent optical fibres of the plurality of optical fibres is 180 microns characterized in that the optical fibre ribbon has a width of 2.19 millimetre.
An underwater energy harvesting drone comprising: a primary hull to be submersibly received in ocean water; a plurality of thermoelectric modules each module of said plurality of thermoelectric modules having a first operational interface in thermal contact with the primary hull; a thermal transfer element in contact with a second operational interface on the plurality of thermoelectric modules; an electrical power storage device connected to the plurality of thermoelectric modules; wherein positioning of the primary hull to create a thermal gradient between the primary hull and the thermal transfer element induces electrical power generation by the thermoelectric modules thereby charging the electrical power storage device; an electrical motor connected to receive power from the electrical power storage device; a propulsor driven by said electrical motor; control planes engaged to the primary hull; and, a control system adapted to provide control signals to the electrical motor and control planes pursuant to a navigational profile, wherein the control system is configured to navigate the underwater energy harvesting drone autonomously pursuant to the navigational profile; wherein the thermal transfer element comprises an internal storage tank adapted to receive cold ocean water in a first position and store the cold ocean water in a second position, and the navigational profile causes locating the primary hull in a hot ocean water plume of a hydrothermal vent. a primary hull to be submersibly received in ocean water; a plurality of thermoelectric modules each module of said plurality of thermoelectric modules having a first operational interface in thermal contact with the primary hull; a thermal transfer element in contact with a second operational interface on the plurality of thermoelectric modules; an electrical power storage device connected to the plurality of thermoelectric modules; wherein positioning of the primary hull to create a thermal gradient between the primary hull and the thermal transfer element induces electrical power generation by the thermoelectric modules thereby charging the electrical power storage device; an electrical motor connected to receive power from the electrical power storage device; a propulsor driven by said electrical motor; control planes engaged to the primary hull; and, a control system adapted to provide control signals to the electrical motor and control planes pursuant to a navigational profile, wherein the control system is configured to navigate the underwater energy harvesting drone autonomously pursuant to the navigational profile; wherein the thermal transfer element comprises an internal storage tank adapted to receive cold ocean water in a first position and store the cold ocean water in a second position, and the navigational profile causes locating the primary hull in a hot ocean water plume of a hydrothermal vent.
A device for welding pipe branches and extensions to a main pipe from inside the main pipe, the device including a frame and a frame cylinder, an elongated electrode shaft having a longitudinal central axis, around which the electrode shaft is rotatably arranged, a rotator disc of the electrode shaft, through which the electrode shaft is able to slide axially, an electrode holder in the end of the electrode shaft, an electrode fastened to the holder, a welding jig (1, 1.2, 1.3; 2.3, 2.4, 2.5) for supporting the main pipe (6.1; 2.2a) in the welding station, a fastening element (8, 8a) of the welding jig, a rotating element of the welding jig, to which the fastening element is fastened and which is rotatably bearing-mounted inside the frame cylinder such that the rotational axis of the welding jig combines with the central axis of the electrode shaft, characterized in that the welding jig has a support bracket (1.2, 1.3; 2.4, 2.5) for the main pipe (6.1; 2.2a), by which the main pipe (6.1) is to be supported in the station, in which the central axes of the main pipe (6.1; 2.2a) and the electrode shaft are combined, that the welding jig has, surrounding the electrode shaft, an adapter piece, to which is connected a shielding gas channel, the shielding gas being adapted to be guided through the adapter piece into the main pipe, and through it, also into the pipe branch or extension to be welded, when the main pipe, or the pipe extension (6.3) to be welded to the main pipe, or a shielding gas pipe (2.3) surrounding the main pipe rests against the adapter piece, and that the rotator disc of the electrode shaft is equipped with a locking device, with which the electrode shaft is to be locked axially immobile in relation to the rotator disc.
Use of an aqueous enzyme based sensor which comprises one or more enzymes and at least one indicator compound capable of indicating a reaction of at least one of said enzymes with at least one target analyte for detecting the presence of said target analyte by spraying the aqueous enzyme based sensor onto a surface.
A system for monitoring for hyperoxia for a user, the system comprising: an optical spectroscopy probe fixable to the user's skin for acquiring blood oxygenation data representative of deoxyhemoglobin levels over time, wherein said optical spectroscopy probe comprises a near infrared spectroscopy probe, and wherein the user is exposed to partial oxygen pressures deviating from a standard value of about 0.21 atm at Standard Temperature and Pressure or is exposed to a pressure other than 1 atm; a digital user interface operable to display a health risk indicator to the user; and a digital data processor operatively connected to said optical spectroscopy probe and user interface, and programmed to: monitor variations in said deoxyhemoglobin levels; automatically evaluate said variations in said deoxyhemoglobin levels against respective preset deoxyhemoglobin level variations forming part of benchmark blood oxygenation profiles, wherein said profiles are digitally associated with a preset blood oxygenation index defining at least a lower health risk rating and a higher health risk rating of hyperoxia; and output a signal representative of said higher health risk rating of hyperoxia in response to said evaluation for display via said digital user interface. an optical spectroscopy probe fixable to the user's skin for acquiring blood oxygenation data representative of deoxyhemoglobin levels over time, wherein said optical spectroscopy probe comprises a near infrared spectroscopy probe, and wherein the user is exposed to partial oxygen pressures deviating from a standard value of about 0.21 atm at Standard Temperature and Pressure or is exposed to a pressure other than 1 atm; a digital user interface operable to display a health risk indicator to the user; and a digital data processor operatively connected to said optical spectroscopy probe and user interface, and programmed to: monitor variations in said deoxyhemoglobin levels; automatically evaluate said variations in said deoxyhemoglobin levels against respective preset deoxyhemoglobin level variations forming part of benchmark blood oxygenation profiles, wherein said profiles are digitally associated with a preset blood oxygenation index defining at least a lower health risk rating and a higher health risk rating of hyperoxia; and output a signal representative of said higher health risk rating of hyperoxia in response to said evaluation for display via said digital user interface. monitor variations in said deoxyhemoglobin levels; automatically evaluate said variations in said deoxyhemoglobin levels against respective preset deoxyhemoglobin level variations forming part of benchmark blood oxygenation profiles, wherein said profiles are digitally associated with a preset blood oxygenation index defining at least a lower health risk rating and a higher health risk rating of hyperoxia; and output a signal representative of said higher health risk rating of hyperoxia in response to said evaluation for display via said digital user interface.
Crystalline Form GT1 of Glasdegib Maleate characterized by data selected from one or more of the following: a) an XRPD pattern having peaks at 7.0, 10.6, 14.1, 24.2 and 25.5 degrees 2-theta ± 0.2 degrees 2-theta; b) an XRPD pattern as depicted in Figure 1; c) a solid state 13 C NMR spectrum having peaks at 101.9, 113.1, 116.9, 131.5, 136.2 and 149.5 ppm ± 0.2 ppm; d) a solid state 13 C NMR spectrum having the following chemical shift absolute differences from a reference peak at 57.3 ppm ± 2 ppm of 44.6, 55.8, 59.6, 74.2, 78.9 and 92.2 ppm ± 0.1 ppm; e) a solid-state 13 C NMR spectrum substantially as depicted in Figures 8a, 8b or 8c; and f) combinations of two or more of: a, b, c, d, and e. a) an XRPD pattern having peaks at 7.0, 10.6, 14.1, 24.2 and 25.5 degrees 2-theta ± 0.2 degrees 2-theta; b) an XRPD pattern as depicted in Figure 1; c) a solid state 13 C NMR spectrum having peaks at 101.9, 113.1, 116.9, 131.5, 136.2 and 149.5 ppm ± 0.2 ppm; d) a solid state 13 C NMR spectrum having the following chemical shift absolute differences from a reference peak at 57.3 ppm ± 2 ppm of 44.6, 55.8, 59.6, 74.2, 78.9 and 92.2 ppm ± 0.1 ppm; e) a solid-state 13 C NMR spectrum substantially as depicted in Figures 8a, 8b or 8c; and f) combinations of two or more of: a, b, c, d, and e.