mhurhangee/ep-ind-claims huggingface dataset:
A micronization device comprising: - a cylindrical grinding chamber without moving parts, - means (4, 5, 6, 7) for supplying a ground material into the grinding chamber at a supersonic speed, and - means (331, 332, 333, 341, 342, 343) for supplying the carrier medium into the grinding chamber at a supersonic speed, characterized in that said means (331, 332, 333, 341, 342, 343) for supplying the carrier medium into the grinding chamber are arranged so that the carrier medium supplied through said means (331, 332, 333, 341, 342, 343) creates at least two artificial cyclones in the grinding chamber, the at least two artificial cyclones rotating at supersonic speeds and in opposite directions with a common axis of rotation, the common axis of rotation being identical with the central axis of the grinding chamber. - a cylindrical grinding chamber without moving parts, - means (4, 5, 6, 7) for supplying a ground material into the grinding chamber at a supersonic speed, and - means (331, 332, 333, 341, 342, 343) for supplying the carrier medium into the grinding chamber at a supersonic speed, characterized in that said means (331, 332, 333, 341, 342, 343) for supplying the carrier medium into the grinding chamber are arranged so that the carrier medium supplied through said means (331, 332, 333, 341, 342, 343) creates at least two artificial cyclones in the grinding chamber, the at least two artificial cyclones rotating at supersonic speeds and in opposite directions with a common axis of rotation, the common axis of rotation being identical with the central axis of the grinding chamber.
A reel and coupling for a reel dispenser comprising the reel coupled to the coupling, the reel being rotatable about an axis of rotation relative to the coupling, the coupling comprising a female mounting arrangement arranged to engage a complimentary male mounting arrangement (28, 30) provided on a dispenser support, the coupling being moveable from a dismounted condition to a mounted condition with respect to the support in a direction transverse to the axis of rotation of the reel, wherein in the mounted condition the female _and male (28, 30) mounting arrangements engage to suspend the reel from the support, characterised in that it is further comprising an orientation mechanism arranged to only permit the coupling to fit the support when moving the coupling from the dismounted condition to the mounted condition when in one orientation, wherein the orientation mechanism comprises a cut away portion of the coupling forming a notch arranged to engage a guide arm (32, 34) provided on the support, whereby the notch is located off centre.
An in vitro method for differentiating pluripotent cells into midbrain floor plate precursors, the method comprising: exposing a plurality of pluripotent cells to: (a) at least one inhibitor of Small Mothers Against Decapentaplegic (SMAD) signaling, (b) at least one activator of Sonic hedgehog signaling and (c) at least one activator of wingless (Wnt) signaling, wherein: exposure to the at least one inhibitor of SMAD signaling begins on day 0; said pluripotent cells are exposed to the at least one activator of Wnt signaling 3 days after initiation of exposure to the at least one inhibitor of SMAD signaling; said pluripotent cells are exposed to the at least one inhibitor of SMAD signaling, the at least one activator of SHH signaling, and the at least one activator of Wnt signaling in amounts effective to produce a plurality of midbrain floor plate precursor cells, at least 10% of which express both forkhead box protein A2 (FOXA2) and LIM homeobox transcription factor 1 alpha (LMX1A); and optionally further subjecting said plurality of differentiated midbrain floor plate precursor cells to conditions favoring maturation of the midbrain floor plate precursor cells into dopamine neurons. exposure to the at least one inhibitor of SMAD signaling begins on day 0; said pluripotent cells are exposed to the at least one activator of Wnt signaling 3 days after initiation of exposure to the at least one inhibitor of SMAD signaling; said pluripotent cells are exposed to the at least one inhibitor of SMAD signaling, the at least one activator of SHH signaling, and the at least one activator of Wnt signaling in amounts effective to produce a plurality of midbrain floor plate precursor cells, at least 10% of which express both forkhead box protein A2 (FOXA2) and LIM homeobox transcription factor 1 alpha (LMX1A); and optionally further subjecting said plurality of differentiated midbrain floor plate precursor cells to conditions favoring maturation of the midbrain floor plate precursor cells into dopamine neurons.
An electric arc cutting or welding torch comprising a torch body and a torch head which is able and designed to be assembled to or disassembled from said torch body, said torch body (1,6) comprising: - a peripheral wall and an axial housing, said axial housing comprising an orifice for receiving at least part of the torch head; - an actuator which is mobile in translation in the axial housing; - at least one blocking element which is mounted so as to be mobile on the peripheral wall, the blocking element and the torch head each comprising reciprocal engagement means (19, 20); characterised by - the actuator being configured to maintain the blocking element spaced relative to the peripheral wall, so as to permit the insertion of the torch head in the orifice; and - said actuator also being configured to be displaced in the axial housing when the torch head is inserted in the orifice, so as to enable said blocking element to be brought towards the peripheral wall until said blocking element and the torch head engage. - a peripheral wall and an axial housing, said axial housing comprising an orifice for receiving at least part of the torch head; - an actuator which is mobile in translation in the axial housing; - at least one blocking element which is mounted so as to be mobile on the peripheral wall, the blocking element and the torch head each comprising reciprocal engagement means (19, 20); - the actuator being configured to maintain the blocking element spaced relative to the peripheral wall, so as to permit the insertion of the torch head in the orifice; and - said actuator also being configured to be displaced in the axial housing when the torch head is inserted in the orifice, so as to enable said blocking element to be brought towards the peripheral wall until said blocking element and the torch head engage.
A fluid jet cutting device comprising a cutting head having a replaceable cutting nozzle from which a cutting jet of the fluid jet cutting device is emitted into the environment, wherein the fluid jet cutting device has a cutting nozzle changing mechanism by means of which the cutting nozzle can be removed from the cutting head and another cutting nozzle can be attached to the cutting head without manual intervention, and the cutting nozzle is attached to a cutting nozzle adapter by means of which the cutting nozzle can be attached to the cutting head, wherein the cutting nozzle adapter is screwed or can be screwed to a holding device of the cutting nozzle exchange mechanism via a first thread, characterized in that the holding device has a second thread which is arranged to produce a linear movement of the holding device relative to the cutting nozzle adapter when the cutting nozzle is exchanged.
A fuel system comprising a fuel tank, a catalytic inerting device for producing oxygen depleted air by reaction of fuel vapour from the fuel tank with air, characterised in that it further comprises a separator device for separating carbon dioxide from the ODA gas before feeding the carbon dioxide depleted ODA gas to the fuel tank so as to render the fuel tank ullage atmosphere inert.
A method to manufacture a lithium disilicate crystalline glass component including cristobalite crystals, the method comprising: melting of a glass component, wherein the glass component consists of: 11 - 13 wt% Li 2 O, 72-75 wt% SiO 2, 2 - 3 wt% P 2 O 5 as a nuclei formation agent, 2 - 5 wt% Al 2 O 3 to increase glass transition temperature, softening temperature, and chemical durability of the glass component, 2.0- 3.0 wt% ZrO 2, 1 - 4 wt% colorant, 0.5 -2 wt % K 2 O, 0.5 -3 wt % Na 2 O, 0.5 - 3 wt% CaO, and not including MgO, ZnO, F, and La 2 O 6, followed by a crystal growth process comprising: a first heat treatment to form nuclei at 350 - 400 °C for 1 - 120 minutes; a second heat treatment for crystal growth at 550 - 690 °C for 5 - 120 minutes; and a third heat treatment at 690 - 750 °C for 5 - 120 minutes. melting of a glass component, wherein the glass component consists of: 11 - 13 wt% Li 2 O, 72-75 wt% SiO 2, 2 - 3 wt% P 2 O 5 as a nuclei formation agent, 2 - 5 wt% Al 2 O 3 to increase glass transition temperature, softening temperature, and chemical durability of the glass component, 2.0- 3.0 wt% ZrO 2, 1 - 4 wt% colorant, 0.5 -2 wt % K 2 O, 0.5 -3 wt % Na 2 O, 0.5 - 3 wt% CaO, and not including MgO, ZnO, F, and La 2 O 6, 11 - 13 wt% Li 2 O, 72-75 wt% SiO 2, 2 - 3 wt% P 2 O 5 as a nuclei formation agent, 2 - 5 wt% Al 2 O 3 to increase glass transition temperature, softening temperature, and chemical durability of the glass component, 2.0- 3.0 wt% ZrO 2, 1 - 4 wt% colorant, 0.5 -2 wt % K 2 O, 0.5 -3 wt % Na 2 O, 0.5 - 3 wt% CaO, and not including MgO, ZnO, F, and La 2 O 6, followed by a crystal growth process comprising: a first heat treatment to form nuclei at 350 - 400 °C for 1 - 120 minutes; a second heat treatment for crystal growth at 550 - 690 °C for 5 - 120 minutes; and a third heat treatment at 690 - 750 °C for 5 - 120 minutes. a first heat treatment to form nuclei at 350 - 400 °C for 1 - 120 minutes; a second heat treatment for crystal growth at 550 - 690 °C for 5 - 120 minutes; and a third heat treatment at 690 - 750 °C for 5 - 120 minutes.
A hybrid switch assembly (50, 150, 250, 350) for a vacuum switch (2, 102, 202, 302), said vacuum switch (2, 102, 202, 302) comprising a vacuum envelope, a fixed contact assembly (6, 106, 206, 306) partially within said vacuum envelope, and a movable contact assembly (8, 108, 208, 308) partially within said vacuum envelope and movable between a closed position in electrical contact with the fixed contact assembly (6, 106, 206, 306) and an open position spaced apart from the fixed contact assembly (6, 106, 206, 306), said hybrid switch assembly (50, 150, 250, 350) comprising: at least one radial magnetic field generating mechanism (52, 152, 252, 352) structured to be disposed within said vacuum envelope; and a number of axial magnetic field generating mechanisms (54, 56; 154, 156; 254, 256; 354, 356) each comprising a ferromagnetic or ferrimagnetic member structured to be disposed within said vacuum envelope proximate a corresponding one of said at least one radial magnetic field generating mechanism (52, 152, 252, 352), characterised in that said ferromagnetic or ferrimagnetic member is a horseshoe plate assembly (54, 56; 154, 156; 254, 256; 354, 356). at least one radial magnetic field generating mechanism (52, 152, 252, 352) structured to be disposed within said vacuum envelope; and a number of axial magnetic field generating mechanisms (54, 56; 154, 156; 254, 256; 354, 356) each comprising a ferromagnetic or ferrimagnetic member structured to be disposed within said vacuum envelope proximate a corresponding one of said at least one radial magnetic field generating mechanism (52, 152, 252, 352), characterised in that said ferromagnetic or ferrimagnetic member is a horseshoe plate assembly (54, 56; 154, 156; 254, 256; 354, 356).
A system for determining driver errors, comprising: an interface configured to receive a safety warning from a safety warning system and receive data from a vehicle event recorder (102, 200); a processor (306, 308, 310) configured to: determine an appropriate driver response based at least in part on the safety warning, wherein determining the appropriate driver response comprises looking up the safety warning in a lookup table to determine the appropriate driver response; determine a driver response, wherein the driver response is determined by processing the data from the vehicle event recorder; determine vehicle events providing coaching information; determine whether the driver response comprises the appropriate driver response by comparing the driver response and the appropriate driver response; and in the event the driver response does not comprise the appropriate driver response, indicating a driver error, wherein indicating the driver error comprises providing coaching information including the vehicle events providing coaching information. an interface configured to receive a safety warning from a safety warning system and receive data from a vehicle event recorder (102, 200); a processor (306, 308, 310) configured to: determine an appropriate driver response based at least in part on the safety warning, wherein determining the appropriate driver response comprises looking up the safety warning in a lookup table to determine the appropriate driver response; determine a driver response, wherein the driver response is determined by processing the data from the vehicle event recorder; determine vehicle events providing coaching information; determine whether the driver response comprises the appropriate driver response by comparing the driver response and the appropriate driver response; and in the event the driver response does not comprise the appropriate driver response, indicating a driver error, wherein indicating the driver error comprises providing coaching information including the vehicle events providing coaching information. determine an appropriate driver response based at least in part on the safety warning, wherein determining the appropriate driver response comprises looking up the safety warning in a lookup table to determine the appropriate driver response; determine a driver response, wherein the driver response is determined by processing the data from the vehicle event recorder; determine vehicle events providing coaching information; determine whether the driver response comprises the appropriate driver response by comparing the driver response and the appropriate driver response; and in the event the driver response does not comprise the appropriate driver response, indicating a driver error, wherein indicating the driver error comprises providing coaching information including the vehicle events providing coaching information.
A controller for a hybrid electric vehicle having an engine and an electric machine, the controller being configured to determine the value of an EV-start SoC threshold in dependence on one or more vehicle state parameters indicative of the amount of charge the energy storage device is likely to be required to provide so as to drive the vehicle with the engine off, the controller being further configured, upon start-up to control the electric machine to provide torque to drive the vehicle with the engine off if the state of charge (SoC) of an energy storage device is above the EV-start SoC threshold and to start the engine if the SoC of the energy storage device is below the EV-start SoC threshold, wherein the EV-start SoC threshold comprises at least one of: a value sufficient to allow the vehicle to travel a prescribed distance before the SoC falls below a SoC minimum level at which the engine is started; and a value sufficient to allow the vehicle to operate for a prescribed time period before the SoC falls below the SoC minimum level.. a value sufficient to allow the vehicle to travel a prescribed distance before the SoC falls below a SoC minimum level at which the engine is started; and a value sufficient to allow the vehicle to operate for a prescribed time period before the SoC falls below the SoC minimum level..
A compressor housing, comprising: an upper cover; a lower shell; the upper cover and the lower shell each having a cylindrical shape with an elliptical horizontal cross section, and being engageable with each other by snap-fitting at the elliptical horizontal cross sections; the elliptical horizontal cross sections of the upper cover and the lower shell each having a major axial centerline and a minor axial centerline, and the respective major axial centerlines and the respective minor axial centerlines being aligned to coincide with each other when the upper cover and the lower shell are engaged; a cylinder bore for connecting a compressor cylinder block, characterized in that: the cylinder bore having a centerline being aligned to coincide with the major axial centerlines of the upper cover and the lower shell; a terminal pin located on the lower shell and symmetrically disposed with respect to a terminal pin bore centerline, wherein a top surface of the upper cover is a non-symmetric spherical contraction in which, a portion of the upper cover on a side of the terminal pin and a front side of the upper cover are higher than a rear side of the upper cover, wherein a bottom surface of the lower shell is a smooth ellipsoidal contraction surface with no curves inward like the interior of a sphere neither projections, and wherein the terminal pin bore centerline forms an angle with the major axial centerlines. an upper cover; a lower shell; the upper cover and the lower shell each having a cylindrical shape with an elliptical horizontal cross section, and being engageable with each other by snap-fitting at the elliptical horizontal cross sections; the elliptical horizontal cross sections of the upper cover and the lower shell each having a major axial centerline and a minor axial centerline, and the respective major axial centerlines and the respective minor axial centerlines being aligned to coincide with each other when the upper cover and the lower shell are engaged; a cylinder bore for connecting a compressor cylinder block, characterized in that: the cylinder bore having a centerline being aligned to coincide with the major axial centerlines of the upper cover and the lower shell; a terminal pin located on the lower shell and symmetrically disposed with respect to a terminal pin bore centerline, wherein a top surface of the upper cover is a non-symmetric spherical contraction in which, a portion of the upper cover on a side of the terminal pin and a front side of the upper cover are higher than a rear side of the upper cover, wherein a bottom surface of the lower shell is a smooth ellipsoidal contraction surface with no curves inward like the interior of a sphere neither projections, and wherein the terminal pin bore centerline forms an angle with the major axial centerlines.
A computer-implemented method comprising: obtaining a transcription of an utterance; determining, as a first value, a quantity of text samples in a collection of text samples that (i) include terms that match the transcription, and (ii) do not include any additional terms; determining, as a second value, a quantity of text samples in the collection of text samples that (i) include terms that match the transcription, and (ii) include one or more additional terms; and classifying the utterance as a likely incomplete utterance or not a likely incomplete utterance based at least on comparing the first value and the second value. obtaining a transcription of an utterance; determining, as a first value, a quantity of text samples in a collection of text samples that (i) include terms that match the transcription, and (ii) do not include any additional terms; determining, as a second value, a quantity of text samples in the collection of text samples that (i) include terms that match the transcription, and (ii) include one or more additional terms; and classifying the utterance as a likely incomplete utterance or not a likely incomplete utterance based at least on comparing the first value and the second value.
A non-aqueous electrolyte solution comprising LiFSO 3 and a compound of the formula LiZ wherein Z is PF 6, BF 4, N(FSO 2) 2, N(CF 3 SO 2) 2, N(C 2 F 5 SO 2) 2, PO 2 F 2, or the non-aqueous electrolyte solution having a molar content ratio [FSO 3]/ of FSO 3 [FSO 3] to Z of 3-1000.
Shoe comprising a midsole element to be mounted to an insole of the shoe, wherein the insole has an upper surface on one side facing the upper material of the shoe and a lower surface on the other side, wherein the midsole element has a upper surface facing the lower surface of the insole and a lower surface, wherein the midsole element comprises a core and a resilient compression element being softer than said core, wherein the core is in connection with the insole and is covered by said compression element in direction opposite the insole, wherein the midsole element is arranged in the region of the heel of the shoe and/or in the region of the forefoot, and wherein the surface of the core is curved as viewed in longitudinal direction extending horizontal from heel to toe and wherein the surface of the core is curved as viewed in lateral direction extending horizontal and orthogonal to the longitudinal direction, characterized in that the radius of the curved surface varies in longitudinal direction and/or in lateral direction, such that the core has an elliptical form in its cross-section or in that the radius of the curved surface is constant in longitudinal direction and/or in lateral direction, such that the core has the form of a segment of a circle in its cross-section.
A method comprising: receiving reconfiguration information requiring performing radio resource control reconfiguration without mobility control information, said reconfiguration information initiating both a media access control reset and a random access procedure; performing the media access control reset without performing a radio link control reset and a packet data convergence protocol reset; and performing, after performing said media access control reset without performing the radio link control reset and the packet data convergence protocol reset, the random access procedure. receiving reconfiguration information requiring performing radio resource control reconfiguration without mobility control information, said reconfiguration information initiating both a media access control reset and a random access procedure; performing the media access control reset without performing a radio link control reset and a packet data convergence protocol reset; and performing, after performing said media access control reset without performing the radio link control reset and the packet data convergence protocol reset, the random access procedure.