mhurhangee/ep-ind-claims huggingface dataset:
A method for a user equipment, UE, (160, 180) in an idle mode to report logged minimization of drive tests, MDT, measurement data, comprising: transmitting, in the idle mode, a first preamble of a first random access procedure; receiving, in the idle mode, a first random access response, RAR, of the first random access procedure, which indicates a first uplink resource and a dedicated indicator; transmitting, in the idle mode, a second preamble of a second random access procedure at the first uplink resource; receiving, in the idle mode, a second RAR of the second random access procedure, which indicates a second uplink resource; transmitting, in the idle mode, a request message at the second uplink resource; receiving, in the idle mode, a response message comprising a scheduling plan indicating a third uplink resource to report the logged MDT measurement data; and transmitting, in the idle mode, the logged MDT measurement data at the third uplink resource. transmitting, in the idle mode, a first preamble of a first random access procedure; receiving, in the idle mode, a first random access response, RAR, of the first random access procedure, which indicates a first uplink resource and a dedicated indicator; transmitting, in the idle mode, a second preamble of a second random access procedure at the first uplink resource; receiving, in the idle mode, a second RAR of the second random access procedure, which indicates a second uplink resource; transmitting, in the idle mode, a request message at the second uplink resource; receiving, in the idle mode, a response message comprising a scheduling plan indicating a third uplink resource to report the logged MDT measurement data; and transmitting, in the idle mode, the logged MDT measurement data at the third uplink resource.
A stable pharmaceutical formulation for oral administration comprising from 0.1 to 50 % w/w of a cannabinoid; from 0.1 to 40 % w/w of a polyethylene glycol; from 0.1 to 50 % w/w of propylene glycol; and optionally from 0.1 to 20 % w/w of water, wherein the formulation does not contain alcohol and the formulation has a pH of from 5 to 8. from 0.1 to 50 % w/w of a cannabinoid; from 0.1 to 40 % w/w of a polyethylene glycol; from 0.1 to 50 % w/w of propylene glycol; and optionally from 0.1 to 20 % w/w of water, wherein the formulation does not contain alcohol and the formulation has a pH of from 5 to 8.
A method for forming a coating using plasma spray physical vapor deposition, the method comprising: generating a plasma plume via a plasma spray device, wherein the plasma plume includes vaporized coating material; positioning a funnel having an inlet opening and a smaller outlet opening relative to the plasma spray device such that the plasma plume including the vaporized coating material enters through the inlet opening and is directed by the funnel out of the outlet opening; and positioning the outlet opening of the funnel to be aligned with an internal cavity opening of a component having an internal cavity; wherein when the outlet opening is aligned with the internal cavity opening, the plasma plume directed out of the outlet opening is configured to enter the internal cavity through the internal cavity opening to form a coating on a surface of the internal cavity of the component. generating a plasma plume via a plasma spray device, wherein the plasma plume includes vaporized coating material; positioning a funnel having an inlet opening and a smaller outlet opening relative to the plasma spray device such that the plasma plume including the vaporized coating material enters through the inlet opening and is directed by the funnel out of the outlet opening; and positioning the outlet opening of the funnel to be aligned with an internal cavity opening of a component having an internal cavity; wherein when the outlet opening is aligned with the internal cavity opening, the plasma plume directed out of the outlet opening is configured to enter the internal cavity through the internal cavity opening to form a coating on a surface of the internal cavity of the component.
An air conditioning system comprising: a shaft; a first turbine comprising a plurality of inlet gas flow paths and an exit where the plurality of inlet gas flow paths combine, the plurality of inlet gas flow paths comprising an inner flow path and an outer flow path, the first turbine being located at a first end of the shaft and configured to mix alternative medium flows at the exit of the first turbine during low altitude flight operations, such as ground idle, taxi, take-off, and hold conditions, the alternative medium flows being bleed air sourced from a turbine engine or an auxiliary power unit and fresh air sourced from a scooping mechanism, the inner flow path receiving the bleed air or the fresh air, and the outer flow path receiving a remaining one of the bleed air and the fresh air; a compressor driven by the first turbine from the shaft; a second turbine connected to the compressor by the shaft and configured to receive cabin discharge air from an aircraft cabin that has been heated by air leaving the compressor; and a fan driven by the second turbine; wherein the inner flow path is at a first diameter and the outer flow path is at a second diameter. a shaft; a first turbine comprising a plurality of inlet gas flow paths and an exit where the plurality of inlet gas flow paths combine, the plurality of inlet gas flow paths comprising an inner flow path and an outer flow path, the first turbine being located at a first end of the shaft and configured to mix alternative medium flows at the exit of the first turbine during low altitude flight operations, such as ground idle, taxi, take-off, and hold conditions, the alternative medium flows being bleed air sourced from a turbine engine or an auxiliary power unit and fresh air sourced from a scooping mechanism, the inner flow path receiving the bleed air or the fresh air, and the outer flow path receiving a remaining one of the bleed air and the fresh air; a compressor driven by the first turbine from the shaft; a second turbine connected to the compressor by the shaft and configured to receive cabin discharge air from an aircraft cabin that has been heated by air leaving the compressor; and a fan driven by the second turbine; wherein the inner flow path is at a first diameter and the outer flow path is at a second diameter.
A cartridge detachably mountable to a main assembly of an image forming apparatus, said main assembly including an inclinable drive transmission member (81; 881; 1081) for transmitting a driving force in said cartridge, said cartridge comprising: a photosensitive drum, characterized in that the cartridge further comprises a movable member (64; 264; 764; 630; 864; 301; 305; 402; 412; 422; 432; 1001; 1101; 1201; 1312) movable relative to said photosensitive drum to control an inclination angle of the drive transmission member (81; 881; 1081), said movable member (64; 264; 764; 630; 864; 301; 305; 402; 412; 422; 432; 1001; 1101; 1201; 1312) being movable between (a) a first position for reducing the inclination angle of said drive transmission member (81; 881; 1081) relative to said photosensitive drum and (b) a second position retracted from the first position. a photosensitive drum, characterized in that the cartridge further comprises a movable member (64; 264; 764; 630; 864; 301; 305; 402; 412; 422; 432; 1001; 1101; 1201; 1312) movable relative to said photosensitive drum to control an inclination angle of the drive transmission member (81; 881; 1081), said movable member (64; 264; 764; 630; 864; 301; 305; 402; 412; 422; 432; 1001; 1101; 1201; 1312) being movable between (a) a first position for reducing the inclination angle of said drive transmission member (81; 881; 1081) relative to said photosensitive drum and (b) a second position retracted from the first position.
A turbine comprising: a rotor including an outer surface and at least one bucket extending radially from said outer surface; a stator having at least one stationary nozzle vane (34, 36) and defining a main casing 12 for the rotor; a seal assembly including a flange portion (28, 30, 32) extending in an axial direction of the rotor from a distal end portion of said nozzle vane, and a seal plate member (14, 16, 18) extending in an axial direction of the rotor from said bucket for defining a clearance gap with said flange portion (28, 30, 32); and characterized by an abradable coating applied to one of said flange portion (28, 30, 32) or said seal plate member (14, 16, 18) so as to be disposed within the clearance gap, thereby defining a seal gap between said flange portion and said seal plate member, wherein the abradable coating has a thickness of 1.27 mm (50 mils). a rotor including an outer surface and at least one bucket extending radially from said outer surface; a stator having at least one stationary nozzle vane (34, 36) and defining a main casing 12 for the rotor; a seal assembly including a flange portion (28, 30, 32) extending in an axial direction of the rotor from a distal end portion of said nozzle vane, and a seal plate member (14, 16, 18) extending in an axial direction of the rotor from said bucket for defining a clearance gap with said flange portion (28, 30, 32); and characterized by an abradable coating applied to one of said flange portion (28, 30, 32) or said seal plate member (14, 16, 18) so as to be disposed within the clearance gap, thereby defining a seal gap between said flange portion and said seal plate member, wherein the abradable coating has a thickness of 1.27 mm (50 mils).
Cable comprising an elongated conducting element and a self-healing material surrounding said elongated conducting element, characterized in that the self-healing material is a cross-linked material obtained from a polymeric composition comprising: A. a polymer matrix comprising at least one olefin polymer with hydrophilic moiety, and B. at least one amphiphilic compound, as self-healing additive, said polymeric composition comprising at least 10% by weight of amphiphilic compound(s) B over the total weight of the polymeric composition. A. a polymer matrix comprising at least one olefin polymer with hydrophilic moiety, and B. at least one amphiphilic compound, as self-healing additive,
Apparatus for determining centration parameters, comprising a camera carrier, which partly encloses an interior that is open to the top, to the bottom and to a rear side and which carries at least three cameras (16a, 16b) which are arranged between two free ends of the camera carrier and directed onto the interior, wherein the camera carrier has an illumination device (32, 34, 36) for illuminating the interior, characterized in that the illumination device (32, 34, 36) is configured to fully illuminate the interior such that the light intensity deviates from a specified target value of 1000 lux by at most +50% and -30% at least at every point of a region extending over a height of 20 cm and a centre angle of 180 degrees of a lateral surface of a cylinder, arranged in the interior, with a diameter of 20 cm, and in that an open-loop or closed-loop control device is provided for controlling or regulating the light intensity of the light-emitting means in dependence on the brightness in the interior taking into account an incidence of extraneous light.
A medical system comprising: an optical fiber configured for optical shape sensing; a supporting element configured to support at least a portion of the optical fiber; an interface element configured to generate user input by interacting with the optical fiber associated with the supporting element to cause a change in a property of the fiber; a sensing module configured to interpret an optical signal to determine changes in the property of the fiber and accordingly generate a corresponding trigger signal, and configured to trigger an event using the trigger signal, in response to said user input, wherein the portion of the optical fiber, the supporting element, the interface element and the sensing module form a triggering device; and a medical instrument which includes the optical fiber, the medical instrument being tracked by said optical shape sensing. an optical fiber configured for optical shape sensing; a supporting element configured to support at least a portion of the optical fiber; an interface element configured to generate user input by interacting with the optical fiber associated with the supporting element to cause a change in a property of the fiber; a sensing module configured to interpret an optical signal to determine changes in the property of the fiber and accordingly generate a corresponding trigger signal, and configured to trigger an event using the trigger signal, in response to said user input, wherein the portion of the optical fiber, the supporting element, the interface element and the sensing module form a triggering device; and a medical instrument which includes the optical fiber, the medical instrument being tracked by said optical shape sensing.
Fitting of a wing that can at least be lifted or tilted, but preferably can be displaced in relation to a fixed frame of a window or door, having a guide rail, wherein, on the vertical wing spar inside a fitting groove of the wing, an actuating rod assembly is located, which has a drive rod, which by means of an actuation member can be displaced upwardly for lowering the wing, and which by way of a corner deflection transfers the displacement to at least one coupled slide mechanism, wherein the fitting has a locking device, which by means of a housing can be fastened to the actuating rod assembly inside the fitting groove and which can be coupled to the actuating rod assembly by way of a guide part, wherein the guide part can be moved by actuating the drive rod of the actuating rod assembly and transfers a pivot latch, which is controlled on the guide part by means of an actuator guide and which is rotatably mounted on the housing of the locking device via a pivot point, from an opening position located in a concealed manner in the housing inside the actuating rod assembly, raised and displaced in relation to the fixed frame of the wing into a locked position or gap opening position, with the lowering of the wing in relation to the frame into a free operating field, held securely by the wing in relation to the frame, wherein the pivot latch has a first connecting link, which during the transition into the locked position is in form-fit engagement with a peg, which is arranged on the locking engagement of the fitting which can be secured to the frame, characterized in that the pivot latch has a second connecting link, which, extending nearly in parallel with the first connecting link, is arranged at the end that is more distant from the point of rotation and, in engagement with the peg, forms the gap opening position.
Connection of a tool stalk to a tool bracket for guiding an agricultural soil working tool, wherein the tool stalk is at least partially enclosed at a first end by the tool bracket, wherein the tool bracket has at its tool bracket end an opening for insertion and for receiving the tool stalk, which is formed at least approximately corresponding to the cross-section of the tool stalk, the tool bracket having a larger cross-section on the side opposite the tool bracket end, as a result of which the tool stalk can be moved and arranged from a first to a second angular position relative to the tool bracket, the tool stalk having recesses (7, 8) for receiving a locking means, characterized in that a first and a second surface (10, 11) of the tool bracket are provided and constructed as abutment surfaces for the locking means in the first or second angular position of the tool stalk at least partially converging towards one another and in a tapering form towards the opening of the tool bracket, the locking means being provided and designed as the only means for adjusting and fixing different angular positions of the soil working tool and also for exchanging the soil working tools in a movable or insertable manner.
A compound of formula II or a pharmaceutically acceptable salt of said compound; wherein R 1 is a) -(C 2 -C 4)alkyl, b) -CH 2 -CH=CH 2 or c) -phenyl; R 2 is -OH; R 3 is a) -(C 1 -C 6)alkyl substituted with 0 or 1 CF 3, b) -C≡C-CH 3, c) -C≡C-Cl, d) -C≡C-CF 3, e) -CH 2 O(C 1 -C 3)alkyl substituted with 0 or 1 CF 3, or f) -CF 3; R 10 is -OH or -CN. wherein R 1 is a) -(C 2 -C 4)alkyl, b) -CH 2 -CH=CH 2 or c) -phenyl; R 2 is -OH; R 3 is a) -(C 1 -C 6)alkyl substituted with 0 or 1 CF 3, b) -C≡C-CH 3, c) -C≡C-Cl, d) -C≡C-CF 3, e) -CH 2 O(C 1 -C 3)alkyl substituted with 0 or 1 CF 3, or f) -CF 3; R 10 is -OH or -CN.
A method for passing an electrical cable through a hole in a housing of a unit of electrical equipment, the method comprising: - fitting onto the cable a tubular, mushroom-shaped male member comprising a stem with a threaded portion and a portion with enlarged head, - inserting into the hole the cable having the male member fitted thereon extending through said hole with said portion with enlarged head abutting against the periphery of the hole externally to the housing and said threaded portion protruding inside the housing, and - retaining said male member in the hole by coupling with said threaded portion that protrudes inside the housing an annular female member in the form of a nut co-operating with the periphery of the hole inside said housing to counter the movement of the female member with respect to the housing, characterized in that the method comprises co-molding said male member onto said cable. - fitting onto the cable a tubular, mushroom-shaped male member comprising a stem with a threaded portion and a portion with enlarged head, - inserting into the hole the cable having the male member fitted thereon extending through said hole with said portion with enlarged head abutting against the periphery of the hole externally to the housing and said threaded portion protruding inside the housing, and - retaining said male member in the hole by coupling with said threaded portion that protrudes inside the housing an annular female member in the form of a nut co-operating with the periphery of the hole inside said housing to counter the movement of the female member with respect to the housing,
A method of implementing a spiking neural network with a data processing apparatus comprising a processor, having a plurality of contiguous layers partitioned into a plurality of frustums using a first partitioning, wherein each frustum includes a rectangular intersection, defining a tile, with each partitioned layer of the spiking neural network, and wherein each tile of each partitioned layer includes a portion of each feature map of that partitioned layer, the method comprising: reading, using the processor, a first tile of a first layer of the spiking neural network into an internal memory of the processor; and generating, using the processor, a first tile of a second layer of the spiking neural network using the first tile of the first layer while storing intermediate data within the internal memory of the processor; the first tile of the first layer and the first tile of the second layer belonging to a same frustum, wherein the first tile of the second layer is generated for a plurality of time intervals prior to generating another tile. reading, using the processor, a first tile of a first layer of the spiking neural network into an internal memory of the processor; and generating, using the processor, a first tile of a second layer of the spiking neural network using the first tile of the first layer while storing intermediate data within the internal memory of the processor; the first tile of the first layer and the first tile of the second layer belonging to a same frustum, wherein the first tile of the second layer is generated for a plurality of time intervals prior to generating another tile.
Pressure sensor characterized in that it comprises: • a first textile element (2, 22) comprising a first group of optical fibers including on their peripheral surface alterations allowing light to be captured laterally in at least one capturing zone of the textile element (2, 22), the optical fibers of the first group being grouped together into at least one bundle on at least one border of the textile element (2, 22); • at least one photosensitive element arranged facing at least one end of at least one bundle of optical fibers of the first group and allowing the generation of an electrical signal as a function of the variation in light intensity captured laterally by the optical fibers in said capturing zone of the first textile element (2, 22); • a second textile element comprising another group of optical fibers comprising on their peripheral surface alterations allowing the lateral emission of light from at least one emission zone arranged facing the capturing zone of the first group of optical fibers of the textile web, the optical fibers of the said other group being grouped together into at least one bundle on at least one border of the second textile element; • a light-permeable layer (210, 220) arranged between the two textile elements and and capable of elastically deforming in order to enable a closing together of the two textile elements (2, 202) when an effort is applied to said pressure sensor. • a first textile element (2, 22) comprising a first group of optical fibers including on their peripheral surface alterations allowing light to be captured laterally in at least one capturing zone of the textile element (2, 22), the optical fibers of the first group being grouped together into at least one bundle on at least one border of the textile element (2, 22); • at least one photosensitive element arranged facing at least one end of at least one bundle of optical fibers of the first group and allowing the generation of an electrical signal as a function of the variation in light intensity captured laterally by the optical fibers in said capturing zone of the first textile element (2, 22); • a second textile element comprising another group of optical fibers comprising on their peripheral surface alterations allowing the lateral emission of light from at least one emission zone arranged facing the capturing zone of the first group of optical fibers of the textile web, the optical fibers of the said other group being grouped together into at least one bundle on at least one border of the second textile element; • a light-permeable layer (210, 220) arranged between the two textile elements and and capable of elastically deforming in order to enable a closing together of the two textile elements (2, 202) when an effort is applied to said pressure sensor.