mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine engine comprising: a compressor section (24;101), a combustor (56;109), and a turbine section, said turbine section including a high pressure turbine first stage blade having an outer tip, a blade outer air seal positioned radially outwardly of said outer tip, and a tap for tapping air having been compressed by said compressor section (24;101); and a vane section having vanes downstream of said combustor (56;109), but upstream of said first stage blade, said tapped air passing radially inwardly of said combustor (56;109), along an axial length of said combustor (56;109), then radially outwardly through a hollow chamber in said vanes, and then across said blade outer air seal to cool said blade outer air seal, characterised in that: said tapped air having been compressed by said compressor section (24; 101) is passed through a heat exchanger for cooling said tapped air upstream of being passed radially inwardly of said combustor (56; 109); said vane section includes a plurality of vanes (120;126), with some of said vanes being static and other vanes being variable pitch; and said air passing across said blade outer air seal passes through said static vanes, but does not pass through said variable pitch vanes. a compressor section (24;101), a combustor (56;109), and a turbine section, said turbine section including a high pressure turbine first stage blade having an outer tip, a blade outer air seal positioned radially outwardly of said outer tip, and a tap for tapping air having been compressed by said compressor section (24;101); and a vane section having vanes downstream of said combustor (56;109), but upstream of said first stage blade, said tapped air passing radially inwardly of said combustor (56;109), along an axial length of said combustor (56;109), then radially outwardly through a hollow chamber in said vanes, and then across said blade outer air seal to cool said blade outer air seal, said tapped air having been compressed by said compressor section (24; 101) is passed through a heat exchanger for cooling said tapped air upstream of being passed radially inwardly of said combustor (56; 109); said vane section includes a plurality of vanes (120;126), with some of said vanes being static and other vanes being variable pitch; and said air passing across said blade outer air seal passes through said static vanes, but does not pass through said variable pitch vanes.
A method for manufacturing a stackable display package from a transport package for a plurality of containers, comprising - a front side, - a back side, - a top side, - a bottom side, - a first lateral surface and a second lateral surface, - wherein an opening aid is provided whose material weakening extends linearly over the front side, the two lateral surfaces (7, 8) and the top side and encloses a cover detachable from the transport package, wherein when the cover is detached, removal of at least one container from the transport package is enabled, - arid on the inwardly directed side of the unopened transport package, the top side does not rest on the containers, comprising the following steps: - detaching the cover from the transport package along the opening aid, - inserting the detached cover, rotated 180° around the vertical with respect to its original position in the state connected to the transport package, into the opening formed by the detached cover, wherein the front side of the cover, directed outward when the cover is in the state connected to the transport package, is directed into the interior of the transport package when the cover is in the state inserted into the opening. - a front side, - a back side, - a top side, - a bottom side, - a first lateral surface and a second lateral surface, - wherein an opening aid is provided whose material weakening extends linearly over the front side, the two lateral surfaces (7, 8) and the top side and encloses a cover detachable from the transport package, wherein when the cover is detached, removal of at least one container from the transport package is enabled, - arid on the inwardly directed side of the unopened transport package, the top side does not rest on the containers, - detaching the cover from the transport package along the opening aid, - inserting the detached cover, rotated 180° around the vertical with respect to its original position in the state connected to the transport package, into the opening formed by the detached cover, wherein the front side of the cover, directed outward when the cover is in the state connected to the transport package, is directed into the interior of the transport package when the cover is in the state inserted into the opening.
Wireless communication device for wireless communication in a wireless communication system which comprises a base station and a plurality of wireless communication devices arranged in clusters, wherein a unique cluster signature is assigned to each cluster and its wireless communication devices, wherein the wireless communication device is allocated to one of said clusters, wherein the wireless communication device comprises receiving means, storing means and transmission means wherein the receiving means is adapted to receive a unique cluster signature, and the storing means is adapted to store said received unique cluster signature, and the transmission means is adapted to transmit said unique cluster signature to another wireless communication device which is allocated to said one cluster as a head communication device when the wireless communication device switches to an active state, wherein the unique cluster signature is a compressed signature assigned to said one cluster from the base station and is different from Zadoff-Chu sequences used in an LTE random access procedure, wherein the activation state pattern of the communication devices is formulated as a block sparse signal, and active clusters and the number of active devices in each active cluster are detectable from a superposition of the unique cluster signatures of the active clusters and wherein the wireless communication device is adapted to access resources on the basis of resource allocation information, which is received from the head communication device in response to the transmission of said unique cluster signature to the head communication device.
A torsional damper that can be mounted rotatably about a rotational axis, - wherein the torsional damper has at least one input part, an energy storage element and an output part, - wherein the input part can be rotated about the axis of rotation relative to the output part against the action of the energy storage element, - wherein the output part has a driver element and an output flange having at least one circumferentially extending first flange portion and a second flange portion circumferentially adjacent to the first flange portion and extending in the circumferential direction, - wherein the output flange has a fastening end face extending over the first flange portion and the second flange portion, - wherein the driver element has at least one first connection portion extending in the radial direction, - wherein the first connection portion bears against the fastening end face and is connected to the second flange portion, - wherein the output flange has at least one first fastening receiver in the first flange portion, - wherein the fastening end face of the first flange portion is designed to bear against a bearing surface of a pendulum flange of a centrifugal pendulum and the first fastening receiver is designed to receive a first fastening means for fastening the pendulum flange in a rotationally fixed manner, characterised in that the first connection portion is designed radially on the outside of the driver element and at least in portions in a plane of rotation to the axis of rotation. - wherein the torsional damper has at least one input part, an energy storage element and an output part, - wherein the input part can be rotated about the axis of rotation relative to the output part against the action of the energy storage element, - wherein the output part has a driver element and an output flange having at least one circumferentially extending first flange portion and a second flange portion circumferentially adjacent to the first flange portion and extending in the circumferential direction, - wherein the output flange has a fastening end face extending over the first flange portion and the second flange portion, - wherein the driver element has at least one first connection portion extending in the radial direction, - wherein the first connection portion bears against the fastening end face and is connected to the second flange portion, - wherein the output flange has at least one first fastening receiver in the first flange portion, - wherein the fastening end face of the first flange portion is designed to bear against a bearing surface of a pendulum flange of a centrifugal pendulum and the first fastening receiver is designed to receive a first fastening means for fastening the pendulum flange in a rotationally fixed manner, characterised in that the first connection portion is designed radially on the outside of the driver element and at least in portions in a plane of rotation to the axis of rotation.
Method for coating a porous polymer film (15, 22, 42) for use as a separator film in Li batteries with a porous coating, characterised in that the method comprises the following steps: - laser pulses of a duration of 0,5 - 1000 ps are applied to a target, - inorganic material is detached from the target by laser ablation, - detached inorganic material is directed to at least one surface or part of the surface (15, 22, 42) of the polymer film, - a porous coating is produced on at least one surface or part of the surface (15, 22, 42) of the polymer film, the inorganic material attaching to the said surface of the polymer film, - the porosity of the inorganic coating is principally thorough, which makes possible that an electrolyte moistens the polymer film (15, 22, 42), and - the porosity of the inorganic porous coating is between 20 - 70 volumetric percentages. - laser pulses of a duration of 0,5 - 1000 ps are applied to a target, - inorganic material is detached from the target by laser ablation, - detached inorganic material is directed to at least one surface or part of the surface (15, 22, 42) of the polymer film, - a porous coating is produced on at least one surface or part of the surface (15, 22, 42) of the polymer film, the inorganic material attaching to the said surface of the polymer film, - the porosity of the inorganic coating is principally thorough, which makes possible that an electrolyte moistens the polymer film (15, 22, 42), and - the porosity of the inorganic porous coating is between 20 - 70 volumetric percentages.
An in vitro or ex vivo method for enhancing the activity of tyrosine kinase inhibitors in target cells, preferably mammalian cells, said method comprising contacting a cell with a tyrosine kinase inhibitor and a photosensitizing agent and irradiating said cell with light of a wavelength effective to activate the photosensitizing agent, wherein the photosensitizing agent is not a substrate for the ATP-binding cassette protein ABCG2 and is a di- or tetrasulfonated aluminium phthalocyanine, sulfonated tetraphenylporphine, sulfonated meso-tetraphenyl chlorin or sulfonated tetraphenyl bacteriochlorin, preferably TPPS 4, TPPS 2a, AIPcS 2a, FPCS 2a or TPBS 2a or a pharmaceutically acceptable salt thereof, preferably TPCS 2a, AlPcS 2a or TPBS 2a, and said tyrosine kinase inhibitor is lapatinib, sunitinib, imatinib, gefitinib, dasatinib, nilotinib, erlotinib, tyrphostin, sorafenib, bosutinib or a pharmaceutically acceptable salt thereof, preferably erlotinib, nilotinib or imatinib.
A water-soluble extract from a plant of Solanum genus for use in the treatment of warts on the skin or mucous of a human or animal subject, said water-soluble extract comprising solamargine and solasonine, and said water-soluble extract being obtainable by the following steps: (a) subjecting a plant material of a plant of Solanum genus to an extraction treatment using an acidic aqueous solution with a pH value of 3~5, such that an aqueous solution is obtained; (b) adjusting the pH value of the aqueous solution obtained in step (a) to pH 8-10 with a base, such that a precipitate is formed; (c) washing the precipitate formed in step (b) with water, followed by drying, such that a dried product is obtained; (d) admixing the dried product obtained in step (c) with chloroform, followed by addition of a suitable amount of a 100% alcohol, such that a chloroform-alcohol mixture is formed; (e) mixing the chloroform-alcohol mixture formed in step (d) with a water/alcohol solution having a predetermined water:alcohol ratio, such that a mixture containing a chloroform-based layer and a non-chloroform-based layer is obtained; (f) removing the chloroform-based layer from the mixture obtained in step (e), followed by addition of a suitable amount of water; and (g) obtaining a supernatant from the resultant mixture of step (f), followed by drying the supernatant, wherein the resultant dried product is able to be directly dissolved in water to form a yellowish clear and transparent aqueous solution. (a) subjecting a plant material of a plant of Solanum genus to an extraction treatment using an acidic aqueous solution with a pH value of 3~5, such that an aqueous solution is obtained; (b) adjusting the pH value of the aqueous solution obtained in step (a) to pH 8-10 with a base, such that a precipitate is formed; (c) washing the precipitate formed in step (b) with water, followed by drying, such that a dried product is obtained; (d) admixing the dried product obtained in step (c) with chloroform, followed by addition of a suitable amount of a 100% alcohol, such that a chloroform-alcohol mixture is formed; (e) mixing the chloroform-alcohol mixture formed in step (d) with a water/alcohol solution having a predetermined water:alcohol ratio, such that a mixture containing a chloroform-based layer and a non-chloroform-based layer is obtained; (f) removing the chloroform-based layer from the mixture obtained in step (e), followed by addition of a suitable amount of water; and (g) obtaining a supernatant from the resultant mixture of step (f), followed by drying the supernatant, wherein the resultant dried product is able to be directly dissolved in water to form a yellowish clear and transparent aqueous solution.
Apparatus for manufacturing a composite layer of a flexible pipe, comprising: a layer inspection station comprising at least one sensor, located downstream of and in an in-line configuration with an extrusion station or pultrusion station or winding station or deposition station for providing a tubular composite layer over an underlying substantially cylindrical surface via a continuous process; wherein the inspection station automatically and continuously determines if at least one parameter of the tubular composite layer satisfies a respective predetermined condition in at least one region of the tubular composite layer as the tubular composite layer is transported proximate to the inspection station and indicates in real time at least one of a type, size and/or location of a defect in the tubular composite layer; characterised in that the apparatus further comprises a repair station comprising at least one heater member and/or pressure applicator located downstream of, and in an in-line configuration with, the inspection station for selectively applying a repair cycle by applying a desired temperature and/or pressure at said at least one region. a layer inspection station comprising at least one sensor, located downstream of and in an in-line configuration with an extrusion station or pultrusion station or winding station or deposition station for providing a tubular composite layer over an underlying substantially cylindrical surface via a continuous process; wherein the inspection station automatically and continuously determines if at least one parameter of the tubular composite layer satisfies a respective predetermined condition in at least one region of the tubular composite layer as the tubular composite layer is transported proximate to the inspection station and indicates in real time at least one of a type, size and/or location of a defect in the tubular composite layer; characterised in that the apparatus further comprises a repair station comprising at least one heater member and/or pressure applicator located downstream of, and in an in-line configuration with, the inspection station for selectively applying a repair cycle by applying a desired temperature and/or pressure at said at least one region.
A method for monitoring and/or optimising injection moulding processes, wherein vibrations arising as a result of a flow of material, which is injected into a mould, are detected and evaluated, characterised in that a vibration spectrum is detected (quasi-) continuously and subjected to a multidimensional evaluation including a frequency-time analysis and a pattern recognition.
A controller for controlling a laser for irradiating an object with laser light, said controller comprising a power source arranged to supply power pulses (10, 11) to said laser, wherein said controller can determine a velocity and/or displacement of an object relative to said laser by means of a signal generated by an interaction between laser light reflected from the object and light emitted by the laser, characterized in that said controller is arranged to inhib one or more power pulses (10, 11) if the power of the signal generated by the interaction between laser light reflected from the object and light emitted by the laser is below a first threshold value or above a second threshold value.
Inhaler for discharging a preferably powdered formulation in multiple doses one after the other, with an outlet or mouthpiece for discharging the preferably nebulized or atomized formulation, with a cover moveable between a closed position covering the outlet or mouthpiece, and an open position uncovering the outlet or mouthpiece, with a life span blocking device for blocking further use or operation of the inhaler in a blocking state, in particular when operation or use of the inhaler reaches or exceeds a predetermined number of operations or uses, wherein the life span blocking device blocks movement or opening of the cover in the blocking state and wherein the life span blocking device comprises a locking element interlocking in its interlocking position the cover with a housing or another stationary component of the inhaler characterized in that the locking element is held in a non-interlocking position and released or forced into its interlocking position in the blocking state.
A storage device comprising: a nonvolatile memory device; and a storage controller configured to access the nonvolatile memory device based on a request of an external host device, wherein the storage controller is configured to send a signal to the external host device, depending on a used amount of throughput in accessing the nonvolatile memory device being within a specific range. a nonvolatile memory device; and a storage controller configured to access the nonvolatile memory device based on a request of an external host device, wherein the storage controller is configured to send a signal to the external host device, depending on a used amount of throughput in accessing the nonvolatile memory device being within a specific range.
A capability reporting method, comprising: reporting, by a terminal, proactively a positioning signal processing capability for a period of discontinuous reception, DRX, to a base station serving the terminal and/or to a positioning server; or, reporting, by the terminal, in response to a request of the positioning server, the positioning signal processing capability for the period of DRX to the base station serving the terminal and/or to the positioning server; wherein the period of DRX comprises a DRX sleep period; wherein the positioning signal processing capability for the period of DRX comprises one or more of following: a capability of supporting uplink positioning signal processing during the period of DRX; a capability of supporting uplink positioning signal transmission during the period of DRX; a capability of supporting downlink positioning signal processing during the period of DRX; a capability of not supporting uplink positioning signal processing during the period of DRX; a capability of not supporting uplink positioning signal transmission during the period of DRX; a capability of not supporting downlink positioning signal processing during the period of DRX. reporting, by a terminal, proactively a positioning signal processing capability for a period of discontinuous reception, DRX, to a base station serving the terminal and/or to a positioning server; or, reporting, by the terminal, in response to a request of the positioning server, the positioning signal processing capability for the period of DRX to the base station serving the terminal and/or to the positioning server; wherein the period of DRX comprises a DRX sleep period; wherein the positioning signal processing capability for the period of DRX comprises one or more of following: a capability of supporting uplink positioning signal processing during the period of DRX; a capability of supporting uplink positioning signal transmission during the period of DRX; a capability of supporting downlink positioning signal processing during the period of DRX; a capability of not supporting uplink positioning signal processing during the period of DRX; a capability of not supporting uplink positioning signal transmission during the period of DRX; a capability of not supporting downlink positioning signal processing during the period of DRX. a capability of supporting uplink positioning signal processing during the period of DRX; a capability of supporting uplink positioning signal transmission during the period of DRX; a capability of supporting downlink positioning signal processing during the period of DRX; a capability of not supporting uplink positioning signal processing during the period of DRX; a capability of not supporting uplink positioning signal transmission during the period of DRX; a capability of not supporting downlink positioning signal processing during the period of DRX.
A robot system comprising: a sensor configured to detect an interface of a liquid; a first arm including a holding mechanism that holds a container containing the liquid; a second arm including a holding mechanism that holds a suction implement that sucks the liquid; and an instructor adapted to instruct the first arm to cause the container to enter a sensing region of the sensor while holding the container, so as to cause the sensor to detect the interface, wherein the instructor is adapted to operate the second arm so as to cause the suction implement to suck the liquid from the container and to adjust an operation of the first arm so as to move the container upwardly so that a level of the interface of the liquid is made approximately constant according to an operation of the second arm based on a detection result of the sensor in a case where the interface of the liquid in the container is lowered. a sensor configured to detect an interface of a liquid; a first arm including a holding mechanism that holds a container containing the liquid; a second arm including a holding mechanism that holds a suction implement that sucks the liquid; and an instructor adapted to instruct the first arm to cause the container to enter a sensing region of the sensor while holding the container, so as to cause the sensor to detect the interface, wherein the instructor is adapted to operate the second arm so as to cause the suction implement to suck the liquid from the container and to adjust an operation of the first arm so as to move the container upwardly so that a level of the interface of the liquid is made approximately constant according to an operation of the second arm based on a detection result of the sensor in a case where the interface of the liquid in the container is lowered.