mhurhangee/ep-ind-claims huggingface dataset:
Turbine, in particular a gas turbine, the turbine comprising a supporting structure which extends along a circumferential direction of the turbine, wherein the supporting structure comprises a groove through which cooling air is guidable, wherein the groove extends along the circumferential direction, a first impingement ring element comprising a plurality of first cooling holes, a second impingement ring element comprising a plurality of second cooling holes, wherein the first impingement ring element and the second impingement ring element are mounted one after another along the circumferential direction to the groove such that the groove is covered by the first impingement ring element and the second impingement ring element, characterized in that the turbine further comprises a first coupling ring element which is arranged between the first impingement ring element and the second impingement ring element such that the groove is covered by the first coupling ring element between the first impingement ring element and the second impingement ring element, and wherein the first coupling ring element forms a sliding contact with the second impingement ring element such that a relative movement between the first coupling ring element and the second impingement ring element is providable, wherein the first coupling ring element comprises a second aperture such that the cooling air is flowable through the second aperture and some of the second cooling holes.
An organic light-emitting display (OLED) device, comprising: a lower substrate; a pixel area (A/A) where a plurality of pixels are disposed; a bezel area (B/A) surrounding the pixel area (A/A); a planarization layer disposed on a thin-film transistor that is located on the lower substrate; an organic light-emitting element disposed on the planarization layer and connected to the thin-film transistor through the planarization layer; a bank disposed on the planarization layer between non-emitting areas of the pixels and having a tapered shape; a spacer formed on the bank, wherein the spacer is made of the same material as the bank and a height of the spacer is between 1.5 μ m and 2.5 μ m; an anti-oxidation layer configured to cover the organic light-emitting element and to suppress oxidation thereof by oxygen (O 2) at least in the pixel area (A/A); an inorganic oxide encapsulation layer configured to cover the anti-oxidation layer; a first organic layer configured to cover the inorganic oxide encapsulation layer; and a first inorganic encapsulation layer configured to cover the first organic layer, wherein the anti-oxidation layer is formed by chemical vapor deposition, and wherein the anti-oxidation layer has a thickness of 0.1 μm to 0.9 μm. a lower substrate; a pixel area (A/A) where a plurality of pixels are disposed; a bezel area (B/A) surrounding the pixel area (A/A); a planarization layer disposed on a thin-film transistor that is located on the lower substrate; an organic light-emitting element disposed on the planarization layer and connected to the thin-film transistor through the planarization layer; a bank disposed on the planarization layer between non-emitting areas of the pixels and having a tapered shape; a spacer formed on the bank, wherein the spacer is made of the same material as the bank and a height of the spacer is between 1.5 μ m and 2.5 μ m; an anti-oxidation layer configured to cover the organic light-emitting element and to suppress oxidation thereof by oxygen (O 2) at least in the pixel area (A/A); an inorganic oxide encapsulation layer configured to cover the anti-oxidation layer; a first organic layer configured to cover the inorganic oxide encapsulation layer; and a first inorganic encapsulation layer configured to cover the first organic layer, wherein the anti-oxidation layer is formed by chemical vapor deposition, and wherein the anti-oxidation layer has a thickness of 0.1 μm to 0.9 μm.
Method for boosting a braking force in an electronically slip-controllable vehicle brake system, comprising an actuation device which can be acted on by a driver, a brake booster for boosting an actuation force which is applied by the driver, a master brake cylinder which can be acted on by the brake booster, a wheel brake which is connected to the master brake cylinder, and an electronic slip control device for modulating a brake pressure of the wheel brake, wherein the slip control device can be assigned an electronic control unit and a pressure generator which can be driven by a drive unit which can be actuated electronically, characterized in that a first input signal, which signals a brake request which is present, is registered and converted into a first evaluation signal by the electronic control unit, in particular when there is a fault in the brake booster, in that a second input signal, which represents a brake pressure in the pressure chamber of the master brake cylinder is registered and converted into a second evaluation signal, and in that a sum signal, which is set as the brake pressure by the slip control device by means of corresponding electronic actuation of the pressure generator, is determined by a mathematical addition of the first evaluation signal to the second evaluation signal.
A method of improving fatigue strength in a fan blade, the method comprising: fabricating a metal fan blade with an airfoil and a root, wherein the root comprises: a first pressure face and a second pressure face each angled outward from horizontal; a lower horizontal face connecting the pressure faces at the bottom of the root; and a first runout fillet and a second runout fillet connecting the first and the second pressure faces, respectively, to the airfoil. and characterised by deep peening the first pressure face, the second pressure face and the first and second runout fillets of the root with an intensity of 6C to 10C on the Almen scale by imparting compressive residual stress fields on the root through gas propelled shots. fabricating a metal fan blade with an airfoil and a root, wherein the root comprises: a first pressure face and a second pressure face each angled outward from horizontal; a lower horizontal face connecting the pressure faces at the bottom of the root; and a first runout fillet and a second runout fillet connecting the first and the second pressure faces, respectively, to the airfoil. a first pressure face and a second pressure face each angled outward from horizontal; a lower horizontal face connecting the pressure faces at the bottom of the root; and a first runout fillet and a second runout fillet connecting the first and the second pressure faces, respectively, to the airfoil. and characterised by deep peening the first pressure face, the second pressure face and the first and second runout fillets of the root with an intensity of 6C to 10C on the Almen scale by imparting compressive residual stress fields on the root through gas propelled shots.
An ultrasonic bone drilling instrument comprising: a tubular member having a longitudinal axis of symmetry; a distal tip and an outer surface; and a plurality of fins connected to said tubular member and extending in respective longitudinal planes each containing said axis; wherein the bone drilling instrument is an ultrasonic rotary blade or drill; characterized in that: said fins are planar and attached to said outer surface proximally of the distal tip of said tubular member; said fins each having a width (w1, w2), measured in the respective longitudinal plane perpendicularly to said axis, that increases from a minimum at a distal end portion of the respective fin, spaced in a proximal direction from the distal tip of said tubular member, to a maximum value (W max) at an intermediate point along the respective fin and then decreases on a proximal side of said intermediate point. a tubular member having a longitudinal axis of symmetry; a distal tip and an outer surface; and a plurality of fins connected to said tubular member and extending in respective longitudinal planes each containing said axis; wherein the bone drilling instrument is an ultrasonic rotary blade or drill; said fins are planar and attached to said outer surface proximally of the distal tip of said tubular member; said fins each having a width (w1, w2), measured in the respective longitudinal plane perpendicularly to said axis, that increases from a minimum at a distal end portion of the respective fin, spaced in a proximal direction from the distal tip of said tubular member, to a maximum value (W max) at an intermediate point along the respective fin and then decreases on a proximal side of said intermediate point.
A system to select digital platforms for execution of voice-based commands, comprising: a data processing system comprising at least one processor and memory to: receive, from a service provider device, an application that performs an action associated with a service via a plurality of digital platforms; debug the application to select a set of parameters of the action, wherein the selection comprises a comparison of parameters of the action for at least two platforms of the plurality of digital platforms; receive, via an interface of the data processing system, data packets comprising an input audio signal detected by a sensor of a client device; parse the input audio signal to identify the action and the service; select, based on a policy based on a record of computing resource utilization associated with different digital platforms maintained by the data processing system and based on the input audio signal, a first platform of the plurality of digital platforms to perform the action, wherein execution of the action via the first platform utilizes less computing resource compared to execution of the action via a second platform of the plurality of digital platforms; initiate, responsive to selection of the first platform, an interactive data exchange to populate parameters of an action data structure corresponding to the action, wherein the parameters of the action data structure comprise the set of parameters of the action; and execute the action via the selected platform using the action data structure. receive, from a service provider device, an application that performs an action associated with a service via a plurality of digital platforms; debug the application to select a set of parameters of the action, wherein the selection comprises a comparison of parameters of the action for at least two platforms of the plurality of digital platforms; receive, via an interface of the data processing system, data packets comprising an input audio signal detected by a sensor of a client device; parse the input audio signal to identify the action and the service; select, based on a policy based on a record of computing resource utilization associated with different digital platforms maintained by the data processing system and based on the input audio signal, a first platform of the plurality of digital platforms to perform the action, wherein execution of the action via the first platform utilizes less computing resource compared to execution of the action via a second platform of the plurality of digital platforms; initiate, responsive to selection of the first platform, an interactive data exchange to populate parameters of an action data structure corresponding to the action, wherein the parameters of the action data structure comprise the set of parameters of the action; and execute the action via the selected platform using the action data structure.
Method for additive manufacturing of workpieces (10; 22; 57; 78), comprising: providing (30, 31) manufacturing data for a workpiece (10; 22; 57; 78), simulating the manufacturing of the workpiece (10; 22; 57; 78), simulating test results during the manufacturing on the basis of the simulated manufacturing, adding a next group of layers to the workpiece (10; 22; 57; 78), testing the group of layers in order to obtain measured test results, evaluating the testing on the basis of the simulated test results and the corresponding measured test results, repeating the adding, the testing and the evaluating if the evaluating indicates acceptable manufacturing, and implementing a measure if the evaluating indicates unacceptable manufacturing, wherein the testing comprises carrying out a laser ultrasound method, and/or wherein the testing comprises carrying out electronic laser speckle interferometry, and/or wherein the testing comprises carrying out infrared thermography, and/or wherein the testing comprises carrying out an x-ray examination. providing (30, 31) manufacturing data for a workpiece (10; 22; 57; 78), simulating the manufacturing of the workpiece (10; 22; 57; 78), simulating test results during the manufacturing on the basis of the simulated manufacturing, adding a next group of layers to the workpiece (10; 22; 57; 78), testing the group of layers in order to obtain measured test results, evaluating the testing on the basis of the simulated test results and the corresponding measured test results, repeating the adding, the testing and the evaluating if the evaluating indicates acceptable manufacturing, and implementing a measure if the evaluating indicates unacceptable manufacturing, wherein the testing comprises carrying out a laser ultrasound method, and/or wherein the testing comprises carrying out electronic laser speckle interferometry, and/or wherein the testing comprises carrying out infrared thermography, and/or wherein the testing comprises carrying out an x-ray examination.
A quantum dot binding-ligand having a structure according to Formula I wherein: A is a polyhedral oligomeric silsesquioxane (POSS) moiety comprising 6 to 12 silicon atoms; each group -O-Si(R 1) 2 -L-(R 2) q is bound to a silicon atom in the POSS moiety; each R 1 is independently selected from the group consisting of H and C 1-6 alkyl; each -L-(R 2) q group is independently selected from the group consisting of C 3-8 alkylene-(R 2) 2, and C 3-8 alkylene-(C NH-C 2-8 alkylene-R 2) 2; each R 2 is independently selected from the group consisting of C OH and NR 2a R 2b, wherein R 2a and R 2b are each independently selected from the group consisting of H and C 1-6 alkyl; each R 3 is independently selected from the group consisting of C 8-20 alkyl, C 8-20 heteroalkyl, C 8-20 alkenyl, C 8-20 alkynyl, cycloalkyl, and aryl; the subscript m is an integer from 1 to 20; and the subscript n is an integer from 1 to 20. A is a polyhedral oligomeric silsesquioxane (POSS) moiety comprising 6 to 12 silicon atoms; each group -O-Si(R 1) 2 -L-(R 2) q is bound to a silicon atom in the POSS moiety; each R 1 is independently selected from the group consisting of H and C 1-6 alkyl; each -L-(R 2) q group is independently selected from the group consisting of C 3-8 alkylene-(R 2) 2, and C 3-8 alkylene-(C NH-C 2-8 alkylene-R 2) 2; each R 2 is independently selected from the group consisting of C OH and NR 2a R 2b, wherein R 2a and R 2b are each independently selected from the group consisting of H and C 1-6 alkyl; each R 3 is independently selected from the group consisting of C 8-20 alkyl, C 8-20 heteroalkyl, C 8-20 alkenyl, C 8-20 alkynyl, cycloalkyl, and aryl; the subscript m is an integer from 1 to 20; and the subscript n is an integer from 1 to 20.
3D lidar sensor, in particular for motor vehicles, having a laser beam source, an optical receiver and a scanning system for deflecting a laser beam created by the laser beam source in two mutually perpendicular scanning directions, wherein a further detection device for deviations from normal operation is provided in the 3D lidar sensor, wherein the detection device is arranged inside a housing of the 3D lidar sensor or at an outlet opening, wherein the detection device comprises light sensors, wherein either the light sensors are arranged on an intermediate plane and/or at the outlet opening such that the light sensors are not irradiated during normal operation of the laser beam source and the scanning system and this allows detection of whether the emitted laser beam is actually transmitted in the desired direction, wherein the laser beam or the scanning system can be identified as maladjusted in the event of the light sensors being irradiated, or wherein the light sensors are arranged at the edge of the outlet opening or in the region of the intermediate plane such that the light sensors are irradiated during normal operation of the laser beam source and the scanning system and this allows detection of whether the emitted laser beam is actually transmitted in the desired direction, wherein the laser beam or the scanning system can be identified as maladjusted in the event of the light sensors not being irradiated, and wherein an error message is output when the laser beam or the scanning system is recognized as being maladjusted. wherein either the light sensors are arranged on an intermediate plane and/or at the outlet opening such that the light sensors are not irradiated during normal operation of the laser beam source and the scanning system and this allows detection of whether the emitted laser beam is actually transmitted in the desired direction, wherein the laser beam or the scanning system can be identified as maladjusted in the event of the light sensors being irradiated, or wherein the light sensors are arranged at the edge of the outlet opening or in the region of the intermediate plane such that the light sensors are irradiated during normal operation of the laser beam source and the scanning system and this allows detection of whether the emitted laser beam is actually transmitted in the desired direction, wherein the laser beam or the scanning system can be identified as maladjusted in the event of the light sensors not being irradiated, and wherein an error message is output when the laser beam or the scanning system is recognized as being maladjusted.
An isolated polypeptide having cellobiohydrolase activity, comprising an amino acid sequence having at least 98% identity to the mature polypeptide of SEQ ID NO: 2.
Device for treating a running-surface coating of a piece of winter sports equipment, preferably of a ski or snowboard, comprising: - at least one movement device for generating a relative movement between the device and the running-surface coating of the piece of winter sports equipment, - at least one application device for applying a ski wax to the running-surface coating of the piece of winter sports equipment, - at least one heating device for heating the ski wax applied to the running-surface coating of the piece of winter sports equipment to above the melting temperature of the ski wax, and characterized in that - at least one cooling device for actively cooling the ski wax melted by the heating device to below the solidification temperature of the ski wax is provided. - at least one movement device for generating a relative movement between the device and the running-surface coating of the piece of winter sports equipment, - at least one application device for applying a ski wax to the running-surface coating of the piece of winter sports equipment, - at least one heating device for heating the ski wax applied to the running-surface coating of the piece of winter sports equipment to above the melting temperature of the ski wax, and characterized in that - at least one cooling device for actively cooling the ski wax melted by the heating device to below the solidification temperature of the ski wax is provided.
A method of manufacturing a steering wheel including a cover (10; 10') comprising the steps of: - providing a leather cut or a true skin having a front side and a rear side; - providing a heat sealable laminar structure (12; 12'); - laminating the heat sealable laminar structure (12; 12') onto the rear side of the leather cut or the true skin; and - applying the cover (10; 10') to a steering wheel base, characterized in that the heat sealable laminar structure (12; 12') includes a biaxially extendable layer or a laminar structure including a biaxially extendable layer. - providing a leather cut or a true skin having a front side and a rear side; - providing a heat sealable laminar structure (12; 12'); - laminating the heat sealable laminar structure (12; 12') onto the rear side of the leather cut or the true skin; and - applying the cover (10; 10') to a steering wheel base, characterized in that the heat sealable laminar structure (12; 12') includes a biaxially extendable layer or a laminar structure including a biaxially extendable layer.
A capacitive transducer comprising: a substrate; at least one cell formed on the substrate and configured to include a first electrode and a vibrating membrane including a second electrode provided so as to be apart from the first electrode with a cavity sandwiched between the first electrode and the second electrode; a silicone rubber layer; an electrostatic shield provided on the cell via the silicone rubber layer; and a conductive line (107, 301) connected to the first electrode and a conductive line (108, 302) connected to the second electrode, wherein the first electrode, the conductive line (107, 301) connected to the first electrode, the second electrode and the conductive line (108, 302) connected to the second electrode are sandwiched between the electrostatic shield and the substrate. a substrate; at least one cell formed on the substrate and configured to include a first electrode and a vibrating membrane including a second electrode provided so as to be apart from the first electrode with a cavity sandwiched between the first electrode and the second electrode; a silicone rubber layer; an electrostatic shield provided on the cell via the silicone rubber layer; and a conductive line (107, 301) connected to the first electrode and a conductive line (108, 302) connected to the second electrode, wherein the first electrode, the conductive line (107, 301) connected to the first electrode, the second electrode and the conductive line (108, 302) connected to the second electrode are sandwiched between the electrostatic shield and the substrate.