mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a gas turbine engine ceramic matrix composite component with cooling features, comprising: forming a preform tape; laying up said preform tape to a desired shape; placing a high-temperature resistant fugitive material insert of preselected geometry in said preform tape to form a preformed lay-up; compacting said preformed lay-up; pyrolyzing said compacted preformed lay-up by burning out said preform tape to form a porous preform; melt infiltrating said porous preform with molten silicon to form a silicon-based ceramic that forms said ceramic matrix composite component; wherein the method comprises forming said cooling features by removing said high-temperature resistant fugitive material insert during or following one of said burning out or said melt infiltrating. forming a preform tape; laying up said preform tape to a desired shape; placing a high-temperature resistant fugitive material insert of preselected geometry in said preform tape to form a preformed lay-up; compacting said preformed lay-up; pyrolyzing said compacted preformed lay-up by burning out said preform tape to form a porous preform; melt infiltrating said porous preform with molten silicon to form a silicon-based ceramic that forms said ceramic matrix composite component; wherein the method comprises forming said cooling features by removing said high-temperature resistant fugitive material insert during or following one of said burning out or said melt infiltrating.
An apparatus for providing a processed audio signal representation on the basis of input audio signal representation, wherein the apparatus is configured to apply an un-windowing, in order to provide the processed audio signal representation on the basis of the input audio signal representation, wherein the apparatus is configured to adapt the un-windowing in dependence on one or more signal characteristics (140, 140 1 to 140 4) and/or in dependence on one or more processing parameters (150, 150 1 to 150 4) used for a provision of the input audio signal representation, wherein the un-windowing at least partially reverses an analysis windowing used for a provision of the input audio signal representation, wherein the apparatus is configured to at least partially remove a DC component of the input audio signal representation. wherein the apparatus is configured to apply an un-windowing, in order to provide the processed audio signal representation on the basis of the input audio signal representation, wherein the apparatus is configured to adapt the un-windowing in dependence on one or more signal characteristics (140, 140 1 to 140 4) and/or in dependence on one or more processing parameters (150, 150 1 to 150 4) used for a provision of the input audio signal representation, wherein the un-windowing at least partially reverses an analysis windowing used for a provision of the input audio signal representation, wherein the apparatus is configured to at least partially remove a DC component of the input audio signal representation.
Device for aerating liquids with at least one tubular linear aerator (10, 10A, 11, 11A, 12, 12A, 13, 13A, 14, 14A, 35, 36, 90, 95, 102, 103) which, in its tube wall, has at least one outlet opening (1, 1A, 2, 2A, 3) which is suitable for introducing an aerating medium into a surrounding liquid, the linear aerator (10, 10A, 11, 11A, 12, 12A, 13, 13A, 14, 14A, 35, 36, 90, 95, 102, 103) being connected at at least one of its ends to a further component of the device, characterized in that the connection between the linear aerator (10, 10A, 11, 11A, 12, 12A, 13, 13A, 14, 14A, 35, 36, 90, 95, 102, 103) and the further component is established via a combined plug-in and screw connection which comprises a connecting piece and a seal (5, 5A, 7), the combined plug-in and screw connection being realised by virtue of the fact that the seal (5, 5A, 7) is arranged in the one end of the connecting piece, the other end of the connecting piece is provided with a thread and is screwed to the further component, and the end of the linear aerator is plugged into the seal (5, 5A, 7).
Multiaxial product having at least three thread layers, wherein each of the thread layers is formed by multifilament reinforcing yarns arranged alongside and parallel to another within the thread layers, wherein at least two thread layers within the multiaxial product are arranged such that they define a 0° direction within the multiaxial product and wherein the at least one further fibre layer is arranged at an angle of more than ± 10° to the 0° direction within the multiaxial product, wherein the at least two thread layers in 0° direction with regard to the arrangement of the at least three thread layers with regard to one another within the multiaxial product are consecutive to one another directly without a further layer of multifilament reinforcing yarns therebetween.
A method for generating a Bokeh effect for a digitally captured image (400, 400b), the method comprising: identifying a region of interest as a person by executing a face detection algorithm in a camera application, wherein a non-interest region includes a plurality of non-interest regions (410a, 410b, 410c) where a the face detection algorithm has not detected a person; receiving instructions to capture an image (400, 400b) after the region of interest is identified; storing (308A, 310) the image in memory (120, 212), wherein information defining the region of interest is stored as metadata associated with the image, wherein the metadata further contains region definition information defining the plurality of non-interest regions (410a, 410b, 410c); retrieving the image from a memory along with metadata associated with the image; applying blur to each said non-interest region (410a, 410b, 410c) to generate a first blurred image; and displaying the first blurred image on a display, the method further comprising, after generating the first blurred image: receiving at least one selection of a desired amount of blurring; applying different amounts of blurring to the non-interest regions (410a, 410b, 410c) based on the at least one selection of a desired amount of blurring for generating a second blurred image; and displaying the second blurred image on the display. identifying a region of interest as a person by executing a face detection algorithm in a camera application, wherein a non-interest region includes a plurality of non-interest regions (410a, 410b, 410c) where a the face detection algorithm has not detected a person; receiving instructions to capture an image (400, 400b) after the region of interest is identified; storing (308A, 310) the image in memory (120, 212), wherein information defining the region of interest is stored as metadata associated with the image, wherein the metadata further contains region definition information defining the plurality of non-interest regions (410a, 410b, 410c); retrieving the image from a memory along with metadata associated with the image; applying blur to each said non-interest region (410a, 410b, 410c) to generate a first blurred image; and displaying the first blurred image on a display, the method further comprising, after generating the first blurred image: receiving at least one selection of a desired amount of blurring; applying different amounts of blurring to the non-interest regions (410a, 410b, 410c) based on the at least one selection of a desired amount of blurring for generating a second blurred image; and displaying the second blurred image on the display. receiving at least one selection of a desired amount of blurring; applying different amounts of blurring to the non-interest regions (410a, 410b, 410c) based on the at least one selection of a desired amount of blurring for generating a second blurred image; and displaying the second blurred image on the display.
A system for predicting the movement of a surface for autonomous landing of unmanned aerial vehicles (UAVs) thereon, the unmanned aerial vehicle comprising beam emitting means (4,5), control means (6,7), and detector means to detect reflected beams, wherein measurements of the distance between the unmanned aerial vehicle and points of reflection on the surface are obtained from beams emitted from the beam emitting means, reflected back from the surface and detected by the detector means, the system further comprising processing means to process the measurements of the distance and storing means to store the processed measurements wherein the system is characterized in that it comprises at least two beam emitting means (4,5); and in that each of the at least two beam emitting means is movable to emit beams along at least one line on the surface wherein the lines obtained by the two beam emitting means (4,5) are crossed so that they have at least one point of intersection in common and the processing means are arranged to continuously estimate during a predetermined time interval a plane to the surface based on the measurement of the distance between the unmanned aerial vehicle at each point of reflection on the surface and based on an angle of the beam emitting means at the measurement of the distance, and to predict a favorable occasion to land thereon based on the estimated planes during the predetermined time interval.
A controller for an electric servo press for linearly driving a slide through an intermediation of a rotary-to-linear motion converting mechanism for rotating a decentering shaft by a rotational output of a servo motor to convert rotation of the decentering shaft into linear motion, to perform press working, wherein the controller for an electric servo press comprises: a press load sensor for detecting a pressure force of the slide; a pressure-force determination device for determining whether the pressure force of the slide reaches one or a plurality of different pressure-force setting values based on the one or the plurality of different pressure-force setting values and an output signal of the press load sensor, and for generating a pressure-force achievement signal each time the pressure force of the slide reaches each of the one or the plurality of different pressure-force setting values; a servo motor drive controller for controlling driving of the servo motor; and a motion command device for commanding a motion, wherein in respond to generation of the pressure-force achievement signal, at least one of switching of a drive control mode by the servo motor drive controller and switching of a motion to be commanded by the motion command device is performed; characterized in that the controller is designed to perform torque control and to temporarily reduce a pressure-force command value output from the motion command device to be lower than a preset value and then to increase IT to an original value, and by repeating the reduction and increase of the pressure-force command value, to oscillate the pressure force of the slide. a press load sensor for detecting a pressure force of the slide; a pressure-force determination device for determining whether the pressure force of the slide reaches one or a plurality of different pressure-force setting values based on the one or the plurality of different pressure-force setting values and an output signal of the press load sensor, and for generating a pressure-force achievement signal each time the pressure force of the slide reaches each of the one or the plurality of different pressure-force setting values; a servo motor drive controller for controlling driving of the servo motor; and a motion command device for commanding a motion, wherein in respond to generation of the pressure-force achievement signal, at least one of switching of a drive control mode by the servo motor drive controller and switching of a motion to be commanded by the motion command device is performed; characterized in that the controller is designed to perform torque control and to temporarily reduce a pressure-force command value output from the motion command device to be lower than a preset value and then to increase IT to an original value, and by repeating the reduction and increase of the pressure-force command value, to oscillate the pressure force of the slide.
Braking device comprising - a hub that can be attached to a shaft to be braked, - at least one inner disc connected to the hub, - a housing, - at least one outer disc connected to the housing, - a piston and - a pressure plate attached to the housing, wherein the outer disc is arranged adjacent to the inner disc, and wherein a gap is arranged between the inner disc and the outer disc, wherein the piston is adapted to press the inner disc and the outer disc together, wherein the braking device comprises a detection means adapted to detect an operating condition of the braking device, characterised in that the detection means comprises a first force sensor adapted to measure a first flow of force from the pressure plate to the housing, the detection means being adapted to use the measured first flow of force for detection of the operating condition. - a hub that can be attached to a shaft to be braked, - at least one inner disc connected to the hub, - a housing, - at least one outer disc connected to the housing, - a piston and - a pressure plate attached to the housing,
A fuel mixture comprising: a fuel; ethanol; and modified graphene oxide (mGO) nanoparticles functionalized with dodecanol, wherein the mGO is less than 1000 ppm of the ethanol, and wherein a blend of the ethanol and the mGO is less than 10% of the fuel mixture. a fuel; ethanol; and modified graphene oxide (mGO) nanoparticles functionalized with dodecanol, wherein the mGO is less than 1000 ppm of the ethanol, and wherein a blend of the ethanol and the mGO is less than 10% of the fuel mixture.
A method of cutting meat and tendons surrounding a tibia of a drumstick of a poultry leg without cutting a fibula extending along the tibia, the method being characterized in comprising the steps of: (a) pushing and stretching the meat and tendons in the direction of the fibula to form a bulge (98; 99) containing meat and tendons; and (b) cutting through the bulge (98; 99) to a depth spaced from the tibia and the fibula, wherein step (a) comprises engaging the meat and tendons with a pincher (56, 82) on a side opposite the fibula and urging the pincher in the direction of the fibula. (a) pushing and stretching the meat and tendons in the direction of the fibula to form a bulge (98; 99) containing meat and tendons; and (b) cutting through the bulge (98; 99) to a depth spaced from the tibia and the fibula, wherein step (a) comprises engaging the meat and tendons with a pincher (56, 82) on a side opposite the fibula and urging the pincher in the direction of the fibula.
A data center rack system, comprising: a rack housing that comprises side panels, a top panel and a bottom panel, wherein the top panel and the bottom panel are coupled to the side panels, the top, bottom and side panels defining a rack volume sized to enclose a plurality of data center server rack trays, each of the data center server rack trays configured to support a plurality of heat generating electronic devices; and a rack bottom coupled to the side panels, the rack bottom comprising the bottom panel having a top surface coupled to the side panels and a plurality of blocks coupled to a bottom surface of the bottom panel opposite the top surface, at least one pair of the plurality of blocks defining an opening between the blocks and below the bottom surface of the bottom panel and sized to receive a lifting member of a lifting machine, wherein locations of the at least one pair of the plurality of blocks are slideably adjustable along a length of the bottom panel parallel to an open front and back faces of the data center rack system thereby varying a width of the opening defined between the at least one pair of the plurality of blocks. a rack housing that comprises side panels, a top panel and a bottom panel, wherein the top panel and the bottom panel are coupled to the side panels, the top, bottom and side panels defining a rack volume sized to enclose a plurality of data center server rack trays, each of the data center server rack trays configured to support a plurality of heat generating electronic devices; and a rack bottom coupled to the side panels, the rack bottom comprising the bottom panel having a top surface coupled to the side panels and a plurality of blocks coupled to a bottom surface of the bottom panel opposite the top surface, at least one pair of the plurality of blocks defining an opening between the blocks and below the bottom surface of the bottom panel and sized to receive a lifting member of a lifting machine, wherein locations of the at least one pair of the plurality of blocks are slideably adjustable along a length of the bottom panel parallel to an open front and back faces of the data center rack system thereby varying a width of the opening defined between the at least one pair of the plurality of blocks.
An optoelectronic circuit intended to receive, between a first node (A 1, A 4) and a second node (A 2, A 5), a variable voltage (V RECT) containing an alternation of increasing positive phases and of decreasing positive phases, the optoelectronic circuit comprising: a plurality of light-emitting diodes (D i) mounted in series between the first node and a third node; a first circuit for limiting/regulating the current mounted between the third node and the second node; a switching circuit linking the third node to at least some light-emitting diodes of the plurality of light-emitting diodes; a capacitor (Cap) comprising first and second plates; and characterized in that the optoelectronic circuit comprises: a first diode (D 0D) whose cathode is connected to the second plate and whose anode is linked to the second node; a second diode (Doc) whose anode is connected to the second plate and whose cathode is linked to the third node; a third diode (D 0A) whose anode is connected to one of the light-emitting diodes and whose cathode is connected to the first plate; and a fourth diode (D 0B) whose anode is connected to the first plate and whose cathode is linked to the first node. a plurality of light-emitting diodes (D i) mounted in series between the first node and a third node; a first circuit for limiting/regulating the current mounted between the third node and the second node; a switching circuit linking the third node to at least some light-emitting diodes of the plurality of light-emitting diodes; a capacitor (Cap) comprising first and second plates; a first diode (D 0D) whose cathode is connected to the second plate and whose anode is linked to the second node; a second diode (Doc) whose anode is connected to the second plate and whose cathode is linked to the third node; a third diode (D 0A) whose anode is connected to one of the light-emitting diodes and whose cathode is connected to the first plate; and a fourth diode (D 0B) whose anode is connected to the first plate and whose cathode is linked to the first node.
Antimicrobial composition in the form of a concentrate, which comprises a) 20 to 80% by weight of 1,3-propanediol, b) 10 to 55% by weight of phenethyl alcohol and c) 2 to 40% by weight of 1-undecanol. a) 20 to 80% by weight of 1,3-propanediol, b) 10 to 55% by weight of phenethyl alcohol and c) 2 to 40% by weight of 1-undecanol.
Process for using the waste heat from exhaust gases, specifically from flue gases of metal or steel production for generating steam, wherein cooling surfaces through which water flows are heated by the exhaust gases, characterised in that the water heated in the cooling surfaces is stored under pressure as hot water in at least one hot water store and steam is only generated through depressurisation of the hot water on removal from the hot water store, said steam being fed to at least one steam consumer, wherein in order to prevent steam formation in the hot water store, the temperature of the hot water in the hot water store is regulated to a value that lies below or at the boiling point, and at least part of the water heated in the cooling surfaces is cooled in a heat- exchanger and is subsequently fed again to the cooling surfaces as cooling water.
A composition comprising exfoliated carbon nanotubes, wherein the exfoliated carbon nanotubes are not dispersed in a continuous matrix that maintains the carbon nanotubes in an exfoliated state, and are neither dispersed in a solution.
Method for fastening permanent magnets, which form magnet poles, to a carrier surface of the rotor of an electrical machine, in which method a casting mould is formed by applying a mould element to the carrier surface, wherein the mould cavity of the formed casting mould is bounded on one side by the carrier surface, a permanent magnet is arranged in a desired position in the formed casting mould, and the formed casting mould is filled with a curing adhesive, wherein the adhesive fills intermediate spaces which are formed between the permanent magnet and the wall of the mould cavity so as to adhesively bond the permanent magnet to the carrier surface, characterized in that the permanent magnet, for the purpose of simpler arrangement in the position after application of the mould element to the carrier surface, is inserted into the formed casting mould and is held with respect to the carrier surface.
Foldable scooter with wheels (5, 6) for reducing a wheel distance in the folded state with a collapsible footboard, characterized in that the footboard includes at least three hinges for the accordion-like collapsing of the scooter, wherein the wheels (5, 6), in the collapsed scooter, still remain in driving position in front of and behind the collapsed footboard.
A crystalline modification type I compound of the following Chemical Formula 1, wherein angles of 2θ representing X-ray diffraction peaks of the crystalline modification include 3.35°, 6.75°, 7.94°, 10.40° and 12.37° (°2θ, ± 0.1° using Cu-Kα1 radiation).
A tread for a tire comprising at least one elongated block of rubber material of width W and length L, L being at least five times W, this elongated block extending in a circumferential direction when the tread is laid on the tire, each elongated block having a contact surface intended to come into contact with a ground and a first sidewall and a second sidewall, delimiting this contact surface, the elongated block having a plurality of successive oblique cutouts (n, n+1) N in number, each having a first end (E1, E3) and a second end (E2, E4), at least one of the first end (E1, E3) and the second end (E2, E4) opening onto the first or second sidewall (7, 9); the tread being characterized: - in that the cutouts (n, n+1) follow one another longitudinally on the contact surface, so that at least one of the ends (E1, E2) of one of the cutouts (n), is located at the same circumferential level x on the elongated block, as one end (E3, E4) of another cutout (n+1) circumferentially adjacent to said one of the cutouts (n), a small offset, between the circumferential position of the cutouts (n, n+1) being limited to 5% of the pitch between the two cutouts (n, n+1); - in in that all or part of the cutouts (n, n+1) has a non-zero angle of inclination α, in the depth of the tread with respect to a direction normal to the said surface of the tread, so that the cutout is oriented in the direction of travel of the vehicle; - and in that every cutout (n, n+1) is an incision. - in that the cutouts (n, n+1) follow one another longitudinally on the contact surface, so that at least one of the ends (E1, E2) of one of the cutouts (n), is located at the same circumferential level x on the elongated block, as one end (E3, E4) of another cutout (n+1) circumferentially adjacent to said one of the cutouts (n), a small offset, between the circumferential position of the cutouts (n, n+1) being limited to 5% of the pitch between the two cutouts (n, n+1); - in in that all or part of the cutouts (n, n+1) has a non-zero angle of inclination α, in the depth of the tread with respect to a direction normal to the said surface of the tread, so that the cutout is oriented in the direction of travel of the vehicle; - and in that every cutout (n, n+1) is an incision.