mhurhangee/ep-ind-claims huggingface dataset:
A pin (14; 75) for coupling platforms (20, 22) of adjacent turbine blades (10, 12), the pin (14; 75) comprising: a first flat longitudinal end region; a second flat longitudinal end region; and an undercut region (68; 82), where the undercut region (68; 82) is separated from the first flat longitudinal end region by a first main body region and the undercut region (68; 82) is separated from the second flat longitudinal end region by a second main body region, and the undercut region (68; 82) is undercut with respect to the first and second main body regions (70; 72), where the undercut region is a reduced cross sectional area which has a cross sectional area less than the cross sectional area of each of the first and second main body regions (70, 72), characterised in that: the reduced cross section area is concentric with the first and second main body regions (70, 72). a first flat longitudinal end region; a second flat longitudinal end region; and an undercut region (68; 82), where the undercut region (68; 82) is separated from the first flat longitudinal end region by a first main body region and the undercut region (68; 82) is separated from the second flat longitudinal end region by a second main body region, and the undercut region (68; 82) is undercut with respect to the first and second main body regions (70; 72), where the undercut region is a reduced cross sectional area which has a cross sectional area less than the cross sectional area of each of the first and second main body regions (70, 72), characterised in that: the reduced cross section area is concentric with the first and second main body regions (70, 72).
A method for feeding a welding wire into a welding torch having a contact sleeve, whereas the welding wire being passed through the welding torch and the contact sleeve, and the contact sleeve being contacted by the welding wire, and a wire forming unit being arranged in the welding torch upstream of the contact sleeve, through which wire forming unit the welding wire is passed, whereas the wire forming unit being arranged in the welding torch in a defined and fixed installation position relative to the welding torch and whereas the welding wire is led over three ball bearing-mounted rollers (4a, 4b, 4c) arranged one behind the other in the longitudinal direction (x) of the welding torch in the wire forming unit, whereas the central roller, when viewed in the longitudinal direction (x), is offset in the wire-forming unit relative to the two outer rollers (4a, 4c), when viewed in the longitudinal direction (x), by a transverse offset in a transverse direction (y) transverse to the longitudinal direction (x) in order to form a zig-zag-shaped path for the welding wire through the wire forming unit, whereas the two outer rollers (4a, 4c), when viewed in the longitudinal direction (x), are arranged at an axial distance of maximally 20 mm, so that the welding wire leaves the wire-forming unit with a defined bend (direction of curvature), whereas the bend acts like a pretensioning of the welding wire such that it is ensured by the defined curvature radius and the defined orientation, that the welding wire contacts the contact sleeve always at the substantially same contact point with the substantially same contact force.
An apparatus for a gas turbine engine, the apparatus comprising: a spool lock for locking a spool assembly of the gas turbine engine, the spool lock comprising an outer ring configured for attachment to a compressor casing of the gas turbine engine, an inner ring configured to support the spool assembly within the compressor casing, and a web extending between the outer ring and the inner ring; and a lift for removing a rotor from the spool assembly, the lift comprising: a beam configured for attachment to a flange of the gas turbine engine; a support strut configured to attach to the flange to support the beam above the spool assembly; and a hoist configured to support the rotor for removal from the spool assembly. a spool lock for locking a spool assembly of the gas turbine engine, the spool lock comprising an outer ring configured for attachment to a compressor casing of the gas turbine engine, an inner ring configured to support the spool assembly within the compressor casing, and a web extending between the outer ring and the inner ring; and a lift for removing a rotor from the spool assembly, the lift comprising: a beam configured for attachment to a flange of the gas turbine engine; a support strut configured to attach to the flange to support the beam above the spool assembly; and a hoist configured to support the rotor for removal from the spool assembly. a beam configured for attachment to a flange of the gas turbine engine; a support strut configured to attach to the flange to support the beam above the spool assembly; and a hoist configured to support the rotor for removal from the spool assembly.
A superconducting magnetizer assembly having an annular opening configured to receive a rotor for magnetizing permanent magnets disposed within the rotor, said assembly comprising: a plurality of coil packs comprising: an inner coil comprising a first superconducting magnet material, the inner coil being configured to generate a first magnetic field in response to an electric current supplied to the inner coil; an outer coil comprising a second superconducting magnet material, the outer coil being disposed about the inner coil and being configured to generate a second magnetic field in response to an electric current supplied to the outer coil; and a cryostat container, housing the inner and the outer coils (42, 44) and configured to maintain the inner and the outer coils at a set temperature. an inner coil comprising a first superconducting magnet material, the inner coil being configured to generate a first magnetic field in response to an electric current supplied to the inner coil; an outer coil comprising a second superconducting magnet material, the outer coil being disposed about the inner coil and being configured to generate a second magnetic field in response to an electric current supplied to the outer coil; and a cryostat container, housing the inner and the outer coils (42, 44) and configured to maintain the inner and the outer coils at a set temperature.
Rotary distributing arrangement for distributing different media to a number of treatment stations rotating about a vertical axis for barrel-like containers, in particular kegs, comprising at least one distributing disc, having a number of feed openings (2"), and at least one counter-disc, which discs are arranged parallel to each other and fixed in place along the vertical axis and accommodated between which is a control disc, which is rotatable about the vertical axis and has a number of through-openings, wherein, to produce a liquid-tight and/or gas-tight surface-area connection at least between the distributing disc and the control disc, the discs (2, 3, 4) are prestressed with respect to one another by being subjected to a prestressing force, characterised in that the amount of the prestressing force can be set by means of a control arrangement, and specifically in such a way that, when the rotary distributing arrangement is first operated once again, the discs are subjected to a reduced prestressing force (F*), of an amount that is reduced in comparison with normal operation.
Connecting means (10, 10', 10", 10′′′, 10ʺʺ), comprising: energy supply means in the form of at least one thermocouple (18, 18'), wherein the at least one thermocouple (18, 18') is embedded in a shaft of the connecting means (10, 10', 10", 10′′′, 10ʺʺ); wherein the connecting means (10, 10', 10", 10′′′, 10ʺʺ) includes electronics, wherein the electronics comprises sensor technology, a processor for sensor technology and/or communication means; and wherein the sensor technology, the processor or the communication means are supplied with energy by the energy supply means, wherein the connecting means is realized in the form of a screw or bolt, characterized in that the thermocouple (18, 18') or the thermocouple (18, 18') in combination with a thermal bridge extends along the longitudinal direction of the screw or the bolt from a point in the area of the screw thread of the screw or the bolt or from a screw tip to the screwhead of the screw or the bolt. energy supply means in the form of at least one thermocouple (18, 18'), wherein the at least one thermocouple (18, 18') is embedded in a shaft of the connecting means (10, 10', 10", 10′′′, 10ʺʺ); wherein the connecting means (10, 10', 10", 10′′′, 10ʺʺ) includes electronics, wherein the electronics comprises sensor technology, a processor for sensor technology and/or communication means; and wherein the sensor technology, the processor or the communication means are supplied with energy by the energy supply means, wherein the connecting means is realized in the form of a screw or bolt, characterized in that the thermocouple (18, 18') or the thermocouple (18, 18') in combination with a thermal bridge extends along the longitudinal direction of the screw or the bolt from a point in the area of the screw thread of the screw or the bolt or from a screw tip to the screwhead of the screw or the bolt.
Food container evacuation module (10; 20; 31) comprising a case with a top portion and a bottom portion, the case containing a vacuum pump with a suction head, wherein in the bottom portion of said case there are means (140; 12) for coupling said suction head with evacuation valving means located on the lid of a food container, characterized in that the weight of said vacuum pump is comprised between 100g and 600g and its pumping flow rate is at least 0.2 l/min at a residual pressure of 20000 Pascal, wherein the case is inscribable in a box with height comprised between 10 cm and 25 cm, width comprised between 5 cm and 15 cm, and depth comprised between 3 cm and 7 cm, wherein two circular protrusions (12, 13; 312, 313), whose diameter is comprised between 10 mm and 80 mm and height comprised between 3 mm and 50 mm, are present at the bottom of the case, the presence of said two circular protrusions (12, 13; 312, 313) not being taken into account for calculating the dimensions of the above-mentioned box, wherein it includes one or more rechargeable battery packs (15, 15'), preferably with an energy comprised between 1 and 20 Wh, more preferably between 2 and 15 Wh, wherein a first (12; 312) of said circular protrusions acts as a vacuuming interface that is suitable for coupling with said evacuation valving means located on the lid of a food container, and a second (13; 313) of said circular protrusions acts as a charging interface that is suitable for coupling with a recharge base to charge said rechargeable battery packs (15, 15'). wherein in the bottom portion of said case there are means (140; 12) for coupling said suction head with evacuation valving means located on the lid of a food container, characterized in that the weight of said vacuum pump is comprised between 100g and 600g and its pumping flow rate is at least 0.2 l/min at a residual pressure of 20000 Pascal, wherein the case is inscribable in a box with height comprised between 10 cm and 25 cm, width comprised between 5 cm and 15 cm, and depth comprised between 3 cm and 7 cm, wherein two circular protrusions (12, 13; 312, 313), whose diameter is comprised between 10 mm and 80 mm and height comprised between 3 mm and 50 mm, are present at the bottom of the case, the presence of said two circular protrusions (12, 13; 312, 313) not being taken into account for calculating the dimensions of the above-mentioned box, wherein it includes one or more rechargeable battery packs (15, 15'), preferably with an energy comprised between 1 and 20 Wh, more preferably between 2 and 15 Wh, wherein a first (12; 312) of said circular protrusions acts as a vacuuming interface that is suitable for coupling with said evacuation valving means located on the lid of a food container, and a second (13; 313) of said circular protrusions acts as a charging interface that is suitable for coupling with a recharge base to charge said rechargeable battery packs (15, 15').
A mobile offshore drilling unit comprising: - a derrick fixedly attached to a vessel; - a rooster box including an intervention frame configured to move the rooster box along the height of the derrick; - an injector configured to attach to the intervention frame, wherein the injector is configured to be releasably coupled to a conduit; the injector configured to be positioned on-axis with the conduit in a first configuration and off-axis with the conduit in a second configuration; wherein the rooster box includes one or more sensors configured to monitor forces exerted on the conduit; and wherein the rooster box includes one or more actuators configured to move the rooster box along the height of the derrick to maintain the monitored forces exerted on the conduit within a predefined range, in response to the sensors detecting a predetermined threshold force. - a derrick fixedly attached to a vessel; - a rooster box including an intervention frame configured to move the rooster box along the height of the derrick; - an injector configured to attach to the intervention frame, wherein the injector is configured to be releasably coupled to a conduit; the injector configured to be positioned on-axis with the conduit in a first configuration and off-axis with the conduit in a second configuration; wherein the rooster box includes one or more sensors configured to monitor forces exerted on the conduit; and wherein the rooster box includes one or more actuators configured to move the rooster box along the height of the derrick to maintain the monitored forces exerted on the conduit within a predefined range, in response to the sensors detecting a predetermined threshold force. the injector configured to be positioned on-axis with the conduit in a first configuration and off-axis with the conduit in a second configuration; wherein the rooster box includes one or more sensors configured to monitor forces exerted on the conduit; and wherein the rooster box includes one or more actuators configured to move the rooster box along the height of the derrick to maintain the monitored forces exerted on the conduit within a predefined range, in response to the sensors detecting a predetermined threshold force.
A tempered air hardenable steel alloy, comprising, in percent by weight: 0.18 to 0.26 carbon; 3.50 to 4.00 nickel; 1.60 to 2.00 chromium; 0 up to 0.50 molybdenum; 0.80 to 1.20 manganese; 0.25 to 0.45 silicon; 0 to less than 0.005 titanium; 0 to less than 0.020 phosphorus; 0 up to 0.005 boron; 0 up to 0.003 sulfur; and remainder iron and incidental impurities; wherein the tempered air hardenable steel has been tempered by heating the air hardenable steel for a tempering time in a range of 4 hours to 10 hours and at a tempering temperature in a range of 300°F (149°C) to 450°F (232°C), and wherein the tempered air hardenable steel alloy has a Brinell hardness in a range of 360 HBW to 467 HBW as measured according to specification ASTM E10-10. 0.18 to 0.26 carbon; 3.50 to 4.00 nickel; 1.60 to 2.00 chromium; 0 up to 0.50 molybdenum; 0.80 to 1.20 manganese; 0.25 to 0.45 silicon; 0 to less than 0.005 titanium; 0 to less than 0.020 phosphorus; 0 up to 0.005 boron; 0 up to 0.003 sulfur; and remainder iron and incidental impurities;
A treatment device for the single-step treatment of a metal treatment article, wherein the treatment at least comprises the pickling and the phosphating of the treatment article, wherein the treatment device at least comprises the means mentioned below: a treatment container for receiving the treatment article and for receiving a flowable treatment substance, a pump means for circulating at least a portion of the treatment substance, wherein at least a part of the treatment article is able to be flowed around by the treatment substance in the treatment container, characterized in that: the treatment container is divided by a wall of a collecting space for the collection of treatment substance which flows over the wall, wherein the treatment substance which is collected in the collecting space is able to be transported back by means of a transport path into the treatment container, wherein a filter means for filtering the treatment substance is provided, whereby impurities which have accumulated in the treatment substance are removed from the treatment substance by the filter, wherein the pump means and the filter means form a component of the transport path and the treatment substance which is transported from the pump means is transported through the filter means, wherein the transport path is designed in such a manner that by means of the treatment substance which is transported back into the treatment container, a protective stream can be created for entraining a part of the treatment substance out of the treatment container and into the collecting space. a treatment container for receiving the treatment article and for receiving a flowable treatment substance, a pump means for circulating at least a portion of the treatment substance, wherein at least a part of the treatment article is able to be flowed around by the treatment substance in the treatment container, the treatment container is divided by a wall of a collecting space for the collection of treatment substance which flows over the wall, wherein the treatment substance which is collected in the collecting space is able to be transported back by means of a transport path into the treatment container, wherein a filter means for filtering the treatment substance is provided, whereby impurities which have accumulated in the treatment substance are removed from the treatment substance by the filter, wherein the pump means and the filter means form a component of the transport path and the treatment substance which is transported from the pump means is transported through the filter means, wherein the transport path is designed in such a manner that by means of the treatment substance which is transported back into the treatment container, a protective stream can be created for entraining a part of the treatment substance out of the treatment container and into the collecting space.
Method for determining an acoustic environment situation, wherein the method consists in processing an acoustic input signal in at least two processing stages (S1,..., Sn), which acoustic input signal is preferably recorded with the aid of at least one microphone, in such a way - that in each of the at least two processing stages (S1,..., Sn) an extraction phase is provided in which characteristic features are extracted from the input signal, - that in each processing stage (Sl,..., Sn) an identification phase is provided in which extracted characteristic features are classified, - that class information (KI1,..., KIn) is generated based on the classification of the features in at least one processing stage (S1,..., SN), which class information characterizes or identifies, respectively, the acoustic environment situation, - that the class information (KI1,..., KIn) obtained in the identification phase of a processing stage i (S1,..., Sn) determines the manner of processing in the subsequent or subordinate processing stage i+1 (S2,..., Sn), and - that due to the class information (KI1,..., KIn) obtained in the processing stage i (S1,..., Sn), specific features in the extraction phase of the subsequent or subordinate processing stage i + 1 (S2,...., Sn) and/or specific classification methods in the identification phase are selected in the subsequent or subordinate processing stage i + 1 (S2,..., Sn). - that in each of the at least two processing stages (S1,..., Sn) an extraction phase is provided in which characteristic features are extracted from the input signal, - that in each processing stage (Sl,..., Sn) an identification phase is provided in which extracted characteristic features are classified, - that class information (KI1,..., KIn) is generated based on the classification of the features in at least one processing stage (S1,..., SN), which class information characterizes or identifies, respectively, the acoustic environment situation, - that the class information (KI1,..., KIn) obtained in the identification phase of a processing stage i (S1,..., Sn) determines the manner of processing in the subsequent or subordinate processing stage i+1 (S2,..., Sn), and - that due to the class information (KI1,..., KIn) obtained in the processing stage i (S1,..., Sn), specific features in the extraction phase of the subsequent or subordinate processing stage i + 1 (S2,...., Sn) and/or specific classification methods in the identification phase are selected in the subsequent or subordinate processing stage i + 1 (S2,..., Sn).
A method for processing pulse Doppler radar signals to detect a target comprising: transmitting radar signals from a radar system, the radar signals being transmitted according to a predetermined frequency technique; receiving signals within a frequency band, including a target return signal having a frequency indicative of the velocity of the target, characterised in that the method further comprises: transforming the target return signal using a Fourier Transform having a variable frequency scale to normalize the spectral content of the transformed target return signal relative to one of the frequencies of the predetermined frequency technique. transmitting radar signals from a radar system, the radar signals being transmitted according to a predetermined frequency technique; receiving signals within a frequency band, including a target return signal having a frequency indicative of the velocity of the target, characterised in that the method further comprises: transforming the target return signal using a Fourier Transform having a variable frequency scale to normalize the spectral content of the transformed target return signal relative to one of the frequencies of the predetermined frequency technique.
Arrangement (2, 4; 7, 4; 2, 7, 4) comprising one or two films (2; 7; 2, 7) and having a resin layer on one of the two sides of said film (2; 7) or directly between the two said films (2, 7), wherein said film (2; 7) or said films (2, 7) comprise at least one layer comprising at least one polyolefin plastomer, wherein the resin of the resin layer in the cured state permanently and directly adheres to said layer without the use of a resin-absorbent material, in particular a nonwoven fabric, laminated to said film (2; 7) or films (2, 7), and in the cured state is firmly bonded to said film (2; 7) or films (2, 7).
Printing paste for the production of an electrolyte layer of a battery, comprising water as solvent, at least one conductive salt dissolved therein and particles and/or fibres that are at least virtually, preferably entirely, insoluble in water at room temperature and are electrically nonconductive.