mhurhangee/ep-ind-claims huggingface dataset:
A propulsion unit for an aircraft, comprising: - a turbojet engine, comprising a fan casing surrounding a fan of said turbojet engine, and - a nacelle comprising an upper portion and a lower portion surrounding said turbojet engine and comprising: • an air inlet, comprising a leading edge of the nacelle extended downstream by an inner wall and by an outer wall of the air inlet, • a fan cowl, defining in a closed position an aerodynamic continuity with the outer wall of the nacelle, intended to surround a fan casing of a turbojet engine, the air inlet being designed to define at least one portion of the fan cowl, said assembly being characterized in that in the lower portion of the nacelle, the inner wall of the air inlet of the nacelle and the fan casing of the turbojet engine comprise complementary fixing means of the knife /groove type, at least in the vicinity of the portion of the air inlet of the nacelle which is designed to define at least one portion of the fan cowl and in that in the upper portion of the nacelle, an upstream edge of the fan casing comprises a fixing flange adapted to ensure the fixing of a downstream edge of the inner wall of the air inlet. - a turbojet engine, comprising a fan casing surrounding a fan of said turbojet engine, and - a nacelle comprising an upper portion and a lower portion surrounding said turbojet engine and comprising: • an air inlet, comprising a leading edge of the nacelle extended downstream by an inner wall and by an outer wall of the air inlet, • a fan cowl, defining in a closed position an aerodynamic continuity with the outer wall of the nacelle, intended to surround a fan casing of a turbojet engine, • an air inlet, comprising a leading edge of the nacelle extended downstream by an inner wall and by an outer wall of the air inlet, • a fan cowl, defining in a closed position an aerodynamic continuity with the outer wall of the nacelle, intended to surround a fan casing of a turbojet engine,
A method of capturing haptic content of an object, the capturing involves a plurality of communication devices, the method, being executed at a haptic device, of the first communication device, comprising: - recognizing haptic content captured by a first communication device and properties associated with the captured haptic content; - recognizing properties associated with a second communication device; - determining, at least partly based on the recognized properties, associated with the captured haptic content and the second communication device whether the second communication device is more suitable than the first communication device to participate in the capturing of at least parts of the haptic content, and in response to determining that the second communication device is more suitable than the first communication device to participate in the capturing of at least parts of the haptic content, instructing the first communication device to transmit at least parts of the haptic content captured by the first communication device and the properties associated with the captured parts, to the second communication device; - receiving haptic content captured by the second communication device; -recognizing the haptic content captured by the second communication device, and - combining the haptic content captured by the first communication device with the haptic content captured by the second communication device. - recognizing haptic content captured by a first communication device and properties associated with the captured haptic content; - recognizing properties associated with a second communication device; - determining, at least partly based on the recognized properties, associated with the captured haptic content and the second communication device whether the second communication device is more suitable than the first communication device to participate in the capturing of at least parts of the haptic content, and in response to determining that the second communication device is more suitable than the first communication device to participate in the capturing of at least parts of the haptic content, instructing the first communication device to transmit at least parts of the haptic content captured by the first communication device and the properties associated with the captured parts, to the second communication device; - receiving haptic content captured by the second communication device; -recognizing the haptic content captured by the second communication device, and - combining the haptic content captured by the first communication device with the haptic content captured by the second communication device.
Apparatus (121, 122) comprising: a first feed point; a first radiator coupled to the first feed point; a housing defining an interior surface of the apparatus (121, 122) and including a first conductive cover portion coupled to the first radiator and a second conductive cover portion, different from the first radiator and the first conductive cover portion, wherein the first conductive cover portion defines a first exterior surface of the apparatus (121, 122) and the second conductive cover portion defines a second exterior surface of the apparatus (121, 122); a ground member coupled to the first conductive cover portion and positioned at least partially within a cavity defined by the interior surface of the housing, at least the first conductive cover portion and the first radiator having an electrical length configured to resonate in a first operational frequency band and the first radiator being configured to electromagnetically couple to the first conductive cover portion; wherein the first conductive cover portion and the ground member define an aperture there between, the dimensions of the aperture at least partially determining an electrical length of the first conductive cover portion; characterised in that the first feed point is positioned on the first conductive cover portion or on a conductive member coupled to the first conductive cover portion, and the apparatus (121, 122) further comprises a transmission line provided along at least a portion of the first conductive cover portion and configured to interconnect the first feed point with radio frequency circuitry. a first feed point; a first radiator coupled to the first feed point; a housing defining an interior surface of the apparatus (121, 122) and including a first conductive cover portion coupled to the first radiator and a second conductive cover portion, different from the first radiator and the first conductive cover portion, wherein the first conductive cover portion defines a first exterior surface of the apparatus (121, 122) and the second conductive cover portion defines a second exterior surface of the apparatus (121, 122); a ground member coupled to the first conductive cover portion and positioned at least partially within a cavity defined by the interior surface of the housing, at least the first conductive cover portion and the first radiator having an electrical length configured to resonate in a first operational frequency band and the first radiator being configured to electromagnetically couple to the first conductive cover portion; wherein the first conductive cover portion and the ground member define an aperture there between, the dimensions of the aperture at least partially determining an electrical length of the first conductive cover portion; characterised in that the first feed point is positioned on the first conductive cover portion or on a conductive member coupled to the first conductive cover portion, and the apparatus (121, 122) further comprises a transmission line provided along at least a portion of the first conductive cover portion and configured to interconnect the first feed point with radio frequency circuitry.
Device for dispensing individual rods, individual wires or similar individual cross-sectionally round or cross-sectionally polygonal articles, - having a first guide element for guiding the rod, the wire or the similar article with a first guide face, - having a second guide element for guiding the rod, the wire or the similar article with a second guide face, - having moving means for moving the rod, the wire or the similar article on the two guide faces (11, 21), - wherein the first guide face has a first edge, - wherein, by means of the moving means, the rod, the wire or the similar article is displaceable along the second guide face from a first position to a second position, in which the rod, the wire or the similar article rests against the first edge, and - having a force means, wherein, in the second position of the rod, of the wire or of the similar article, the rod, the wire or the similar article is able to be accelerated substantially parallel or parallel to the second guide face by means of a force impact that is able to be applied by the force means. - having a first guide element for guiding the rod, the wire or the similar article with a first guide face, - having a second guide element for guiding the rod, the wire or the similar article with a second guide face, - having moving means for moving the rod, the wire or the similar article on the two guide faces (11, 21), - wherein the first guide face has a first edge, - wherein, by means of the moving means, the rod, the wire or the similar article is displaceable along the second guide face from a first position to a second position, in which the rod, the wire or the similar article rests against the first edge, and - wherein the first guide face has a first edge, - wherein, by means of the moving means, the rod, the wire or the similar article is displaceable along the second guide face from a first position to a second position, in which the rod, the wire or the similar article rests against the first edge, and - having a force means, wherein, in the second position of the rod, of the wire or of the similar article, the rod, the wire or the similar article is able to be accelerated substantially parallel or parallel to the second guide face by means of a force impact that is able to be applied by the force means.
Method, comprising: making a measurement in a first network element indicative of thermal plus background noise comprising both thermal and background components on a radio interface between user equipment and said first network element, wherein the first network element is located at a NodeB, sending a measurement report signal having a magnitude indicative of said measurement of said noise from said first network element to a second network element, wherein the second network element is located at a radio network controller, and using said measurement of said noise as a reference noise value in scheduling decisions made by said first network element, characterized in said measurement of said noise being used as a reference noise value in scheduling decisions made by said first network element, unless said first network element receives a reference noise value from said second network element, in which case said first network element uses said received reference noise value as a reference noise value in said scheduling decisions made by said first network element instead of said measurement of said noise. making a measurement in a first network element indicative of thermal plus background noise comprising both thermal and background components on a radio interface between user equipment and said first network element, wherein the first network element is located at a NodeB, sending a measurement report signal having a magnitude indicative of said measurement of said noise from said first network element to a second network element, wherein the second network element is located at a radio network controller, and using said measurement of said noise as a reference noise value in scheduling decisions made by said first network element, characterized in said measurement of said noise being used as a reference noise value in scheduling decisions made by said first network element, unless said first network element receives a reference noise value from said second network element, in which case said first network element uses said received reference noise value as a reference noise value in said scheduling decisions made by said first network element instead of said measurement of said noise.
An encoder comprising: tracks (SA1, SA2, SI1, SI2) juxtaposed in a width direction respectively having reflectors arranged along a measurement direction (c) substantially perpendicular to the width direction; a point light source configured to emit diffusion light to the tracks (SA1, SA2, SI1, SI2); one first light receiving array configured to receive light, which is reflected at a track being one of said tracks (SA1, SA2, SI1, SI2) and having an absolute pattern, and another first light receiving array configured to receive light, which is reflected at a track being one of said tracks (SA1, SA2, SI1, SI2) and having an absolute pattern; wherein the first light receiving arrays (PA2, PA1) are arranged on both sides of the point light source in the width direction; a second light receiving array arranged in the width direction between the one first light receiving array and the point light source, and configured to receive light which is reflected at a track being one of said tracks (SA1, SA2, SI1, SI2) and having a first incremental pattern; and a third light receiving array arranged in the width direction between the another first light receiving array and the point light source, and configured to receive light which is reflected at a track being one of said tracks (SA1, SA2, SI1, SI2) and having a second incremental pattern which pitch is longer than a pitch of the first incremental pattern. tracks (SA1, SA2, SI1, SI2) juxtaposed in a width direction respectively having reflectors arranged along a measurement direction (c) substantially perpendicular to the width direction; a point light source configured to emit diffusion light to the tracks (SA1, SA2, SI1, SI2); one first light receiving array configured to receive light, which is reflected at a track being one of said tracks (SA1, SA2, SI1, SI2) and having an absolute pattern, and another first light receiving array configured to receive light, which is reflected at a track being one of said tracks (SA1, SA2, SI1, SI2) and having an absolute pattern; wherein the first light receiving arrays (PA2, PA1) are arranged on both sides of the point light source in the width direction; a second light receiving array arranged in the width direction between the one first light receiving array and the point light source, and configured to receive light which is reflected at a track being one of said tracks (SA1, SA2, SI1, SI2) and having a first incremental pattern; and a third light receiving array arranged in the width direction between the another first light receiving array and the point light source, and configured to receive light which is reflected at a track being one of said tracks (SA1, SA2, SI1, SI2) and having a second incremental pattern which pitch is longer than a pitch of the first incremental pattern.
Fuel cell system with a fuel cell stack, a starter burner, an afterburner module and a fresh air-exhaust gas heat exchanger, wherein in the fuel cell stack an electrochemical reaction takes place from which electric current flows, the exhaust gases of the fuel cell stack are directed into the afterburner module, the fresh air-exhaust gas heat exchanger is connected on one side to the afterburner output of the afterburner module and an exhaust gas output and on the other side to a fresh air supply and the fresh air inlet of the fuel cell stack, and the starter burner is connected to the fuel cell stack such that the exhaust gases of the starter burner are directed to the fuel cell stack, characterised in that the starter burner has a first combustion chamber in a starter burner module, the afterburner module has a second combustion chamber, the fuel cell stack, the afterburner module and the starter burner module are connected next to one another, and in that in the first combustion chamber of the starter burner module a first load island is located which is positioned directly below a second load island in the second combustion chamber of the afterburner module.
An induction heater for a cook top comprising: - a first electrically insulating sheet; - a second electrically insulating sheet; - one or more inductors arranged on a same plane between the first sheet and the second sheet, each inductor comprising a single electrically conductive track defining a flat spiral coil provided with a plurality of turns; characterized in that the thickness (t) of each inductor is comprised between 100 and 500 μm; and in that the ratio of the distance (g) between the consecutive turns of each inductor and the thickness (t) of each inductor is either smaller than or equal to 1.5. - a first electrically insulating sheet; - a second electrically insulating sheet; - one or more inductors arranged on a same plane between the first sheet and the second sheet, each inductor comprising a single electrically conductive track defining a flat spiral coil provided with a plurality of turns;
A lid for an opening device for a container, comprising a body having a longitudinal axis and provided with a top wall and with a side wall internally provided with a thread element suitable for cooperating with a further thread element of a spout of said opening device, said lid further comprising at least one driving element arranged to receive the fingers of a user during unscrewing of said lid from said spout and during screwing of said lid on said spout, said at least one driving element being delimited by an upper wall, characterised in that the at least one driving element further comprises a lower wall extending from said side wall and spaced apart from the upper wall along said longitudinal axis, said lower wall diverging from said upper wall when moving away from said side wall.
A method for production of human erythropoietin comprising the steps of: (a) culturing human erythropoietin-producing mammalian cells in a serum-free medium with repetitive medium exchanges, wherein each of the medium exchanges is carried out by collecting 80 to 95% of the culture when the density of the viable cells in the culture has reached 2 x 10 6 - 4 x 10 6 cells/ml and combining the same amount of the fresh medium with the remaining part of the culture, (b) preparing culture supernatant containing human erythropoietin by removing the cells contained in the culture collected in step (a) (c) applying the culture supernatant obtained in step (b) to dye affinity column chromatography and collecting a fraction containing human erythropoietin activity, (d) applying the fraction collected in step (c) to hydroxyapatite column chromatography, and collecting a fraction containing human erythropoietin activity, (e) applying the fraction collected in step (d) above to cation exchange chromatography, and collecting a fraction containing human erythropoietin activity, and (f) applying the fraction collected in step (e) above to gel filtration column chromatography, and collecting a fraction containing human erythropoietin activity, in the order, with the proviso that no organic solvent is used. (a) culturing human erythropoietin-producing mammalian cells in a serum-free medium with repetitive medium exchanges, wherein each of the medium exchanges is carried out by collecting 80 to 95% of the culture when the density of the viable cells in the culture has reached 2 x 10 6 - 4 x 10 6 cells/ml and combining the same amount of the fresh medium with the remaining part of the culture, (b) preparing culture supernatant containing human erythropoietin by removing the cells contained in the culture collected in step (a) (c) applying the culture supernatant obtained in step (b) to dye affinity column chromatography and collecting a fraction containing human erythropoietin activity, (d) applying the fraction collected in step (c) to hydroxyapatite column chromatography, and collecting a fraction containing human erythropoietin activity, (e) applying the fraction collected in step (d) above to cation exchange chromatography, and collecting a fraction containing human erythropoietin activity, and (f) applying the fraction collected in step (e) above to gel filtration column chromatography, and collecting a fraction containing human erythropoietin activity, in the order, with the proviso that no organic solvent is used.
A propylene-based polymer composition comprising propylene and from 5 wt% to 20 wt% ethylene and/or a C 4 -C 12 alpha-olefin, wherein the polymer composition has a triad tacticity greater than 90%, measured as disclosed in the description, a heat of fusion less than 75 J/g as determined by DSC, and an MFR greater than or equal to 25 g/10 min measured according to ASTM D-1238 (230°C, 2.16 kg); the polymer composition is a reactor grade composition comprising a reactor blend of a first polymer and a second polymer; the first and second polymers are prepared with the same catalyst system; the polymer composition has a melt temperature less than or equal to 100°C; and the polymer composition has at least one of (a) a Die C tear strength greater than or equal to 195 lbf/in (34150 N/m) measured according to ASTM D-624, and (b) a force required to break apart two or more pellets formed from the polymer composition and stored under a load at 50°C for one week of less than 20 N, based on the storage stability test described herein. the polymer composition has a triad tacticity greater than 90%, measured as disclosed in the description, a heat of fusion less than 75 J/g as determined by DSC, and an MFR greater than or equal to 25 g/10 min measured according to ASTM D-1238 (230°C, 2.16 kg); the polymer composition is a reactor grade composition comprising a reactor blend of a first polymer and a second polymer; the first and second polymers are prepared with the same catalyst system; the polymer composition has a melt temperature less than or equal to 100°C; and the polymer composition has at least one of (a) a Die C tear strength greater than or equal to 195 lbf/in (34150 N/m) measured according to ASTM D-624, and (b) a force required to break apart two or more pellets formed from the polymer composition and stored under a load at 50°C for one week of less than 20 N, based on the storage stability test described herein.
Ballistic resistant article comprising a strike face and a back face, the strike face comprising a unitary sheet of polyolefin, the back face comprising a plurality of superimposed multilayered material sheets, the multilayered material sheets comprising a consolidated stack of unidirectional monolayers, said monolayers comprising drawn high molecular weight polyethylene fibers with a strength of at least 0.9 GPa, whereby the draw direction of two subsequent monolayers in the stack differs, with the proviso that the total thickness of the article is at least 100 mm.