mhurhangee/ep-ind-claims huggingface dataset:
A method of determining weaving anomalies in a machine for weaving or winding a fiber preform onto a mandrel having an axis of rotation that is substantially horizontal for the purpose of receiving the preform, the mandrel being driven about the axis of rotation by a motor actuated by a control unit; in which method a plurality of cameras looking at the underside of the fiber texture scan the bottom face of the fiber preform and acquire images of the bottom face, and an image analysis module processes the images of the bottom face of the fiber preform in a plurality of adjacent scan windows in order to extract weaving patterns therefrom and compare them with reference weaving patterns previously stored in the module, and the control unit stops rotation of the mandrel if the result of the comparison reveals, in at least one scan window, a difference in appearance between the two weaving patterns that is characteristic of the presence of an anomaly resulting from pollution and/or weaving faults in the fiber preform, and when an anomaly is recognized, its position on the fiber preform and a label selected by an operator from predetermined types of anomaly are stored together with an image of said anomaly, and when the recognized anomaly is repaired, a corresponding label selected by an operator from predetermined types of repair is stored together with an image of said repair, and the recognized anomalies and the repaired anomalies are displayed in a developed representation or a three-dimensional representation of said fiber preform that is accessible to the operator from said control unit.
An electrosurgical system, comprising: an electrosurgical power generating source; an energy applicator operably associated with the electrosurgical power generating source; a heat-sensitive optical probe adapted to utilize spectral properties of light to assess one or more optical fiber portions (P1, P2, P3...) of the heat-sensitive optical probe in response to heat; and a processor unit communicatively coupled to the heat-sensitive optical probe, wherein the processor unit generates at least one electrical signal for controlling at least one operating parameter associated with the electrosurgical power generating source based at least in part on at least one electrical signal generated by the heat-sensitive optical probe in response to heat, wherein the heat-sensitive optical probe includes at least one optical fiber; a plurality of color filter regions (P1, P2, P3...) disposed on the at least one optical fiber, each of the plurality of color filter regions (P1, P2, P3...) having a characteristic wavelength different than the other; and a heat-sensitive material disposed on the plurality of color filter regions (P1, P2, P3...). an electrosurgical power generating source; an energy applicator operably associated with the electrosurgical power generating source; a heat-sensitive optical probe adapted to utilize spectral properties of light to assess one or more optical fiber portions (P1, P2, P3...) of the heat-sensitive optical probe in response to heat; and a processor unit communicatively coupled to the heat-sensitive optical probe, wherein the processor unit generates at least one electrical signal for controlling at least one operating parameter associated with the electrosurgical power generating source based at least in part on at least one electrical signal generated by the heat-sensitive optical probe in response to heat, a heat-sensitive optical probe adapted to utilize spectral properties of light to assess one or more optical fiber portions (P1, P2, P3...) of the heat-sensitive optical probe in response to heat; and a processor unit communicatively coupled to the heat-sensitive optical probe, wherein the processor unit generates at least one electrical signal for controlling at least one operating parameter associated with the electrosurgical power generating source based at least in part on at least one electrical signal generated by the heat-sensitive optical probe in response to heat, wherein the heat-sensitive optical probe includes at least one optical fiber; a plurality of color filter regions (P1, P2, P3...) disposed on the at least one optical fiber, each of the plurality of color filter regions (P1, P2, P3...) having a characteristic wavelength different than the other; and a heat-sensitive material disposed on the plurality of color filter regions (P1, P2, P3...).
A method for identifying an incoming request for an inter-user equipment transfer, IUT, of a session for which a first media and a second media communication between a first user equipment, UE, and a second UE have been established, wherein the first UE belongs to a subscription and is the controller UE for the session, the method comprising: receiving (410A; 510A), at a first Service Centralisation and Continuity Application Server, SCC AS associated with a third UE, an IUT request comprising an indicator for an IUT of the session, wherein the IUT request is received from the third UE that belongs to a different subscription; and routing (420A; 520A), by the first SCC AS, the IUT request to a second SCC AS associated with the first UE, based on the indicator; wherein the IUT request is one of a request to initiate a replication of the second media to the third UE or a request to initiate a transfer of the second media to the third UE; wherein the IUT request includes a message request comprising a media feature tag within a portion of the message request, wherein the media feature tag is used for identifying that the IUT request belongs to a different subscription; and the method further including relaying, by the first SCC AS, an invite request, originating from the second SCC AS to the third UE. receiving (410A; 510A), at a first Service Centralisation and Continuity Application Server, SCC AS associated with a third UE, an IUT request comprising an indicator for an IUT of the session, wherein the IUT request is received from the third UE that belongs to a different subscription; and routing (420A; 520A), by the first SCC AS, the IUT request to a second SCC AS associated with the first UE, based on the indicator; wherein the IUT request is one of a request to initiate a replication of the second media to the third UE or a request to initiate a transfer of the second media to the third UE; wherein the IUT request includes a message request comprising a media feature tag within a portion of the message request, wherein the media feature tag is used for identifying that the IUT request belongs to a different subscription; and the method further including relaying, by the first SCC AS, an invite request, originating from the second SCC AS to the third UE.
Method for producing a profiled component having at least one portion (8, 9, 10) of increased hardness and at least one region (4, 6, 7) of unchanged hardness, wherein a component blank is first formed by means of at least one at least single-staged bending process, and the portion (8, 9, 10) to be hardened is subsequently heated to a high temperature level above 723°C, and the profiled component is then cooled to a low temperature level below 200°C, wherein the profiled component and a thermal tool are moved relative to one another, characterized in that after the forming of the component blank to the profiled component, and before and/or during the heating of the portion (8, 9, 10) to be hardened to a high temperature level at significantly above 723°C, the at least one region (4, 6, 7) not to be hardened is also heated to a medium temperature level below 723°C so as to when cooling the profiled component to the lower temperature level below 200°C reduce the creation of temperature-dependent stresses in the profiled component to the extent that the profiled component when cooling is no longer distorted, wherein the profiled component is configured as a sill.
A collision avoidance assist device configured to perform an assist for avoiding a collision between a vehicle and an object, the device comprising: an object detection unit configured to detect the object around the vehicle; a time calculation unit configured to calculate a time to collision between the vehicle and the object based on the detection result of the object detection unit; and an assist control unit configured to suppress a release of a braking for avoidance assist in a case where the time to collision decreases when an execution of the collision avoidance assist is controlled based on the time to collision, the collision avoidance assist device being characterized in that the assist control unit is configured to suppress the release of the braking for avoidance assist more after a predetermined time has passed from starting of the braking for avoidance assist than before the predetermined time has passed, and to suppress the release of the braking for avoidance assist by expanding a regulation range of a horizontal position of the collision being the position of the object in the direction orthogonal to the traveling direction of the vehicle at the predicted collision time point, and that is used for determining the possibility of the collision. an object detection unit configured to detect the object around the vehicle; a time calculation unit configured to calculate a time to collision between the vehicle and the object based on the detection result of the object detection unit; and an assist control unit configured to suppress a release of a braking for avoidance assist in a case where the time to collision decreases when an execution of the collision avoidance assist is controlled based on the time to collision, the collision avoidance assist device being characterized in that the assist control unit is configured to suppress the release of the braking for avoidance assist more after a predetermined time has passed from starting of the braking for avoidance assist than before the predetermined time has passed, and to suppress the release of the braking for avoidance assist by expanding a regulation range of a horizontal position of the collision being the position of the object in the direction orthogonal to the traveling direction of the vehicle at the predicted collision time point, and that is used for determining the possibility of the collision.
A monoclonal antibody characterized by the following (a) to (c); (a) showing higher reactivity to mature renin and open structure prorenin, both of which are not bound with a renin inhibitor, than to mature renin and open structure prorenin, both of which are inactivated by binding of a renin inhibitor, (b) binding to a peptide composed of 30th to 86th amino acids of an amino acid sequence set forth in SEQ ID NO: 1, and (c) not binding to a peptide composed of 58th to 170th amino acids of an amino acid sequence set forth in SEQ ID NO: 1. (a) showing higher reactivity to mature renin and open structure prorenin, both of which are not bound with a renin inhibitor, than to mature renin and open structure prorenin, both of which are inactivated by binding of a renin inhibitor, (b) binding to a peptide composed of 30th to 86th amino acids of an amino acid sequence set forth in SEQ ID NO: 1, and (c) not binding to a peptide composed of 58th to 170th amino acids of an amino acid sequence set forth in SEQ ID NO: 1.
A sensor (100;300;500) for photoacoustic spectroscopy comprising: - a support, - a mechanical resonator (104;302;502), fastened to said support, and comprising: • at least one sensor element intended to be vibrated by an acoustic wave, and • at least one first capacitive electrode (108 1 -108 4;504 1 -504 4), mechanically coupled to said sensor element, so as to be moved by said sensor element when it is vibrated; and - at least one second capacitive electrode forming, with said at least one first electrode (108 1 -108 4;504 1 -504 4), a capacitive sensor; characterized in that said support has, opposite said sensor element, a perforated part formed by one or more through holes. - a support, - a mechanical resonator (104;302;502), fastened to said support, and comprising: • at least one sensor element intended to be vibrated by an acoustic wave, and • at least one first capacitive electrode (108 1 -108 4;504 1 -504 4), mechanically coupled to said sensor element, so as to be moved by said sensor element when it is vibrated; and • at least one sensor element intended to be vibrated by an acoustic wave, and • at least one first capacitive electrode (108 1 -108 4;504 1 -504 4), mechanically coupled to said sensor element, so as to be moved by said sensor element when it is vibrated; and - at least one second capacitive electrode forming, with said at least one first electrode (108 1 -108 4;504 1 -504 4), a capacitive sensor;
Device for processing a workpiece, comprising: a tool body which carries a processing tool, and a sensing device, wherein the sensing device is configured to determine the position of the processing tool relative to the workpiece, the processing tool having at least one radially adjustable tool blade, characterised in that the device also includes an adjusting body which can be moved in the direction of an axis of the tool body and which has a changing inner diameter, wherein the tool blade is pressed against the inner diameter of the adjusting body. a tool body which carries a processing tool, and a sensing device, wherein the sensing device is configured to determine the position of the processing tool relative to the workpiece, the processing tool having at least one radially adjustable tool blade, characterised in that the device also includes an adjusting body which can be moved in the direction of an axis of the tool body and which has a changing inner diameter, wherein the tool blade is pressed against the inner diameter of the adjusting body.
Device for producing foamed insulating panels with a mold plate that forms a bottom, a mold plate opposite the molded bottom plate and forming a cover, and a mold frame arranged between the two mold plates (05, 06), wherein the two mold plates (05, 06) and the mold frame form a foaming mold, having an adjusting device with an adjusting drive, wherein one of the two mold plates is movable by means of the adjusting drive, whereby a nominal spacing of the two mold plates (05, 06) can be set, characterized by a pressing device having at least one pressing drive, which during the production cycle of an insulating panel in the foaming mold can cause a reversing movement of at least one of the mold plates (05, 06) while altering the relative spacing of the two mold plates (05, 06), accompanied by a reversible pressing of the insulating panel, and wherein one of the two mold plates is arranged fixedly relative to the mold frame, and the opposite mold plate is movable by means of the pressing- and adjusting drive.
A fiber made from a thermoplastic polyurethane composition, wherein said thermoplastic polyurethane composition comprises: (a) a thermoplastic polyurethane comprising the reaction product of: (i) one or more polyols, (ii) one or more diisocyanates, (iii) one or more chain extenders, (iv) optionally one or more crosslinking agents, and (v) one or more functional modifiers; wherein each said functional modifier is a reaction product of an aminodiol and a Bronsted acid; wherein the functional modifier is incorporated into the backbone of the thermoplastic polyurethane of component (a). (a) a thermoplastic polyurethane comprising the reaction product of: (i) one or more polyols, (ii) one or more diisocyanates, (iii) one or more chain extenders, (iv) optionally one or more crosslinking agents, and (v) one or more functional modifiers;
Device for performing or preparing a transfemoral annuloplasty of the mitral valve of a heart, and intended to be positioned in a sealed introducer placed in a femoral vein to penetrate the left atrium of the heart through its septal wall, comprising an assembly for cooperating with a handle under the control of a control means for actuating the assembly for placing and attaching a reinforcement ring on the mitral annulus, with said assembly arranged at the end of a handling rod and comprising: - a bearing member comprising a plurality of arms able to provide support under the mitral annulus in a manner uniformly distributed along the periphery of the mitral valve; - a counter-bearing member comprising a plurality of arms, at the free end of which arms the reinforcement ring is arranged, with the arms connected pivotably to a support disposed coaxially with respect to the rod in such a way as to change, under the action of the control means, from a position folded along the rod to a deployed position spaced away from the rod in order to realize the countersupport on the mitral annulus and position the reinforcement ring; characterized in that the plurality of arms are connected pivotably to the end of the rod so as to change, under the action of the control means, from a position folded along the rod to a deployed position spaced away from the rod, and in that the assembly comprises means for removing sutures to attach the reinforcement ring to the mitral annulus. - a bearing member comprising a plurality of arms able to provide support under the mitral annulus in a manner uniformly distributed along the periphery of the mitral valve; - a counter-bearing member comprising a plurality of arms, at the free end of which arms the reinforcement ring is arranged, with the arms connected pivotably to a support disposed coaxially with respect to the rod in such a way as to change, under the action of the control means, from a position folded along the rod to a deployed position spaced away from the rod in order to realize the countersupport on the mitral annulus and position the reinforcement ring;
A rebate ventilator (17, 17') for a window or for a door which is configured for attachment to a frame or to a leaf of the window or of the door and which defines an air passage for an airflow passing through a rebate of the window or of the door, wherein at least one flow limiting valve is arranged in the air passage and comprises a closing element (21, 21') which is movable between an open position and a closed position and which is movable in the direction of the closed position by a strong air flow; wherein the closing element (21, 21') is arranged in the region of a constriction of the air passage such that, on the occurrence of a strong air flow, it is moved in the direction of the closed position due to the Venturi effect; wherein the closing element (21, 21') is configured as a flap which is pivotable about a pivot axis extending transversely to a main flow axis of the air passage; and wherein a wall section of the air passage disposed opposite the flap (21, 21') has a curvature which faces into the air passage.
A streamlined body assembly for suppressing vibrations of an enclosure, wherein the streamlined body assembly comprises a streamlined body and the enclosure, and the streamlined body is adapted to surround the enclosure and has a streamlined leading edge, and when the streamlined body surrounds the enclosure, the leading edge faces towards an upwind incoming wind flow, which allows the upwind incoming wind flow to form a positive attack angle and/or a negative attack angle; the streamlined body is configured to be raised relative to the enclosure under the action of the upwind incoming wind flow; and the streamlined body has an annular shape and has an annular cavity filled with a gas, and the gas has a density less than the density of air, wherein, when the streamlined body is at the top of the enclosure, a gap between an inner wall of a central through hole of the streamlined body and the enclosure has a predetermined size for disrupting a raising force generated by the upwind incoming wind flow, and further achieving self-balancing. the streamlined body is configured to be raised relative to the enclosure under the action of the upwind incoming wind flow; and the streamlined body has an annular shape and has an annular cavity filled with a gas, and the gas has a density less than the density of air, wherein, when the streamlined body is at the top of the enclosure, a gap between an inner wall of a central through hole of the streamlined body and the enclosure has a predetermined size for disrupting a raising force generated by the upwind incoming wind flow, and further achieving self-balancing.
Method for operating an amplifier module of a communication satellite, the method comprising the steps of: detection of an undesired state of the amplifier module; storage of state data that indicate the undesired state in a non-volatile memory of the amplifier module after the undesired state has been detected; deactivation of the amplifier module after the storage of the state data. detection of an undesired state of the amplifier module; storage of state data that indicate the undesired state in a non-volatile memory of the amplifier module after the undesired state has been detected; deactivation of the amplifier module after the storage of the state data.
A vacuum cleaner comprising: a cleaner body; and a dust container separably mounted on the cleaner body, wherein the dust container comprises: a dust collection body comprising a first chamber (213, 215) in which air and dust are separated from each other and a second chamber in which the dust separated in the first chamber (213, 215) are stored; and a pressing member rotatably reciprocated between the first and second chambers within the dust collection body to compress the dust stored in the second chamber in one direction while moving from the first chamber (213, 215) to the second chamber, characterized in that the dust collection body comprises a partition wall to partition the first chamber (213, 215) from the second chamber, a communication hole allowing the first and second chambers to communicate with each other is defined in the partition wall, and the pressing member passes through the communication hole. a cleaner body; and a dust container separably mounted on the cleaner body, wherein the dust container comprises: a dust collection body comprising a first chamber (213, 215) in which air and dust are separated from each other and a second chamber in which the dust separated in the first chamber (213, 215) are stored; and a pressing member rotatably reciprocated between the first and second chambers within the dust collection body to compress the dust stored in the second chamber in one direction while moving from the first chamber (213, 215) to the second chamber, characterized in that the dust collection body comprises a partition wall to partition the first chamber (213, 215) from the second chamber, a communication hole allowing the first and second chambers to communicate with each other is defined in the partition wall, and the pressing member passes through the communication hole. a dust collection body comprising a first chamber (213, 215) in which air and dust are separated from each other and a second chamber in which the dust separated in the first chamber (213, 215) are stored; and a pressing member rotatably reciprocated between the first and second chambers within the dust collection body to compress the dust stored in the second chamber in one direction while moving from the first chamber (213, 215) to the second chamber, characterized in that the dust collection body comprises a partition wall to partition the first chamber (213, 215) from the second chamber, a communication hole allowing the first and second chambers to communicate with each other is defined in the partition wall, and the pressing member passes through the communication hole.