mhurhangee/ep-ind-claims huggingface dataset:
Fencing mesh for protecting an interior space from projectiles, comprising a first set of wires which are arranged essentially parallel with respect to each other and a second set of wires which are arranged essentially parallel with respect to each other and intersect the first set of wires, wherein the wires of the first set are connected to the wires of the second set at the locations where they intersect and the wires of the second set have a greater tensile strength than the wires of the first set, characterized in that the wires (2, 3) are welded to one another in order to connect them to each other.
Zapping method in a video receiver, comprising, in said receiver, the steps of: - reception of a zapping command to a new programme, - request (S4, S5) for the reception of a first stream comprising the new programme and a second stream comprising the same programme as the first stream, the second stream being suitable to be processed more rapidly than the first stream by the receiver, - reception (S6, S8) of the first stream and the second stream, the second stream being received delayed in respect of the first stream, - before decoding, memorization (S7, S9) of the first stream during a longer period than the memorization of the second stream, the memorization time of the first stream being fixed by said receiver according to the time delay between the first stream and the second stream, - display of the second stream, and - display of the first stream in the continuity of the second stream. - reception of a zapping command to a new programme, - request (S4, S5) for the reception of a first stream comprising the new programme and a second stream comprising the same programme as the first stream, the second stream being suitable to be processed more rapidly than the first stream by the receiver, - reception (S6, S8) of the first stream and the second stream, the second stream being received delayed in respect of the first stream, - before decoding, memorization (S7, S9) of the first stream during a longer period than the memorization of the second stream, the memorization time of the first stream being fixed by said receiver according to the time delay between the first stream and the second stream, - display of the second stream, and - display of the first stream in the continuity of the second stream.
A method for establishing an evolved packet system, EPS, bearer, comprising: sending, by a first base station to which a user equipment, UE, owning a first EPS bearer based on a first component carrier, CC, belongs, a request message for establishing the EPS bearers or a request message for modifying the EPS bearers for the UE, to the core network entity to request to establish multiple EPS bearers based on multiple CCs, the first EPS bearer being an EPS bearer between a second base station and the UE; receiving, by the first base station, an instruction for establishing the multiple EPS bearers based on the multiple CCs for the UE, which is sent by the core network entity; determining, by the first base station to establish a second EPS bearer based on a second CC for the UE; and establishing, by the first base station, the second EPS bearer for the UE, the second EPS bearer being an EPS bearer between the first base station and the UE. sending, by a first base station to which a user equipment, UE, owning a first EPS bearer based on a first component carrier, CC, belongs, a request message for establishing the EPS bearers or a request message for modifying the EPS bearers for the UE, to the core network entity to request to establish multiple EPS bearers based on multiple CCs, the first EPS bearer being an EPS bearer between a second base station and the UE; receiving, by the first base station, an instruction for establishing the multiple EPS bearers based on the multiple CCs for the UE, which is sent by the core network entity; determining, by the first base station to establish a second EPS bearer based on a second CC for the UE; and establishing, by the first base station, the second EPS bearer for the UE, the second EPS bearer being an EPS bearer between the first base station and the UE.
A paper making machine for making tissue paper, the machine comprising: a) a heat roll arranged to dry a wet paper web b) an extended nip roll arranged to form a transfer nip with said heat roll, said extended nip roll having a flexible jacket arranged around the circumferential area of said extended nip roll and forming a loop around at least one support body (18, 19), characterized in that an external surface of said flexible jacket is provided with a textured portion which has knuckles and depressions such that when the wet paper web passes the transfer nip between said extended nip roll and said heat roll, said textured portion of the external surface of the flexible jacket will impart a three-dimensional texture to said paper web. a) a heat roll arranged to dry a wet paper web b) an extended nip roll arranged to form a transfer nip with said heat roll, said extended nip roll having a flexible jacket arranged around the circumferential area of said extended nip roll and forming a loop around at least one support body (18, 19), characterized in that an external surface of said flexible jacket is provided with a textured portion which has knuckles and depressions such that when the wet paper web passes the transfer nip between said extended nip roll and said heat roll, said textured portion of the external surface of the flexible jacket will impart a three-dimensional texture to said paper web.
An in vitro method of identifying a subject as having multiple sclerosis, comprising: measuring biomarkers in a cerebral spinal fluid sample obtained from the subject, wherein the biomarkers comprise the ratio of FLT4 to TNFRSF17, the ratio of TNFRSF17 to CD48, the ratio of TNFRSF17 to IL16, the ratio of TNFRSF17 to TNFRSF6B, the ratio of TNFRSF17 to CD163, the ratio of TNFRSF17 to SHC1, TNFRSF17, the ratio of TNFRSF17 to UFC1, the ratio of LY9 to IGHG1, the ratio of LTA LTB to IGHG1, MMP7, SLAMF7, TNFRSF1B, IGHG1, CD48, VCAM1, CHIT1 and PLA2G5; and identifying the subject as having MS if there is an increase in TNFRSF17, MMP7, SLAMF7, TNFRSF1B, CD48, VCAM1, CHIT1, PLA2G5, IGHG1, the ratio of TNFRSF17 to CD48, the ratio of TNFRSF17 to IL16, the ratio of TNFRSF17 to TNFRSF6B, the ratio of TNFRSF17 to CD163, the ratio of TNFRSF17 to SHC1, and the ratio of TNFRSF17 to UFC1, and a decrease in the ratio of FLT4 to TNFRSF17, the ratio of LY9 to IGHG1, and the ratio of LTA LTB to IGHG1, compared to a control, thereby identifying the subject as having MS. measuring biomarkers in a cerebral spinal fluid sample obtained from the subject, wherein the biomarkers comprise the ratio of FLT4 to TNFRSF17, the ratio of TNFRSF17 to CD48, the ratio of TNFRSF17 to IL16, the ratio of TNFRSF17 to TNFRSF6B, the ratio of TNFRSF17 to CD163, the ratio of TNFRSF17 to SHC1, TNFRSF17, the ratio of TNFRSF17 to UFC1, the ratio of LY9 to IGHG1, the ratio of LTA LTB to IGHG1, MMP7, SLAMF7, TNFRSF1B, IGHG1, CD48, VCAM1, CHIT1 and PLA2G5; and identifying the subject as having MS if there is an increase in TNFRSF17, MMP7, SLAMF7, TNFRSF1B, CD48, VCAM1, CHIT1, PLA2G5, IGHG1, the ratio of TNFRSF17 to CD48, the ratio of TNFRSF17 to IL16, the ratio of TNFRSF17 to TNFRSF6B, the ratio of TNFRSF17 to CD163, the ratio of TNFRSF17 to SHC1, and the ratio of TNFRSF17 to UFC1, and a decrease in the ratio of FLT4 to TNFRSF17, the ratio of LY9 to IGHG1, and the ratio of LTA LTB to IGHG1, compared to a control, thereby identifying the subject as having MS.
A method of measuring objects which are conveyed in a conveying direction by means of an object conveyor, wherein (a) an object edge of a conveyed object is detected at an inspection position by means of an optoelectronic sensor, (b) on the detection of the object edge at the inspection position, a trigger signal is output to at least two further optoelectronic sensors (52, 53, 54) which are spatially resolving at least in the conveying direction and which are arranged spaced apart from one another at least transversely to the conveying direction, (c) on or after the reception of the trigger signal, sensor data of the optoelectronic sensors (52, 53, 54) which are spatially resolving at least in the conveying direction are read out, (d) respective positions of the object edge are determined based on the read-out sensor data, and (e) an orientation of the object edge relative to the conveying direction is determined based on the determined positions of the object edge, preferably based on a linear regression, wherein, in step (b), the trigger signal is further output to an optoelectronic sensor which is spatially resolving at least transversely to the conveying direction and which is arranged in the region of a side edge of the conveyed object, wherein the position of the side edge is determined by means of the optoelectronic sensor which is spatially resolving at least transversely to the conveying direction and a shape of the object is determined based on the position of the side edge. (a) an object edge of a conveyed object is detected at an inspection position by means of an optoelectronic sensor, (b) on the detection of the object edge at the inspection position, a trigger signal is output to at least two further optoelectronic sensors (52, 53, 54) which are spatially resolving at least in the conveying direction and which are arranged spaced apart from one another at least transversely to the conveying direction, (c) on or after the reception of the trigger signal, sensor data of the optoelectronic sensors (52, 53, 54) which are spatially resolving at least in the conveying direction are read out, (d) respective positions of the object edge are determined based on the read-out sensor data, and (e) an orientation of the object edge relative to the conveying direction is determined based on the determined positions of the object edge, preferably based on a linear regression, wherein, in step (b), the trigger signal is further output to an optoelectronic sensor which is spatially resolving at least transversely to the conveying direction and which is arranged in the region of a side edge of the conveyed object, wherein the position of the side edge is determined by means of the optoelectronic sensor which is spatially resolving at least transversely to the conveying direction and a shape of the object is determined based on the position of the side edge.
An acoustic attenuation panel comprising: - a perforated acoustic wall, - a first alveolar structure connected to the perforated wall, having a plurality of acoustic cells delimited by peripheral partitions, - a second alveolar structure having a plurality of acoustic cells delimited by peripheral partitions, - a septum having a plurality of macro-perforations, interposed between said first alveolar structure and said second alveolar structure, each acoustic cell of the first alveolar structure and each acoustic cell of said at least second alveolar structure being disposed opposite a single perforation of the septum, each acoustic cell having a hexagonal shape, characterized in that the macro-perforations are regularly distributed in the septum so that three adjacent macro-perforations form an equilateral triangle, one side of which is equal to the diameter (D1, D2) of the acoustic cells (440, 480) of the alveolar structures (44, 48) and one height of which is equal to 0.86 times the diameter of the acoustic cells (440, 480) of the alveolar structures (44, 48) +/- 20%, the diameter (D1, D2) being defined as the diameter of the circle inscribed in the hexagon of an acoustic cell, the diameter of the acoustic cells of the first alveolar structure is equal to the diameter of the acoustic cells of the second alveolar structure. - a perforated acoustic wall, - a first alveolar structure connected to the perforated wall, having a plurality of acoustic cells delimited by peripheral partitions, - a second alveolar structure having a plurality of acoustic cells delimited by peripheral partitions, - a septum having a plurality of macro-perforations, interposed between said first alveolar structure and said second alveolar structure, each acoustic cell of the first alveolar structure and each acoustic cell of said at least second alveolar structure being disposed opposite a single perforation of the septum, each acoustic cell having a hexagonal shape, characterized in that the macro-perforations are regularly distributed in the septum so that three adjacent macro-perforations form an equilateral triangle, one side of which is equal to the diameter (D1, D2) of the acoustic cells (440, 480) of the alveolar structures (44, 48) and one height of which is equal to 0.86 times the diameter of the acoustic cells (440, 480) of the alveolar structures (44, 48) +/- 20%, the diameter (D1, D2) being defined as the diameter of the circle inscribed in the hexagon of an acoustic cell, the diameter of the acoustic cells of the first alveolar structure is equal to the diameter of the acoustic cells of the second alveolar structure.
A catheter system for remodeling a tissue adjacent a blood vessel, the system comprising: a catheter including an elongate flexible catheter body having a proximal end and a distal end with an axis therebetween, a radially expandable support structure disposed near the distal end of the catheter body, and a plurality of selectively energizable electrodes disposed on the radially expandable support structure for engaging a luminal wall of the blood vessel; a variable frequency power source coupled to the electrodes such that, when one or more electrodes of the plurality of electrodes engage the luminal wall, an electrical circuit comprising the power source, one or more electrodes of the plurality of electrodes, and engaged luminal wall can be defined; and a controller coupled with the power source, the controller configured to selectively energize electrodes of the plurality of electrodes and control electrical energy delivery from the power source to remodel the tissue adjacent the blood vessel with the electrodes, wherein the system further comprises a processor configured to halt the remodeling in response to a change in impedance phase angle and magnitude of the circuit at a selected frequency or range of frequencies. a catheter including an elongate flexible catheter body having a proximal end and a distal end with an axis therebetween, a radially expandable support structure disposed near the distal end of the catheter body, and a plurality of selectively energizable electrodes disposed on the radially expandable support structure for engaging a luminal wall of the blood vessel; a variable frequency power source coupled to the electrodes such that, when one or more electrodes of the plurality of electrodes engage the luminal wall, an electrical circuit comprising the power source, one or more electrodes of the plurality of electrodes, and engaged luminal wall can be defined; and a controller coupled with the power source, the controller configured to selectively energize electrodes of the plurality of electrodes and control electrical energy delivery from the power source to remodel the tissue adjacent the blood vessel with the electrodes, wherein the system further comprises a processor configured to halt the remodeling in response to a change in impedance phase angle and magnitude of the circuit at a selected frequency or range of frequencies.
An airfoil for a gas turbine rotor blade, comprising: a pressure side wall; a suction side wall connected to the pressure side wall at a leading edge portion and a trailing edge portion, the pressure side wall and the suction side wall collectively defining an internal cavity within the airfoil; and a plurality of pins disposed within the internal cavity; wherein the trailing edge portion defines a first cooling passage (164(a)) comprising a first inlet (166(a)) spaced apart from a first outlet (168(a)) by a first length (176(a)), the first cooling passage (164(a)) having a first diameter (170(a)); and a second cooling passage (164(b)) comprising a second inlet (166(b)) spaced apart from a second outlet (168(b)) by a second length (176(b)), the first length (176(a)) being greater than the second length (176(b)), the second cooling passage (164(b)) having a second diameter (170(b)); and a third cooling passage (164(c)) comprising a third inlet (166(c)) spaced apart from a third outlet (168(c)), the third cooling passage (164(c)) having a third diameter (170(c)); and wherein the first cooling passage (164(a)) is positioned radially outwardly from the third cooling passage (164(c)), and wherein the third cooling passage (164(c)) is positioned radially outwardly from the second cooling passage (164(b)), the airfoil being characterised in that the first length (175(a)) being greater than the second length (176(b)); and in that the first diameter (170(a)) of the first cooling passage (164(a)) is less than a second diameter (170(b)) of the second cooling passage (164(b)) and a third diameter (170(c)) of the third cooling passage (164(c)) is less than the second diameter (170(b)) and greater than the first diameter (170(a)). a pressure side wall; a suction side wall connected to the pressure side wall at a leading edge portion and a trailing edge portion, the pressure side wall and the suction side wall collectively defining an internal cavity within the airfoil; and a plurality of pins disposed within the internal cavity; wherein the trailing edge portion defines a first cooling passage (164(a)) comprising a first inlet (166(a)) spaced apart from a first outlet (168(a)) by a first length (176(a)), the first cooling passage (164(a)) having a first diameter (170(a)); and a second cooling passage (164(b)) comprising a second inlet (166(b)) spaced apart from a second outlet (168(b)) by a second length (176(b)), the first length (176(a)) being greater than the second length (176(b)), the second cooling passage (164(b)) having a second diameter (170(b)); and a third cooling passage (164(c)) comprising a third inlet (166(c)) spaced apart from a third outlet (168(c)), the third cooling passage (164(c)) having a third diameter (170(c)); and
A semiconductor device, comprising: a substrate; a first dielectric layer disposed on the substrate, the first dielectric layer around a first metal interconnection; a second dielectric layer disposed on the first dielectric layer, the second dielectric layer around a via and a second metal interconnection, the second metal interconnection directly contacting the first metal interconnection; and a third dielectric layer disposed on the second dielectric layer, the third dielectric layer around a first magnetic tunneling junction, MTJ, structure and a third metal interconnection, wherein the third metal interconnection directly contacts the top electrode of the first MTJ structure and the second metal interconnection and the first MTJ structure directly contacts the via, characterized in that the third metal interconnection electrically connects the first metal interconnection to form a short circuit of the first MTJ structure. a substrate; a first dielectric layer disposed on the substrate, the first dielectric layer around a first metal interconnection; a second dielectric layer disposed on the first dielectric layer, the second dielectric layer around a via and a second metal interconnection, the second metal interconnection directly contacting the first metal interconnection; and a third dielectric layer disposed on the second dielectric layer, the third dielectric layer around a first magnetic tunneling junction, MTJ, structure and a third metal interconnection, wherein the third metal interconnection directly contacts the top electrode of the first MTJ structure and the second metal interconnection and the first MTJ structure directly contacts the via, characterized in that the third metal interconnection electrically connects the first metal interconnection to form a short circuit of the first MTJ structure.
Compound of formula: wherein R 1 is selected from the group consisting of: • -CH=CH-COOR 2 with R 2 representing the formula -Y-O-X-(3,4) diphenol with: • Y representing a pyranose ring, substituted by a CH 2 -OH and at least one hydroxyl function and substituted by a rhamnose; • X representing the chain -CH 2 -CH 2 -; • -Z-O-R 3 With: - Z representing the chain -CH 2 -CH 2 -; - R 3 representing the formula -W-O-CO-CH=CH-(3,4) diphenol with W representing a pyranose ring, substituted by a CH 2 -OH and at least one hydroxyl function and substituted by a rhamnose; for use in the prevention and/or the treatment of inflammatory diseases and/or disorders. • -CH=CH-COOR 2 with R 2 representing the formula -Y-O-X-(3,4) diphenol with: • Y representing a pyranose ring, substituted by a CH 2 -OH and at least one hydroxyl function and substituted by a rhamnose; • X representing the chain -CH 2 -CH 2 -; • Y representing a pyranose ring, substituted by a CH 2 -OH and at least one hydroxyl function and substituted by a rhamnose; • X representing the chain -CH 2 -CH 2 -; • -Z-O-R 3 With: - Z representing the chain -CH 2 -CH 2 -; - R 3 representing the formula -W-O-CO-CH=CH-(3,4) diphenol with W representing a pyranose ring, substituted by a CH 2 -OH and at least one hydroxyl function and substituted by a rhamnose; for use in the prevention and/or the treatment of inflammatory diseases and/or disorders. - Z representing the chain -CH 2 -CH 2 -; - R 3 representing the formula -W-O-CO-CH=CH-(3,4) diphenol with W representing a pyranose ring, substituted by a CH 2 -OH and at least one hydroxyl function and substituted by a rhamnose; for use in the prevention and/or the treatment of inflammatory diseases and/or disorders.
A powder metal engine component having a chemical composition on a weight percent basis, consisting of: 0.5 to 1.5% of C; 1.0 to 4.0% of Cr; 0.3 to 0.9% of Mn; 3.0 to 7.0% of Mo; 0.1 to 0.5% of V; 0.2 to 2.0% of Ni; 0.2 to 0.8% of S; 0.2 to 0.6% of W; 0 to 20.0% of Cu; and the balance being Fe together with unavoidable impurities. 0.5 to 1.5% of C; 1.0 to 4.0% of Cr; 0.3 to 0.9% of Mn; 3.0 to 7.0% of Mo; 0.1 to 0.5% of V; 0.2 to 2.0% of Ni; 0.2 to 0.8% of S; 0.2 to 0.6% of W; 0 to 20.0% of Cu; and
A method of wireless communication by a mobile device configured for carrier aggregation, CA, of at least a time division duplexed, TDD, first component carrier and a frequency division duplexed, FDD, second component carrier, characterized by comprising: receiving a resource grant in a DL subframe that allocates resources of the FDD second component carrier; determining an association between subframes of the TDD first component carrier and subframes of the FDD second component carrier based on an uplink-downlink configuration of the TDD first component carrier; and identifying, based on the association and the DL subframe in which the resource grant is received, a subframe of the TDD first component carrier for transmitting or receiving control information associated with the resource grant. receiving a resource grant in a DL subframe that allocates resources of the FDD second component carrier; determining an association between subframes of the TDD first component carrier and subframes of the FDD second component carrier based on an uplink-downlink configuration of the TDD first component carrier; and identifying, based on the association and the DL subframe in which the resource grant is received, a subframe of the TDD first component carrier for transmitting or receiving control information associated with the resource grant.