mhurhangee/ep-ind-claims huggingface dataset:
A protection device for an air conditioning system, the air conditioning system including a main air conditioning unit and at least one secondary air conditioning unit that are connected to each other by connection lines including a communication line in which an electric current flows, a power source line that conveys electric power and a common line in which the electric current flows and which also conveys the electric power, the air conditioning system configured to realize two-way communication between the main air conditioning unit and the at least one secondary air conditioning unit using signals generated by switching the electric current flowing in the communication line on and off, the protection device comprising: a first transistor including a first current path for being connected in series with the communication line; and a current-limiting controller configured to limit an electric current flowing in the first current path by controlling the first transistor so that a resistance value of the first current path increases, when the electric current flowing in the first current path is equal to or greater than a set electric current, wherein the protection device is configured to prevent an excess electric current from flowing in the communication line, the protection device being characterized by further comprising a current interrupt controller configured to turn off the first transistor when an end-to-end voltage of the first current path is equal to or greater than a set voltage. a first transistor including a first current path for being connected in series with the communication line; and a current-limiting controller configured to limit an electric current flowing in the first current path by controlling the first transistor so that a resistance value of the first current path increases, when the electric current flowing in the first current path is equal to or greater than a set electric current, wherein the protection device is configured to prevent an excess electric current from flowing in the communication line, the protection device being characterized by further comprising a current interrupt controller configured to turn off the first transistor when an end-to-end voltage of the first current path is equal to or greater than a set voltage.
A method comprising: receiving, by a wireless device, a system information block 1, SIB1, message indicating: a first number of physical downlink control channel, PDCCH, monitoring occasions, MOs, for receiving a paging early indication, of a PEI occasion associated with a paging occasion; a second number of PDCCH MOs, for receiving a paging message, of the paging occasion; and a third number of synchronization signal blocks, SSBs; skipping monitoring, a first PDCCH for receiving the PEI, over the first number of PDCCH MOs, in response to each of the first number of PDCCH MOs, of the PEI occasion, overlapping with at least one resource element, RE, of a SSB of the third number of SSBs; and in response to the skipping monitoring the first PDCCH, monitoring, over the second number of PDCCH MOs, a second PDCCH for a downlink control information, DCI, scheduling the paging message. receiving, by a wireless device, a system information block 1, SIB1, message indicating: a first number of physical downlink control channel, PDCCH, monitoring occasions, MOs, for receiving a paging early indication, of a PEI occasion associated with a paging occasion; a second number of PDCCH MOs, for receiving a paging message, of the paging occasion; and a third number of synchronization signal blocks, SSBs; skipping monitoring, a first PDCCH for receiving the PEI, over the first number of PDCCH MOs, in response to each of the first number of PDCCH MOs, of the PEI occasion, overlapping with at least one resource element, RE, of a SSB of the third number of SSBs; and a first number of physical downlink control channel, PDCCH, monitoring occasions, MOs, for receiving a paging early indication, of a PEI occasion associated with a paging occasion; a second number of PDCCH MOs, for receiving a paging message, of the paging occasion; and a third number of synchronization signal blocks, SSBs; skipping monitoring, a first PDCCH for receiving the PEI, over the first number of PDCCH MOs, in response to each of the first number of PDCCH MOs, of the PEI occasion, overlapping with at least one resource element, RE, of a SSB of the third number of SSBs; and in response to the skipping monitoring the first PDCCH, monitoring, over the second number of PDCCH MOs, a second PDCCH for a downlink control information, DCI, scheduling the paging message.
Antenna structure comprising: - a primary radiating structure comprising one or more first radiating elements; - a secondary radiating structure, operationally associated with said primary radiating structure, said secondary radiating structure comprising a plurality of second radiating elements adapted to be selectively electrically connected/disconnected one to /from another to vary the configuration of said secondary radiating structure, so as to vary the radiating properties of said antenna structure; - one or more first reactive loads between said primary and secondary radiating structures (11, 12); - one or more first circuitry elements adapted to electrically connect/disconnect said second radiating elements in a selective manner in order to vary the configuration of said second radiating structure; characterized in that said antenna structure comprises one or more second reactive loads electrically connected to said secondary radiating structure, said first reactive loads, said second reactive loads and said second radiating elements forming one or more circuitry structures, which are each formed by a corresponding first reactive load, second reactive load and second radiating element, said circuitry structures being each electrically resonant in the operating frequency band of said antenna structure and electrically connected/disconnected one to /from another in a selective manner, when said corresponding second radiating elements are electrically connected/disconnected one to/from another in a selective manner in accordance to the configuration selected for said second radiating structure, said circuitry structures being thereby adapted to maintain constantly equal to zero the overall reactive load that is electrically connected to said primary radiating structure. - a primary radiating structure comprising one or more first radiating elements; - a secondary radiating structure, operationally associated with said primary radiating structure, said secondary radiating structure comprising a plurality of second radiating elements adapted to be selectively electrically connected/disconnected one to /from another to vary the configuration of said secondary radiating structure, so as to vary the radiating properties of said antenna structure; - one or more first reactive loads between said primary and secondary radiating structures (11, 12); - one or more first circuitry elements adapted to electrically connect/disconnect said second radiating elements in a selective manner in order to vary the configuration of said second radiating structure;
A planting unit for a seeding machine, comprising: a seed supply; and a driven seed meter adapted to receive seeds from the seed supply and to dispense a singularized seed to a seed delivery system adapted to deposit the seed within a furrow in the ground of a field; wherein the driven movement of the seed meter is adapted to be controlled by an electronic control unit such as to achieve a pre-defined pattern of the seeds in the field and the planting unit is adapted to skip dispensing of seeds at locations at which a tramline extending in an angle to the travel direction is to be provided according to the pre-defined pattern, characterized in further comprising a seed branch-off assembly, the seed branch-off assembly adapted, upon receipt of a signal from the control unit, to take a seed out of the seed delivery system and to feed it back to the seed supply to provide the skip. a seed supply; and a driven seed meter adapted to receive seeds from the seed supply and to dispense a singularized seed to a seed delivery system adapted to deposit the seed within a furrow in the ground of a field; wherein the driven movement of the seed meter is adapted to be controlled by an electronic control unit such as to achieve a pre-defined pattern of the seeds in the field and the planting unit is adapted to skip dispensing of seeds at locations at which a tramline extending in an angle to the travel direction is to be provided according to the pre-defined pattern, characterized in further comprising a seed branch-off assembly, the seed branch-off assembly adapted, upon receipt of a signal from the control unit, to take a seed out of the seed delivery system and to feed it back to the seed supply to provide the skip.
A delivery member for delivering an implantable medical device to a target location of a body vessel, the delivery member comprising: a distal hypotube comprising a distal end shaped to receive the implantable medical device; a support coil section affixed to a proximal end of the distal hypotube; a proximal hypotube affixed to a proximal end of the support coil section; a lumen (108, 208, 308) extending through the distal hypotube, the support coil section, and the proximal hypotube; a stretch resistant member extending through a portion of the lumen, the stretch resistant member affixed to the proximal hypotube; characterised in that the delivery member further comprises a flexible sleeve covering at least a majority of an outer surface of the support coil section; and in that the stretch resistant member is affixed to the distal hypotube. a distal hypotube comprising a distal end shaped to receive the implantable medical device; a support coil section affixed to a proximal end of the distal hypotube; a proximal hypotube affixed to a proximal end of the support coil section; a lumen (108, 208, 308) extending through the distal hypotube, the support coil section, and the proximal hypotube; a stretch resistant member extending through a portion of the lumen, the stretch resistant member affixed to the proximal hypotube; characterised in that the delivery member further comprises a flexible sleeve covering at least a majority of an outer surface of the support coil section; and in that the stretch resistant member is affixed to the distal hypotube.
A joining method comprising: an overlapping step configured to overlap a first metal member and a second metal member with each other such that a front surface of the first metal member is opposed to a back surface of the second metal member; and a welding step configured to perform a laser welding and a MIG welding by using a hybrid welding machine including a laser welding unit for a preceding welding and a MIG welding unit for a following welding, characterized in that the welding step includes: performing the laser welding by emitting a laser beam onto a front surface of the second metal member; performing the MIG welding on an inner corner portion formed by the front surface of the first metal member and an end surface of the second metal member; setting a target position for the laser beam from the laser welding unit such in a way that the target position is located against the second metal member relative to a target position for a MIG arc by the MIG welding unit; setting a reference line parallel to a direction in which the hybrid welding machine moves; setting an imaginary line connecting a distal end of the laser welding unit and a distal end of the MIG welding unit; and setting a rotation angle θ5 between the reference line and the imaginary line to 20° to 70° in a view from above. an overlapping step configured to overlap a first metal member and a second metal member with each other such that a front surface of the first metal member is opposed to a back surface of the second metal member; and a welding step configured to perform a laser welding and a MIG welding by using a hybrid welding machine including a laser welding unit for a preceding welding and a MIG welding unit for a following welding, performing the laser welding by emitting a laser beam onto a front surface of the second metal member; performing the MIG welding on an inner corner portion formed by the front surface of the first metal member and an end surface of the second metal member; setting a target position for the laser beam from the laser welding unit such in a way that the target position is located against the second metal member relative to a target position for a MIG arc by the MIG welding unit; setting a reference line parallel to a direction in which the hybrid welding machine moves; setting an imaginary line connecting a distal end of the laser welding unit and a distal end of the MIG welding unit; and setting a rotation angle θ5 between the reference line and the imaginary line to 20° to 70° in a view from above.
Method for preparing a vinylphenolic compound from a precursor hydroxycinnamic acid, characterised in that it comprises a step of biotransformation of said hydroxycinnamic acid by placing in the presence of an enzyme with an activity of phenolic acid decarboxylase from a microorganism of the species Neolentinus lepideus.
A porous metal body having a skeleton with a three-dimensional network structure and comprising at least nickel, tin, and chromium, wherein a concentration of chromium contained in the porous metal body is highest at a surface of the skeleton of the porous metal body and decreases toward an inner side of the skeleton, wherein the surface chromium concentration measured by X-ray fluorescence is 4 to 30 times higher than the chromium compositional ratio calculated from the metal content when the porous metal body is viewed as a whole.
A method of producing a retreaded tire comprising: winding a precured tread on a crown portion of a base tire via unvulcanized rubber; connecting end portions of the precured tread in a circumferential direction with each other via unvulcanized rubber so as to form a connected portion between the end portions of the precured tread in the circumferential direction; connecting a groove portion of one of the end portions of the precured tread and a groove portion of the other one of the end portions of the precured tread to form a connected groove; inserting a stuffing member into the connected groove, the stuffing member being engaged with a shape of the groove; overlaying a vulcanization envelope covering at least the precured tread to be vulcanized; and adhering the precured tread to the base tire by vulcanization, wherein the stuffing member is a vulcanized rubber which fits the connected groove when inserted into the connected groove, and wherein the stuffing member extends over the connected portion in the circumferential direction. winding a precured tread on a crown portion of a base tire via unvulcanized rubber; connecting end portions of the precured tread in a circumferential direction with each other via unvulcanized rubber so as to form a connected portion between the end portions of the precured tread in the circumferential direction; connecting a groove portion of one of the end portions of the precured tread and a groove portion of the other one of the end portions of the precured tread to form a connected groove; inserting a stuffing member into the connected groove, the stuffing member being engaged with a shape of the groove; overlaying a vulcanization envelope covering at least the precured tread to be vulcanized; and adhering the precured tread to the base tire by vulcanization, wherein the stuffing member is a vulcanized rubber which fits the connected groove when inserted into the connected groove, and wherein the stuffing member extends over the connected portion in the circumferential direction.
A method of determining tow path surfaces associated with manufacturing a composite ply, comprising: computing, from an initial tow path surface, a projected tow path surface corresponding to a projection of the initial tow path surface onto a layup surface; determining, for particular start and end points (192, 194), edge lengths of opposing sides of the projected tow path surface; and comparing a difference between the edge lengths of the opposing sides to a threshold, to determine if an amount of curvature along the projected tow path surface is acceptable, determining a head model based on one or more course centerlines and head normal directions for a fiber placement head, wherein determining the head model includes: determining a plurality of initial tow path surfaces, including the initial tow path surface, based on the one or more course centerlines, a count of tows, and a tow width; and computing a plurality of projected tow path surfaces, including the projected tow path surface, based on the plurality of initial tow path surfaces, and wherein computing the projected tow path surface comprises computing a projection in a direction orthogonal to a direction of the initial tow path surface and to an axis of rotation of multiple rollers of a head of an automated fiber placement machine. computing, from an initial tow path surface, a projected tow path surface corresponding to a projection of the initial tow path surface onto a layup surface; determining, for particular start and end points (192, 194), edge lengths of opposing sides of the projected tow path surface; and comparing a difference between the edge lengths of the opposing sides to a threshold, to determine if an amount of curvature along the projected tow path surface is acceptable, determining a head model based on one or more course centerlines and head normal directions for a fiber placement head, wherein determining the head model includes: determining a plurality of initial tow path surfaces, including the initial tow path surface, based on the one or more course centerlines, a count of tows, and a tow width; and computing a plurality of projected tow path surfaces, including the projected tow path surface, based on the plurality of initial tow path surfaces, and wherein computing the projected tow path surface comprises computing a projection in a direction orthogonal to a direction of the initial tow path surface and to an axis of rotation of multiple rollers of a head of an automated fiber placement machine. determining a plurality of initial tow path surfaces, including the initial tow path surface, based on the one or more course centerlines, a count of tows, and a tow width; and computing a plurality of projected tow path surfaces, including the projected tow path surface, based on the plurality of initial tow path surfaces, and wherein computing the projected tow path surface comprises computing a projection in a direction orthogonal to a direction of the initial tow path surface and to an axis of rotation of multiple rollers of a head of an automated fiber placement machine.
A mass spectrometry system comprising: a laser source arranged to generate a laser beam (202; 402); a trapping volume (206; 404); and first and second beam deflectors (208, 210; 406; 408) arranged on a path from the laser source to the trapping volume (206; 404); characterized in that the first beam deflector (208; 406) is configured to oscillate in a first direction at a first frequency and the second beam deflector (210; 408) configured to oscillate in a second direction orthogonal to the first direction at a second frequency; the system further comprising a deflector controller configured to: scan a scanned area within the trapping volume (206; 404) with the laser beam (202; 402) by controlling the oscillation of the first and second beam deflectors (208, 210; 406, 408) to cause ions trapped within the trapping volume (206; 404) to become excited, the scanned area having a first dimension defined by the oscillation in first direction and a second dimension defined by the oscillation in the second direction. a laser source arranged to generate a laser beam (202; 402); a trapping volume (206; 404); and first and second beam deflectors (208, 210; 406; 408) arranged on a path from the laser source to the trapping volume (206; 404); characterized in that the first beam deflector (208; 406) is configured to oscillate in a first direction at a first frequency and the second beam deflector (210; 408) configured to oscillate in a second direction orthogonal to the first direction at a second frequency; the system further comprising a deflector controller configured to: scan a scanned area within the trapping volume (206; 404) with the laser beam (202; 402) by controlling the oscillation of the first and second beam deflectors (208, 210; 406, 408) to cause ions trapped within the trapping volume (206; 404) to become excited, the scanned area having a first dimension defined by the oscillation in first direction and a second dimension defined by the oscillation in the second direction.
An aircraft (1, 1', 1") comprising: - a fuselage with an axis of longitudinal extension; and - a tail portion arranged at a tail end of said fuselage; said tail portion comprising two surfaces (15a, 15b) arranged in a V-shape, inclined with respect to each other and symmetrical with respect to said first axis; each said surface (15a, 15b) comprising an associated winglet (19a, 19b) arranged transversally with respect to the associated said surface (15a, 15b) and fixed with respect to the associated said surface (15a, 15b); said first and second surfaces (15a, 15b) comprising: - respective first faces (17a, 17b) facing each other; - respective second faces (18a, 18b) opposite to the respective first faces (17a, 17b); and - respective end edges (16a, 16b) opposite to said fuselage from which the associated said winglets (19a, 19b) extend; each said winglet (19a, 19b) comprising: - a respective first portion (20a, 20b) extending in cantilevered way from the associated end edge (16a, 16b) on the side of said respective first face (17a, 17b); starting from the associated said end edge (16a, 16b), said first portions (20a, 20b) being convergent to one another; characterized in that each said winglet (19a, 19b) further comprises a respective second portion (21a, 21b) extending in cantilevered way from the associated end edge (16a, 16b) on the side of said respective said second face (18a, 18b); starting from the associated said end edge (16a, 16b), said second portions (21a, 21b) being divergent from one another. - a fuselage with an axis of longitudinal extension; and - a tail portion arranged at a tail end of said fuselage; said tail portion comprising two surfaces (15a, 15b) arranged in a V-shape, inclined with respect to each other and symmetrical with respect to said first axis; each said surface (15a, 15b) comprising an associated winglet (19a, 19b) arranged transversally with respect to the associated said surface (15a, 15b) and fixed with respect to the associated said surface (15a, 15b); said first and second surfaces (15a, 15b) comprising: - respective first faces (17a, 17b) facing each other; - respective second faces (18a, 18b) opposite to the respective first faces (17a, 17b); and - respective end edges (16a, 16b) opposite to said fuselage from which the associated said winglets (19a, 19b) extend; each said winglet (19a, 19b) comprising: - a respective first portion (20a, 20b) extending in cantilevered way from the associated end edge (16a, 16b) on the side of said respective first face (17a, 17b); starting from the associated said end edge (16a, 16b), said first portions (20a, 20b) being convergent to one another; characterized in that each said winglet (19a, 19b) further comprises a respective second portion (21a, 21b) extending in cantilevered way from the associated end edge (16a, 16b) on the side of said respective said second face (18a, 18b); starting from the associated said end edge (16a, 16b), said second portions (21a, 21b) being divergent from one another.