mhurhangee/patent-ind-claim-en huggingface dataset:
An antenna device, comprising: an antenna substrate in which an array antenna comprising at least one first radiation element is disposed; and a cover separated by a predetermined distance or more from the antenna substrate and comprising at least one second radiation element disposed to correspond to the at least one first radiation element ; characterized in that , the antenna device further comprising a main board , wherein the antenna substrate disposes the array antenna at one surface thereof and is electrically connected to a radio frequency integrated circuit, RFIC, disposed at the main board at the other surface thereof, wherein in at least a portion of the cover , at least one piezoelectric actuator is disposed, wherein the at least one piezoelectric actuator is coupled to a film , and at least one second radiation element is disposed on the film , and wherein the main board further comprises a processor configured to generate a signal that is adapted to control a length of the piezoelectric actuator according to reception sensitivity or radiation sensitivity of radio waves and is electrically connected to the piezoelectric actuator . an antenna substrate in which an array antenna comprising at least one first radiation element is disposed; and a cover separated by a predetermined distance or more from the antenna substrate and comprising at least one second radiation element disposed to correspond to the at least one first radiation element ; characterized in that , the antenna device further comprising a main board , wherein the antenna substrate disposes the array antenna at one surface thereof and is electrically connected to a radio frequency integrated circuit, RFIC, disposed at the main board at the other surface thereof, wherein in at least a portion of the cover , at least one piezoelectric actuator is disposed, wherein the at least one piezoelectric actuator is coupled to a film , and at least one second radiation element is disposed on the film , and wherein the main board further comprises a processor configured to generate a signal that is adapted to control a length of the piezoelectric actuator according to reception sensitivity or radiation sensitivity of radio waves and is electrically connected to the piezoelectric actuator .
A method for wireless communications by a base station, BS , comprising: scheduling a first one or more symbols starting from a beginning symbol of an uplink pilot time slot, UpPTS, for one or more user equipments, UEs , to transmit data and a second one or more symbols of the UpPTS for one or more UEs to transmit one or more sounding reference signals, SRSs; and receiving the data in the first one or more symbols and the one or more SRSs in the second one or more symbols.
Expansion anchor comprising an anchor bolt (10; 110) and an expansion sleeve (30; 130) surrounding the anchor bolt (10; 110), wherein the expansion sleeve (30; 130) has an expansion tongue (31; 131) and an anchor tongue (32; 132), and wherein the anchor bolt (10; 110) has a rearward facing expansion bevel (21; 121) for radially displacing the expansion tongue (31; 131) and a rearward facing anchor bevel (22; 122) for radially displacing the anchor tongue (32; 132), wherein the anchor bevel (22; 122) extends at least in regions more steeply than the expansion bevel (21; 121), wherein in the case of axial displacement of the expansion tongue (31; 131) toward the expansion bevel (21; 121), the expansion tongue (31; 131) runs onto the expansion bevel (21; 121) before the anchor tongue (32; 132) runs onto the anchor bevel (22; 122), characterized in that the anchor bevel (22; 122) is formed on a depression (12; 112) arranged in the anchor bolt (10; 110). wherein the expansion sleeve (30; 130) has an expansion tongue (31; 131) and an anchor tongue (32; 132), and wherein the anchor bolt (10; 110) has a rearward facing expansion bevel (21; 121) for radially displacing the expansion tongue (31; 131) and a rearward facing anchor bevel (22; 122) for radially displacing the anchor tongue (32; 132), wherein the anchor bevel (22; 122) extends at least in regions more steeply than the expansion bevel (21; 121), wherein in the case of axial displacement of the expansion tongue (31; 131) toward the expansion bevel (21; 121), the expansion tongue (31; 131) runs onto the expansion bevel (21; 121) before the anchor tongue (32; 132) runs onto the anchor bevel (22; 122), characterized in that the anchor bevel (22; 122) is formed on a depression (12; 112) arranged in the anchor bolt (10; 110).
Light applicator for the execution of a transcutaneous photodynamic therapy, PDT, in tissue of an organic body , wherein the light applicator has: - a needle section extending longitudinally along an axis of penetration (L), - at least one light-emitting element at the distal end of the needle section , - an applicator tip extending, at least partially, distally from the at least one light-emitting element , and, at least partially, transparent to light for the penetration of the needle section into the tissue of the organic body along the axis of penetration (L), - a connection cable for the supply of the light applicator with light and/or power by means of a supply unit , and - a handgrip element , arranged in the proximal direction from the needle section , for the manual positioning of the light applicator , wherein the handgrip element has a cavity , and wherein the handgrip element can be coupled to the needle section for the positioning and/or penetration, and for the execution of the PDT is designed to be removable from the needle section , wherein for the positioning and/or penetration, the connection cable is, at least partially, stowable in the cavity of the handgrip element , wherein the handgrip element has at least one stowage element in the cavity , around which the connection cable can be stowed, wound in an orderly manner, and/or in a meandering arrangement. - a needle section extending longitudinally along an axis of penetration (L), - at least one light-emitting element at the distal end of the needle section , - an applicator tip extending, at least partially, distally from the at least one light-emitting element , and, at least partially, transparent to light for the penetration of the needle section into the tissue of the organic body along the axis of penetration (L), - a connection cable for the supply of the light applicator with light and/or power by means of a supply unit , and - a handgrip element , arranged in the proximal direction from the needle section , for the manual positioning of the light applicator , wherein the handgrip element has a cavity , and wherein the handgrip element can be coupled to the needle section for the positioning and/or penetration, and for the execution of the PDT is designed to be removable from the needle section , wherein for the positioning and/or penetration, the connection cable is, at least partially, stowable in the cavity of the handgrip element , wherein the handgrip element has at least one stowage element in the cavity , around which the connection cable can be stowed, wound in an orderly manner, and/or in a meandering arrangement.
A prosthetic heart valve (800; 900; 1000), comprising: a stent (802; 902; 1202) having a collapsed condition and an expanded condition, the stent (802; 902; 1202) having a proximal end, a distal end, a plurality of commissure features (816; 916) and a plurality of cells , each cell being formed by a plurality of struts ; a valve assembly secured to the stent (802; 902; 1202), the valve assembly including a cuff (806; 906; 1006) and a plurality of leaflets ; an underwire (830; 930; 1030; 1230) is disposed around the perimeter of the stent (802; 902; 1202) such that the cuff (806; 906; 1006) is disposed between the underwire (830; 930; 1030; 1230) and the plurality of leaflets , said underwire (830; 930; 1030; 1230) being coupled to the cuff (806; 906; 1006) by a plurality of stitches, the plurality of stitches also attaching the plurality of leaflets to the cuff (806; 906; 1006), wherein said underwire forms a repeating parabolic pattern, characterized in that said pattern includes a portion descending toward the proximal end of the stent (802; 902; 1202), a portion ascending toward a commissure feature (816; 916), and an intermediate portion between the descending portion and the ascending portion, the pattern being disposed solely between the commissure features (816; 916) and the proximal end of the stent (802; 902; 1202). a stent (802; 902; 1202) having a collapsed condition and an expanded condition, the stent (802; 902; 1202) having a proximal end, a distal end, a plurality of commissure features (816; 916) and a plurality of cells , each cell being formed by a plurality of struts ; a valve assembly secured to the stent (802; 902; 1202), the valve assembly including a cuff (806; 906; 1006) and a plurality of leaflets ; an underwire (830; 930; 1030; 1230) is disposed around the perimeter of the stent (802; 902; 1202) such that the cuff (806; 906; 1006) is disposed between the underwire (830; 930; 1030; 1230) and the plurality of leaflets , said underwire (830; 930; 1030; 1230) being coupled to the cuff (806; 906; 1006) by a plurality of stitches, the plurality of stitches also attaching the plurality of leaflets to the cuff (806; 906; 1006), wherein said underwire forms a repeating parabolic pattern, characterized in that said pattern includes a portion descending toward the proximal end of the stent (802; 902; 1202), a portion ascending toward a commissure feature (816; 916), and an intermediate portion between the descending portion and the ascending portion, the pattern being disposed solely between the commissure features (816; 916) and the proximal end of the stent (802; 902; 1202).
A base station (101-103) of a radio access network of a cellular network , comprising: - at least one interface configured to communicate with a terminal and to communicate with a mobile edge control node and a mobile edge server (201-203) of a mobile edge system , the mobile edge control node being configured to control the mobile edge server (201-203), and the mobile edge server (201-203) being arranged within the radio access network or close to equipment of the radio access network , and - at least one processor configured to provide a service of the mobile edge server (201-203) to the terminal , wherein the at least one processor is further configured to send a first control message to the mobile edge control node of the mobile edge system , the first control message being indicative of a predicted handover of the terminal from the base station to one or more candidate base stations (102-103) and of a predicted time of the predicted handover. - at least one interface configured to communicate with a terminal and to communicate with a mobile edge control node and a mobile edge server (201-203) of a mobile edge system , the mobile edge control node being configured to control the mobile edge server (201-203), and the mobile edge server (201-203) being arranged within the radio access network or close to equipment of the radio access network , and - at least one processor configured to provide a service of the mobile edge server (201-203) to the terminal ,
A method for producing a transparent polycarbonate article, the method comprising: melting a composition at a temperature of 300 to 390°C, the composition comprising a polycarbonate mixture including a polycarbonate having a Mw of 15,000 to 80,000, a moisture content of 0.1 to 5 wt.% prior to melting, and a T g , and a crystalline additive having a melting point of at least 280°C, a heat of fusion greater than or equal to 1.0 J/g as determined by differential scanning calorimetry in accordance with ASTM D3418-15, and an average diameter less than or equal to 0.5 mm as determined by optical microscopy; extruding the melted composition to form a strand; cooling the strand of extruded composition to at least 20°C below the T g of the polycarbonate; cutting the cooled strand into pellets of the extruded composition; drying the pellets at a temperature of 50 to 140 °C; and injection molding or extruding the pellets at a temperature of 300 to 380 °C to form an article, wherein the article has a haze of less than 5% and a percent transmission above 70% at 3.2 mm according to ASTM D1003-00. melting a composition at a temperature of 300 to 390°C, the composition comprising a polycarbonate mixture including a polycarbonate having a Mw of 15,000 to 80,000, a moisture content of 0.1 to 5 wt.% prior to melting, and a T g , and a crystalline additive having a melting point of at least 280°C, a heat of fusion greater than or equal to 1.0 J/g as determined by differential scanning calorimetry in accordance with ASTM D3418-15, and an average diameter less than or equal to 0.5 mm as determined by optical microscopy; a polycarbonate mixture including a polycarbonate having a Mw of 15,000 to 80,000, a moisture content of 0.1 to 5 wt.% prior to melting, and a T g , and a crystalline additive having a melting point of at least 280°C, a heat of fusion greater than or equal to 1.0 J/g as determined by differential scanning calorimetry in accordance with ASTM D3418-15, and an average diameter less than or equal to 0.5 mm as determined by optical microscopy; extruding the melted composition to form a strand; cooling the strand of extruded composition to at least 20°C below the T g of the polycarbonate; cutting the cooled strand into pellets of the extruded composition; drying the pellets at a temperature of 50 to 140 °C; and injection molding or extruding the pellets at a temperature of 300 to 380 °C to form an article, wherein the article has a haze of less than 5% and a percent transmission above 70% at 3.2 mm according to ASTM D1003-00.
A method of controlling a transmit power of a first wireless device in a wireless local area network, the method comprising: receiving, from a second wireless device, a first frame including a transmit power information element including one or more maximum transmit power fields , wherein the number of the one or more maximum transmit power fields is the same as the number of one or more channel bandwidths available to the first wireless device and the second wireless device, each of the one or more maximum transmit power fields corresponding to one of the one or more channel bandwidths; and transmitting, to the second wireless device, a second frame, wherein each of the one or more maximum transmit power fields defines an allowed maximum transmit power per channel bandwidth available to the first wireless device and the second wireless device, wherein the second frame is transmitted based on transmission power information indicated by the one or more maximum transmit power fields corresponding to the one or more channel bandwidths used by the first wireless device and the second wireless device, and wherein the first wireless device and the second wireless device are included in a basic service set. receiving, from a second wireless device, a first frame including a transmit power information element including one or more maximum transmit power fields , wherein the number of the one or more maximum transmit power fields is the same as the number of one or more channel bandwidths available to the first wireless device and the second wireless device, each of the one or more maximum transmit power fields corresponding to one of the one or more channel bandwidths; and transmitting, to the second wireless device, a second frame, wherein each of the one or more maximum transmit power fields defines an allowed maximum transmit power per channel bandwidth available to the first wireless device and the second wireless device, wherein the second frame is transmitted based on transmission power information indicated by the one or more maximum transmit power fields corresponding to the one or more channel bandwidths used by the first wireless device and the second wireless device, and wherein the first wireless device and the second wireless device are included in a basic service set.
A nasal powder delivery device comprising a reservoir containing at least one dose of powder, a nasal delivery head intended to be inserted in a nostril of a user, said nasal delivery head comprising a delivery aperture , and an air discharge system generating, upon actuation of said nasal powder delivery device , a flow of compressed air to deliver a dose of powder in said nostril through said delivery aperture , said air discharge system comprising an air chamber , formed by a hollow axial cylinder and a piston which, upon actuation of the device, sealingly slides in said air chamber to compress the air contained in said air chamber , said hollow axial cylinder comprises a radial shoulder which connects a first cylinder portion of larger diameter and a second cylinder portion of smaller diameter, said piston being arranged before actuation at said first cylinder portion , and upon actuation, said piston sealingly cooperates with said second cylinder portion , to compress the air contained in said air chamber , and thus generate the flow of compressed air, said radial shoulder defining in said hollow axial cylinder , a profile that said piston must overcome at the start of actuation, said piston comprising an upper lip and a lower lip , a skirt being arranged around said hollow axial cylinder , said skirt comprising, in the vicinity of its axially lower edge, a lower flange , which radially projects inwards, characterised in that said skirt comprises, in the vicinity of said lower flange , at least one profile, which radially projects inwards cooperating before actuation with said lower lip of said piston .
High efficiency and high capacity glass-free filtration media comprising a blend of synthetic non-fibrillated staple fibers and fibrillated cellulosic staple fibers, wherein the fibrillated cellulosic fibers are present in the media in an amount to achieve an overall filtration efficiency at 4 microns of about 95% or higher and a ratio of filtration capacity to media caliper of 0.196 (10 -3 ) mg/cm (0.5 mg/in 2 /mils) and greater and wherein the synthetic non-fibrillated staple fibers are present in an amount between 50 wt. % to 99.5wt.% ODW.
An assembly comprising an accessory gearbox mechanically connected to an electricity generator through a support shaft of a protection device, the support shaft including a calibrated breakable section designed to disconnect the electricity generator physically from the accessory gearbox when an incident is detected on the electricity generator, wherein the protection device comprises an unlocking mechanism provided with a lock that, under the action of an external control unit , releases a cutting tool so as to cut said calibrated breakable section.
A method, performed in an auxiliary device , for monitoring a module and/or pack of an electric battery system , wherein the electric battery system comprises at least one pack , each pack comprising at least one module and each module comprising a plurality of battery cells , wherein each battery cell is monitored via a cell monitoring device , CMD, which provides cell-level measurements, the method comprising: obtaining, with at least one sensor comprised in the auxiliary device, a module-level and/or pack-level measurement associated with the at least one module and/or the at least one pack, respectively, wherein the cell-level measurements are distinct from the module-level and pack-level measurements; and transmitting, via a near field antenna of the auxiliary device, to a centralized control unit , the module-level and/or pack-level measurement via a near field communications bus , wherein the centralized control unit is configured to control operations of the electric battery system, and wherein the near field communications bus is utilized by respective CMDs, in transmitting, via respective near field antennas of the CMDs, cell-level measurements to the centralized control unit. obtaining, with at least one sensor comprised in the auxiliary device, a module-level and/or pack-level measurement associated with the at least one module and/or the at least one pack, respectively, wherein the cell-level measurements are distinct from the module-level and pack-level measurements; and transmitting, via a near field antenna of the auxiliary device, to a centralized control unit , the module-level and/or pack-level measurement via a near field communications bus , wherein the centralized control unit is configured to control operations of the electric battery system, and wherein the near field communications bus is utilized by respective CMDs, in transmitting, via respective near field antennas of the CMDs, cell-level measurements to the centralized control unit.
A driveline for a utility vehicle comprising: - an epicyclic gear arrangement (PG), having a sun gear engaging two or more planetary gears within a ring gear , coupled to drive first and second output shafts, with the first output shaft drivingly connected to one or more axles of the vehicle; - a first electric drive motor (M1) coupled to drive a first input shaft drivingly coupled with the epicyclic sun gear ; and - a second electric drive motor (M2) coupled to drive a second input shaft drivingly coupled with one or more of the epicyclic planetary gears ; characterised in that the second output shaft is: drivingly coupled with a power take off shaft (PTO) of the vehicle; and drivingly connected to a first hydraulic pump (PM 64) which first pump provides, from a first reservoir (R1), a supply of pressurised fluid to one or more consumers on or attached to the vehicle; and wherein the first output shaft is drivingly connected to a second hydraulic pump (PST 66) which second pump provides, from a second reservoir (R2), a supply of pressurised fluid to a steering system of the vehicle. - an epicyclic gear arrangement (PG), having a sun gear engaging two or more planetary gears within a ring gear , coupled to drive first and second output shafts, with the first output shaft drivingly connected to one or more axles of the vehicle; - a first electric drive motor (M1) coupled to drive a first input shaft drivingly coupled with the epicyclic sun gear ; and - a second electric drive motor (M2) coupled to drive a second input shaft drivingly coupled with one or more of the epicyclic planetary gears ; characterised in that the second output shaft is: drivingly coupled with a power take off shaft (PTO) of the vehicle; and drivingly connected to a first hydraulic pump (PM 64) which first pump provides, from a first reservoir (R1), a supply of pressurised fluid to one or more consumers on or attached to the vehicle; and wherein the first output shaft is drivingly connected to a second hydraulic pump (PST 66) which second pump provides, from a second reservoir (R2), a supply of pressurised fluid to a steering system of the vehicle.