mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication, comprising: receiving , by a wireless communication device from a first link in a first time interval , first control information associated with a second link and the first time interval; obtaining, by the wireless communication device, a report configuration including a delayed power headroom, PHR, report configuration; transmitting , by the wireless communication device via the second link in the first time interval, a control report associated with the second link based on the report configuration that is independent from the first control information, the report configuration associated with a waveform type, wherein the control report indicates a transmit PHR of the wireless communication device; receiving , by the wireless communication device from the first link in a second time interval following the first time interval, second control information that is dependent on the control report; receiving, by the wireless communication device in a third time interval prior to the first time interval, third control information indicating at least one of a number of resource blocks, RBs, a modulation coding scheme, MCS, or the waveform type for a transmission in the third time interval; and determining, by the wireless communication device, the transmit PHR based on the at least one of a number of RBs, a MCS, or the waveform type for the transmission in the third time interval and the delayed PHR report configuration. receiving , by a wireless communication device from a first link in a first time interval , first control information associated with a second link and the first time interval; obtaining, by the wireless communication device, a report configuration including a delayed power headroom, PHR, report configuration; transmitting , by the wireless communication device via the second link in the first time interval, a control report associated with the second link based on the report configuration that is independent from the first control information, the report configuration associated with a waveform type, wherein the control report indicates a transmit PHR of the wireless communication device; receiving , by the wireless communication device from the first link in a second time interval following the first time interval, second control information that is dependent on the control report; receiving, by the wireless communication device in a third time interval prior to the first time interval, third control information indicating at least one of a number of resource blocks, RBs, a modulation coding scheme, MCS, or the waveform type for a transmission in the third time interval; and determining, by the wireless communication device, the transmit PHR based on the at least one of a number of RBs, a MCS, or the waveform type for the transmission in the third time interval and the delayed PHR report configuration.
A device for indicating passage of a pig beyond a predetermined location in a pipeline, the device comprising: a pig detector for connecting to a pipeline and communicating with the interior of the pipeline through an opening at the location; a trigger slidably mounted in the pig detector and adapted to project downwardly into the interior of the pipeline through the opening; an indicator housing located at a distance from the pig detector; an indicator being vertically slidably mounted within the indicator housing ; characterized in that the device further comprises a push/pull control cable with a first end attached to the trigger and a second end attached to the indicator, such that, when a pig moves in the pipeline past the trigger and actuates the trigger, the push/pull control cable allows the indicator to move upwardly beyond the indicator housing so as to provide a visual indication that the pig has passed by. a pig detector for connecting to a pipeline and communicating with the interior of the pipeline through an opening at the location; a trigger slidably mounted in the pig detector and adapted to project downwardly into the interior of the pipeline through the opening; an indicator housing located at a distance from the pig detector; an indicator being vertically slidably mounted within the indicator housing ;
Crossmember for a driver's compartment of a vehicle, comprising a transverse main metal element and a central pillar intended to be fastened to the floor of the vehicle, the pillar being a unitary part comprising two legs substantially perpendicular to a longitudinal direction of the transverse main metal element , and at least one connecting bar between the two legs , upper and lower fastening means being provided at the top and bottom of the pillar in order to respectively fasten it to the main metal element and to the floor, the upper fastening means comprising, for each leg: - a fastening interface forming part of a leg by forming the upper end thereof and being secured to the transverse main metal element , said fastening interface defining a concave bearing surface applied directly against a part of the wall of the transverse main metal element and hugging the contour thereof, characterized in that the concave bearing surface bears against a rear upper quarter of the transverse main metal element , the transverse main metal element having a circular cross section, said fastening interface additionally having a planar bearing surface below the concave bearing surface , and the transverse main metal element comprises a planar fastening lug secured to the planar bearing surface of the fastening interface, the fastening interface comprising at least one indexing finger formed on the planar bearing surface and cooperating with a corresponding indexing orifice of the fastening lug of the transverse main metal element . - a fastening interface forming part of a leg by forming the upper end thereof and being secured to the transverse main metal element , said fastening interface defining a concave bearing surface applied directly against a part of the wall of the transverse main metal element and hugging the contour thereof, characterized in that the concave bearing surface bears against a rear upper quarter of the transverse main metal element , the transverse main metal element having a circular cross section, said fastening interface additionally having a planar bearing surface below the concave bearing surface , and the transverse main metal element comprises a planar fastening lug secured to the planar bearing surface of the fastening interface, the fastening interface comprising at least one indexing finger formed on the planar bearing surface and cooperating with a corresponding indexing orifice of the fastening lug of the transverse main metal element .
A drum washing machine comprising a spraying washing device, wherein a window gasket ring is arranged between a feeding clothes opening of a door of the washing machine and an opening of an outer cylinder , wherein the window gasket ring is bent to form a groove-shaped fold on the front of the opening of the outer cylinder , and wherein the spraying washing device comprises: an inlet solenoid valve connected with a controller of the washing machine, an inlet pipe connected with the inlet solenoid valve , and a first spraying nozzle configured to spray water towards a watching window and the window gasket ring for washing an outer surface of the watching window and the window gasket ring , characterized by a three-way pipe connected with the inlet pipe and further connected with the first spraying nozzle through a first bypass pipe , wherein the inlet solenoid valve , the inlet pipe , and the three-way pipe are connected in sequence, a second spraying nozzle arranged in a the groove-shaped fold through the window gasket ring from the top, said second spraying nozzle being provided with a spraying mouth on both sides of the circumferential direction of the window gasket ring or said second spraying nozzle having a cylindrical structure of which the end is closed end and the side wall is provided with a plurality of spraying holes, for allowing water sprayed from the spraying mouth on both sides or from the spaying holes to flow along an inner wall of the groove-shaped fold and converge on the bottom, and, after washing the inner surface of the groove-shaped fold , to be drained into the outer cylinder from a water outlet on the bottom of the window gasket ring , and a second bypass pipe connecting the second spraying valve with the three-way pipe . an inlet solenoid valve connected with a controller of the washing machine, an inlet pipe connected with the inlet solenoid valve , and a first spraying nozzle configured to spray water towards a watching window and the window gasket ring for washing an outer surface of the watching window and the window gasket ring , characterized by a three-way pipe connected with the inlet pipe and further connected with the first spraying nozzle through a first bypass pipe , wherein the inlet solenoid valve , the inlet pipe , and the three-way pipe are connected in sequence, a second spraying nozzle arranged in a the groove-shaped fold through the window gasket ring from the top, said second spraying nozzle being provided with a spraying mouth on both sides of the circumferential direction of the window gasket ring or said second spraying nozzle having a cylindrical structure of which the end is closed end and the side wall is provided with a plurality of spraying holes, for allowing water sprayed from the spraying mouth on both sides or from the spaying holes to flow along an inner wall of the groove-shaped fold and converge on the bottom, and, after washing the inner surface of the groove-shaped fold , to be drained into the outer cylinder from a water outlet on the bottom of the window gasket ring , and a second bypass pipe connecting the second spraying valve with the three-way pipe .
An automated method for removing tissue sample from a seed, while protecting germination viability of the seed, the method comprising: isolating a seed from a plurality of seeds; suspending the isolated seed in an imaging fixture and_imaging the seed; orienting the seed in the imaging fixture based on information obtained from imaging the seed, wherein orienting the seed includes rotating the seed in the imaging fixture to a desired orientation; and removing tissue from the oriented seed isolating a seed from a plurality of seeds; suspending the isolated seed in an imaging fixture and_imaging the seed; orienting the seed in the imaging fixture based on information obtained from imaging the seed, wherein orienting the seed includes rotating the seed in the imaging fixture to a desired orientation; and removing tissue from the oriented seed
A light emitting element with a hexagonal planar shape, comprising: an n-side semiconductor layer ; a p-side semiconductor layer provided on the n-side semiconductor layer ; a plurality of holes that are provided to an area excluding either (i) at least three corners of the p-side semiconductor layer in plan view, or (ii) at least two corners at the farthest positions of the p-side semiconductor layer in plan view, and expose the n-side semiconductor layer ; a first p-electrode provided in contact with the p-side semiconductor layer ; second p-electrodes provided either (i) to said at least three corners, or (ii) to said at least two corners on the first p-electrode , respectively; and an n-electrode that is provided on the first p-electrode and is electrically connected to the n-side semiconductor layer through the plurality of holes . an n-side semiconductor layer ; a p-side semiconductor layer provided on the n-side semiconductor layer ; a plurality of holes that are provided to an area excluding either (i) at least three corners of the p-side semiconductor layer in plan view, or (ii) at least two corners at the farthest positions of the p-side semiconductor layer in plan view, and expose the n-side semiconductor layer ; (i) at least three corners of the p-side semiconductor layer in plan view, or (ii) at least two corners at the farthest positions of the p-side semiconductor layer in plan view, a first p-electrode provided in contact with the p-side semiconductor layer ; second p-electrodes provided either (i) to said at least three corners, or (ii) to said at least two corners on the first p-electrode , respectively; and an n-electrode that is provided on the first p-electrode and is electrically connected to the n-side semiconductor layer through the plurality of holes .
An X-ray system for scanning moving cargo with a speed in the range of 20 km/h to 150 km/h, the system comprising: an X-ray source configured for generating a cone-beam of X-rays to irradiate the moving cargo, wherein the moving cargo travels along a linear trajectory perpendicular to the plane of the cone-beam of X-rays and wherein the X-ray source is a dual energy source configured to generate a high energy beam and a low energy beam of X-rays; at least one two-dimensional detector array to receive the cone-beam of X-rays transmitted through the moving cargo, wherein said X-ray source and said at least one detector array are placed on opposite sides of the moving cargo; a sensor configured to measure a speed of the moving cargo; and a control system arranged to receive data indicative of said speed from the sensor, pulse the X-ray source and alternate between the high energy X-ray beam and the low energy X-ray beam on each subsequent pulse, and modulate a pulse rate of the cone-beam of X-rays such that the distance travelled by the moving cargo between each X-ray pulse is substantially equal to half the width of the detector array and wherein data from half the detector array from a given pulse is used to form a materials separation image together with data from the other half of the detector array from a subsequent pulse. an X-ray source configured for generating a cone-beam of X-rays to irradiate the moving cargo, wherein the moving cargo travels along a linear trajectory perpendicular to the plane of the cone-beam of X-rays and wherein the X-ray source is a dual energy source configured to generate a high energy beam and a low energy beam of X-rays; at least one two-dimensional detector array to receive the cone-beam of X-rays transmitted through the moving cargo, wherein said X-ray source and said at least one detector array are placed on opposite sides of the moving cargo; a sensor configured to measure a speed of the moving cargo; and a control system arranged to receive data indicative of said speed from the sensor, pulse the X-ray source and alternate between the high energy X-ray beam and the low energy X-ray beam on each subsequent pulse, and modulate a pulse rate of the cone-beam of X-rays such that the distance travelled by the moving cargo between each X-ray pulse is substantially equal to half the width of the detector array and wherein data from half the detector array from a given pulse is used to form a materials separation image together with data from the other half of the detector array from a subsequent pulse. receive data indicative of said speed from the sensor, pulse the X-ray source and alternate between the high energy X-ray beam and the low energy X-ray beam on each subsequent pulse, and modulate a pulse rate of the cone-beam of X-rays such that the distance travelled by the moving cargo between each X-ray pulse is substantially equal to half the width of the detector array and wherein data from half the detector array from a given pulse is used to form a materials separation image together with data from the other half of the detector array from a subsequent pulse.
Docetaxel for use in the treatment of a cancer in a patient comprising orally administering an effective dose of docetaxel, wherein docetaxel is administered on a bi-daily basis once a week wherein each moment of administration comprises the administration of at least 10 mg docetaxel, preferably at least 20 mg docetaxel, whereby side effects are controlled by preventing peak plasma levels of docetaxel that induce said side effects, whilst maintaining an effective plasma level of docetaxel to eradicate tumor cells; and wherein the peak plasma levels of docetaxel are below 3000 ng/mL, and the effective plasma level of docetaxel is at least 600 ng.h/mL.
A downlink transmitting system , comprising: at least one digital intermediate frequency module group, at least one transmit, Tx, port group , a plurality of power amplifiers, PAs , at least one switching switch , and an antenna array , wherein the plurality of PAs are connected to the antenna array , the plurality of PAs are connected to all Tx ports comprised in the downlink transmitting system in a one-to-one correspondence, the at least one digital intermediate frequency module group is in a one-to-one correspondence with the at least one Tx port group , each of the at least one Tx port group is connected to each digital intermediate frequency module in a corresponding digital intermediate frequency module group through one of the at least one switching switch , each of the at least one Tx port group comprises a plurality of Tx ports, a quantity of digital intermediate frequency modules comprised in each digital intermediate frequency module group is equal to a quantity of Tx ports comprised in a corresponding Tx port group , each of the at least one switching switch comprises at least two connection states, quantities of enabled digital intermediate frequency modules in a digital intermediate frequency module group connected to the each of the at least one switching switch in different connection states are different, and all Tx ports in a Tx port group connected to the each one of the at least one switching switch in the different connection states are in an enabled state. at least one digital intermediate frequency module group, at least one transmit, Tx, port group , a plurality of power amplifiers, PAs , at least one switching switch , and an antenna array , wherein the plurality of PAs are connected to the antenna array , the plurality of PAs are connected to all Tx ports comprised in the downlink transmitting system in a one-to-one correspondence, the at least one digital intermediate frequency module group is in a one-to-one correspondence with the at least one Tx port group , each of the at least one Tx port group is connected to each digital intermediate frequency module in a corresponding digital intermediate frequency module group through one of the at least one switching switch , each of the at least one Tx port group comprises a plurality of Tx ports, a quantity of digital intermediate frequency modules comprised in each digital intermediate frequency module group is equal to a quantity of Tx ports comprised in a corresponding Tx port group , each of the at least one switching switch comprises at least two connection states, quantities of enabled digital intermediate frequency modules in a digital intermediate frequency module group connected to the each of the at least one switching switch in different connection states are different, and all Tx ports in a Tx port group connected to the each one of the at least one switching switch in the different connection states are in an enabled state.
A method of manufacturing a gallium nitride-based sensor having a heater structure, comprising: growing an n-type or p-type GaN layer on a substrate ; growing a barrier layer on the n-type or p-type GaN layer; sequentially growing a u-GaN layer and a layer selected from the group consisting of an Al x Ga 1-x N layer, an In x Al 1-x N layer and an In x Al y Ga 1-x-y N layer on the barrier layer; patterning the n-type or p-type GaN layer so as to form an electrode; forming the electrode along a pattern formed on the n-type or p-type GaN layer; and forming a sensing material layer (SM) on the layer selected from the group consisting of the Al x Ga 1-x N layer, the In x Al 1-x N layer and the In x Al y Ga 1-x-y N layer. growing an n-type or p-type GaN layer on a substrate ; growing a barrier layer on the n-type or p-type GaN layer; sequentially growing a u-GaN layer and a layer selected from the group consisting of an Al x Ga 1-x N layer, an In x Al 1-x N layer and an In x Al y Ga 1-x-y N layer on the barrier layer; patterning the n-type or p-type GaN layer so as to form an electrode; forming the electrode along a pattern formed on the n-type or p-type GaN layer; and forming a sensing material layer (SM) on the layer selected from the group consisting of the Al x Ga 1-x N layer, the In x Al 1-x N layer and the In x Al y Ga 1-x-y N layer.
An apparatus comprising means for receiving, by a user device from a base station in a wireless network, downlink control information that indicates a first set of resources allocated for a priority downlink data transmission that preempts an ongoing downlink data transmission; means for determining, by the user device based on the downlink control information, a set of resources allocated for a priority uplink transmission, wherein the set of resources allocated for the priority uplink transmission were previously indicated by the base station as allocated for other use; characterized by means for sending, by the user device, hybrid automatic repeat request feedback as uplink transmission via the set of resources allocated for the priority uplink transmission. means for receiving, by a user device from a base station in a wireless network, downlink control information that indicates a first set of resources allocated for a priority downlink data transmission that preempts an ongoing downlink data transmission; means for determining, by the user device based on the downlink control information, a set of resources allocated for a priority uplink transmission, wherein the set of resources allocated for the priority uplink transmission were previously indicated by the base station as allocated for other use; characterized by means for sending, by the user device, hybrid automatic repeat request feedback as uplink transmission via the set of resources allocated for the priority uplink transmission.
Flame-retardant polyamide compositions having a heat deflection temperature HDT-A of at least 280°C, comprising - polyamide having a melting point of not less than 290°C as component A, - fillers and/or reinforcers as component B, - phosphinic salt of the formula (I) as component C in which R 1 and R 2 are ethyl, M is Al, Fe, TiO p or Zn, m is 2 to 3, and p = 4 − m / 2 - compound selected from the group of the Al, Fe, TiO p and Zn salts of ethylbutylphosphinic acid, of dibutylphosphinic acid, of ethylhexylphosphinic acid, of butylhexylphosphinic acid and/or of dihexylphosphinic acid as component D, and - monoethylphosphinic salt of the formula II as component E in which R 3 is ethyl, Met is Al, Fe, TiO q or Zn, n is 2 to 3, and q = 4 − n / 2 . - polyamide having a melting point of not less than 290°C as component A, - fillers and/or reinforcers as component B, - phosphinic salt of the formula (I) as component C in which R 1 and R 2 are ethyl, M is Al, Fe, TiO p or Zn, m is 2 to 3, and p = 4 − m / 2 in which R 1 and R 2 are ethyl, M is Al, Fe, TiO p or Zn, m is 2 to 3, and p = 4 − m / 2 - compound selected from the group of the Al, Fe, TiO p and Zn salts of ethylbutylphosphinic acid, of dibutylphosphinic acid, of ethylhexylphosphinic acid, of butylhexylphosphinic acid and/or of dihexylphosphinic acid as component D, and - monoethylphosphinic salt of the formula II as component E in which R 3 is ethyl, Met is Al, Fe, TiO q or Zn, n is 2 to 3, and q = 4 − n / 2 . in which R 3 is ethyl, Met is Al, Fe, TiO q or Zn, n is 2 to 3, and q = 4 − n / 2 .