mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication executed at a scheduling entity , comprising: communicating with a plurality of scheduled entities including a first scheduled entity and a second scheduled entity; determining that the first scheduled entity is not near or at a cell edge and that the second scheduled entity is near or at the cell edge based on received signal strength or signal quality of uplink, UL, reference signals from the respective first and second scheduled entities; determining to transmit a normal subframe to the first scheduled entity as a result of the first scheduled entity not being located near the cell edge and determining to transmit a special subframe to the second scheduled entity as a result of the second scheduled entity being near or at the cell edge, wherein the special subframe utilizes a less complex modulation or a lower coding rate than the normal subframe; configuring the first scheduled entity to utilize a first process for estimating the downlink, DL, channel, involving estimation of the covariance of the received signal and noise based on DL reference signals of the normal subframe; configuring the second scheduled entity to utilize a second process for estimating the DL channel, involving estimation of the covariance of the received signal and noise based on DL reference signals and data of the special subframe, wherein the second process for estimating the DL channel is different from the first process for estimating the DL channel. communicating with a plurality of scheduled entities including a first scheduled entity and a second scheduled entity; determining that the first scheduled entity is not near or at a cell edge and that the second scheduled entity is near or at the cell edge based on received signal strength or signal quality of uplink, UL, reference signals from the respective first and second scheduled entities; determining to transmit a normal subframe to the first scheduled entity as a result of the first scheduled entity not being located near the cell edge and determining to transmit a special subframe to the second scheduled entity as a result of the second scheduled entity being near or at the cell edge, wherein the special subframe utilizes a less complex modulation or a lower coding rate than the normal subframe; configuring the first scheduled entity to utilize a first process for estimating the downlink, DL, channel, involving estimation of the covariance of the received signal and noise based on DL reference signals of the normal subframe; configuring the second scheduled entity to utilize a second process for estimating the DL channel, involving estimation of the covariance of the received signal and noise based on DL reference signals and data of the special subframe, wherein the second process for estimating the DL channel is different from the first process for estimating the DL channel.
Hybrid cord for use as a reinforcing element in a reinforcing layer, in particular of a belt bandage, of a pneumatic vehicle tyre comprising at least one high-modulus yarn and one low-modulus yarn that are twisted together at the ends, the accumulated fineness of all of the high-modulus yarns being greater than 2500 dtex, • the hybrid cord having with respect to the fineness of its yarn an asymmetric construction comprising precisely two yarns, • the hybrid cord having just one high-modulus yarn and just one low-modulus yarn, • the force that has to be respectively applied to a yarn for 1% elongation and for 2% elongation, normalized to the yarn fineness in tex and determined in accordance with ASTM D885, for a low-modulus yarn being less than 150 mN/tex for 1% elongation and less than 200 mN/tex for 2% elongation and for a high-modulus yarn being more than 300 mN/tex for 1% elongation and more than 500 mN/tex for 2% elongation, characterized in that • the high-modulus yarn has a fineness of greater than 2500 dtex and a highest value of 3360 dtex and the fineness of the high-modulus yarn being greater than the fineness of the low-modulus yarn by at least a factor of 6, particularly preferably by a factor of 7. • the hybrid cord having with respect to the fineness of its yarn an asymmetric construction comprising precisely two yarns, • the hybrid cord having just one high-modulus yarn and just one low-modulus yarn, • the force that has to be respectively applied to a yarn for 1% elongation and for 2% elongation, normalized to the yarn fineness in tex and determined in accordance with ASTM D885, for a low-modulus yarn being less than 150 mN/tex for 1% elongation and less than 200 mN/tex for 2% elongation and for a high-modulus yarn being more than 300 mN/tex for 1% elongation and more than 500 mN/tex for 2% elongation, • the high-modulus yarn has a fineness of greater than 2500 dtex and a highest value of 3360 dtex and
A method of isolating cells or tissues which method comprising: obtaining a culture preparation of the cells or tissues in a medium composition which comprises an acidic polysaccharide having an anionic functional group that enables culture of the cells or tissues in suspension, passing the culture preparation through a filter having fine pores with a diameter of 5 - 500 μm, and isolating cells or tissues from the filtrate. obtaining a culture preparation of the cells or tissues in a medium composition which comprises an acidic polysaccharide having an anionic functional group that enables culture of the cells or tissues in suspension, passing the culture preparation through a filter having fine pores with a diameter of 5 - 500 μm, and isolating cells or tissues from the filtrate.
A method of rendering an interactive scene in stereoscopic 3-D substantially in real-time, the scene having at least two objects, the method comprising: identifying that a rate of change of a first object of the scene satisfies a criterion, wherein the first object is an interactive object and wherein said criterion is based on the length of time said first object is visible, in order to determine that said object appears only briefly; dynamically modifying, in response to the identification, a perceived depth of a second object of the scene as a function of said rate of change; and rendering the interactive scene. identifying that a rate of change of a first object of the scene satisfies a criterion, wherein the first object is an interactive object and wherein said criterion is based on the length of time said first object is visible, in order to determine that said object appears only briefly; dynamically modifying, in response to the identification, a perceived depth of a second object of the scene as a function of said rate of change; and rendering the interactive scene.
An electronic device comprising: a connector comprising a first terminal to which a voltage is applied by a charger and a second terminal for transmitting and receiving data; a first charging unit configured to charge a battery of the electronic device by using a first voltage applied to the first terminal; and a second charging unit configured to charge the battery by using a dropped voltage obtained by dropping a second voltage applied to the first terminal based on a voltage drop rate, wherein the voltage drop rate is identified based on a first value of a current required for charging the battery and a second value of a current set for a first line connecting the first terminal with the second charging unit, wherein the first charging unit comprises: a first switch connected with the first terminal; a communication unit ; and a first controller configured to obtain first information corresponding to a voltage of the battery, control the communication unit to transmit first information to the charger connectable with the connector through the second terminal, and control the first switch to supply the second voltage adjusted by the charger, based on the first information and the voltage drop rate, to the second charging unit through the first terminal. a connector comprising a first terminal to which a voltage is applied by a charger and a second terminal for transmitting and receiving data; a first charging unit configured to charge a battery of the electronic device by using a first voltage applied to the first terminal; and a second charging unit configured to charge the battery by using a dropped voltage obtained by dropping a second voltage applied to the first terminal based on a voltage drop rate, wherein the voltage drop rate is identified based on a first value of a current required for charging the battery and a second value of a current set for a first line connecting the first terminal with the second charging unit, wherein the first charging unit comprises: a first switch connected with the first terminal; a communication unit ; and a first controller configured to obtain first information corresponding a first switch connected with the first terminal; a communication unit ; and a first controller configured to obtain first information corresponding to a voltage of the battery, control the communication unit to transmit first information to the charger connectable with the connector through the second terminal, and control the first switch to supply the second voltage adjusted by the charger, based on the first information and the voltage drop rate, to the second charging unit through the first terminal.
A device for dispensing a fluid product nasally, comprising a reservoir containing fluid product; a dispensing means for dispensing a dose of fluid product upon each actuation, and a dispensing head which is assembled on said dispensing means , said dispensing head being provided with a dispensing orifice , characterized in that the nasal device comprises: - a camera for determining the spatial position of said nasal device in a nostril of the user, said camera determining the vertical angle of inclination (α) and the lateral angle of inclination (β) between the longitudinal axis (X) of said nasal device and an axis (A) of the face, said axis (A) being identified by means of several reference points detected by said camera , in particular three reference points on the nose, six on each eye and five on each eyebrow, the orientation of said axis (A) with respect to said nostril always being identical irrespective of the position of the user, - a positioning indicator for guiding the user towards an optimal orientation of the nasal device in said nostril, and - an electronic module and automatic actuation means (40; 50) adapted to automatically actuate said nasal device when said camera determines that said nasal device is disposed in an optimal position in said nostril. - a camera for determining the spatial position of said nasal device in a nostril of the user, said camera determining the vertical angle of inclination (α) and the lateral angle of inclination (β) between the longitudinal axis (X) of said nasal device and an axis (A) of the face, said axis (A) being identified by means of several reference points detected by said camera , in particular three reference points on the nose, six on each eye and five on each eyebrow, the orientation of said axis (A) with respect to said nostril always being identical irrespective of the position of the user, - a positioning indicator for guiding the user towards an optimal orientation of the nasal device in said nostril, and - an electronic module and automatic actuation means (40; 50) adapted to automatically actuate said nasal device when said camera determines that said nasal device is disposed in an optimal position in said nostril.
Apparatus for processing data and using hardware support for atomic memory transactions, said apparatus comprising: a plurality of processing elements each configured to execute a sequence of program instructions; and a memory configured to store data values shared by said plurality of processing elements ; wherein at least one of said plurality of processing elements is a transactional-memory-supporting processing element having a controller configured to monitor access to a lock address within said memory and said controller is configured to respond to a received request from another of said plurality of processing elements to obtain exclusive access to said lock address by: (i) when said transactional-memory-supporting processing element is executing a memory transaction guarded by said lock address, delaying releasing said lock address for exclusive access until a predetermined condition is met; and (ii) when said transactional-memory-supporting processing element is not executing a memory transaction guarded by said lock address, granting said request independent of said predetermined condition. a plurality of processing elements each configured to execute a sequence of program instructions; and a memory configured to store data values shared by said plurality of processing elements ; wherein at least one of said plurality of processing elements is a transactional-memory-supporting processing element having a controller configured to monitor access to a lock address within said memory and said controller is configured to respond to a received request from another of said plurality of processing elements to obtain exclusive access to said lock address by: (i) when said transactional-memory-supporting processing element is executing a memory transaction guarded by said lock address, delaying releasing said lock address for exclusive access until a predetermined condition is met; and (ii) when said transactional-memory-supporting processing element is not executing a memory transaction guarded by said lock address, granting said request independent of said predetermined condition. (i) when said transactional-memory-supporting processing element is executing a memory transaction guarded by said lock address, delaying releasing said lock address for exclusive access until a predetermined condition is met; and (ii) when said transactional-memory-supporting processing element is not executing a memory transaction guarded by said lock address, granting said request independent of said predetermined condition.
A metal supported solid oxide fuel cell unit comprising: a) a plurality of metal substrate plates and at least two blanking plates , each metal substrate plate defining first and second opposed surfaces and each blanking plate defining first and second opposed surfaces , wherein at least one solid oxide fuel cell is disposed on said second surface of each metal substrate plate ; b) a metal spacer , which defines first and second opposed surfaces , said metal spacer comprising an external perimeter and a plurality of cut-out internal perimeters , each cut-out internal perimeter defining a cut-out , wherein said first surface of each metal substrate plate and said first surface of each blanking plate is attached to said second surface of said metal spacer , each cut-out internal perimeter of said metal spacer being wholly overlapped by a metal substrate plate ; and c) a metal interconnect plate which defines first and second opposed surfaces , said second surface of said metal interconnect plate sealingly attached to said first surface of said metal spacer . a) a plurality of metal substrate plates and at least two blanking plates , each metal substrate plate defining first and second opposed surfaces and each blanking plate defining first and second opposed surfaces , wherein at least one solid oxide fuel cell is disposed on said second surface of each metal substrate plate ; b) a metal spacer , which defines first and second opposed surfaces , said metal spacer comprising an external perimeter and a plurality of cut-out internal perimeters , each cut-out internal perimeter defining a cut-out , wherein said first surface of each metal substrate plate and said first surface of each blanking plate is attached to said second surface of said metal spacer , each cut-out internal perimeter of said metal spacer being wholly overlapped by a metal substrate plate ; and c) a metal interconnect plate which defines first and second opposed surfaces , said second surface of said metal interconnect plate sealingly attached to said first surface of said metal spacer .
A method of installing a liner in a turbomachinery case , wherein the liner is formed of composite materials, the method comprising: overlaying a first reinforcing layer , a release layer , and a second reinforcing layer ; spiral coiling the first reinforcing layer, the release layer, and the second reinforcing layer about an axis (A) of the liner, wherein an inner surface of the second reinforcing layer radially overlays an outer surface of the first reinforcing layer and wherein the first reinforcing layer contacts the second reinforcing layer; winding the spiral coiled reinforcing layers about the liner axis in a diameter-reducing direction (330; 412) to form a wound liner having a diameter that is smaller than an inner diameter of the case; and positioning the wound liner axially within the case, whereby the liner unwinds (430; 432) to line the case. overlaying a first reinforcing layer , a release layer , and a second reinforcing layer ; spiral coiling the first reinforcing layer, the release layer, and the second reinforcing layer about an axis (A) of the liner, wherein an inner surface of the second reinforcing layer radially overlays an outer surface of the first reinforcing layer and wherein the first reinforcing layer contacts the second reinforcing layer; winding the spiral coiled reinforcing layers about the liner axis in a diameter-reducing direction (330; 412) to form a wound liner having a diameter that is smaller than an inner diameter of the case; and positioning the wound liner axially within the case, whereby the liner unwinds (430; 432) to line the case.
An automatic pressing jig apparatus that closely contacts a lead assembly (T) and a bus bar provided in a battery module to each other, the automatic pressing jig apparatus comprising: a plurality of contacting units configured to simultaneously press each of a plurality of bus bars provided in the battery module and press an end of the lead assembly (T) from a top of the plurality of bus bars to prevent the lead assembly (T) from protruding from a surface of the plurality of bus bars ; a pair of pressing units connected to the plurality of contacting units and configured to adjust a pressing force of the plurality of contacting units with respect to the plurality of bus bars; a support frame supporting the pair of pressing units ; and a distance adjusting unit connected to the support frame and configured to ascend or descend the support frame to move the plurality of contacting units away from or close to the battery module . a plurality of contacting units configured to simultaneously press each of a plurality of bus bars provided in the battery module and press an end of the lead assembly (T) from a top of the plurality of bus bars to prevent the lead assembly (T) from protruding from a surface of the plurality of bus bars ; a pair of pressing units connected to the plurality of contacting units and configured to adjust a pressing force of the plurality of contacting units with respect to the plurality of bus bars; a support frame supporting the pair of pressing units ; and a distance adjusting unit connected to the support frame and configured to ascend or descend the support frame to move the plurality of contacting units away from or close to the battery module .
A solution comprising: a strong base; and a corrosion inhibitor, wherein the corrosion inhibitor is at least one of tartaric acid, sodium tartrate, citric acid, acetic acid, oxalic acid, malic acid, maleic acid, lactic acid, glycine, L-histidine, diethylenetriaminepentaacetate or diethylenetriaminepentaacetic acid, and wherein the strong base is KOH and the KOH has a concentration of between 22.5 wt.% and 45 wt.%. a strong base; and a corrosion inhibitor, wherein the corrosion inhibitor is at least one of tartaric acid, sodium tartrate, citric acid, acetic acid, oxalic acid, malic acid, maleic acid, lactic acid, glycine, L-histidine, diethylenetriaminepentaacetate or diethylenetriaminepentaacetic acid, and wherein the strong base is KOH and the KOH has a concentration of between 22.5 wt.% and 45 wt.%.
A method of transmitting a sidelink signal by a user equipment , UE, in a wireless communication system, the method comprising: determining transmission powers of a physical sidelink control channel, PSCCH, and a physical sidelink shared channel, PSSCH; and transmitting the PSCCH and the PSSCH at the determined transmission powers; characterized in that a power offset value for increasing a transmission power is not applied upon determining the transmission power of the PSCCH, when the PSCCH and the PSSCH are transmitted in one subframe, and a modulation and coding scheme, MCS, level or a modulation order is a preset value or higher. determining transmission powers of a physical sidelink control channel, PSCCH, and a physical sidelink shared channel, PSSCH; and transmitting the PSCCH and the PSSCH at the determined transmission powers; characterized in that a power offset value for increasing a transmission power is not applied upon determining the transmission power of the PSCCH, when the PSCCH and the PSSCH are transmitted in one subframe, and a modulation and coding scheme, MCS, level or a modulation order is a preset value or higher.
Centrifugal partition chromatography (CPC) method serving for separating 10-deacetylbaccatin III, characterised by that a solution to be purified containing 10-deacetylbaccatin III is purified in at least one CPC procedurial step, and where during the CPC procedurial step one of the following is used as the solvent mixture: MEK/water, MTBE/acetone/water, and DCM/MeOH/water, where the individual solvent mixtures contain the solvents in the following volume ratios: MEK/water: any ratio, MTBE/acetone/water: 4:4:3, DCM/MeOH/water: 3:4:3, where the individual volume ratios deviate from the above values by a maximum of 20%. MEK/water: any ratio, MTBE/acetone/water: 4:4:3, DCM/MeOH/water: 3:4:3, where the individual volume ratios deviate from the above values by a maximum of 20%.
A method of providing nozzle calibration parameters for a 3D printer with rotating platter comprising: printing an arc pattern using one nozzle of a given printing head at a plurality of rotation angles of a printing platter and a single radial position of a printing block; printing an X-Y align pattern using one nozzle of one reference printing head at a single rotation angle of a printing platter, and moving between different radial positions of the printing block to print a plurality of drops expected to belong to a same radial line; printing a head calibration pattern , the head calibration pattern being formed by printing drops from a plurality of nozzles of a plurality of printing heads, each drop being printed at a same rotation angle of a printing platter and a single radial position of a printing block; measuring actual positions of drops in said patterns ; calculating deviations of said measured actual positions from expected positions; and calculating calibration parameters to correct for said deviations. printing an arc pattern using one nozzle of a given printing head at a plurality of rotation angles of a printing platter and a single radial position of a printing block; printing an X-Y align pattern using one nozzle of one reference printing head at a single rotation angle of a printing platter, and moving between different radial positions of the printing block to print a plurality of drops expected to belong to a same radial line; printing a head calibration pattern , the head calibration pattern being formed by printing drops from a plurality of nozzles of a plurality of printing heads, each drop being printed at a same rotation angle of a printing platter and a single radial position of a printing block; measuring actual positions of drops in said patterns ; calculating deviations of said measured actual positions from expected positions; and calculating calibration parameters to correct for said deviations.