mhurhangee/patent-ind-claim-en huggingface dataset:
A method , in a radio access network node of a wireless communication network, the method comprising: determining a plurality of user equipment, UE, candidate sets for Multi-User Superposition Transmission, MUST, scheduling in a band comprising a plurality of subbands, wherein each UE candidate set comprises a first UE in a near MUST position and a second UE in a far MUST position; ordering the plurality of UE candidate sets according to a scheduling performance metric for each UE candidate set, wherein each scheduling performance metric is evaluated with respect to the entire band; resolving MUST pairing conflicts by excluding, from the plurality of UE candidate sets, any UE candidate set that includes a UE that a) is also present in a UE candidate set having a better scheduling performance metric and b) has an inconsistent MUST position for interference cancellation with respect to the UE candidate set having the better scheduling performance metric, to obtain a reduced set of UE candidate sets; and performing subband scheduling on each subband of the plurality of subbands, using either MUST scheduling or Orthogonal Multiple Access, OMA, transmission scheduling, wherein the reduced set of UE candidate sets is used for MUST scheduling. determining a plurality of user equipment, UE, candidate sets for Multi-User Superposition Transmission, MUST, scheduling in a band comprising a plurality of subbands, wherein each UE candidate set comprises a first UE in a near MUST position and a second UE in a far MUST position; ordering the plurality of UE candidate sets according to a scheduling performance metric for each UE candidate set, wherein each scheduling performance metric is evaluated with respect to the entire band; resolving MUST pairing conflicts by excluding, from the plurality of UE candidate sets, any UE candidate set that includes a UE that a) is also present in a UE candidate set having a better scheduling performance metric and b) has an inconsistent MUST position for interference cancellation with respect to the UE candidate set having the better scheduling performance metric, to obtain a reduced set of UE candidate sets; and performing subband scheduling on each subband of the plurality of subbands, using either MUST scheduling or Orthogonal Multiple Access, OMA, transmission scheduling, wherein the reduced set of UE candidate sets is used for MUST scheduling.
Base pad for a firearm magazine , suitable to be releasably coupled to a lower end of a magazine , said base pad , comprising a base pad body made in one piece, wherein said base pad body comprises a body base and a peripheral wall , protruding peripherally from the body base , whereby the body base and the peripheral wall delimit a body compartment suitable to face the lower end of the magazine , wherein on said peripheral wall , on the side of the body compartment , there are provided means for anchoring the base pad to the magazine , and wherein said peripheral wall , on the outer side (E), opposite to the side of the body compartment (V), comprises fins , spaced apart from each other. wherein on said peripheral wall , on the side of the body compartment , there are provided means for anchoring the base pad to the magazine , and wherein said peripheral wall , on the outer side (E), opposite to the side of the body compartment (V), comprises fins , spaced apart from each other.
A computer-implemented method for verifying a printed pattern of features (1-7) printed through a lithographic mask, said printed pattern approximating a reference pattern, the method comprising the steps of : - defining sectors of at least a portion of the features in the reference pattern, - determining a contour of the printed pattern, - superimposing the contour of the printed pattern on the reference pattern, - determining the surface areas of the sectors of the printed pattern that correspond to the sectors of the reference pattern, - calculating one or more parameters as a function of said surface areas, said parameters being related to a single sector or to multiple sectors, - evaluating said parameters with respect to a reference value, characterised in that the method further comprises defining one or more regions around neighbouring sectors of features in the reference pattern and of the corresponding features (41'/42',44'/45',47'/48') in the printed pattern, and wherein for each of said defined regions the steps are performed of : • determining the surface area R of the region, • determining R-R', with R' the total surface area of the two or more neighbouring sectors (41'/42',44'/45',47'/48') of the printed pattern, • determining R-R" with R" the total surface area of the two or more neighbouring sectors (41/42,44/45,47/48) of the reference pattern, • calculating the ratio (R-R')/(R-R'') as one of the parameters. - defining sectors of at least a portion of the features in the reference pattern, - determining a contour of the printed pattern, - superimposing the contour of the printed pattern on the reference pattern, - determining the surface areas of the sectors of the printed pattern that correspond to the sectors of the reference pattern, - calculating one or more parameters as a function of said surface areas, said parameters being related to a single sector or to multiple sectors, - evaluating said parameters with respect to a reference value, characterised in that the method further comprises defining one or more regions around neighbouring sectors of features in the reference pattern and of the corresponding features (41'/42',44'/45',47'/48') in the printed pattern, and wherein for each of said defined regions the steps are performed of : • determining the surface area R of the region, • determining R-R', with R' the total surface area of the two or more neighbouring sectors (41'/42',44'/45',47'/48') of the printed pattern, • determining R-R" with R" the total surface area of the two or more neighbouring sectors (41/42,44/45,47/48) of the reference pattern, • calculating the ratio (R-R')/(R-R'') as one of the parameters. • determining the surface area R of the region, • determining R-R', with R' the total surface area of the two or more neighbouring sectors (41'/42',44'/45',47'/48') of the printed pattern, • determining R-R" with R" the total surface area of the two or more neighbouring sectors (41/42,44/45,47/48) of the reference pattern, • calculating the ratio (R-R')/(R-R'') as one of the parameters.
A system for measuring a level of a liquid, comprising: a receptacle configured to contain the liquid, the receptacle having a top and a bottom; a time-domain reflectometry probe extending into the receptacle through the bottom, the probe including a conductive tube , at least one marker within the conductive tube , and at least one conductive rod coaxially arranged within the conductive tube and connected to the at least one marker , the at least one marker including a body portion and a plurality of fin portions ; a pulsing unit configured to transmit a pulse to the probe ; and a digitizer configured to receive at least a first reflected pulse (PB 2 ) and a second reflected pulse (AW 2 ) from the probe ; wherein the at least one marker is configured to cause a transmitted pulse to be reflected back to the digitizer as a result of an impedance mismatch between the at least one conductive rod , the at least one marker , and the conductive tube . a receptacle configured to contain the liquid, the receptacle having a top and a bottom; a time-domain reflectometry probe extending into the receptacle through the bottom, the probe including a conductive tube , at least one marker within the conductive tube , and at least one conductive rod coaxially arranged within the conductive tube and connected to the at least one marker , the at least one marker including a body portion and a plurality of fin portions ; a pulsing unit configured to transmit a pulse to the probe ; and a digitizer configured to receive at least a first reflected pulse (PB 2 ) and a second reflected pulse (AW 2 ) from the probe ; wherein the at least one marker is configured to cause a transmitted pulse to be reflected back to the digitizer as a result of an impedance mismatch between the at least one conductive rod , the at least one marker , and the conductive tube .
A method for identifying effector Treg cells (eTreg) in a fluid sample comprising the steps of i) detecting the cell surface expression of CD4, CD25, CD127 and CD15s markers on the cell population contained in the fluid sample and ii) concluding that the cells expressing CD4, CD25, CD127 at low levels and CD15s are the effector Treg cells.
A fluid guiding assembly for fuel cells, comprising a channel structure (620;720) and a gas diffusion layer arranged on the channel structure (620;720), the channel structure (620;720) defining flow field channels (62;72) extending from a first end of the channel structure (620;720) to an opposite second end, wherein a porous distributor (63;73) is arranged at both ends of the channel structure (620;720), extending over the entire width of the channel structure (620;720), characterized in that the height of the distributors (63;73) equals the sum of the height of the diffusion layer and the height of the channel structure (620;720).
An adhesive composition comprising: an adhesive component; a vehicle; a hydrophilic absorbent, wherein the hydrophilic absorbent is a water soluble polymer and the water soluble polymer is carboxymethyl cellulose; a crystallization inhibitor; and at least one active agent; wherein the adhesive composition exhibits a Peel on polyethylene value of at least 0.5 N/in and a Tack of at least 10 N/in; wherein the vehicle is a polyhydric alcohol; and wherein the crystallization inhibitor is polyvinylpyrrolidone. an adhesive component; a vehicle; a hydrophilic absorbent, wherein the hydrophilic absorbent is a water soluble polymer and the water soluble polymer is carboxymethyl cellulose; a crystallization inhibitor; and at least one active agent; wherein the adhesive composition exhibits a Peel on polyethylene value of at least 0.5 N/in and a Tack of at least 10 N/in; wherein the vehicle is a polyhydric alcohol; and wherein the crystallization inhibitor is polyvinylpyrrolidone.
A method of adapting charging for an accessory device , the method comprising: at a wireless charging device : transmitting a first power signal (432-1) with a first transmission amplitude; measuring a receiving load of the first power signal; and characterised by determining based on the measured receiving load whether a response signal is received from the accessory device and whether a receiving coil of the accessory device magnetically saturates, wherein it is determined that the receiving coil of the accessory device magnetically saturates if an increase of the first transmission amplitude does not lead to an increase of the measured receiving load; and if the wireless charging device does not receive the response signal and the receiving coil of the accessory device magnetically saturates, transmitting a second power signal (432-2) at a second transmission amplitude that is lower than the first transmission amplitude so as to reduce potential magnetic saturation. transmitting a first power signal (432-1) with a first transmission amplitude; measuring a receiving load of the first power signal; and characterised by determining based on the measured receiving load whether a response signal is received from the accessory device and whether a receiving coil of the accessory device magnetically saturates, wherein it is determined that the receiving coil of the accessory device magnetically saturates if an increase of the first transmission amplitude does not lead to an increase of the measured receiving load; and if the wireless charging device does not receive the response signal and the receiving coil of the accessory device magnetically saturates, transmitting a second power signal (432-2) at a second transmission amplitude that is lower than the first transmission amplitude so as to reduce potential magnetic saturation.
A tire comprising a circular tire frame comprising a resin composition, the resin composition comprising a polypropylene having a melting temperature of 160°C or higher, an ethylene-propylene rubber, and a styrene-containing elastomer, a content of the polypropylene having a melting temperature of 160°C or higher being 60% by mass or less with respect to the resin composition as a whole, and a content of a styrene component being 5% by mass or more with respect to the resin composition as a whole.
A method for wireless communication, performed by an apparatus, comprising: receiving a configuration message identifying one or more code block groups, CBGs; identifying a reference signal preemption scheme associated with one or more reference signal resources being preempted for priority transmissions during a time period; determining that resources of one or more reference signals have been preempted during the time period and in accordance with the reference signal preemption scheme; and implementing a reference signal preemption response scheme that is selected based at least in part on the resources of the one or more reference signals being preempted, further comprising: determining that resources for less than a defined number of demodulation reference signals, DMRSs, have been preempted during the time period, wherein the selected reference signal preemption response scheme comprises performing channel decoding and demodulation during the time period for DMRSs that are not preempted during the time period, further comprising: identifying one or more code block groups, CBGs, that are proximate to the resources of the DMRSs that are not preempted during the time period; and decoding the one or more CBGs. receiving a configuration message identifying one or more code block groups, CBGs; identifying a reference signal preemption scheme associated with one or more reference signal resources being preempted for priority transmissions during a time period; determining that resources of one or more reference signals have been preempted during the time period and in accordance with the reference signal preemption scheme; and implementing a reference signal preemption response scheme that is selected based at least in part on the resources of the one or more reference signals being preempted, further comprising: determining that resources for less than a defined number of demodulation reference signals, DMRSs, have been preempted during the time period, wherein the selected reference signal preemption response scheme comprises performing channel decoding and demodulation during the time period for DMRSs that are not preempted during the time period, further comprising: identifying one or more code block groups, CBGs, that are proximate to the resources of the DMRSs that are not preempted during the time period; and decoding the one or more CBGs. determining that resources for less than a defined number of demodulation reference signals, DMRSs, have been preempted during the time period, wherein the selected reference signal preemption response scheme comprises performing channel decoding and demodulation during the time period for DMRSs that are not preempted during the time period, further comprising: identifying one or more code block groups, CBGs, that are proximate to the resources of the DMRSs that are not preempted during the time period; and decoding the one or more CBGs. identifying one or more code block groups, CBGs, that are proximate to the resources of the DMRSs that are not preempted during the time period; and decoding the one or more CBGs.
A communication method, comprising: a step of notifying, by a base station , a radio terminal of a discontinuous reception, DRX, cycle; a step of notifying, by a Mobility Management Entity, MME, the radio terminal of an extended DRX cycle longer than or equal to 5120 ms; characterized by a step of determining, by the radio terminal , whether or not the base station supports an extended DRX operation; a step of using, by the radio terminal , the extended DRX cycle to execute the extended DRX operation in an idle mode, in response to determining that the base station supports the extended DRX operation; a step of using, by the radio terminal , the DRX cycle of which the base station notifies the radio terminal , to execute a DRX operation in the idle mode without using the extended DRX cycle, in response to determining that the base station does not support the extended DRX operation; and a step of receiving, by the radio terminal , system information including system frame number from the base station when the radio terminal is using the extended DRX cycle longer than a predetermined period, wherein the communication method further comprises a step of establishing, by the radio terminal , an RRC connection with the base station and enter an RRC connected mode; a step of receiving, by the radio terminal , a connected mode DRX cycle length configured by the base station ; and a step of transmitting, by the radio terminal , a message including information indicating a connected mode DRX cycle length desired by the radio terminal , to the base station . a step of notifying, by a base station , a radio terminal of a discontinuous reception, DRX, cycle; a step of notifying, by a Mobility Management Entity, MME, the radio terminal of an extended DRX cycle longer than or equal to 5120 ms; characterized by a step of determining, by the radio terminal , whether or not the base station supports an extended DRX operation; a step of using, by the radio terminal , the extended DRX cycle to execute the extended DRX operation in an idle mode, in response to determining that the base station supports the extended DRX operation; a step of using, by the radio terminal , the DRX cycle of which the base station notifies the radio terminal , to execute a DRX operation in the idle mode without using the extended DRX cycle, in response to determining that the base station does not support the extended DRX operation; and a step of receiving, by the radio terminal , system information including system frame number from the base station when the radio terminal is using the extended DRX cycle longer than a predetermined period, wherein the communication method further comprises a step of establishing, by the radio terminal , an RRC connection with the base station and enter an RRC connected mode; a step of receiving, by the radio terminal , a connected mode DRX cycle length configured by the base station ; and a step of transmitting, by the radio terminal , a message including information indicating a connected mode DRX cycle length desired by the radio terminal , to the base station .
Anchor rail for anchoring in concrete, having a substantially C-shaped cross-section, wherein the anchor rail comprises a base body , which is substantially U-shaped in cross-section, two free legs and at least one anchor , wherein the two free legs are arranged at the base body opposite the anchor , wherein a slot is formed between the free legs in the longitudinal direction of the anchor rail , characterised in that the base body at least partially has a profiling on its outside facing the concrete, in that the profiling is realised by recesses in the base body , and in that the base body is thickened in the region of the profiling, wherein a first thickness (s 1 ) of the base body in the region of the thickened profiling corresponds to the maximum wall thickness of the base body in the region of the thickened profiling, wherein a thickness (s 2 ) of the base body in the non-thickened region of the base body corresponds to the wall thickness of the base body in the non-thickened region of the base body , and wherein the thickness (s 1 ) of the base body in the region of the thickened profiling is greater than the thickness (s 2 ) of the base body in the non-thickened region of the base body .
A process for the production of a flame retardant insulating element, in which pre-expanded polystyrene particles are used at least a portion of which are coated prior to pouring into a mould and sintering, characterized in that the pre-expanded polystyrene particles are at least partially coated with a formulation containing acrylate, styrene-acrylate, vinyl acetate, vinyl acetate-ethylene and/or vinyl chloride as an organic binder and with at least one flame retardant, wherein the binder and the flame retardant are applied to the pre-expanded polystyrene particles at different times.
Device for autonomous adjustment of the active length of a balance spring , for an oscillator of the balance/balance spring type, comprising a regulator mounted on a plate of a timepiece movement , by means of a cock in which a balance staff pivots, the balance spring comprising an inner end integral with the balance staff and an outer end integral with a balance spring stud attached to a stud holder , the stud holder being pivotally mounted on the cock concentrically to the balance staff , the regulator being pivotally mounted on the stud holder concentrically to the balance staff and characterized in that the device further includes: - a pivot arm and means for adjusting the active length of the balance spring by pivoting the regulator ; - elastic stress means configured to exert an elastic, return-to-position action on the regulator ; - an inertia block mounted for free rotation on the cock and connected to the pivot arm of the regulator such that a rotation of the inertia block causes a displacement of the pivot arm of the regulator and simultaneously acts on the means for adjusting the active length of the balance spring . - a pivot arm and means for adjusting the active length of the balance spring by pivoting the regulator ; - elastic stress means configured to exert an elastic, return-to-position action on the regulator ; - an inertia block mounted for free rotation on the cock and connected to the pivot arm of the regulator such that a rotation of the inertia block causes a displacement of the pivot arm of the regulator and simultaneously acts on the means for adjusting the active length of the balance spring .
An azeotropic composition comprising 1,1,3,3-tetrachloro-1-fluoropropane (HCFC-241fa) and hydrogen fluoride (HF), wherein the composition comprises from 70 weight percent to 1 weight percent HCFC-241fa.