mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a user equipment, UE, operating in a wireless communication system, the method comprising: receiving (S901) a queuing delay measurement configuration including discard timer values and a measurement period from a base station, BS, wherein each of the discard timer values respectively corresponds to one radio bearer among a set of radio bearers associated with a Quality of service Class Identifier, QCI, configured for the UE; determining (S903) a queuing delay for the QCI based on queuing delays for packet data convergence protocol service data units, PDCP SDUs, from the set of radio bearers during the measurement period; selecting (S905) a specific discard timer value among the discard timer values, wherein, when all of the set of radio bearers is associated with a same discard timer value, the specific discard timer value corresponds to the same discard timer value, and wherein, when at least two radio bearer among the set of radio bearers are associated with different discard timer values, the specific discard timer value is selected as a discard timer value having a largest value among the different discard timer values; calculating (S907) a queuing delay ratio for the QCI by dividing the queuing delay for the QCI by the specific discard timer value; and transmitting (S909) a queuing delay measurement report including the QCI and the queuing delay ratio for the QCI to the BS. receiving (S901) a queuing delay measurement configuration including discard timer values and a measurement period from a base station, BS, wherein each of the discard timer values respectively corresponds to one radio bearer among a set of radio bearers associated with a Quality of service Class Identifier, QCI, configured for the UE; determining (S903) a queuing delay for the QCI based on queuing delays for packet data convergence protocol service data units, PDCP SDUs, from the set of radio bearers during the measurement period; selecting (S905) a specific discard timer value among the discard timer values, wherein, when all of the set of radio bearers is associated with a same discard timer value, the specific discard timer value corresponds to the same discard timer value, and wherein, when at least two radio bearer among the set of radio bearers are associated with different discard timer values, the specific discard timer value is selected as a discard timer value having a largest value among the different discard timer values; calculating (S907) a queuing delay ratio for the QCI by dividing the queuing delay for the QCI by the specific discard timer value; and transmitting (S909) a queuing delay measurement report including the QCI and the queuing delay ratio for the QCI to the BS.
A method for encoding video comprising: obtaining video frames provided to an encoder; obtaining motion estimation (ME) data for the video frames; calculating a ME score for the video frames; comparing the ME score with a threshold; calculating a value of a metric, denoted as ME score temporal variability metric, from a temporal variability of the ME score; comparing the value of the ME score temporal variability metric with a predetermined value; and providing a high film grain indication signal to the encoder indicating a particular segment of the video frames contains high film grain when the ME score exceeds the threshold and the value of the ME score temporal variability metric is below a predetermined level. obtaining video frames provided to an encoder; obtaining motion estimation (ME) data for the video frames; calculating a ME score for the video frames; comparing the ME score with a threshold; calculating a value of a metric, denoted as ME score temporal variability metric, from a temporal variability of the ME score; comparing the value of the ME score temporal variability metric with a predetermined value; and providing a high film grain indication signal to the encoder indicating a particular segment of the video frames contains high film grain when the ME score exceeds the threshold and the value of the ME score temporal variability metric is below a predetermined level.
A vehicle, comprising: a brake lever for receiving an operator braking input as a lever travel of the brake lever ; a braking wheel operatively coupled with the brake lever to brake the vehicle based on the lever travel ; characterized by : a brake pressure circuit configured for: estimating a maximum braking force above which the braking wheel will skid with respect to a ground surface; scaling a lever gain of the brake lever to command the maximum braking force at a full travel of the brake lever such that a remaining brake lever travel indicates the amount of braking capability remaining for the vehicle; and braking the braking wheel based on the lever gain and the lever travel . a brake lever for receiving an operator braking input as a lever travel of the brake lever ; a braking wheel operatively coupled with the brake lever to brake the vehicle based on the lever travel ; characterized by : a brake pressure circuit configured for: estimating a maximum braking force above which the braking wheel will skid with respect to a ground surface; scaling a lever gain of the brake lever to command the maximum braking force at a full travel of the brake lever such that a remaining brake lever travel indicates the amount of braking capability remaining for the vehicle; and braking the braking wheel based on the lever gain and the lever travel . estimating a maximum braking force above which the braking wheel will skid with respect to a ground surface; scaling a lever gain of the brake lever to command the maximum braking force at a full travel of the brake lever such that a remaining brake lever travel indicates the amount of braking capability remaining for the vehicle; and braking the braking wheel based on the lever gain and the lever travel .
Moisture measurement apparatus for detecting moisture content, particularly soil moisture content, the apparatus comprising: - an airship configured to float over an observation area (A) of the earth's surface, when a carrier gas filled volume (V) of the airship is at least partly filled with a carrier gas; - a neutron moderator carried by the airship and configured to slow down neutrons scattered and/or reflected at the observation area of the earth's surface, wherein the carrier gas is configured to at least partially serve as the neutron moderator; - a neutron detector at least partly surrounded by the neutron moderator and configured to detect a neutron density, wherein the at least one neutron detector is positioned inside the carrier gas filled volume (V) of the airship ; and - an evaluation module configured to determine the moisture content from the detected neutron density. - an airship configured to float over an observation area (A) of the earth's surface, when a carrier gas filled volume (V) of the airship is at least partly filled with a carrier gas; - a neutron moderator carried by the airship and configured to slow down neutrons scattered and/or reflected at the observation area of the earth's surface, wherein the carrier gas is configured to at least partially serve as the neutron moderator; - a neutron detector at least partly surrounded by the neutron moderator and configured to detect a neutron density, wherein the at least one neutron detector is positioned inside the carrier gas filled volume (V) of the airship ; and - an evaluation module configured to determine the moisture content from the detected neutron density.
A remote device (14, 14', 14", 14''') for receiving wireless power from an inductive power supply , said remote device comprising: - a secondary coil (22, 22', 22", 22''') arranged to receive the wireless power from the inductive power supply at an operating power transfer frequency; - a rectifier (30, 30', 30", 30'''); - a charging circuit (32, 32', 32", 32'''); - a battery (34, 34', 34", 34'''); - a main circuit (36, 36', 36", 36'''); - one or more identification capacitors (38', 38", 38a-c''') connected in parallel to the secondary coil that are configured to provide one or more predetermined resonant identification frequencies different from the operating power transfer frequency, wherein the one or more predetermined resonant identification frequencies identify a class of the remote device; wherein all the remote devices operating within a given set of operating parameters are assigned the same class; - a load enable delay circuit (54', 54", 54''') arranged to prevent the charging circuit and/or the main circuit from receiving power for a period of time sufficient for the one or more identification capacitors to establish resonance when the power supply is cycling through each of the identification frequencies and for that resonance to be conveyed to the power supply through reflected impedance ; and wherein the one or more predetermined resonant identification frequencies are configured to allow the class of the remote device to be identified by the inductive power supply. - a secondary coil (22, 22', 22", 22''') arranged to receive the wireless power from the inductive power supply at an operating power transfer frequency; - a rectifier (30, 30', 30", 30'''); - a charging circuit (32, 32', 32", 32'''); - a battery (34, 34', 34", 34'''); - a main circuit (36, 36', 36", 36'''); - one or more identification capacitors (38', 38", 38a-c''') connected in parallel to the secondary coil that are configured to provide one or more predetermined resonant identification frequencies different from the operating power transfer frequency, wherein the one or more predetermined resonant identification frequencies identify a class of the remote device; wherein all the remote devices operating within a given set of operating parameters are assigned the same class; - a load enable delay circuit (54', 54", 54''') arranged to prevent the charging circuit and/or the main circuit from receiving power for a period of time sufficient for the one or more identification capacitors to establish resonance when the power supply is cycling through each of the identification frequencies and for that resonance to be conveyed to the power supply through reflected impedance ; and
Perfusion device for biological tissues comprising - a casing having two parts, a first part and a second part , - a holder for a plurality of hollow penetration structures , wherein the hollow penetration structures are provided with at least one orifice having fluid communication through the holder - a support for the biological tissue wherein the support for the biological tissue is positioned in the casing at a distance to the holder that by joining the first part and the second part to form the casing, the hollow penetration structures are in proximity to the holder , characterized in that the first part and the second part of the casing are each provided with threads as corresponding closing mechanism for joining the two parts and that by joining the first part and the second part to form the casing, the hollow penetration structures penetrate at least in part into the biological tissue . - a casing having two parts, a first part and a second part , - a holder for a plurality of hollow penetration structures , wherein the hollow penetration structures are provided with at least one orifice having fluid communication through the holder - a support for the biological tissue
A method of calculating a set of values specifying a virtual noise mask, the method comprising the steps of receiving a plurality of measurements of noise levels experienced at a digital subscriber line transceiver at each of a plurality of frequencies at different times, and for each frequency calculating a combined value based on a plurality of measurements taken at different times, and generating the set of values specifying a virtual noise mask in dependence upon the combined values, characterised in that the virtual noise mask specified by the calculated values is applied to a digital subscriber line connection associated with the transceiver at which the measured noise levels were experienced for use in a subsequent resynchronisation of the transceivers of the connection, wherein such a mask is only applied in the event that more than a predetermined number of resynchronisations greater than two have occurred on that line within a predetermined period of time.
A library of hybrid V-regions comprising members that have a diversity of V-regions, wherein a member has at least a minimal essential binding specificity determinant (MEBSD) of a CDR from a reference antibody and at least one exchange cassette from an antibody repertoire, in which the at least one exchange cassette of a variable region of the reference antibody is replaced with human corresponding exchange cassettes encoded by different genes, with the proviso that the at least one exchange cassette has less than three framework regions, wherein the at least one exchange cassette includes at least one intact CDR adjoined to at least one intact FR of the V-segment that are together naturally occurring.
Hydrodynamically acting bearing , namely hydrodynamically acting, disc-shaped thrust bearing or hydrodynamic thrust washer, wherein the bearing is formed on the opposite sides to form hydrodynamic, circumferentially extending structures with protrusions and depressions arranged between adjacent protrusions characterized in that the bearing is formed from at least two materials having different coefficients of thermal expansion, such that they are suitable for forming the hydrodynamic structures of at least one side of the bearing , at least in regions, by different volume expansion of the materials at the respectively prevailing operating temperature.
A crosslinkable elastomer composition comprising a mixture - (a) of an elastomer composition based on an ethylene-propylene-diene terpolymer elastomer and - (b) between 2% and 14% by weight, relative to the total weight of the composition, of a random amphiphilic copolymer [P,N] having a polar part (P) and a nonpolar part (N) and obtained by a grafting reaction of a maleic anhydride group on a saturated or unsaturated hydrocarbon-based C 2 -C 4 polymer, the saturated or unsaturated hydrocarbon-based C 2 -C 4 polymer being chosen from polyethylene, polyethylene-polypropylene and polybutadiene and the maleic anhydride content of the copolymer being between 2% and 40% by weigh, based on the total weight of the copolymer. - (a) of an elastomer composition based on an ethylene-propylene-diene terpolymer elastomer and - (b) between 2% and 14% by weight, relative to the total weight of the composition, of a random amphiphilic copolymer [P,N] having a polar part (P) and a nonpolar part (N) and obtained by a grafting reaction of a maleic anhydride group on a saturated or unsaturated hydrocarbon-based C 2 -C 4 polymer, the saturated or unsaturated hydrocarbon-based C 2 -C 4 polymer being chosen from polyethylene, polyethylene-polypropylene and polybutadiene and the maleic anhydride content of the copolymer being between 2% and 40% by weigh, based on the total weight of the copolymer.
A device configure to lifting and rotating electronic product device, the device comprising: a supporting carrier , an electronic product mounting assembly , and a lifting and locking device ; wherein the electronic product mounting assembly is configured to be mounted on the supporting carrier in a liftable manner, and the lifting and locking device is configured to lock the electronic product mounting assembly on the supporting carrier ; the electronic product mounting assembly comprises a mounting member configured for mounting an electronic product; wherein the electronic product mounting assembly further comprises a lifting base mounted on the supporting carrier in a liftable manner; the lifting and locking device is configured to lock the lifting base onto the supporting carrier ; wherein one of the supporting carrier and the lifting base is provided with a lifting mating structure , and the other one of the supporting carrier and the lifting base is provided with the lifting and locking device , characterized in that the lifting and locking device comprises a transverse movable cavity , a transverse locking member movably arranged in the transverse movable cavity , and a first spring arranged in the transverse movable cavity and abutting against the transverse locking member ; the transverse locking member forms a first insert head, the lifting mating structure comprises a plurality of insert slots sequentially arranged along a lifting direction of the lifting base , and the first insert head is insertable into the insert slots . wherein the electronic product mounting assembly further comprises a lifting base mounted on the supporting carrier in a liftable manner; the lifting and locking device is configured to lock the lifting base onto the supporting carrier ; wherein one of the supporting carrier and the lifting base is provided with a lifting mating structure , and the other one of the supporting carrier and the lifting base is provided with the lifting and locking device , characterized in that the lifting and locking device comprises a transverse movable cavity , a transverse locking member movably arranged in the transverse movable cavity , and a first spring arranged in the transverse movable cavity and abutting against the transverse locking member ; the transverse locking member forms a first insert head, the lifting mating structure comprises a plurality of insert slots sequentially arranged along a lifting direction of the lifting base , and the first insert head is insertable into the insert slots .
A method for a user equipment, UE, configured to communicate with a radio access network, RAN, via a plurality of serving cells, the method comprising: determining a reference cell group, RCG, from the plurality of serving cells, wherein the RCG includes one of the serving cells as a reference cell, RC, and one or more other of the serving cells as auxiliary cells; receiving a first reference signal, RS, from the RC, wherein the first RS is not received by the UE from the one or more auxiliary cells; and performing one or more operations in the one or more auxiliary cells based on the first RS received from the RC. determining a reference cell group, RCG, from the plurality of serving cells, wherein the RCG includes one of the serving cells as a reference cell, RC, and one or more other of the serving cells as auxiliary cells; receiving a first reference signal, RS, from the RC, wherein the first RS is not received by the UE from the one or more auxiliary cells; and performing one or more operations in the one or more auxiliary cells based on the first RS received from the RC.
A transport refrigeration unit including a compressor , a primary refrigerant circuit including heat rejection heat exchanger downstream of said compressor, and a heat absorption heat exchanger downstream of said heat rejection heat exchanger, the transport refrigeration unit comprising: a barrier to separate a first portion of the transport refrigeration unit to operate in a refrigerated environment from a second portion; at least one damper door in the refrigerated portion, the damper door to move between three or more positions and an actuator operatively coupled to move the damper door, characterised in that the actuator is positioned outside of the refrigerated environment and in the second portion, and is configured to support movement of the damper door between an open position and a closed position, and in that the transport refrigeration unit is configured to move the damper door to a plurality of intermediate positions to vary a transport refrigeration unit humidity capacity. a barrier to separate a first portion of the transport refrigeration unit to operate in a refrigerated environment from a second portion; at least one damper door in the refrigerated portion, the damper door to move between three or more positions and an actuator operatively coupled to move the damper door, characterised in that the actuator is positioned outside of the refrigerated environment and in the second portion, and is configured to support movement of the damper door between an open position and a closed position, and in that the transport refrigeration unit is configured to move the damper door to a plurality of intermediate positions to vary a transport refrigeration unit humidity capacity.
A method of controlling an operating temperature of a data storage device , the method comprising the steps of setting a threshold temperature (T th ) for the storage device (S1), and over time, during operation of the data storage device, measuring an operating temperature (T op ) of the storage device at a plurality of points in time, thereby obtaining a plurality of temperature measurements as a function of time (S2), the method being characterised by the steps of: accumulating (S3a) above threshold temperature measurements over time to form a high temperature accumulation value (V high ), accumulating (S3b) below threshold temperature measurements over time to form a low temperature accumulation value (V low ), comparing the low temperature accumulation value and the high temperature accumulation value (S4), and if an outcome of the comparison is that the high temperature accumulation value (V high ) is too high in relation to the low temperature accumulation value (V low ), as compared to a reference ratio or a predetermined threshold counter value, initiating an operating temperature lowering action (S5). setting a threshold temperature (T th ) for the storage device (S1), and over time, during operation of the data storage device, measuring an operating temperature (T op ) of the storage device at a plurality of points in time, thereby obtaining a plurality of temperature measurements as a function of time (S2), the method being characterised by the steps of: accumulating (S3a) above threshold temperature measurements over time to form a high temperature accumulation value (V high ), accumulating (S3b) below threshold temperature measurements over time to form a low temperature accumulation value (V low ), comparing the low temperature accumulation value and the high temperature accumulation value (S4), and if an outcome of the comparison is that the high temperature accumulation value (V high ) is too high in relation to the low temperature accumulation value (V low ), as compared to a reference ratio or a predetermined threshold counter value, initiating an operating temperature lowering action (S5). accumulating (S3a) above threshold temperature measurements over time to form a high temperature accumulation value (V high ), accumulating (S3b) below threshold temperature measurements over time to form a low temperature accumulation value (V low ), comparing the low temperature accumulation value and the high temperature accumulation value (S4), and if an outcome of the comparison is that the high temperature accumulation value (V high ) is too high in relation to the low temperature accumulation value (V low ), as compared to a reference ratio or a predetermined threshold counter value, initiating an operating temperature lowering action (S5).