mhurhangee/ep-ind-claims huggingface dataset:
A scheduler for use in a base station, configured to: receive a first video buffer level and a second video buffer level from each of a plurality of video-streaming devices (104A-G), the first video buffer level corresponding to a video buffer level of a respective device (104A-G) at a first time and the second video buffer level corresponding to a video buffer level of the respective device (104A-G) at a second time after the first time, calculate a buffer level difference between the first video buffer and the second video buffer element for each of the plurality of devices (104A-G), calculate, for each of the plurality of devices (104A-G), a priority token parameter based on the buffer level difference calculated for the respective device (104A-G), and a threshold buffer difference, compute, for each of the plurality of devices (14A-G), a priority of the respective device's access to the cellular network resources for transmission of streamed video based on the respective device's priority token parameter; and schedule the plurality of devices (104A-G) based on their priority. receive a first video buffer level and a second video buffer level from each of a plurality of video-streaming devices (104A-G), the first video buffer level corresponding to a video buffer level of a respective device (104A-G) at a first time and the second video buffer level corresponding to a video buffer level of the respective device (104A-G) at a second time after the first time, calculate a buffer level difference between the first video buffer and the second video buffer element for each of the plurality of devices (104A-G), calculate, for each of the plurality of devices (104A-G), a priority token parameter based on the buffer level difference calculated for the respective device (104A-G), and a threshold buffer difference, compute, for each of the plurality of devices (14A-G), a priority of the respective device's access to the cellular network resources for transmission of streamed video based on the respective device's priority token parameter; and schedule the plurality of devices (104A-G) based on their priority.
A power supply circuit for train rescue, wherein the power supply circuit is arranged in a rescue train and comprises: a traction transformer, traction motors, and a converter inverter comprising a first predetermined number of independent axis control circuits, wherein for each of the first predetermined number of independent axis control circuits, an input terminal of the independent axis control circuit is connected to a secondary winding of a traction transformer corresponding to the independent axis control circuit, and an output terminal of the independent axis control circuit is connected to a traction motor corresponding to the independent axis control circuit, each of a second predetermined number of independent axis control circuits in the first predetermined number of independent axis control circuits comprises: a first power supply isolation switch configured to connect a positive wire of an intermediate direct current link of the independent axis control circuit to a rescued train or disconnect the positive wire from the rescued train, wherein the second predetermined number is less than or equal to the first predetermined number; and a second power supply isolation switch configured to connect a negative wire of the intermediate direct current link of the independent axis control circuit to the rescued train or disconnect the negative wire from the rescued train. for each of the first predetermined number of independent axis control circuits, an input terminal of the independent axis control circuit is connected to a secondary winding of a traction transformer corresponding to the independent axis control circuit, and an output terminal of the independent axis control circuit is connected to a traction motor corresponding to the independent axis control circuit, each of a second predetermined number of independent axis control circuits in the first predetermined number of independent axis control circuits comprises: a first power supply isolation switch configured to connect a positive wire of an intermediate direct current link of the independent axis control circuit to a rescued train or disconnect the positive wire from the rescued train, wherein the second predetermined number is less than or equal to the first predetermined number; and a second power supply isolation switch configured to connect a negative wire of the intermediate direct current link of the independent axis control circuit to the rescued train or disconnect the negative wire from the rescued train. a first power supply isolation switch configured to connect a positive wire of an intermediate direct current link of the independent axis control circuit to a rescued train or disconnect the positive wire from the rescued train, wherein the second predetermined number is less than or equal to the first predetermined number; and a second power supply isolation switch configured to connect a negative wire of the intermediate direct current link of the independent axis control circuit to the rescued train or disconnect the negative wire from the rescued train.
A carton for holding and dispensing a plurality of items, the carton having a main body comprising a base at a lower end of the carton, peripheral walls (18, 20, 22, 24) extending from the base to define a volume within which a plurality of items can be held, and a top end closure for the main body at an upper end of the carton opposite the base, the peripheral walls including opposed front and rear walls (18, 20) and opposed side walls (22, 24) extending between the front and rear walls, each of the front and rear walls having a fixed upper wall panel (46, 50) and a bin type dispensing flap (30a, 30b) in a lower region, the bin type dispensing flap being pivotally movable between an open position in which an upper end of the flap is spaced from the fixed upper wall panel allowing access to the interior volume for dispensing of items in the carton and a closed position in which the upper end of the flap is located adjacent the fixed upper wall panel, wherein the carton is erected from a single unitary blank of material, and characterised in that the base consists of a single unitary panel, the bin type dispensing flap (30a, 30b) in each of the front and rear walls comprising a lower wall panel (31a, 31b) hingedly attached along a lower edge (68a, 68b) to an edge of the base panel for pivotal movement between said open and closed positions and a pair of opposed side tabs (84a, 88a, 84b, 88b) extending inwardly from opposite side edges of the lower wall panel, each side tab extending into the interior of the main body adjacent the inner surface of a respective one of the side walls.
A flow meter filter system comprising: a noise pass filter configured to receive a first version of a flow meter signal and filter out the flow meter data from the flow meter signal to leave a noise signal; a noise quantifier configured to receive the noise signal from the noise pass filter and measure noise characteristics of the noise signal; a damping adjuster configured to receive the noise characteristics from the noise quantifier and generate a damping value based on the noise characteristics; and a filter element configured to receive a second version of the flow meter signal and receive the damping value from the damping adjuster, with the filter element being further configured to damp the second version of the flow meter signal based on the damping value in order to produce a filtered flow meter signal, wherein the filter element is further configured to generate an error signal comprising a difference between the second version of the flow meter signal and the filtered flow meter signal and to provide the error signal to the damping adjuster. a noise pass filter configured to receive a first version of a flow meter signal and filter out the flow meter data from the flow meter signal to leave a noise signal; a noise quantifier configured to receive the noise signal from the noise pass filter and measure noise characteristics of the noise signal; a damping adjuster configured to receive the noise characteristics from the noise quantifier and generate a damping value based on the noise characteristics; and a filter element configured to receive a second version of the flow meter signal and receive the damping value from the damping adjuster, with the filter element being further configured to damp the second version of the flow meter signal based on the damping value in order to produce a filtered flow meter signal, wherein the filter element is further configured to generate an error signal comprising a difference between the second version of the flow meter signal and the filtered flow meter signal and to provide the error signal to the damping adjuster.
2- oxo-1-imidazolidinyl imidazothiadiazole derivatives according to formula, their geometrical isomers, enantiomers, diastereomers, isotopes and mixtures, or a pharmaceutically acceptable salt thereof, wherein R 1 is a C 1-4 alkyl optionally substituted by one or more halogen substituents; R 2 is a C 1-4 alkyl substituted by an alkoxy substituent. R 1 is a C 1-4 alkyl optionally substituted by one or more halogen substituents; R 2 is a C 1-4 alkyl substituted by an alkoxy substituent.
A touch screen display comprising: a planar dielectric member; touch sensors mounted to the planar dielectric member; at least one antenna trace formed on the planar dielectric member; characterised in that: the antenna trace surrounds one but not all of the touch sensors. a planar dielectric member; touch sensors mounted to the planar dielectric member; at least one antenna trace formed on the planar dielectric member; characterised in that: the antenna trace surrounds one but not all of the touch sensors.
An electric shaver (100, 300a-b, 400, 500a-c) comprising: a first hair-cutting unit comprising: a first internal cutting member; and a first external cutting member (152, 152a, 152b, 152c) arranged to cover the first internal cutting member and wherein the first internal cutting member is movable relative to the first external cutting member (152, 152a, 152b, 152c); wherein the first external cutting member (152, 152a, 152b, 152c) comprises a first skin-contacting area comprising a first plurality of hair-entry openings, wherein the first skin-contacting area is arranged, in use, to contact skin; and wherein the electric shaver (100, 300a-b, 400, 500a-c) further comprises: a second skin-contacting area arranged, in use, to contact the skin; and a bi-polar radio frequency, RF, generator unit configured to apply a first polarity RF voltage to the first external cutting member (152, 152a, 152b, 152c), and wherein the entirety of the first external cutting member (152, 152a, 152b, 152c) is configured to conduct the first polarity RF voltage; and wherein the bi-polar RF generator unit is further configured to apply a second polarity RF voltage to the second skin-contacting area. a first internal cutting member; and a first external cutting member (152, 152a, 152b, 152c) arranged to cover the first internal cutting member and wherein the first internal cutting member is movable relative to the first external cutting member (152, 152a, 152b, 152c); wherein the first external cutting member (152, 152a, 152b, 152c) comprises a first skin-contacting area comprising a first plurality of hair-entry openings, wherein the first skin-contacting area is arranged, in use, to contact skin; and a second skin-contacting area arranged, in use, to contact the skin; and a bi-polar radio frequency, RF, generator unit configured to apply a first polarity RF voltage to the first external cutting member (152, 152a, 152b, 152c), and wherein the entirety of the first external cutting member (152, 152a, 152b, 152c) is configured to conduct the first polarity RF voltage; and wherein the bi-polar RF generator unit is further configured to apply a second polarity RF voltage to the second skin-contacting area.
A waste toner solidification apparatus for a printing device, comprising: a nozzle configured to receive waste toner from a hopper, wherein the nozzle includes: a body; a cavity formed in the body; and a plurality of heat transfer surfaces disposed in the body and positioned substantially radially outside of the cavity; and a heater configured to heat the waste toner in a manner sufficient to liquefy the waste toner within the nozzle; whereby, substantially when exiting the nozzle, the liquefied waste toner solidifies and forms a plurality of solid waste toner pellets. a nozzle configured to receive waste toner from a hopper, wherein the nozzle includes: a body; a cavity formed in the body; and a plurality of heat transfer surfaces disposed in the body and positioned substantially radially outside of the cavity; and a body; a cavity formed in the body; and a plurality of heat transfer surfaces disposed in the body and positioned substantially radially outside of the cavity; and a heater configured to heat the waste toner in a manner sufficient to liquefy the waste toner within the nozzle; whereby, substantially when exiting the nozzle, the liquefied waste toner solidifies and forms a plurality of solid waste toner pellets.
An organic-inorganic hybrid material having a metal oxide matrix having one kind or plural kinds of metal atoms, and a ligand bonded to the metal atom by chelating, wherein the ligand shows a coloring property by chelating the metal atom.
A heat recovery refrigeration device which includes a compressor, a plurality of heat source side heat exchangers (24, 25) which are able to switch between individually functioning as an evaporator or a radiator for refrigerant, and a plurality of usage side heat exchangers (52a, 52b, 52c, 52d) which are able to switch between individually functioning as an evaporator or a radiator for the refrigerant, and which is able to perform heat recovery between the usage side heat exchangers by sending the refrigerant from the usage side heat exchanger which functions as a radiator for the refrigerant to the usage side heat exchanger which functions as an evaporator for the refrigerant, characterized in that the plurality of heat source side heat exchangers have a first heat source side heat exchanger and a second heat source side heat exchanger which has a heat exchange capacity which is 1.8 times to 4.0 times of the first heat source side heat exchanger, wherein a first header, which is configured to perform merging and branching of the refrigerant between a plurality of heat transfer tubes of the first heat source side heat exchanger, is provided on a gas side of the first heat source side heat exchanger, a second header, which is configured to perform merging and branching of the refrigerant between a plurality of heat transfer tubes of the second heat source side heat exchanger, is provided on a gas side of the second heat source side heat exchanger, and a flow path cross sectional area of the second header is larger than a flow path cross sectional area of the first header.
A method of controlling user equipment operation in a wireless communications network configured to support communication with said user equipment according to a communication mode which utilises repetition of messaging; said method comprising: determining a modulation and coding regime to be used by said user equipment; identifying a repetition regime to be implemented by said user equipment in conjunction with said modulation and coding regime; and communicating an indication of said determined modulation and coding regime and identified repetition regime to said user equipment; wherein said indication comprises: an indication of a codebook entry giving an absolute number of repetitions to be performed. determining a modulation and coding regime to be used by said user equipment; identifying a repetition regime to be implemented by said user equipment in conjunction with said modulation and coding regime; and communicating an indication of said determined modulation and coding regime and identified repetition regime to said user equipment; wherein said indication comprises: an indication of a codebook entry giving an absolute number of repetitions to be performed.
A drill rod for transferring a torque comprising - an elongate rod base body, along which runs at least one base line for a fluid and/or electric current and/or data, - an upper suspension device for suspending the drill rod from a support element, - a rotary bearing, which is arranged between the suspension device and the rod base body, wherein the rod base body is mounted rotatably relative to the suspension device about a rod longitudinal axis, and - a rotary feedthrough, through which a line connection is formed between at least one feed line, which is fixed relative to the support element, and the at least one base line of the rotatably-mounted rod base body, - wherein the rotary bearing comprises an axial bearing which is arranged above or below the rotary feedthrough, - wherein the rotary feedthrough and the rotary bearing, which comprises the axial bearing, are spatially and functionally separate, and - whereinthe rotary bearing is arranged axially distanced from the rotary feedthrough, - wherein the rotary feedthrough comprises a sleeve-shaped outer part, which is connected to the rod base body torque proof, and an inner part, which is arranged within the outer part and is connected to the suspension device torque proof, and - wherein the inner part of the rotary feedthrough is arranged on a spike-like portion of the suspension device, wherein the spike-like portion of the suspension device extends downwardly through the rotary bearing, which is configured in annular shape. - an elongate rod base body, along which runs at least one base line for a fluid and/or electric current and/or data, - an upper suspension device for suspending the drill rod from a support element, - a rotary bearing, which is arranged between the suspension device and the rod base body, wherein the rod base body is mounted rotatably relative to the suspension device about a rod longitudinal axis, and - a rotary feedthrough, through which a line connection is formed between at least one feed line, which is fixed relative to the support element, and the at least one base line of the rotatably-mounted rod base body, - wherein the rotary bearing comprises an axial bearing which is arranged above or below the rotary feedthrough, - wherein the rotary feedthrough and the rotary bearing, which comprises the axial bearing, are spatially and functionally separate, and - whereinthe rotary bearing is arranged axially distanced from the rotary feedthrough, - wherein the rotary feedthrough comprises a sleeve-shaped outer part, which is connected to the rod base body torque proof, and an inner part, which is arranged within the outer part and is connected to the suspension device torque proof, and - wherein the inner part of the rotary feedthrough is arranged on a spike-like portion of the suspension device, wherein the spike-like portion of the suspension device extends downwardly through the rotary bearing, which is configured in annular shape.
A solid oral pharmaceutical formulation, which comprises: an inner phase which is a solid dispersion comprising amorphous -methyl (1- ((4-(3-(5-chloro-2-fluoro-3-(methylsulfonamido)phenyl)-1-isopropyl-1H-pyrazol-4-yl)pyrimidin-2-yl)amino)propan-2-yl)carbamate (COMPOUND A), a hydrophilic binder, a surfactant and an external phase which comprises an acidifier, a filler, and a lubricant.
Motor vehicle having at least one radar unit to emit a radar signal and to receive a reflection of the emitted radar signal, wherein a respective detection region of the at least one radar unit is aligned in a passenger compartment of the motor vehicle and a control device is configured to detect a position of a body part of a person and/or a movement of the body part by means of the reflection received by the at least one radar unit respectively in the passenger compartment, characterised in that the motor vehicle has a display device to display a graphical operating element on a display surface and the control device is configured to set a control value displayed by the operating element depending on the detected position and/or the detected movement, wherein at least one of the at least one radar unit is arranged behind the display surface seen from the passenger compartment in such a way that this radar unit emits the radar signal through the display surface into the passenger compartment and its detection region penetrates the display surface.
A rainproof curtain wall comprising an inner lining layer, a plurality of resilient bumps arrayed on a side of the inner lining layer, and a surface layer provided on a side of the resilient bumps departing from the inner lining layer, characterized in that, the first inner lining layer comprises a first mesh layer, and the surface layer comprises a second mesh layer.
A method comprising: receiving, by a wireless device from a base station, a first uplink grant, for a first transport block, TB, of a hybrid acknowledgment repeat request, HARQ, process; cancelling an uplink transmission of the first TB of the HARQ process based on receiving a pre-emption indication indicating cancellation of transmission via one or more uplink resources indicated by the first uplink grant; determining, after cancelling the uplink transmission of the first TB of the HARQ process, that a received second uplink grant is used for a new transmission of a second TB associated with the HARQ process; and transmitting, by the wireless device to the base station, the second TB of the HARQ process based on the determining. receiving, by a wireless device from a base station, a first uplink grant, for a first transport block, TB, of a hybrid acknowledgment repeat request, HARQ, process; cancelling an uplink transmission of the first TB of the HARQ process based on receiving a pre-emption indication indicating cancellation of transmission via one or more uplink resources indicated by the first uplink grant; determining, after cancelling the uplink transmission of the first TB of the HARQ process, that a received second uplink grant is used for a new transmission of a second TB associated with the HARQ process; and transmitting, by the wireless device to the base station, the second TB of the HARQ process based on the determining.
A method for manufacturing a CIGS thin film solar cell, comprising the steps of: laminating a first light absorption layer on a rear electrode formed on a substrate by coating or printing an ink that contains (In,Ga) 2 (Se 1-a S a) 3 nanoparticles and heating the ink; laminating a second light absorption layer on the first light absorption layer by coating or printing another ink that contains Cu 2 (S 1-b S b) nanoparticles; and heating the first and second light absorption layers to form a CIGS thin film, wherein a and b satisfy 0≤a≤1 and 0≤b≤1. laminating a first light absorption layer on a rear electrode formed on a substrate by coating or printing an ink that contains (In,Ga) 2 (Se 1-a S a) 3 nanoparticles and heating the ink; laminating a second light absorption layer on the first light absorption layer by coating or printing another ink that contains Cu 2 (S 1-b S b) nanoparticles; and heating the first and second light absorption layers to form a CIGS thin film,