mhurhangee/ep-ind-claims huggingface dataset:
A power control method, comprising: receiving an indication information, wherein the indication information is used to indicate a reference power control parameter; determining a power control parameter specific to a first bandwidth part of a terminal device based on the reference power control parameter, a reference transmission parameter, and a transmission parameter of the first bandwidth part; and sending uplink information on the first bandwidth part by using a transmit power, wherein the transmit power is based on the power control parameter specific to the first bandwidth part and a common power control parameter of a carrier in which the first bandwidth part and a second bandwidth part of the terminal device are located, wherein the common power control parameter is common to the first bandwidth part and the second bandwidth part; wherein the power control parameter specific to the first bandwidth part comprises an open-loop power control parameter specific to the first bandwidth part, and the common power control parameter comprises a common open-loop power control parameter; wherein the power control parameter specific to the first bandwidth part comprises a power offset of an expected power for demodulation, and the common power control parameter comprises an expected power for demodulation. receiving an indication information, wherein the indication information is used to indicate a reference power control parameter; determining a power control parameter specific to a first bandwidth part of a terminal device based on the reference power control parameter, a reference transmission parameter, and a transmission parameter of the first bandwidth part; and sending uplink information on the first bandwidth part by using a transmit power, wherein the transmit power is based on the power control parameter specific to the first bandwidth part and a common power control parameter of a carrier in which the first bandwidth part and a second bandwidth part of the terminal device are located, wherein the common power control parameter is common to the first bandwidth part and the second bandwidth part; wherein the power control parameter specific to the first bandwidth part comprises an open-loop power control parameter specific to the first bandwidth part, and the common power control parameter comprises a common open-loop power control parameter; wherein the power control parameter specific to the first bandwidth part comprises a power offset of an expected power for demodulation, and the common power control parameter comprises an expected power for demodulation.
The cosmetic use of at least an effective amount of a lysate of at least one microorganism of the Bifidobacterium longum species, or a fraction thereof, for preventing and/or treating body odor.
An image sensor comprising: a semiconductor substrate including a plurality of photo-sensing devices, and characterised by further comprising: a photoelectric conversion device on the semiconductor substrate and configured to absorb a combination of light of a first color and light of a second color, and a color filter on the photoelectric conversion device and configured to selectively transmit light of a third color and at least one of light of the first color and light of the second color and in that the photoelectric conversion device comprises: a lower electrode on the semiconductor substrate a light-absorption layer on the lower electrode and including a mixture of a light-absorbing material configured to selectively absorb light of the first color and a light-absorbing material configured to selectively absorb light of the second color, or a light-absorbing material configured to selectively absorb light of the first color and light of the second color, and an upper electrode on the light-absorption layer. a semiconductor substrate including a plurality of photo-sensing devices, and characterised by further comprising: a photoelectric conversion device on the semiconductor substrate and configured to absorb a combination of light of a first color and light of a second color, and a color filter on the photoelectric conversion device and configured to selectively transmit light of a third color and at least one of light of the first color and light of the second color a photoelectric conversion device on the semiconductor substrate and configured to absorb a combination of light of a first color and light of a second color, and a color filter on the photoelectric conversion device and configured to selectively transmit light of a third color and at least one of light of the first color and light of the second color and in that the photoelectric conversion device comprises: a lower electrode on the semiconductor substrate a light-absorption layer on the lower electrode and including a mixture of a light-absorbing material configured to selectively absorb light of the first color and a light-absorbing material configured to selectively absorb light of the second color, or a light-absorbing material configured to selectively absorb light of the first color and light of the second color, and an upper electrode on the light-absorption layer. a lower electrode on the semiconductor substrate a light-absorption layer on the lower electrode and including a mixture of a light-absorbing material configured to selectively absorb light of the first color and a light-absorbing material configured to selectively absorb light of the second color, or a light-absorbing material configured to selectively absorb light of the first color and light of the second color, and an upper electrode on the light-absorption layer.
A system for performing machine vision using diffuse structured light, comprising: a linear diffuser (202; 402) having an axis of diffusion; a light source adapted to project an illumination pattern (212; 411; 412) through the linear diffuser and onto a scene (310; 410), wherein the illumination pattern (212; 411; 412) has translational symmetry in a direction of translation that is aligned with the axis of diffusion; and an image sensor adapted to detect light reflecting from the scene and that outputs signals corresponding to the detected light. a linear diffuser (202; 402) having an axis of diffusion; a light source adapted to project an illumination pattern (212; 411; 412) through the linear diffuser and onto a scene (310; 410), wherein the illumination pattern (212; 411; 412) has translational symmetry in a direction of translation that is aligned with the axis of diffusion; and an image sensor adapted to detect light reflecting from the scene and that outputs signals corresponding to the detected light.
A data acquisition device comprising: circuitry configured to receive data acquired from one or more sensors coupled to an external object; a Universal Serial Bus plug having a plurality of pins operatively coupled to the circuitry, a first subset of the plurality of pins configured to receive data signals from the one or more sensors coupled to the object and a second subset of the plurality of pins configured to support standard USB communication with USB-compliant devices; and a modification to the USB plug configured such that the modification facilitates interconnection of the USB plug both with standard USB-compliant devices and with an object-connected receptacle that is configured to prevent interconnection with standard USB plugs. circuitry configured to receive data acquired from one or more sensors coupled to an external object; a Universal Serial Bus plug having a plurality of pins operatively coupled to the circuitry, a first subset of the plurality of pins configured to receive data signals from the one or more sensors coupled to the object and a second subset of the plurality of pins configured to support standard USB communication with USB-compliant devices; and a modification to the USB plug configured such that the modification facilitates interconnection of the USB plug both with standard USB-compliant devices and with an object-connected receptacle that is configured to prevent interconnection with standard USB plugs.
A DNA polymerase having at least 80% sequence identity with SEQ ID NO: 1 and having increased 3'-mismatch discrimination activity compared with a control DNA polymerase, wherein the DNA polymerase comprises a motif in the polymerase domain comprising G-Y-V-E-T-L-F-G-R-R-X 5 -Y-V-P, wherein: X 5 is A, C, D, G, or N (SEQ ID NO:11); and wherein the amino acid of the DNA polymerase corresponding to position 580 of SEQ ID NO: 1 isG, and wherein the control DNA polymerase has the same amino acid sequence as the DNA polymerase except that amino acid X 5 of the control DNA polymerase is R. X 5 is A, C, D, G, or N (SEQ ID NO:11); and wherein the amino acid of the DNA polymerase corresponding to position 580 of SEQ ID NO: 1 isG, and wherein the control DNA polymerase has the same amino acid sequence as the DNA polymerase except that amino acid X 5 of the control DNA polymerase is R.
An apparatus, comprising: a central processing unit CPU core; a first memory cache to store instructions for execution by the CPU core, the first memory cache having a first line size; a second memory cache to store instructions for execution by the CPU core, the second memory cache having a second line size, the second line size being larger than the first line size, each line of the second memory cache comprising an upper half and a lower half; and a memory controller subsystem coupled to the CPU core and the first and second memory caches (130, 155), the memory controller subsystem being configured, upon a determination of a miss in the first memory cache for a first target address, to determine that the first target address resulting in the miss maps to the lower half of a line in the second memory cache, to retrieve the entire line from the second memory cache, characterised in that the memory controller subsystem is configured to return the entire line from the second memory cache to the first memory cache, wherein, upon a second miss in the first memory cache for a second target address, the memory controller subsystem is configured to determine that the second target address resulting in the second miss maps to the upper half of a line in the second memory cache and to return to the first memory cache the upper half of the line from the second memory cache and not the lower half of the line from the second memory cache. a central processing unit CPU core; a first memory cache to store instructions for execution by the CPU core, the first memory cache having a first line size; a second memory cache to store instructions for execution by the CPU core, the second memory cache having a second line size, the second line size being larger than the first line size, each line of the second memory cache comprising an upper half and a lower half; and a memory controller subsystem coupled to the CPU core and the first and second memory caches (130, 155), the memory controller subsystem being configured, upon a determination of a miss in the first memory cache for a first target address, to determine that the first target address resulting in the miss maps to the lower half of a line in the second memory cache, to retrieve the entire line from the second memory cache, characterised in that the memory controller subsystem is configured to return the entire line from the second memory cache to the first memory cache, wherein, upon a second miss in the first memory cache for a second target address, the memory controller subsystem is configured to determine that the second target address resulting in the second miss maps to the upper half of a line in the second memory cache and to return to the first memory cache the upper half of the line from the second memory cache and not the lower half of the line from the second memory cache.
Method for producing a positive connection between a first component and a second component of a motor vehicle lighting device with the aid of a connecting element which is provided on the part of the second component, - wherein the first component is provided as a supporting component of the second component and having an outer side and an inner side, - wherein the first component has, on the outer side, a fixing portion formed as a recess which is continued as a through hole opening on the inner side, - wherein the through hole has a shoulder portion facing away from the inner side, - wherein at least one cover part is associated with the recess, wherein the at least one cover part is formed from a liquid-sealing material, comprising the following steps: a) arranging the second component at an inner side opening region of the through hole of the first component, b) passing the connecting member through the through hole, c) fixing the first member to the second member by means of an end portion of the connecting member by abutting the end portion against the shoulder portion of the recess, the method being characterized by d) covering the recess in a liquid-tight manner with the aid of the at least one covering part which is designed as a membrane, the covering part not projecting beyond the outer side of the first component after the recess has been covered. - wherein the first component is provided as a supporting component of the second component and having an outer side and an inner side, - wherein the first component has, on the outer side, a fixing portion formed as a recess which is continued as a through hole opening on the inner side, - wherein the through hole has a shoulder portion facing away from the inner side, - wherein at least one cover part is associated with the recess, wherein the at least one cover part is formed from a liquid-sealing material, comprising the following steps: a) arranging the second component at an inner side opening region of the through hole of the first component, b) passing the connecting member through the through hole, c) fixing the first member to the second member by means of an end portion of the connecting member by abutting the end portion against the shoulder portion of the recess, the method being characterized by d) covering the recess in a liquid-tight manner with the aid of the at least one covering part which is designed as a membrane, the covering part not projecting beyond the outer side of the first component after the recess has been covered. a) arranging the second component at an inner side opening region of the through hole of the first component, b) passing the connecting member through the through hole, c) fixing the first member to the second member by means of an end portion of the connecting member by abutting the end portion against the shoulder portion of the recess, the method being characterized by d) covering the recess in a liquid-tight manner with the aid of the at least one covering part which is designed as a membrane, the covering part not projecting beyond the outer side of the first component after the recess has been covered.
A crane trolley with a hoisting rope arrangement, wherein the trolley is arranged to move on a main girder of the crane; a lifting mechanism of the trolley is located outside the trolley; both sides of the trolley are provided with successive rope pulley pairs (3, 4) located at a distance from one another in a longitudinal direction of the trolley and, below these, at a distance, sheaves situated in a hoisting member; whereby on both sides of the trolley, a first hoisting rope is led from a first end of the main girder of the crane via one rope pulley of a first rope pulley pair of the trolley down to the sheave located therebelow and therefrom via an other rope pulley of said rope pulley pair to a second end of the main girder; on both sides of the trolley, a second hoisting rope is led from the second end of the main girder of the crane via one rope pulley of a second rope pulley pair of the trolley down to the sheave located therebelow and therefrom via an other rope pulley of said rope pulley pair to the first end of the main girder; and the hoisting ropes (7, 8) in the trolley and the hoisting member being located symmetrically with respect to a transverse vertical plane passing in the middle of the trolley and the hoisting member and substantially in the same vertical planes in the direction of the main girder on different sides of the trolley at least in the vicinity of the trolley, characterized in that each rope pulley pair (3, 4) comprises, arranged on the same axle, a rope pulley (3b, 4b) having a larger diameter and a rope pulley (3a, 4a) having a smaller diameter, whereby in each rope pulley pair said larger diameters correspond to one another and said smaller diameters correspond to one another; the rope pulley of the first rope pulley pair provided with the larger diameter is, as viewed in a longitudinal direction of the main girder and the trolley, aligned with the rope pulley of the second rope pulley pair provided with the smaller diameter; and the rope pulley of the first rope pulley pair provided with the smaller diameter is, as viewed in the longitudinal direction of the main girder and the trolley, aligned with the rope pulley of the second rope pulley pair provided with the larger diameter.
A fuel delivery system for a gas turbine engine comprising: a) a fuel pump; a gearbox and b) a continuously variable drive assembly in operable communication with both the fuel pump and the gas turbine engine through the gearbox and being configured to adjust fuel pump output to align with fuel demand of the gas turbine engine, and wherein the drive assembly includes a driving pulley assembly including a fixed pulley sheave and a movable pulley sheave, a driven pulley assembly including a fixed pulley sheave and a movable pulley sheave, and a drive belt operatively connecting the driving pulley assembly to the driven pulley assembly; and further comprising a governor for controlling a drive ratio of the drive assembly to vary fuel pump flow performance over a range of engine operating conditions, and wherein the drive assembly is governed to drive the fuel pump faster than the gearbox in a start mode wherein engine fuel flow demand is relatively high and governed to drive the fuel pump slower than the gearbox in a cruise mode wherein engine fuel flow demand is relatively low. a) a fuel pump; a gearbox and b) a continuously variable drive assembly in operable communication with both the fuel pump and the gas turbine engine through the gearbox and being configured to adjust fuel pump output to align with fuel demand of the gas turbine engine, and wherein the drive assembly includes a driving pulley assembly including a fixed pulley sheave and a movable pulley sheave, a driven pulley assembly including a fixed pulley sheave and a movable pulley sheave, and a drive belt operatively connecting the driving pulley assembly to the driven pulley assembly; and
A method of performing Quantum Key Distribution, the method comprising, transmitting, in a first basis state, a first photon from a quantum transmitter to a quantum receiver; transmitting, in a second basis state, a second photon from the quantum transmitter to the quantum receiver, the second basis state being non-orthogonal to the first basis state and the transmitter and receiver being optically connected by both a first optical channel and a second optical channel, wherein the step of transmitting the first photon from the quantum transmitter to the quantum receiver in the first basis state comprises: transmitting the first photon from the quantum transmitter to the quantum receiver along either the first optical channel or the second optical channel, wherein the step of transmitting the second photon from the quantum transmitter to the quantum receiver in the second basis state comprises: transmitting a first portion of a probability distribution of the second photon from the transmitter to the receiver along the first optical channel; and transmitting a second portion of the probability distribution of the second photon from the transmitter to the receiver along the second optical channel. transmitting, in a first basis state, a first photon from a quantum transmitter to a quantum receiver; transmitting, in a second basis state, a second photon from the quantum transmitter to the quantum receiver, the second basis state being non-orthogonal to the first basis state and the transmitter and receiver being optically connected by both a first optical channel and a second optical channel, wherein the step of transmitting the first photon from the quantum transmitter to the quantum receiver in the first basis state comprises: transmitting the first photon from the quantum transmitter to the quantum receiver along either the first optical channel or the second optical channel, wherein the step of transmitting the second photon from the quantum transmitter to the quantum receiver in the second basis state comprises: transmitting a first portion of a probability distribution of the second photon from the transmitter to the receiver along the first optical channel; and transmitting a second portion of the probability distribution of the second photon from the transmitter to the receiver along the second optical channel. transmitting a first portion of a probability distribution of the second photon from the transmitter to the receiver along the first optical channel; and transmitting a second portion of the probability distribution of the second photon from the transmitter to the receiver along the second optical channel.
A header for an agricultural system, the header comprising a sensor mounting apparatus (300, 300') characterized in that the sensor mounting apparatus (300, 300') comprises: a first arched member configured to be coupled to opposite lateral ends of the header, such that the first arched member extends laterally across the header; and a second arched member configured to be coupled to opposite lateral ends of the header, such that the second arched member extends laterally across the header, wherein the first arched member and the second arched member are configured to couple to one another at respective central portions of the first arched member and second arched member, wherein the first arched member and second arched member are configured to support one or more sensors. a first arched member configured to be coupled to opposite lateral ends of the header, such that the first arched member extends laterally across the header; and a second arched member configured to be coupled to opposite lateral ends of the header, such that the second arched member extends laterally across the header, wherein the first arched member and the second arched member are configured to couple to one another at respective central portions of the first arched member and second arched member, wherein the first arched member and second arched member are configured to support one or more sensors.