mhurhangee/ep-ind-claims huggingface dataset:
An aircraft cabin arrangement, comprising: a first passenger seating class; and a second passenger seating class separated from the first passenger seating class and equipped with at least one amenity (156, 174) dedicated to a need of a pet; and a privacy partition separating the first and second passenger seating classes, the privacy partition providing at least one of a visual, an acoustic, and an odor barrier between the first and second passenger seating classes; characterized in that the aircraft cabin arrangement further comprises a passenger seat positioned in the second passenger seating class comprising a seat bottom configured to pivot forward to expose underlying seat beams, and wherein the at least one amenity is a collapsible pet carrier comprising bottom features configured to engage the exposed seat beams such that when the collapsible pet carrier is installed on the exposed seat beams the collapsible pet carrier is maintained between an underside of the seat bottom and a forward face of a seatback of the passenger seat. a first passenger seating class; and a second passenger seating class separated from the first passenger seating class and equipped with at least one amenity (156, 174) dedicated to a need of a pet; and a privacy partition separating the first and second passenger seating classes, the privacy partition providing at least one of a visual, an acoustic, and an odor barrier between the first and second passenger seating classes; characterized in that the aircraft cabin arrangement further comprises a passenger seat positioned in the second passenger seating class comprising a seat bottom configured to pivot forward to expose underlying seat beams, and wherein the at least one amenity is a collapsible pet carrier comprising bottom features configured to engage the exposed seat beams such that when the collapsible pet carrier is installed on the exposed seat beams the collapsible pet carrier is maintained between an underside of the seat bottom and a forward face of a seatback of the passenger seat.
A method carried out by a base station for configuring and allocating radio resource to terminals for device to device, D2D, communication or discovery, comprising: transmitting configurations to each of the terminals, each of the configurations being a configuration of a corresponding one of multiple resource pools, one of the configurations being used by the terminal during device to device communication, the configurations differing from each other, the configurations being transmitted by respective different methods, the configuration of each of the multiple resource pools including parameters corresponding to the each of the multiple resource pools, wherein a first configuration is transmitted using System Information Block, SIB and a second configuration is transmitted using Radio Resource Control, RRC, Signaling, characterized in transmitting an instruction to the terminals indicating a priority for selecting one of the first configuration and the second configuration. transmitting configurations to each of the terminals, each of the configurations being a configuration of a corresponding one of multiple resource pools, one of the configurations being used by the terminal during device to device communication, the configurations differing from each other, the configurations being transmitted by respective different methods, the configuration of each of the multiple resource pools including parameters corresponding to the each of the multiple resource pools, wherein a first configuration is transmitted using System Information Block, SIB and a second configuration is transmitted using Radio Resource Control, RRC, Signaling, characterized in transmitting an instruction to the terminals indicating a priority for selecting one of the first configuration and the second configuration.
A Bluetooth communication method, applied to a Bluetooth communications system, wherein the Bluetooth communications system comprises a true wireless stereo, TWS, Bluetooth headset and a terminal device, the TWS Bluetooth headset comprises a first earbud and a second earbud, the terminal device and the first earbud communicate through a first Bluetooth link, the terminal device and the second earbud communicate through a second Bluetooth link, and the first earbud and the second earbud communicate through a third Bluetooth link, wherein the method comprises: controlling, by the terminal device, the TWS Bluetooth headset to be in a first mode, wherein in the first mode, the first earbud is used to collect a sound signal, and the second earbud is used to play a sound signal; when an audio playback application on the terminal device is started, collecting, by the first earbud, a first sound signal, performing sound effect processing on the first sound signal to obtain a second sound signal, and sending the second sound signal to the second earbud; sending, by the terminal device, accompaniment audio to the second earbud; performing, by the second earbud, audio mixing processing on the accompaniment audio and the second sound signal to obtain a third sound signal; and playing, by the second earbud, the third sound signal. controlling, by the terminal device, the TWS Bluetooth headset to be in a first mode, wherein in the first mode, the first earbud is used to collect a sound signal, and the second earbud is used to play a sound signal; when an audio playback application on the terminal device is started, collecting, by the first earbud, a first sound signal, performing sound effect processing on the first sound signal to obtain a second sound signal, and sending the second sound signal to the second earbud; sending, by the terminal device, accompaniment audio to the second earbud; performing, by the second earbud, audio mixing processing on the accompaniment audio and the second sound signal to obtain a third sound signal; and playing, by the second earbud, the third sound signal.
A method comprising: grinding a wax into wax particles having a size in a range from 600 microns to 800 microns; forming a mixture of the wax particles with water and a surfactant; and homogenizing the mixture to form a wax dispersion; wherein the homogenizing step is maintained below 35 °C. grinding a wax into wax particles having a size in a range from 600 microns to 800 microns; forming a mixture of the wax particles with water and a surfactant; and homogenizing the mixture to form a wax dispersion; wherein the homogenizing step is maintained below 35 °C.
A laterally-sliding board, comprising: a board, wherein the board includes an upper surface, a lower surface, and a longitudinal axis; a center wheel coupled to the lower surface of the board along the longitudinal axis, wherein the center wheel casters; a first suspension arm having a first wheel and a second suspension arm having a second wheel, wherein each suspension arm is hingedly coupled to the lower surface of the board proximal to the center wheel; a spring interposed between the board and each suspension arm producing a force biasing rotation of each suspension arm away from the lower surface of the board, and wherein the first wheel, second wheel and the center wheel operate independently and wherein rotation of the first suspension arm is independent of rotation of the second suspension arm, and further wherein the first wheel, second wheel, the center wheel and each suspension arm are configured to cause each of a ground contact surface of the first wheel, second wheel, and center wheel to be coplanar with the board and to concurrently contact a ground surface responsive to the lower surface of the board being parallel to the ground surface; and a first device and a second device, respectively associated with the first suspension arm and the second suspension arm, and wherein each the first device and the second device independently limit travel of the first suspension arm and the second suspension arm away from the lower surface of the board. a board, wherein the board includes an upper surface, a lower surface, and a longitudinal axis; a center wheel coupled to the lower surface of the board along the longitudinal axis, wherein the center wheel casters; a first suspension arm having a first wheel and a second suspension arm having a second wheel, wherein each suspension arm is hingedly coupled to the lower surface of the board proximal to the center wheel; a spring interposed between the board and each suspension arm producing a force biasing rotation of each suspension arm away from the lower surface of the board, and wherein the first wheel, second wheel and the center wheel operate independently and wherein rotation of the first suspension arm is independent of rotation of the second suspension arm, and further wherein the first wheel, second wheel, the center wheel and each suspension arm are configured to cause each of a ground contact surface of the first wheel, second wheel, and center wheel to be coplanar with the board and to concurrently contact a ground surface responsive to the lower surface of the board being parallel to the ground surface; and a first device and a second device, respectively associated with the first suspension arm and the second suspension arm, and wherein each the first device and the second device independently limit travel of the first suspension arm and the second suspension arm away from the lower surface of the board.
A state identification device, comprising: a feature amount extraction unit that extracts a feature amount from physical data of a machine tool unit which shifts to a plurality of operation states; a feature amount storage unit in which a region is provided as a storage destination of the extracted feature amount for each of the plurality of operation states to which the machine tool unit shifts; a similarity calculation unit that calculates a similarity between the extracted feature amount and a feature amount stored in the feature amount storage unit; a state determination unit that determines an operation state of the machine tool unit based on the calculated similarity; and a storage destination determination unit that determines the region serving as the storage destination of the extracted feature amount based on a determination result of the state determination unit; characterized in that: the machine tool unit shifts to at least one of three states, which include a stop state, an idle state, and a work state, as the operation state, and the feature amount storage unit is provided with the region corresponding to each of the stop state, the idle state, and the work state. a feature amount extraction unit that extracts a feature amount from physical data of a machine tool unit which shifts to a plurality of operation states; a feature amount storage unit in which a region is provided as a storage destination of the extracted feature amount for each of the plurality of operation states to which the machine tool unit shifts; a similarity calculation unit that calculates a similarity between the extracted feature amount and a feature amount stored in the feature amount storage unit; a state determination unit that determines an operation state of the machine tool unit based on the calculated similarity; and a storage destination determination unit that determines the region serving as the storage destination of the extracted feature amount based on a determination result of the state determination unit; characterized in that: the machine tool unit shifts to at least one of three states, which include a stop state, an idle state, and a work state, as the operation state, and the feature amount storage unit is provided with the region corresponding to each of the stop state, the idle state, and the work state. the machine tool unit shifts to at least one of three states, which include a stop state, an idle state, and a work state, as the operation state, and the feature amount storage unit is provided with the region corresponding to each of the stop state, the idle state, and the work state.
A fluid ejection head, comprising: a fluid supply body having a nosepiece with at least one fluid supply port formed therein; a pedestal extending outwards from an exterior surface of the nosepiece proximate the at least one fluid supply port, the pedestal having a perimeter edge and a semiconductor chip mounting surface formed within the perimeter edge; a flexible circuit bonding surface extending outwards from the exterior surface adjacent the perimeter edge of the pedestal; and a damage reducing structure located between the perimeter edge and the flexible circuit bonding surface for providing a space between the perimeter edge of the pedestal and the flexible circuit bonding surface; characterized in that the flexible circuit bonding surface comprises a plurality of ribs for mounting a flexible circuit, wherein the ribs have a top surface that is planar to allow for the flexible circuit to be mounted thereon. a fluid supply body having a nosepiece with at least one fluid supply port formed therein; a pedestal extending outwards from an exterior surface of the nosepiece proximate the at least one fluid supply port, the pedestal having a perimeter edge and a semiconductor chip mounting surface formed within the perimeter edge; a flexible circuit bonding surface extending outwards from the exterior surface adjacent the perimeter edge of the pedestal; and a damage reducing structure located between the perimeter edge and the flexible circuit bonding surface for providing a space between the perimeter edge of the pedestal and the flexible circuit bonding surface; characterized in that the flexible circuit bonding surface comprises a plurality of ribs for mounting a flexible circuit, wherein the ribs have a top surface that is planar to allow for the flexible circuit to be mounted thereon.
A method comprising: receiving, by a processor, laser data collected for a roadway as a vehicle is driven along the roadway, wherein the laser data include a plurality of laser data points, each data point of the plurality of laser data points having a location and an intensity value; determining, by a processor, an average intensity by averaging together the intensity values of the plurality of laser data points that have locations within the roadway; when the average intensity is at least a threshold value greater than the expected average intensity of the roadway under dry weather conditions, identifying, by a processor, an indication that the roadway is at least partially snow covered; estimating, by a processor, driving conditions of the roadway based on the indication that the roadway is at least partially snow covered; and using the estimate, by the processor, to make a driving decision for the vehicle. receiving, by a processor, laser data collected for a roadway as a vehicle is driven along the roadway, wherein the laser data include a plurality of laser data points, each data point of the plurality of laser data points having a location and an intensity value; determining, by a processor, an average intensity by averaging together the intensity values of the plurality of laser data points that have locations within the roadway; when the average intensity is at least a threshold value greater than the expected average intensity of the roadway under dry weather conditions, identifying, by a processor, an indication that the roadway is at least partially snow covered; estimating, by a processor, driving conditions of the roadway based on the indication that the roadway is at least partially snow covered; and using the estimate, by the processor, to make a driving decision for the vehicle.
A process for hardening the groove sides of the ring groove of a steel piston mounted on bearings so that it can be rotated about its piston axis, this hardening being done by means of a laser beam that is directed onto a groove side and the steel piston being set into rotation about its piston axis, characterized by the following process steps: - guiding an oxygen-containing process gas onto the groove side of the steel piston; - setting the steel piston into rotation; - using the laser beam to irradiate the groove side surrounded by the process gas until an iron oxide layer has formed on the groove side; - turning off the supply of the process gas; - trackwise heating and hardening the groove side with the laser beam impinging on the groove side at an angle α < 90°. - guiding an oxygen-containing process gas onto the groove side of the steel piston; - setting the steel piston into rotation; - using the laser beam to irradiate the groove side surrounded by the process gas until an iron oxide layer has formed on the groove side; - turning off the supply of the process gas; - trackwise heating and hardening the groove side with the laser beam impinging on the groove side at an angle α < 90°.
A compound of formula I: or a salt or solvate thereof, wherein: the dotted double bond indicates the presence of a single or double bond between C2 and C3; R 2 is selected from -H, -OH, =O, =CH 2, -CN, -R, OR, halo, dihalo, =CHR, =CHRR', -O-SO 2 -R, CO 2 R and COR; R 7 is selected from H, R, OH, OR, SH, SR, NH 2, NHR, NRR', nitro, Me 3 Sn and halo; where R and R' are independently selected from optionally substituted C 1-7 alkyl, C 3-20 heterocyclyl and C 5-20 aryl groups; R 10 and R 11 either together form a double bond, or are selected from H and QR Q respectively, where Q is selected from O, S and NH and R Q is H or C 1-7 alkyl or H and SO x M, where x is 2 or 3, and M is a monovalent pharmaceutically acceptable cation; A is either: or where X and Y are selected from: CH and NMe; COH and NMe; CH and S; N and NMe; N and S; B is either a single bond or: Where X and Y are as defined above; and R 1 is C 1-4 alkyl. the dotted double bond indicates the presence of a single or double bond between C2 and C3; R 2 is selected from -H, -OH, =O, =CH 2, -CN, -R, OR, halo, dihalo, =CHR, =CHRR', -O-SO 2 -R, CO 2 R and COR; R 7 is selected from H, R, OH, OR, SH, SR, NH 2, NHR, NRR', nitro, Me 3 Sn and halo; where R and R' are independently selected from optionally substituted C 1-7 alkyl, C 3-20 heterocyclyl and C 5-20 aryl groups; R 10 and R 11 either together form a double bond, or are selected from H and QR Q respectively, where Q is selected from O, S and NH and R Q is H or C 1-7 alkyl or H and SO x M, where x is 2 or 3, and M is a monovalent pharmaceutically acceptable cation; A is either: or where X and Y are selected from: CH and NMe; COH and NMe; CH and S; N and NMe; N and S; B is either a single bond or: Where X and Y are as defined above; and R 1 is C 1-4 alkyl. where X and Y are selected from: CH and NMe; COH and NMe; CH and S; N and NMe; N and S; B is either a single bond or: Where X and Y are as defined above; and R 1 is C 1-4 alkyl. Where X and Y are as defined above; and R 1 is C 1-4 alkyl.
A surgical instrument comprising: an ultrasonic blade (1000; 1000'; 1010; 1012; 1142) configured to operate at a resonant frequency, the ultrasonic blade (1000; 1000'; 1010; 1012; 1142) comprising: a proximally positioned straight section extending along a longitudinal axis; and a distally positioned curved section coupled to the straight section and curved away from the longitudinal axis, wherein the curved section defines a radius of curvature, wherein the curved section subtends a first angle, the instrument having a point of tangency between the curved section and the straight section and characterized in that the radius of curvature of the curved section is described by: radius of curvature = ncπ 4 θƒ 0 π − θ 2 0.5; wherein: ƒ 0 is the resonant frequency of the ultrasonic blade (1000; 1000'; 1010; 1012; 1142) according to a first mode; θ is the first angle; n is a number of quarter wavelengths in the curved section at the first mode; and c is a phase velocity of ultrasonic vibrations in the ultrasonic blade (1000; 1000'; 1010; 1012; 1142) at the resonant frequency. a proximally positioned straight section extending along a longitudinal axis; and a distally positioned curved section coupled to the straight section and curved away from the longitudinal axis, wherein the curved section defines a radius of curvature, wherein the curved section subtends a first angle, the instrument having a point of tangency between the curved section and the straight section and characterized in that the radius of curvature of the curved section is described by: radius of curvature = ncπ 4 θƒ 0 π − θ 2 0.5; wherein: ƒ 0 is the resonant frequency of the ultrasonic blade (1000; 1000'; 1010; 1012; 1142) according to a first mode; θ is the first angle; n is a number of quarter wavelengths in the curved section at the first mode; and c is a phase velocity of ultrasonic vibrations in the ultrasonic blade (1000; 1000'; 1010; 1012; 1142) at the resonant frequency. ƒ 0 is the resonant frequency of the ultrasonic blade (1000; 1000'; 1010; 1012; 1142) according to a first mode; θ is the first angle; n is a number of quarter wavelengths in the curved section at the first mode; and c is a phase velocity of ultrasonic vibrations in the ultrasonic blade (1000; 1000'; 1010; 1012; 1142) at the resonant frequency.
An actuator (1300, 1302), comprising a fluid-tight housing configured to allow application of a fluid pressure of a prescribed fluid from outside to inside; a movable element contained in said fluid-tight housing and slidable in accordance with said fluid pressure in said fluid-tight housing; a driving member for transmitting a driving force of said movable element to the outside of said fluid-tight housing; and a first magnetic member provided outside of said fluid-tight housing along a moving path of said movable element; wherein said movable element has a second magnetic member and is moved relative to said first magnetic member by excitation of said first or second magnetic member; said fluid-tight housing is a cylinder capable of keeping fluid-tight state; said driving member is an output shaft transmitting rotational motion of said movable element to the outside of said cylinder; said movable element is a rotor (209, 213) rotating integrally with said output shaft in said cylinder; a diaphragm extending from said output shaft to an inner circumference of said cylinder is provided in said cylinder; said cylinder has a first chamber defined as a space between a first inner surface of said fluid-tight housing and one side surface of said rotor (209, 213), and a second chamber defined as a space between a second inner surface of said cylinder and the other side surface of said rotor (209, 213); said first and second inner surfaces are one surface and the other surface of said diaphragm; and said actuator (1300, 1302) further comprising: fluid pressure supplying means for supplying said fluid pressure to each of said first and second chambers (106a, 106b); wherein said fluid pressure supplying means being configured to control supply of said fluid pressure such that said movable element is driven in the same direction as a direction of relative movement of said movable element caused by excitation of said first or second magnetic member. fluid pressure supplying means for supplying said fluid pressure to each of said first and second chambers (106a, 106b); wherein said fluid pressure supplying means being configured to control supply of said fluid pressure such that said movable element is driven in the same direction as a direction of relative movement of said movable element caused by excitation of said first or second magnetic member.
A woven slit film-based fabric suitable for use in manufacturing vehicle airbags, said fabric being woven from a plurality of machine direction-drawn thermoplastic polymer warp tapes having a width of from 3 to 15 mm and a plurality of machine direction-drawn thermoplastic polymer weft tapes having a width of from 3 to 15 mm; said machine direction-drawn warp and weft tapes being prepared from a thermoplastic polymer film and having a tensile strength of at least 200 MPa; and said fabric having a basis weight of from 40 grams/m 2 to 140 grams/m 2; wherein the thermoplastic polymeric film from which said warp and weft tapes are prepared comprises a polyamide film.