mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a pump laser source that provides a pump laser; a stimulated Brillouin scattering, SBS, resonator that receives the pump laser through a first port (303-a), wherein the SBS resonator scatters a portion of the pump laser to provide an SBS laser through the first port (303-a), and wherein a frequency shift of Brillouin scattering within the SBS resonator is an integer multiple of a free-spectral range for the SBS resonator; a filter that receives the pump laser on a first filter port (305-a) and the SBS laser on a second filter port (305-b), wherein the pump laser is output through the second filter port (305-b) and the SBS laser is output through a drop port (305-c); and a pump laser path that couples the output pump laser from the SBS resonator into the pump laser source, wherein a frequency of the pump laser becomes locked to a frequency of the output pump laser at a resonance frequency of the SBS resonator, wherein the pump laser path comprises an optical path that couples a transmission port (303-b) of the SBS resonator to the pump laser source, further comprising: a pump laser filter coupled in the optical path between the SBS resonator and the pump laser source, wherein the pump laser filter is a bandpass filter configured to pass a single resonance frequency associated with the desired SBS laser frequency and attenuates the light at other resonance frequencies, and wherein the pump laser filter is arranged to ensure that the pump laser produced by the pump laser source locks to the single resonance frequency. a pump laser source that provides a pump laser; a stimulated Brillouin scattering, SBS, resonator that receives the pump laser through a first port (303-a), wherein the SBS resonator scatters a portion of the pump laser to provide an SBS laser through the first port (303-a), and wherein a frequency shift of Brillouin scattering within the SBS resonator is an integer multiple of a free-spectral range for the SBS resonator; a filter that receives the pump laser on a first filter port (305-a) and the SBS laser on a second filter port (305-b), wherein the pump laser is output through the second filter port (305-b) and the SBS laser is output through a drop port (305-c); and a pump laser path that couples the output pump laser from the SBS resonator into the pump laser source, wherein a frequency of the pump laser becomes locked to a frequency of the output pump laser at a resonance frequency of the SBS resonator, wherein the pump laser path comprises an optical path that couples a transmission port (303-b) of the SBS resonator to the pump laser source, further comprising: a pump laser filter coupled in the optical path between the SBS resonator and the pump laser source, wherein the pump laser filter is a bandpass filter configured to pass a single resonance frequency associated with the desired SBS laser frequency and attenuates the light at other resonance frequencies, and wherein the pump laser filter is arranged to ensure that the pump laser produced by the pump laser source locks to the single resonance frequency.
A pipe fitting configured to be coupled to a pipe, the pipe fitting comprising: a body that is elongate along a central axis that extends in a longitudinal direction, the body including: a shell and a shell through hole that extends through the shell in the longitudinal direction, the shell having a shell inner surface that defines the shell through hole; a stiffener positioned within the shell through hole, the stiffener including a stiffener outer surface that faces the shell inner surface such that the stiffener outer surface and the shell inner surface cooperate to define a pocket configured to receive the pipe; and a shell-stiffener seal member including a bracket, a first seal member, and a second seal member, the shell-stiffener seal member positioned in the pocket such that: 1) the first seal member is compressed and forms a seal between the bracket and the shell inner surface, 2) the second seal member is compressed and forms a seal between the bracket and the stiffener outer surface, and 3) the first seal member and the second seal member are aligned in a radial direction, which is perpendicular to the longitudinal direction, the bracket defines a first bracket recess configured to receive the first seal member, the bracket defines a second bracket recess configured to receive the second seal member, and the first bracket recess is aligned with the second bracket recess in the radial direction. a shell and a shell through hole that extends through the shell in the longitudinal direction, the shell having a shell inner surface that defines the shell through hole; a stiffener positioned within the shell through hole, the stiffener including a stiffener outer surface that faces the shell inner surface such that the stiffener outer surface and the shell inner surface cooperate to define a pocket configured to receive the pipe; and a shell-stiffener seal member including a bracket, a first seal member, and a second seal member, the shell-stiffener seal member positioned in the pocket such that: 1) the first seal member is compressed and forms a seal between the bracket and the shell inner surface, 2) the second seal member is compressed and forms a seal between the bracket and the stiffener outer surface, and 3) the first seal member and the second seal member are aligned in a radial direction, which is perpendicular to the longitudinal direction, the bracket defines a first bracket recess configured to receive the first seal member, the bracket defines a second bracket recess configured to receive the second seal member, and the first bracket recess is aligned with the second bracket recess in the radial direction.
A method for producing a fiber-reinforced plastic using a sheet substrate A, the sheet substrate A being a substrate including one or more sheets of incised prepreg a, the incised prepreg a being a prepreg including unidirectionally oriented reinforcing fibers and a resin and having a plurality of incisions dividing the reinforcing fibers formed in the prepreg, the method for producing a fiber-reinforced plastic comprising a placement step A) of placing a plurality of sheet substrates A in a mold such that each of the sheet substrates A forms an overlapping portion in which the sheet substrate A overlaps one or more other sheet substrates A and a non-overlapping portion in which the sheet substrate A does not overlap any other sheet substrates A, and a molding step of heating and pressing the plurality of sheet substrates A, and a total area of the overlapping portion and the non-overlapping portion is 50 to 100% relative to the area of a mold surface, characterized in that the ratio of the total of the area of the overlapping portion to the total of the area of the non-overlapping portion is 0.05 to 0.8. the sheet substrate A being a substrate including one or more sheets of incised prepreg a, the incised prepreg a being a prepreg including unidirectionally oriented reinforcing fibers and a resin and having a plurality of incisions dividing the reinforcing fibers formed in the prepreg, the method for producing a fiber-reinforced plastic comprising a placement step A) of placing a plurality of sheet substrates A in a mold such that each of the sheet substrates A forms an overlapping portion in which the sheet substrate A overlaps one or more other sheet substrates A and a non-overlapping portion in which the sheet substrate A does not overlap any other sheet substrates A, and a molding step of heating and pressing the plurality of sheet substrates A, and a total area of the overlapping portion and the non-overlapping portion is 50 to 100% relative to the area of a mold surface, characterized in that the ratio of the total of the area of the overlapping portion to the total of the area of the non-overlapping portion is 0.05 to 0.8.
A combined methanation and steam turbine system, the system comprising: a methanation portion, the methanation portion including: a first methanation reactor having an input configured to receive synthesis gas and an output; and a second methanation reactor having an input coupled to the output of the first methanation reactor and an output; characterised by a third methanation reactor having an input coupled to the output of the second methanation reactor and an output; and a low-pressure superheater coupled between the second reactor and the third reactor that heats low-pressure steam; the system further characterised by comprising a steam turbine portion, the steam turbine portion including: a low-pressure steam turbine having an input coupled to an output of the low-pressure superheater. a methanation portion, the methanation portion including: a first methanation reactor having an input configured to receive synthesis gas and an output; and a second methanation reactor having an input coupled to the output of the first methanation reactor and an output; characterised by a third methanation reactor having an input coupled to the output of the second methanation reactor and an output; and a low-pressure superheater coupled between the second reactor and the third reactor that heats low-pressure steam; a first methanation reactor having an input configured to receive synthesis gas and an output; and a second methanation reactor having an input coupled to the output of the first methanation reactor and an output; characterised by a third methanation reactor having an input coupled to the output of the second methanation reactor and an output; and a low-pressure superheater coupled between the second reactor and the third reactor that heats low-pressure steam; the system further characterised by comprising a steam turbine portion, the steam turbine portion including: a low-pressure steam turbine having an input coupled to an output of the low-pressure superheater. a low-pressure steam turbine having an input coupled to an output of the low-pressure superheater.
A fuel nozzle apparatus for a gas turbine engine, comprising: an annular outer body, the outer body extending parallel to a centerline axis, the outer body having a generally cylindrical exterior surface extending between forward and aft ends (82, 84), and having a plurality of openings passing through the exterior surface; an annular inner body disposed inside the outer body, cooperating with the outer body to define an annular space; an annular main injection ring disposed inside the annular space, the main injection ring including an annular array of fuel posts extending radially outward therefrom; each fuel post being aligned with one of the openings in the outer body; a main fuel gallery extending within the main injection ring in a circumferential direction; and a plurality of main fuel orifices, each main fuel orifice communicating with the main fuel gallery and extending through one of the fuel posts; each fuel post being separated from the opening by a perimeter gap which communicates with the annular space; each fuel post including a perimeter wall defining a lateral surface and a radially-outward-facing floor recessed radially inward from a distal end surface of the perimeter wall; and the perimeter gap being defined between the opening and the lateral surface; characterized in that: the perimeter wall and the radially-outward-facing floor define a spray well; and an assist port is formed through the perimeter wall near an intersection of the perimeter wall with the floor; and the fuel post extends radially outward beyond an outer surface of the annular outer body. an annular outer body, the outer body extending parallel to a centerline axis, the outer body having a generally cylindrical exterior surface extending between forward and aft ends (82, 84), and having a plurality of openings passing through the exterior surface; an annular inner body disposed inside the outer body, cooperating with the outer body to define an annular space; an annular main injection ring disposed inside the annular space, the main injection ring including an annular array of fuel posts extending radially outward therefrom; each fuel post being aligned with one of the openings in the outer body; a main fuel gallery extending within the main injection ring in a circumferential direction; and a plurality of main fuel orifices, each main fuel orifice communicating with the main fuel gallery and extending through one of the fuel posts; each fuel post being separated from the opening by a perimeter gap which communicates with the annular space; each fuel post including a perimeter wall defining a lateral surface and a radially-outward-facing floor recessed radially inward from a distal end surface of the perimeter wall; and the perimeter gap being defined between the opening and the lateral surface; the perimeter wall and the radially-outward-facing floor define a spray well; and an assist port is formed through the perimeter wall near an intersection of the perimeter wall with the floor; and the fuel post extends radially outward beyond an outer surface of the annular outer body.
Ballasting device for an agricultural vehicle (10, 12), having a ballasting body and a first ballasting arm and a second ballasting arm, wherein the first ballasting arm is mounted on the ballasting body so as to be pivotable about a first bearing axis by way of the one end and a first ballasting weight is arranged at the other end thereof, and the second ballasting arm is mounted on the ballasting body so as to be pivotable about a second bearing axis by way of the one end and a second ballasting weight is arranged at the other end thereof, wherein the ballasting device comprises a receiving device (48, 50, 52) for receiving the ballasting device by means of a three-point hitch device of the agricultural vehicle (10, 12), and the first ballasting weight is adjustable by means of the first ballasting arm and the second ballasting weight is adjustable by means of the second ballasting arm.
Polyethylene composition comprising (a) 40-55wt% of a copolymer fraction having a density of 960 - 975 kg/m 3 and comprising ethylene and a C 4 -C 10 alpha-olefin, (b) 45-60wt% of a copolymer fraction comprising ethylene and a C 4 -C 10 alpha-olefin, wherein the composition has an unpigmented density of 942 to 954 kg/m 3 and an MI 5 of 0.1 to 1 g/10 min, wherein the composition has a substantially uniform or reverse comonomer distribution in one or both of fractions and. (a) 40-55wt% of a copolymer fraction having a density of 960 - 975 kg/m 3 and comprising ethylene and a C 4 -C 10 alpha-olefin, (b) 45-60wt% of a copolymer fraction comprising ethylene and a C 4 -C 10 alpha-olefin, wherein the composition has an unpigmented density of 942 to 954 kg/m 3 and an MI 5 of 0.1 to 1 g/10 min, wherein the composition has a substantially uniform or reverse comonomer distribution in one or both of fractions and.
A recessed LED light unit, in particular for being applied to plates which constitute false walls and/or false ceilings, comprising: a support on which an LED element is fixed, which is provided with lateral wings for engagement with the internal portion of a sheet, to which the light unit is applied, a plate-like member which is capable of being fixed to the support and which has a through-opening, through which the light emitted by the LED element of the light unit is emitted outwards, the LED element being mounted in a position interposed between the support and the plate-like member, substantially in vertical alignment with the through-opening, characterized in that it comprises a plate-like element which is interposed between the support and the plate-like member and which is mounted in a manner with limited sliding on the member, in that the plate-like element is provided with a first through-hole and a second through-hole (10, 11), which are adjacent to each other, the first through-hole being capable of being engaged by a screen or lens element, and in that the plate-like element is movable between a first position, in which the first through-hole is arranged in correspondence with the through-opening, for diffusing the light emitted by the LED element, and a second position, in which the second through-hole is arranged in correspondence with the through-opening, the LED element being removable from the light unit through the second through-hole and the through-opening. a support on which an LED element is fixed, which is provided with lateral wings for engagement with the internal portion of a sheet, to which the light unit is applied, a plate-like member which is capable of being fixed to the support and which has a through-opening, through which the light emitted by the LED element of the light unit is emitted outwards, the LED element being mounted in a position interposed between the support and the plate-like member, substantially in vertical alignment with the through-opening, characterized in that it comprises a plate-like element which is interposed between the support and the plate-like member and which is mounted in a manner with limited sliding on the member, in that the plate-like element is provided with a first through-hole and a second through-hole (10, 11), which are adjacent to each other, the first through-hole being capable of being engaged by a screen or lens element, and in that the plate-like element is movable between a first position, in which the first through-hole is arranged in correspondence with the through-opening, for diffusing the light emitted by the LED element, and a second position, in which the second through-hole is arranged in correspondence with the through-opening, the LED element being removable from the light unit through the second through-hole and the through-opening.
A link failure recovery method performed by a terminal device (10, 20, 30, 40, 50, 60, 700), comprising: determining that a link failure occurs in L first cells; and sending a first request message, wherein the first request message comprises first indication information, the first indication information is used to indicate cell information of the L first cells, L>1, and L is an integer, wherein the first indication information comprises a first part of content and a second part of content, the first part of content is used to indicate cell identifiers of the L first cells, and the second part of content is used to indicate whether there is no first reference signal that satisfies a first preset condition. determining that a link failure occurs in L first cells; and sending a first request message, wherein the first request message comprises first indication information, the first indication information is used to indicate cell information of the L first cells, L>1, and L is an integer, wherein the first indication information comprises a first part of content and a second part of content, the first part of content is used to indicate cell identifiers of the L first cells, and the second part of content is used to indicate whether there is no first reference signal that satisfies a first preset condition.
Fuel injection nozzle, comprising a nozzle body provided with a nozzle tip, wherein the nozzle tip has through channels connecting a nozzle interior space of the fuel injection nozzle with the interior space of a cylinder, characterised in that the channels (4, 5) each so extend helically through the nozzle tip that they open directly into the interior space of the cylinder and inject fuel at a plurality of desired angles directly into the interior space of the cylinder, wherein the helically extending channels (4, 5) have different exit angles of the channels (4, 5) from the fuel injection nozzle, the fuel injection nozzle has helically extending channels differently spaced from its centre axis and the exit angle with increasing distance of the relevant channels (4, 5) from the centre axis of the fuel injection nozzle increases in such a way that channels lying in the vicinity of the centre axis eject the fuel substantially in the direction of the centre axis and with increasing spacing of the channels from the centre axis ejection of the fuel takes place at an angle increasingly deviating from the direction of the centre axis.
A tire stud, comprising: a column-like body having a recessed portion formed at one end face in the axial direction thereof; and a pin provided in the recessed portion such that a portion of the pin protrudes from the one end face of the body, wherein: at least one hole extending in the axial direction of the pin is formed in an upper surface of the pin; and provided that the maximum height measured from the one end face of the body to the upper surface of the pin is h (mm) and the maximum depth of the hole formed in the upper surface of the pin is d (mm), 0.1 ≤ d/h ≤ 0.5, characterized in that: provided that the maximum diameter of the upper surface of the pin is OD (mm) and the total edge length at the upper surface of the pin is L (mm), 2.0 ≤ OD ≤ 4.0 and 3.0 ≤ L/OD ≤ 9.0. at least one hole extending in the axial direction of the pin is formed in an upper surface of the pin; and provided that the maximum height measured from the one end face of the body to the upper surface of the pin is h (mm) and the maximum depth of the hole formed in the upper surface of the pin is d (mm), 0.1 ≤ d/h ≤ 0.5, characterized in that: provided that the maximum diameter of the upper surface of the pin is OD (mm) and the total edge length at the upper surface of the pin is L (mm), 2.0 ≤ OD ≤ 4.0 and 3.0 ≤ L/OD ≤ 9.0. provided that the maximum diameter of the upper surface of the pin is OD (mm) and the total edge length at the upper surface of the pin is L (mm), 2.0 ≤ OD ≤ 4.0 and 3.0 ≤ L/OD ≤ 9.0.
A method for optimizing electroporation, the method comprising the steps of: determining a first time constant t 1 representative of electrical conductivity increase of an electroporation medium during an electric field pulse; determining a second time constant t 2 representative of a capacitor discharge in the electroporation medium; determining electroporation parameters such that t 1 is not less than t 2 and the pulse duration is less than either t 1 or t 2; and applying one or more electrical field pulses under the electroporation parameters to a sample to be electroporated in the electroporation medium. determining a first time constant t 1 representative of electrical conductivity increase of an electroporation medium during an electric field pulse; determining a second time constant t 2 representative of a capacitor discharge in the electroporation medium; determining electroporation parameters such that t 1 is not less than t 2 and the pulse duration is less than either t 1 or t 2; and applying one or more electrical field pulses under the electroporation parameters to a sample to be electroporated in the electroporation medium.
An apparatus (200; 300) comprising: an advertisement jammer (202; 302) to jam advertisements (212; 312) broadcasted by, and announcing the presence and availability for connection of, a privacy protected device (210; 310); and an advertiser (204; 304) to broadcast dummy device advertisements (230; 330), the dummy device advertisements (230; 330) including a reduced-information advertisement (232; 332) for the privacy protected device (210; 310), wherein the reduced-information advertisement (232; 332) is generated from one or more advertisements (212; 312) of the privacy protected device (210; 310) from which identifying or sensitive information has been removed. an advertisement jammer (202; 302) to jam advertisements (212; 312) broadcasted by, and announcing the presence and availability for connection of, a privacy protected device (210; 310); and an advertiser (204; 304) to broadcast dummy device advertisements (230; 330), the dummy device advertisements (230; 330) including a reduced-information advertisement (232; 332) for the privacy protected device (210; 310), wherein the reduced-information advertisement (232; 332) is generated from one or more advertisements (212; 312) of the privacy protected device (210; 310) from which identifying or sensitive information has been removed.