mhurhangee/ep-ind-claims huggingface dataset:
A coating structure comprising: a chemical conversion layer that is made of a phosphate-coated film and is formed in a manner of covering a surface of a base material which is made of a magnesium alloy containing magnesium as a main component and containing at least one kind of element selected from a group consisting of gadolinium, terbium, thulium, and lutetium; and a plating layer that is made of a nickel-based alloy and is formed in a manner of covering the chemical conversion layer, wherein the phosphate-coated film is made of any one of iron phosphate, manganese phosphate and zinc phosphate, wherein the plating layer is formed of a nickel-phosphorous alloy, wherein the base material contains a atom percent of zinc, contains b atom percent of at least one kind of element, in total, selected from a group consisting of gadolinium, terbium, thulium, and lutetium, has a remaining portion made of magnesium, and has the factors a and b satisfying the following expressions to, and wherein the base material has at least one kind of precipitate selected from a precipitate group consisting of a compound of magnesium and a rare earth element, a compound of magnesium and zinc, a compound of zinc and a rare earth element, and a compound of magnesium, zinc, and a rare earth element, 0.2 ≤ a ≤ 5.0 0.5 ≤ b ≤ 5.0 0.5 ⁢ a − 0.5 ≤ b. a chemical conversion layer that is made of a phosphate-coated film and is formed in a manner of covering a surface of a base material which is made of a magnesium alloy containing magnesium as a main component and containing at least one kind of element selected from a group consisting of gadolinium, terbium, thulium, and lutetium; and a plating layer that is made of a nickel-based alloy and is formed in a manner of covering the chemical conversion layer, wherein the phosphate-coated film is made of any one of iron phosphate, manganese phosphate and zinc phosphate, wherein the plating layer is formed of a nickel-phosphorous alloy, wherein the base material contains a atom percent of zinc, contains b atom percent of at least one kind of element, in total, selected from a group consisting of gadolinium, terbium, thulium, and lutetium, has a remaining portion made of magnesium, and has the factors a and b satisfying the following expressions to, and wherein the base material has at least one kind of precipitate selected from a precipitate group consisting of a compound of magnesium and a rare earth element, a compound of magnesium and zinc, a compound of zinc and a rare earth element, and a compound of magnesium, zinc, and a rare earth element, 0.2 ≤ a ≤ 5.0 0.5 ≤ b ≤ 5.0 0.5 ⁢ a − 0.5 ≤ b.
An HVAC fluid conditioning system, comprising: a fluid inlet port configured to be connected to an HVAC fluid pipe to receive HVAC fluid from an HVAC system; a conditioning unit configured to treat the HVAC fluid with a chemical to prevent pollutant growth; a trap system located upstream of the conditioning unit and configured to trap and prevent harmful gases from the HVAC fluid conditioning system from entering the HVAC system; a fluid outlet port configured to be connected to an HVAC fluid pipe to deliver the treated HVAC fluid to the HVAC system; and a housing having multiple sections connected together, wherein a section of the housing forms the trap system and a section of the housing forms the conditioning unit. a fluid inlet port configured to be connected to an HVAC fluid pipe to receive HVAC fluid from an HVAC system; a conditioning unit configured to treat the HVAC fluid with a chemical to prevent pollutant growth; a trap system located upstream of the conditioning unit and configured to trap and prevent harmful gases from the HVAC fluid conditioning system from entering the HVAC system; a fluid outlet port configured to be connected to an HVAC fluid pipe to deliver the treated HVAC fluid to the HVAC system; and a housing having multiple sections connected together, wherein a section of the housing forms the trap system and a section of the housing forms the conditioning unit.
A method for transmitting and receiving a signal to and from a base station at a user equipment in a wireless communication system, the method comprising: receiving information about first and second subframe sets from the base station; receiving information about codebook subset restriction fields for the first and second subframe sets from the base station; and transmitting feedback information including a first precoding matrix index corresponding to the first subframe set or a second precoding matrix index corresponding to the second subframe set, wherein the first precoding matrix index is selected from a first codebook subset defined by the codebook subset restriction field for the first subframe set, and wherein the second precoding matrix index is selected from a second codebook subset defined by the codebook subset restriction field for the second subframe set. receiving information about first and second subframe sets from the base station; receiving information about codebook subset restriction fields for the first and second subframe sets from the base station; and transmitting feedback information including a first precoding matrix index corresponding to the first subframe set or a second precoding matrix index corresponding to the second subframe set, wherein the first precoding matrix index is selected from a first codebook subset defined by the codebook subset restriction field for the first subframe set, and wherein the second precoding matrix index is selected from a second codebook subset defined by the codebook subset restriction field for the second subframe set.
A solar cell, comprising: a substrate; a plurality of alternating N-type and P-type semiconductor regions (104, 106) disposed in or above the substrate; a plurality of non-conductive material regions in alignment with locations between the alternating N-type and P-type semiconductor regions (104, 106), the plurality of non-conductive material regions comprising a binder and an opacifying pigment, wherein the opacifying pigment amounts to greater than approximately 50% of the total weight composition of the plurality of non-conductive material regions; and a plurality of conductive contact structures electrically connected to the plurality of alternating N-type and P-type semiconductor regions (104, 106), each conductive contact structure comprising a metal foil portion disposed above and in alignment with a corresponding one of the alternating N-type and P-type semiconductor regions (104, 106), wherein the opacifying pigment is selected from the group consisting of barium sulfate (BaSO 4), zinc sulfide (ZnS), zirconium oxide (ZrO 2), aluminum oxide (Al 2 O 3), carbon black, and carbon nanotubes. a substrate; a plurality of alternating N-type and P-type semiconductor regions (104, 106) disposed in or above the substrate; a plurality of non-conductive material regions in alignment with locations between the alternating N-type and P-type semiconductor regions (104, 106), the plurality of non-conductive material regions comprising a binder and an opacifying pigment, wherein the opacifying pigment amounts to greater than approximately 50% of the total weight composition of the plurality of non-conductive material regions; and a plurality of conductive contact structures electrically connected to the plurality of alternating N-type and P-type semiconductor regions (104, 106), each conductive contact structure comprising a metal foil portion disposed above and in alignment with a corresponding one of the alternating N-type and P-type semiconductor regions (104, 106), wherein the opacifying pigment is selected from the group consisting of barium sulfate (BaSO 4), zinc sulfide (ZnS), zirconium oxide (ZrO 2), aluminum oxide (Al 2 O 3), carbon black, and carbon nanotubes.
A method comprising: • buffering, by a PDN Gateway, PGW, downlink data for a user equipment, UE, that is in an idle state when the downlink data arrive at the PGW; • sending, by the PGW, trigger paging indication information to a Serving Gateway, SGW, wherein the trigger paging indication information indicates that the downlink data arrive and the trigger paging indication information is at least one replicated data packet of the downlink data; • delivering, by the PGW, the buffered downlink data to an access network where the UE is located in a case that a direct routing on a user plane between the PGW and the access network is realized. • buffering, by a PDN Gateway, PGW, downlink data for a user equipment, UE, that is in an idle state when the downlink data arrive at the PGW; • sending, by the PGW, trigger paging indication information to a Serving Gateway, SGW, wherein the trigger paging indication information indicates that the downlink data arrive and the trigger paging indication information is at least one replicated data packet of the downlink data; • delivering, by the PGW, the buffered downlink data to an access network where the UE is located in a case that a direct routing on a user plane between the PGW and the access network is realized.
Method of monitoring that can be used to monitor an aircraft engine, characterised in that it comprises the following steps: - receive data from measurements collected over time by sensors integrated into an aircraft, said measurements being on variables related to a current engine and its environment, comprising a first set of measurements on endogenic variables describing the behaviour of the engine and a second set of measurements on exogenic variables describing the acquisition context, during each acquisition; - standardise measurements related to endogenic variables taking account of measurements related to exogenic variables to form an entry point corresponding to a condition of said current engine in a multi-dimensional space, for each acquisition; - use a determined compression technique to project each entry point in the multi-dimensional space onto an image point on a previously constructed map (c1-c5), to form a sequence of image points on said map reflecting the distribution of entry points in the multi-dimensional space, said image points forming a current trajectory (S1-S3) representative of a change to the conditions of said current engine; - compare a portion of the end of said current trajectory with previously recorded portions of trajectories of aircraft engines kept in a database to search for similar trajectories; and - analyse the statistical variation of said end of current trajectory as a function of said similar trajectories to anticipate maintenance operations on said current engine. - receive data from measurements collected over time by sensors integrated into an aircraft, said measurements being on variables related to a current engine and its environment, comprising a first set of measurements on endogenic variables describing the behaviour of the engine and a second set of measurements on exogenic variables describing the acquisition context, during each acquisition; - standardise measurements related to endogenic variables taking account of measurements related to exogenic variables to form an entry point corresponding to a condition of said current engine in a multi-dimensional space, for each acquisition; - use a determined compression technique to project each entry point in the multi-dimensional space onto an image point on a previously constructed map (c1-c5), to form a sequence of image points on said map reflecting the distribution of entry points in the multi-dimensional space, said image points forming a current trajectory (S1-S3) representative of a change to the conditions of said current engine; - compare a portion of the end of said current trajectory with previously recorded portions of trajectories of aircraft engines kept in a database to search for similar trajectories; and - analyse the statistical variation of said end of current trajectory as a function of said similar trajectories to anticipate maintenance operations on said current engine.
A drive shaft assembly for a surgical instrument, the drive shaft assembly comprising: a plurality of movably interlocking joint segments interconnected to form a flexible hollow tube that includes a proximal end and a distal end; and a flexible secondary constraining member in flexible constraining engagement with the plurality of movably interlocking joint segments to retain the interlocking joint segments in movable interlocking engagement while facilitating flexing of the drive shaft assembly, wherein the secondary constraining member comprises a helically wound member extending around the perimeter of the hollow tube, the helical wound member including a central portion, a proximal end portion and a distal end portion, wherein the proximal and distal end portions are wound tighter than the central portion. a plurality of movably interlocking joint segments interconnected to form a flexible hollow tube that includes a proximal end and a distal end; and a flexible secondary constraining member in flexible constraining engagement with the plurality of movably interlocking joint segments to retain the interlocking joint segments in movable interlocking engagement while facilitating flexing of the drive shaft assembly, wherein the secondary constraining member comprises a helically wound member extending around the perimeter of the hollow tube, the helical wound member including a central portion, a proximal end portion and a distal end portion, wherein the proximal and distal end portions are wound tighter than the central portion.
Refractory product comprising more than 85% zirconia (ZrO 2), characterised in that it comprises, in percentage by weight based on oxides: ZrO 2: > 92%, SiO 2: ≥ 2%, Na 2 O + K 2 O: 0.12 to 1%, Al 2 O 3: 0.2 to 2%, 0.5% ≤ Y 2 O 3 + CaO ≤ 2.6%, with the proviso that Y 2 O 3: 0.3 to 2%, or that CaO: 0.5 to 1.93%. ZrO 2: > 92%, SiO 2: ≥ 2%, Na 2 O + K 2 O: 0.12 to 1%, Al 2 O 3: 0.2 to 2%, 0.5% ≤ Y 2 O 3 + CaO ≤ 2.6%, with the proviso that Y 2 O 3: 0.3 to 2%, or that CaO: 0.5 to 1.93%.
A container for housing a fluid, the container comprising: a receptacle defining an interior for receiving the fluid, the receptacle comprising a membrane sealed to at least a portion of the receptacle; and a closure, the closure comprising: a projection for receiving a spike or other fluid connection member, the projection extending from a top portion of a base of the closure, the projection defining an interior having a substantially tube-like shape; wherein: a) the base comprises a bottom portion and a side portion; b) the top and bottom portions are substantially planar; and c) the side portion is substantially cylindrical; and wherein the container is characterised in that the projection of the closure comprises at least two rib members located on the interior. a receptacle defining an interior for receiving the fluid, the receptacle comprising a membrane sealed to at least a portion of the receptacle; and a closure, the closure comprising: a projection for receiving a spike or other fluid connection member, the projection extending from a top portion of a base of the closure, the projection defining an interior having a substantially tube-like shape; wherein: a) the base comprises a bottom portion and a side portion; b) the top and bottom portions are substantially planar; and c) the side portion is substantially cylindrical; and wherein the container is characterised in that the projection of the closure comprises at least two rib members located on the interior. a projection for receiving a spike or other fluid connection member, the projection extending from a top portion of a base of the closure, the projection defining an interior having a substantially tube-like shape; wherein: a) the base comprises a bottom portion and a side portion; b) the top and bottom portions are substantially planar; and c) the side portion is substantially cylindrical; and a) the base comprises a bottom portion and a side portion; b) the top and bottom portions are substantially planar; and c) the side portion is substantially cylindrical; and wherein the container is characterised in that the projection of the closure comprises at least two rib members located on the interior.
A rail vehicle having rail wheels (3, 4) accommodated to guide the rail vehicle along a railway track, wherein each of the wheels (3, 4) is connected to the vehicle by an intermediate axle box (7, 8) providing a bearing for the wheel (3, 4), and said axle box (7, 8) is provided with at least one accelerometer, wherein a measurement system on or external of the vehicle is present comprising a receiving portion for signals from the at least one accelerometer, characterized in that the measurement system comprises a vehicle-railway track interaction model which generates an estimation of the expected signals from the at least one accelerometer, and the receiving portion and the vehicle-railway track interaction model connect to a comparator to compare the measured signals and the expected signals from the at least one accelerometer, wherein the comparator connects to a tuning portion of the measurement system, which tuning portion is arranged to adjust parameters of the vehicle-railway track interaction model so as to provide a closer fit of the estimation of the expected signals from the at least one accelerometer with the measured signals from the at least one accelerometer.
A two-layered preform obtained by injection overmolding, comprising a tubular body with a neck a providing a mouth at a first end thereof and a closed bottom at an opposite second end, at least part of said tubular body being formed by a first layer made of a primary molding material and a second layer made of an overmolding material, said first and second layers (P1, P2) providing a barrier effect against light, characterized in that: said first layer is an inner layer providing a barrier effect against light by absorption; said second layer is an outer layer providing a barrier effect against light by reflection; both said primary molding material of the first layer and said overmolding material of the second layer comprise a synthetic polymer mixed with one or more coloring agents; said synthetic polymer and at least one of said coloring agents are common to both the primary molding material of the first layer and the overmolding material of the second layer; another of said coloring agents is only present in the primary molding material of the first layer; and said neck is formed with said overmolding material of the second layer not coated by the primary molding material of the first layer. said first layer is an inner layer providing a barrier effect against light by absorption; said second layer is an outer layer providing a barrier effect against light by reflection; both said primary molding material of the first layer and said overmolding material of the second layer comprise a synthetic polymer mixed with one or more coloring agents; said synthetic polymer and at least one of said coloring agents are common to both the primary molding material of the first layer and the overmolding material of the second layer; another of said coloring agents is only present in the primary molding material of the first layer; and said neck is formed with said overmolding material of the second layer not coated by the primary molding material of the first layer.
A method for forming a coating on a work piece in a vacuum chamber of a charged particle beam system having an ion source for producing an ion beam (218, 310) and a work piece support, the method comprising: • processing the work piece to mill a cross-section, extract a sample, expose a buried layer, or thinning the work piece or shaping a work piece, or form an image of the work piece using the ion beam, the method further comprising: • inserting a work piece into the vacuum chamber of the charged particle beam system and onto the work piece support; • providing in the vacuum chamber a sputter material source (240,312); characterized in that • the sputter material source (240, 312) is the nozzle of a gas injection system, volumes of material attached to a GIS, the probe of a micromanipulator for manipulating small items within the vacuum chamber, or a material attached to said probe, • after inserting the work piece into the vacuum chamber and prior to processing the work piece the sputter material source (240,312) is moved into the path of the ion beam; • the ion beam is directed toward the sputter material source (240, 312) to sputter material from the sputter material source onto an area of the work piece to form a layer on the area of work piece, thereby avoiding damage to the work piece; and • the sputter material source is removed from the path of the ion beam. • processing the work piece to mill a cross-section, extract a sample, expose a buried layer, or thinning the work piece or shaping a work piece, or form an image of the work piece using the ion beam, • inserting a work piece into the vacuum chamber of the charged particle beam system and onto the work piece support; • providing in the vacuum chamber a sputter material source (240,312); • the sputter material source (240, 312) is the nozzle of a gas injection system, volumes of material attached to a GIS, the probe of a micromanipulator for manipulating small items within the vacuum chamber, or a material attached to said probe, • after inserting the work piece into the vacuum chamber and prior to processing the work piece the sputter material source (240,312) is moved into the path of the ion beam; • the ion beam is directed toward the sputter material source (240, 312) to sputter material from the sputter material source onto an area of the work piece to form a layer on the area of work piece, thereby avoiding damage to the work piece; and • the sputter material source is removed from the path of the ion beam.