mhurhangee/patent-ind-claim-en huggingface dataset:
A component for a gas turbine engine, comprising: a first wall ; a second wall ; at least one row of pedestals extending between said first wall and said second wall , said at least one row of pedestals having a first set of C-shaped pedestals ; wherein said at least one row of pedestals includes a second set of C-shaped pedestals adjacent to said first set of C-shaped pedestals ; and wherein said second set of C-shaped pedestals are axially offset and radially staggered relative to said first set of C-shaped pedestals , and wherein each of said C-shaped pedestals include a convex portion and a concave portion that extend between ends, and wherein said first set of C-shaped pedestals and said second set of C-shaped pedestals are disposed axially between a first cavity wall and a second cavity wall, and wherein the first and second sets of C-shaped pedestals each include a plurality of radially spaced C-shaped pedestals; the concave portions of the first set of C-shaped pedestals facing in a first axial direction, and the concave portions of the second set of C-shaped pedestals facing in a second axial direction opposite the first axial direction, characterised in that the concave portions of the first and second sets of C-shaped pedestals face in a direction that is towards one another. a first wall ; a second wall ; at least one row of pedestals extending between said first wall and said second wall , said at least one row of pedestals having a first set of C-shaped pedestals ; wherein said at least one row of pedestals includes a second set of C-shaped pedestals adjacent to said first set of C-shaped pedestals ; and wherein said second set of C-shaped pedestals are axially offset and radially staggered relative to said first set of C-shaped pedestals , and wherein each of said C-shaped pedestals include a convex portion and a concave portion that extend between ends, and wherein said first set of C-shaped pedestals and said second set of C-shaped pedestals are disposed axially between a first cavity wall and a second cavity wall, and wherein the first and second sets of C-shaped pedestals each include a plurality of radially spaced C-shaped pedestals; the concave portions of the first set of C-shaped pedestals facing in a first axial direction, and the concave portions of the second set of C-shaped pedestals facing in a second axial direction opposite the first axial direction, characterised in that the concave portions of the first and second sets of C-shaped pedestals face in a direction that is towards one another.
Parking lock assembly for a vehicle transmission , with - a housing ; - a parking lock wheel which is connectable to a shaft of the vehicle transmission , - a parking lock pawl which is pivotable between a parking lock position and a release position about a pawl axis mounted on the housing, wherein, in the parking lock position, the parking lock pawl is in engagement with the parking lock wheel and prevents the rotation thereof, - an actuating mechanism for the parking lock pawl , and - an actuator arrangement for the actuating mechanism , wherein the actuator arrangement has a control member which is movable between a home position (R) and a parking position (P) and is coupled to the actuating mechanism , wherein the actuator arrangement has an actuating member which is coupled to the control member via a releasable coupling device and is positively coupled to the actuating mechanism , wherein the actuating member is furthermore mechanically preloaded in order, via the actuating mechanism , to press the parking lock pawl into the parking lock position, and wherein the coupling device is designed in such a manner that it is releasable by means of an electric or a hydraulic release signal , wherein the coupling device has a coupling pin which, in a coupling position, passes axially through openings in the control member and in the actuating member , characterized in that the coupling pin is mounted on the actuating member in an axially displaceable manner. - a housing ; - a parking lock wheel which is connectable to a shaft of the vehicle transmission , - a parking lock pawl which is pivotable between a parking lock position and a release position about a pawl axis mounted on the housing, wherein, in the parking lock position, the parking lock pawl is in engagement with the parking lock wheel and prevents the rotation thereof, - an actuating mechanism for the parking lock pawl , and - an actuator arrangement for the actuating mechanism , wherein the actuator arrangement has a control member which is movable between a home position (R) and a parking position (P) and is coupled to the actuating mechanism ,
A welding apparatus comprising a welding tool and a weld cooling apparatus for the forced cooling of a heated weld zone in a workpiece being welded by the welding tool , the welding tool having a welding nozzle with a longitudinal axis, and the weld cooling apparatus comprising: a source of CO 2 as the coolant; at least one coolant delivery conduit arranged to move with the welding tool characterised in that the coolant delivery conduit comprises a first tube portion having a longitudinal axis and extending alongside the welding tool and a second tube portion having a longitudinal axis and extending, in use, downwardly and away from the welding tool ; and at least one coolant nozzle at a distal end of the second tube portion having a longitudinal axis and an outlet for ejecting cryogenic coolant at the heated weld zone; wherein the second tube portion is arranged such that the coolant nozzle outlet is spaced, in use, from the workpiece so as to direct a jet of coolant behind the welding tool onto the weld zone, and at least 10 mm from the longitudinal axis of the first tube portion . a source of CO 2 as the coolant; at least one coolant delivery conduit arranged to move with the welding tool characterised in that the coolant delivery conduit comprises a first tube portion having a longitudinal axis and extending alongside the welding tool and a second tube portion having a longitudinal axis and extending, in use, downwardly and away from the welding tool ; and at least one coolant nozzle at a distal end of the second tube portion having a longitudinal axis and an outlet for ejecting cryogenic coolant at the heated weld zone; wherein the second tube portion is arranged such that the coolant nozzle outlet is spaced, in use, from the workpiece so as to direct a jet of coolant behind the welding tool onto the weld zone, and at least 10 mm from the longitudinal axis of the first tube portion .
An actuator having a housing and having an electric motor , the electric motor being arranged in the housing and being braced with respect to the housing by means of a spring element , the motor having at least one axial continuation which engages into the spring element , the spring element being supported in the radial and in the axial direction with respect to the inner walls of the housing , wherein the spring element is an annular element having a plurality of spring arms projecting radially inwardly from an encircling collar , a number of first spring arms providing support with respect to the motor in the radial direction and a number of second spring arms providing support with respect to the motor in the axial direction, characterized in that the second spring arms are deflected upwardly in the axial direction from a common plane toward the motor , the first spring arms being arranged in the common plane .
A method for screening a nucleic acid aptamer comprising: (a) contacting a target molecule immobilized on a solid phase support with a nucleic acid aptamer candidate; (b) collecting the nucleic acid aptamer candidate binding with the target molecule by a capillary electrophoresis; (c) amplifying the nucleic acid aptamer candidate by PCR wherein the solid phase support is a particle. (a) contacting a target molecule immobilized on a solid phase support with a nucleic acid aptamer candidate; (b) collecting the nucleic acid aptamer candidate binding with the target molecule by a capillary electrophoresis; (c) amplifying the nucleic acid aptamer candidate by PCR
An electronic control device including a resin molded body , a metal body, and an electronic component , wherein the resin molded body and a main surface of the metal body are bonded, and at least a part of a side surface continuous to the main surface of the metal body is in contact with a side contact portion provided in the resin molded body , wherein the resin molded body is provided with a protruding portion that sandwiches the side contact portion with the side surface of the metal body, and the orientation of the side contact portion is different from the orientation of the protruding portion .
Steering shaft for a motor vehicle, comprising a hollow shaft and an inner shaft which is arranged coaxially in the hollow shaft , can be telescoped relative to the hollow shaft in the direction of the longitudinal axis (L) of the steering shaft , and is connected in a torque-transmitting manner to the hollow shaft via at least one ball , a ball cage being arranged coaxially between the inner shaft and the hollow shaft , which ball cage has at least one radial receiving opening , in which a ball is received such that it can be rotated freely, and which radial receiving opening has a circumferential opening edge, at least one retaining tongue which extends over a circumferential part region of the receiving opening projecting from the opening edge, the retaining tongue being of resilient configuration, and two or more retaining tongues being arranged distributed over the circumference of the receiving opening , at least two retaining tongues (6a-6b, 6c-6d, 6e-6f) being arranged so as to lie opposite one another in pairs with regard to the receiving opening , characterized in that a plurality of pairs of retaining tongues (6a-6b, 6c-6d, 6e-6f) which in each case lie opposite one another are realized.
A device for three-dimensional printing by metal deposition comprising an enclosure under an inert atmosphere in operation and a conduit for guiding a metal wire opening into the enclosure under an inert atmosphere, characterized in that the device comprises means for injecting an inert gas into the guide conduit said injection means comprising an inert gas supply conduit , a downstream end of which opens into the conduit and an upstream end of which is connected in operation to inert gas supply means , the guide conduit is substantially straight, the downstream end of the inert gas supply conduit extending in a direction forming an angle strictly less than 90° with a direction of elongation (X) of the guide conduit at the outlet of the inert gas supply conduit into the guide conduit , the angle being comprised between a first rectilinear portion of the guide conduit and a second rectilinear portion of the inert gas supply conduit, the first rectilinear portion extending from the distal end of the guide conduit to the outlet of the inert gas supply conduit into the guide conduit and the second rectilinear portion joining the outlet of the gas supply conduit into the guide conduit.
A sound signal processing apparatus for enhancing a sound signal from a target source, the sound signal processing apparatus comprising: a plurality of microphones (101a-f), wherein each microphone (101a-f) is configured to receive the sound signal from the target source; an estimator configured, in use, to estimate a first power measure on the basis of the sound signal from the target source received by a first microphone (101a-f) of the plurality of microphones (101a-f) and a second power measure on the basis of the sound signal from the target source received by at least a second microphone (101a-f) of the plurality of microphones (101a-f), which, in use, is located more distant from the target source than the first microphone (101a-f), wherein the estimator is further configured to determine a gain factor on the basis of a ratio between the second power measure and the first power measure; and an amplifier configured to apply the gain factor to the sound signal from the target source received by the first microphone (101a-f); characterized in that the estimator is configured to estimate the first power measure on the basis of a plurality of band-limited power measures in a plurality of frequency bands of the sound signal from the target source received by the first microphone (101a-f) and a plurality of probabilities defining the likelihood of the target source being active in the plurality of frequency bands. a plurality of microphones (101a-f), wherein each microphone (101a-f) is configured to receive the sound signal from the target source; an estimator configured, in use, to estimate a first power measure on the basis of the sound signal from the target source received by a first microphone (101a-f) of the plurality of microphones (101a-f) and a second power measure on the basis of the sound signal from the target source received by at least a second microphone (101a-f) of the plurality of microphones (101a-f), which, in use, is located more distant from the target source than the first microphone (101a-f), wherein the estimator is further configured to determine a gain factor on the basis of a ratio between the second power measure and the first power measure; and an amplifier configured to apply the gain factor to the sound signal from the target source received by the first microphone (101a-f); characterized in that the estimator is configured to estimate the first power measure on the basis of a plurality of band-limited power measures in a plurality of frequency bands of the sound signal from the target source received by the first microphone (101a-f) and a plurality of probabilities defining the likelihood of the target source being active in the plurality of frequency bands.
A butene-1 polymer composition having a MFR value of from 100 to 300 g/10 min., preferably from 110 to 300 g/10 min., more preferably from 150 to 250 g/10 min., measured according to ISO 1133 at 190°C with a load of 2.16 kg, and comprising: A) a butene-1 homopolymer or a copolymer of butene-1 with one or more comonomers selected from ethylene and higher alpha-olefins, having a copolymerized comonomer content (C A ) of up to 5% by mole, preferably up to 4% by mole; B) a copolymer of butene-1 with one or more comonomers selected from ethylene and higher alpha-olefins, having a copolymerized comonomer content (C B ) of from 6% to 20% by mole, preferably from 8% to 18% by mole; said composition having a total copolymerized comonomer content from 4% to 15% by mole, preferably from 5% to 15% by mole, referred to the sum of A) and B), and a content of fraction soluble in xylene at 0°C of 75% by weight or less, preferably of 70% by weight or less, determined on the total weight of A) and B). A) a butene-1 homopolymer or a copolymer of butene-1 with one or more comonomers selected from ethylene and higher alpha-olefins, having a copolymerized comonomer content (C A ) of up to 5% by mole, preferably up to 4% by mole; B) a copolymer of butene-1 with one or more comonomers selected from ethylene and higher alpha-olefins, having a copolymerized comonomer content (C B ) of from 6% to 20% by mole, preferably from 8% to 18% by mole;
A method for preparing a positive electrode active material, the method comprising steps of: adding a reaction mixture containing a lithium-raw material and a nickel-manganese-cobalt precursor into a first crucible and performing a first heat treatment at a temperature of 500-800°C to form a pre-calcinated mixture; extracting the pre-calcinated mixture from the first crucible and pulverizing or classifying the pre-calcinated mixture; and adding the pulverized or classified pre-calcinated mixture into a second crucible and performing a second heat treatment at a temperature of 700-1000°C under an atmosphere in which an oxygen partial pressure is 20% or less to form a lithium nickel-manganese-cobalt-based positive electrode active material, wherein a volume of the pre-calcinated mixture formed after the first heat treatment is 20-50% with respect to a volume of the reaction mixture added into the first crucible; and wherein the lithium nickel-manganese-cobalt-based positive electrode active material is represented by Formula 1 below: [Formula 1] Li 1+x [Ni a Mn b Co c M 1 1-a-b-c ] 1-x O 2 in Formula 1, -0.2≤x≤0.2, 0.6≤a≤0.98, 0.01<b<0.39, and 0.01≤c≤0.39, and M 1 is at least one selected from the group consisting of W, Cu, Fe, V, Cr, Ti, Zr, Zn, Al, In, Ta, Y, In, La, Sr, Ga, Sc, Gd, Sm, Ca, Ce, Nb, Mg, B, and Mo. adding a reaction mixture containing a lithium-raw material and a nickel-manganese-cobalt precursor into a first crucible and performing a first heat treatment at a temperature of 500-800°C to form a pre-calcinated mixture; extracting the pre-calcinated mixture from the first crucible and pulverizing or classifying the pre-calcinated mixture; and adding the pulverized or classified pre-calcinated mixture into a second crucible and performing a second heat treatment at a temperature of 700-1000°C under an atmosphere in which an oxygen partial pressure is 20% or less to form a lithium nickel-manganese-cobalt-based positive electrode active material, wherein a volume of the pre-calcinated mixture formed after the first heat treatment is 20-50% with respect to a volume of the reaction mixture added into the first crucible; and wherein the lithium nickel-manganese-cobalt-based positive electrode active material is represented by Formula 1 below: [Formula 1] Li 1+x [Ni a Mn b Co c M 1 1-a-b-c ] 1-x O 2 in Formula 1, -0.2≤x≤0.2, 0.6≤a≤0.98, 0.01<b<0.39, and 0.01≤c≤0.39, and M 1 is at least one selected from the group consisting of W, Cu, Fe, V, Cr, Ti, Zr, Zn, Al, In, Ta, Y, In, La, Sr, Ga, Sc, Gd, Sm, Ca, Ce, Nb, Mg, B, and Mo. -0.2≤x≤0.2, 0.6≤a≤0.98, 0.01<b<0.39, and 0.01≤c≤0.39, and M 1 is at least one selected from the group consisting of W, Cu, Fe, V, Cr, Ti, Zr, Zn, Al, In, Ta, Y, In, La, Sr, Ga, Sc, Gd, Sm, Ca, Ce, Nb, Mg, B, and Mo.
A shoe care apparatus , comprising: a cabinet forming a care chamber and including a supply port ; a supply duct provided to supply air to the care chamber through the supply port ; a supporter rail including a guide rail ; and a supporter to support a shoe, and being detachably mountable to the supporter rail in the care chamber, wherein the supporter rail and supporter are configured so that: the supply port is opened in response to the supporter being guided by the guide rail and mounted to the supporter rail, and the supporter receives the air supplied through the supply port, and the supply port is closed in response to the supporter being guided by the guide rail and separated from the supporter rail . a cabinet forming a care chamber and including a supply port ; a supply duct provided to supply air to the care chamber through the supply port ; a supporter rail including a guide rail ; and a supporter to support a shoe, and being detachably mountable to the supporter rail in the care chamber, wherein the supporter rail and supporter are configured so that: the supply port is opened in response to the supporter being guided by the guide rail and mounted to the supporter rail, and the supporter receives the air supplied through the supply port, and the supply port is closed in response to the supporter being guided by the guide rail and separated from the supporter rail . the supply port is opened in response to the supporter being guided by the guide rail and mounted to the supporter rail, and the supporter receives the air supplied through the supply port, and the supply port is closed in response to the supporter being guided by the guide rail and separated from the supporter rail .
A battery triggered optical data interconnect system for electro-optical HDMI signal communication between an HDMI source and an HDMI sink, comprising: a first HDMI compatible electrical connector configured to receive HDMI electrical signals from the source; a first signal converter connected to the first HDMI compatible electrical connector and including electronics for conversion of differential electrical signals to optical signals, with the electronics including an optical conversion device; at least one optical fiber connected to the first signal converter; a second signal converter connected to the at least one optical fiber and including electronics for conversion of optical signals to differential electrical signals, the electronics including differential circuitry that further includes an electric signal amplifier; a power module for the second signal converter including a power tap connected to the differential circuitry and a first voltage regulator (REG2) connected to the power tap to provide power to the electrical signal amplifier; a rechargeable battery module configured to trigger HDMI power activation of connected HDMI differential electrical data ports, the battery module being connected to the power tap; and a second HDMI compatible electrical connector connected to the second signal converter and configured to send the differential electrical data as HDMI differential data signals to the sink. a first HDMI compatible electrical connector configured to receive HDMI electrical signals from the source; a first signal converter connected to the first HDMI compatible electrical connector and including electronics for conversion of differential electrical signals to optical signals, with the electronics including an optical conversion device; at least one optical fiber connected to the first signal converter; a second signal converter connected to the at least one optical fiber and including electronics for conversion of optical signals to differential electrical signals, the electronics including differential circuitry that further includes an electric signal amplifier; a power module for the second signal converter including a power tap connected to the differential circuitry and a first voltage regulator (REG2) connected to the power tap to provide power to the electrical signal amplifier; a rechargeable battery module configured to trigger HDMI power activation of connected HDMI differential electrical data ports, the battery module being connected to the power tap; and a second HDMI compatible electrical connector connected to the second signal converter and configured to send the differential electrical data as HDMI differential data signals to the sink.
A blade , comprising: a blade body extending from a blade root to an opposed blade tip surface along a longitudinal axis (B), wherein the blade body defines a pressure side and a suction side , and wherein the blade body includes a cutting edge defined where the blade tip surface of the blade body meets the pressure side of the blade body, wherein the cutting edge is configured to abrade a seal section of an engine case ; wherein the blade tip surface includes a chamfered surface between the pressure side and the suction side of the blade body that tapers toward the blade root in a direction from the pressure side to the suction side; and wherein the cutting edge defines an arcuate portion transitioning between the pressure side and a land of the blade tip surface, wherein the land is between the pressure side and the chamfered surface.