mhurhangee/patent-ind-claim-en huggingface dataset:
A cover plate (206; 406; 506; 660) for a gas turbine engine , the cover plate comprising: a cover plate body that extends from a disc blade attachment (204; 604) radially along an outside surface of a disc web (202; 602) to a disc hub (203; 403; 603) of a disc creating a cavity between the cover plate body and the disc web (202; 602) of the disc; and an attachment protrusion extending from the inner most end of the cover plate body toward the disc hub, and wherein the attachment protrusion is configured to engage with a retaining ring (210; 310; 510; 610); wherein the cover plate comprises a puller protrusion formed at a tip of the attachment protrusion , wherein the puller protrusion extends radially outward from the tip of the attachment protrusion, and wherein the puller protrusion provides a pull that can be engaged and pulled in the aft direction to pull the cover plate away from being engaged with the disc. a cover plate body that extends from a disc blade attachment (204; 604) radially along an outside surface of a disc web (202; 602) to a disc hub (203; 403; 603) of a disc creating a cavity between the cover plate body and the disc web (202; 602) of the disc; and an attachment protrusion extending from the inner most end of the cover plate body toward the disc hub, and wherein the attachment protrusion is configured to engage with a retaining ring (210; 310; 510; 610); wherein the cover plate comprises a puller protrusion formed at a tip of the attachment protrusion , wherein the puller protrusion extends radially outward from the tip of the attachment protrusion, and wherein the puller protrusion provides a pull that can be engaged and pulled in the aft direction to pull the cover plate away from being engaged with the disc.
A support structure for selectively supporting a vessel , the vessel comprising a plastic feedstock conversion vessel or pyrolytic reactor, comprising: an overhead frame located above said vessel ; a plurality of suspension cables ; and a plurality of trolley devices attached to said overhead frame so that they are longitudinally movable along a length of the overhead frame , each of said plurality of trolley devices , independently, operatively, and movably securing at least one of said suspension cables to said overhead frame ; at least some of said plurality of said suspension cables being operatively and independently connected to said vessel at various longitudinal locations thereon; and said plurality of trolley devices being capable of independently increasing or decreasing tension on said individual cables . an overhead frame located above said vessel ; a plurality of suspension cables ; and a plurality of trolley devices attached to said overhead frame so that they are longitudinally movable along a length of the overhead frame , each of said plurality of trolley devices , independently, operatively, and movably securing at least one of said suspension cables to said overhead frame ; at least some of said plurality of said suspension cables being operatively and independently connected to said vessel at various longitudinal locations thereon; and said plurality of trolley devices being capable of independently increasing or decreasing tension on said individual cables .
A manufacturing method of a seat back structure, wherein the seat back structure comprises a seat back sponge and a seat back iron support disposed in the seat back sponge , wherein lateral connecting plates are disposed on two sides of the seat back iron support , support borders for supporting two sides of the seat back sponge are disposed on the lateral connecting plates on the two sides respectively, and fixing plates for fixing an airbag are also disposed on the lateral connecting plates , a plurality of S-shaped springs are horizontally disposed on the seat back iron support at intervals from bottom to top, two ends of each said S-shaped spring are connected to the two sides of the seat back iron support , and the airbag is disposed in an anti-explosion cloth cover , a U-shaped upper tube frame is disposed on an upper portion of the seat back iron support , a pair of headrest tubes for fixing a headrest is welded to an upper end of the upper tube frame , and a plurality of rear borders are horizontally welded to the upper tube frame ; and a lower metal plate is disposed on a lower portion of the seat back iron support , and the seat back sponge is covered with a surface assembly , the method comprising the following steps: mounting the seat back iron support on a cladding jig , and disposing the seat back sponge around the chair back iron support ; disposing the surface assembly at an upper end of the seat back sponge to cover the seat back sponge , and fixing the surface assembly to sponge positioning holes in a front side of the seat back sponge ; enabling the anti-explosion cloth cover to penetrate through the seat back sponge , disposing the airbag in the anti-explosion cloth cover , and fixing airbag fixing bolts to the fixing plates , and locking the airbag fixing bolts with safety nuts ; inserting an airbag wire harness into an airbag detection mechanism, reading a bar code on the airbag by a code reader, tearing the bar code from the airbag and attaching it to a rear side of the surface assembly, taking a torque wrench out of the airbag detection mechanism to detect the torque of the safety nuts, and then pulling out the airbag wire harness.
A method for making a dispersible nonwoven sheet, the method comprising: dispersing natural fibers and regenerated fibers in a ratio of about 70 to about 90 percent by weight natural fibers and about 10 to about 30 percent by weight regenerated fibers in a liquid medium to form a liquid suspension; depositing the liquid suspension over a foraminous forming wire to form a nonwoven tissue web; spraying the nonwoven tissue web with a first plurality of jets, each jet of the first plurality of jets being spaced from an adjacent one of the first plurality of jets by a first distance; spraying the nonwoven tissue web with a second plurality of jets, each jet of the second plurality of jets being spaced from an adjacent one of the second plurality of jets by a second distance, wherein the second distance is less than the first distance; and drying the nonwoven tissue web to form the dispersible nonwoven sheet; wherein a total energy imparted by the first plurality of jets and the second plurality of jets is between 0.2 kilowatt-hours per kilogram and 0.5 kilowatt-hours per kilogram. dispersing natural fibers and regenerated fibers in a ratio of about 70 to about 90 percent by weight natural fibers and about 10 to about 30 percent by weight regenerated fibers in a liquid medium to form a liquid suspension; depositing the liquid suspension over a foraminous forming wire to form a nonwoven tissue web; spraying the nonwoven tissue web with a first plurality of jets, each jet of the first plurality of jets being spaced from an adjacent one of the first plurality of jets by a first distance; spraying the nonwoven tissue web with a second plurality of jets, each jet of the second plurality of jets being spaced from an adjacent one of the second plurality of jets by a second distance, wherein the second distance is less than the first distance; and drying the nonwoven tissue web to form the dispersible nonwoven sheet;
A microfluidic mixer, formed by two parts, a first part being a substrate having formations defining fluid channels on an outer surface that is directed towards a second part, which is a flexible layer , wherein the flexible layer has formations defining fluid channel which, when the flexible layer is positioned over the substrate so as to cover the fluid channels of the substrate to provide a fluid communication path, wherein a section of said communication path comprises at least a first and a second fluid channel for providing a first and a second fluid, wherein first and second fluid channel merge before an inlet of a mixing chamber into a merged fluid channel , wherein the mixing chamber comprises perturbation formations , and an outlet of the mixing chamber is connected to an outlet fluid channel , wherein the flexible layer comprises points for compression at the inlet and outlet of the mixing chamber for closing the merged fluid channel and the outlet fluid channel connected to inlet and outlet of the mixing chamber characterized in that perturbation formations of the mixing chamber are vertically arranged walls, pillars, or tubes with respect to an inner surface.
Container having a body produced about an axis called the main axis (A) and formed by a receptacle and a lid which is placed on the receptacle in order to close it, and comprising an internal volume intended to receive contents to be magnetised, delimited by a top wall , a side wall and a bottom wall of the said body, characterised in that : - The receptacle has at least two permanent magnets positioned opposite each other and integrated into the side wall , - The container comprises non-magnetic shielding means arranged on and/or in the bottom wall , top wall and side wall of the container body to protect the internal volume from electromagnetic waves, - The shielding means comprise areas of electrical contact between the receptacle and the cover. - The receptacle has at least two permanent magnets positioned opposite each other and integrated into the side wall , - The container comprises non-magnetic shielding means arranged on and/or in the bottom wall , top wall and side wall of the container body to protect the internal volume from electromagnetic waves, - The shielding means comprise areas of electrical contact between the receptacle and the cover.
Compound of Formula III, and/or its salts: wherein : M is a boron atom; X is independently selected from O, S, NH, NR, or a C(O)O or S(O) 2 O group, where at least one X group is an S(O) 2 O group, and wherein said is attached to M by an oxygen atom when X is C(O)O or S(O) 2 O ; R is independently selected from substituted or unsubstituted, linear or branched alkyl, cycloalkyl and aryl groups; and R 1 is independently selected from substituted or unsubstituted, linear or branched alkyl, cycloalkyl and aryl groups. M is a boron atom; X is independently selected from O, S, NH, NR, or a C(O)O or S(O) 2 O group, where at least one X group is an S(O) 2 O group, and wherein said is attached to M by an oxygen atom when X is C(O)O or S(O) 2 O ; R is independently selected from substituted or unsubstituted, linear or branched alkyl, cycloalkyl and aryl groups; and R 1 is independently selected from substituted or unsubstituted, linear or branched alkyl, cycloalkyl and aryl groups.
An aqueous coating composition comprising: a binder comprising one or more acrylic copolymers, polyurethane, vinyl acetate copolymers, polyurea, wax, casein, egg tempera, gum Arabic, linseed oil, shellac, starch glue, gelatin, dextrin, polyester or combinations thereof; a coalescent represented by Formula I: R 1 -O-(A) n -R 2 , where R 1 is hydrogen, a C 1 -C 12 linear aliphatic, or a C 1 -C 12 branched aliphatic, A is a copolymer comprising monomeric structural units derived from propylene oxide and butylene oxide , R 2 is a hydrogen group, a C 1 -C 4 linear aliphatic or branched aliphatic group, a C 1 -C 4 linear or branched carbonyl group, or a benzyl group, and n has an average value from 3 to 25; and water. a binder comprising one or more acrylic copolymers, polyurethane, vinyl acetate copolymers, polyurea, wax, casein, egg tempera, gum Arabic, linseed oil, shellac, starch glue, gelatin, dextrin, polyester or combinations thereof; a coalescent represented by Formula I: R 1 -O-(A) n -R 2 , where R 1 is hydrogen, a C 1 -C 12 linear aliphatic, or a C 1 -C 12 branched aliphatic, A is a copolymer comprising monomeric structural units derived from propylene oxide and butylene oxide , R 2 is a hydrogen group, a C 1 -C 4 linear aliphatic or branched aliphatic group, a C 1 -C 4 linear or branched carbonyl group, or a benzyl group, and n has an average value from 3 to 25; and water.
A three-dimensional measuring system with multiple measuring modes includes a control unit , a variable digital pattern generation unit, an image processing unit, a calculating unit and at least one image sensor, wherein the control unit is respectively connected with the variable digital pattern generation unit, the image processing unit, the calculating unit and the image sensor, and is adapted for controlling the cooperative work of the whole measuring system; the variable digital pattern generation unit includes a memory and a projector, the memory stores a plurality of light template digital patterns, the projector is a digital projector and is adapted for projecting the digital patterns in the memory onto a surface of a measured object; the image sensor is adapted for acquiring the patterns which are projected by the projector onto the surface of the measured object; the image processing unit is a multi-mode digital image processor having multiple image processing modes, and is adapted for extracting the patterns, acquired by the image sensor, of the surface of the measured object according to a selected image processing mode to obtain two-dimensional characteristics of the surface of the measured object; and the calculating unit is a multi-mode three-dimensional point cloud calculator having multiple three-dimensional point cloud calculating modes, and is adapted for searching corresponding points and three-dimensionally rebuilding the two-dimensional characteristics processed by the image processing unit according to a selected three-dimensional cloud calculating mode to obtain three-dimensional data of the surface of the measured object wherein the control unit is adapted to: establish a uniform data structural model, the uniform data structural model being used for uniformly expressing measured data obtained at multiple measuring modes; at a single measuring mode, express, by using a uniform structure, each piece of point cloud obtained by measurement and calculate and preprocess; merge data obtained at different measuring modes, and align two pieces of point clouds at any positions to a uniform coordinate system; and subject the merged data to hybrid global optimization to obtain a measuring result. establish a uniform data structural model, the uniform data structural model being used for uniformly expressing measured data obtained at multiple measuring modes; at a single measuring mode, express, by using a uniform structure, each piece of point cloud obtained by measurement and calculate and preprocess; merge data obtained at different measuring modes, and align two pieces of point clouds at any positions to a uniform coordinate system; and subject the merged data to hybrid global optimization to obtain a measuring result.
Vehicle, in particular a motor vehicle , comprising a roof bar comprising a body , a means for receiving a luminous means and a luminous means extending at least partially along the roof bar , the luminous means being fastened to the receiving means in a removable manner and the receiving means being fastened to the body of the roof bar in a removable manner, the luminous means emitting light beams (F) in the direction of a vertical and longitudinal median plane (M) of such a vehicle, the vehicle being characterized in that the roof bar comprises a sealing means between the body of the roof bar and the luminous means , the sealing means being coincident with the receiving means . the luminous means being fastened to the receiving means in a removable manner and the receiving means being fastened to the body of the roof bar in a removable manner, the luminous means emitting light beams (F) in the direction of a vertical and longitudinal median plane (M) of such a vehicle, the vehicle being characterized in that the roof bar comprises a sealing means between the body of the roof bar and the luminous means , the sealing means being coincident with the receiving means .
A method for enhanced oil recovery by flushing an underground formation comprising the injection into the underground formation of an aqueous composition comprising microgels comprising at least one crosslinked polymer, characterized in that said polymer is crosslinked with at least one crosslinker capable of being degraded under the temperature conditions of the underground formation, and has a crosslinker content of between 1 and 90 ppm in moles relative to the total number of moles of monomers constituting the polymer.
A system, comprising: a wireless local area network, WLAN, element manager, EM, comprising: a polling module to poll a WLAN access point, AP, said polling to request traffic load data from said WLAN AP ; a timer module to trigger said polling module to poll at periodic intervals, wherein said periodic interval for polling is configured based on traffic load management requirements of an evolved node B, eNB ; a logging module to receive and log said requested traffic load data; and an integration reference point, IRP, agent comprising a reporting module to generate a traffic load report based on said logged traffic load data for transmission to a network manager; the network manager, NM, that operates as an entity that receives said traffic load report from said WLAN EM and conveys said traffic load report to the eNB, . a polling module to poll a WLAN access point, AP, said polling to request traffic load data from said WLAN AP ; a timer module to trigger said polling module to poll at periodic intervals, wherein said periodic interval for polling is configured based on traffic load management requirements of an evolved node B, eNB ; a logging module to receive and log said requested traffic load data; and an integration reference point, IRP, agent comprising a reporting module to generate a traffic load report based on said logged traffic load data for transmission to a network manager; the network manager, NM, that operates as an entity that receives said traffic load report from said WLAN EM and conveys said traffic load report to the eNB, .
A method of performing a radar sensing function in a mobile communication device that operates in a Time Division Duplex, TDD, wireless communication system having an air interface that comprises a plurality of uplink symbol times associated with symbols transmitted in an uplink direction and a plurality of downlink symbol times associated with symbols transmitted in a downlink direction, and in which each transmitted symbol from a plurality of transmitted symbols has a corresponding cyclic prefix that is transmitted immediately before the corresponding transmitted symbol, and that is a repetition of an end part of the corresponding transmitted symbol, the method comprising: using information about a path delay between the mobile communication device and a receiver as one of one or more bases to determine a timing of a radar operation window comprising a radar signal transmission time and a radar backscatter reception period, and transmitting the radar signal at the determined radar signal transmission time; and characterized in that : the radar operation window has a duration that is shorter than a duration of a cyclic reception window of the receiver and the determined timing of the radar operation window is configured to cause the radar signal , when transmitted from the mobile communication device at the determined radar signal transmission time, to arrive at the receiver during a portion of the cyclic prefix reception window of the receiver . using information about a path delay between the mobile communication device and a receiver as one of one or more bases to determine a timing of a radar operation window comprising a radar signal transmission time and a radar backscatter reception period, and transmitting the radar signal at the determined radar signal transmission time; and characterized in that : the radar operation window has a duration that is shorter than a duration of a cyclic reception window of the receiver and the determined timing of the radar operation window is configured to cause the radar signal , when transmitted from the mobile communication device at the determined radar signal transmission time, to arrive at the receiver during a portion of the cyclic prefix reception window of the receiver . the radar operation window has a duration that is shorter than a duration of a cyclic reception window of the receiver and the determined timing of the radar operation window is configured to cause the radar signal , when transmitted from the mobile communication device at the determined radar signal transmission time, to arrive at the receiver during a portion of the cyclic prefix reception window of the receiver .
A mobile communication device , comprising: a frame ; a three-dimensional cover glass that comprises a perimeter portion and an interior portion , the perimeter portion comprising a bended portion , the cover glass being positioned within the frame; a housing positioned adjacent the frame and the cover glass; and a patch member positioned in a gap between the bended portion of the cover glass and the housing, wherein the patch member and the cover glass are comprised of glass. a frame ; a three-dimensional cover glass that comprises a perimeter portion and an interior portion , the perimeter portion comprising a bended portion , the cover glass being positioned within the frame; a housing positioned adjacent the frame and the cover glass; and a patch member positioned in a gap between the bended portion of the cover glass and the housing, wherein the patch member and the cover glass are comprised of glass.
A support frame for carrying a glass plate , wherein the glass plate has a first longitudinal side , a second longitudinal side opposite to the first longitudinal side along a lateral direction, a first lateral side and a second lateral side opposite to the first lateral side along a longitudinal direction, and the first longitudinal side has a length smaller than a length of the second longitudinal side , characterized in that : the support frame has a first concave and a second concave , wherein the first concave matches with a shape of the glass plate when the glass plate is placed in a first orientation along the lateral direction, the second concave matches with a shape of the glass plate when the glass plate is placed in a second orientation opposite to the first orientation along the lateral direction, and the first concave and the second concave are at least partially overlapped.