mhurhangee/patent-ind-claim-en huggingface dataset:
A marine riser section comprising: - a main riser pipe (85-1), said main riser pipe having an axis and a length, wherein said main riser pipe (85-1) is provided with a radially extending flange (85-2, 85-3) at each end thereof, - multiple auxiliary pipes (85-c, 85-k) disposed on the outside of and parallel to the riser pipe (85-1), said auxiliary pipes (85-c, 85-k) at least comprising a choke line (85-c) and a kill line (85-k), - one or more clamps (85-5) distributed along the length of the main riser pipe (85-1) and secured to said main riser pipe (85-1), said one or more clamps (85-5) being adapted to retain at least said choke line (85-c) and said kill line (85-k) relative to the main riser pipe (85-1), - buoyancy members (85 -6a, b, 85 -7a, b, ... , 85-12a, b), wherein, at least the choke line (85-c) and the kill line (85-k) are connected to each of the flanges (85-2, 85-3) in a tensile load sharing arrangement with a tensile load transferring connection assembly between each of the choke line (85-c) and kill line (85-k) and each of the flanges (85-2, 85-3), so that - in vertical use orientation of the riser section in a riser string - weight stress is distributed in the main riser pipe (85-1) and the choke line (85-c) and the kill line (85-k), and wherein the buoyancy members (85 -6a, b, 85 -7a, b, ... , 85-12a, b) form an exterior of the riser section including diametrically opposed and parallel flat bottom and top stacking faces (85 - 13, 85 - 14) relative to the axis of the main riser pipe (85-1), allowing stacking of riser sections in horizontal orientation with the flat bottom stacking face (85-13) resting on the flat top stacking face (85-14) of an underlying riser section , and wherein the choke line (85-c) and the kill line (85-k) are arranged diametrically opposite from one another relative to the axis of the main riser pipe (85-1) and between the flat bottom and top stacking faces (85 - 13, 85 - 14), in a plane normal to the flat bottom and top stacking faces (85 - 13, 85 - 14). - a main riser pipe (85-1), said main riser pipe having an axis and a length, wherein said main riser pipe (85-1) is provided with a radially extending flange (85-2, 85-3) at each end thereof, - multiple auxiliary pipes (85-c, 85-k) disposed on the outside of and parallel to the riser pipe (85-1), said auxiliary pipes (85-c, 85-k) at least comprising a choke line (85-c) and a kill line (85-k), - one or more clamps (85-5) distributed along the length of the main riser pipe (85-1) and secured to said main riser pipe (85-1), said one or more clamps (85-5) being adapted to retain at least said choke line (85-c) and said kill line (85-k) relative to the main riser pipe (85-1), - buoyancy members (85 -6a, b, 85 -7a, b, ... , 85-12a, b),
A vehicle seat (S), comprising: a seatback side frame ; and a support member that is attached to the seatback side frame and is configured to support an occupant in a seat width direction; wherein the support member includes an inner plate that is fixed to the seatback side frame on an inner side in the seat width direction, an outer plate that is fixed to the seatback side frame on an outer side in the seat width direction, and plural ribs that couple front portions of the inner plate and the outer plate , a screw attachment portion is provided in a rear side end portion of the inner plate , and the screw attachment portion is formed by a screw through hole and a thick portion around the screw through hole. a seatback side frame ; and a support member that is attached to the seatback side frame and is configured to support an occupant in a seat width direction; wherein the support member includes an inner plate that is fixed to the seatback side frame on an inner side in the seat width direction, an outer plate that is fixed to the seatback side frame on an outer side in the seat width direction, and plural ribs that couple front portions of the inner plate and the outer plate , a screw attachment portion is provided in a rear side end portion of the inner plate , and the screw attachment portion is formed by a screw through hole and a thick portion around the screw through hole.
A method of making a security device, comprising: (a) forming an array of focussing elements on a first region of a focussing element support layer , by: (a)(i) applying at least one transparent curable material either to the focussing element support layer or to a casting tool carrying a surface relief corresponding to the focussing elements, over an area which includes at least the first region; (a)(ii) forming the transparent curable material(s) with the casting tool; and (a)(iii) curing the transparent curable material(s) so as to retain the surface relief in the first region; wherein the surface relief defines structures between sub-regions of focussing elements configured to space the sub-regions of focussing elements apart from one another, such that the cured material(s) define sub-sets of focussing elements spaced by gaps , each sub-set comprising a plurality of focussing elements, characterised in that the gaps between the sub-regions of focussing elements have a width (w) less than the pitch (p) of the focussing element array, and in that the transparent curable material is continuous across the gaps and in the gaps has a height less than the height of the focussing elements. (a) forming an array of focussing elements on a first region of a focussing element support layer , by: (a)(i) applying at least one transparent curable material either to the focussing element support layer or to a casting tool carrying a surface relief corresponding to the focussing elements, over an area which includes at least the first region; (a)(ii) forming the transparent curable material(s) with the casting tool; and (a)(iii) curing the transparent curable material(s) so as to retain the surface relief in the first region; wherein the surface relief defines structures between sub-regions of focussing elements configured to space the sub-regions of focussing elements apart from one another, such that the cured material(s) define sub-sets of focussing elements spaced by gaps , each sub-set comprising a plurality of focussing elements, characterised in that the gaps between the sub-regions of focussing elements have a width (w) less than the pitch (p) of the focussing element array, and in that the transparent curable material is continuous across the gaps and in the gaps has a height less than the height of the focussing elements. (a)(i) applying at least one transparent curable material either to the focussing element support layer or to a casting tool carrying a surface relief corresponding to the focussing elements, over an area which includes at least the first region; (a)(ii) forming the transparent curable material(s) with the casting tool; and (a)(iii) curing the transparent curable material(s) so as to retain the surface relief in the first region;
A method for fractionating a liquid composition, which comprises discharging a liquid composition containing a polymer having ion exchange groups and a solvent, from a discharge port of a filling nozzle, and fractionating a predetermined amount of the liquid composition, characterized in that the temperature of the liquid composition is controlled so that the average tan δ1 of the liquid composition when discharged from the discharge port becomes to be at most 1.00, wherein the average tan δ1 means an arithmetic mean value of the loss tangent tan δ (10 Hz) at a frequency of 10 Hz and the loss tangent tan δ (20 Hz) at a frequency of 20 Hz, which are obtained by dynamic viscoelasticity measurement conducted by changing the frequency from 1 Hz to 100 Hz under conditions of a strain of 1% and a temperature of T1 using the liquid composition, at the time when the temperature of the liquid composition discharged from the discharge port of the filling nozzle is set to be T1. characterized in that the temperature of the liquid composition is controlled so that the average tan δ1 of the liquid composition when discharged from the discharge port becomes to be at most 1.00, wherein the average tan δ1 means an arithmetic mean value of the loss tangent tan δ (10 Hz) at a frequency of 10 Hz and the loss tangent tan δ (20 Hz) at a frequency of 20 Hz, which are obtained by dynamic viscoelasticity measurement conducted by changing the frequency from 1 Hz to 100 Hz under conditions of a strain of 1% and a temperature of T1 using the liquid composition, at the time when the temperature of the liquid composition discharged from the discharge port of the filling nozzle is set to be T1.
A compound comprising a first ligand L A of Formula I, wherein: moieties A, B, C, and D are each independently a monocyclic ring or polycyclic fused ring system, wherein the monocyclic ring and each ring of the polycyclic fused ring system is independently a 5 -membered or 6-membered carbocyclic or heterocyclic ring; Z 1 and Z 2 are each independently C or N; each of X 1 to X 7 is each independently C or N; K is selected from the group consisting of a direct bond, O, S, N(R α ), P(R α ), B(R α ), C(R α ), C(R α )(R β ), and Si(R α )(R β ); R A , R B , R C , and R D each independently represent mono to the maximum allowable substitution, or no substitution; each R α , R β , R A , R B , R C , and R D is independently a hydrogen or a substituent selected from the group consisting of deuterium, halogen, alkyl, cycloalkyl, heteroalkyl, heterocycloalkyl, boryl, arylalkyl, alkoxy, aryloxy, amino, silyl, germyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carboxylic acid, ether, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, selenyl, and combinations thereof; any two substituents may be joined or fused to form a ring; L A is joined to a metal M that has an atomic mass of at least 40; M may be coordinated to other ligands; and L A may be joined with other ligands to comprise a tridentate, tetradentate, pentadentate, or hexadentate ligand. moieties A, B, C, and D are each independently a monocyclic ring or polycyclic fused ring system, wherein the monocyclic ring and each ring of the polycyclic fused ring system is independently a 5 -membered or 6-membered carbocyclic or heterocyclic ring; Z 1 and Z 2 are each independently C or N; each of X 1 to X 7 is each independently C or N; K is selected from the group consisting of a direct bond, O, S, N(R α ), P(R α ), B(R α ), C(R α ), C(R α )(R β ), and Si(R α )(R β ); R A , R B , R C , and R D each independently represent mono to the maximum allowable substitution, or no substitution; each R α , R β , R A , R B , R C , and R D is independently a hydrogen or a substituent selected from the group consisting of deuterium, halogen, alkyl, cycloalkyl, heteroalkyl, heterocycloalkyl, boryl, arylalkyl, alkoxy, aryloxy, amino, silyl, germyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carboxylic acid, ether, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, selenyl, and combinations thereof; any two substituents may be joined or fused to form a ring; L A is joined to a metal M that has an atomic mass of at least 40; M may be coordinated to other ligands; and L A may be joined with other ligands to comprise a tridentate, tetradentate, pentadentate, or hexadentate ligand.
A control valve comprising: a valve body , a spool and an actuator coupled to the valve body and coupled to the spool; the valve body including a plastic body housing including a first housing port and a second housing port and a metallic sleeve housed within the body housing, the metallic sleeve including a first sleeve port in fluid communication with the first housing port and a second sleeve port in fluid communication with the second housing port, the spool received within the metallic sleeve and movable between a first position and a second position; characterised in that the metallic sleeve includes a first annular projection in a press fit engagement with the plastic body housing between the first housing port and the actuator, and a second annular projection in a press fit engagement with the plastic body housing between the first housing port and the second housing port; wherein the spool includes a first land and a second land positioned such that the first land and the second land do not overlap the first annular projection and the second annular projection while the spool is positioned at any of the first position, the second position, and a position between the first position and the second position and wherein the spool inhibits fluid communication between the first sleeve port and the second sleeve port when in the first position, and provides communication between the first sleeve port and the second sleeve port when in the second position. a valve body , a spool and an actuator coupled to the valve body and coupled to the spool; the valve body including a plastic body housing including a first housing port and a second housing port and a metallic sleeve housed within the body housing, the metallic sleeve including a first sleeve port in fluid communication with the first housing port and a second sleeve port in fluid communication with the second housing port, the spool received within the metallic sleeve and movable between a first position and a second position; characterised in that the metallic sleeve includes a first annular projection in a press fit engagement with the plastic body housing between the first housing port and the actuator, and a second annular projection in a press fit engagement with the plastic body housing between the first housing port and the second housing port; wherein the spool includes a first land and a second land positioned such that the first land and the second land do not overlap the first annular projection and the second annular projection while the spool is positioned at any of the first position, the second position, and a position between the first position and the second position and wherein the spool inhibits fluid communication between the first sleeve port and the second sleeve port when in the first position, and provides communication between the first sleeve port and the second sleeve port when in the second position.
A memory cell comprising a crosslinked mixture of an acrylic polyol, a formaldehyde-free alkylene urea-glyoxal resin, and an acid catalyst.
A three-dimensional, 3-D, printer comprising: an intermediate transfer surface ; a build material development station positioned to electrostatically transfer build material to said intermediate transfer surface ; a support material development station positioned to electrostatically transfer support material to said intermediate transfer surface , said build material development station and said support material development station configured to transfer layers of said build material and said support material to said intermediate transfer surface ; a solvent application station positioned to expose said layers on said intermediate transfer surface to a solvent that makes said layers tacky; a transfuse station adjacent said intermediate transfer surface , said transfuse station is positioned to receive said layers after exposure to said solvent as said intermediate transfer surface moves past said transfuse station ; and a platen configured to move relative to said intermediate transfer surface , said intermediate transfer surface configured to transfer a layer of said build material and said support material to said platen each time said platen contacts one of said layers on said intermediate transfer surface at said transfuse station to successively form a freestanding stack of said layers on said platen ; characterised in that the 3-D printer further comprises a second solvent station positioned to apply said solvent to said layers on said platen to make the top layer on said platen tacky prior to said platen moving to said transfuse station . an intermediate transfer surface ; a build material development station positioned to electrostatically transfer build material to said intermediate transfer surface ; a support material development station positioned to electrostatically transfer support material to said intermediate transfer surface , said build material development station and said support material development station configured to transfer layers of said build material and said support material to said intermediate transfer surface ; a solvent application station positioned to expose said layers on said intermediate transfer surface to a solvent that makes said layers tacky; a transfuse station adjacent said intermediate transfer surface , said transfuse station is positioned to receive said layers after exposure to said solvent as said intermediate transfer surface moves past said transfuse station ; and a platen configured to move relative to said intermediate transfer surface , said intermediate transfer surface configured to transfer a layer of said build material and said support material to said platen each time said platen contacts one of said layers on said intermediate transfer surface at said transfuse station to successively form a freestanding stack of said layers on said platen ; characterised in that the 3-D printer further comprises a second solvent station positioned to apply said solvent to said layers on said platen to make the top layer on said platen tacky prior to said platen moving to said transfuse station .
An articulation system for articulating in a queue two adjacent vehicles along a common longitudinal axis (L), said articulation system comprising a bridge assembly having at least three elongated members , at least three first couplings each associated with corresponding one of the at least three elongated members, and at least three second couplings each associated with corresponding one of the at least three elongated members, the at least three elongated members being configured to extend between said vehicles, each having a first end connectable to a first vehicle via the corresponding first coupling configured to constrain all translational DOF while at least partially allowing at least pitch movement on a vertical plane containing said longitudinal axis (L), and a second end connectable to a second vehicle via the corresponding second coupling ; at least one of the second couplings being configured to at least partially constrain said pitch movement and constituting a pitch-constraining coupling, and at least one of the second couplings being configured to at least partially constrain yaw movement on a horizontal plane (P, P2) containing said longitudinal axis (L, L2) and constituting a yaw-constraining coupling; wherein the at least three elongated members comprise at least two outermost elongated members disposed at a maximal distance from the longitudinal axis (L) on two sides thereof, the second couplings via which the second ends of the two outermost elongated members are connectable to the second vehicle being other than the pitch-constraining coupling and the yaw-constraining coupling; and wherein each elongated member with its associated first and second couplings constitutes the bridge assembly having a bridge longitudinal axis extending between the first and second couplings thereof, and wherein the bridge assemblies of the outermost members each comprise an elastic portion configured to perform elastic deformation under load; characterized in that said second couplings , via which the second ends of the two outermost elongated members are connectable to the second vehicle , are configured to at least partially allow translational movement along said bridge longitudinal axis ; and wherein said elastic portion is disposed at the second coupling of its respective bridge assembly. said second couplings , via which the second ends of the two outermost elongated members are connectable to the second vehicle , are configured to at least partially allow translational movement along said bridge longitudinal axis ; and wherein said elastic portion is disposed at the second coupling of its respective bridge assembly.
Method for designing a leading edge in aero/hydrodynamic structures, which reduces the drag coefficient resistance, by modifying only the profile of the structure and not its elevation, the method comprising the following steps: a. establishing a coordinate system with an "x"-axis orthogonal to the chord in the base of the profile of the lifting structure and a "y"-axis orthogonal to the x-axis and extending from the midpoint of the base to the vertex of the structure; b. identifying the maximum thickness of the NACA section in the base of the profile "H 0 " and starting to modify the existing surface profile at coordinate by applying a curve, the length "L 1 " of which, according to the maximum thickness "H 0 " in the base, is defined by the equation L 1 = 0.0510H 0 2 - 0.0790H 0 + 15.5790, and the maximum height of which on the "x"-axis, which is located at point "yi/2", is defined by means of the relationship x = 0.0137(L 1 ) 1.4944 , the shape of said curve being defined by means of the equation: (y-y 0 ) = 0.0000000107x 6 + 0.0000016382x 5 - 0.0000794412x 4 + 0.0010194142x 3 + 0.0097205322x 2 + 0.0136993913x; c. repeating step b using the thickness "H 1 " of the profile at the height "y 1 " to calculate the new length "L 2 " -such that y 2 = L 1 +L 2 -, the maximum height on the "x"-axis, which is located at point "L 1 +L 2 /2", being defined by means of the relationship x = 0.0137(L 2 ) 1.4944 , the shape of said curve being defined by means of the equation: (y-y1) = 0.0000000107x 6 + 0.0000016382x 5 - 0.0000794412x 4 + 0.0010194142x 3 + 0.0097205322x 2 + 0.0136993913x; d. repeating step b for the next segments. a. establishing a coordinate system with an "x"-axis orthogonal to the chord in the base of the profile of the lifting structure and a "y"-axis orthogonal to the x-axis and extending from the midpoint of the base to the vertex of the structure; b. identifying the maximum thickness of the NACA section in the base of the profile "H 0 " and starting to modify the existing surface profile at coordinate by applying a curve, the length "L 1 " of which, according to the maximum thickness "H 0 " in the base, is defined by the equation L 1 = 0.0510H 0 2 - 0.0790H 0 + 15.5790, and the maximum height of which on the "x"-axis, which is located at point "yi/2", is defined by means of the relationship x = 0.0137(L 1 ) 1.4944 , the shape of said curve being defined by means of the equation: (y-y 0 ) = 0.0000000107x 6 + 0.0000016382x 5 - 0.0000794412x 4 + 0.0010194142x 3 + 0.0097205322x 2 + 0.0136993913x; c. repeating step b using the thickness "H 1 " of the profile at the height "y 1 " to calculate the new length "L 2 " -such that y 2 = L 1 +L 2 -, the maximum height on the "x"-axis, which is located at point "L 1 +L 2 /2", being defined by means of the relationship x = 0.0137(L 2 ) 1.4944 , the shape of said curve being defined by means of the equation: (y-y1) = 0.0000000107x 6 + 0.0000016382x 5 - 0.0000794412x 4 + 0.0010194142x 3 + 0.0097205322x 2 + 0.0136993913x; d. repeating step b for the next segments.
A silicon oxide composite for a secondary battery negative electrode material, the silicon oxide composite comprising: (a) a silicon oxide (SiOx, 0<x<2) which includes: (i) MgSiO 3 (enstatite) crystals and (ii) silicon particles with a crystal size of from 1 to 25 nm; and (b) a carbon film on its surface. (a) a silicon oxide (SiOx, 0<x<2) which includes: (i) MgSiO 3 (enstatite) crystals and (ii) silicon particles with a crystal size of from 1 to 25 nm; and (i) MgSiO 3 (enstatite) crystals and (ii) silicon particles with a crystal size of from 1 to 25 nm; and (b) a carbon film on its surface.