mhurhangee/patent-ind-claim-en huggingface dataset:
Compound of the general formula (I) [(R 1 SiO 3/2 ) n-1 (R 2 SiO 3/2 )] n (I) in which n is an even number from 6 to 18, each radical R 1 is each independently a branched or unbranched C 1-20 -alkyl radical, a branched or unbranched C 1-20 -alkenyl radical, a branched or unbranched C 1-20 -alkynyl radical, a C 4-12 -cycloalkyl radical, a C 1-20 -oxoalkyl radical, a C 6-18 -aryl radical, an oxoaryl radical, a hetaryl radical, a perfluoro-alkyl, -alkenyl, -alkynyl, - alkoxyalkyl- or -aryl radical, or an arylalkyl radical, and R 2 is a structural element of the formula (II) in which Z is selected from the group consisting of (CR 3 2 ) m , ortho-, meta- or para -C 6 R 3 4 , C 6 R 3 4 CR 3 2 , (CR 3 2 ) 2 -Si(R 3 2 )- (CR 3 2 ) o , C 4-12 -cycloalkylene, and wherein m is a natural number from 1 to 15, o is a natural number from 1 to 4, R 3 are the same or different substituents selected from the group consisting of H, methyl and ethyl, Y is C 4-20 -alkylene or polycyclic C 6-30 -alkylene and X is a free electron pair or an O atom. n is an even number from 6 to 18, each radical R 1 is each independently a branched or unbranched C 1-20 -alkyl radical, a branched or unbranched C 1-20 -alkenyl radical, a branched or unbranched C 1-20 -alkynyl radical, a C 4-12 -cycloalkyl radical, a C 1-20 -oxoalkyl radical, a C 6-18 -aryl radical, an oxoaryl radical, a hetaryl radical, a perfluoro-alkyl, -alkenyl, -alkynyl, - alkoxyalkyl- or -aryl radical, or an arylalkyl radical, and a branched or unbranched C 1-20 -alkyl radical, a branched or unbranched C 1-20 -alkenyl radical, a branched or unbranched C 1-20 -alkynyl radical, a C 4-12 -cycloalkyl radical, a C 1-20 -oxoalkyl radical, a C 6-18 -aryl radical, an oxoaryl radical, a hetaryl radical, a perfluoro-alkyl, -alkenyl, -alkynyl, - alkoxyalkyl- or -aryl radical, or an arylalkyl radical, and R 2 is a structural element of the formula (II) in which Z is selected from the group consisting of (CR 3 2 ) m , ortho-, meta- or para -C 6 R 3 4 , C 6 R 3 4 CR 3 2 , (CR 3 2 ) 2 -Si(R 3 2 )- (CR 3 2 ) o , C 4-12 -cycloalkylene, and wherein m is a natural number from 1 to 15, o is a natural number from 1 to 4, R 3 are the same or different substituents selected from the group consisting of H, methyl and ethyl, Y is C 4-20 -alkylene or polycyclic C 6-30 -alkylene and X is a free electron pair or an O atom. Z is selected from the group consisting of (CR 3 2 ) m , ortho-, meta- or para -C 6 R 3 4 , C 6 R 3 4 CR 3 2 , (CR 3 2 ) 2 -Si(R 3 2 )- (CR 3 2 ) o , C 4-12 -cycloalkylene, and wherein m is a natural number from 1 to 15, o is a natural number from 1 to 4, R 3 are the same or different substituents selected from the group consisting of H, methyl and ethyl, Y is C 4-20 -alkylene or polycyclic C 6-30 -alkylene and X is a free electron pair or an O atom.
An oven for preforms (P), comprising a path comprising a plurality of spindles , configured to be engaged with the preforms (P), upstream transfer means for transferring the preforms (P) from an upstream processing unit to the path , downstream transfer means for transferring the preforms (P) heated by the oven to a downstream processing unit, and heating means for the preforms (P) arranged along the path , wherein said upstream transfer means comprise a rotating disk , along the periphery of which a plurality of cavities adapted to be engaged with said preforms (P) is arranged, and said downstream transfer means comprise one or more grippers and wherein the path comprises rectilinear stretches and curvilinear stretches and wherein the curvilinear stretch of the path placed at said transfer means comprises a driving wheel for said spindles , characterized in that the driving wheel comprises a plurality of extensible transfer grippers for the preforms (P), configured to assist the transfer of the preforms (P) from the upstream transfer means to the path , and from the path to the downstream transfer means .
A catalyst component for the polymerization of olefins comprising Mg, Ti and an electron donor of formula (I) where the R 1 and R 5 groups, equal to or different from each other, are selected from C 1 -C 15 hydrocarbon groups optionally including a heteroatom selected from halogen, P, S, N,O and Si, R 2 group is selected from C 2 -C 10 hydrocarbon groups optionally including a heteroatom selected from halogen, P, S, N,O and Si, R 3 and R 4 groups, independently, are selected from hydrogen or C 1 -C 20 hydrocarbon groups optionally including a heteroatom selected from halogen, P, S, N, O and Si, optionally fused together to form one or more cycles, with the proviso that at least one of R 3 to R 4 groups is a C 1 -C 20 alkyl group or arylalkyl group.
A method for producing a laminated glass, comprising at least a pair of glass plates and an interlayer film for laminated glass interposed between the pair of glass plates, which comprises at least a step in which the interlayer film for laminated glass is interposed between at least two glass plates to give a laminated glass component; a step in which the resulting laminated glass component is passed through nip rolls for deaeration or put in a rubber bag and vacuum suctioned to be preliminarily pressure-bonded while air remaining between the glass plates and the interlayer film was removed; and a step in which the resulting laminated glass component is pressurized with heat in an autoclave to be finally pressure-bonded, wherein the interlayer film for a laminated glass has a large number of recesses on at least one surface, and has a thickness T (μm) measured in conformity with JIS K-6732 and a maximum height roughness Ry (μm) measured in conformity with JIS B-0601 at a thickest portion, the thickness T and the maximum height roughness Ry satisfying the following expressions , and : Ry ≥ 0 .020 × T + 16.6 T ≥ 850 Ry ≤ 0 .0195 × T + 33.2 which comprises at least a step in which the interlayer film for laminated glass is interposed between at least two glass plates to give a laminated glass component; a step in which the resulting laminated glass component is passed through nip rolls for deaeration or put in a rubber bag and vacuum suctioned to be preliminarily pressure-bonded while air remaining between the glass plates and the interlayer film was removed; and a step in which the resulting laminated glass component is pressurized with heat in an autoclave to be finally pressure-bonded, wherein the interlayer film for a laminated glass has a large number of recesses on at least one surface, and has a thickness T (μm) measured in conformity with JIS K-6732 and a maximum height roughness Ry (μm) measured in conformity with JIS B-0601 at a thickest portion, the thickness T and the maximum height roughness Ry satisfying the following expressions , and : Ry ≥ 0 .020 × T + 16.6 T ≥ 850 Ry ≤ 0 .0195 × T + 33.2
A method for increasing resolution of an image formed of received light from an illuminated spot comprising: measuring a y vector for measurement kernels A 1 to A M , where M is a number of the measurement kernels, measuring the y vector comprising: programming a programmable N-pixel micromirror or mask located in a return path of a received reflected scene spot with a jth measurement kernel A j of the measurement kernels A 1 to A M ; measuring y, wherein y is an inner product of a scene reflectivity f ( α, β ) with the measurement kernel A j for each range bin r i , wherein α and β are azimuth and elevation angles of said illuminated spot , respectively; repeating programming the programmable N-pixel micromirror or mask and measuring y for each measurement kernel A 1 to AM; and forming a reconstructed image for each range bin r i using the y vector measured for said range bin r i , wherein forming the reconstructed image comprises using compressive sensing or Moore-Penrose reconstruction; wherein the illuminated spot is illuminated by a scanning laser and wherein the method further comprises: scanning the laser ; and repeating forming the reconstructed images for each spot illuminated by the laser. measuring a y vector for measurement kernels A 1 to A M , where M is a number of the measurement kernels, measuring the y vector comprising: programming a programmable N-pixel micromirror or mask located in a return path of a received reflected scene spot with a jth measurement kernel A j of the measurement kernels A 1 to A M ; measuring y, wherein y is an inner product of a scene reflectivity f ( α, β ) with the measurement kernel A j for each range bin r i , wherein α and β are azimuth and elevation angles of said illuminated spot , respectively; repeating programming the programmable N-pixel micromirror or mask and measuring y for each measurement kernel A 1 to AM; and programming a programmable N-pixel micromirror or mask located in a return path of a received reflected scene spot with a jth measurement kernel A j of the measurement kernels A 1 to A M ; measuring y, wherein y is an inner product of a scene reflectivity f ( α, β ) with the measurement kernel A j for each range bin r i , wherein α and β are azimuth and elevation angles of said illuminated spot , respectively; repeating programming the programmable N-pixel micromirror or mask and measuring y for each measurement kernel A 1 to AM; and forming a reconstructed image for each range bin r i using the y vector measured for said range bin r i , wherein forming the reconstructed image comprises using compressive sensing or Moore-Penrose reconstruction; wherein the illuminated spot is illuminated by a scanning laser and wherein the method further comprises: scanning the laser ; and repeating forming the reconstructed images for each spot illuminated by the laser.
Aqueous composition comprising: - a polyimide or a polyamide-imide or polyamide-amidic acid, - a Lewis base, - a polar aprotic solvent, and - at least 15% water compared to the total weight of said composition, characterised in that the Lewis base is an aminosilane or a silazane. - a polyimide or a polyamide-imide or polyamide-amidic acid, - a Lewis base, - a polar aprotic solvent, and - at least 15% water compared to the total weight of said composition, characterised in that the Lewis base is an aminosilane or a silazane.
A device for dispensing a volatile substance, comprising an operating device configured to generate heat to create a rising heated vapor passing through a grill located above said operating device, said heated vapor passing through said grill, said grill comprising a plurality of openings, an outer periphery and a center , characterized in that said center of said grill is formed below the outer periphery of said grill , such that condensate formed on said grill when said rising heated vapor passes therethrough migrates toward the center of said grill . said heated vapor passing through said grill, said grill comprising a plurality of openings, an outer periphery and a center ,
A method for preparing a degradable polyester fiber, said method comprising: manufacturing a fully drawn yarn (FDY) with a modified polyester; wherein the modified polyester is a product of an esterification and a successive polycondensation of evenly mixed terephthalic acid, ethylene glycol, 2,5,6,6-tetramethyl-2,5-heptanediol, a doped ZrO 2 powder and a fluorinated dicarboxylic acid; wherein the 2,5,6,6-tetramethyl-2,5-heptanediol has a molecular formula of wherein the fluorinated dicarboxylic acid is selected from the group consisting of 2,2-difluoro-1,3-malonic acid, 2,2-difluoro-1,4-succinic acid, 2,2-difluoro-1,5-glutaric acid and 2,2,3,3-tetrafluoro-1,4-succinic acid; wherein the doped ZrO 2 powder is obtained through a process of evenly mixing a M x+ solution and a Zr 4+ solution at first, then dripping in a precipitant until a pH value is 9-10, and finally calcining a precipitate; wherein M x+ is more than one ion selected from the group consisting of Mg 2+ , Li + and Zn 2+ ; wherein the modified polyester is a product of an esterification and a successive polycondensation of evenly mixed terephthalic acid, ethylene glycol, 2,5,6,6-tetramethyl-2,5-heptanediol, a doped ZrO 2 powder and a fluorinated dicarboxylic acid; wherein the 2,5,6,6-tetramethyl-2,5-heptanediol has a molecular formula of wherein the fluorinated dicarboxylic acid is selected from the group consisting of 2,2-difluoro-1,3-malonic acid, 2,2-difluoro-1,4-succinic acid, 2,2-difluoro-1,5-glutaric acid and 2,2,3,3-tetrafluoro-1,4-succinic acid; wherein the doped ZrO 2 powder is obtained through a process of evenly mixing a M x+ solution and a Zr 4+ solution at first, then dripping in a precipitant until a pH value is 9-10, and finally calcining a precipitate; wherein M x+ is more than one ion selected from the group consisting of Mg 2+ , Li + and Zn 2+ ;
Bio-filter unit intended for a fish farming system, said bio-filter unit comprising a container with a filter media and an inner architecture, said inner architecture comprising at least one vertical tube having an open input bottom end and an open output top end , wherein the bio-filter unit is connected to a pump enabling pumping liquid and filter media from a bottom of the container against a top of the container through said at least one vertical tube , characterised in that an upper plate is arranged inclined downwards from and around the open output top end of the at least one vertical tube and ends at a distance from a wall of the container, wherein the upper plate is perforated and wherein a regeneration water outflow is arranged under the upper plate in the upper part of the container , which enables contaminated water and particles separated from the filter media to be flown from the container , wherein a plate is arranged inclined from a wall of the container towards a vertical centre line of the container , being inclined downwards towards the bottom of the container , and wherein the plate extends around the entire circumference of the container , wherein the plate is perforated, and wherein a water outflow is arranged under the plate . an upper plate is arranged inclined downwards from and around the open output top end of the at least one vertical tube and ends at a distance from a wall of the container, wherein the upper plate is perforated and wherein a regeneration water outflow is arranged under the upper plate in the upper part of the container , which enables contaminated water and particles separated from the filter media to be flown from the container , wherein a plate is arranged inclined from a wall of the container towards a vertical centre line of the container , being inclined downwards towards the bottom of the container , and wherein the plate extends around the entire circumference of the container , wherein the plate is perforated, and wherein a water outflow is arranged under the plate .
Electromagnetic adjusting apparatus for adjusting camshafts or a section of a camshaft of a combustion motor, comprising - an energizable coil unit with which, when supplied with a current, an anchor , which is moveably mounted along a longitudinal axis (L) of the adjusting apparatus , can be moved relative to a pole core between a retracted position and a deployed position, - a tappet , which interacts with the anchor , is moveably mounted along the longitudinal axis (L), and which has a free end with which the tappet , when in a deployed position, interacts with the camshaft to adjust the latter, and - an adapter with which the adjusting apparatus can be attached to a component, in particular to a cylinder head cover, wherein - the anchor and the tappet are non-rotatably connected to each other, and the adjusting apparatus comprises - a first mounting segment within the adapter for the rotatable mounting of the tappet and - a second mounting segment outside of the adapter for the rotatable mounting of the tappet or of the anchor which is non-rotatably connected to the tapped , characterized in that , the second mounting segment includes a plain bearing , wherein the plain bearing is arranged in a tube-shaped body , and in that the apparatus includes a spring element with a first end and with a second end and which is supported at the first end on the tappet or on the anchor by means of a spring seat and at the second end on the second mounting segment , and in that the plain bearing , the spring seat and the spring element are radially enclosed by the tube-shaped body . - an energizable coil unit with which, when supplied with a current, an anchor , which is moveably mounted along a longitudinal axis (L) of the adjusting apparatus , can be moved relative to a pole core between a retracted position and a deployed position, - a tappet , which interacts with the anchor , is moveably mounted along the longitudinal axis (L), and which has a free end with which the tappet , when in a deployed position, interacts with the camshaft to adjust the latter, and - an adapter with which the adjusting apparatus can be attached to a component, in particular to a cylinder head cover, wherein - the anchor and the tappet are non-rotatably connected to each other, and the adjusting apparatus comprises - a first mounting segment within the adapter for the rotatable mounting of the tappet and - a second mounting segment outside of the adapter for the rotatable mounting of the tappet or of the anchor which is non-rotatably connected to the tapped , characterized in that , the second mounting segment includes a plain bearing , wherein the plain bearing is arranged in a tube-shaped body , and in that the apparatus includes a spring element with a first end and with a second end and which is supported at the first end on the tappet or on the anchor by means of a spring seat and at the second end on the second mounting segment , and in that the plain bearing , the spring seat and the spring element are radially enclosed by the tube-shaped body .
A docking station for implantation in a blood vessel, the blood vessel being the IVC or the SVC, the docking station comprising: a self-expandable frame configured to conform to an interior shape of the blood vessel when expanded inside the blood vessel; and a fabric covering attached to the frame to form at least one sealing portion configured to contact an interior surface of the blood vessel, wherein the frame comprises: an annular valve seat having a first end and a free second end, wherein the valve seat is integrally formed with the frame and configured to support an expandable transcatheter valve provided separately from the docking station ; a cylindrical outer wall comprising a plurality of struts; links connecting the first end of the valve seat to the outer wall , wherein the links extend from the valve seat to the outer wall at an angle with respect to a radial direction, wherein the links are strut portions and integrally formed with the plurality of struts ; and a leg that extends axially from an end of the outer wall . a self-expandable frame configured to conform to an interior shape of the blood vessel when expanded inside the blood vessel; and a fabric covering attached to the frame to form at least one sealing portion configured to contact an interior surface of the blood vessel, wherein the frame comprises: an annular valve seat having a first end and a free second end, wherein the valve seat is integrally formed with the frame and configured to support an expandable transcatheter valve provided separately from the docking station ; a cylindrical outer wall comprising a plurality of struts; links connecting the first end of the valve seat to the outer wall , wherein the links extend from the valve seat to the outer wall at an angle with respect to a radial direction, wherein the links are strut portions and integrally formed with the plurality of struts ; and a leg that extends axially from an end of the outer wall . an annular valve seat having a first end and a free second end, wherein the valve seat is integrally formed with the frame and configured to support an expandable transcatheter valve provided separately from the docking station ; a cylindrical outer wall comprising a plurality of struts; links connecting the first end of the valve seat to the outer wall , wherein the links extend from the valve seat to the outer wall at an angle with respect to a radial direction, wherein the links are strut portions and integrally formed with the plurality of struts ; and a leg that extends axially from an end of the outer wall .
A method for approximating blood volume loss from a subject comprising: receiving a volume of a fluid from the subject into a container containing a red blood cell (RBC) flocculant , wherein the container has a known RBC packing ratio specific for the subject's blood; visually determining a volume of settled RBCs after a period of time sufficient to permit formation of a stable sedimentation of RBCs from the fluid in the container ; and determining a volume of blood loss, wherein the stable sedimentation level of RBCs in the container provides an approximation of blood loss from the subject. receiving a volume of a fluid from the subject into a container containing a red blood cell (RBC) flocculant , wherein the container has a known RBC packing ratio specific for the subject's blood; visually determining a volume of settled RBCs after a period of time sufficient to permit formation of a stable sedimentation of RBCs from the fluid in the container ; and determining a volume of blood loss, wherein the stable sedimentation level of RBCs in the container provides an approximation of blood loss from the subject.
A method of forming three-dimensional biocompatible energization elements, the method comprising: receiving a substrate made from an insulating material, the substrate having a three-dimensional surface, wherein the three-dimensional surface is a curved surface; roughening at least a portion of the three-dimensional surface; next, forming two or more conductive traces on the three-dimensional surface, then; depositing an anode chemical formulation on at least part of one of the conductive traces to form an anode; depositing a cathode chemical formulation on at least part of another of the conductive traces to form a cathode, then; depositing an electrolyte over at least part of the anode and the cathode; and encapsulating the anode, the cathode, and the electrolyte using a biocompatible material to form a three-dimensional biocompatible energization element. receiving a substrate made from an insulating material, the substrate having a three-dimensional surface, wherein the three-dimensional surface is a curved surface; roughening at least a portion of the three-dimensional surface; next, forming two or more conductive traces on the three-dimensional surface, then; depositing an anode chemical formulation on at least part of one of the conductive traces to form an anode; depositing a cathode chemical formulation on at least part of another of the conductive traces to form a cathode, then; depositing an electrolyte over at least part of the anode and the cathode; and encapsulating the anode, the cathode, and the electrolyte using a biocompatible material to form a three-dimensional biocompatible energization element.