mhurhangee/patent-ind-claim-en huggingface dataset:
A hard coat laminated film comprising, from a surface layer side, a second hard coat, a first hard coat and a transparent resin film layer, wherein the first hard coat is formed of a coating material comprising: (A) 100 parts by mass of a polyfunctional (meth)acrylate; and (B) 1 to 100 parts by mass of an N-substituted (meth)acrylamide compound, and the second hard coat is formed from a coating material comprising: (A) 100 parts by mass of the polyfunctional (meth)acrylate; (E) 0.01 to 7 parts by mass of a water repelling agent; and (F) 0.01 to 10 parts by mass of a silane coupling agent; and containing no inorganic particles, and the transparent resin film has a first hard coat forming surface made of a poly(meth)acrylimide resin. the first hard coat is formed of a coating material comprising: (A) 100 parts by mass of a polyfunctional (meth)acrylate; and (B) 1 to 100 parts by mass of an N-substituted (meth)acrylamide compound, and (A) 100 parts by mass of a polyfunctional (meth)acrylate; and (B) 1 to 100 parts by mass of an N-substituted (meth)acrylamide compound, and the second hard coat is formed from a coating material comprising: (A) 100 parts by mass of the polyfunctional (meth)acrylate; (E) 0.01 to 7 parts by mass of a water repelling agent; and (F) 0.01 to 10 parts by mass of a silane coupling agent; and (A) 100 parts by mass of the polyfunctional (meth)acrylate; (E) 0.01 to 7 parts by mass of a water repelling agent; and (F) 0.01 to 10 parts by mass of a silane coupling agent; and containing no inorganic particles, and the transparent resin film has a first hard coat forming surface made of a poly(meth)acrylimide resin.
A battery support structure for a vehicle , said battery support structure comprising: at least two side reinforcement members having hollow interiors extending along a length of the respective side reinforcement member; at least two end reinforcement members having hollow interiors extending along a length of the respective end reinforcement member; and a plurality of corner nodes , each having a first end portion engaged within a hollow interior area of one of the side reinforcement members and a second end portion engaged within a hollow interior area of one of the end reinforcement members , wherein the plurality of corner nodes engage the side and end reinforcement members to at least partially form a perimeter wall that generally surrounds a battery containment area , wherein the corner nodes each includes a consistent cross-sectional shape extending upward between a lower surface and an upper surface of the corner node, and characterized by the corner nodes each include an open interior portion that extends between the upper and lower surfaces in a direction orthogonal to the length of the respective engaged side reinforcement member , wherein the corner node includes an interior wall and an exterior wall that border opposing sides of a hollow the open interior portion that vertically extends through the corner node, and wherein the corner node includes interior reinforcements that span between the interior and exterior walls. at least two side reinforcement members having hollow interiors extending along a length of the respective side reinforcement member; at least two end reinforcement members having hollow interiors extending along a length of the respective end reinforcement member; and a plurality of corner nodes , each having a first end portion engaged within a hollow interior area of one of the side reinforcement members and a second end portion engaged within a hollow interior area of one of the end reinforcement members , wherein the plurality of corner nodes engage the side and end reinforcement members to at least partially form a perimeter wall that generally surrounds a battery containment area , wherein the corner nodes each includes a consistent cross-sectional shape extending upward between a lower surface and an upper surface of the corner node, and characterized by the corner nodes each include an open interior portion that extends between the upper and lower surfaces in a direction orthogonal to the length of the respective engaged side reinforcement member , wherein the corner node includes an interior wall and an exterior wall that border opposing sides of a hollow the open interior portion that vertically extends through the corner node, and wherein the corner node includes interior reinforcements that span between the interior and exterior walls.
A reinforced polycarbonate composition comprising: 10-90 wt% of a polycarbonate component comprising a homopolycarbonate having a weight average molecular weight from 15,000-40,000 grams/mole, as measured via gel permeation chromatography using bisphenol A homopolycarbonate standards; a high heat copolycarbonate having a glass transition temperature of 170 °C or higher determined per ASTM D3418 with a 20 °C per minute heating rate; or a combination thereof; 5-45 wt% of a poly(carbonate-siloxane); 0.001-1.0 wt% of a nanostructured fluoropolymer; 5-45 wt% of a reinforcing fiber, preferably glass fibers; an organophosphorus flame retardant present in an amount effective to provide 0.1-1.5 wt% of added phosphorous, based on the total weight of the flame retardant; optionally, 0.1-10.0 wt% of an additive composition, wherein each amount is based on the total weight of the reinforced polycarbonate composition, which sums to 100 wt%, wherein a molded sample of the reinforced polycarbonate composition has a UL 94 rating of V0 at a thickness of 0.8 mm, or at a thickness of 0.6 mm, or at a thickness of 0.4 mm, and a heat distortion temperature of at least 120 °C as measured according to the ISO-75 standard at 1.8 megapascal. 10-90 wt% of a polycarbonate component comprising a homopolycarbonate having a weight average molecular weight from 15,000-40,000 grams/mole, as measured via gel permeation chromatography using bisphenol A homopolycarbonate standards; a high heat copolycarbonate having a glass transition temperature of 170 °C or higher determined per ASTM D3418 with a 20 °C per minute heating rate; or a combination thereof; a homopolycarbonate having a weight average molecular weight from 15,000-40,000 grams/mole, as measured via gel permeation chromatography using bisphenol A homopolycarbonate standards; a high heat copolycarbonate having a glass transition temperature of 170 °C or higher determined per ASTM D3418 with a 20 °C per minute heating rate; or a combination thereof; 5-45 wt% of a poly(carbonate-siloxane); 0.001-1.0 wt% of a nanostructured fluoropolymer; 5-45 wt% of a reinforcing fiber, preferably glass fibers; an organophosphorus flame retardant present in an amount effective to provide 0.1-1.5 wt% of added phosphorous, based on the total weight of the flame retardant; optionally, 0.1-10.0 wt% of an additive composition, wherein each amount is based on the total weight of the reinforced polycarbonate composition, which sums to 100 wt%, wherein a molded sample of the reinforced polycarbonate composition has a UL 94 rating of V0 at a thickness of 0.8 mm, or at a thickness of 0.6 mm, or at a thickness of 0.4 mm, and a heat distortion temperature of at least 120 °C as measured according to the ISO-75 standard at 1.8 megapascal. a UL 94 rating of V0 at a thickness of 0.8 mm, or at a thickness of 0.6 mm, or at a thickness of 0.4 mm, and a heat distortion temperature of at least 120 °C as measured according to the ISO-75 standard at 1.8 megapascal.
Conveyor assembly for packages (A) of containers for pharmaceutical use, said packages (A) being contained in a bag (B), comprising a handling line for moving gripping elements each gripping element comprising at least one clamping jaw configured to hang at least one flap (C) of said bag (B) on the handling line characterized by comprising a dispensing apparatus positioned above said handling line and configured to supply a laminar flow of a gas directed towards the handling line so that each bag is invested by said laminar flow during the conveyance of the bag hung on the handling line , and a bag pickup station comprising at least one cutting device to remove the flap (C) from the bag (B) which is clamped at the at least one jaws of the respective gripping element .
Vehicle seat having a backrest and a headrest which comprises a headrest body (2.1) which has at least one filling material (2.1.2), wherein the headrest body (2.1) is connected to the backrest via a retention element (2.2) and the headrest body (2.1) is automatically axially movable relative to the backrest at least in the region of a contact face between a head of a vehicle occupant (A) and the headrest body (2.1), characterized in that a sliding medium is provided which is introduced in at least one portion between the retention element (2.2) and the filling material (2.1.2) such that the filling material (2.1.2) is automatically movable relative to the retention element (2.2) at least in the region of the contact face in a longitudinal extent of the headrest body (2.1) which extends in the vertical direction of the vehicle.
A method for noise level estimation, comprising: responsive to an increase of a signal level of a noise signal, calculating an impulsive noise probability of the noise signal, the impulsive noise probability indicating a likelihood that the noise signal is an impulsive noise (S201); determining a variable smoothing factor for noise level estimation based on the impulsive noise probability, the variable smoothing factor being associated with a previous estimated level of the noise signal (S202); and smoothing the noise signal with the variable smoothing factor so as to determine a current estimated level of the noise signal (S203). responsive to an increase of a signal level of a noise signal, calculating an impulsive noise probability of the noise signal, the impulsive noise probability indicating a likelihood that the noise signal is an impulsive noise (S201); determining a variable smoothing factor for noise level estimation based on the impulsive noise probability, the variable smoothing factor being associated with a previous estimated level of the noise signal (S202); and smoothing the noise signal with the variable smoothing factor so as to determine a current estimated level of the noise signal (S203).
Colloidal silica particles each having a surface with a plurality of protrusions, characterized in that each of the protrusions includes a base portion and a distal portion the distance between which is defined as a height of the protrusion, the base portion having a width, the colloidal silica particles have a volume average particle diameter and include large colloidal silica particles that each have a particle diameter larger than the volume average particle diameter, an average of values respectively obtained by dividing the height of a protrusion on the surface of each of the large colloidal silica particles by the width of the base portion of the same protrusion is no less than 0.245, the length of a curve along the surface of each protrusion of each colloidal silica particle does not exceed one-fourth of a circumferential length of a maximum circle inscribed in a projected contour of an outer shape of the colloidal silica particle, the curve extending from the base portion of a protrusion to the opposite base portion of the protrusion and passing through a point on the protrusion furthest from the base portion.
An inkjet printer for aqueous ink which is configured to perform image formation by discharging aqueous ink (I) to a web-shaped printing base material , comprising: a conveyance mechanism configured to continuously convey the web-shaped printing base material ; a respective single-pass system inkjet head configured to discharge the aqueous ink of respective color, by a single-pass system, the aqueous ink (I) to a surface of the web-shaped printing base material conveyed by the conveyance mechanism ; and a respective surface pre-heating unit which is arranged on an upstream side of conveyance from the respective single-pass system inkjet head and is configured to heat at least the surface of the web-shaped printing base material , wherein image formation through use of the single-pass system inkjet head is performed on the web-shaped printing base material heated by the surface pre-heating unit, wherein heating by the surface pre-heating unit is performed through use of hot air blowing means for applying hot air to the surface of the web-shaped printing base material , and characterized in that the hot air blowing means comprises: a nozzle group main body having a plurality of slit-shaped hot air blowing nozzles arranged so as to form gaps therebetween, the plurality of slit-shaped hot air blowing nozzles each having a slit-shaped hot air outlet port extending in a width direction of the web-shaped printing base material; and a suction mechanism configured to suck an atmosphere of the gaps formed in the nozzle group main body. a conveyance mechanism configured to continuously convey the web-shaped printing base material ; a respective single-pass system inkjet head configured to discharge the aqueous ink of respective color, by a single-pass system, the aqueous ink (I) to a surface of the web-shaped printing base material conveyed by the conveyance mechanism ; and a respective surface pre-heating unit which is arranged on an upstream side of conveyance from the respective single-pass system inkjet head and is configured to heat at least the surface of the web-shaped printing base material , wherein image formation through use of the single-pass system inkjet head is performed on the web-shaped printing base material heated by the surface pre-heating unit, wherein heating by the surface pre-heating unit is performed through use of hot air blowing means for applying hot air to the surface of the web-shaped printing base material , and characterized in that the hot air blowing means comprises: a nozzle group main body having a plurality of slit-shaped hot air blowing nozzles arranged so as to form gaps therebetween, the plurality of slit-shaped hot air blowing nozzles each having a slit-shaped hot air outlet port extending in a width direction of the web-shaped printing base material; and a suction mechanism configured to suck an atmosphere of the gaps formed in the nozzle group main body.
A method of generating, with a computer, a data preparation file for use in an e-beam equipment for fracturing of a target design for insulating a semiconductor integrated circuit, said method comprising: a) Generating a seed design from the target design; b) Generating rectilinear segments connecting vertices of the seed design to form a contour of the seed design; c) Placing a number of correction sites on the contour of the seed design; d) Associating the correction sites and the vertices; e) Generating a simulated contour of the seed design at the correction sites to form a simulated design; f) Associating a dose map with the simulated design; g) Calculating a displacement of each of the vertices to improve a matching criteria between the simulated contour and the contour of the seed design; h) Generating said displacement; i) Storing the simulated contour in the data preparation file; j) Redoing steps e) through h) until a stop criteria is met. a) Generating a seed design from the target design; b) Generating rectilinear segments connecting vertices of the seed design to form a contour of the seed design; c) Placing a number of correction sites on the contour of the seed design; d) Associating the correction sites and the vertices; e) Generating a simulated contour of the seed design at the correction sites to form a simulated design; f) Associating a dose map with the simulated design; g) Calculating a displacement of each of the vertices to improve a matching criteria between the simulated contour and the contour of the seed design; h) Generating said displacement; i) Storing the simulated contour in the data preparation file; j) Redoing steps e) through h) until a stop criteria is met.
An electrical enclosure including a first wall having an exhaust opening , a second wall , and a third wall , the electrical enclosure comprising: at least one circuit breaker compartment ; a line compartment arranged between the third wall and an exhaust duct extending substantially vertically; the exhaust duct extending through the electrical enclosure between the first wall and the second wall , the exhaust duct being fluidically connected to the exhaust opening and each of the at least one circuit breaker compartments ; and at least one passage fluidically connecting the circuit breaker compartment and the exhaust duct and extending between the line compartment and the at least one circuit breaker compartment through the exhaust duct , the at least one passage being substantially fluidically isolated from the exhaust duct , characterized in that the at least one passage includes at least one first run-in passage providing a pathway for one or more conductors and at least one first run-out passage connecting the line compartment to the first circuit breaker compartment , wherein the at least one circuit breaker compartment comprises a first circuit breaker compartment and a second circuit breaker compartment , and at least one second run-in passage and at least one second run-out passage connecting the line compartment to the second circuit breaker compartment . at least one circuit breaker compartment ; a line compartment arranged between the third wall and an exhaust duct extending substantially vertically; the exhaust duct extending through the electrical enclosure between the first wall and the second wall , the exhaust duct being fluidically connected to the exhaust opening and each of the at least one circuit breaker compartments ; and at least one passage fluidically connecting the circuit breaker compartment and the exhaust duct and extending between the line compartment and the at least one circuit breaker compartment through the exhaust duct , the at least one passage being substantially fluidically isolated from the exhaust duct , characterized in that the at least one passage includes at least one first run-in passage providing a pathway for one or more conductors and at least one first run-out passage connecting the line compartment to the first circuit breaker compartment , wherein the at least one circuit breaker compartment comprises a first circuit breaker compartment and a second circuit breaker compartment , and at least one second run-in passage and at least one second run-out passage connecting the line compartment to the second circuit breaker compartment .
A continuous method for forming a foamed silicone elastomer from a composition comprising i) an organopolysiloxane having at least two silicon-bonded ethylenically unsaturated groups per molecule; ii) an organohydrogensiloxane having at least two silicon-bonded hydrogen atoms per molecule; iii) a hydrosilylation catalyst; and iv) a physical liquid blowing agent; which method comprises the steps of (a) blending a part A composition comprising components (i) and (iii) and separately blending a part B composition comprising components (i) and (ii); composition; (b) introducing the part A composition and the Part B composition into respective mixing containers and mixing; (c) transferring resulting part A and part B mixtures of step (b) into respective pumping means; (d) pumping the resulting part A and part B mixtures of steps (b) and (c) into a mixer unit and mixing to form a foam; and (e) dispensing the resulting foam; wherein (f) Component (iv) is introduced into one or both of the part A composition or the part B composition during step (a) or step (b) and/or is introduced into the static mixer during step (d). i) an organopolysiloxane having at least two silicon-bonded ethylenically unsaturated groups per molecule; ii) an organohydrogensiloxane having at least two silicon-bonded hydrogen atoms per molecule; iii) a hydrosilylation catalyst; and iv) a physical liquid blowing agent; (a) blending a part A composition comprising components (i) and (iii) and separately blending a part B composition comprising components (i) and (ii); composition; (b) introducing the part A composition and the Part B composition into respective mixing containers and mixing; (c) transferring resulting part A and part B mixtures of step (b) into respective pumping means; (d) pumping the resulting part A and part B mixtures of steps (b) and (c) into a mixer unit and mixing to form a foam; and (e) dispensing the resulting foam; wherein (f) Component (iv) is introduced into one or both of the part A composition or the part B composition during step (a) or step (b) and/or is introduced into the static mixer during step (d).
A system , comprising: at least one transmitter antenna positioned in a borehole within a subterranean formation and configured to transmit a signal into the subterranean formation; at least two receiver antennas coupled to one or more tools positioned in the borehole within the subterranean formation and configured to receive one or more measurements of the subterranean formation associated with the transmitted signal, wherein the at least two receiver antennas are arranged at different lateral positions with respect to the borehole in a non-parallel orientation with respect to each other and in differing azimuthal directions relative to the one or more tools; and an information handling system communicably coupled to the at least two receiver antennas, and characterised in that the information handling system is configured to receive the one or more measurements from the at least two receiver antennas, to determine a measurement for a pseudo receiver antenna having a different lateral position along the length of the one or more tools from the positions of the at least two receiver antennas and a different azimuthal direction from the azimuthal directions of the at least two receiver antennas, the determined measurements being based, at least in part, on the received one or more measurements and to determine one or more characteristics of the formation from the determined measurement. at least one transmitter antenna positioned in a borehole within a subterranean formation and configured to transmit a signal into the subterranean formation; at least two receiver antennas coupled to one or more tools positioned in the borehole within the subterranean formation and configured to receive one or more measurements of the subterranean formation associated with the transmitted signal, wherein the at least two receiver antennas are arranged at different lateral positions with respect to the borehole in a non-parallel orientation with respect to each other and in differing azimuthal directions relative to the one or more tools; and an information handling system communicably coupled to the at least two receiver antennas, and characterised in that the information handling system is configured to receive the one or more measurements from the at least two receiver antennas, to determine a measurement for a pseudo receiver antenna having a different lateral position along the length of the one or more tools from the positions of the at least two receiver antennas and a different azimuthal direction from the azimuthal directions of the at least two receiver antennas, the determined measurements being based, at least in part, on the received one or more measurements and to determine one or more characteristics of the formation from the determined measurement.