mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine , comprising: a fan case ; and a plurality of stator vanes integrally formed with the fan case , and the fan case is configured to radially surround fan blades of the gas turbine engine , characterised in that the fan case and stator vanes are integrally molded of a composite material, the composite material is a polymer matrix composite material, and the polymer matrix composite material comprises reinforcing fibers bound together by a polymer matrix. a fan case ; and a plurality of stator vanes integrally formed with the fan case , and the fan case is configured to radially surround fan blades of the gas turbine engine , characterised in that the fan case and stator vanes are integrally molded of a composite material, the composite material is a polymer matrix composite material, and the polymer matrix composite material comprises reinforcing fibers bound together by a polymer matrix.
A vegetation inspection apparatus comprising: a calculation process section configured to calculate an inspection value for inspecting plant vegetation by using imaging data having conflicting inspection-related-angle-dependent components such that the inspection-related-angle-dependent components included in imaging data acquired by imaging the plant vegetation are reduced; and an imaging control section configured to control an imaging apparatus for imaging the plant vegetation, wherein the imaging control section causes the imaging apparatus to image the plant vegetation at timings that are in accordance with imaging directions of imaging the plant vegetation and shining directions of light shone on the plant vegetation such that the inspection-related-angle-dependent components included in the acquired imaging data are reduced. a calculation process section configured to calculate an inspection value for inspecting plant vegetation by using imaging data having conflicting inspection-related-angle-dependent components such that the inspection-related-angle-dependent components included in imaging data acquired by imaging the plant vegetation are reduced; and an imaging control section configured to control an imaging apparatus for imaging the plant vegetation, wherein the imaging control section causes the imaging apparatus to image the plant vegetation at timings that are in accordance with imaging directions of imaging the plant vegetation and shining directions of light shone on the plant vegetation such that the inspection-related-angle-dependent components included in the acquired imaging data are reduced.
A method for unpacking at least one component produced by means of an additive manufacturing process, from a particulate material bed of non-consolidated particulate material , wherein the non-consolidated particulate material , together with the at least one component , is arranged in a build box that is open at the top in the vertical direction and delimited by an upper edge , and by a base plate at the bottom, and by a surrounding wall on the sides, wherein the non-consolidated particulate material is fluidized and the at least one component is transported away from the build box by means of a transport device , wherein the non-consolidated particulate material remains in the build box , characterized in that the at least one component is transported away by means of a transport device formed as a gripper device . wherein the non-consolidated particulate material , together with the at least one component , is arranged in a build box that is open at the top in the vertical direction and delimited by an upper edge , and by a base plate at the bottom, and by a surrounding wall on the sides, wherein the non-consolidated particulate material is fluidized and the at least one component is transported away from the build box by means of a transport device , wherein the non-consolidated particulate material remains in the build box , characterized in that the at least one component is transported away by means of a transport device formed as a gripper device .
A radar device for providing data related to atmospheric conditions comprising a transceiver with a single input/output port, the transceiver arranged to generate a frequency modulated continuous radar wave signal and direct it via the single input/output port to a first switch , the first switch arranged to direct the signal to a transmission branch including a first antenna for transmission thereof, the radar device further comprising a receiving branch, separate from the transmission branch, arranged to direct received reflected radar waves and direct them as signals to the single input/output port of the transceiver via the first switch , wherein the first switch is arranged to isolate the transmission branch from the receiving branch.
A computer-implemented method for noninvasively reconstructing electrical activity of a heart of a living being, the living being having a body surface , the method comprising: determining a plurality of epicardial nodes that define locations on an epicardial envelope of the heart; determining a plurality of virtual source nodes having source node coefficients which reflect the strength of each source node, the plurality of source nodes defining a plurality of locations along a surface outside the body surface where a set of non-invasively measured body surface electrical potentials were measured and another plurality of locations along a surface inside the epicardial envelope; and computing heart electrical activity data, corresponding to heart electrical activity on the epicardial envelope, from the set of noninvasively measured body surface electrical potentials (V T ) using a method of fundamental solution (MFS) based on data describing a geometrical relationship between the plurality of epicardial nodes, the plurality of source nodes and the locations where the body surface potentials were measured. determining a plurality of epicardial nodes that define locations on an epicardial envelope of the heart; determining a plurality of virtual source nodes having source node coefficients which reflect the strength of each source node, the plurality of source nodes defining a plurality of locations along a surface outside the body surface where a set of non-invasively measured body surface electrical potentials were measured and another plurality of locations along a surface inside the epicardial envelope; and computing heart electrical activity data, corresponding to heart electrical activity on the epicardial envelope, from the set of noninvasively measured body surface electrical potentials (V T ) using a method of fundamental solution (MFS) based on data describing a geometrical relationship between the plurality of epicardial nodes, the plurality of source nodes and the locations where the body surface potentials were measured.
A computer-implemented method for location determination, the method comprising: detecting, at a server , presence of a tracking device in a high error zone, in which an average error of received GPS signal readings from tracking devices are not precise; determining if geographical coordinates of a current location of the tracking device in the high error zone are within a threshold of registered geographical coordinates of the current location; sending commands to the tracking device to activate at least one sensor on-board the tracking device when the geographical coordinates are not within the threshold to determine the amount of displacement of the tracking device ; receiving displacement information of the tracking device from the tracking device ; determining an updated location of the tracking device based on the current location and the displacement information; and providing an arrival alert to a destination toward which the tracking device is traveling based on the updated location. detecting, at a server , presence of a tracking device in a high error zone, in which an average error of received GPS signal readings from tracking devices are not precise; determining if geographical coordinates of a current location of the tracking device in the high error zone are within a threshold of registered geographical coordinates of the current location; sending commands to the tracking device to activate at least one sensor on-board the tracking device when the geographical coordinates are not within the threshold to determine the amount of displacement of the tracking device ; receiving displacement information of the tracking device from the tracking device ; determining an updated location of the tracking device based on the current location and the displacement information; and providing an arrival alert to a destination toward which the tracking device is traveling based on the updated location.
A moisturizing cosmetic composition, comprising: (A) 30-99wt% of birch sap, (B) 0.001-5wt% of hydrolyzed sodium hyaluronate, and (C) optionally, ingredients commonly used in skincare cosmetics; wherein the percentage is based on the total weight of the composition, and the moisturizing cosmetic composition comprises no added water. (A) 30-99wt% of birch sap, (B) 0.001-5wt% of hydrolyzed sodium hyaluronate, and (C) optionally, ingredients commonly used in skincare cosmetics;
A method of manufacturing an integrated magneto-resistive sensor, the method comprising: forming a plurality of magneto-resistive sensor elements on or over a substrate , wherein each magneto-resistive sensor element of the plurality of magneto-resistive sensor elements comprises a reference layer and a sensing layer ; and forming one or more flux guides on the substrate, wherein (i) the one or more flux guides comprise a magnetic material ; and (ii) wherein an entirety of each flux guide of the one or more flux guides is adjacent to and laterally offset from one or more associated magneto-resistive sensor elements of the plurality of magneto-resistive sensor elements . forming a plurality of magneto-resistive sensor elements on or over a substrate , wherein each magneto-resistive sensor element of the plurality of magneto-resistive sensor elements comprises a reference layer and a sensing layer ; and forming one or more flux guides on the substrate, wherein (i) the one or more flux guides comprise a magnetic material ; and (ii) wherein an entirety of each flux guide of the one or more flux guides is adjacent to and laterally offset from one or more associated magneto-resistive sensor elements of the plurality of magneto-resistive sensor elements .
An exhaust air scrubber for removing dust, abraded product and water-soluble constituents from process exhaust air comprising in one housing I) at least one cleaning stage comprising a) a droplet separator , preferably in the form of a knitted mesh or lamellar separator, b) arranged therebelow at least one packing , preferably in the form of a random packing, c) optionally between the droplet separator and the packing at least one scrubbing tray , II) at least one inlet apparatus for process exhaust air arranged in the lower portion of the housing, preferably below the at least one cleaning stage, III) at least one withdrawal apparatus for scrubbing solution which may also contain solids, preferably at the lower end of the housing , IV) at least one withdrawal conduit for the cleaned exhaust air V) at least one feed conduit for scrubbing solution in the upper portion of the housing, above the at least one cleaning stage, characterized in that - the withdrawal conduit for the cleaned exhaust air i) begins inside the housing above the at least one cleaning stage, ii) is passed downward inside the housing and iii) is passed out of the housing to the outside in the lower region of the housing below the cleaning stage(s). I) at least one cleaning stage comprising a) a droplet separator , preferably in the form of a knitted mesh or lamellar separator, b) arranged therebelow at least one packing , preferably in the form of a random packing, c) optionally between the droplet separator and the packing at least one scrubbing tray , a) a droplet separator , preferably in the form of a knitted mesh or lamellar separator, b) arranged therebelow at least one packing , preferably in the form of a random packing, c) optionally between the droplet separator and the packing at least one scrubbing tray , II) at least one inlet apparatus for process exhaust air arranged in the lower portion of the housing, preferably below the at least one cleaning stage, III) at least one withdrawal apparatus for scrubbing solution which may also contain solids, preferably at the lower end of the housing , IV) at least one withdrawal conduit for the cleaned exhaust air V) at least one feed conduit for scrubbing solution in the upper portion of the housing, above the at least one cleaning stage, - the withdrawal conduit for the cleaned exhaust air i) begins inside the housing above the at least one cleaning stage, ii) is passed downward inside the housing and iii) is passed out of the housing to the outside in the lower region of the housing below the cleaning stage(s). i) begins inside the housing above the at least one cleaning stage, ii) is passed downward inside the housing and iii) is passed out of the housing to the outside in the lower region of the housing below the cleaning stage(s).
A rotor blade for a gas turbine engine , comprising: an airfoil extending in span between a root region and a tip region ; and a tip portion extending at an angle (α 1 , α 2 , α 3 ) from said tip region of said airfoil , wherein said tip portion extends from a pressure side of said airfoil ; characterised in that : said tip portion forms a sweep angle (μ) that is defined between a chord axis (CL1) and a span axis (SP1) of said tip portion , wherein said tip portion includes an aft sweep or a forward sweep. an airfoil extending in span between a root region and a tip region ; and a tip portion extending at an angle (α 1 , α 2 , α 3 ) from said tip region of said airfoil , wherein said tip portion extends from a pressure side of said airfoil ; characterised in that : said tip portion forms a sweep angle (μ) that is defined between a chord axis (CL1) and a span axis (SP1) of said tip portion , wherein said tip portion includes an aft sweep or a forward sweep.
A photocurable inkjet printing ink composition containing photopolymerizable compounds and photopolymerization initiator, the photocurable inkjet printing ink composition satisfying A to D: A. 2-(allyloxy methyl) methyl acrylate is contained by 5 to 40 percent by mass in all photopolymerizable compounds; B. multifunctional monomers and/or multifunctional oligomers of 0°C or lower in glass transition temperature are contained by 5 to 20 percent by mass in all photopolymerizable compounds; C. amino group and/or amide group-containing monomers and/or oligomers are contained; and D. the ink composition has a viscosity of 30 mPa•s or lower at 25°C. wherein non-curable resins that function as a vehicle may not be compounded. A. 2-(allyloxy methyl) methyl acrylate is contained by 5 to 40 percent by mass in all photopolymerizable compounds; B. multifunctional monomers and/or multifunctional oligomers of 0°C or lower in glass transition temperature are contained by 5 to 20 percent by mass in all photopolymerizable compounds; C. amino group and/or amide group-containing monomers and/or oligomers are contained; and D. the ink composition has a viscosity of 30 mPa•s or lower at 25°C.
A liftgate structure, comprising: a structural inner panel with an outside surface and an inner surface having a lower perimeter surface area extending across substantially the entire width of the liftgate structure, the structural inner panel including a wiper motor housing recess formed on the inner surface ; and a tether , the tether being pinched between the structural inner panel and a structure ; characterized by the structure having an aperture and a shoulder and the tether having an over molded stop comprising a neck and a shoulder , wherein the aperture and the shoulder of the structure receive the over molded stop with its neck sliding through the aperture and its shoulder contacting the shoulder of the structure . a structural inner panel with an outside surface and an inner surface having a lower perimeter surface area extending across substantially the entire width of the liftgate structure, the structural inner panel including a wiper motor housing recess formed on the inner surface ; and a tether , the tether being pinched between the structural inner panel and a structure ; characterized by the structure having an aperture and a shoulder and the tether having an over molded stop comprising a neck and a shoulder , wherein the aperture and the shoulder of the structure receive the over molded stop with its neck sliding through the aperture and its shoulder contacting the shoulder of the structure .
Vehicle with trailer , operatively connected thereto through a cardan , characterised in that it includes sensing means of the angle (α; β) between the vehicle and the cardan , between the trailer and the cardan or between the vehicle and the trailer , comparison means of the angle with a threshold angle and means which disengage the power take-off upon exceeding in one direction the threshold angle and which engage it when the angle exceeds again the threshold angle in the opposite direction, characterised in that said trailer is a towed load and in that sensing means of the angle (α; β) are arranged around the cardan .
A beaded nonwoven membrane comprising polymeric nanofibers, and at least one active agent, wherein: - the nanofibers comprise beads distributed along the nanofiber length and have a mean diameter which is from 1.5 to 20 times the mean diameter of the nanofiber, - the active agent has a water solubility equal to or lower than 33 mg/mL, and - the total content of the active agent is physically entrapped within the membrane but externally arranged to the polymeric nanofibers of the membrane. - the nanofibers comprise beads distributed along the nanofiber length and have a mean diameter which is from 1.5 to 20 times the mean diameter of the nanofiber, - the active agent has a water solubility equal to or lower than 33 mg/mL, and - the total content of the active agent is physically entrapped within the membrane but externally arranged to the polymeric nanofibers of the membrane.
A method of sequencing a genomic nucleic acid of a single cell, the method comprising: isolating a plurality of double-stranded nucleic acids of chromosomes or chromosome fragments of a single cell, wherein each double-stranded nucleic acid of the plurality comprises a first strand of nucleic acid and a second strand of nucleic acid, and wherein the first strand of nucleic acid and the second strand of nucleic acid are complementary to each other; denaturing the double-stranded nucleic acids, thereby separating the first single stands from the complementary second single strands of the nucleic acids in a solution; randomly partitioning the solution comprising the denatured first single strands and second single strands substantially evenly among a plurality of separate chambers, thereby yielding a plurality of solutions, wherein each of the plurality of solutions is separate from each other solution, wherein each solution comprises a substantially similar number of denatured single strands, and wherein a probability that a first strand and a second strand of a same double-stranded nucleic acid are in separate solutions is at least 95%; amplifying each strand by no more than 1000-fold; and sequencing each strand after said amplifying. isolating a plurality of double-stranded nucleic acids of chromosomes or chromosome fragments of a single cell, wherein each double-stranded nucleic acid of the plurality comprises a first strand of nucleic acid and a second strand of nucleic acid, and wherein the first strand of nucleic acid and the second strand of nucleic acid are complementary to each other; denaturing the double-stranded nucleic acids, thereby separating the first single stands from the complementary second single strands of the nucleic acids in a solution; randomly partitioning the solution comprising the denatured first single strands and second single strands substantially evenly among a plurality of separate chambers, thereby yielding a plurality of solutions, wherein each of the plurality of solutions is separate from each other solution, wherein each solution comprises a substantially similar number of denatured single strands, and wherein a probability that a first strand and a second strand of a same double-stranded nucleic acid are in separate solutions is at least 95%; amplifying each strand by no more than 1000-fold; and sequencing each strand after said amplifying. amplifying each strand by no more than 1000-fold; and sequencing each strand after said amplifying.
Illumination apparatus for a microscope , having a laser unit , which generates at least one broadband laser light pulse , wherein light components of the broadband laser light pulse having different wavelengths are temporally offset with respect to one another, having a compensation unit in the beam path of the broadband laser light pulse , which compensation unit temporally offsets the light components of the broadband laser light pulse in such a way that they leave the illumination apparatus at the same time, and having an acousto-optic adjustable filter , which cuts out laser light in narrow spectral wavelength bands from the broadband laser light pulse so that after passing through the acousto-optic adjustable filter , the light components are spectrally limited and spectrally spaced apart from one another, wherein the compensation unit comprises a microstructured optical fibre as a compensation element .