mhurhangee/patent-ind-claim-en huggingface dataset:
A flexible container comprising: A. a front panel , a rear panel , a first gusseted side panel , and a second gusseted side panel , the gusseted side panels adjoining the front panel and the rear panel along peripheral seals to form a chamber; B. each peripheral seal having: (i) an arcuate body seal inner edge with opposing ends, (ii) a tapered seal inner edge extending from each end of the body seal; C. wherein the flexible container comprises four arcuate body seal inner edges , each arcuate body seal inner edge having a radius of curvature from 3.0 mm to 100.0 mm; wherein each arcuate body seal inner edge has a peak arc point ; and a plane (L) through all four of the peak arc points defines a lower chamber volume that is greater than 50% of the total volume to the container. A. a front panel , a rear panel , a first gusseted side panel , and a second gusseted side panel , the gusseted side panels adjoining the front panel and the rear panel along peripheral seals to form a chamber; B. each peripheral seal having: (i) an arcuate body seal inner edge with opposing ends, (ii) a tapered seal inner edge extending from each end of the body seal; (i) an arcuate body seal inner edge with opposing ends, (ii) a tapered seal inner edge extending from each end of the body seal; C. wherein the flexible container comprises four arcuate body seal inner edges , each arcuate body seal inner edge having a radius of curvature from 3.0 mm to 100.0 mm;
A gearbox, having - a central shaft , which is rotatably mounted relative to a stationary frame element by means of at least one central shaft bearing ; - a first sun gear arranged concentrically around the central shaft and fixedly connected to the frame element ; - a power transmission means arranged in a stationary manner relative to the central shaft ; and - at least one first gearbox assembly rotating relative to the frame element , and comprising - a support plate , the first portion of which is non-rotatably connected to the central shaft and on the second portion of which a planetary gear is mounted by means of a planetary gear bearing , wherein the planetary gear meshes with the first sun gear and a crank arm rigidly engages with the planetary gear ; and - a driving crank , on which the crank arm is pivotally mounted by means of a driving crank/crank arm bearing and which is supported relative to the support plate by means of a kinematic coupling means , wherein the kinematic coupling means is a swing arm , characterized in that the swing arm is rotatably mounted on the support plate with its first end by means of a swing arm/support plate bearing and is rotatably mounted on the driving crank with its second end by means of a swing arm/driving crank bearing . - a central shaft , which is rotatably mounted relative to a stationary frame element by means of at least one central shaft bearing ; - a first sun gear arranged concentrically around the central shaft and fixedly connected to the frame element ; - a power transmission means arranged in a stationary manner relative to the central shaft ; and - at least one first gearbox assembly rotating relative to the frame element , and comprising - a support plate , the first portion of which is non-rotatably connected to the central shaft and on the second portion of which a planetary gear is mounted by means of a planetary gear bearing , wherein the planetary gear meshes with the first sun gear and a crank arm rigidly engages with the planetary gear ; and - a driving crank , on which the crank arm is pivotally mounted by means of a driving crank/crank arm bearing and which is supported relative to the support plate by means of a kinematic coupling means ,
A method for aerial image capture using an unmanned and controllable aircraft with camera , in particular a drone, during a flight movement of the aircraft , having - a progressive determination of a camera position and an alignment of an optical camera axis and - a capture of an aerial image series, characterized in that, the progressive determination of the alignment of the optical camera axis is carried out by an inertial measuring unit (IMU), which continuously determines a current alignment of the optical camera axis, and that for each aerial image (21a-b) of the aerial image series, the capture of the respective aerial image (21a-b) is triggered - as the aircraft flies through a respective image triggering region , wherein the location of the respective image triggering region is determined at least by in each case a triggering position (20a-c), which is associated with the respective image triggering region , in a flight plan, and - in dependence on the alignment of the camera axis continuously determined by the inertial measuring unit (IMU) during the flight through the respective image triggering region in regard to a fulfillment of a defined maximum angle deviation (α) with respect to a predetermined spatial alignment . - a progressive determination of a camera position and an alignment of an optical camera axis and - a capture of an aerial image series, characterized in that, the progressive determination of the alignment of the optical camera axis is carried out by an inertial measuring unit (IMU), which continuously determines a current alignment of the optical camera axis, and that for each aerial image (21a-b) of the aerial image series, the capture of the respective aerial image (21a-b) is triggered - as the aircraft flies through a respective image triggering region , wherein the location of the respective image triggering region is determined at least by in each case a triggering position (20a-c), which is associated with the respective image triggering region , in a flight plan, and - in dependence on the alignment of the camera axis continuously determined by the inertial measuring unit (IMU) during the flight through the respective image triggering region in regard to a fulfillment of a defined maximum angle deviation (α) with respect to a predetermined spatial alignment .
A method of preparing a translucent oil-in-water (O/W) nano-emulsion cosmetic composition, comprising: 1) mixing water with a polyol; 2) mixing one or more oils selected from the group consisting of silicone oil, ester-based oil and hydrocarbon-based oil with a polyglyceryl-based emulsifier, wherein the polyglyceryl-based emulsifier is polyglyceryl 10-stearate; and 3) mixing the mixture of 1) with the mixture of 2), and then high-pressure emulsifying the resulting mixture, wherein the oil is contained at 5 to 30 wt% based on the total weight of the composition; and wherein the high-pressure emulsification is performed two times or more. 1) mixing water with a polyol; 2) mixing one or more oils selected from the group consisting of silicone oil, ester-based oil and hydrocarbon-based oil with a polyglyceryl-based emulsifier, wherein the polyglyceryl-based emulsifier is polyglyceryl 10-stearate; and 3) mixing the mixture of 1) with the mixture of 2), and then high-pressure emulsifying the resulting mixture, wherein the oil is contained at 5 to 30 wt% based on the total weight of the composition; and wherein the high-pressure emulsification is performed two times or more.
Electrical insulation system for medium- or high-voltage electrical switchgear having a low environmental impact, comprising: a) a gaseous medium comprising a mixture of - one or more fluoroketones having between 4 and 12 carbons - at least another additional dielectric gas, other than the fluoroketones, with a vapor pressure greater than 500 mbar and less than 15000 mbar at 0°C, - one or more vector gases, and b) a molecular sieve with a pore size of 3 to 4 Å and a polar surface with the proviso that the gaseous medium does not contain CO 2 . a) a gaseous medium comprising a mixture of - one or more fluoroketones having between 4 and 12 carbons - at least another additional dielectric gas, other than the fluoroketones, with a vapor pressure greater than 500 mbar and less than 15000 mbar at 0°C, - one or more vector gases, and - one or more fluoroketones having between 4 and 12 carbons - at least another additional dielectric gas, other than the fluoroketones, with a vapor pressure greater than 500 mbar and less than 15000 mbar at 0°C, - one or more vector gases, and b) a molecular sieve with a pore size of 3 to 4 Å and a polar surface with the proviso that the gaseous medium does not contain CO 2 .
A method for wireless magnetic communication consisting in the processing of information encrypted by the transmitter using a magnetic field and decrypted by the receiver comprising proximity magnetic sensors is characterised in that the transmitter is equipped with a magnetic system with a planarly shaped configuration of magnetic elements, and then the transmitter is placed against the receiver which is coupled to a first microprocessor controller, and then using the magnetic sensors of the receiver the configuration of the magnetic field generated by the magnetic elements of the transmitter is recreated, and next, using the first microprocessor controller, one compares such configuration with the pattern implemented therein, and then, in accordance with the software implemented in the first microprocessor controller further actions corresponding with that pattern are launched.
A lighting apparatus, comprising: a driver ; a bottom cover having a first central opening and a driver container for storing the driver; a light source module having multiple LED modules and a second central opening ; a lens module having a third central opening and multiple diffusion lenses respectively placed above the multiple LED modules , wherein the lens module is fixed to the bottom cover to make the light source module , the driver , the lens module and the bottom cover as a portable module, and the first central opening , the second central opening and the third central opening together form a main central opening ; a light passing cover ; and a base plate for fixing to an installation platform , wherein the bottom cover is fixed to the base plate , and the base plate has multiple connectors for detachably connecting the light passing cover , wherein the bottom cover has an inner wall defining the first central opening , characterised in that the base plate has at least a central protruding unit for aligning the inner wall of the bottom cover , and there are multiple central protruding units , each central protruding unit has an elastic hook for deforming when inserting the bottom cover to the base plate and for holding the bottom cover to the base plate with elastic force of the multiple central protruding units . a driver ; a bottom cover having a first central opening and a driver container for storing the driver; a light source module having multiple LED modules and a second central opening ; a lens module having a third central opening and multiple diffusion lenses respectively placed above the multiple LED modules , wherein the lens module is fixed to the bottom cover to make the light source module , the driver , the lens module and the bottom cover as a portable module, and the first central opening , the second central opening and the third central opening together form a main central opening ; a light passing cover ; and a base plate for fixing to an installation platform , wherein the bottom cover is fixed to the base plate , and the base plate has multiple connectors for detachably connecting the light passing cover , wherein the bottom cover has an inner wall defining the first central opening , characterised in that the base plate has at least a central protruding unit for aligning the inner wall of the bottom cover , and there are multiple central protruding units , each central protruding unit has an elastic hook for deforming when inserting the bottom cover to the base plate and for holding the bottom cover to the base plate with elastic force of the multiple central protruding units .
A grommet placer instrument for use in joint implant surgery, comprising: a grommet placer shaft comprising a proximal end and a distal end; a grommet placer head located on the proximal end of the grommet placer shaft; characterized in that the grommet placer instrument further comprises: at least two flexible split shafts located on the distal end of the grommet placer shaft; a grommet stop extending from each of the at least two flexible split shafts; and a grommet clip extending from each of the at least two flexible split shafts; wherein the grommet stops are shaped and configured to prevent a grommet placed on the grommet placer instrument from sliding proximally on the grommet placer shaft, and further wherein the grommet clips are shaped and configured to prevent the grommet from falling off tips of the grommet placer. a grommet placer shaft comprising a proximal end and a distal end; a grommet placer head located on the proximal end of the grommet placer shaft; at least two flexible split shafts located on the distal end of the grommet placer shaft; a grommet stop extending from each of the at least two flexible split shafts; and a grommet clip extending from each of the at least two flexible split shafts;
A light source comprising an optical waveguide, wherein said optical waveguide comprises: at least one homogenizing light guide element to perform homogenization of input radiation generated by an input radiation source and at least one photoluminescence element , whereby said at least one photoluminescence element converts at least parts of said input radiation through photoluminescence to transformed light, characterized in that said optical waveguide is an optical fiber and that said at least one photoluminescence element and said at least one homogenizing light guide element are integrated with said optical fiber . said optical waveguide is an optical fiber and that said at least one photoluminescence element and said at least one homogenizing light guide element are integrated with said optical fiber .
A method of selecting a location determination technique for purposes of estimating a location of a mobile device , comprising: detecting a request to locate the mobile device ; determining an availability of a plurality of location determination techniques that may be used to estimate the location of a mobile device ; determining a quality of service criterion associated with the detected request; determining at least one of a cost criterion associated with the detected request or a resource criterion associated with the detected request; assigning weights to the associated quality of service criterion and the at least one of the associated cost criterion or associated resource criterion ; ranking the plurality of location determination techniques according to the quality of service criterion and at least one of the cost criterion or resource criterion , wherein the ranking is performed utilizing the weighted quality of service criterion and at least one of the weighted cost criterion and the weighted resource criterion ; and selecting an available location determination technique according to the ranking. detecting a request to locate the mobile device ; determining an availability of a plurality of location determination techniques that may be used to estimate the location of a mobile device ; determining a quality of service criterion associated with the detected request; determining at least one of a cost criterion associated with the detected request or a resource criterion associated with the detected request; assigning weights to the associated quality of service criterion and the at least one of the associated cost criterion or associated resource criterion ; ranking the plurality of location determination techniques according to the quality of service criterion and at least one of the cost criterion or resource criterion , wherein the ranking is performed utilizing the weighted quality of service criterion and at least one of the weighted cost criterion and the weighted resource criterion ; and selecting an available location determination technique according to the ranking.
A quantum dot device , comprising: a first electrode and a second electrode each having a surface opposite the other; and a quantum dot layer between the first electrode and the second electrode, and further comprising: an electron transport layer between the quantum dot layer and the second electrode, the electron transport layer comprising first inorganic nanoparticles and a first organic material; and an electron injection layer between the electron transport layer and the second electrode, characterized in that the electron injection layer comprising second inorganic nanoparticles and a second organic material, wherein a ratio by weight of an amount of the second organic material to a total amount of the second inorganic nanoparticles and the second organic material in the electron injection layer is less than a ratio by weight of an amount of the first organic material to a total amount of the first inorganic nanoparticles and the first organic material in the electron transport layer. a first electrode and a second electrode each having a surface opposite the other; and a quantum dot layer between the first electrode and the second electrode, and further comprising: an electron transport layer between the quantum dot layer and the second electrode, the electron transport layer comprising first inorganic nanoparticles and a first organic material; and an electron injection layer between the electron transport layer and the second electrode, characterized in that the electron injection layer comprising second inorganic nanoparticles and a second organic material, wherein a ratio by weight of an amount of the second organic material to a total amount of the second inorganic nanoparticles and the second organic material in the electron injection layer is less than a ratio by weight of an amount of the first organic material to a total amount of the first inorganic nanoparticles and the first organic material in the electron transport layer. an electron transport layer between the quantum dot layer and the second electrode, the electron transport layer comprising first inorganic nanoparticles and a first organic material; and an electron injection layer between the electron transport layer and the second electrode, characterized in that the electron injection layer comprising second inorganic nanoparticles and a second organic material, wherein a ratio by weight of an amount of the second organic material to a total amount of the second inorganic nanoparticles and the second organic material in the electron injection layer is less than a ratio by weight of an amount of the first organic material to a total amount of the first inorganic nanoparticles and the first organic material in the electron transport layer.
A catalyst, which meets one of two conditions and as follows: 4wt.%-6wt.% of Si, 5wt.%-10wt.% of P, 25wt.%-35wt.% of Ca, 8wt.%-21wt.% of Fe, 36wt.%-41wt.% of O, and 0.1wt.%-5wt.% of Mg, Al, Mn, or a combination thereof, based on the weight of the catalyst; and 3wt.%-6wt.% of Al, 6wt.%-8wt.% of Si, 12wt.%-16wt.% of P, 28wt.%-32wt.% of Ca, 38wt.%-50wt.% of O, and 0.1wt.%-3wt.% of Mg, S, K, Ti, Mn, Fe, or a combination thereof, based on the weight of the catalyst. 4wt.%-6wt.% of Si, 5wt.%-10wt.% of P, 25wt.%-35wt.% of Ca, 8wt.%-21wt.% of Fe, 36wt.%-41wt.% of O, and 0.1wt.%-5wt.% of Mg, Al, Mn, or a combination thereof, based on the weight of the catalyst; and 3wt.%-6wt.% of Al, 6wt.%-8wt.% of Si, 12wt.%-16wt.% of P, 28wt.%-32wt.% of Ca, 38wt.%-50wt.% of O, and 0.1wt.%-3wt.% of Mg, S, K, Ti, Mn, Fe, or a combination thereof, based on the weight of the catalyst.
A system comprising: a needle ; a chamber formed in a housing , wherein the needle is disposed at least partially within the chamber; a propellant disposed within the chamber; a piston disposed within the chamber, wherein the needle is coupled to the piston, wherein the piston is configured to slidably move within the chamber, wherein the propellant is ignitable to slidably move the piston within the chamber to drive the needle into skin to form a puncture in the skin; and a spring coupled to the piston, wherein the piston slidably moving within the chamber to drive the needle into skin compresses the spring such that, subsequent to the needle being driven into the skin, the spring exerts a force to retract the needle from the skin; wherein a piston vent is formed through the piston and a chamber vent is formed through the housing, wherein the piston vent and chamber vent are configured to allow gases produced by ignition of the propellant to vent out of the chamber so that the spring can retract the needle. a needle ; a chamber formed in a housing , wherein the needle is disposed at least partially within the chamber; a propellant disposed within the chamber; a piston disposed within the chamber, wherein the needle is coupled to the piston, wherein the piston is configured to slidably move within the chamber, wherein the propellant is ignitable to slidably move the piston within the chamber to drive the needle into skin to form a puncture in the skin; and a spring coupled to the piston, wherein the piston slidably moving within the chamber to drive the needle into skin compresses the spring such that, subsequent to the needle being driven into the skin, the spring exerts a force to retract the needle from the skin; wherein a piston vent is formed through the piston and a chamber vent is formed through the housing, wherein the piston vent and chamber vent are configured to allow gases produced by ignition of the propellant to vent out of the chamber so that the spring can retract the needle.
A method for preparing a polymer composition having a kinematic viscosity of less than 25 mm 2 /s measured at 100°C according to ASTM D 445, said method comprising the steps of: a) preparing a reaction mixture comprising as component A) an ethylenically unsaturated monomer or a mixture of ethylenically unsaturated monomers, and as component B) a 1 -alkene or a mixture of 1 -alkenes; b) adding a Co(II) complex as a catalytic chain transfer agent to the reaction mixture; c) adding a radical initiator; and d) reacting the reaction mixture to obtain the polymer composition, wherein the total amount of the radical initiator added to the reaction mixture is at least 0.05% by weight relative to the total weight of components A) and B); wherein the component A) is a compound of formula (I) or a mixture of compounds of formula (I) wherein R 1 and R 2 independently represent a hydrogen atom or a group of the formula -COO R 5 , R 3 represents a hydrogen atom or a methyl group, R 4 represents a C 1 to C 30 alkyl group, a C 2 to C 30 alkenyl group, a C 2 to C 30 alkinyl group or a C 3 to C 30 cycloalkyl group, and R 5 represents a hydrogen atom or a C 1 to C 30 alkyl group, a C 2 to C 30 alkenyl group, or a C 2 to C 30 alkinyl group, and wherein the reaction mixture comprises at least 50% by weight of component A) relative to the total weight of components A) and B). a) preparing a reaction mixture comprising as component A) an ethylenically unsaturated monomer or a mixture of ethylenically unsaturated monomers, and as component B) a 1 -alkene or a mixture of 1 -alkenes; b) adding a Co(II) complex as a catalytic chain transfer agent to the reaction mixture; c) adding a radical initiator; and d) reacting the reaction mixture to obtain the polymer composition, wherein the total amount of the radical initiator added to the reaction mixture is at least 0.05% by weight relative to the total weight of components A) and B); wherein the component A) is a compound of formula (I) or a mixture of compounds of formula (I) wherein R 1 and R 2 independently represent a hydrogen atom or a group of the formula -COO R 5 , R 3 represents a hydrogen atom or a methyl group, R 4 represents a C 1 to C 30 alkyl group, a C 2 to C 30 alkenyl group, a C 2 to C 30 alkinyl group or a C 3 to C 30 cycloalkyl group, and R 5 represents a hydrogen atom or a C 1 to C 30 alkyl group, a C 2 to C 30 alkenyl group, or a C 2 to C 30 alkinyl group, and wherein the reaction mixture comprises at least 50% by weight of component A) relative to the total weight of components A) and B).