mhurhangee/patent-ind-claim-en huggingface dataset:
A composition in the form of an O/W emulsion having oil phases dispersed in an aqueous phase, comprising: (a) at least one oil; (b) at least two hydrophilic UV filters comprising at least one hydrophilic UV-A filter and at least one hydrophilic UV-B filter; (c) water; and (d) emulsifiers comprising at least one nonionic emulsifier; wherein the number-average diameter of the oil phase droplets is less than 200 nm, and the amount of the oil is from 0.5 to 5% by weight relative to the total weight of the composition; the hydrophilic UV-A filter is selected from terephthalylidene dicamphor sulfonic acid and salts thereof, bisbenzoxazolyl derivatives chosen from disodium phenyl dibenzimidazole tetrasulfonate and salts thereof; the hydrophilic UV-B filter is selected from p-aminobenzoic (PABA) derivatives chosen from PABA, Glyceryl PABA and PEG-25 PABA and salts thereof, phenylbenzimidazole sulfonic acid and salts thereof, ferulic acid and salts thereof, salicylic acid and salts thereof, DEA methoxycinnamate and salts thereof, benzylidene camphor sulfonic acid and salts thereof, and camphor benzalkonium methosulfate and salts thereof; and the amount of the (b) hydrophilic UV filters is from 5 to 25% by weight relative to the total weight of the composition. (a) at least one oil; (b) at least two hydrophilic UV filters comprising at least one hydrophilic UV-A filter and at least one hydrophilic UV-B filter; (c) water; and (d) emulsifiers comprising at least one nonionic emulsifier; the hydrophilic UV-A filter is selected from terephthalylidene dicamphor sulfonic acid and salts thereof, bisbenzoxazolyl derivatives chosen from disodium phenyl dibenzimidazole tetrasulfonate and salts thereof; the hydrophilic UV-B filter is selected from p-aminobenzoic (PABA) derivatives chosen from PABA, Glyceryl PABA and PEG-25 PABA and salts thereof, phenylbenzimidazole sulfonic acid and salts thereof, ferulic acid and salts thereof, salicylic acid and salts thereof, DEA methoxycinnamate and salts thereof, benzylidene camphor sulfonic acid and salts thereof, and camphor benzalkonium methosulfate and salts thereof; and the amount of the (b) hydrophilic UV filters is from 5 to 25% by weight relative to the total weight of the composition.
Garment , especially sports garment, comprising a textile substrate which covers a part of the body of the wearer of the garment , wherein at least a section of the textile substrate is coated with at least two different Phase Change Materials , wherein a first Phase Change Material is arranged which has a phase transition temperature between 27 °C and 29 °C, characterized in that a second Phase Change Material is arranged which has a phase transition temperature between 35 °C and 37 °C, wherein both of the Phase Change Materials are in thermal contact with at least one thermochromic dye.
An insert configured to be inserted into a cuvette , the cuvette comprising exterior walls and a floor that define a volume adapted to contain a suspension liquid and particles, wherein at least a portion of the exterior walls is transparent to electromagnetic energy , the insert comprising: an upper viewing chamber wall and a lower viewing chamber wall extending in parallel to each other and, when inserted into the cuvette , being parallel to the floor and defining a viewing chamber ; a reflecting wall adjacent to the upper and lower viewing chamber walls and forming an angle with the lower viewing chamber wall ; backscatter chamber walls extending perpendicularly to the upper and lower viewing chamber walls , the backscatter chamber walls defining a backscatter chamber separated by the upper viewing chamber wall from the viewing chamber and in fluid communication with the viewing chamber , wherein the reflecting wall is adapted to reflect the electromagnetic energy , which is in use transmitted through the transparent portion of the exterior walls , into the backscatter chamber ; and a mixing chamber wall defining, when inserted into the cuvette , together with exterior walls and the floor , a mixing chamber separated from the viewing chamber by the lower viewing chamber wall and in fluid communication with the viewing chamber . an upper viewing chamber wall and a lower viewing chamber wall extending in parallel to each other and, when inserted into the cuvette , being parallel to the floor and defining a viewing chamber ; a reflecting wall adjacent to the upper and lower viewing chamber walls and forming an angle with the lower viewing chamber wall ; backscatter chamber walls extending perpendicularly to the upper and lower viewing chamber walls , the backscatter chamber walls defining a backscatter chamber separated by the upper viewing chamber wall from the viewing chamber and in fluid communication with the viewing chamber , wherein the reflecting wall is adapted to reflect the electromagnetic energy , which is in use transmitted through the transparent portion of the exterior walls , into the backscatter chamber ; and a mixing chamber wall defining, when inserted into the cuvette , together with exterior walls and the floor , a mixing chamber separated from the viewing chamber by the lower viewing chamber wall and in fluid communication with the viewing chamber .
A method for determining a carry over of an analyte from a previous sample into a sample of interest on a liquid chromatography mass spectrometer (LC-MS) device, the method comprising the following steps: (a) determining at least one chromatogram of said sample of interest on said LC-MS device; (b) determining a background height of the chromatogram; and (c) determining the carry over of the analyte from said previous sample into the sample of interest based on the background height. (a) determining at least one chromatogram of said sample of interest on said LC-MS device; (b) determining a background height of the chromatogram; and (c) determining the carry over of the analyte from said previous sample into the sample of interest based on the background height.
Method of manufacturing an ophthalmic lens to be mounted into a frame, comprising: - a step of acquiring an optical prescription (F1) for the future wearer of the ophthalmic lens and an information (F2) relative to the ophthalmic lens and/or to said future wearer and/or to said frame, - a step of calculating a surfacing instruction (F4) for machining at least one optical face of the ophthalmic lens , said surfacing instruction (F4) being determined so that the ophthalmic lens once surfaced satisfies said optical prescription (F1), and - a step of surfacing during which said at least one optical face of the ophthalmic lens is surfaced according to said surfacing instruction (F4), characterized in that , during said step of calculating, said surfacing instruction (F4) is calculated so that said optical face of the ophthalmic lens once surfaced includes a mark that results from said step of surfacing, that forms a code associated with said information (F2), said mark being shaped at the same time as the remainder of said optical face , thanks to the same tool. - a step of acquiring an optical prescription (F1) for the future wearer of the ophthalmic lens and an information (F2) relative to the ophthalmic lens and/or to said future wearer and/or to said frame, - a step of calculating a surfacing instruction (F4) for machining at least one optical face of the ophthalmic lens , said surfacing instruction (F4) being determined so that the ophthalmic lens once surfaced satisfies said optical prescription (F1), and - a step of surfacing during which said at least one optical face of the ophthalmic lens is surfaced according to said surfacing instruction (F4),
. Stamped sheet metal part for the internal structure and mechanical strength of a front foot of a motor vehicle body, comprising a lateral surface to be positioned vertically and, with respect to the vehicle, longitudinally in the volume of the front foot between the wheel passage (PR) and the door recess (EP), said lateral surface being bounded by a front flank (FJ1) and a rear flank (FJ2), and carrying an interface for passage of cart elements A lower front door end, characterized in that said side surface further carries first and second ribs (N1, N2) below the lower door hinge passage interface extending transversely from the approach of the front flank (FJ1) to the approach of the rear flank (FJ2).
A component for a gas turbine engine , comprising: a body portion that extends between a leading edge and a trailing edge , the body portion being a vane or a blade and including a filleted section that is immediately adjacent to a platform of said component , the body portion including an internal cooling circuit having a flared region having a thickness that increases as the trailing edge is approached at a consistent span and a non-flared region having a thickness that remains constant or decreases as the trailing edge is approached at a consistent span, wherein the thickness of the internal cooling circuit is defined as a distance from a pressure side to a suction side of the internal cooling circuit , and the component further includes a plurality of internal cooling circuit discharge slots , characterised in that : at least one first discharge slot is disposed at least partially within the flared region and at least one second discharge slot is radially inward of the at least one first cooling circuit discharge slot , and only a portion of the flared region is disposed in the filleted section of the body portion .
Measuring system for determining the position of a piston rod of a pressure medium cylinder relative to a reference point, wherein the measuring system has a code track that is applied to the piston rod , runs along the piston rod and is formed by grooves and plateaus running in the circumferential direction in a base material of the piston rod , and wherein the measuring system has at least a first sensor system that is stationary relative to the reference point and has a plurality of sensor elements that are arranged parallel to and radially spaced from the piston rod , and wherein each sensor element scans a limited number of code elements , characterized in that , to form the code track, at least trinary code elements are used, which form a De Bruijn sequence and/or a De Bruijn subsequence.
Method for control and regulation of an internal combustion engine with exhaust gas recirculation, in which an EGR rate (AGRR) is determined by means of a Kalman filter from calculated and measured variables of the gas path and from calculated and measured variables of the combustion, characterised in that nitrogen oxide values (NOx) are taken into account as emission values of the combustion when calculating the EGR rate (AGRR).
A method of encoding video data comprising: performing a first prediction process for a first block of video data to produce a first residual; determining that a first transform process of a plurality of transform processes is to be applied to the first residual; applying the first transform process to the first residual to generate first transform coefficients for the first block of video data; encoding the first transform coefficients; performing a second prediction process for a second block of video data to produce a second residual; determining that a second transform process is to be applied to the second residual, wherein the second transform process comprises the first transform process and at least one of a first pre-adjustment operation or a first post-adjustment operation to apply to the second residual in addition to the first transform process, wherein the at least one of the first pre-adjustment operation or the first post-adjustment operation comprises a set of one or more Givens rotations; applying the first transform process and at least one of the first pre-adjustment operation or the first post-adjustment operation to the second residual to generate second transform coefficients for the second block of video data, wherein the first pre-adjustment operation, if applied, is applied prior to applying the first transform process, and wherein the first post-adjustment operation, if applied, is applied after applying the first transform process; and encoding the second transform coefficients. performing a first prediction process for a first block of video data to produce a first residual; determining that a first transform process of a plurality of transform processes is to be applied to the first residual; applying the first transform process to the first residual to generate first transform coefficients for the first block of video data; encoding the first transform coefficients; performing a second prediction process for a second block of video data to produce a second residual; determining that a second transform process is to be applied to the second residual, wherein the second transform process comprises the first transform process and at least one of a first pre-adjustment operation or a first post-adjustment operation to apply to the second residual in addition to the first transform process, wherein the at least one of the first pre-adjustment operation or the first post-adjustment operation comprises a set of one or more Givens rotations; applying the first transform process and at least one of the first pre-adjustment operation or the first post-adjustment operation to the second residual to generate second transform coefficients for the second block of video data, wherein the first pre-adjustment operation, if applied, is applied prior to applying the first transform process, and wherein the first post-adjustment operation, if applied, is applied after applying the first transform process; and encoding the second transform coefficients.
A programmable mass flow controller comprising: an input configured to receive an input signal; an output configured to provide an output signal; a communication interface configured to receive program instructions including instructions on the operational configuration of the mass flow controller; a flow sensor configured to sense the flow of gas through the mass flow controller; a control valve configured to control the flow of gas through the mass flow controller; memory configured to receive programming data determining the programmed configuration of the mass flow controller; and a processor/controller for operating the mass flow controller in accordance with the programmed configuration; wherein the input signal to the mass flow controller initiates the operation of the mass flow controller to deliver a prescribed amount of gas, and the output signal is generated as a function of the timing of the delivery and the output signal is a trigger signal input used to synchronize the mass flow controller to at least one other device. an input configured to receive an input signal; an output configured to provide an output signal; a communication interface configured to receive program instructions including instructions on the operational configuration of the mass flow controller; a flow sensor configured to sense the flow of gas through the mass flow controller; a control valve configured to control the flow of gas through the mass flow controller; memory configured to receive programming data determining the programmed configuration of the mass flow controller; and a processor/controller for operating the mass flow controller in accordance with the programmed configuration; wherein the input signal to the mass flow controller initiates the operation of the mass flow controller to deliver a prescribed amount of gas, and the output signal is generated as a function of the timing of the delivery and the output signal is a trigger signal input used to synchronize the mass flow controller to at least one other device.
A method for a User Equipment, UE, the method comprising the UE: responsive, at least in part, to an ATtention, AT, command, issued by a device, for touch-sensitive input device action, emulating a meta-navigation gesture for a touch-sensitive input device including a display area and a non-display area ; and responsive, at least in part, to an ATtention, AT, command, issued by the device, for orientation information, providing orientation information comprising at least one of: unsolicited result codes, unsolicited ATtention, AT, commands, or unsolicited events; wherein the meta-navigation gesture comprises a gesture having an origin in the non-display area and moving in a direction into the display area , and wherein the direction is determined by the orientation information. responsive, at least in part, to an ATtention, AT, command, issued by a device, for touch-sensitive input device action, emulating a meta-navigation gesture for a touch-sensitive input device including a display area and a non-display area ; and responsive, at least in part, to an ATtention, AT, command, issued by the device, for orientation information, providing orientation information comprising at least one of: unsolicited result codes, unsolicited ATtention, AT, commands, or unsolicited events; wherein the meta-navigation gesture comprises a gesture having an origin in the non-display area and moving in a direction into the display area , and wherein the direction is determined by the orientation information.
A suturing device for applying a suture through body tissue, the suturing device comprising: an elongate body having a proximal end, a distal end, and a handle at the proximal end; a suture holder connected to the elongate body at the distal end and configured to hold a portion of suture; and a needle housed within the elongate body, the needle configured to move outward from a retracted position within the elongate body to pass through body tissue and engage the portion of suture held by the suture holder, the needle further being retractable away from the suture holder back through the body tissue to draw the portion of suture through the body tissue; wherein when the needle first moves out of the elongate body the tip of the needle moves in a first direction and when the needle reaches the portion of suture held by the suture holder the tip of the needle is moving in a second direction, the first direction being different from the second direction; characterized in that the suturing device further comprises a sheath having a longitudinal axis generally aligned with a longitudinal axis of the elongate body, wherein the sheath is movable relative to the elongate body; wherein at least a portion of the sheath is configured to be positioned between the tip of the needle in the retracted position and the body tissue to thereby separate the needle a defined distance from the body tissue. an elongate body having a proximal end, a distal end, and a handle at the proximal end; a suture holder connected to the elongate body at the distal end and configured to hold a portion of suture; and a needle housed within the elongate body, the needle configured to move outward from a retracted position within the elongate body to pass through body tissue and engage the portion of suture held by the suture holder, the needle further being retractable away from the suture holder back through the body tissue to draw the portion of suture through the body tissue; wherein when the needle first moves out of the elongate body the tip of the needle moves in a first direction and when the needle reaches the portion of suture held by the suture holder the tip of the needle is moving in a second direction, the first direction being different from the second direction; characterized in that the suturing device further comprises a sheath having a longitudinal axis generally aligned with a longitudinal axis of the elongate body, wherein the sheath is movable relative to the elongate body; wherein at least a portion of the sheath is configured to be positioned between the tip of the needle in the retracted position and the body tissue to thereby separate the needle a defined distance from the body tissue.
A method of performing a tile-based rendering of an object in an image frame, which object is formed by a least one path, without using a stencil buffer, the method comprising: obtaining path data including information about vertices included in the path and a command to define the path with reference to the vertices; calculating for each pixel a winding number of the path, the winding number representing the number and rotational sense of rotations made during the rendering of the path when viewed from a predetermined direction from the pixel; and determining for the pixel whether to perform shading based on the winding number of the pixel which is the winding number of the tile in which the pixel is located; wherein the step of calculating comprises: determining, from the path data, through which tiles of the frame the path passes; calculating for each tile of the frame a first winding number of the path, based on a position of the tile and a proceeding direction of the path; and, for only those tiles through which the path passes, calculating a second winding number of the path, based on the first winding number and on the proceeding direction of the path that passes through the tile; wherein the determination whether to perform shading is based on the second winding number for pixels in tiles through which the path passes, and on the first winding number for the other pixels. obtaining path data including information about vertices included in the path and a command to define the path with reference to the vertices; calculating for each pixel a winding number of the path, the winding number representing the number and rotational sense of rotations made during the rendering of the path when viewed from a predetermined direction from the pixel; and determining for the pixel whether to perform shading based on the winding number of the pixel which is the winding number of the tile in which the pixel is located; wherein the step of calculating comprises: determining, from the path data, through which tiles of the frame the path passes; calculating for each tile of the frame a first winding number of the path, based on a position of the tile and a proceeding direction of the path; and, for only those tiles through which the path passes, calculating a second winding number of the path, based on the first winding number and on the proceeding direction of the path that passes through the tile; determining, from the path data, through which tiles of the frame the path passes; calculating for each tile of the frame a first winding number of the path, based on a position of the tile and a proceeding direction of the path; and, for only those tiles through which the path passes, calculating a second winding number of the path, based on the first winding number and on the proceeding direction of the path that passes through the tile; wherein the determination whether to perform shading is based on the second winding number for pixels in tiles through which the path passes, and on the first winding number for the other pixels.
A transport concrete mixer having a mixing drum drivable for rotating, a chute for delivering the concrete, a water tank , a water meter , a water pipe to the mixing drum , as well as a water hose for cleaning the mixing drum and the chute , wherein the water supplied to the mixing drum through the water pipe and the water withdrawn via the water hose are measurable and detectable independently from each other by the water meter , and wherein a switch is provided for switching on the water delivery through the water hose , characterized in that the switch for switching on the water delivery through the water hose includes two positions "on", namely one for cleaning the inside of the drum and one for cleaning the chute and for cleaning of the outside of the drum, and that after emptying the mixing drum , either only the water delivery through the water hose for cleaning the inside of the drum is detectable or that in addition the water delivery through the water hose for cleaning the chute and the outside of the drum is detectable, and these values are transmittable to a headquarter.