mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting data points and spatial modeling using a portable device, the method comprising the acts of: determining position of the portable device; detecting data points by an integrated radar sensor of the portable device, wherein the data points are determined for one or more objects to generate a three-dimensional point cloud of the one or more objects, wherein the three-dimensional point cloud is generated relative to the position of the portable device; storing, by the portable device, the data points; storing, by the portable device, the three-dimensional point cloud; and tracking the one or more objects based on the data points and the three-dimensional point cloud, wherein each data point is associated with a point in space associated with an object detected by the integrated radar sensor and each data point is assigned a coordinate relative to the position of the portable device; wherein the integrated radar sensor is a solid-state or chip-based radar sensor, configured for beam steering, or vertical and horizontal scanning, to generate the three-dimensional point cloud; wherein data points captured from different positions of the portable device are correlated based on measurements from multiple reference points and geospatial data for each point. determining position of the portable device; detecting data points by an integrated radar sensor of the portable device, wherein the data points are determined for one or more objects to generate a three-dimensional point cloud of the one or more objects, wherein the three-dimensional point cloud is generated relative to the position of the portable device; storing, by the portable device, the data points; storing, by the portable device, the three-dimensional point cloud; and tracking the one or more objects based on the data points and the three-dimensional point cloud, wherein each data point is associated with a point in space associated with an object detected by the integrated radar sensor and each data point is assigned a coordinate relative to the position of the portable device; wherein the integrated radar sensor is a solid-state or chip-based radar sensor, configured for beam steering, or vertical and horizontal scanning, to generate the three-dimensional point cloud; wherein data points captured from different positions of the portable device are correlated based on measurements from multiple reference points and geospatial data for each point.
A fastening structure for fixing an object to a to-be-fixed member by inserting a threaded rod of a bolt for fixing the object through a fixing hole of the to-be-fixed member in a manner such that an end portion of the threaded rod protrudes from the fixing hole, and screwing a machine screw with a proper torque into a nut which is provided on the end portion via a washer, wherein the washer has an inclined surface formed on a first side thereof which faces the nut, and has a flat surface formed on a second side thereof which is opposite to the first side; the inclined surface is formed so as to have a gradually decreasing height in a tightening direction of the nut; the machine screw is screwed into the nut in a direction such that an axis thereof is orthogonal to the inclined surface, and the machine screw has an end which protrudes to contact the inclined surface; and the inclined surface has a smaller coefficient of friction than the second side of the washer. the inclined surface is formed so as to have a gradually decreasing height in a tightening direction of the nut; the machine screw is screwed into the nut in a direction such that an axis thereof is orthogonal to the inclined surface, and the machine screw has an end which protrudes to contact the inclined surface; and the inclined surface has a smaller coefficient of friction than the second side of the washer.
Method for the management of a display of a view of an application (AppC), said application being executed on a non-secured processor of an electronic data entry device that furthermore comprises a secured processor, said application (AppC) delivering at least one current view, comprising a set of pixels, to be displayed on a screen of said device, said method comprising, under the control of said secured processor a step of analysis of said current view, delivering at least one piece of data representing a presence of at least one suspect pattern, said step of analysis being implemented by a remote server with which said secured processor is capable of communicating by means of a communications network and/or by said secured processor of the electronic data entry device, said method being characterized in that said step of analysis is implemented when one of the following conditions is verified: - said application is absent from a predefined list of trusted applications; - said application is present in said predefined list of trusted applications, and said current view is absent from a list of known views for said application; and said method being further characterized in that it comprises, when a presence of at least one suspect pattern is detected within said current view, a step of implementation by the secured processor of at least one protection measure. - said application is absent from a predefined list of trusted applications; - said application is present in said predefined list of trusted applications, and said current view is absent from a list of known views for said application; and
A beverage product comprising: water; D-psicose; erythritol; and a sweetener component, wherein said sweetener component comprises a sweetening amount of rebaudioside M. water; D-psicose; erythritol; and a sweetener component, wherein said sweetener component comprises a sweetening amount of rebaudioside M.
Device for spreading a fibre bundle which is feedable from a fibre bundle supply to a fibre consumer, by way of a resistance and of at least one first impulse drive (4.1) that interacts with the resistance, characterized in that the fibre bundle by means of the impulse drive (4.1) during spreading is impingeable in an alternating manner in predefinable sequences with an additional speed component in the conveying direction of said fibre bundle and with an additional speed component counter to the conveying direction, or said fibre bundle during spreading is impingeable in predefined sequences with an additional speed component only in the conveying direction of the fibre bundle, or is impingeable in predefinable sequences only counter to the conveying direction of the fibre bundle.
Process for the production of poly(ethylene 2,5-furandicarboxylate) from 2,5-furandicarboxylic acid comprising the steps of: esterification of 2,5- furandicarboxylic acid with ethylene glycol in the presence of 3,4-furandicarboxylic acid and triol in the presence of at least one catalyst in order to obtain a compound that is subsequently submitted to polycondensation in the presence of at least one catalyst. esterification of 2,5- furandicarboxylic acid with ethylene glycol in the presence of 3,4-furandicarboxylic acid and triol in the presence of at least one catalyst in order to obtain a compound that is subsequently submitted to polycondensation in the presence of at least one catalyst.
A method for producing virus-like particles comprising a) transfecting a mammalian cell line with several independent vectors comprising aa) a vector containing at least 90% of the wild type segment of the M segment from Rift Valley Fever Virus, bb) a vector containing at least 90% of the wild type gene of the L gene from Rift Valley Fever Virus, cc) a vector containing at least 90% of the wild type gene of the N gene from Rift Valley Fever Virus and dd) a vector containing a multicloning site flanked by the non-coding 5'-and 3'-ends of the L-, M- or S-segment of Rift Valley Fever Virus, and b) culturing the transfected mammalian cell line under suitable conditions and obtaining the VLPs which are capable of autonomous gene expression from the supernatant of the transfected cultured cell lines. a) transfecting a mammalian cell line with several independent vectors comprising aa) a vector containing at least 90% of the wild type segment of the M segment from Rift Valley Fever Virus, bb) a vector containing at least 90% of the wild type gene of the L gene from Rift Valley Fever Virus, cc) a vector containing at least 90% of the wild type gene of the N gene from Rift Valley Fever Virus and dd) a vector containing a multicloning site flanked by the non-coding 5'-and 3'-ends of the L-, M- or S-segment of Rift Valley Fever Virus, and aa) a vector containing at least 90% of the wild type segment of the M segment from Rift Valley Fever Virus, bb) a vector containing at least 90% of the wild type gene of the L gene from Rift Valley Fever Virus, cc) a vector containing at least 90% of the wild type gene of the N gene from Rift Valley Fever Virus and dd) a vector containing a multicloning site flanked by the non-coding 5'-and 3'-ends of the L-, M- or S-segment of Rift Valley Fever Virus, and b) culturing the transfected mammalian cell line under suitable conditions and obtaining the VLPs which are capable of autonomous gene expression from the supernatant of the transfected cultured cell lines.
Measuring device, intended to be placed on the skin of a user, the user being a human being or an animal, the device extending between a contact face, intended to be applied against the skin of the user, and a far end, the device comprising a side wall that extends between the contact face and the far end, the device comprising: - on the contact face, at least one aperture that is configured to collect a transcutaneous gas of interest emitted through the skin, the aperture being produced through the contact face; - a collecting chamber that extends between the contact face and a measuring chamber; - a gas sensor, placed in the measuring chamber, and configured to measure a concentration of the gas of interest flowing through the measuring chamber; - a processing and computing unit, configured to estimate a gas-of-interest content in the body of the user on the basis of the measurement taken by the gas sensor; - a heat source, configured to bring the contact face to a temperature above 37°C; the device being characterized in that it comprises: - an aperture that forms an air intake, said aperture being produced through the side wall and configured to admit ambient air into the collecting chamber; such that, under the effect of the temperature produced by the heat source, a convection current of air is generated, the air admitted into the collecting chamber through the side wall entraining the transcutaneous gas of interest to the measuring chamber, the air and the transcutaneous gas of interest forming a gas mixture extending into the measuring chamber. - on the contact face, at least one aperture that is configured to collect a transcutaneous gas of interest emitted through the skin, the aperture being produced through the contact face; - a collecting chamber that extends between the contact face and a measuring chamber; - a gas sensor, placed in the measuring chamber, and configured to measure a concentration of the gas of interest flowing through the measuring chamber; - a processing and computing unit, configured to estimate a gas-of-interest content in the body of the user on the basis of the measurement taken by the gas sensor; - a heat source, configured to bring the contact face to a temperature above 37°C; - an aperture that forms an air intake, said aperture being produced through the side wall and configured to admit ambient air into the collecting chamber; such that, under the effect of the temperature produced by the heat source, a convection current of air is generated, the air admitted into the collecting chamber through the side wall entraining the transcutaneous gas of interest to the measuring chamber, the air and the transcutaneous gas of interest forming a gas mixture extending into the measuring chamber.
A circuit for dimming a lighting load, said circuit comprising an AC leading-edge phase-cut dimmer and a control circuit, wherein said dimmer is adapted to be connected to an AC supply and comprises a phase-cutting switch and a timing capacitor, wherein said control circuit is adapted to be connected to a lighting load to supply said lighting load, wherein said control circuit comprises a detection circuit adapted to detect a deadlock state of said dimmer, wherein the deadlock state is a state in which a voltage at a control terminal of said phase-cutting switch does not reach a predetermined trigger level required to turn on said phase-cutting switch, said circuit being characterised in that said control circuit further comprises: - an activation circuit electrically coupled in series with said dimmer and, in operation, with said lighting load, - said activation circuit comprises a switch and diode coupled in parallel with one another, wherein in normal operation said switch is in a closed state thereby bypassing said diode, and wherein in response to said detection circuit detecting a deadlock state of said dimmer said detection circuit is adapted to activate said switch to an open state so that said activation circuit supplies a DC current to said dimmer by means of said diode half-rectifying the AC supply so as to charge said timing capacitor with said DC current until the voltage at the control terminal of said phase-cutting switch reaches the predetermined trigger level to exit the deadlock state thereby activating said dimmer. - an activation circuit electrically coupled in series with said dimmer and, in operation, with said lighting load, - said activation circuit comprises a switch and diode coupled in parallel with one another,
A medical agent for use in a method of treatment of nonalcoholic fatty liver disease (NAFLD) or hepatocellular carcinoma, wherein the medical agent comprises a polynucleotide and is capable of silencing or knocking out the PKLR gene.
A monitoring device for detecting that an object has been subjected to a particular condition, comprising: a carrier disposed on the object; a processor disposed on the carrier; a sensor disposed on the carrier, wherein the sensor is adapted to detect when the object is subjected to at least a first magnitude of the particular condition; a configuration circuit disposed on the carrier, wherein the configuration circuit includes two conductive traces (234,252; 272,274; 300a-e; 314,316; 328-334; 336; 376a-d; 390a-c; 504; 506-512) associated with a configuration parameter, one of coupling and decoupling the conductive traces specifies the configuration parameter, and the configuration parameter includes a second magnitude of the particular condition, wherein the second magnitude is greater than the first magnitude; and wherein the processor is adapted to be in an inactive state if the object is subjected to a magnitude of the particular condition less than the second magnitude, the sensor is adapted to generate a signal in response to detection of the object being subjected to a third magnitude of the particular condition, and in response to the signal the processor is adapted to enter an active state to develop an indication of third magnitude of the particular condition, wherein the third magnitude is greater than or equal to the second magnitude. a carrier disposed on the object; a processor disposed on the carrier; a sensor disposed on the carrier, wherein the sensor is adapted to detect when the object is subjected to at least a first magnitude of the particular condition; a configuration circuit disposed on the carrier, wherein the configuration circuit includes two conductive traces (234,252; 272,274; 300a-e; 314,316; 328-334; 336; 376a-d; 390a-c; 504; 506-512) associated with a configuration parameter, one of coupling and decoupling the conductive traces specifies the configuration parameter, and the configuration parameter includes a second magnitude of the particular condition, wherein the second magnitude is greater than the first magnitude; and wherein the processor is adapted to be in an inactive state if the object is subjected to a magnitude of the particular condition less than the second magnitude, the sensor is adapted to generate a signal in response to detection of the object being subjected to a third magnitude of the particular condition, and in response to the signal the processor is adapted to enter an active state to develop an indication of third magnitude of the particular condition, wherein the third magnitude is greater than or equal to the second magnitude.
A light guide film, wherein an upper surface of the light guide film is a light exit surface and a lower surface is a light incident surface; the lower surface of the light guide film is smooth and used for being connected with a transparent substrate; a plurality of hollow ultrastructures are disposed in the light guide film, each hollow ultrastructure comprises a conduction reflecting surface close to the lower surface of the light guide film, a top surface close to the upper surface of the light guide film, and a light exit reflecting surface connected with the conduction reflecting surface and the top surface, a gap between every two adjacent ultrastructures is a light exit gap, and a distance between the bottom line of the conduction reflecting surface and the light incident surface is 0.001-1 mm; characterized in that the conduction reflecting surface is a curved surface, and an included angle between a tangent plane at any point on the curved surface and the light incident surface is less than 10°, and the light guide film is made of a soft material. the conduction reflecting surface is a curved surface, and an included angle between a tangent plane at any point on the curved surface and the light incident surface is less than 10°, and the light guide film is made of a soft material.
Apparatus for separating flat objects, each object extending in an object plane, and the apparatus comprising - a first separator, - a second separator, - an overlap detection device and - a control device, each separator being configured for extending a plurality of objects, which overlap at least partially, in in each case a direction parallel to the object planes and for separating them as a result, the apparatus being configured for transporting an object from the first separator to the second separator, the overlap detection device being configured for checking automatically whether an item which is transported by the second separator comprises a single object or a plurality of overlapping objects, and the control device being configured, when the overlap detection device has detected that a transported item comprises a plurality of overlapping objects, for switching over the second separator into a separation mode, in which the second separator separates overlapping objects, and it being possible, moreover, for the second separator to be operated in a transport mode, in which the second separator transports objects, the second separator comprising - a transport element (10.2), - a retaining element and - a drive for the transport element (10.2), the apparatus being configured for transporting the objects to be separated through between the transport element (10.2) and the retaining element of the second separator, the drive being configured for driving the transport element (10.2) in such a way that the transport element (10.2) is moved relative to the retaining element and, as a result, extending of at least partially overlapping objects is brought about, characterized in that the transport element (10.2) and the retaining element are configured in such a way that the path which an object covers between the transport element (10.2) and the retaining element is longer than the greatest extent of an object in the transport direction, and the overlap detection device is configured for measuring, at at least two instants, the respective length of the same one item which is transported through between the transport element (10.2) and the retaining element of the second separator, and, when at least two lengths which are measured for the same item differ from one another, deciding automatically that the item comprises a plurality of overlapping objects. - a first separator, - a second separator, - an overlap detection device and - a control device, - a transport element (10.2), - a retaining element and - a drive for the transport element (10.2),
A gadobutrol production method comprising: reacting 1,4,7,10-tetraazacyclododecane with a lithium-halogen salt to produce a cyclen-lithium halogen complex, followed by reaction with 4,4-dimethyl-3,5,8-trioxabicyclo[5,1,0]octane to obtain N-(6-hydroxy-2,2-dimethyl-1,3-dioxyphen-5-yl)-1,4,7,10-tetraazacyclododecane-lithium halogen complex represented by the following Chemical Formula 1: reacting the lithium halogen complex represented by Chemical Formula 1 with hydrochloric acid to obtain a compound represented by the following Chemical Formula 2: wherein the amount of hydrochloric acid used is 4.0 to 4.2 equivalents based on the lithium halogen complex represented by Chemical Formula 1; filtering a reactant of the lithium halogen complex represented by Chemical Formula 1 and the hydrochloric acid to obtain the gadobutrol intermediate represented by Chemical Formula 2 in a crystalline form; alkylating the gadobutrol intermediate represented by the Chemical Formula 2 with chloroacetic acid to obtain a butrol represented by the following Chemical Formula 3: purifying a reactant of the gadobutrol intermediate and chloroacetic acid by filtering a salt and a water-soluble low-molecular material corresponding to 100 to 300 daltons using a nanofiltration system; and reacting the butrol represented by Chemical Formula 3 with gadolinium oxide. reacting 1,4,7,10-tetraazacyclododecane with a lithium-halogen salt to produce a cyclen-lithium halogen complex, followed by reaction with 4,4-dimethyl-3,5,8-trioxabicyclo[5,1,0]octane to obtain N-(6-hydroxy-2,2-dimethyl-1,3-dioxyphen-5-yl)-1,4,7,10-tetraazacyclododecane-lithium halogen complex represented by the following Chemical Formula 1: reacting the lithium halogen complex represented by Chemical Formula 1 with hydrochloric acid to obtain a compound represented by the following Chemical Formula 2: wherein the amount of hydrochloric acid used is 4.0 to 4.2 equivalents based on the lithium halogen complex represented by Chemical Formula 1; filtering a reactant of the lithium halogen complex represented by Chemical Formula 1 and the hydrochloric acid to obtain the gadobutrol intermediate represented by Chemical Formula 2 in a crystalline form; alkylating the gadobutrol intermediate represented by the Chemical Formula 2 with chloroacetic acid to obtain a butrol represented by the following Chemical Formula 3: purifying a reactant of the gadobutrol intermediate and chloroacetic acid by filtering a salt and a water-soluble low-molecular material corresponding to 100 to 300 daltons using a nanofiltration system; and reacting the butrol represented by Chemical Formula 3 with gadolinium oxide.