mhurhangee/ep-ind-claims huggingface dataset:
Pluggable device combination for protecting against overvoltages, comprising: at least one plug-in module, which receives an overvoltage protection element, and a base-like, lower part with a U-shaped cross-section for receiving the at least one plug-in module; wherein latching means (2; 3) that act between the plug-in module and the base-like lower part are provided, which comprise first means that are formed on opposite sides of the plug-in module on a pretensioned joint, which in each case interact in a latching manner with associated second means on the lower part, wherein the latching connection can be released by means of pressure on the joint on the sides of the plug-in module, and wherein each joint merges into a respective actuating surface, characterised in that at least two spaced-apart actuating surfaces are provided on one side of the plug-in module, with which a single actuating surface is associated on the opposite side of the plug-in module, the actuating surfaces are formed opposite one another on the plug-in module in such a manner that, in the case of imaginary connecting lines between the actuating surfaces, the shape of an at least approximate triangle is produced. at least one plug-in module, which receives an overvoltage protection element, and a base-like, lower part with a U-shaped cross-section for receiving the at least one plug-in module; wherein latching means (2; 3) that act between the plug-in module and the base-like lower part are provided, which comprise first means that are formed on opposite sides of the plug-in module on a pretensioned joint, which in each case interact in a latching manner with associated second means on the lower part, wherein the latching connection can be released by means of pressure on the joint on the sides of the plug-in module, and wherein each joint merges into a respective actuating surface, characterised in that at least two spaced-apart actuating surfaces are provided on one side of the plug-in module, with which a single actuating surface is associated on the opposite side of the plug-in module, the actuating surfaces are formed opposite one another on the plug-in module in such a manner that, in the case of imaginary connecting lines between the actuating surfaces, the shape of an at least approximate triangle is produced.
A method, comprising: monitoring an authentication time for one or more nodes in a low power and lossy network, LLN; dynamically correlating the authentication time with a location of the one or more nodes in the LLN to identify one or more authentication-delayed nodes; selecting, based on the location of the one or more authentication-delayed nodes, one or more key-delegation nodes to receive one or more network keys for localized authentication of one or more of the authentication-delayed nodes; and distributing the one or more network keys to the one or more key-delegation nodes. monitoring an authentication time for one or more nodes in a low power and lossy network, LLN; dynamically correlating the authentication time with a location of the one or more nodes in the LLN to identify one or more authentication-delayed nodes; selecting, based on the location of the one or more authentication-delayed nodes, one or more key-delegation nodes to receive one or more network keys for localized authentication of one or more of the authentication-delayed nodes; and distributing the one or more network keys to the one or more key-delegation nodes.
A method of enhancing the sweetness of sweetener in a beverage or food product comprising adding hesperetin Dihydrochalcone to the product in an amount of 2 to 20 ppm by weight of the total weight of the product, wherein the method does not include: - the addition of 10 ppm hesperetin Dihydrochalcone to a chewing gum; and - the addition of 5 ppm or 10 ppm hesperetin Dihydrochalcone to a hard candy; wherein the sweetener is selected from the group consisting of saccharin, aspartame, cyclamate, sucralose, saccharine, stevia, rebauasdioside A, neotame, and acesulfame K. wherein the method does not include: - the addition of 10 ppm hesperetin Dihydrochalcone to a chewing gum; and - the addition of 5 ppm or 10 ppm hesperetin Dihydrochalcone to a hard candy; - the addition of 10 ppm hesperetin Dihydrochalcone to a chewing gum; and - the addition of 5 ppm or 10 ppm hesperetin Dihydrochalcone to a hard candy; wherein the sweetener is selected from the group consisting of saccharin, aspartame, cyclamate, sucralose, saccharine, stevia, rebauasdioside A, neotame, and acesulfame K.
A method for producing a multi-layer web having a desired curvature, the method comprising: providing a web of indeterminate length; bending the web in the machine direction and in the cross-machine direction to induce a plastic pre-curl in the web; applying a coating to the web; curing the coating to form a multi-layer web, the coating being characterized by at least partially shrinking when cured such that curing the coating induces a curl in the multi-layer web; and wherein bending the web occurs prior to curing the coating, and wherein the pre-curl is configured to at least partially counteract the curl induced by curing to form a multi-layer web having a desired curvature. providing a web of indeterminate length; bending the web in the machine direction and in the cross-machine direction to induce a plastic pre-curl in the web; applying a coating to the web; curing the coating to form a multi-layer web, the coating being characterized by at least partially shrinking when cured such that curing the coating induces a curl in the multi-layer web; and wherein bending the web occurs prior to curing the coating, and wherein the pre-curl is configured to at least partially counteract the curl induced by curing to form a multi-layer web having a desired curvature.
A method for preparing a polyolefin resin powder, containing the following steps: a) heat dissolving a polyolefin resin in an organic solvent having a solubility parameter less than or equal to the solubility parameter of the polyolefin resin to obtain a polyolefin resin solution; b) cooling the polyolefin resin solution to precipitate a solid, thereby obtaining a solid-liquid mixture; c) optionally adding an adjuvant to the solid-liquid mixture and mixing; d) conducting solid-liquid separation and drying to obtain a polyolefin resin powder suitable for selective laser sintering; wherein the difference between the solubility parameters of the organic solvent and of the polyolefin resin is within 0-20% of the solubility parameter of the polyolefin resin, and the organic solvent is used in an amount of 600-1200 parts by weight, based on 100 parts by weight of the polyolefin resin. a) heat dissolving a polyolefin resin in an organic solvent having a solubility parameter less than or equal to the solubility parameter of the polyolefin resin to obtain a polyolefin resin solution; b) cooling the polyolefin resin solution to precipitate a solid, thereby obtaining a solid-liquid mixture; c) optionally adding an adjuvant to the solid-liquid mixture and mixing; d) conducting solid-liquid separation and drying to obtain a polyolefin resin powder suitable for selective laser sintering;
Process for producing a thermally insulating mixture comprising hydrophobic silica, characterized in that a) a pulverulent hydrophilic carrier material selected from the group consisting of precipitated silicas, SiO 2 aerogels, perlites and mixtures thereof is coated with a liquid silicon compound, where the liquid silicon compound has at least one alkyl group and a boiling point of less than 200°C, and b) the pulverulent carrier material that has thus been coated with the liquid silicon compound is mixed with a composition comprising a pulverulent hydrophilic fumed silica and the mixture is subjected to thermal treatment at more than 40°C and c) any unreacted silicon compound is subsequently removed from the thermally treated mixture, thus giving the thermally insulating mixture comprising hydrophobic silica. a) a pulverulent hydrophilic carrier material selected from the group consisting of precipitated silicas, SiO 2 aerogels, perlites and mixtures thereof is coated with a liquid silicon compound, where the liquid silicon compound has at least one alkyl group and a boiling point of less than 200°C, and b) the pulverulent carrier material that has thus been coated with the liquid silicon compound is mixed with a composition comprising a pulverulent hydrophilic fumed silica and the mixture is subjected to thermal treatment at more than 40°C and c) any unreacted silicon compound is subsequently removed from the thermally treated mixture, thus giving the thermally insulating mixture comprising hydrophobic silica.
An orally disintegrating formulation, comprising an effective amount of a pharmaceutically active ingredient and a matrix, wherein the matrix contains glycine and pullulan, wherein the ratio by weight of the glycine to pullulan is 0.5 to 1.5.
Household electrical ironing apparatus comprising an iron comprising a heating sole and a base connected to the iron by a cord, the base comprising a receptacle to place the iron in a position of rest in which the sole of the iron rests on said receptacle, the iron comprising a handle for holding arranged in a cantilever fashion with respect to the sole, the handle comprising a front end attached to a body surmounting the sole and a rear end that is free, characterised in that, in the rest position, the handle comprises a bearing zone which comes to rest against the base and in that the base comprises a shape such that a space is formed under the handle, between the bearing zone and the body to allow the fingers of a hand to pass through so that the iron can be grasped by its handle.
Metering module having a metering valve comprising a metering valve body for dispensing an automotive fluid/additive into an exhaust tract of an internal combustion engine and having a device for cooling the metering valve, wherein the device comprises a housing comprising a plurality of housing portions,,,, wherein a first housing portion,, on which an inlet is formed for the automotive fluid/additive and which is situated in a temperature-exposed area of the metering module, is made from a metal, characterized in that the first housing portion comprises a connection fitting comprising the inlet, and an upper shell, wherein a connection plate of the connection fitting and the upper shell are connected to one another by a first connecting seam, and wherein the metering valve body and the connection fitting are connected to one another by a second connecting seam.
The method for manufacturing of vardenafil and/or it salts, characterized in that the chlorosulfonation of 2-(2-etoxy-phenyl)-5-methyl-7-propyl-3 H -imidazo[5,1-f][1,2,4]triazin-4-one is carried out in a mixture of thionyl chloride and sulfurochloridic acid under reflux at the solvent boiling point, the synthetized 4-etoxy-3-(5-methyl-4-oxo-7-propyl-3,4-dihydroimidazo[5,1-f][1,2,4]triazin-2-yl)benzene-sulfonic acid chloride is isolated from the reaction mixture in anhydrous conditions and reacts with N-ethylpiperazine in an aprotic solvent in the presence of an inorganic base and after the reaction completion the prepared vardenafil base is isolated using known methods and optionally transformed into salt.
A source for a wireless power transfer system, comprising: a source resonator; a source impedance matching controller; impedance matching network components coupled to the source resonator and the source impedance matching controller, wherein the impedance matching network components can be adjusted according to signals received from the source impedance matching controller; sensing and measurement circuitry (314,316,318,320,402,404) configured to obtain measured signals associated with the source resonator and the impedance matching network components; a PWM, pulse width modulation, generator (306; 410) coupled to the impedance matching network components and being configured to control a driving signal to drive the source resonator through the impedance matching network components; and a processing unit coupled to the sensing and measurement circuitry (314,316,318,320,402,404), the PWM generator (306,410), and the source impedance matching controller and configured to execute a control algorithm including adjusting operation of the PWM generator (306,410) and the source impedance matching based on the measured signals from the sensing and measurement circuitry (314,316,318,320,402,404). a source resonator; a source impedance matching controller; impedance matching network components coupled to the source resonator and the source impedance matching controller, wherein the impedance matching network components can be adjusted according to signals received from the source impedance matching controller; sensing and measurement circuitry (314,316,318,320,402,404) configured to obtain measured signals associated with the source resonator and the impedance matching network components; a PWM, pulse width modulation, generator (306; 410) coupled to the impedance matching network components and being configured to control a driving signal to drive the source resonator through the impedance matching network components; and a processing unit coupled to the sensing and measurement circuitry (314,316,318,320,402,404), the PWM generator (306,410), and the source impedance matching controller and configured to execute a control algorithm including adjusting operation of the PWM generator (306,410) and the source impedance matching based on the measured signals from the sensing and measurement circuitry (314,316,318,320,402,404).
A computer-implemented method comprising: receiving at a first device a command and a first time value, the first time value specifying a time that is meant to elapse between a time at which the command and the first time value are received at the first device and a time at which at least one action is to occur wherein the command and the first time value are received at the same time and wherein the action is caused to occur in connection with a second device; generating a first elapsed time value wherein the first elapsed time value is the time between the receipt of the command and the time at which the first device sends the command to the second device wherein the first elapsed time value is further based on a transit time between the first device and the second device; generating a second time value by subtracting the first elapsed time value from the first time value; sending the command and the second time value from the first device to the second device at the same time; receiving the command and the second time value at the second device at the same time; and causing the at least one action to occur at the second time value after which the command and the second time value are received at the second device. receiving at a first device a command and a first time value, the first time value specifying a time that is meant to elapse between a time at which the command and the first time value are received at the first device and a time at which at least one action is to occur wherein the command and the first time value are received at the same time and wherein the action is caused to occur in connection with a second device; generating a first elapsed time value wherein the first elapsed time value is the time between the receipt of the command and the time at which the first device sends the command to the second device wherein the first elapsed time value is further based on a transit time between the first device and the second device; generating a second time value by subtracting the first elapsed time value from the first time value; sending the command and the second time value from the first device to the second device at the same time; receiving the command and the second time value at the second device at the same time; and causing the at least one action to occur at the second time value after which the command and the second time value are received at the second device.
A method of depositing a film, comprising: obtaining a wavelength of light emitted from a sensor; identifying a refractive index of a material; determining a target thickness of the material by dividing the wavelength of the light emitted from the sensor by two times the refractive index of the material; and depositing the material on a substrate to form a film on a backside of the substrate; determining a thickness of the film deposited on the substrate using the sensor; if the thickness of the film is less than the target thickness, deposit additional material on the backside of the substrate to increase the thickness of the film; once the thickness of the film has the target thickness, processing the substrate; and removing the film from the backside of the substrate. obtaining a wavelength of light emitted from a sensor; identifying a refractive index of a material; determining a target thickness of the material by dividing the wavelength of the light emitted from the sensor by two times the refractive index of the material; and depositing the material on a substrate to form a film on a backside of the substrate; determining a thickness of the film deposited on the substrate using the sensor; if the thickness of the film is less than the target thickness, deposit additional material on the backside of the substrate to increase the thickness of the film; once the thickness of the film has the target thickness, processing the substrate; and removing the film from the backside of the substrate. determining a thickness of the film deposited on the substrate using the sensor; if the thickness of the film is less than the target thickness, deposit additional material on the backside of the substrate to increase the thickness of the film; once the thickness of the film has the target thickness, processing the substrate; and removing the film from the backside of the substrate.
A face plate for use in a panel for electrical switching apparatus, the faceplate comprising: a generally planar member having a first surface, a second surface that is opposite the first surface, and a number of apertures disposed through the first surface and the second surface, each aperture being configured to receive an actuatable mechanism of an electrical switching apparatus therethrough; a number of inclined features, each of the inclined features extending from the second surface around a respective aperture of the number of apertures, at least one inclined feature having an inclined surface disposed opposite thee second surface of the generally planar member, wherein the inclined surface of at least one of the number of inclined features includes an indicia defining a characteristic of the electrical switching apparatus or circuit associated with the aperture about which the inclined feature is disposed; and a second inclined feature of the number of inclined features includes a second inclined surface disposed opposite the second surface of the generally planar member, wherein the inclined surface is disposed at a first non-zero angle (θ1) with respect to the generally planar member, and wherein the second inclined surface is disposed at a second non-zero angle (θ2) different from the first non-zero angle (θ1) with respect to the generally planar member. a generally planar member having a first surface, a second surface that is opposite the first surface, and a number of apertures disposed through the first surface and the second surface, each aperture being configured to receive an actuatable mechanism of an electrical switching apparatus therethrough; a number of inclined features, each of the inclined features extending from the second surface around a respective aperture of the number of apertures, at least one inclined feature having an inclined surface disposed opposite thee second surface of the generally planar member, wherein the inclined surface of at least one of the number of inclined features includes an indicia defining a characteristic of the electrical switching apparatus or circuit associated with the aperture about which the inclined feature is disposed; and a second inclined feature of the number of inclined features includes a second inclined surface disposed opposite the second surface of the generally planar member, wherein the inclined surface is disposed at a first non-zero angle (θ1) with respect to the generally planar member, and wherein the second inclined surface is disposed at a second non-zero angle (θ2) different from the first non-zero angle (θ1) with respect to the generally planar member.
A shape measuring device (100;600) for measuring a surface shape of a workpiece based on a moving amount of a probe by contacting or moving the probe while the probe is in contact with a surface of the workpiece, wherein the shape measuring device (100;600) comprises: the probe; a probe support shaft pivotally supporting the probe at a lower end when the probe support shaft is vertically oriented; and a probe drive device (2;7) to which the probe support shaft is attached, for contacting the probe with a measuring position of the surface of the workpiece and relatively moving the workpiece and the probe; wherein the probe is a sphere from which a spherical part is cut off at a cut face which is nearly perpendicular to the probe support shaft and which is spaced from a top of the sphere across a plane of equator of the sphere by at least the radius of the sphere extending through the top of the sphere; and the shape measuring device (100;600) is arranged to carry out a shape measurement of the surface of the workpiece in such a manner that the cut face of the probe is faced with a face (W2a;W3b) of the workpiece intersecting a face (W1a; W3a) containing the measuring position of the surface of the workpiece and the spherical surface of the sphere is contacted with the measuring position of the workpiece. the probe; a probe support shaft pivotally supporting the probe at a lower end when the probe support shaft is vertically oriented; and a probe drive device (2;7) to which the probe support shaft is attached, for contacting the probe with a measuring position of the surface of the workpiece and relatively moving the workpiece and the probe; wherein the probe is a sphere from which a spherical part is cut off at a cut face which is nearly perpendicular to the probe support shaft and which is spaced from a top of the sphere across a plane of equator of the sphere by at least the radius of the sphere extending through the top of the sphere; and the shape measuring device (100;600) is arranged to carry out a shape measurement of the surface of the workpiece in such a manner that the cut face of the probe is faced with a face (W2a;W3b) of the workpiece intersecting a face (W1a; W3a) containing the measuring position of the surface of the workpiece and the spherical surface of the sphere is contacted with the measuring position of the workpiece.