mhurhangee/ep-ind-claims huggingface dataset:
A zip slider comprising: a body adapted to move longitudinally along opposing rows of zip teeth to interdigitate or extradigitate the teeth and fasten or unfasten the zip; a bridge extending upwardly from the body and comprising forward and rearward longitudinally-spaced posts (60A, 60B) defining a cleft therebetween; a pull tab, connected to the bridge by an intermediate link retained in the cleft for pivotal motion relative to the body about a transverse axis; an elongate spring member having a locking prong and a retaining bar interconnected by a biasing loop which urges the locking prong against interdigitated teeth; characterised in that the external dimension of the bridge and the configuration of the intermediate link are such that, when the pull tab is rotated about a longitudinal axis, the intermediate link bears against the outside of the bridge. a body adapted to move longitudinally along opposing rows of zip teeth to interdigitate or extradigitate the teeth and fasten or unfasten the zip; a bridge extending upwardly from the body and comprising forward and rearward longitudinally-spaced posts (60A, 60B) defining a cleft therebetween; a pull tab, connected to the bridge by an intermediate link retained in the cleft for pivotal motion relative to the body about a transverse axis; an elongate spring member having a locking prong and a retaining bar interconnected by a biasing loop which urges the locking prong against interdigitated teeth; characterised in that the external dimension of the bridge and the configuration of the intermediate link are such that, when the pull tab is rotated about a longitudinal axis, the intermediate link bears against the outside of the bridge.
White curable silicone composition characterized by comprising: alkenyl group-containing resinous organopolysiloxane which is represented by an average composition formula: ( R 1 3 S i O 1/2) a (R 1 2 S i O 2/2) b (R 1 S i O 3/ 2) c (S i O 4 / 2) d (X O 1/ 2) e, where, in the formula, R 1 are each independently a monovalent hydrocarbon group, while at least two R 1 are alkenyl groups, X is a hydrogen atom or an alkyl group, O≦a≦O. 7, 0 ≦ b ≦ O. 2,O≦c≦O. 3,O≦d≦O. 8, andO≦e≦O. 2, a+b+c+d=1. 0, and c + d > 0 are satisfied; linear alkenyl group-containing organopolysiloxane which is represented by R 2 R 3 2 S i O( R 3 2 S i O) n S i OR 2 R 3 2, where, in the formula, R 2 is an alkenyl group, R 3 are each independently a monovalent hydrocarbon group other than an alkenyl group, and n is an integer of 50 or greater; organohydrogenpolysiloxane having at least two hydrogen atom-bonded silicon atoms in one molecule; a catalyst for curing reaction; and a white pigment, wherein the component is included in an amount of 20 mass% or more based on the total mass of the organopolysiloxane components, and the alkenyl group content provided by components and, in the components to is 1.7 mass% or less.
A method of processing satellite navigation system data, said method comprising: deriving predicted ephemeris data and clock correction values for a plurality of satellites using predicted positions of said satellites at selected times; compressing the predicted ephemeris data and clock correction values into coefficients and constants using time dependent functions; converting said coefficients and constants of ephemeris data into respective first scaled values, converting residuals comprising differences between said predicted ephemeris data and values calculated using the respective time dependent function into respective second scaled values, and converting said coefficients and constants of clock correction values into respective third scaled values, said converting performed with respective scaling factors selected such that coefficients reconstructed from said first scaled values have more precision than residuals reconstructed from said second scaled values, wherein each coefficient and constant is represented as the product of a scaled value and a respective scaling factor; and storing said scaled values and scaling factors in a computer-readable memory for later reconstructing the predicted ephemeris data and clock correction values by a client device, wherein said scaling factors are provided to the client device less frequently than said scaled values. deriving predicted ephemeris data and clock correction values for a plurality of satellites using predicted positions of said satellites at selected times; compressing the predicted ephemeris data and clock correction values into coefficients and constants using time dependent functions; converting said coefficients and constants of ephemeris data into respective first scaled values, converting residuals comprising differences between said predicted ephemeris data and values calculated using the respective time dependent function into respective second scaled values, and converting said coefficients and constants of clock correction values into respective third scaled values, said converting performed with respective scaling factors selected such that coefficients reconstructed from said first scaled values have more precision than residuals reconstructed from said second scaled values, wherein each coefficient and constant is represented as the product of a scaled value and a respective scaling factor; and storing said scaled values and scaling factors in a computer-readable memory for later reconstructing the predicted ephemeris data and clock correction values by a client device, wherein said scaling factors are provided to the client device less frequently than said scaled values.
A manufacturing method of a polyester tire cord having dimensional stability, the method comprising the steps of: forming a discharged yarn extruded while a polyester containing 85 mol% or more of ethylene terephthalate units is melted and passed through a nozzle; forming an undrawn yarn by spinning the discharged yarn; manufacturing a yarn by multistep drawing the undrawn yarn by passing the yarn through a series of draft rollers (7, 8, 9 and 10), while each of the draft roller temperatures, with the exception of that of draft roller, is below 95°C and the draft roller temperature is between 200 and 250°C, and the total draw ratio is 1.60 or less; plying the yarn by cable / ply twisting at 300 ∼ 500 twist/meter; and dipping the plied yarn in a dipping solution of an epoxy and a pexul, and then drying, drawing and heat-setting the plied yarn, before dipping the plied yarn again in resorcinol-formaldehyde latex and again drying and heat-setting the plied yarn. forming a discharged yarn extruded while a polyester containing 85 mol% or more of ethylene terephthalate units is melted and passed through a nozzle; forming an undrawn yarn by spinning the discharged yarn; manufacturing a yarn by multistep drawing the undrawn yarn by passing the yarn through a series of draft rollers (7, 8, 9 and 10), while each of the draft roller temperatures, with the exception of that of draft roller, is below 95°C and the draft roller temperature is between 200 and 250°C, and the total draw ratio is 1.60 or less; plying the yarn by cable / ply twisting at 300 ∼ 500 twist/meter; and dipping the plied yarn in a dipping solution of an epoxy and a pexul, and then drying, drawing and heat-setting the plied yarn, before dipping the plied yarn again in resorcinol-formaldehyde latex and again drying and heat-setting the plied yarn.
A printed matter inspection device comprising: a print data acquisition unit that acquires print data input to a printing apparatus in a case where a printed matter is generated; an imaging data acquisition unit that acquires imaging data of the printed matter; a registration processing unit that executes registration between the print data and the imaging data by applying a specified registration accuracy; and an inspection processing unit that acquires defect information of the imaging data on the basis of the print data by using the print data and the imaging data on which registration processing has been executed using the registration processing unit, wherein a learning model that has learned a relationship between a defect candidate detected from the imaging data and a defect in the printed matter is applied to the inspection processing unit, and characterized in that the learning model executes the learning by using a disturbance-imparted learning data set having, as an input, disturbance-imparted imaging data in which a disturbance that shifts a position of the imaging data within a range of the registration accuracy in a direction intersecting a relative transport direction between a printing section and a medium in the printing apparatus is imparted, and having defect information of the disturbance-imparted imaging data as an output. a print data acquisition unit that acquires print data input to a printing apparatus in a case where a printed matter is generated; an imaging data acquisition unit that acquires imaging data of the printed matter; a registration processing unit that executes registration between the print data and the imaging data by applying a specified registration accuracy; and an inspection processing unit that acquires defect information of the imaging data on the basis of the print data by using the print data and the imaging data on which registration processing has been executed using the registration processing unit, wherein a learning model that has learned a relationship between a defect candidate detected from the imaging data and a defect in the printed matter is applied to the inspection processing unit, and characterized in that the learning model executes the learning by using a disturbance-imparted learning data set having, as an input, disturbance-imparted imaging data in which a disturbance that shifts a position of the imaging data within a range of the registration accuracy in a direction intersecting a relative transport direction between a printing section and a medium in the printing apparatus is imparted, and having defect information of the disturbance-imparted imaging data as an output.
A method for manufacturing a lignin-modified polyphenolic product to be used in the treatment of leather or skin, comprising the steps of: reacting a hydroxybenzene compound, optionally in a mixture comprising lignin, with sulphuric acid and diluting the reaction mixture with water; wherein the method further comprises: either: adding urea to the reaction mixture obtained in step, if the mixture of step does not comprise lignin, adding water insoluble lignin to the mixture obtained in step, and performing a condensation reaction by adding formaldehyde or glyoxylic acid or glyoxal or a combination of different aldehydes as aldehyde to obtain a water soluble hydroxybenzene-lignin-aldehyde polymer-based product, or: if the mixture of step does not comprise lignin, adding water insoluble lignin to the reaction mixture obtained in step, and performing a condensation reaction by adding glyoxylic acid or glyoxal or a combination of glyoxylic acid and glyoxal as aldehyde to obtain a water soluble hydroxybenzene-lignin-aldehyde polymer-based product. reacting a hydroxybenzene compound, optionally in a mixture comprising lignin, with sulphuric acid and diluting the reaction mixture with water; adding urea to the reaction mixture obtained in step, if the mixture of step does not comprise lignin, adding water insoluble lignin to the mixture obtained in step, and performing a condensation reaction by adding formaldehyde or glyoxylic acid or glyoxal or a combination of different aldehydes as aldehyde to obtain a water soluble hydroxybenzene-lignin-aldehyde polymer-based product, if the mixture of step does not comprise lignin, adding water insoluble lignin to the reaction mixture obtained in step, and performing a condensation reaction by adding glyoxylic acid or glyoxal or a combination of glyoxylic acid and glyoxal as aldehyde to obtain a water soluble hydroxybenzene-lignin-aldehyde polymer-based product.
A method for manufacturing a coated interlaced substrate in a chemical deposition reactor, comprising: obtaining a chemical deposition reactor with a reaction space formed by a reaction chamber and configured to receive, at least in part, a substrate holder made of a fluid-permeable material, onto which an interlaced substrate is mounted such, that a first surface of the substrate faces the reaction space, and a second surface of the substrate is placed against the substrate holder, and in a number of deposition cycles, forming a first coating on the first surface and/or forming a second coating on the second surface, wherein, each deposition cycle comprises delivering, with a flow of fluid, a precursor chemical into the reaction space such, that delivery of at least one precursor chemical into the reaction space occurs via said fluid-permeable material. obtaining a chemical deposition reactor with a reaction space formed by a reaction chamber and configured to receive, at least in part, a substrate holder made of a fluid-permeable material, onto which an interlaced substrate is mounted such, that a first surface of the substrate faces the reaction space, and a second surface of the substrate is placed against the substrate holder, and in a number of deposition cycles, forming a first coating on the first surface and/or forming a second coating on the second surface, wherein, each deposition cycle comprises delivering, with a flow of fluid, a precursor chemical into the reaction space such, that delivery of at least one precursor chemical into the reaction space occurs via said fluid-permeable material.
A light emitting diode, LED, filament arrangement, comprising at least one LED filament comprising an array of a plurality of light emitting diodes, LEDs, wherein the at least one LED filament extends along an axis, A, and at least one reflector element configured to at least partially reflect the light emitted from the at least one LED filament during operation, wherein the at least one reflector element comprises a first portion facing the at least one LED filament, wherein the first portion is arranged to reflect and/or diffract the light emitted from the at least one LED filament during operation, and a second portion facing away from the at least one LED filament, wherein the second portion is opaque and said at least one reflector element has a spiral shape and is arranged at least partially around the at least one LED filament such that the at least one reflector element extends along the axis. at least one LED filament comprising an array of a plurality of light emitting diodes, LEDs, wherein the at least one LED filament extends along an axis, A, and at least one reflector element configured to at least partially reflect the light emitted from the at least one LED filament during operation, wherein the at least one reflector element comprises a first portion facing the at least one LED filament, wherein the first portion is arranged to reflect and/or diffract the light emitted from the at least one LED filament during operation, and a second portion facing away from the at least one LED filament, wherein the second portion is opaque and said at least one reflector element has a spiral shape and is arranged at least partially around the at least one LED filament such that the at least one reflector element extends along the axis.
Heating device suitable to heat a component of a vehicle engine comprising: - a conductive wire in metal alloy, suitable to heat up by the Joule effect, composed of material with resistivity between 0.5 and 100 Ω / m, - a coating of said conductive wire of the electrically insulating type having a thickness comprised between 1 μm and 100 μm, - said conductive wire and said coating having a single main extension dimension, - a first layer, consisting of a thermally conductive and metallic lamina placed in adherence with said component, and having a membrane conformation, i.e. with two main dimensions with respect to a third, - and a second layer arranged more externally with respect to said first layer, said conductive wire and said coating, - said second layer being made from polymeric, heat-insulating material and also having a membrane conformation and totally coating said first layer. - a conductive wire in metal alloy, suitable to heat up by the Joule effect, composed of material with resistivity between 0.5 and 100 Ω / m, - a coating of said conductive wire of the electrically insulating type having a thickness comprised between 1 μm and 100 μm, - said conductive wire and said coating having a single main extension dimension, - a first layer, consisting of a thermally conductive and metallic lamina placed in adherence with said component, and having a membrane conformation, i.e. with two main dimensions with respect to a third, - and a second layer arranged more externally with respect to said first layer, said conductive wire and said coating, - said second layer being made from polymeric, heat-insulating material and also having a membrane conformation and totally coating said first layer.
An analytical method for analyzing a sample by a capillary electrophoresis technique, the analytical method comprising: applying a voltage to a sample solution introduced to a micro flow path, performing a separation analysis for a component contained in the sample solution, measuring an optically measured value corresponding to an elapsed time elapsed from starting a measurement, determining a reference time point, and identifying the component contained in the sample solution (Sm) using the optically measured value at the elapsed time elapsed from the reference time point, characterised in that the reference time point is an interface arrival time point which is determined based on the optically measured value when an interface between the sample solution (Sm) and a migration liquid (Lm) reaches a predetermined measurement position in the micro flow path, and in that the component contained in the sample solution (Sm) is identified using the optically measured value at the elapsed time elapsed from the interface arrival time point as the reference time point. applying a voltage to a sample solution introduced to a micro flow path, performing a separation analysis for a component contained in the sample solution, measuring an optically measured value corresponding to an elapsed time elapsed from starting a measurement, determining a reference time point, and identifying the component contained in the sample solution (Sm) using the optically measured value at the elapsed time elapsed from the reference time point, characterised in that the reference time point is an interface arrival time point which is determined based on the optically measured value when an interface between the sample solution (Sm) and a migration liquid (Lm) reaches a predetermined measurement position in the micro flow path, and in that the component contained in the sample solution (Sm) is identified using the optically measured value at the elapsed time elapsed from the interface arrival time point as the reference time point.
A method for forming a lipid bilayer for use in a nanopore sensor, the method comprising: (a) introducing a buffer solution in one or more flow channels, the one or more flow channels comprising a plurality of wells, each well having an opening and an electrode and a material layer disposed over the opening of the well, wherein the buffer solution is electrically conductive and wherein the material layer comprises one or more lipids or polymers; (b) bringing the buffer solution in contact with the material layer; (c) measuring an electrical property of the material layer with the electrode to characterize the material layer, wherein the electrical property is selected from the group consisting of current, capacitance and resistance; and (d) applying a stimulus to the electrode to induce the at least the portion of the material layer to form the bilayer over the opening of the well. (a) introducing a buffer solution in one or more flow channels, the one or more flow channels comprising a plurality of wells, each well having an opening and an electrode and a material layer disposed over the opening of the well, wherein the buffer solution is electrically conductive and wherein the material layer comprises one or more lipids or polymers; (b) bringing the buffer solution in contact with the material layer; (c) measuring an electrical property of the material layer with the electrode to characterize the material layer, wherein the electrical property is selected from the group consisting of current, capacitance and resistance; and (d) applying a stimulus to the electrode to induce the at least the portion of the material layer to form the bilayer over the opening of the well.
A landscape paver including (a) a PV panel (200; 400) having a panel first surface and a panel second surface with the panel first surface and the panel second surface bounded by a panel peripheral edge, the PV panel (200; 400) being operable to provide electrical power at a panel output terminal (106, 108; 421, 422) in response to operating light incident on the panel first surface; and (b) a rigid frame (104; 401) extending along the panel peripheral edge and having a frame inside surface (211: 412) and a frame outside surface (212; 411), characterized in that: (c) the frame inside surface (211; 412) together with the panel second surface define a base volume and the frame outside surface (212; 411) faces away from the base volume; (d) a molded base material (202; 405) is located in the base volume, the molded base material (202; 405) including a base material backing surface and a base material lateral surface, the base material backing surface being molded against at least a portion of the panel second surface and the base material lateral surface being molded against at least a portion of the frame inside surface; and (e) a paver cover material (203; 406) extends over the panel first surface, the paver cover material (203; 406) being light-transmissive at least in portions extending over one or more areas of the panel first surface. (a) a PV panel (200; 400) having a panel first surface and a panel second surface with the panel first surface and the panel second surface bounded by a panel peripheral edge, the PV panel (200; 400) being operable to provide electrical power at a panel output terminal (106, 108; 421, 422) in response to operating light incident on the panel first surface; and (b) a rigid frame (104; 401) extending along the panel peripheral edge and having a frame inside surface (211: 412) and a frame outside surface (212; 411), (c) the frame inside surface (211; 412) together with the panel second surface define a base volume and the frame outside surface (212; 411) faces away from the base volume; (d) a molded base material (202; 405) is located in the base volume, the molded base material (202; 405) including a base material backing surface and a base material lateral surface, the base material backing surface being molded against at least a portion of the panel second surface and the base material lateral surface being molded against at least a portion of the frame inside surface; and (e) a paver cover material (203; 406) extends over the panel first surface, the paver cover material (203; 406) being light-transmissive at least in portions extending over one or more areas of the panel first surface.