mhurhangee/ep-ind-claims huggingface dataset:
A method of fabricating a security element, comprising: assigning a first object in a starting digital image to a first image display plane, and a second object in the starting digital image to a second image display plane,, the starting digital image comprising a plurality of pixels; arranging a set of micro mirrors from a plurality of micro mirrors located in a base of a cone with an apex coinciding with the pixel being created by these micro mirrors, on a surface of a substrate to reflect the ambient light toward a point on the first image display plane corresponding to said pixel or toward a point on the second image display plane corresponding to said pixel, providing a processor of a computing device, characterized by executing a code to provide an array design module that operates to randomly select the micro mirrors in each set of the micro mirrors to display each of the pixels of the first object in the first image display plane and to display each of the pixels of the second object in the second image display plane; for each of the pixels, determining with the array design module an angular orientation of each of the micro mirrors in the selected sets of the micro mirrors; and generating a design output file including the angular orientation and location coordinates in the array for each of the micro mirrors in the selected sets of the micro mirrors. assigning a first object in a starting digital image to a first image display plane, and a second object in the starting digital image to a second image display plane,, the starting digital image comprising a plurality of pixels; arranging a set of micro mirrors from a plurality of micro mirrors located in a base of a cone with an apex coinciding with the pixel being created by these micro mirrors, on a surface of a substrate to reflect the ambient light toward a point on the first image display plane corresponding to said pixel or toward a point on the second image display plane corresponding to said pixel, providing a processor of a computing device, characterized by executing a code to provide an array design module that operates to randomly select the micro mirrors in each set of the micro mirrors to display each of the pixels of the first object in the first image display plane and to display each of the pixels of the second object in the second image display plane; for each of the pixels, determining with the array design module an angular orientation of each of the micro mirrors in the selected sets of the micro mirrors; and generating a design output file including the angular orientation and location coordinates in the array for each of the micro mirrors in the selected sets of the micro mirrors.
An electronic air brake system, comprising: a plurality of brake system control modules (14, 16, 18, 20, 22) for providing non-variable hardware braking system functions; and a configuration module for providing variable braking system functions, the configuration module being coupled to the plurality of brake system control modules and having a receptacle interface configured to selectively engage a series of sections (30; 32, 34, 36, 38, 40, 42, 44, 46, 48, 50) for performing a series of corresponding dedicated air brake functions representing the variable braking system functions from a plurality of optional sections, wherein the receptacle interface comprises the structural components for providing the variable braking system functions. a plurality of brake system control modules (14, 16, 18, 20, 22) for providing non-variable hardware braking system functions; and a configuration module for providing variable braking system functions, the configuration module being coupled to the plurality of brake system control modules and having a receptacle interface configured to selectively engage a series of sections (30; 32, 34, 36, 38, 40, 42, 44, 46, 48, 50) for performing a series of corresponding dedicated air brake functions representing the variable braking system functions from a plurality of optional sections, wherein the receptacle interface comprises the structural components for providing the variable braking system functions.
A method of producing an insulated unit, the method comprising: forming at least one isocyanate reactive side, the at least one isocyanate reactive side comprising: at least one hydrophobic polyol having an average functionality from 2 to 6; at least one chain extender having two isocyanate-reactive groups per molecule and an equivalent weight per isocyanate-reactive group of less than 400; at least one filler, wherein the at least one filler is at least one of barium sulfate (BaSO 4), aluminum oxide (Al 2 O 3), aluminum hydroxide (Al 3), magnesium hydroxide (Mg 2) calcium carbonate (CaCO 3), mica, and talc; and contacting the at least one isocyanate reactive side with at least one first isocyanate in a presence of at least one adhesion promoter, the at least one adhesion promoter comprising at least the reaction product of at least one secondary aminoalkoxy silane and at least one second isocyanate, the reaction product having an average of at least one silane group and at least one isocyanate group per molecule; and applying at least the contacted at least one isocyanate reactive side, at least one first isocyanate, and the at least one adhesion promoter between at least portions of a first surface and a second surface. forming at least one isocyanate reactive side, the at least one isocyanate reactive side comprising: at least one hydrophobic polyol having an average functionality from 2 to 6; at least one chain extender having two isocyanate-reactive groups per molecule and an equivalent weight per isocyanate-reactive group of less than 400; at least one filler, wherein the at least one filler is at least one of barium sulfate (BaSO 4), aluminum oxide (Al 2 O 3), aluminum hydroxide (Al 3), magnesium hydroxide (Mg 2) calcium carbonate (CaCO 3), mica, and talc; and at least one hydrophobic polyol having an average functionality from 2 to 6; at least one chain extender having two isocyanate-reactive groups per molecule and an equivalent weight per isocyanate-reactive group of less than 400; at least one filler, wherein the at least one filler is at least one of barium sulfate (BaSO 4), aluminum oxide (Al 2 O 3), aluminum hydroxide (Al 3), magnesium hydroxide (Mg 2) calcium carbonate (CaCO 3), mica, and talc; and contacting the at least one isocyanate reactive side with at least one first isocyanate in a presence of at least one adhesion promoter, the at least one adhesion promoter comprising at least the reaction product of at least one secondary aminoalkoxy silane and at least one second isocyanate, the reaction product having an average of at least one silane group and at least one isocyanate group per molecule; and applying at least the contacted at least one isocyanate reactive side, at least one first isocyanate, and the at least one adhesion promoter between at least portions of a first surface and a second surface.
A method of stabilizing a scale factor associated with an optic rotation sensor, comprising: providing broadband light from a broadband spectral light source, the broadband light being produced by a superluminescence diode; processing the broadband light in an optic rotation sensor to generate an optic signal in response to an angular speed of the optic rotation sensor; passing the optic signal to a sensor detection system configured to produce a rotation measurement signal based on the optic signal, the rotation measurement signal characterizing the angular speed of the optic rotation sensor in accordance with a default interferometric wavelength; wherein the method further comprises directing at least a portion of the broadband light to a wavemeter, the spectrum of the broadband light directed to the wavemeter being the same as the spectrum of the broadband light processed in the optic rotation sensor; measuring, by the wavemeter, an effective interferometric wavelength based on the broadband light directed to the wavemeter, the effective interferometric wavelength being a wavelength that would make the wavemeter respond exactly the same as with the broadband light source; and correcting the rotation measurement signal in accordance with the effective interferometric wavelength. providing broadband light from a broadband spectral light source, the broadband light being produced by a superluminescence diode; processing the broadband light in an optic rotation sensor to generate an optic signal in response to an angular speed of the optic rotation sensor; passing the optic signal to a sensor detection system configured to produce a rotation measurement signal based on the optic signal, the rotation measurement signal characterizing the angular speed of the optic rotation sensor in accordance with a default interferometric wavelength; wherein the method further comprises directing at least a portion of the broadband light to a wavemeter, the spectrum of the broadband light directed to the wavemeter being the same as the spectrum of the broadband light processed in the optic rotation sensor; measuring, by the wavemeter, an effective interferometric wavelength based on the broadband light directed to the wavemeter, the effective interferometric wavelength being a wavelength that would make the wavemeter respond exactly the same as with the broadband light source; and correcting the rotation measurement signal in accordance with the effective interferometric wavelength.
A device for detecting a level of an analyte in a sample, the device comprising: a housing; a fluidic input port on the housing for receiving the sample; a flow channel within the housing in fluid communication with the fluidic input port; a sensing chip partially within the housing, the sensing chip comprising a sensing face in fluid communication with the flow channel, an excitation waveguide extending through the sensing chip and exposed at a first side region of the chip, one or more collection waveguides extending through the sensing chip and exposed at a second side region of the chip, wherein the excitation waveguide and the one or more collection waveguides cross and are evanescently coupled at an optical sensing site that forms a part of the sensing face, wherein the first side region is at an edge of the chip the edge being exposed at a first outer surface region of the housing for external optical coupling directly with the excitation waveguide, and wherein the second side region is at an edge of the chip the edge being exposed at a second outer surface region of the housing for external optical coupling directly with the one or more collection waveguides; and a waste reservoir within the housing in fluid communication with the flow channel for receiving the sample from the flow channel. a housing; a fluidic input port on the housing for receiving the sample; a flow channel within the housing in fluid communication with the fluidic input port; a sensing chip partially within the housing, the sensing chip comprising a sensing face in fluid communication with the flow channel, an excitation waveguide extending through the sensing chip and exposed at a first side region of the chip, one or more collection waveguides extending through the sensing chip and exposed at a second side region of the chip, wherein the excitation waveguide and the one or more collection waveguides cross and are evanescently coupled at an optical sensing site that forms a part of the sensing face, wherein the first side region is at an edge of the chip the edge being exposed at a first outer surface region of the housing for external optical coupling directly with the excitation waveguide, and wherein the second side region is at an edge of the chip the edge being exposed at a second outer surface region of the housing for external optical coupling directly with the one or more collection waveguides; and a waste reservoir within the housing in fluid communication with the flow channel for receiving the sample from the flow channel.
A method for transmitting a Device-to-Device, D2D, signal at a User Equipment, UE, in a wireless communication system, the method comprising: determining, by the UE, a transmission timing of a first D2D subframe which is one of D2D subframes configured for a D2D link based on a downlink subframe received from a base station; and transmitting a first D2D signal for discovery in the first D2D subframe based on the determined transmission timing, wherein the transmission timing of the first D2D subframe is determined by configuring a timing advance for the first D2D signal as 0 and applying the timing advance for the first D2D signal based on a boundary of the downlink subframe. determining, by the UE, a transmission timing of a first D2D subframe which is one of D2D subframes configured for a D2D link based on a downlink subframe received from a base station; and transmitting a first D2D signal for discovery in the first D2D subframe based on the determined transmission timing, wherein the transmission timing of the first D2D subframe is determined by configuring a timing advance for the first D2D signal as 0 and applying the timing advance for the first D2D signal based on a boundary of the downlink subframe.
An active system for emitting ultrasonic sounds from a wind turbine, the system comprising: a nozzle mounted on or within a non-blade component of the wind turbine, the nozzle including an inlet and an outlet; and a pressurized fluid source in fluid communication with the inlet, wherein the nozzle is configured to accelerate a fluid flow derived from the pressurized fluid source through the outlet such that an ultrasonic sound emission is produced by the nozzle; and wherein the outlet extends through a wall of the non-blade component. a nozzle mounted on or within a non-blade component of the wind turbine, the nozzle including an inlet and an outlet; and a pressurized fluid source in fluid communication with the inlet, wherein the nozzle is configured to accelerate a fluid flow derived from the pressurized fluid source through the outlet such that an ultrasonic sound emission is produced by the nozzle; and wherein the outlet extends through a wall of the non-blade component.
A nitrogen-containing fertilizer granule comprising: • a nitrogen-containing fertilizer core; • an organic functional layer covering the core, wherein the organic functional layer comprises at least one functional organic compound that is an enzyme inhibitor, a microbial suppressor, a phosphorus solubilizer, and/or a plant hormone; • a controlled release layer covering the organic functional layer, wherein the controlled release layer comprises water-swellable copolymeric nanoparticles; and • an anticaking layer covering the controlled release layer, wherein the anticaking layer comprises water-insoluble copolymeric nanoparticles. • a nitrogen-containing fertilizer core; • an organic functional layer covering the core, wherein the organic functional layer comprises at least one functional organic compound that is an enzyme inhibitor, a microbial suppressor, a phosphorus solubilizer, and/or a plant hormone; • a controlled release layer covering the organic functional layer, wherein the controlled release layer comprises water-swellable copolymeric nanoparticles; and • an anticaking layer covering the controlled release layer, wherein the anticaking layer comprises water-insoluble copolymeric nanoparticles.
A thermal imaging system comprising: a pixel array including a plurality of pixel groups, each pixel group comprising: a plurality of pixel rows, each pixel row containing a plurality of bolometer pixels; a trigger sense circuit including a pixel group input line in signal communication with the plurality of bolometer pixels, the trigger sense circuit configured to detect one or more overheated bolometer pixels included in the pixel group; and a group selector switch (303a, 303b) that selectively establishes an electrical connection between the pixel group and the trigger sense circuit; and an integration unit configured to generate an image based on a resistance of the plurality of bolometer pixels, wherein a group selector switch (303a, 303b) of a selected pixel group operates in a first state to disconnect the selected pixel group from the pixel group input line and to connect the selected pixel group to the integration unit such that the integration unit generates the image while remaining groups are connected to the pixel group input line, and wherein the group selector switch (303a, 303b) of the selected pixel group operates in a second state to disconnect the selected pixel group from the integration unit and to connect the selected pixel group to the pixel group input line such that the trigger sense circuit monitors the selected pixel group for a high temperature bolometer. a plurality of pixel rows, each pixel row containing a plurality of bolometer pixels; a trigger sense circuit including a pixel group input line in signal communication with the plurality of bolometer pixels, the trigger sense circuit configured to detect one or more overheated bolometer pixels included in the pixel group; and a group selector switch (303a, 303b) that selectively establishes an electrical connection between the pixel group and the trigger sense circuit; and an integration unit configured to generate an image based on a resistance of the plurality of bolometer pixels, wherein a group selector switch (303a, 303b) of a selected pixel group operates in a first state to disconnect the selected pixel group from the pixel group input line and to connect the selected pixel group to the integration unit such that the integration unit generates the image while remaining groups are connected to the pixel group input line, and wherein the group selector switch (303a, 303b) of the selected pixel group operates in a second state to disconnect the selected pixel group from the integration unit and to connect the selected pixel group to the pixel group input line such that the trigger sense circuit monitors the selected pixel group for a high temperature bolometer.
High-voltage device for a high-voltage application, comprising an electrically insulating housing having a housing cover which covers a housing interior and cover means, arranged in the housing interior, for at least one electrical terminal or electrical area to be protected from touch, wherein the cover means have a protective cover, which covers the electrical terminal or the electrical area, can be locked in a closed position by means of at least one locking element and can be transferred into an open position by means of an opening procedure, characterized in that the at least one locking element for the protective cover within the housing is a screw, which is held on the protective cover in the axial screw direction and is arranged on the protective cover in a loss-proof manner, wherein its release over a screwing procedure owing to a corresponding length of the screw demands a period of time, after which the electrical terminal or the electrical area has transitioned to a touch-proof state following the opening of the housing cover and the thus-triggered interruption of the high-voltage circuit.
In a communication network including at least one base station controller, BSC, and at least one mobile switching center, MSC, and at least one media gateway, MGw, in selective communication with the BSC over an interface that includes a packet-switched network, a method of admission control characterized by the steps of: receiving in a BSC, a call setup request from an MS (mobile station); notifying an MSC of the call setup request; selecting by the MSC, an MGw for the call; determining by the BSC, the transmission quality towards the MGw through the packet-switched network; determining by the BSC whether to refuse the call setup request based on the determined transmission quality towards the MGw; and determining by MGw, the transmission quality towards the BSC over the IP network; and determining whether to refuse the call setup request based on the determined transmission quality toward the BSC. receiving in a BSC, a call setup request from an MS (mobile station); notifying an MSC of the call setup request; selecting by the MSC, an MGw for the call; determining by the BSC, the transmission quality towards the MGw through the packet-switched network; determining by the BSC whether to refuse the call setup request based on the determined transmission quality towards the MGw; and determining by MGw, the transmission quality towards the BSC over the IP network; and determining whether to refuse the call setup request based on the determined transmission quality toward the BSC.
An oven comprising: a main body; a cooking compartment provided in the main body and having a front surface thereof is opened, the cooking compartment having an opening; a camera; a first glass provided at the opening of the cooking compartment so that the camera captures the inside of the cooking compartment and configured to block transmission of heat in the cooking compartment to the camera; and the camera is provided above the cooking compartment and configured to capture an inside of the cooking compartment through the opening characterized in that a second glass is provided between the camera and the first glass and configured to additionally block the transmission of heat to the camera, and a camera cooling fan the camera cooling fan is disposed above the camera and configured to cool the camera by suctioning external air, an inlet is provided at an upper portion of the main body and configured to suction the external air to cool the camera; and a rib is provided around the inlet and configured to prevent water from passing through the inlet. a main body; a cooking compartment provided in the main body and having a front surface thereof is opened, the cooking compartment having an opening; a camera; a first glass provided at the opening of the cooking compartment so that the camera captures the inside of the cooking compartment and configured to block transmission of heat in the cooking compartment to the camera; and the camera is provided above the cooking compartment and configured to capture an inside of the cooking compartment through the opening characterized in that a second glass is provided between the camera and the first glass and configured to additionally block the transmission of heat to the camera, and a camera cooling fan the camera cooling fan is disposed above the camera and configured to cool the camera by suctioning external air, an inlet is provided at an upper portion of the main body and configured to suction the external air to cool the camera; and a rib is provided around the inlet and configured to prevent water from passing through the inlet.