mhurhangee/ep-ind-claims huggingface dataset:
A control device configured to be installed in an aerospace vehicle, the control device comprising: an image processor configured to perform image processing on a taken image (Img) of a non-cooperative object to obtain a center-of-mass position of the non-cooperative object corresponding to the shape of the non-cooperative object in the taken image and a first vector, the first vector being a vector that passes through the center-of-mass position of the non-cooperative object, is parallel to a longitudinal direction of the non-cooperative object, and includes a vector component in a direction in which the aerospace vehicle is to be brought into proximity to the non-cooperative object; a trajectory generator configured to generate a target trajectory on which the aerospace vehicle is to navigate to come into proximity to the non-cooperative object; and a controller configured to cause the aerospace vehicle to navigate on the target trajectory by controlling an attitude of the aerospace vehicle, said controller configured to drive a thruster, a reaction wheel and/or another attitude controller, such as a magnetorquer and a momentum gyro, wherein the trajectory generator generates the target trajectory in a plane that is defined by the first vector and a second vector, the second vector being a vector in an image-taking direction in which the taken image is taken. an image processor configured to perform image processing on a taken image (Img) of a non-cooperative object to obtain a center-of-mass position of the non-cooperative object corresponding to the shape of the non-cooperative object in the taken image and a first vector, the first vector being a vector that passes through the center-of-mass position of the non-cooperative object, is parallel to a longitudinal direction of the non-cooperative object, and includes a vector component in a direction in which the aerospace vehicle is to be brought into proximity to the non-cooperative object; a trajectory generator configured to generate a target trajectory on which the aerospace vehicle is to navigate to come into proximity to the non-cooperative object; and a controller configured to cause the aerospace vehicle to navigate on the target trajectory by controlling an attitude of the aerospace vehicle, said controller configured to drive a thruster, a reaction wheel and/or another attitude controller, such as a magnetorquer and a momentum gyro, wherein the trajectory generator generates the target trajectory in a plane that is defined by the first vector and a second vector, the second vector being a vector in an image-taking direction in which the taken image is taken.
A substrate for an optical device, comprising: a base layer and a plurality of column spacers on the base layer, wherein a ball spacer is attached to or embedded in at least one of the plurality of column spacers, the ratio, A/B, of the number, A, of the column spacers, to which the ball spacer is attached or in which the ball spacer is embedded, relative to the number, B, of column spacers which the ball spacer is not attached to and embedded in is in a range from 0.01 to 10, a standard deviation in heights of the plurality of column spacers is in a range from 0.05 μm to 0.3 μm, the ratio, H/D, of the average value, H, of the heights of the column spacers to the average particle diameters, D, of the ball spacers is more than 1, an average value of diameters, T, of the plurality of column spacers is in a range of 14 μm or more, and a loss rate of the column spacers measured by attaching a Nichiban tape CT-24 having a peel force of 3.72 N/10mm to 4.16 N/10mm to a surface of a base layer, on which the column spacers are formed, with a rectangular attachment area of 24 mm in width and 40 mm in length and then peeling the Nichiban tape CT-24 in the longitudinal direction at a peel rate of about 30 mm/s and a peel angle of about 180 degrees is 15% or less. a base layer and a plurality of column spacers on the base layer, wherein a ball spacer is attached to or embedded in at least one of the plurality of column spacers, the ratio, A/B, of the number, A, of the column spacers, to which the ball spacer is attached or in which the ball spacer is embedded, relative to the number, B, of column spacers which the ball spacer is not attached to and embedded in is in a range from 0.01 to 10, a standard deviation in heights of the plurality of column spacers is in a range from 0.05 μm to 0.3 μm, the ratio, H/D, of the average value, H, of the heights of the column spacers to the average particle diameters, D, of the ball spacers is more than 1, an average value of diameters, T, of the plurality of column spacers is in a range of 14 μm or more, and a loss rate of the column spacers measured by attaching a Nichiban tape CT-24 having a peel force of 3.72 N/10mm to 4.16 N/10mm to a surface of a base layer, on which the column spacers are formed, with a rectangular attachment area of 24 mm in width and 40 mm in length and then peeling the Nichiban tape CT-24 in the longitudinal direction at a peel rate of about 30 mm/s and a peel angle of about 180 degrees is 15% or less.
An optical article comprising an organic or mineral glass substrate, a layer of a polymeric material, and an intermediate layer having antistatic properties in direct contact with a main face of the substrate and the layer of polymeric material, characterized in that the intermediate layer comprises a mixture of colloidal particles of at least one electrically conductive colloidal metal oxide, of colloidal particles of non conductive mineral oxides having a refractive index of 1.55 or less and optionally of a binder, in such proportions that the mass of electrically conductive colloidal metal oxide particles represents 50 to 97% of the total weight of colloidal particles present in the intermediate layer, said intermediate layer being an initially porous layer, the pores of which have been filled either with material of the layer of polymeric material or with material of the substrate if the latter is made of an organic glass, so that the intermediate layer, after the initial porosity thereof has been filled, verifies the characteristics given by the following relationships: 0.725 × λ 4 n ≤ e ≤ 1.35 × λ 4 n 0.98 × n substrate ⋅ n polymer ≤ n ≤ 1.02 × n substrate ⋅ n polymer wherein n is the refractive index of the intermediate layer, n substrate is the refractive index of the substrate, n polymer is the refractive index of the layer of polymeric material in direct contact with the intermediate layer, e is the thickness of the intermediate layer and λ is set at 550 nm.
A buffer kit comprising: a) a first eluent solution including at least four buffer salts where at least three of the four buffer salts are a monovalent buffer salt, have a net negative charge or a net neutral zwitterionic charge over a pH range of about 6 to about 10, and include a sulfonate group and an amine, where the first eluent solution has a first pH of about 6 and a total buffer salt concentration of greater than about 25 millimolar; b) a second eluent solution including at least four buffer salts where at least three of the four buffer salts are a monovalent buffer salt, have a net negative charge or a net neutral zwitterionic charge over a pH range of about 6 to about 10, and include a sulfonate group and an amine, where the second eluent solution has a second pH of about 10 and a total buffer salt concentration of greater than about 25 millimolar; whereby the buffer kit provides a linear pH gradient, based on a function of time and pH values, that forms an approximately straight line for at least a pH range of about pH 6 to about pH 10. a) a first eluent solution including at least four buffer salts where at least three of the four buffer salts are a monovalent buffer salt, have a net negative charge or a net neutral zwitterionic charge over a pH range of about 6 to about 10, and include a sulfonate group and an amine, where the first eluent solution has a first pH of about 6 and a total buffer salt concentration of greater than about 25 millimolar; b) a second eluent solution including at least four buffer salts where at least three of the four buffer salts are a monovalent buffer salt, have a net negative charge or a net neutral zwitterionic charge over a pH range of about 6 to about 10, and include a sulfonate group and an amine, where the second eluent solution has a second pH of about 10 and a total buffer salt concentration of greater than about 25 millimolar;
A method for computing confidence comprising: with a text recognition system, performing character recognition on an input text image to generate a candidate string of characters; generating a vectorial character string representation based on a set of features extracted from the candidate string of characters; generating a vectorial text image representation based on the input text image, wherein generating the text image representation comprises generating a statistical representation of features extracted from patches of the image using a generative model; computing a similarity between the character string representation and the text image representation, using a function of the form: c t I = x I T ⋅ W ⋅ e t where x represents one of the text image representation and the character string representation, e ( t) represents the other of the text image representation and the character string representation, T represents the transpose operator, and W represents a matrix of weights; and computing a confidence in the candidate string of characters based on the computed similarity; wherein at least one of the performing character recognition, generating the character string representation, generating the text image representation, and computing the confidence is performed with a computer processor. with a text recognition system, performing character recognition on an input text image to generate a candidate string of characters; generating a vectorial character string representation based on a set of features extracted from the candidate string of characters; generating a vectorial text image representation based on the input text image, wherein generating the text image representation comprises generating a statistical representation of features extracted from patches of the image using a generative model; computing a similarity between the character string representation and the text image representation, using a function of the form: c t I = x I T ⋅ W ⋅ e t where x represents one of the text image representation and the character string representation, e ( t) represents the other of the text image representation and the character string representation, T represents the transpose operator, and W represents a matrix of weights; and computing a confidence in the candidate string of characters based on the computed similarity; wherein at least one of the performing character recognition, generating the character string representation, generating the text image representation, and computing the confidence is performed with a computer processor. where x represents one of the text image representation and the character string representation, e ( t) represents the other of the text image representation and the character string representation, T represents the transpose operator, and W represents a matrix of weights; and computing a confidence in the candidate string of characters based on the computed similarity; wherein at least one of the performing character recognition, generating the character string representation, generating the text image representation, and computing the confidence is performed with a computer processor.
Device for transferring vehicle wheels, wherein an individual vehicle wheel can be gripped by means of a gripping module (40, 42) which for this purpose includes at least one gripping unit (78, 80), supported by a frame structure, with several pressure elements which are capable of being pressed against one or more mating surfaces of an individual vehicle wheel, wherein a) a first gripping module and a second gripping module are attached to a common rigid supporting structure which is capable of being rotated about a principal axis of rotation by means of a rotary device (48, 52, 64, 68), b) translation means (68; 88, 90; 96, 98) are present, by means of which the pressure elements are capable of being moved with a motion component parallel to the principal axis of rotation, characterised in that c) the translation means (68; 88, 90; 96, 98) include a gripping-module translation device (96, 98), by means of which at least one gripping module (40, 42) is capable of being moved in relation to the supporting structure with a motion component parallel to the principal axis of rotation. a) a first gripping module and a second gripping module are attached to a common rigid supporting structure which is capable of being rotated about a principal axis of rotation by means of a rotary device (48, 52, 64, 68), b) translation means (68; 88, 90; 96, 98) are present, by means of which the pressure elements are capable of being moved with a motion component parallel to the principal axis of rotation, characterised in that c) the translation means (68; 88, 90; 96, 98) include a gripping-module translation device (96, 98), by means of which at least one gripping module (40, 42) is capable of being moved in relation to the supporting structure with a motion component parallel to the principal axis of rotation.
A credit card comprising a card body, which comprises - fingerprint reading means providing fingerprint signals representative of at least one fingerprint from a card user, when at least one finger of said user is pressed against said fingerprint reading means; - data carrier means holding at least card owner fingerprint data and secured data; - a readout area; - fingerprint authentication means comprising a data processor, which is able to authenticate said fingerprint signals with said card owner fingerprint data, - an electrical power supply delivering electrical power to at least said fingerprint reading means, said fingerprint authentication means, and said readout area, - at least one driver circuit in communication with at least one transducer coil in said readout area comprising at least one core winding around at least one strip of electromagnetically inducible core material, each strip being individually inducible by said data processor to emit a magnetic field containing secured data signals corresponding to said secured data, and - at least one sweep detection sensor which is able to cause said data processor to activate said secured data by emission of said secured data signals at least once by said at least one transducer coil, when said credit card is in the vicinity of a credit card reader, where said fingerprint authentication means control activation of said secured data based on authentication of the fingerprint signals by comparing these with said card owner fingerprint data, if the comparison is a match, then said secured data is activated, else said secured data is not activated, the credit card being characterized in that the sweep sensor comprises at least one sensor winding provided around at least one of said strips of electromagnetically inducible core material. - fingerprint reading means providing fingerprint signals representative of at least one fingerprint from a card user, when at least one finger of said user is pressed against said fingerprint reading means; - data carrier means holding at least card owner fingerprint data and secured data; - a readout area; - fingerprint authentication means comprising a data processor, which is able to authenticate said fingerprint signals with said card owner fingerprint data, - an electrical power supply delivering electrical power to at least said fingerprint reading means, said fingerprint authentication means, and said readout area, - at least one driver circuit in communication with at least one transducer coil in said readout area comprising at least one core winding around at least one strip of electromagnetically inducible core material, each strip being individually inducible by said data processor to emit a magnetic field containing secured data signals corresponding to said secured data, and - at least one sweep detection sensor which is able to cause said data processor to activate said secured data by emission of said secured data signals at least once by said at least one transducer coil, when said credit card is in the vicinity of a credit card reader,
Control device for an object coupling device of a vehicle, wherein the control device, taking into account at least one provided sensor signal of at least one vehicle's own sensor, is designed to activate a dampening device of the object coupling device by means of at least one control signal so that an object that can be fixed in a predefined fixing position on and/or in the object coupling device during normal travel of the vehicle and that can be moved by means of an inertial force from the fixing position along a predefined target route (Sges) to a target impact component of the vehicle, can be decelerated by means of the activated dampening device prior to contact of the object with the target impact component, and wherein the control device ' is additionally designed, taking into account the at least one sensor signal, to determine a target operating mode of the dampening device of at least two operating modes of the dampening device that can be implemented with a different time difference (Δt) between an exit time of the object from the fixing position and an onset time (ta) of the deceleration of the object to be performed by means of the activated dampening device and to control the dampening device in the target operating mode by means of the at least one control signal.
A computer, wherein the computer comprises a system bus and at least three hardware devices connected to the system bus; the at least three hardware devices comprise a processor, a storage, and at least one another device; an operating system of the computer comprises a scheduling subsystem; the operating system is stored in the storage; and a corresponding bus management module is provided in the system bus, wherein the processor is configured to invoke the scheduling subsystem to allocate, to at least one container of the computer, a container identity ID that corresponds one-to-one to the container; the processor or the another device is configured to send a bus request to the system bus, wherein the bus request carries the container ID and a hardware device ID of a hardware device used by the container indicated by the container ID; the bus management module is configured to search, according to the bus request, for a quality of service, QoS, parameter corresponding to both the container ID and the hardware device ID, wherein the QoS parameter is stored in the bus management module; and the bus management module is further configured to configure, according to the found QoS parameter, a resource required when the container corresponding to the QoS parameter uses the hardware device corresponding to the QoS parameter, wherein the resource comprises at least one of bandwidth, a delay, or a priority; wherein the hardware device used by the container is the another device, and the another device comprises at least one of a network device, an encryption/decryption device, a display device, or a video encoding/decoding device; and in an aspect of sending a bus request to the system bus, the processor is specifically configured to invoke a first memory management MM subsystem in the operating system by using the container, to configure a device page table for the another device and store the device page table in a memory in the storage, wherein the device page table comprises the container ID; the processor is specifically configured to send a page table read instruction to the another device by using the first MM subsystem, wherein the page table read instruction is used to instruct a second MM subsystem in the another device to read the device page table from the memory, and the second MM subsystem is comprised in device software of the another device; and the another device is specifically configured to send, to the system bus, the bus request that carries the container ID and the hardware device ID, wherein the container ID in the bus request is read by the second MM subsystem from the memory.
Use of latanoprost for suppressing the content reduction of netarsudil or a salt thereof or a solvate thereof in a pharmaceutical preparation comprising an aqueous composition comprising the following components and: netarsudil or a salt thereof or a solvate thereof; and latanoprost, wherein the aqueous composition is housed in a container formed of polypropylene. netarsudil or a salt thereof or a solvate thereof; and latanoprost,
A lens-centering method for mounting a lens in a centered state between a lens holder and a lens-processing dish of a spherical center-type processing machine in order to precision-grind or polish a spherical lens surface of the lens, said lens centering method comprising: a lens-chucking step of vacuum-chucking the lens to the lens holder; a lens-pressing step of pressing the spherical lens surface of the lens with a prescribed pressing force to a lens-processing surface of the lens-processing dish, the lens-processing surface having a spherical-surface shape corresponding to the spherical lens surface; a lens-unchucking step of unchucking the lens, in which the vacuum-chucking state is removed from between the lens holder and the lens-processing dish, and the lens is retained with the pressing force and is able to move along with rotation and oscillation of the lens-processing dish; and a rotation/oscillation step of guiding a spherical center of the spherical lens surface to a spherical center of the lens-processing surface by rotating the lens-processing dish, with the lens pressed against the dish at said pressing force, at a prescribed rotational speed about a rotational axis line passing through a center of the lens-processing surface and a spherical center positioned on a center axis line of the lens holder in the lens-processing surface, and causing the lens-processing dish to oscillate at a prescribed oscillation angle in a prescribed direction about the spherical center as a center of oscillating action. a lens-chucking step of vacuum-chucking the lens to the lens holder; a lens-pressing step of pressing the spherical lens surface of the lens with a prescribed pressing force to a lens-processing surface of the lens-processing dish, the lens-processing surface having a spherical-surface shape corresponding to the spherical lens surface; a lens-unchucking step of unchucking the lens, in which the vacuum-chucking state is removed from between the lens holder and the lens-processing dish, and the lens is retained with the pressing force and is able to move along with rotation and oscillation of the lens-processing dish; and a rotation/oscillation step of guiding a spherical center of the spherical lens surface to a spherical center of the lens-processing surface by rotating the lens-processing dish, with the lens pressed against the dish at said pressing force, at a prescribed rotational speed about a rotational axis line passing through a center of the lens-processing surface and a spherical center positioned on a center axis line of the lens holder in the lens-processing surface, and causing the lens-processing dish to oscillate at a prescribed oscillation angle in a prescribed direction about the spherical center as a center of oscillating action.