mhurhangee/ep-ind-claims huggingface dataset:
A fire-control system comprising - a housing, - a light channel, through which a user may directly observe a target and receive visually displayed information simultaneously, said light channel comprising partially reflective optics, - a light source adapted to emit light to the partially reflective optics via an optical path, providing light for a reticle or other information visible for a user, - a control unit for receiving a measure of a distance to a target and for determining and adequate position of the reticle, based on the distance to the target, wherein at least one tiltable mirror is arranged in the optical path such that a position of the reticle is controllable by the tilt of the mirror, wherein the tiltable mirror is provided by a micro-mirror device comprising several tiltable micro-mirrors arranged in an array fashion, preferably a two-dimensional array, wherein each micro-mirror is controllable to assume at least two positions, with a first position where the micro-mirror is arranged to forward the light from the light source towards an eye of the user via imaging optics arranged in the optical path between the tiltable mirror and the partially reflective optics, and a second position where the micro-mirror does not forward the light towards the eye of the user and that a control unit is configured to determine which of the micro-mirrors that should be positioned in the first position, and thereby determine the position and image of the reticle. - a housing, - a light channel, through which a user may directly observe a target and receive visually displayed information simultaneously, said light channel comprising partially reflective optics, - a light source adapted to emit light to the partially reflective optics via an optical path, providing light for a reticle or other information visible for a user, - a control unit for receiving a measure of a distance to a target and for determining and adequate position of the reticle, based on the distance to the target,
Apparatus for decoding a Bayer-mask or like coded image comprising a value for one of a set of colours at each pixel of the image to provide a decoded value for each of the set of colours at each pixel of the image, the apparatus comprising: a first interpolation filter for deriving from the coded image an array having for a selected colour a value at each pixel of the image, said array forming a first decoded colour value output; a slope detector for calculating a slope at each pixel of the array, expressed as a slope angle; an activity measure for calculating an activity at each pixel; a converter for converting the slope angle and the activity into a complex number for each pixel, of modulus equal to the activity and argument equal to twice the slope angle and expressing said complex numbers in Cartesian coordinates to form a Cartesian slope signal; a slope filter for filtering the Cartesian slope signal with a linear spatial filter to derive a slope measure, a colour difference unit for calculating from the array at each of the pixels a colour difference signal associated with each other colour; and a slope-adaptive interpolation filter steered by said slope measure for interpolating said colour difference signals; and a combiner for combining said interpolated colour difference signals and said first decoded colour value output to derive at least second and third decoded colour value outputs; wherein a mix is formed between the output of said slope-adaptive interpolating and an image decoded without slope-adaptive interpolation, the mix controlled by a slope consistency measure predicting the consistency of slope-adaptive interpolation. a first interpolation filter for deriving from the coded image an array having for a selected colour a value at each pixel of the image, said array forming a first decoded colour value output; a slope detector for calculating a slope at each pixel of the array, expressed as a slope angle; an activity measure for calculating an activity at each pixel; a converter for converting the slope angle and the activity into a complex number for each pixel, of modulus equal to the activity and argument equal to twice the slope angle and expressing said complex numbers in Cartesian coordinates to form a Cartesian slope signal; a slope filter for filtering the Cartesian slope signal with a linear spatial filter to derive a slope measure, a colour difference unit for calculating from the array at each of the pixels a colour difference signal associated with each other colour; and a slope-adaptive interpolation filter steered by said slope measure for interpolating said colour difference signals; and a combiner for combining said interpolated colour difference signals and said first decoded colour value output to derive at least second and third decoded colour value outputs; wherein a mix is formed between the output of said slope-adaptive interpolating and an image decoded without slope-adaptive interpolation, the mix controlled by a slope consistency measure predicting the consistency of slope-adaptive interpolation.
Method for the production of a phosphated screw, wherein the screw is provided with a siliceous sealing after phosphating, characterised in that the screw is rolled only after phosphating and after the application of the siliceous sealing.
An air conditioner including a plurality of indoor units (4A, 4B, 4C, 4D) for a single outdoor unit, in which a heating operation can be stopped in one of the indoor units (4A, 4B, 4C, 4D) and heating operations can be performed in other indoor units, the air conditioner comprising: measuring units that measure the temperatures of air taken into the indoor units (4A, 4B, 4C, 4D); and a control unit that controls restarting of the next heating operation in the one indoor unit in which the heating operation was stopped by correcting the measured temperature in the measuring unit at predetermined time intervals by means of a correction value and by comparing the corrected measured temperature and a heating restart temperature, characterized in that the correction of the measured temperature is a correction whereby the absolute value of said correction value is subtracted from the measured temperature; said correction value increases according to the time that has passed after the heating operation is stopped; and wherein the absolute value of the correction value is dependent on the arrangement of the measuring unit with respect an indoor heat exchanger. measuring units that measure the temperatures of air taken into the indoor units (4A, 4B, 4C, 4D); and a control unit that controls restarting of the next heating operation in the one indoor unit in which the heating operation was stopped by correcting the measured temperature in the measuring unit at predetermined time intervals by means of a correction value and by comparing the corrected measured temperature and a heating restart temperature,
An integrated circuit, comprising: a plurality of circuit blocks (102, 104, 112, 114) of the integrated circuit designed in accordance with a plurality of design criteria, wherein the circuit blocks (102, 104) in the plurality of circuit blocks (102, 104, 112, 114) include one or more critical paths (106, 108), respectively; a circuit performance monitor, wherein the circuit performance monitor includes one or more replica critical paths (116, 118) corresponding to the one or more critical paths (106, 108) in the circuit blocks (102, 104), and wherein the circuit performance monitor is configured to monitor critical path information of the one or more replica critical paths (116, 118); characterized in that further comprising: a circuit performance controller that comprises circuit parameter controllers configured to: determine adjustment circuit parameter values based at least in part on the critical path information of the replica critical paths (116, 118), wherein the critical path information includes at least one of performance data or signal quality data of the one or more replica critical paths (116, 118); and adjust corresponding circuit parameters of the circuit blocks (102, 104) using the adjustment circuit parameter values during operation of the integrated circuit. a plurality of circuit blocks (102, 104, 112, 114) of the integrated circuit designed in accordance with a plurality of design criteria, wherein the circuit blocks (102, 104) in the plurality of circuit blocks (102, 104, 112, 114) include one or more critical paths (106, 108), respectively; a circuit performance monitor, wherein the circuit performance monitor includes one or more replica critical paths (116, 118) corresponding to the one or more critical paths (106, 108) in the circuit blocks (102, 104), and wherein the circuit performance monitor is configured to monitor critical path information of the one or more replica critical paths (116, 118); characterized in that further comprising: a circuit performance controller that comprises circuit parameter controllers configured to: determine adjustment circuit parameter values based at least in part on the critical path information of the replica critical paths (116, 118), wherein the critical path information includes at least one of performance data or signal quality data of the one or more replica critical paths (116, 118); and adjust corresponding circuit parameters of the circuit blocks (102, 104) using the adjustment circuit parameter values during operation of the integrated circuit. determine adjustment circuit parameter values based at least in part on the critical path information of the replica critical paths (116, 118), wherein the critical path information includes at least one of performance data or signal quality data of the one or more replica critical paths (116, 118); and adjust corresponding circuit parameters of the circuit blocks (102, 104) using the adjustment circuit parameter values during operation of the integrated circuit.
An air gap inspection device for an electric machine, comprising: a substantially rigid rail; a cart positioned on the rail; an inspection head positioned on the cart adjacent to the rail; a drive system for maneuvering the cart along the rail, characterized in a plurality of cart pulley wheels in-plane with the rail and in communication with a rail pulley wheel to move the cart along the rail; and the cart comprises a base and a mounting arm, the mounting arm extending at one side of the base and the rail, the inspection head being positioned on the mounting arm. a substantially rigid rail; a cart positioned on the rail; an inspection head positioned on the cart adjacent to the rail; a drive system for maneuvering the cart along the rail, characterized in a plurality of cart pulley wheels in-plane with the rail and in communication with a rail pulley wheel to move the cart along the rail; and the cart comprises a base and a mounting arm, the mounting arm extending at one side of the base and the rail, the inspection head being positioned on the mounting arm.
A sizing composition for glass fibers useful in reinforcing an olefin resin, comprising at least the following items a) and b): a) 50 to 95 wt. %, based on the total of a) and b), of an acid-modified olefin resin which has been neutralized with an amine selected from ethylene diamine and morpholine, and b) 5 to 50 wt. %, based on the total of a) and b), of γ-aminopropyl-triethoxysilane as an amino-containing silane coupling agent, wherein said acid-modified olefin resin has a number average molecular weight of between 15,000 and 50,000. a) 50 to 95 wt. %, based on the total of a) and b), of an acid-modified olefin resin which has been neutralized with an amine selected from ethylene diamine and morpholine, and b) 5 to 50 wt. %, based on the total of a) and b), of γ-aminopropyl-triethoxysilane as an amino-containing silane coupling agent,
A rope supporting apparatus for an elevator comprising: a column-like body extending along a guide rail (31, 31A, 31B) installed within a hoistway and mounted on said guide rail, said column-like body comprising an upper end portion and a lower end portion, a rope supporting member fixed to said column-like body for supporting a rope suspending at least one of a car and a counterweight within the hoist way; and a plurality of support bodies (34; 41, 42; 45) provided between both end portions of said column-like body and said guide rail (31, 31A, 31B) for transmitting a load from said column-like body to said guide rail, characterized in that said rope supporting member receives an eccentric load from said rope, owing to this said column-like body receives a load in a direction parallel to a center axis of said guide rail and a load in a direction perpendicular to the center axis of said guide rail from said rope supporting member, in that a vertical dimension of said column-like body along said guide rail is larger than that of said rope supporting member, and in that said rope supporting member extends in a direction perpendicular to the column-like body, wherein said support bodies (34; 41, 42; 45) are provided at the upper end portion and the lower end portion. a column-like body extending along a guide rail (31, 31A, 31B) installed within a hoistway and mounted on said guide rail, said column-like body comprising an upper end portion and a lower end portion, a rope supporting member fixed to said column-like body for supporting a rope suspending at least one of a car and a counterweight within the hoist way; and a plurality of support bodies (34; 41, 42; 45) provided between both end portions of said column-like body and said guide rail (31, 31A, 31B) for transmitting a load from said column-like body to said guide rail, characterized in that said rope supporting member receives an eccentric load from said rope, owing to this said column-like body receives a load in a direction parallel to a center axis of said guide rail and a load in a direction perpendicular to the center axis of said guide rail from said rope supporting member, in that a vertical dimension of said column-like body along said guide rail is larger than that of said rope supporting member, and in that said rope supporting member extends in a direction perpendicular to the column-like body, wherein said support bodies (34; 41, 42; 45) are provided at the upper end portion and the lower end portion.
A fire door for rail vehicles, preferably to separate the driver's compartment 11 from the passenger compartment, comprising • a door frame, • a door leaf, • a sealing strip positioned on the bottom edge of the door leaf, • a fire-proof strip that is positioned on the bottom edge of the door leaf and which changes its size and/or form when subjected to heat, wherein the fire door exhibits a step bar, which is arranged and formed in such a manner that with the door closed the sealing strip butts against the step bar and between the fire-proof strip at the bottom edge of the door leaf and the step bar a gap is formed, which is sealed by the fire-proof strip on the bottom edge when subjected to heat, and by opening the door a gap forms between the sealing strip and the step bar, characterized in that the step bar exhibits an angled cross-sectional profile, comprising a first element with horizontal surface, against which the sealing strip butts when the door is closed, and a second element with angled surface, whereas the surface of the second element is angled against the horizontal surface of the first element in the direction of the floor and with the door closed between the angled surface of the second element and the fire-proof strip a gap is formed and with the opening of the door a gap opening in a vertical direction is formed between the sealing strip and the angled surface of the second element. • a door frame, • a door leaf, • a sealing strip positioned on the bottom edge of the door leaf, • a fire-proof strip that is positioned on the bottom edge of the door leaf and which changes its size and/or form when subjected to heat,
A controlled release pharmaceutical composition comprising a) a therapeutically effective amount of pregabalin or salts thereof as active ingredient, b) hydrophobic release controlling agent being ethyl cellulose, and c) optionally other pharmaceutically acceptable excipients selected from binders, diluents, glidants and lubricants wherein said composition exhibits an in vitro release of the pregabalin or salts thereof of not less than about 55 % after 7 hours.
A life cycle management method for a network service, wherein the method comprises: receiving, by a first device, a life cycle management request sent by a second device for a target network service, NS, wherein the life cycle management request comprises a mapping relationship between an identifier of an existing virtualized network function, VNF, instance and a characteristic parameter corresponding to the identifier, and the characteristic parameter is an identifier parameter that is in a target network service descriptor, NSD, and that marks each piece of VNF instance requirement information in multiple pieces of VNF instance requirement information required by the target NSD, the characteristic parameter is for identifying only one piece of VNF instance requirement information; and performing, by the first device, life cycle management on the target NS according to the existing VNF instance and the mapping relationship. receiving, by a first device, a life cycle management request sent by a second device for a target network service, NS, wherein the life cycle management request comprises a mapping relationship between an identifier of an existing virtualized network function, VNF, instance and a characteristic parameter corresponding to the identifier, and the characteristic parameter is an identifier parameter that is in a target network service descriptor, NSD, and that marks each piece of VNF instance requirement information in multiple pieces of VNF instance requirement information required by the target NSD, the characteristic parameter is for identifying only one piece of VNF instance requirement information; and performing, by the first device, life cycle management on the target NS according to the existing VNF instance and the mapping relationship.
A processor (3000, 3110, 3115) comprising: a decoder configured to decode a matrix transpose and multiply instruction having a format including an opcode field configured to specify an opcode, a first destination operand field configured to specify a destination matrix location, a first source operand field configured to specify a first source matrix location, storing a first plurality of elements each comprising a group of values, and a second source operand field configured to specify a second source matrix location storing a second plurality of elements each comprising a group of values; and execution circuitry (1311, 1411, 2114, 2134) configured to, in response to the decoded matrix transpose and multiply instruction, transpose a first source matrix from the first source matrix location to generate a transposed first source matrix, perform a matrix multiplication using the transposed first source matrix and a second source matrix from the second source matrix location to generate a result, and store the result in the destination matrix location; wherein each element has an element width, wherein the execution circuitry (1311, 1411, 2114, 2134) is configured to transpose the first source matrix based on a granularity equal to the element width; and wherein to perform the matrix multiplication separate multiplications are performed between each value of the first plurality of elements and each value of the second plurality of elements. a decoder configured to decode a matrix transpose and multiply instruction having a format including an opcode field configured to specify an opcode, a first destination operand field configured to specify a destination matrix location, a first source operand field configured to specify a first source matrix location, storing a first plurality of elements each comprising a group of values, and a second source operand field configured to specify a second source matrix location storing a second plurality of elements each comprising a group of values; and execution circuitry (1311, 1411, 2114, 2134) configured to, in response to the decoded matrix transpose and multiply instruction, transpose a first source matrix from the first source matrix location to generate a transposed first source matrix, perform a matrix multiplication using the transposed first source matrix and a second source matrix from the second source matrix location to generate a result, and store the result in the destination matrix location; wherein each element has an element width, wherein the execution circuitry (1311, 1411, 2114, 2134) is configured to transpose the first source matrix based on a granularity equal to the element width; and wherein to perform the matrix multiplication separate multiplications are performed between each value of the first plurality of elements and each value of the second plurality of elements.
Direct current machine, comprising a stator and a rotor, one of them comprising a plurality of magnets alternatively magnetized south and north, the other one comprising a plurality of coils formed by winding insulated wire around teeth in order to provide a three-phase winding, wherein slots are formed between said coils and the coils are grouped in coil groups of four coils of one phase arranged in the circumferential direction directly one behind the other, and a current controlled inverter for driving said machine, characterized in that each coil group has the same winding pattern so that each first coil of a coil group, seen in a direction of rotation, is wound in the same winding direction, and that two, in the direction of rotation, subsequent coil groups of one phase are connected such that current flows through one of them in the direction of rotation and through the other one in a direction opposite to the direction of rotation.