mhurhangee/ep-ind-claims huggingface dataset:
Endoscopic device, in particular for medical applications, comprising an endoscope (26; 100) with a shaft (30; 102) that is introducible into a subject under examination, and a data processing unit, three or more optical imaging units (50, 52, 54) having respective imaging elements (56, 58, 60) arranged distally on the shaft (30; 102) and image sensors (70, 72, 74) associated therewith for providing three or more image data sets (78, 80, 82) for the data processing unit, characterized in that the data processing unit is configured and programmed: - to analyze each of the three or more image data sets (78, 80, 82) and to identify corresponding image points in each of the three or more image data sets (78, 80, 82); - to generate a 3D surface data set of an object imaged by the imaging units (50, 52, 54) in the subject under examination using the corresponding image points identified in the three or more image data sets (78, 80, 82); - to determine differences of successive 3D surface data sets by identifying the object in the respective 3D surface data set; - to determine changes in the position and/or shape of the object in the successive 3D surface data sets as a function of time in order to track the object, at least partly. - to analyze each of the three or more image data sets (78, 80, 82) and to identify corresponding image points in each of the three or more image data sets (78, 80, 82); - to generate a 3D surface data set of an object imaged by the imaging units (50, 52, 54) in the subject under examination using the corresponding image points identified in the three or more image data sets (78, 80, 82); - to determine differences of successive 3D surface data sets by identifying the object in the respective 3D surface data set; - to determine changes in the position and/or shape of the object in the successive 3D surface data sets as a function of time in order to track the object, at least partly.
A mounting assembly (1-n) for mounting a blind cassette operative to dispense a blind along a guide rail (35-n) disposed in a roof structure of a vehicle, the mounting assembly (1-n) comprising: a mount (45-n) for mounting the blind cassette to the vehicle; and a slide carrier (47-n) having a carrier section (67-n) for alignment with the guide rail (35-n), the slide carrier (47-n) being moveable relative to the mount (45-n) to facilitate alignment of the carrier section (67-n) with the guide rail (35-n); wherein the mount (45-n) is configured to receive at least one cassette mounting fastener (41-n) configured to fasten the mount (45-n) to the roof structure of the vehicle; wherein the slide carrier (47-n) comprises at least one carrier aperture (69A, 69B) for receiving the or each cassette mounting fastener (41-n); characterised in that a first one of the carrier aperture (69A, 69B) is configured to enable movement of the slide carrier (47-n) relative to a first cassette mounting fastener (41-n) along a first axis and to limit movement of the slide carrier (47-n) relative to the first cassette mounting fastener (41-n) along a second axis extending perpendicular to the first axis; and a second one of the carrier aperture (69A, 69B) being configured to enable movement of the slide carrier (47-n) relative to a second cassette mounting fastener (41-n) along the first axis and the second axis. a mount (45-n) for mounting the blind cassette to the vehicle; and a slide carrier (47-n) having a carrier section (67-n) for alignment with the guide rail (35-n), the slide carrier (47-n) being moveable relative to the mount (45-n) to facilitate alignment of the carrier section (67-n) with the guide rail (35-n); wherein the mount (45-n) is configured to receive at least one cassette mounting fastener (41-n) configured to fasten the mount (45-n) to the roof structure of the vehicle; wherein the slide carrier (47-n) comprises at least one carrier aperture (69A, 69B) for receiving the or each cassette mounting fastener (41-n); characterised in that a first one of the carrier aperture (69A, 69B) is configured to enable movement of the slide carrier (47-n) relative to a first cassette mounting fastener (41-n) along a first axis and to limit movement of the slide carrier (47-n) relative to the first cassette mounting fastener (41-n) along a second axis extending perpendicular to the first axis; and a second one of the carrier aperture (69A, 69B) being configured to enable movement of the slide carrier (47-n) relative to a second cassette mounting fastener (41-n) along the first axis and the second axis.
A method of producing hydrogen from formaldehyde, the method comprising: (a) obtaining an aqueous mixture having a basic pH and comprising formaldehyde, an iron containing photocatalyst, and a base; and (b) subjecting the aqueous mixture to light to produce hydrogen (H 2) gas from the formaldehyde. (a) obtaining an aqueous mixture having a basic pH and comprising formaldehyde, an iron containing photocatalyst, and a base; and (b) subjecting the aqueous mixture to light to produce hydrogen (H 2) gas from the formaldehyde.
Fuel injector for a fuel injection system, in particular for a common rail injection system, comprising a retaining body and a control valve, wherein the control valve has a valve piece inserted into the retaining body and formed in a rotationally symmetric manner, in which an outflow throttle is formed, furthermore comprising a valve clamping screw for axially fixing the position of the valve piece in the retaining body, wherein the valve clamping screw is supported directly or indirectly on a shoulder, downwardly inclined radially towards the outside, of the valve piece, characterized in that the valve clamping screw has an end face that is embodied in a planar manner and faces the shoulder of the valve piece, and in that the valve clamping screw is supported on the shoulder of the valve piece directly via a radially internal annular edge bordering the end face.
A printed wiring board comprising: an inner insulating layer including a conductive wire; a first outermost insulating layer disposed on a first surface of the inner insulating layer; and a second outermost insulating layer disposed on a second surface of the inner insulating layer, wherein each of the first outermost insulating layer and the second outermost insulating layer is a cured product of a prepreg; wherein the prepreg includes a thermosetting resin composition and a base material impregnated with the thermosetting resin composition,, and the thermosetting resin composition includes an elasticity lowering agent which is at least one of ethylene-acrylic rubber including carboxyl group, nitrile rubber including carboxyl group, core-shell type rubber, acrylic rubber powders, and silicone powders; wherein a bending elastic modulus of each of the first outermost insulating layer and the second outermost insulating layer ranges from 1/4 to 3/4, inclusive, of a bending elastic modulus of the inner insulating layer, and wherein a glass transition temperature of each of the first outermost insulating layer and the second outermost insulating layer falls within ±20°C of a glass transition temperature of the inner insulating layer. an inner insulating layer including a conductive wire; a first outermost insulating layer disposed on a first surface of the inner insulating layer; and a second outermost insulating layer disposed on a second surface of the inner insulating layer, wherein each of the first outermost insulating layer and the second outermost insulating layer is a cured product of a prepreg; wherein the prepreg includes a thermosetting resin composition and a base material impregnated with the thermosetting resin composition,, and the thermosetting resin composition includes an elasticity lowering agent which is at least one of ethylene-acrylic rubber including carboxyl group, nitrile rubber including carboxyl group, core-shell type rubber, acrylic rubber powders, and silicone powders; wherein a bending elastic modulus of each of the first outermost insulating layer and the second outermost insulating layer ranges from 1/4 to 3/4, inclusive, of a bending elastic modulus of the inner insulating layer, and wherein a glass transition temperature of each of the first outermost insulating layer and the second outermost insulating layer falls within ±20°C of a glass transition temperature of the inner insulating layer.
A method for a cellular telecommunications network, the method comprising: performing a modulo operation on a physical cell identifier, PCI, of a target cell to determine a first PCI mod value; determining first tier neighbors of the target cell; determining that at least one of the first tier neighbors uses a PCI with the first PCI mod value; comparing a number of handover attempts between the target cell and the at least one first tier neighbor with the first PCI mod value to a first threshold value; when the number of handover attempts exceeds the first threshold value, replacing the PCI of the target cell with a PCI with a second PCI mod value different from the first PCI mod value; wherein when the number of handover attempts exceeds the first threshold value, a problematic PCI conflict is present. performing a modulo operation on a physical cell identifier, PCI, of a target cell to determine a first PCI mod value; determining first tier neighbors of the target cell; determining that at least one of the first tier neighbors uses a PCI with the first PCI mod value; comparing a number of handover attempts between the target cell and the at least one first tier neighbor with the first PCI mod value to a first threshold value; when the number of handover attempts exceeds the first threshold value, replacing the PCI of the target cell with a PCI with a second PCI mod value different from the first PCI mod value; wherein when the number of handover attempts exceeds the first threshold value, a problematic PCI conflict is present.
A clothes dryer including: a drum in which laundry is accommodated; a motor connected to the drum via a drive belt and configured to rotate the drum; a blow fan configured to circulate air, passing through the drum, in response to driving of the motor; a driving controller configured to apply operation power to the motor so as to operate or stop the motor, and to control a rotation speed of the motor; a current sensing unit configured to measure a current value of the motor; and a controller configured to control the driving controller, to sense an amount of the laundry based on current values sensed by the current sensing unit, and to control a drying operation according to the sensed amount of the laundry, wherein the drum rotates according to an operation pattern consisting of an acceleration stage in which a rotation speed of the drum increases and a maintaining stage in which the rotation speed of the drum is maintained, characterized in that the controller is configured to set the acceleration stage longer than the maintaining stage such that the rotation speed increases at a preset acceleration gradient in order to prevent a slip between the drive belt and the drum, and to sense the amount of the laundry during both the acceleration stage and the maintain stage. a drum in which laundry is accommodated; a motor connected to the drum via a drive belt and configured to rotate the drum; a blow fan configured to circulate air, passing through the drum, in response to driving of the motor; a driving controller configured to apply operation power to the motor so as to operate or stop the motor, and to control a rotation speed of the motor; a current sensing unit configured to measure a current value of the motor; and a controller configured to control the driving controller, to sense an amount of the laundry based on current values sensed by the current sensing unit, and to control a drying operation according to the sensed amount of the laundry, wherein the drum rotates according to an operation pattern consisting of an acceleration stage in which a rotation speed of the drum increases and a maintaining stage in which the rotation speed of the drum is maintained, characterized in that the controller is configured to set the acceleration stage longer than the maintaining stage such that the rotation speed increases at a preset acceleration gradient in order to prevent a slip between the drive belt and the drum, and to sense the amount of the laundry during both the acceleration stage and the maintain stage.
A method of wireless communication, said method comprising: collecting samples of first portions of a received signal, sampled at an initial sampling rate, wherein the received signal comprises a pilot signal followed by data words, wherein said collecting samples of the first portions comprises collecting samples of first words of the data words; estimating a number of wireless device transmissions in the collected samples; based on the estimated number of wireless device transmissions, selecting an updated sampling rate at which to sample additional portions of the received signal; and providing an indication of the updated sampling rate to a sampler that samples second portions of the received signal comprising second words of the data words. collecting samples of first portions of a received signal, sampled at an initial sampling rate, wherein the received signal comprises a pilot signal followed by data words, wherein said collecting samples of the first portions comprises collecting samples of first words of the data words; estimating a number of wireless device transmissions in the collected samples; based on the estimated number of wireless device transmissions, selecting an updated sampling rate at which to sample additional portions of the received signal; and providing an indication of the updated sampling rate to a sampler that samples second portions of the received signal comprising second words of the data words.
An inspection device that is configured to be provided on a mounting machine that picks up a component (s) supplied from a component supply device and mounts the component (s) on a board, the inspection device comprising: a pair of measuring elements configured to measure electrical characteristics of the component (s) by sandwiching the component (s) between a pair of opposing surfaces (34f, 36f) by being brought closer to each other in a first direction, and to release the component (s) from the pair of opposing surfaces (34f, 36f) by being separated from each other; and an air supply device configured to, in a case in which the pair of measuring elements are separated, supply air to an air supply target surface that is at least one of the pair of opposing surfaces (34f, 36f), wherein the supply target surface is one of the pair of opposing surfaces (34f, 36f), and the air supply device includes an air passage with an opening facing the supply target surface characterized by the air passage includes a jetting passage that extends in a second direction that is inclined with respect to the first direction as it approaches the supply target surface. a pair of measuring elements configured to measure electrical characteristics of the component (s) by sandwiching the component (s) between a pair of opposing surfaces (34f, 36f) by being brought closer to each other in a first direction, and to release the component (s) from the pair of opposing surfaces (34f, 36f) by being separated from each other; and an air supply device configured to, in a case in which the pair of measuring elements are separated, supply air to an air supply target surface that is at least one of the pair of opposing surfaces (34f, 36f), wherein the supply target surface is one of the pair of opposing surfaces (34f, 36f), and the air supply device includes an air passage with an opening facing the supply target surface characterized by the air passage includes a jetting passage that extends in a second direction that is inclined with respect to the first direction as it approaches the supply target surface.
A Software Defined Radio SDR-based radio communication transmission system, characterized in that the system comprises a front-end analog interface unit, a Digital-to-Analog D/A and Analog-to-Digital A/D conversion unit, a core processing unit and a storage unit, which adopt a universal bus (51, 61) for interconnection and interworking, the universal bus (51, 61) comprising a parallel bus for controlling data transmission and a serial bus for controlling instruction signal transmission, wherein the front-end analog interface unit is configured to acquire data compatible with different radio communication standards, and to perform front-end processing on the data; the D/A and A/D conversion unit is configured to perform a D/A conversion and an A/D conversion under the control of the core processing unit; the core processing unit is configured to: acquire the front-end processed data from the front-end analog interface unit; and, compare a data format required by the current working mode with that of the front-end processed data, and then according to a result of the comparison, choose to transmit the front-end processed data to the D/A and A/D conversion unit by the control of the universal bus (51, 61), or control, through the universal bus (51, 61), the storage unit to write or read data; and the storage unit is configured to store the written or read data.
An electronic device (100B,100C) comprising: an electronic component (12b, 12d, 12e); a resin molded body in which the electronic component (12b, 12d, 12e) is embedded and fixed; and a flexible substrate, the resin molded body supporting the flexible substrate, characterized in that: a part of the flexible substrate is embedded in the resin molded body, a surface of the resin molded body includes an exposed surface at which the electronic component (12b, 12d, 12e) is exposed, a surface of the flexible substrate includes a continuous surface flush with and continuous with the exposed surface, and the electronic device further comprises an interconnection (30a-c) formed on the exposed surface and on the continuous surface, wherein the interconnection (30a-c) is connected to the electronic component (12b, 12d, 12e). an electronic component (12b, 12d, 12e); a resin molded body in which the electronic component (12b, 12d, 12e) is embedded and fixed; and a flexible substrate, the resin molded body supporting the flexible substrate, characterized in that: a part of the flexible substrate is embedded in the resin molded body, a surface of the resin molded body includes an exposed surface at which the electronic component (12b, 12d, 12e) is exposed, a surface of the flexible substrate includes a continuous surface flush with and continuous with the exposed surface, and the electronic device further comprises an interconnection (30a-c) formed on the exposed surface and on the continuous surface, wherein the interconnection (30a-c) is connected to the electronic component (12b, 12d, 12e). a part of the flexible substrate is embedded in the resin molded body, a surface of the resin molded body includes an exposed surface at which the electronic component (12b, 12d, 12e) is exposed, a surface of the flexible substrate includes a continuous surface flush with and continuous with the exposed surface, and the electronic device further comprises an interconnection (30a-c) formed on the exposed surface and on the continuous surface, wherein the interconnection (30a-c) is connected to the electronic component (12b, 12d, 12e).
A self-propelled trolley for handling a wind-turbine blade, which trolley comprises - a driving means (3, 30) for propelling the trolley between locations; and - a lifting means (4, 40, 41), which lifting means (4, 40, 41) is realised to raise and lower the wind-turbine blade characterized in that - the lifting means (4, 40, 41) is realised such that the point at which a load is supported by the lifting means (4, 40, 41) is arranged over the trolley for any position of the lifting means (4, 40, 41), and wherein the trolley comprises a holding means for holding the wind-turbine blade at a point along its length, which holding means comprises a cradle shaped to accommodate a curved surface of the wind-turbine blade. - a driving means (3, 30) for propelling the trolley between locations; and - a lifting means (4, 40, 41), which lifting means (4, 40, 41) is realised to raise and lower the wind-turbine blade characterized in that - the lifting means (4, 40, 41) is realised such that the point at which a load is supported by the lifting means (4, 40, 41) is arranged over the trolley for any position of the lifting means (4, 40, 41), and wherein the trolley comprises a holding means for holding the wind-turbine blade at a point along its length, which holding means comprises a cradle shaped to accommodate a curved surface of the wind-turbine blade.
Burner arrangement for a combustion chamber, especially a gas turbine combustion chamber, for firing fluid fuels, with a main burner and a pilot burner, arranged centrally therein, which serves for igniting and/or for stabilizing the combustion of the main burner, the main burner comprising a first annular air passage for feeding combustion air and first fuel nozzles for injecting a fuel into the first annular air passage, the pilot burner comprising a second annular air passage for feeding combustion air and a burner head with second fuel nozzles for injecting a fuel into the second annular air passage, wherein the second fuel nozzles are provided as separately controllable first and second fuel stages (9, 10), characterized in that for feeding fuel to the first and second fuel stages (9, 10) a burner support tube, adjoining the burner head, with a tube wall is provided, and in that the tube wall has at least one first and at least one second gun-drilled hole (14, 15), parallel to the longitudinal axis of the burner support tube, for supplying the first and second fuel stages (9, 10) with fuel.
Copper-ceramic substrate comprising - a ceramic carrier, and - at least one copper layer (3, 4) bonded to a surface of the ceramic carrier, which has a - free surface for forming a conductor structure and/or for securing bonding wires, characterised in that - the copper layer (3, 4) has a microstructure with an average grain size diameter of 300 to 500 μ m, and - the copper layer (3, 4) has a proportion of at least 99.95% Cu, preferably at least 99.99% Cu, - the copper layer (3, 4) has a proportion of the elements B, Be, Cr, Fe, Mn, Ni, P, S of, in each case, at most 0-10 ppm, wherein - the copper layer (3, 4) has a proportion of the elements B, Be, Cr, Fe, Mn, Ni, P, S of a total of at least 1.0 ppm and at most of 50 ppm. - a ceramic carrier, and - at least one copper layer (3, 4) bonded to a surface of the ceramic carrier, which has a - free surface for forming a conductor structure and/or for securing bonding wires, characterised in that - the copper layer (3, 4) has a microstructure with an average grain size diameter of 300 to 500 μ m, and - the copper layer (3, 4) has a proportion of at least 99.95% Cu, preferably at least 99.99% Cu, - the copper layer (3, 4) has a proportion of the elements B, Be, Cr, Fe, Mn, Ni, P, S of, in each case, at most 0-10 ppm, wherein - the copper layer (3, 4) has a proportion of the elements B, Be, Cr, Fe, Mn, Ni, P, S of a total of at least 1.0 ppm and at most of 50 ppm.