mhurhangee/ep-ind-claims huggingface dataset:
An image generation device for generating an image from measured data, wherein the image generation device is configured to generate an image comprising a region of interest from projections, wherein image quality is optimized for the region of interest, the image generation device comprising: - a noise determination unit for determining an expected distribution of noise in the projections for the region of interest, wherein noise contributions originating from each individual projection direction are computed; - a dose control unit for determining a dose profile for a radiation source of said image generation device based on said determined expected distribution of noise in the projections for the region of interest by using a noise propagation algorithm; a control stage for passing the dose profile to a modulation unit; and wherein, the modulation unit is configured to control a power supply of the radiation source based on the dose profile so as to control a radiation intensity generated by the radiation source during tomographic imaging, and wherein the modulation unit is configured to control the radiation source to modulate the X-ray intensity generated by the radiation source, wherein the modulation unit is configured to modulate a radiation source current such that the radiation source current is increased for projections with large noise contributions and the radiation source current is reduced for projections with relatively smaller noise contributions. - a noise determination unit for determining an expected distribution of noise in the projections for the region of interest, wherein noise contributions originating from each individual projection direction are computed; - a dose control unit for determining a dose profile for a radiation source of said image generation device based on said determined expected distribution of noise in the projections for the region of interest by using a noise propagation algorithm;
A method of forming a transportation system with an over-molded friction element comprising: forming a rigid outer carrier member having a cavity of a first friction element, the outer carrier member having an outer wall and an inner wall that defines a channel for drainage that extends through the first friction element; placing an elastomeric material into the cavity of the outer carrier member of the first friction element; placing the first friction element into a mold for a transportation system, including placing the first friction element over a pin that extends through the channel; and, molding over an outer surface of the carrier member of the first friction element in the mold for the transportation system so that a first portion of the elastomeric material of the first friction member is exposed on an upper surface of the transportation system. forming a rigid outer carrier member having a cavity of a first friction element, the outer carrier member having an outer wall and an inner wall that defines a channel for drainage that extends through the first friction element; placing an elastomeric material into the cavity of the outer carrier member of the first friction element; placing the first friction element into a mold for a transportation system, including placing the first friction element over a pin that extends through the channel; and, molding over an outer surface of the carrier member of the first friction element in the mold for the transportation system so that a first portion of the elastomeric material of the first friction member is exposed on an upper surface of the transportation system.
Bearing device comprising: - a first bearing surface and a second bearing surface which are moveable relative to one another and which face one another, wherein the first bearing surface and the second bearing surface are separated by a bearing gap filled with a lubricant, wherein the lubricant comprises a carrier fluid and particles which respond to magnetic fields, wherein said particles are suspended in the carrier fluid in the absence of magnetic fields, - one or more field generators which are embedded in the first or second bearing surface, wherein the field generators are magnetic field generators configured to generate a localized spatially varying magnetic field which is configured to locally remove the particles from suspension by exerting a field force on the particles, thereby forming a local flow obstruction on at least one of the bearing surfaces in the form of an agglomerate of previously suspended particles, wherein the local flow obstruction is configured to locally obstruct a flow of the lubricant through the bearing gap in an obstruction zone. - a first bearing surface and a second bearing surface which are moveable relative to one another and which face one another, wherein the first bearing surface and the second bearing surface are separated by a bearing gap filled with a lubricant, wherein the lubricant comprises a carrier fluid and particles which respond to magnetic fields, wherein said particles are suspended in the carrier fluid in the absence of magnetic fields, - one or more field generators which are embedded in the first or second bearing surface, wherein the field generators are magnetic field generators configured to generate a localized spatially varying magnetic field which is configured to locally remove the particles from suspension by exerting a field force on the particles, thereby forming a local flow obstruction on at least one of the bearing surfaces in the form of an agglomerate of previously suspended particles, wherein the local flow obstruction is configured to locally obstruct a flow of the lubricant through the bearing gap in an obstruction zone.
A method comprising: at a multifunction device with a display and a touch-sensitive surface: displaying a folder view including a first selectable user interface object, the folder view corresponding to a folder; detecting a first input; and in response to detecting the first input: moving the first selectable user interface object to a position that is outside of the folder view; and characterised in that: in accordance with a determination that the folder includes only one second selectable user interface object after moving the first selectable user interface object to the position that is outside of the folder view: deleting the folder; and displaying, on the display, replacement of a folder icon representative of the folder with the only one second selectable user interface object. displaying a folder view including a first selectable user interface object, the folder view corresponding to a folder; detecting a first input; and in response to detecting the first input: moving the first selectable user interface object to a position that is outside of the folder view; and characterised in that: in accordance with a determination that the folder includes only one second selectable user interface object after moving the first selectable user interface object to the position that is outside of the folder view: deleting the folder; and displaying, on the display, replacement of a folder icon representative of the folder with the only one second selectable user interface object. moving the first selectable user interface object to a position that is outside of the folder view; and characterised in that: in accordance with a determination that the folder includes only one second selectable user interface object after moving the first selectable user interface object to the position that is outside of the folder view: deleting the folder; and displaying, on the display, replacement of a folder icon representative of the folder with the only one second selectable user interface object. deleting the folder; and displaying, on the display, replacement of a folder icon representative of the folder with the only one second selectable user interface object.
A method for processing blockchain data, applied to a terminal device provided with a trusted execution environment, TEE, the method comprising: acquiring data to be verified of a target service from a blockchain, the data to be verified comprising circulation data generated during execution of the target service and recorded in the blockchain; determining, based on the target service, a relevant third-party authority for verifying authenticity of the data to be verified, and acquiring benchmark circulation data generated during the execution of the target service and recorded in the third-party authority; transferring the data to be verified and the benchmark circulation data to the TEE of the terminal device through a first trusted application for performing data verification processing on the terminal device, wherein the TEE is provided with a verification rule for performing data verification on the data to be verified for the first trusted application; and determining whether the data to be verified meets the verification rule by using the trusted execution environment of the TEE and based on the circulation data in the data to be verified and the benchmark circulation data, and outputting a verification result of the data to be verified. acquiring data to be verified of a target service from a blockchain, the data to be verified comprising circulation data generated during execution of the target service and recorded in the blockchain; determining, based on the target service, a relevant third-party authority for verifying authenticity of the data to be verified, and acquiring benchmark circulation data generated during the execution of the target service and recorded in the third-party authority; transferring the data to be verified and the benchmark circulation data to the TEE of the terminal device through a first trusted application for performing data verification processing on the terminal device, wherein the TEE is provided with a verification rule for performing data verification on the data to be verified for the first trusted application; and determining whether the data to be verified meets the verification rule by using the trusted execution environment of the TEE and based on the circulation data in the data to be verified and the benchmark circulation data, and outputting a verification result of the data to be verified.
An inflating device, comprising a valve body and a gasbag, the valve body being provided with a gas inlet, a gas outlet and a gas storage chamber; wherein the gas inlet has a gas intake valve device provided therein, and the gas outlet has a gas exhaust valve device provided therein; the gas storage chamber is communicated with the gasbag; and the gas inlet is communicated with the gas outlet through a chamber body of the valve body, and the gas storage chamber is communicated with the chamber body; the inflating device is characterized in that when to deflate, the gas intake valve device is operable to move to open the gas inlet, and the movement of the gas intake valve device drives the gas exhaust valve device to open the gas outlet.
A recognition sensor for a motor vehicle, the recognition sensor comprising: a three-dimensional sensor structured to be capable of setting an elevation angle (φ); a processing device having a machine learning neural network, and structured to identify the class of an object; and a controller structured to control the elevation angle of the three-dimensional sensor so as to correct a height of a correction point, characterized in that the three-dimensional sensor is structured to generate a plurality of line data corresponding to a plurality of horizontal scan lines having different height, and be capable of setting the elevation angle (φ) in order to select one from the plurality of horizontal scan lines, wherein each scan line includes a plurality of measurement points and the controller is structured to select one of the plurality of measurement points as the correction point, and wherein, for each scan line, the controller is furthermore structured to receive a distance measurement data indicative of the distance to the correction point, to calculate the height of the correction point based on the elevation angle and on the distance measurement data, and to correct the elevation angle of the three-dimensional sensor such that the height of the correction point approaches a predetermined value. a three-dimensional sensor structured to be capable of setting an elevation angle (φ); a processing device having a machine learning neural network, and structured to identify the class of an object; and a controller structured to control the elevation angle of the three-dimensional sensor so as to correct a height of a correction point, characterized in that the three-dimensional sensor is structured to generate a plurality of line data corresponding to a plurality of horizontal scan lines having different height, and be capable of setting the elevation angle (φ) in order to select one from the plurality of horizontal scan lines, wherein each scan line includes a plurality of measurement points and the controller is structured to select one of the plurality of measurement points as the correction point, and wherein, for each scan line, the controller is furthermore structured to receive a distance measurement data indicative of the distance to the correction point, to calculate the height of the correction point based on the elevation angle and on the distance measurement data, and to correct the elevation angle of the three-dimensional sensor such that the height of the correction point approaches a predetermined value.
Rotary transformer for the transmission of electrical power by electromagnetic induction between the first and second (12, 12', 12") coils concentrically arranged on a first and a second tubular parts respectively, which are made of a ferromagnetic material, and coaxially mounted in such a way that the outer surface (13a, 13b, 13c) of one part can rotate in relation to the inner surface (14a, 14b, 14c) of the other, said surfaces each consisting of two straight cylindrical rotation surfaces (13a, 13c; 14a, 14c) of different diameters, each extending from one of the axial ends of said part (7; 8) to an intermediate radial shoulder (13b, 14b) for connecting these surfaces, said parts (7, 8) being arranged head-to-foot one inside the other so as to delimit, between said shoulders (13b, 14b), an annular space receiving said coils (11; 12, 12', 12"), between two annular gaps each delimited by two (13a, 14a; 13c, 14c) of said facing cylindrical surfaces of said first and second parts, characterised in that at least one of said coils (11; 12, 12', 12") comprises at least one layer of a plurality of strip-like windings; in that said coil comprises two superimposed layers of strip-like windings, inner and outer respectively; and in that said inner layer has fewer windings (43, 44; 52) than the windings (40 to 42; 50, 51) of said outer layer, the total axial extensions of the windings of the two layers being substantially identical.
A vehicle control apparatus comprising: an acquisition portion configured to acquire captured image data output from an imaging portion that is provided at a vehicle and that images a surrounding of the vehicle, and acceleration data of the vehicle serving as vehicle state data output from a vehicle state detection portion provided at the vehicle; an angle calculation portion configured to calculate a roll angle of said vehicle based on said acceleration data; and a control portion configured to perform a rotation control on the captured image data based on an inclination in a left-right direction of the vehicle relative to a horizontal direction in a horizontal plane orthogonal to a direction of gravity, the inclination in the left-right direction of the vehicle being calculated from said roll angle, characterized in that the control portion is configured to perform, while the captured image data is mapped in a two-dimensional orthogonal coordinate system, the rotation control on the captured image data depending on said roll angle in a manner that a horizontal line included in a subject captured in the captured image data, is substantially parallel to a lateral-direction side of a display region of a display device, by rotating the captured image data about a position coordinate set on the captured image data corresponding to a center of a lens used for imaging by the imaging portion. an acquisition portion configured to acquire captured image data output from an imaging portion that is provided at a vehicle and that images a surrounding of the vehicle, and acceleration data of the vehicle serving as vehicle state data output from a vehicle state detection portion provided at the vehicle; an angle calculation portion configured to calculate a roll angle of said vehicle based on said acceleration data; and a control portion configured to perform a rotation control on the captured image data based on an inclination in a left-right direction of the vehicle relative to a horizontal direction in a horizontal plane orthogonal to a direction of gravity, the inclination in the left-right direction of the vehicle being calculated from said roll angle, characterized in that the control portion is configured to perform, while the captured image data is mapped in a two-dimensional orthogonal coordinate system, the rotation control on the captured image data depending on said roll angle in a manner that a horizontal line included in a subject captured in the captured image data, is substantially parallel to a lateral-direction side of a display region of a display device, by rotating the captured image data about a position coordinate set on the captured image data corresponding to a center of a lens used for imaging by the imaging portion.
A process for the preparation of a compound of the formula I shown below: wherein: R 1 and R 2 are each alkyl; and wherein the process comprises the steps of: (i) reacting a compound of formula A: wherein R 1 and R 2 are each as defined above; with a chlorinating or brominating agent to form a compound of formula B: wherein R 1 and R 2 are each as defined above and X is chloro or bromo; and adding 1,2,3,4-tetramethylbenzene and a Lewis acid catalyst to the reaction mixture to react with compound B to form a compound of formula C: wherein R 1 and R 2 are each as defined above; (ii) reacting the compound of formula C with a solution of a hydride transfer reagent followed by adding a dehydrating agent to the reaction mixture to form a compound of Formula I. (i) reacting a compound of formula A: wherein R 1 and R 2 are each as defined above; with a chlorinating or brominating agent to form a compound of formula B: wherein R 1 and R 2 are each as defined above and X is chloro or bromo; and adding 1,2,3,4-tetramethylbenzene and a Lewis acid catalyst to the reaction mixture to react with compound B to form a compound of formula C: wherein R 1 and R 2 are each as defined above; wherein R 1 and R 2 are each as defined above; with a chlorinating or brominating agent to form a compound of formula B: wherein R 1 and R 2 are each as defined above and X is chloro or bromo; and adding 1,2,3,4-tetramethylbenzene and a Lewis acid catalyst to the reaction mixture to react with compound B to form a compound of formula C: wherein R 1 and R 2 are each as defined above; (ii) reacting the compound of formula C with a solution of a hydride transfer reagent followed by adding a dehydrating agent to the reaction mixture to form a compound of Formula I.
Method for setting the compression travel of the electrical contacts (32, 33) of a unitary switching block intended to be incorporated in a switching block, said unitary switching block comprising, inside a casing, a fixed contact and a mobile contact slidingly mounted on a mobile contact-holder so as to be driven in movement by the latter, said mobile contact-holder being linked to an attachment head intended to collaborate with a coupling hook of an actuation block linked to the switching block; characterized in that it comprises the following steps: - placing the mobile contact-holder in a position such that the mobile contact is just in contact with the fixed contact; - positioning a setting template between a reference outer surface of the casing and a bearing surface of the attachment head; - setting a length of a transmission axis linking the attachment head to the mobile contact-holder by: - lengthening the transmission axis if the distance between the reference outer surface of the casing and the attachment head is less than the thickness of the setting template; - shortening the transmission axis if the distance between the reference outer surface of the casing and the attachment head is greater than the thickness of the setting template; - removing the setting template. - placing the mobile contact-holder in a position such that the mobile contact is just in contact with the fixed contact; - positioning a setting template between a reference outer surface of the casing and a bearing surface of the attachment head; - setting a length of a transmission axis linking the attachment head to the mobile contact-holder by: - lengthening the transmission axis if the distance between the reference outer surface of the casing and the attachment head is less than the thickness of the setting template; - shortening the transmission axis if the distance between the reference outer surface of the casing and the attachment head is greater than the thickness of the setting template; - removing the setting template. - lengthening the transmission axis if the distance between the reference outer surface of the casing and the attachment head is less than the thickness of the setting template; - shortening the transmission axis if the distance between the reference outer surface of the casing and the attachment head is greater than the thickness of the setting template; - removing the setting template.
A hand dishwashing cleaning composition comprising a surfactant system comprising an anionic surfactant and an amine oxide co-surfactant wherein the weight ratio of the surfactant system to the amine oxide is from 1.5:1 to 4.5:1 and wherein the composition further comprises a protease and an enzyme stabilizer selected from the group consisting of: potassium salts of halides, sulfates, sulfites, carbonates, hydrogencarbonates, nitrates, nitrites, phosphates, formates, acetates, propionates, citrates, maleates, tartrates succinates, oxalates and lactates; preferably the enzyme stabilizer comprises potassium acetate.
Process for driving a high temperature electrolyzer comprising one or more stacks of cells, where the one or more stacks of cells are arranged in an enclosure pre-heated to a high temperature and thermally insulated, where the electrolyzer is connected to an electric energy source for its power supply in order to implement an electrolytic reaction and where the process comprises: - Monitoring of the power supplied by the energy source; - Redirecting upstream of the electrolyzer a portion of the power supplied by the energy source in order to heat the one or more stacks of cells when the value of the power supplied becomes lower than a previously set limit value; - otherwise, no redirecting, wherein the previously set limit value is chosen as the value of the power at which thermal gradients greater in absolute value than 50°C/cm appear inside the enclosure. - Monitoring of the power supplied by the energy source; - Redirecting upstream of the electrolyzer a portion of the power supplied by the energy source in order to heat the one or more stacks of cells when the value of the power supplied becomes lower than a previously set limit value; - otherwise, no redirecting,