mhurhangee/ep-ind-claims huggingface dataset:
An automated welding system comprising: a mounting platform; a welding tool; an imaging device configured to acquire data associated with an object;the automated welding system being characterised by a controller configured to: receive the acquired data; determine an area to be welded in the acquired data; retrieve stored master model data associated with the object; compare the acquired data to the stored master model data to identify a master model area in the acquired data; mask the master model area in the acquired data, such that the master model area is excluded from the area to be welded; and generate control instructions for controlling at least one of said mounting platform and said welding tool to weld the area to be welded. a mounting platform; a welding tool; an imaging device configured to acquire data associated with an object;the automated welding system being characterised by a controller configured to: receive the acquired data; determine an area to be welded in the acquired data; retrieve stored master model data associated with the object; compare the acquired data to the stored master model data to identify a master model area in the acquired data; mask the master model area in the acquired data, such that the master model area is excluded from the area to be welded; and generate control instructions for controlling at least one of said mounting platform and said welding tool to weld the area to be welded. receive the acquired data; determine an area to be welded in the acquired data; retrieve stored master model data associated with the object; compare the acquired data to the stored master model data to identify a master model area in the acquired data; mask the master model area in the acquired data, such that the master model area is excluded from the area to be welded; and generate control instructions for controlling at least one of said mounting platform and said welding tool to weld the area to be welded.
A mortice lock having a first follower for receiving a handle (17 ') and having a second follower for receiving a locking lever and/or a key, the first follower being kinematically connected to a latch, and the second follower being bringable into a release position in which the first follower is rotatable and into a blocking position in which the first follower and/or the latch is/are blocked, characterized in that the axis of rotation of the second follower is arranged at the standard spacing of 21.5 mm below the axis of rotation of the first follower.
An imaging apparatus, comprising: an imaging unit that performs shooting and generates RAW data; a first metadata acquisition unit that acquires first metadata including imaging information representing imaging parameters of the imaging apparatus and imaging parameters based on the RAW data; a second metadata acquisition unit that acquires second metadata including an exposure index of a shooting environment, the second metadata acquisition unit comprising an illuminance acquisition unit that receives, in real time, a measured illuminance value by an illuminometer of the illuminance of a shooting environment of a subject on which shooting is performed by the imaging unit and converts the measured illuminance value into the exposure index; an output unit that associates the first metadata and the second metadata with the RAW data; and a Debayer processing unit that receives the RAW data and performs colour interpolation to generate image data; wherein the second metadata acquisition unit includes an acquisition unit which acquires information on an effective area for post-production of the image data; and the second metadata includes the acquired information on the effective area for post-production of the image data and the exposure index value. an imaging unit that performs shooting and generates RAW data; a first metadata acquisition unit that acquires first metadata including imaging information representing imaging parameters of the imaging apparatus and imaging parameters based on the RAW data; a second metadata acquisition unit that acquires second metadata including an exposure index of a shooting environment, the second metadata acquisition unit comprising an illuminance acquisition unit that receives, in real time, a measured illuminance value by an illuminometer of the illuminance of a shooting environment of a subject on which shooting is performed by the imaging unit and converts the measured illuminance value into the exposure index; an output unit that associates the first metadata and the second metadata with the RAW data; and a Debayer processing unit that receives the RAW data and performs colour interpolation to generate image data; wherein the second metadata acquisition unit includes an acquisition unit which acquires information on an effective area for post-production of the image data; and the second metadata includes the acquired information on the effective area for post-production of the image data and the exposure index value.
Grinding device for grinding a surface to be ground having at least one indentation in a grinding plane, the device comprising: - a milling rule, having a rectilinear and flat elongation direction, and comprising a milling cutter that is able to move in translation along said elongation direction, - the device also comprises a chassis on which is mounted said milling rule, - said milling rule being mounted so as to be able to move in rotation with respect to a point of rotation of said chassis in a rotation plane, such that the rotation plane is parallel to the grinding plane, - said elongation direction being contained in the rotation plane characterized in that: the milling rule is also mounted so as to be able to move in translation in a translation direction passing through the point of rotation of the chassis, parallel to the elongation direction of said milling rule and parallel to the grinding plane. - a milling rule, having a rectilinear and flat elongation direction, and comprising a milling cutter that is able to move in translation along said elongation direction, - the device also comprises a chassis on which is mounted said milling rule, - said milling rule being mounted so as to be able to move in rotation with respect to a point of rotation of said chassis in a rotation plane, such that the rotation plane is parallel to the grinding plane, - said elongation direction being contained in the rotation plane
Method for detecting the presence of skatole in a sample of a pig adipose tissue, characterised in that it comprises at least the steps of: a) subjecting an organic extract of the sample of adipose tissue to an electrochemiluminescence reaction; b) measuring the intensity of the luminescence during step a) and, if the measured luminescence intensity exceeds a predetermined threshold value, deducing the presence of skatole in the sample of adipose tissue. a) subjecting an organic extract of the sample of adipose tissue to an electrochemiluminescence reaction; b) measuring the intensity of the luminescence during step a) and, if the measured luminescence intensity exceeds a predetermined threshold value, deducing the presence of skatole in the sample of adipose tissue.
An intrusion detection system, for protecting an equipment through which sensitive information passes, the system comprising: - at least one mesh surface, each mesh surface comprising at least two cells, each cell comprising a pattern, a pattern being a portion of continuous electrical circuit, - at least one interconnection surface comprising a plurality of connectors, the connectors being suitable for connecting cells of the mesh surface(s) to each other according to a first configuration of the interconnection surface for forming groups of electrically connected cells, the patterns of the cells of each group forming a continuous electrical circuit of patterns, - a detection module able to detect a modification of an impedance which is characteristic of each group of electrically connected cells, - a module for configuring interconnections of the connectors, the configuration module being able to modify, over time, the first configuration to obtain at least one second configuration of the interconnection surface, characterized in that the configuration module is able to modify the configuration of the interconnection surface when an intrusion attempt is detected by the detection module, when a break in the electrical continuity of at least one continuous circuit is detected over an area of a mesh surface, the configuration module being able to modify the configuration of the interconnection surface so as to increase the number of groups of connected cells present in that area. - at least one mesh surface, each mesh surface comprising at least two cells, each cell comprising a pattern, a pattern being a portion of continuous electrical circuit, - at least one interconnection surface comprising a plurality of connectors, the connectors being suitable for connecting cells of the mesh surface(s) to each other according to a first configuration of the interconnection surface for forming groups of electrically connected cells, the patterns of the cells of each group forming a continuous electrical circuit of patterns, - a detection module able to detect a modification of an impedance which is characteristic of each group of electrically connected cells, - a module for configuring interconnections of the connectors, the configuration module being able to modify, over time, the first configuration to obtain at least one second configuration of the interconnection surface, characterized in that the configuration module is able to modify the configuration of the interconnection surface when an intrusion attempt is detected by the detection module, when a break in the electrical continuity of at least one continuous circuit is detected over an area of a mesh surface, the configuration module being able to modify the configuration of the interconnection surface so as to increase the number of groups of connected cells present in that area.
A processor-implemented method for analyzing network loss and latency conditions, comprising: bundling data into data packets at a source, by a processor; transmitting, by the processor, the data packets in data streams over a network to a destination; collecting information for the transmitted data packets for each data stream as the data packets progress along the network; analyzing the collected information for the data packets of each data stream to identify network transmission characteristics of each data stream, the network transmission characteristics identifying transmission metrics for each data stream; and adjusting transmission of subsequent data packets for any one of the data streams based on the network transmission characteristics, the adjusting is repeated one or more times based on the analyzed information for the transmitted data packets; characterised in that: bundling data comprises bundling data into data packets of varying depths, the data packets of each depth belonging to a particular type of data; transmitting the data packets comprises transmitting the data packets of varying depth in data streams, each data stream corresponding to each depth; and adjusting transmission of subsequent data packets comprises adjusting the depths of data packets in a data stream. bundling data into data packets at a source, by a processor; transmitting, by the processor, the data packets in data streams over a network to a destination; collecting information for the transmitted data packets for each data stream as the data packets progress along the network; analyzing the collected information for the data packets of each data stream to identify network transmission characteristics of each data stream, the network transmission characteristics identifying transmission metrics for each data stream; and adjusting transmission of subsequent data packets for any one of the data streams based on the network transmission characteristics, the adjusting is repeated one or more times based on the analyzed information for the transmitted data packets; bundling data comprises bundling data into data packets of varying depths, the data packets of each depth belonging to a particular type of data; transmitting the data packets comprises transmitting the data packets of varying depth in data streams, each data stream corresponding to each depth; and adjusting transmission of subsequent data packets comprises adjusting the depths of data packets in a data stream.
Method for adapting a power limitation of an internal combustion engine of a hybrid vehicle, comprising - sensing a currently supplied power level of the internal combustion engine P and a current velocity V of the hybrid vehicle; - sensing an ambient temperature T env of the hybrid vehicle and determining an associated ambient-temperature-related weighting factor G t; - sensing an air pressure Pr env in the surroundings of the motor vehicle and determining an associated air-pressure-related weighting factor G p; - determining a thermal load indicator STC as a function of a ratio R pv of the sensed currently supplied power level P and the sensed current velocity V as well as of the ambient-temperature-related weighting factor G t, the air-pressure-related weighting factor G p and a vehicle-bodywork-related weighting factor G k; and - limiting a maximum supplied power level of the internal combustion engine as a function of the determined thermal load indicator STC. - sensing a currently supplied power level of the internal combustion engine P and a current velocity V of the hybrid vehicle; - sensing an ambient temperature T env of the hybrid vehicle and determining an associated ambient-temperature-related weighting factor G t; - sensing an air pressure Pr env in the surroundings of the motor vehicle and determining an associated air-pressure-related weighting factor G p; - determining a thermal load indicator STC as a function of a ratio R pv of the sensed currently supplied power level P and the sensed current velocity V as well as of the ambient-temperature-related weighting factor G t, the air-pressure-related weighting factor G p and a vehicle-bodywork-related weighting factor G k; and - limiting a maximum supplied power level of the internal combustion engine as a function of the determined thermal load indicator STC.
An adjusting device (20, 30) for a headlight, especially a motor vehicle headlight, for pivoting an adjustable component of the headlight, especially lens, lighting unit, or other light-forming component of the headlight, wherein the adjustable component is retained in a carrier borne pivotable about an adjusting axis (h) on a frame structure, wherein the adjusting device (20, 30) has a drive and a gearing (21, 31) that may be actuated by the drive and that comprises at least one gear element for shifting the orientation of the carrier, wherein the gearing (21, 31) has at least two gear elements (22, 23, 32, 33) that are jointly actuated by the drive via the gearing (21, 31), characterized in that each gear element is connected like a gear to the carrier at an actuation site (i1, i2, n1, n2), wherein the actuation sites (i1, i2, n1, n2) of the gear elements (22, 23, 32, 33) oppose one another with respect to the adjusting axis (h) and the gear elements (22, 23, 32, 33) cause mutual changes in location of the actuating sites (i1, i2, n1, n2).
An exhaust gas purification catalyst which is adapted to be disposed in an exhaust passage (3, 4) of an internal combustion engine and to purify exhaust gas emitted by the internal combustion engine, the exhaust gas purification catalyst comprising: a substrate having a wall flow structure including an inlet cell in which an exhaust gas inflow end section opens, an outlet cell in which an exhaust gas outflow end section opens, and a porous partition wall that separates the inlet cell from the outlet cell; and a catalyst layer provided in the substrate, and which contains a metal catalyst, wherein the catalyst layer includes an A section provided in the interior of the partition wall along the extension direction of the partition wall from the exhaust gas inflow end section; a C section provided in the interior of the partition wall along the extension direction of the partition wall from the exhaust gas outflow end section; and a B section disposed between the A section and the C section in the extension direction of the partition wall, the B section being provided on the surface of the partition wall on the side in contact with the inlet cell, in the interior of the partition wall, and on the surface of the partition wall on the side in contact with the outlet cell. a substrate having a wall flow structure including an inlet cell in which an exhaust gas inflow end section opens, an outlet cell in which an exhaust gas outflow end section opens, and a porous partition wall that separates the inlet cell from the outlet cell; and a catalyst layer provided in the substrate, and which contains a metal catalyst, wherein the catalyst layer includes an A section provided in the interior of the partition wall along the extension direction of the partition wall from the exhaust gas inflow end section; a C section provided in the interior of the partition wall along the extension direction of the partition wall from the exhaust gas outflow end section; and a B section disposed between the A section and the C section in the extension direction of the partition wall, the B section being provided on the surface of the partition wall on the side in contact with the inlet cell, in the interior of the partition wall, and on the surface of the partition wall on the side in contact with the outlet cell.
A method of evaluating sensitivity or resistance of a tumor to an antitumoral agent, comprising assessing the quantity of eiF4E-eiF4G complex (Cap-ON complex) and the quantity of eiF4E-4EBP complex (Cap-OFF complex) in said tumor or in tumor cells derived therefrom and correlating the relative amount of the Cap-OFF complex in comparison to the Cap-ON complex with sensitivity or resistance to the antitumoral agent.
A control system for a magnetic resonance imaging system, the control system comprising: - a control module configured to control the magnetic resonance imaging system to perform an examination comprising multiple scans; - a monitor module configured to monitor a sleep state of a patient on the basis of sensor data received from a patient state sensing system of the magnetic resonance imaging system; and - a sequencing module configured dynamically to determine at least part of a sequence in which the control module is to control the magnetic resonance imaging system to perform the scans, the determination being made according to the monitored sleep state of the patient and according to a sleep-appropriateness score associated with one or more of the scans. - a control module configured to control the magnetic resonance imaging system to perform an examination comprising multiple scans; - a monitor module configured to monitor a sleep state of a patient on the basis of sensor data received from a patient state sensing system of the magnetic resonance imaging system; and - a sequencing module configured dynamically to determine at least part of a sequence in which the control module is to control the magnetic resonance imaging system to perform the scans, the determination being made according to the monitored sleep state of the patient and according to a sleep-appropriateness score associated with one or more of the scans.
A process for maintaining a cast part (10, 20) made of magnesium alloy, said part being a casing of a turbomachine accessory gearbox or a casing cover, comprising at least one cylindrical surface (12, 22, 32) capable of receiving a bearing cage, the process being characterized in that it comprises a step of providing a deposit of molybdenum on the surface (12, 22, 32) of the part by plasma spraying.
A method for forwarding a packet in a network, wherein the network comprises a first network device and a second network device, there are a plurality of forwarding paths between the first network device and the second network device, and the method comprises: receiving, by the first network device, a first packet, wherein the first packet comprises first indication information, payload data, and a packet sequence number of the first packet in a data flow corresponding to the first packet, wherein the first indication information is used to instruct the first network device to generate a plurality of second packets based on the first packet; when the first network device determines that the first packet comprises the first indication information, generating, by the first network device, a plurality of second packets based on the first packet, wherein each of the plurality of second packets comprises the payload data, the packet sequence number, and second indication information; and separately forwarding, by the first network device, the plurality of second packets to the second network device over different forwarding paths in the plurality of forwarding paths, wherein the second indication information is used to instruct the second network device to discard a packet in the plurality of second packets except a packet that first reaches the second network device. receiving, by the first network device, a first packet, wherein the first packet comprises first indication information, payload data, and a packet sequence number of the first packet in a data flow corresponding to the first packet, wherein the first indication information is used to instruct the first network device to generate a plurality of second packets based on the first packet; when the first network device determines that the first packet comprises the first indication information, generating, by the first network device, a plurality of second packets based on the first packet, wherein each of the plurality of second packets comprises the payload data, the packet sequence number, and second indication information; and separately forwarding, by the first network device, the plurality of second packets to the second network device over different forwarding paths in the plurality of forwarding paths, wherein the second indication information is used to instruct the second network device to discard a packet in the plurality of second packets except a packet that first reaches the second network device.