mhurhangee/ep-ind-claims huggingface dataset:
An Artificial Intelligence, Al, based network control system comprising: an Al system configured to obtain data from a network having a plurality of network elements and to determine actions for network control through one or more Machine Learning, ML, algorithms; a controller configured to cause the actions in the network; and a safeguard module located between the Al system and the controller, wherein the safeguard module is configured to obtain the actions from the Al system, one of allow, block, and modify the actions from the Al system based on analysis of the actions and provide the allowed or modified actions to the controller for automated control of the network. an Al system configured to obtain data from a network having a plurality of network elements and to determine actions for network control through one or more Machine Learning, ML, algorithms; a controller configured to cause the actions in the network; and a safeguard module located between the Al system and the controller, wherein the safeguard module is configured to obtain the actions from the Al system, one of allow, block, and modify the actions from the Al system based on analysis of the actions and provide the allowed or modified actions to the controller for automated control of the network.
Method for scanning the surface of metallic workpieces, wherein, during a scanning process before a welding process is carried out, a welding torch with a meltable welding wire is moved over the surface of the workpieces using a manipulator along a predefined path (x A) and at a specified speed (v A), and at predefined times (t i) the welding wire is moved towards the surface of the workpieces at a first forward speed (v SV) until a contact of the welding wire with one of the workpieces is detected by a welding power source, and the welding wire is then moved away from the workpieces again at a first reverse speed (v SR), and the position (P i) of the surface of the workpieces at each time (t i) is determined and stored in the welding power source, wherein an edge is determined if the current position (P i) of the surface of the workpieces exceeds at least one of the stored previous positions (P i-n) of the surface of the workpieces by a predefined threshold value, wherein if an edge is determined, an edge detection parameter is set and output together with the current position value (Pi) and transferred to the manipulator, characterized in that the end of the edge is determined if the current position (P i) of the surface of the workpieces remains the same with respect to at least one of the stored previous positions (P i-n).
Dishwashing machine, comprising a tub and a heating system fop heating water and/or air contained in the tub, wherein the heating system comprises at least an induction heating element (14, 14a) for heating at least a portion of the tub (10, 10a, 10b) in contact with water and/or air, wherein the tub has at least a metal portion which is directly heated by the induction heating element (14, 14a), the induction heating element (14, 14a) being placed under a bottom portion of the tub, characterized in that the tub comprises a U-shaped element and a L-shaped element welded together by a roll welding process, the L-shaped element forming at least a part of the bottom portion of the tub and being made of ferritic stainless steel.
Structural element with a Josephson contact, which has a weak link, comprising a substrate with at least a step edge in its surface and a functional layer made of a high temperature superconducting material arranged on it, in which this layer has a grain boundary at the step edge, which forms the weak link of the Josephson contact, in which through texturing the substrate and/or at least a buffer layer arranged between the substrate and the high temperature superconducting functional layer the a and/or b crystal axis on both sides of the step edge is aligned perpendicular to the grain boundary in the plane of the high temperature superconducting functional layer up to a deviation of a maximum of 10°, characterised in that the texturing comprises elevations or and/or recesses with an average height or depth of between 1 nm and 10 nm, preferably between 1 nm and 5 nm.
Method for manufacturing a thermally-insulated composite profile for windows, doors or shopfronts, comprising at least two metal profiles (1, 2) connected to one another via an insulating web, wherein the insulating web constituted to be widened at its longitudinal edges (3.1) is held in retaining grooves in the metal profiles (1, 2), characterised in that initially, the insulating web, provided on at least one of its two widened edges (3.1) with a lip-shaped web shoulder projecting freely relative to the edge (3.1), is pushed together with the web shoulder into the retaining groove in the metal profile (1, 2), that the fixing of the widened edge (3.1) within the retaining groove via the web shoulder is then implemented, and that finally, after completion of all further processing steps of the composite profile, namely, surface treatments, sawing, cutting to length and milling of the composite profile, attachment of corner connections and butt connections, an at least partial separation of the web shoulder from the insulating web is implemented.
A transmitter (20, 30) for transmitting data streams, comprising: a first channel encoder (324a; 824a) configured to encode a first data stream to produce a first encoded data stream; a second channel encoder (324b; 824b) configured to encode a second data stream, which is parallel to the first data stream, to produce a second encoded data stream; a first multiplier (327a; 834a, 835a) configured to multiply the first encoded data stream by a spreading code to produce a first spread data stream; a second multiplier (327b; 834b, 835b) configured to multiply the second encoded data stream by the spreading code (344; 860) to produce a second spread data stream, wherein the same spreading code is used for both the first and second encoded data streams; a first antenna (332a, 334a; 850a, 851a) configured to transmit the first spread data stream; and a second antenna (332b, 334b; 850b, 851b) configured to transmit the second spread data stream, characterized in that the data streams are independent data streams. a first channel encoder (324a; 824a) configured to encode a first data stream to produce a first encoded data stream; a second channel encoder (324b; 824b) configured to encode a second data stream, which is parallel to the first data stream, to produce a second encoded data stream; a first multiplier (327a; 834a, 835a) configured to multiply the first encoded data stream by a spreading code to produce a first spread data stream; a second multiplier (327b; 834b, 835b) configured to multiply the second encoded data stream by the spreading code (344; 860) to produce a second spread data stream, wherein the same spreading code is used for both the first and second encoded data streams; a first antenna (332a, 334a; 850a, 851a) configured to transmit the first spread data stream; and a second antenna (332b, 334b; 850b, 851b) configured to transmit the second spread data stream,
A jet-grouting equipment for forming consolidated soil columns having a non-circular cross-section, comprising: - a mast (2, 8), - a rotary, translatable along an axis parallel to the mast and controllable upon rotating around said axis, - a series of hollow rods temporarily unlockable from the rotary, - supplying means for injecting a consolidating fluid grout into the soil through the string of hollow rods, and - means for varying the rotational speed of the rotary in at least one predetermined angular range around said axis; characterized in that it further comprises: - a rotor directly secured to one of the rods of the string, and operatively coupled to at least one signal generating device, mounted to a non-rotating part of the equipment, adapted to generate control signals for varying the rotational speed of the rotary as a response of the angular position of the rotor, and - a through clamp, mounted to the rotatable mandrel of the rotary, provided with locking means which can be activated in order to clamp a rod and make it integral to the rotary, and which can be deactivated to release the rod so as to allow the rotary to move relative to the rod. - a mast (2, 8), - a rotary, translatable along an axis parallel to the mast and controllable upon rotating around said axis, - a series of hollow rods temporarily unlockable from the rotary, - supplying means for injecting a consolidating fluid grout into the soil through the string of hollow rods, and - means for varying the rotational speed of the rotary in at least one predetermined angular range around said axis; - a rotor directly secured to one of the rods of the string, and operatively coupled to at least one signal generating device, mounted to a non-rotating part of the equipment, adapted to generate control signals for varying the rotational speed of the rotary as a response of the angular position of the rotor, and - a through clamp, mounted to the rotatable mandrel of the rotary, provided with locking means which can be activated in order to clamp a rod and make it integral to the rotary, and which can be deactivated to release the rod so as to allow the rotary to move relative to the rod.
A plug for sealing a passage extending about a longitudinal axis, the plug comprising: a shell having a circumferential wall extending between an end wall and an opening, and an internal cavity extending axially within the shell; and an expander having a head and a shank extending axially from the head, the head retained with the cavity and the shank extending axially through the opening of the cavity, wherein the circumferential wall comprises an inner surface having at least a first region and a second region, the second region proximate the opening and the first region adjacent to the second region and extending therefrom towards the end wall, the inner surface in the first region tapering inwardly relative to the longitudinal axis towards the opening to provide a first angled ramp, and the inner surface in the second region tapering further inwardly towards the opening at a greater angle to provide a second angled ramp, the expander being operable to urge the circumferential wall of the shell outwardly as it moves along the inner surface in the first region. a shell having a circumferential wall extending between an end wall and an opening, and an internal cavity extending axially within the shell; and an expander having a head and a shank extending axially from the head, the head retained with the cavity and the shank extending axially through the opening of the cavity, wherein the circumferential wall comprises an inner surface having at least a first region and a second region, the second region proximate the opening and the first region adjacent to the second region and extending therefrom towards the end wall, the inner surface in the first region tapering inwardly relative to the longitudinal axis towards the opening to provide a first angled ramp, and the inner surface in the second region tapering further inwardly towards the opening at a greater angle to provide a second angled ramp, the expander being operable to urge the circumferential wall of the shell outwardly as it moves along the inner surface in the first region.
Mixing tool for an industrial mixing machine for mixing a mixture typically consisting of a plurality of components, with a hub, with means for connecting the mixing tool (1, 1.1) to a rotationally driven mixing tool shaft, and with at least two mixing tool blades (5, 5.1) of the same type, wherein the mixing tool blades (5, 5.1) comprise in each case a connecting portion (6, 6.1), which is angled relative to the plane of the hub in directions which are opposite with respect to the longitudinal extent of the axis of rotation, formed on which is a mixing blade portion (7, 7.1), which extends in a radial direction away from the hub, is adjusted in relation to the plane of the hub in the rotational direction and in the radial direction, and which is inclined in the opposite direction to the connecting portion (6, 6.1), wherein the mixing blade portion (7, 7.1) is connected at an angle to the connecting portions (6, 6.1), characterised in that a bending line, at which the mixing blade portions (7, 7.1) are angled in relation to the connecting portions (6, 6.1), is inclined in relation to a cross-section line through the mixing blade portion (7, 7.1).
A method of manufacturing a light emitting element comprising, sequentially: (a) forming a first light reflecting layer having a convex shape formed from a multilayer film on a substrate for manufacturing a light emitting element; (b) forming a layered structure body by layering a first compound semiconductor layer formed from a GaN-based compound semiconductor, which has a first surface and a second surface opposing the first surface, an active layer formed from a GaN-based compound semiconductor, which contacts the second surface of the first compound semiconductor layer, and a second compound semiconductor layer formed from a GaN-based compound semiconductor, which has a first surface and a second surface opposing the first surface, and in which the first surface contacts the active layer on the substrate for manufacturing a light emitting element that includes the first light reflecting layer; (c) forming, on the second surface of the second compound semiconductor layer, a second electrode, and a second light reflecting layer formed from a multilayer film on the second electrode; (d) fixing the second light reflecting layer to a support substrate; (e) removing the substrate for manufacturing a light emitting element, and exposing the first surface of the first compound semiconductor layer and the first light reflecting layer; (f) etching the first surface of the first compound semiconductor layer; and (g) forming a first electrode on at least the etched first surface of the first compound semiconductor layer. (a) forming a first light reflecting layer having a convex shape formed from a multilayer film on a substrate for manufacturing a light emitting element; (b) forming a layered structure body by layering a first compound semiconductor layer formed from a GaN-based compound semiconductor, which has a first surface and a second surface opposing the first surface, an active layer formed from a GaN-based compound semiconductor, which contacts the second surface of the first compound semiconductor layer, and a second compound semiconductor layer formed from a GaN-based compound semiconductor, which has a first surface and a second surface opposing the first surface, and in which the first surface contacts the active layer on the substrate for manufacturing a light emitting element that includes the first light reflecting layer; (c) forming, on the second surface of the second compound semiconductor layer, a second electrode, and a second light reflecting layer formed from a multilayer film on the second electrode; (d) fixing the second light reflecting layer to a support substrate; (e) removing the substrate for manufacturing a light emitting element, and exposing the first surface of the first compound semiconductor layer and the first light reflecting layer; (f) etching the first surface of the first compound semiconductor layer; and (g) forming a first electrode on at least the etched first surface of the first compound semiconductor layer.
Device for filling an electric cigarette, comprising a first storage space for receiving a consumable substance, an interface with a first connection which is fluidically connected to the first storage space, wherein the first connection is designed in such a way that it can be connected to the corresponding first connection of the consumable substance tank of an electric cigarette, characterised by a second storage space for receiving a compensating fluid, wherein the device is designed in such a way that the volumes of the first storage space and the second storage space can be counteractively altered by means of an operating device (13a, 13b, 13c, 13d, 13e, 13f, 13g) and wherein the interface comprises a second connection which is fludically connected to the second storage space wherein the second connection is also designed in such a way that it can be connected to the corresponding second connection of the consumable substance tank of an electric cigarette. a first storage space for receiving a consumable substance, an interface with a first connection which is fluidically connected to the first storage space, wherein the first connection is designed in such a way that it can be connected to the corresponding first connection of the consumable substance tank of an electric cigarette, characterised by a second storage space for receiving a compensating fluid, wherein the device is designed in such a way that the volumes of the first storage space and the second storage space can be counteractively altered by means of an operating device (13a, 13b, 13c, 13d, 13e, 13f, 13g) and wherein the interface comprises a second connection which is fludically connected to the second storage space wherein the second connection is also designed in such a way that it can be connected to the corresponding second connection of the consumable substance tank of an electric cigarette.
Arrangement for determining a magnitude for an active brake force on a brake, comprising a carrier, comprising, furthermore, a brake mount, characterized in that the brake mount is arranged such that it can be displaced elastically and laterally with respect to the carrier, the brake mount being fixed on the carrier by way of at least one elastic bending element (4a, 4b), a sensor apparatus for the determination of the displacement travel (Δx) of the brake mount with respect to the carrier being provided.
Method for controlling gear changes during a regenerative braking phase, on the two input shafts of a hybrid dual clutch transmission, transmitting to the wheels the torque of a heat engine under the control of the dual clutch, and the torque of an electric machine connected to the wheels by one of the two input shafts independently of the dual clutch, in which the loss of vehicle deceleration in the regenerative braking phase with the engine switched off, due to the interruption of the torque transmitted by the electric machine during a gear change on the shaft connecting the electric machine to the wheels, is compensated for by causing friction between the clutches of the transmission, characterized in that an optimum gear for this compensation ( Gear_opt) is selected on the other input shaft based on the estimated loss of deceleration ( Accel_loss_esti_arb) on the gears which are eligible on this other shaft, in that the optimum gear is selected from eligible gears ( Gear_vs_ena) which are possible based on the vehicle speed, in that the eligible gears which are possible (Gear_vs_ena) are determined according to the current vehicle speed (Veh_speed) and the maximum possible speeds (Vs_max_gear) of the eligible gears, and in that the loss of deceleration due to the gear changes on the input shaft connecting the electric machine to the wheels (Accel _ loss_esti) is calculated from the maximum compensating forces achievable by friction on the eligible gears (F_max_comp_wheel) and the force supplied to the wheels by the transmission ( F_gmp_wheel) from the electric machine.
A dental drill system with electrical-impedance sensing configured to indicate whether a bit of the drill system is approaching a cancellous-cortical bone interface or a bone-soft tissue interface comprising: a dental drill having in its handset a cannulated bit, the cannulated bit having an insulating coating extending from near a cutting end of the bit to a handset end of the bit, a cannula bearing electrically coupled to an uninsulated interior of a cannula of the cannulated bit, an EIS measurement and calculation unit configured to measure impedance between the cannula bearing and a ground plate, and a processing system configured to distinguish when the bit of the drill system approaches a cancellous-cortical bone or bone-soft tissue interface. a dental drill having in its handset a cannulated bit, the cannulated bit having an insulating coating extending from near a cutting end of the bit to a handset end of the bit, a cannula bearing electrically coupled to an uninsulated interior of a cannula of the cannulated bit, an EIS measurement and calculation unit configured to measure impedance between the cannula bearing and a ground plate, and a processing system configured to distinguish when the bit of the drill system approaches a cancellous-cortical bone or bone-soft tissue interface.
A method for taking inventory of a plurality of objects within a structure, the method comprising: causing an autonomous mobile robot to navigate through at least a portion of the structure; while navigating through the portion of the structure, causing at least one camera (182, 184) of the autonomous mobile robot to acquire a plurality of positioning images at a first image resolution; determining that at least one positioning image of the plurality of positioning images contains an image of a predetermined landmark; in response to determining that the at least one positioning image of the plurality of positioning images contains the image of the predetermined landmark, causing the autonomous mobile robot to navigate to a predetermined data collection position, the predetermined data collection position being based at least in part on a position of the autonomous mobile robot during acquisition of the at least one positioning image; the method being characterized in that the method further comprises: causing the at least one camera (182, 184) of the autonomous mobile robot to acquire at least one inventory image at a second image resolution, the second image resolution being greater than the first image resolution; and extracting, from the at least one inventory image, a plurality of inventory labels, each inventory label relating to a corresponding object of the plurality of objects within the structure. causing an autonomous mobile robot to navigate through at least a portion of the structure; while navigating through the portion of the structure, causing at least one camera (182, 184) of the autonomous mobile robot to acquire a plurality of positioning images at a first image resolution; determining that at least one positioning image of the plurality of positioning images contains an image of a predetermined landmark; in response to determining that the at least one positioning image of the plurality of positioning images contains the image of the predetermined landmark, causing the autonomous mobile robot to navigate to a predetermined data collection position, the predetermined data collection position being based at least in part on a position of the autonomous mobile robot during acquisition of the at least one positioning image; causing the at least one camera (182, 184) of the autonomous mobile robot to acquire at least one inventory image at a second image resolution, the second image resolution being greater than the first image resolution; and extracting, from the at least one inventory image, a plurality of inventory labels, each inventory label relating to a corresponding object of the plurality of objects within the structure.