mhurhangee/ep-ind-claims huggingface dataset:
An autonomous device for user interaction to identify an unrecognizable object not included in a recognizable object database, the autonomous device configured to be capable of self-navigating in an environment, and comprising: an I/O communicator to obtain environmental data of the environment; an environment map manager to generate an environment map based on the environmental data, wherein the generated environment map is a digital representation of the environment and includes digital indications corresponding to actual locations of one or more recognized objects in the environment; a device location tracker to monitor a location of the autonomous device in the environment map for self-navigating in the environment; an object manager to detect an object in the environment using the environmental map, and to determine, in response to detection of the object, whether the object is recognizable via the recognizable object database; a light source controller to activate, in response to a determination that the object is not included in the recognizable object database, a light source and indicate the object using the light source; and a user communicator to query a user, about the object indicated by the light source, using a natural language query output with an audio device and to receive a user response identifying the object to obtain an object identity; wherein the object manager is further to update the recognizable object database in response to a receipt of the user response to associate the object identity with the object. an I/O communicator to obtain environmental data of the environment; an environment map manager to generate an environment map based on the environmental data, wherein the generated environment map is a digital representation of the environment and includes digital indications corresponding to actual locations of one or more recognized objects in the environment; a device location tracker to monitor a location of the autonomous device in the environment map for self-navigating in the environment; an object manager to detect an object in the environment using the environmental map, and to determine, in response to detection of the object, whether the object is recognizable via the recognizable object database; a light source controller to activate, in response to a determination that the object is not included in the recognizable object database, a light source and indicate the object using the light source; and a user communicator to query a user, about the object indicated by the light source, using a natural language query output with an audio device and to receive a user response identifying the object to obtain an object identity; wherein the object manager is further to update the recognizable object database in response to a receipt of the user response to associate the object identity with the object.
Controller for a motor vehicle, comprising a housing, wherein the housing encloses a hollow space, wherein the controller has an electrical power device, in particular an inverter, which is arranged in the hollow space and a housing wall of the housing has an aperture, wherein an electrical connection of the controller is guided through the aperture, wherein the electrical connection has an electrically conductive sleeve and a bolt, wherein the sleeve is electrically connected to the power device in a releasable manner, wherein the bolt is guided through the sleeve and is designed to firmly hold an end section of an electrical connection cable and to press the end section against a sleeve end of the sleeve, which sleeve end is in the form of an end face (15, 16), and to connect the electrical connection cable to the connection in this way, wherein the sleeve, at least on a longitudinal section which is guided through the housing wall, is sheathed by a plastic insulation, characterized in that the sleeve has at least one aperture in which the plastic material of the plastic insulation extends into the interior of the sleeve and is designed to seal off the sleeve from the bolt.
Composition for dyeing human keratin fibres, comprising: (a) at least one oxidation dye precursor; (b) at least one amphoteric or zwitterionic surfactant; (c) at least a second surfactant chosen from nonionic and anionic surfactants, or mixtures thereof; (d) at least one fatty substance other than ceramides; (e) at least one nonionic guar gum. (a) at least one oxidation dye precursor; (b) at least one amphoteric or zwitterionic surfactant; (c) at least a second surfactant chosen from nonionic and anionic surfactants, or mixtures thereof; (d) at least one fatty substance other than ceramides; (e) at least one nonionic guar gum.
A method for eliminating wrinkles in clothes disposed in a drum of a washing machine when a wrinkle-eliminating course is selected, the wrinkle-eliminating course being an independently selectable course for eliminating wrinkles in the clothes, said method comprising: operating a steam heater installed in a steam generating device to heat water contained in the steam generating device; supplying steam generated in the steam generating device to an inside of the drum such that the clothes are exposed to the steam; rotating the drum such that lifters installed on an inner surface of the drum allow the clothes to move while the steam is being supplied; controlling a valve to open so that water is supplied to the steam generating device, which causes the water to be heated and converted to the steam that is supplied to the rotating drum; stopping the operation of the steam generating device; and supplying hot air to the clothes to which steam was supplied. operating a steam heater installed in a steam generating device to heat water contained in the steam generating device; supplying steam generated in the steam generating device to an inside of the drum such that the clothes are exposed to the steam; rotating the drum such that lifters installed on an inner surface of the drum allow the clothes to move while the steam is being supplied; controlling a valve to open so that water is supplied to the steam generating device, which causes the water to be heated and converted to the steam that is supplied to the rotating drum; stopping the operation of the steam generating device; and supplying hot air to the clothes to which steam was supplied.
A method performed in a control unit for identifying low tire pressure in a vehicle having at least three wheels (110, 120, 130, 140, 150, 160) of which at least one is driven, the method comprising the steps of: registering a respective rotational speed (ω 1, ω 2, ω 3, ω 4, ω 5, ω 6) of each wheel of the vehicle; comparing the rotational speeds pairwise to one another to derive at least one test variable (R 1, R 2); and studying the at least one test variable to check if one or more of the wheels have a tire pressure below a threshold level, characterized by the comparing step involving: estimating, for each driven wheel (130, 140), a longitudinal slip (s) resulting from a traction torque applied to the driven wheel; determining a first compensation factor ( α i,j), which cancels out the estimated longitudinal slip (s) resulting from the traction torque applied to the driven wheel (130, 140); and evaluating the rotational speeds of the wheels pairwise against one another, in consideration of the first compensation factor ( α i,j) and where the estimated longitudinal slips (s i, s j) of the wheels of at least one evaluated pair are mutually different wherein the step of pairwise comparing the rotational speeds (ω 1, ω 2, ω 3, ω 4, ω 5, ω 6) to one another comprises calculating at least one quotient between first and second rotational speeds of first and second wheels respectively. registering a respective rotational speed (ω 1, ω 2, ω 3, ω 4, ω 5, ω 6) of each wheel of the vehicle; comparing the rotational speeds pairwise to one another to derive at least one test variable (R 1, R 2); and studying the at least one test variable to check if one or more of the wheels have a tire pressure below a threshold level, estimating, for each driven wheel (130, 140), a longitudinal slip (s) resulting from a traction torque applied to the driven wheel; determining a first compensation factor ( α i,j), which cancels out the estimated longitudinal slip (s) resulting from the traction torque applied to the driven wheel (130, 140); and evaluating the rotational speeds of the wheels pairwise against one another, in consideration of the first compensation factor ( α i,j) and where the estimated longitudinal slips (s i, s j) of the wheels of at least one evaluated pair are mutually different wherein the step of pairwise comparing the rotational speeds (ω 1, ω 2, ω 3, ω 4, ω 5, ω 6) to one another comprises calculating at least one quotient between first and second rotational speeds of first and second wheels respectively.
A probe system configured to test a plurality of devices under test, the probe system comprising: a plurality of probes with a corresponding plurality of fiducial marks, wherein each probe of the plurality of probes includes: (i) a beam portion; (ii) a probe tip extending from the beam portion and configured to contact a device under test; and (ii) a fiducial mark formed on the beam portion and configured to facilitate alignment of the probe and the device under test; a chuck that defines a support surface configured to support a substrate that includes the plurality of devices under test; and an optical assembly configured to perform an optical measurement of the fiducial mark of at least one probe of the plurality of probes and of at least a portion of the substrate; wherein the fiducial mark of the at least one probe of the plurality of probes: (i) is configured to be visible to the optical assembly when the probe is brought into contact with the device under test; and (ii) is in focus to the optical assembly within a discrete depth of field of the optical assembly that is smaller than a depth of field over which the beam portion is in focus to the optical assembly. a plurality of probes with a corresponding plurality of fiducial marks, wherein each probe of the plurality of probes includes: (i) a beam portion; (ii) a probe tip extending from the beam portion and configured to contact a device under test; and (ii) a fiducial mark formed on the beam portion and configured to facilitate alignment of the probe and the device under test; (i) a beam portion; (ii) a probe tip extending from the beam portion and configured to contact a device under test; and (ii) a fiducial mark formed on the beam portion and configured to facilitate alignment of the probe and the device under test; a chuck that defines a support surface configured to support a substrate that includes the plurality of devices under test; and an optical assembly configured to perform an optical measurement of the fiducial mark of at least one probe of the plurality of probes and of at least a portion of the substrate; wherein the fiducial mark of the at least one probe of the plurality of probes: (i) is configured to be visible to the optical assembly when the probe is brought into contact with the device under test; and (ii) is in focus to the optical assembly within a discrete depth of field of the optical assembly that is smaller than a depth of field over which the beam portion is in focus to the optical assembly. (i) is configured to be visible to the optical assembly when the probe is brought into contact with the device under test; and (ii) is in focus to the optical assembly within a discrete depth of field of the optical assembly that is smaller than a depth of field over which the beam portion is in focus to the optical assembly.
A manual control device for manually controlling a lock of a door or window, comprising a handle having a grip and an axially hollow neck, an activation pin of the lock, a block for fixing said device to a profile of a door or window, and a rotation bushing for rotating the handle which extends from said neck of the handle and is arranged through a hole of said block, said pin being arranged through said hole of said block and having a front end engaged in said bushing, and further comprising at least one stop ring for the extraction of said bushing from said hole of said block, said stop ring being engaged in a seat of said bushing formed by an outer circumferential groove of said bushing, said stop ring is an elastic and open stop ring housed and axially locked in a seat provided on the back of said block, said stop ring being free to radially expand and contract so that in the assembly step of the manual control device, due to the axial introduction of the bushing in the hole, the end of the bushing initially separates the stop ring until the stop ring aligns and engages, contracting in the seat of the bushing, characterized in that said hole and said bushing have interacting indexing means (26, 27) of the angular position of said handle comprising depressions on the outer perimeter of said bushing and elastically yielding protrusions along the perimeter of said hole, said depressions extending along axial generatrices of said bushing.
A method of multistage conversion of heat energy into mechanical energy by changing the volume, pressure and temperature of the work medium, especially gases, characterized in that the work medium is sucked into a first stage while increasing the volume of the first stage, after which the work medium is transferred into the second stage, while the volume of the first stage is decreasing, and the volume of the second stage is increasing, after which the volume of the second stage is decreasing, the working medium is transferred through the third stage with invariable volume, where heat is simultaneously supplied, into the fourth stage, the volume of which is increasing, after which the work medium is transferred into the fifth stage, while the volume of the fourth stage is decreasing, the work medium expanding in the fifth stage while the volume of the fifth stage increasing and work is performed and after expansion the work medium is discharged from the fifth stage while the volume of the fifth stage is decreasing.
Air extraction device comprising at least an upright air extraction duct, through which the air is drawn off according to an upright draw-off direction, comprising one or more filter elements, which are arranged in the air extraction duct, for the retention of grease and water present in the drawn-off air, and comprising at least one or more reservoirs for the collection of the grease and water emanating from these one or more filter elements, wherein these one or more reservoirs are substantially arranged at the bottom of the one or more filter elements, viewed according to the draw-off direction when the air extraction device is in use, wherein the air extraction device is a worktop extractor hood and the air is drawn off from top to bottom in the air extraction duct, characterized in that the air extraction device comprises one or more collecting elements for the capture of the grease and water emanating from the one or more filter elements, wherein each collecting element comprises a discharge opening for the discharge of the captured grease and water and each reservoir is arranged at the bottom of a said discharge opening, so that the grease and the water emanating from a said filter element falls into the reservoir and wherein a said reservoir is elongate and extends practically according to the draw-off direction.
A prosthetic hand with one thumb element and at least one finger element, the thumb element being designed such that it can be moved relative to the finger element by a steering force, characterised in that the thumb element can be moved relative to the at least one finger element along a first trajectory in at least a first mode and along a second trajectory in at least a second mode, and can be brought from the first mode into the second mode by the steering force exceeding a first predetermined limit. one thumb element and at least one finger element,
Safety lid for bottles, which comprises: - a pouring element attachable to the neck of a bottle, - a closure cap attached to the pouring element through a rear hinge, the closure cap being able to be placed in an open position and a closed position, - a flexible protrusion, located in the closure cap in its part closest to the pouring element, the flexible protrusion contacting the pouring element in the open position of the closure cap, and - two lateral flanges located on the pouring element, which protrude from said pouring element and extend from the hinge towards an opposite front face, to delimit a free space between both flanges on the front face of the cap, the lid being characterized in that it comprises a first opening indicator element located in the space delimited between both flanges, which consists of a flange that when the lid is sealed is kept in an essentially horizontal position, the flange in turn comprising: - a first sector attached to the pouring element, - a second sector attached to the closure cap, and - a breakable central sector that allows a break and separation of the flange when a first opening of the lid occurs, and a subsequent deformation by bending of the first sector and the second sector of said flange. - a pouring element attachable to the neck of a bottle, - a closure cap attached to the pouring element through a rear hinge, the closure cap being able to be placed in an open position and a closed position, - a flexible protrusion, located in the closure cap in its part closest to the pouring element, the flexible protrusion contacting the pouring element in the open position of the closure cap, and - two lateral flanges located on the pouring element, which protrude from said pouring element and extend from the hinge towards an opposite front face, to delimit a free space between both flanges on the front face of the cap, the lid being characterized in that it comprises a first opening indicator element located in the space delimited between both flanges, which consists of a flange that when the lid is sealed is kept in an essentially horizontal position, the flange in turn comprising: - a first sector attached to the pouring element, - a second sector attached to the closure cap, and - a breakable central sector that allows a break and separation of the flange when a first opening of the lid occurs, and a subsequent deformation by bending of the first sector and the second sector of said flange. - a first sector attached to the pouring element, - a second sector attached to the closure cap, and - a breakable central sector that allows a break and separation of the flange when a first opening of the lid occurs, and a subsequent deformation by bending of the first sector and the second sector of said flange.
A monitoring beacon which comprises a ground seat base on which is provided a telescopic deployment mast, as well as an intrusion sensing head mounted at one end of said mast, characterized in that the monitoring beacon comprises support frames for solar panels being swivellingly mounted on the ground seat base, said beacon being configured to take a transport position, in which said panel support frames are arranged upright to form a protective cage for the beacon, solar panels mounted above said support frames being then directed towards the interior of the beacon, and an operating position, wherein said frames are folded flat around the ground seat base so as to release the mast and the associated sensing head, said solar panels being then exposed; said beacon comprising means for communicating with a management center among which a movable antenna which is provided on the telescopic mast by means of a turret mounted for rotation around said mast, and in that said sensing head is articulately mounted at the mast end, independently from said movable antenna; the movable antenna extending along the telescopic mast, a housing being provided into said ground seat base to receive a part of the antenna when the mast is retracted; and said monitoring beacon comprising a capacitive sensor arranged in the vicinity of said housing and configured to deliver information relating to the presence of the movable antenna into said housing.
An integrated circuit configured to operate a communication apparatus, the integrated circuit being adapted to: receive control information that includes frequency assignment information that specifies frequency resources allocated to the communication apparatus and cluster information that specifies a number of clusters which is a number of frequency resources allocated to the communication apparatus, wherein each cluster assigned to the communication apparatus is separated from another cluster, which is also assigned to the communication apparatus, in a frequency domain; set a resource block group size according to both a system bandwidth and the number of clusters allocated to the communication apparatus, wherein the resource block group size is a number of contiguous resource blocks included in a respective resource block group, and wherein each of the clusters comprises one or more resource block groups according to the set resource block group size; and map data to one or more frequency resources corresponding to the frequency resource assignment information, in one or more resource block groups of the resource block group size, wherein the one or more resource block groups are corresponding to each of the number of clusters allocated to the communication apparatus. receive control information that includes frequency assignment information that specifies frequency resources allocated to the communication apparatus and cluster information that specifies a number of clusters which is a number of frequency resources allocated to the communication apparatus, wherein each cluster assigned to the communication apparatus is separated from another cluster, which is also assigned to the communication apparatus, in a frequency domain; set a resource block group size according to both a system bandwidth and the number of clusters allocated to the communication apparatus, wherein the resource block group size is a number of contiguous resource blocks included in a respective resource block group, and wherein each of the clusters comprises one or more resource block groups according to the set resource block group size; and map data to one or more frequency resources corresponding to the frequency resource assignment information, in one or more resource block groups of the resource block group size, wherein the one or more resource block groups are corresponding to each of the number of clusters allocated to the communication apparatus.
A method of collecting soot in a gas stream, in particular an exhaust stream from an internal combustion engine, by means of a planar probe, preferably of resistive or capacitive type, positioned in the gas stream and having at least one face provided with electrodes (8, 9) connected to an electronic device for measuring soot concentration in the gas stream, the method being characterized in that the gas stream upstream from the planar probe is deflected by means of a protection shield completely covering the planar probe and having a single soot-collection window formed in a wall of the protection shield that is situated downstream from the planar probe in the gas stream, in such a manner as to: · protect the planar probe from a direct frontal impact of soot and any debris contained in the gas stream; and · generate a turbulent flow and reduce the speed of the gas stream downstream from the planar probe so as to select soot particles as a function of their size; thus resulting in mechanical protection of the planar probe and a uniform deposit of soot on said planar probe. · protect the planar probe from a direct frontal impact of soot and any debris contained in the gas stream; and · generate a turbulent flow and reduce the speed of the gas stream downstream from the planar probe so as to select soot particles as a function of their size; thus resulting in mechanical protection of the planar probe and a uniform deposit of soot on said planar probe.