mhurhangee/patent-ind-claim-en huggingface dataset:
A fault detection device for detecting faults in an electrical system comprising at least one electrical control unit (202-206) electrically connected to a plurality of electrical components , said fault detection device comprising: a first measuring unit configured to receive, from said electrical control unit (202-206), a first error value indicative of a fault in a subset comprising at least two of said plurality of electrical components ; a communication unit configured to provide information to a user interface ; a second measuring unit configured to be electrically connected directly and simultaneously to each of said at least two of said plurality of electrical components in said subset during a measurement; and a processing unit connected to and configured to control said first measuring unit , said second measuring unit , and said communication unit , wherein said second measuring unit is configured to, based on said first error value indicative of a fault in said subset , determine an operational status of each of said electrical components in said subset of electrical components ; and wherein, said communication unit is configured to provide, to said user interface , an indication of said operational status. a first measuring unit configured to receive, from said electrical control unit (202-206), a first error value indicative of a fault in a subset comprising at least two of said plurality of electrical components ; a communication unit configured to provide information to a user interface ; a second measuring unit configured to be electrically connected directly and simultaneously to each of said at least two of said plurality of electrical components in said subset during a measurement; and a processing unit connected to and configured to control said first measuring unit , said second measuring unit , and said communication unit , wherein said second measuring unit is configured to, based on said first error value indicative of a fault in said subset , determine an operational status of each of said electrical components in said subset of electrical components ; and wherein, said communication unit is configured to provide, to said user interface , an indication of said operational status.
A windshield for a balance to be attached to a balance to define a weighing chamber (S), comprising: an openable and closable door constituting a portion of the weighing chamber (S); an opening and closing mechanism configured to open and close the door ; a sensor configured to detect movement of the door ; and a control unit configured to perform control so as to cause the opening and closing mechanism to open or close the door when a movement of the door from a stationary state is detected by the sensor . characterized in that moving the door from a stationary state works as a trigger for the control unit to perform control so as to cause the opening and closing mechanism to open or close the door . an openable and closable door constituting a portion of the weighing chamber (S); an opening and closing mechanism configured to open and close the door ; a sensor configured to detect movement of the door ; and a control unit configured to perform control so as to cause the opening and closing mechanism to open or close the door when a movement of the door from a stationary state is detected by the sensor . characterized in that
Tool frame for a device for cold joining, in particular for a cold-joining tool, wherein the tool frame has two leg sections spaced apart from one another and a connection section , wherein a punch unit of the device can be provided at a free end of a first leg section , and a die unit of the device can be provided at a free end of a second leg section , with the result that, when ready to use, the punch unit and the die unit are located opposite one another and predefine a tool axis, and wherein ends of the leg sections that face away from the free ends are connected to one another via the connection section , wherein the tool frame has a first surface side and a second surface side opposite the first surface side , wherein an outer contour of the tool frame is determined by an outer edge of the tool frame in the transition between the two surface sides , wherein the tool frame comprises a reinforcing section , which is provided on the outer edge along the outer contour of the tool frame , wherein there are multiple part sections of the reinforcing section each having an associated thickness dimension of the part section over a course of the reinforcing section , as seen along the outer edge , wherein an extent of the respective part sections along the outer edge and parallel to a surface side is in each case at least 30 millimetres, and wherein the reinforcing section has between two and six part portions in the direction of the longitudinal course of the outer edge , each with a different thickness dimension from the adjacent part portion, characterized in that the first leg section comprises two first beam sections , which are separated from one another by a first weakening section in the first leg section , wherein the weakening section in the tool frame is a material-free region, wherein approximately from 70 to 90 per cent of an entire area which stretches between the two first beam sections of the first beam section is formed by way of the weakening section .
Method for controlling a rechargeable battery on a power tool , wherein the rechargeable battery contains a first data interface and a wake-up circuit to activate control electronics of the rechargeable battery , and the power tool contains a second data interface and a controller , and wherein the data interfaces have a first and a second communication line for differential communication between the rechargeable battery and the power tool , characterized by the method steps of - setting the control electronics of the rechargeable battery to a deactivation mode, with the result that no current flows from the rechargeable battery into the control electronics and to the power tool ; - transmitting at least one signal from the power tool to the rechargeable battery via the first and second communication lines ; - activating the wake-up circuit to activate control electronics by detecting a voltage value from the first or second communication line , the voltage value corresponding to either the dominant or the recessive state of the first or second communication line ; - setting the control electronics of the rechargeable battery to an activation mode by means of the wake-up circuit ; and - enabling current to be drawn from the rechargeable battery by the power tool . - setting the control electronics of the rechargeable battery to a deactivation mode, with the result that no current flows from the rechargeable battery into the control electronics and to the power tool ; - transmitting at least one signal from the power tool to the rechargeable battery via the first and second communication lines ; - activating the wake-up circuit to activate control electronics by detecting a voltage value from the first or second communication line , the voltage value corresponding to either the dominant or the recessive state of the first or second communication line ; - setting the control electronics of the rechargeable battery to an activation mode by means of the wake-up circuit ; and - enabling current to be drawn from the rechargeable battery by the power tool .
An image processing system , comprising: an original image acquisition unit that acquires a first original image and a second original image; a luminance correction unit that acquires a luminance-corrected image by correcting a luminance value of the second original image such that a difference from a luminance value of the first original image decreases in accordance with an exposure condition related to each of the original images; and a background difference type object detection unit that detects an object by acquiring a background difference based on the luminance-corrected image, wherein the original image acquisition unit acquires the first original image and the second original image related to a plurality of different positions, each of the original images includes a stereo region and a monocular region, the stereo region is a region in which angles of view overlap between the original images related to the different positions, and the monocular region is a region in which the angles of view do not overlap between the original images related to the different positions, the image processing system includes an exposure condition adjustment unit that decides the exposure condition based on the stereo region of each of the original images, and the luminance correction unit acquires the luminance-corrected image related to one position by correcting the luminance value of the second original image related to said position such that a difference in the luminance value from the first original image related to said position in the monocular region related to said position decreases. an original image acquisition unit that acquires a first original image and a second original image; a luminance correction unit that acquires a luminance-corrected image by correcting a luminance value of the second original image such that a difference from a luminance value of the first original image decreases in accordance with an exposure condition related to each of the original images; and a background difference type object detection unit that detects an object by acquiring a background difference based on the luminance-corrected image, wherein the original image acquisition unit acquires the first original image and the second original image related to a plurality of different positions, each of the original images includes a stereo region and a monocular region, the stereo region is a region in which angles of view overlap between the original images related to the different positions, and the monocular region is a region in which the angles of view do not overlap between the original images related to the different positions, the image processing system includes an exposure condition adjustment unit that decides the exposure condition based on the stereo region of each of the original images, and the luminance correction unit acquires the luminance-corrected image related to one position by correcting the luminance value of the second original image related to said position such that a difference in the luminance value from the first original image related to said position in the monocular region related to said position decreases.
A mold for forming a package for an integrated circuit sensor device, comprising a bottom part for supporting an integrated circuit die ; a top part that is operable to be placed on top of said bottom part to form a cavity into which a plastic material can be injected to form the package, wherein the top part of the mold comprises a spring housing of a spring-loaded pin arrangement further comprising a cylindrical cover made from high temperature plastic material and having a recess configured to cover a sensor area on the integrated circuit die and wherein the top part further provides for an injection opening to allow injection of the plastic material, a pin extending from the cylindrical cover and guided within the spring housing wherein the pin can be vertically moved against a spring force, wherein the top part further comprises a recess extending from the opening towards said cavity and configured to receive the cylindrical cover when the top part (110 is placed on said bottom part , wherein the pin can extend 4 to 5 mm from the spring housing and wherein the spring provides for a spring force of 80-120g.
A cushion for a full facial respiratory mask assembly comprising a frame-connecting portion , a face-contacting portion , and a gusset portion disposed between and joining said frame-connecting and face-contacting portions, wherein the gusset portion is structured to allow relative movement of a mask frame to occur towards and away from a patient's face, and said gusset portion includes a relatively narrow or constant width upper perimetrical region (16-1) from a first location adjacent a patient's nose and around the patient's nasal bridge region in use, a maximal width lower perimetrical region (16-2) from a second location generally adjacent a patient's mouth in use and around a base of the cushion, and a transition perimetrical regions (16-3) joining the upper perimetrical region (16-1) and the lower perimetrical region (16-2) between the first location and the second location, wherein the gusset portion has a minimum widthwise dimension (W1) at the upper perimetrical region (16-1), a maximum widthwise dimension (W2) at the lower perimetrical region (16-2), and widthwise transitions joining said upper and lower perimetrical regions, wherein the widthwise dimensions are measured from a cushion contact point to an exterior of the gusset, wherein said upper perimetrical region (16-1) comprises a w-shaped or concertina-type fold having little or no projected area in the gusset portion in the nasal bridge region, and wherein said lower perimetrical region (16-2) has an increased projected area relative to the upper perimetrical region (16-1). a frame-connecting portion , a face-contacting portion , and a gusset portion disposed between and joining said frame-connecting and face-contacting portions, wherein the gusset portion is structured to allow relative movement of a mask frame to occur towards and away from a patient's face, and said gusset portion includes a relatively narrow or constant width upper perimetrical region (16-1) from a first location adjacent a patient's nose and around the patient's nasal bridge region in use, a maximal width lower perimetrical region (16-2) from a second location generally adjacent a patient's mouth in use and around a base of the cushion, and a transition perimetrical regions (16-3) joining the upper perimetrical region (16-1) and the lower perimetrical region (16-2) between the first location and the second location, wherein the gusset portion has a minimum widthwise dimension (W1) at the upper perimetrical region (16-1), a maximum widthwise dimension (W2) at the lower perimetrical region (16-2), and widthwise transitions joining said upper and lower perimetrical regions, wherein the widthwise dimensions are measured from a cushion contact point to an exterior of the gusset, wherein said upper perimetrical region (16-1) comprises a w-shaped or concertina-type fold having little or no projected area in the gusset portion in the nasal bridge region, and wherein said lower perimetrical region (16-2) has an increased projected area relative to the upper perimetrical region (16-1).
A product comprising: a dust collection device for a sanding tool comprising a bag having a sidewall with an inner surface and a coupler attached to the bag; the sidewall comprising at least one filter layer and an outer support layer ; characterised by further comprising a sleeve having an outer surface , a sleeve sidewall , a first end , a second end , and a first gap having a first gap area located at the first end and a second gap having a second gap area located at the second end; the first end positioned adjacent the coupler to direct incoming air towards the sleeve and the sleeve positioned within the bag such that a bypass volume is present between the outer surface and the inner surface . a dust collection device for a sanding tool comprising a bag having a sidewall with an inner surface and a coupler attached to the bag; the sidewall comprising at least one filter layer and an outer support layer ; characterised by further comprising a sleeve having an outer surface , a sleeve sidewall , a first end , a second end , and a first gap having a first gap area located at the first end and a second gap having a second gap area located at the second end; the first end positioned adjacent the coupler to direct incoming air towards the sleeve and the sleeve positioned within the bag such that a bypass volume is present between the outer surface and the inner surface .
Shaping method for producing a cover wall portion for a cover , wherein the cover is a gangway element, preferably gangway bellows, for vehicles, building connections, or for air passenger bridges or air passenger stairs, and is preferably designed to be planar or to be rectangular in cross section or U-shaped in cross section, wherein the gangway element, preferably the gangway bellows, is used to protect a gangway between two vehicle parts which are connected to one another so as to be movable relative to one another, or between two building parts, or between an aircraft or a building and an air passenger bridge, in particular a gangway between two vehicle parts which are connected to one another in an articulated manner, against external influences, wherein the cover wall portion comprises at least one multilayer sheet material which comprises a reinforcement material and a polymer coating which is provided on at least one side, preferably on both sides, the shaping method comprising the following steps: a) providing the at least one multilayer sheet material , b) draping the at least one multilayer sheet material on a molding surface of a mold and tensioning the at least one multilayer sheet material against the molding surface by means of at least one elongate, flexible, non-dimensionally stable tensioning element , c) curing the at least one multilayer sheet material and/or the at least one tensioning element such that the cover wall portion is fixed in its shape. a) providing the at least one multilayer sheet material , b) draping the at least one multilayer sheet material on a molding surface of a mold and tensioning the at least one multilayer sheet material against the molding surface by means of at least one elongate, flexible, non-dimensionally stable tensioning element , c) curing the at least one multilayer sheet material and/or the at least one tensioning element such that the cover wall portion is fixed in its shape.
A mower combination comprising an agricultural vehicle and a number of mowing units suitable for cutting a standing crop connected to the agricultural vehicle , including a front mowing unit and two lateral mowing units located behind and to the sides of the front mowing unit , each of the lateral mowing units being provided with conveyor units to deposit the cut crop as a swath, each of the conveyor units being laterally displaceable with respect to an associated lateral mowing unit , the mower combination further comprising a sensor configured to provide input signals representative of an angle of inclination (α) of the mower combination , sensors configured to provide input signals representative of a lateral displacement of each conveyor unit with respect to an associated lateral mowing unit and a control unit configured to receive a plurality of input signals including the input signals representing the angle of inclination (α) of the mower combination , and the input signals representative of the lateral displacement of each of the conveyor units with respect to the associated lateral mowing units , to compare the signals for the angle of inclination (α) of the mower combination and the lateral displacement of the conveyor units with respect to the associated lateral mowing units against a predetermined set of values and to adjust the lateral displacement of at least one conveyor unit with respect to the associated lateral mowing unit based on this comparison.
Foldable goods shelf for the storage and presentation of products with a physical shelf frame formed by a rear wall, two side walls and a front wall defining an interior, in said shelf frame is arranged a plurality of compartments with compartment bases as the storage area of the products, wherein the goods shelf is formed in one piece from a flat surface cut-out preferably made of corrugated paper material, wherein in the front wall of the foldable goods shelf front wall sections in each case forming the compartment bases are cut out on multiple sides, wherein the rear wall is formed in a double-walled manner with two rear wall sections overlapping one another in the assembled construction state of the goods shelf and in a rear wall section support sections for one compartment base in each case are cut out on multiple sides, wherein in each case one support section and the corresponding front wall section and the outside of the rear wall section are adhered with the cut-out support sections and the inside of the other rear wall section such that the goods shelf can be moved to an unfolded state for the presentation of goods and to a folded transport state by the shelf frame and the compartment bases forming a flat surface state with compartment bases and front wall resting on the rear wall.
A method for color mapping a video signal (VS) into a mapped video signal (MVS) comprising: obtaining at least one color mapping function, wherein the color mapping function includes at least one first one-dimensional mapping function (F1, F2, F3), at least one second one-dimensional mapping function (G1, G2, G3), and a matrix (M); determining an input color encoding system of the video signal, wherein the input color encoding system is defined by a type of color components of the video signal (VS) and a range of the color components of the video signal (VS); determining an output color encoding system of the mapped video signal, wherein the output color encoding system is defined by a type of color components of the mapped video signal (MVS) and a range of the color components of the mapped video signal (MVS); determining at least one of a first black point offset (O1) based on the input color encoding system and a second black point offset (O2) based on the output color encoding system; applying the at least one first one-dimensional mapping function (F1, F2, F3) on the video signal (VS) before applying the matrix (M); applying the at least one second one-dimensional mapping function (G1, G2, G3) after applying the matrix (M) to obtain the mapped video signal (MVS); and adding at least one of the first black point offset (O1) between the at least one first one-dimensional mapping function (F1, F2, F3) and the matrix (M) and the second black point offset (O2) between the matrix (M) and the at least one second one-dimensional mapping function (G1, G2, G3). obtaining at least one color mapping function, wherein the color mapping function includes at least one first one-dimensional mapping function (F1, F2, F3), at least one second one-dimensional mapping function (G1, G2, G3), and a matrix (M); determining an input color encoding system of the video signal, wherein the input color encoding system is defined by a type of color components of the video signal (VS) and a range of the color components of the video signal (VS); determining an output color encoding system of the mapped video signal, wherein the output color encoding system is defined by a type of color components of the mapped video signal (MVS) and a range of the color components of the mapped video signal (MVS); determining at least one of a first black point offset (O1) based on the input color encoding system and a second black point offset (O2) based on the output color encoding system; applying the at least one first one-dimensional mapping function (F1, F2, F3) on the video signal (VS) before applying the matrix (M); applying the at least one second one-dimensional mapping function (G1, G2, G3) after applying the matrix (M) to obtain the mapped video signal (MVS); and adding at least one of the first black point offset (O1) between the at least one first one-dimensional mapping function (F1, F2, F3) and the matrix (M) and the second black point offset (O2) between the matrix (M) and the at least one second one-dimensional mapping function (G1, G2, G3).