mhurhangee/ep-ind-claims huggingface dataset:
Method for generating automation functions by automatically interpreting a piping diagram, wherein the piping diagram comprises objects (12, 20, 22, 24) and connections between objects (12, 20-24), wherein objects (12, 20-24) and/or connections are linked with operational requirements (30, 31), characterised in that in a first step operational requirements (30, 31) are defined on the basis of a predefined set of operating principles and on the basis of a predefined set of boundary conditions by means of an operator in the piping diagram, wherein in a second step the operational requirements (30, 31) included in the piping diagram are successively evaluated by an automatic interpretation of the piping diagram and a plurality of data records is generated which encode an operational requirement (30, 31) in each case, wherein in a third step an automation function is generated, modified or extended on the basis of the data records for an operational requirement (30, 31) and at least on the basis of an operating principle included as an intended purpose in the respective operational requirement (30, 31), or two or more already generated automation functions are functionally connected to one another and wherein the automation function is connected to the objects (12, 20, 24) linked by means of the underlying operational requirement. wherein the piping diagram comprises objects (12, 20, 22, 24) and connections between objects (12, 20-24), wherein objects (12, 20-24) and/or connections are linked with operational requirements (30, 31), characterised in that in a first step operational requirements (30, 31) are defined on the basis of a predefined set of operating principles and on the basis of a predefined set of boundary conditions by means of an operator in the piping diagram, wherein in a second step the operational requirements (30, 31) included in the piping diagram are successively evaluated by an automatic interpretation of the piping diagram and a plurality of data records is generated which encode an operational requirement (30, 31) in each case, wherein in a third step an automation function is generated, modified or extended on the basis of the data records for an operational requirement (30, 31) and at least on the basis of an operating principle included as an intended purpose in the respective operational requirement (30, 31), or two or more already generated automation functions are functionally connected to one another and wherein the automation function is connected to the objects (12, 20, 24) linked by means of the underlying operational requirement.
Method for determining the viscosity or a quantity related thereto of a fluid, in particular a micro-fluid. wherein at least one magnetic particle with a mean diameter of 20 nm to 1,000 μm is moved in the fluid by means of an inhomogeneous magnetic field, wherein the particle is set by a temporal variation of the magnetic field into oscillation with an amplitude of at most 1 mm and translationally reciprocated, wherein the particle is magnetically held or focused in a spatial area within the fluid, and wherein the amplitude and/or phase of the oscillation is or are measured magnetically, and the viscosity or the quantity related thereto or the dampingof the particle oscillation is determined therefrom, characterized in that the time-varying magnetic field is generated by two coils spaced in the direction of oscillation, and that the magnetic fields of the coils are sinusoidally varied with a 90° phase shift, and that the amplitude and/or phase of the oscillation is measured by means of lock-in technology.
A film mask comprising: a transparent substrate; a darkened light-shielding pattern layer provided on the transparent substrate; and an embossed pattern part provided on a surface of the transparent substrate, which is provided with the darkened light-shielding pattern layer; wherein a metal layer provided between the transparent substrate and the darkened light-shielding pattern layer is provided, the film mask comprises two or more regions of the metal layer where the thicknesses are different from each other or two or more regions of the darkened light-shielding pattern layer where the thicknesses are different from each other, or the film mask comprises a region where a metal layer is provided between the transparent substrate and the darkened light-shielding pattern layer and a region where the transparent substrate and the darkened light-shielding pattern layer are brought into direct contact with each other. a transparent substrate; a darkened light-shielding pattern layer provided on the transparent substrate; and an embossed pattern part provided on a surface of the transparent substrate, which is provided with the darkened light-shielding pattern layer; wherein a metal layer provided between the transparent substrate and the darkened light-shielding pattern layer is provided, the film mask comprises two or more regions of the metal layer where the thicknesses are different from each other or two or more regions of the darkened light-shielding pattern layer where the thicknesses are different from each other, or the film mask comprises a region where a metal layer is provided between the transparent substrate and the darkened light-shielding pattern layer and a region where the transparent substrate and the darkened light-shielding pattern layer are brought into direct contact with each other.
Mobile picking device for a rack store comprising a driverless, fully automatically positionable roboter vehicle with drive, power supply, control and sensor system, an intermediate store with several levels and a lifting device for receiving and transferring a small load carrier, characterised in that the levels of the intermediate store for receiving and removing a small load carrier are aligned parallel to a direction of receiving and removing a shelf of the shelf store and the levels in the intermediate store are inclined in the same direction at an angle (α), wherein the intermediate store can be traversed by a frame on which the lifting device is displaceably arranged. an intermediate store with several levels and a lifting device for receiving and transferring a small load carrier, characterised in that the levels of the intermediate store for receiving and removing a small load carrier are aligned parallel to a direction of receiving and removing a shelf of the shelf store and the levels in the intermediate store are inclined in the same direction at an angle (α), wherein the intermediate store can be traversed by a frame on which the lifting device is displaceably arranged.
Apparatus for the analysis of the dynamic behavior of a pneumatic tyre within an interface region with the ground, including: • a support frame; • a multilayer detection plate, carried by said support frame, in turn comprising: - an interface layer which, in use, comes into contact with the pneumatic tyre in motion, - a base layer, coupled to said interface layer wherein said base layer is at least partially transparent;- • an image detection device arranged in such a manner as to be able to frame and directly or indirectly capture the base layer of the multilayer detection plate, characterized in that said interface layer has a roughness (Ra) >= 16 μm at least at said interface region and wherein said interface layer is at least partially transparent. • a support frame; • a multilayer detection plate, carried by said support frame, in turn comprising: - an interface layer which, in use, comes into contact with the pneumatic tyre in motion, - a base layer, coupled to said interface layer wherein said base layer is at least partially transparent;- - an interface layer which, in use, comes into contact with the pneumatic tyre in motion, - a base layer, coupled to said interface layer wherein said base layer is at least partially transparent;- • an image detection device arranged in such a manner as to be able to frame and directly or indirectly capture the base layer of the multilayer detection plate,
A light emitting system for a motor vehicle, comprising: at least one light pipe (18, 63); at least one light source (21, 27, 64) disposed at least partially within an interior of the system; at least one mask providing a desired pattern of illumination of the system, wherein the mask comprises faded marks which are suited to intentionally create brighter or duller areas obtaining a selective brightness to control illumination levels by both the light source and the mask; and a lens (7, 60) substantially enclosing the interior of the system, the at least one light pipe (18, 63), and the at least one light source (21, 27, 64), the lens (7, 60) having an inner surface, an outer surface disposed opposite the inner surface and at least one of a continuous transparent or translucent coating on the outer surface, the mask being in direct contact to the coated lens (7, 60), wherein the at least one light source (21, 27, 64) is configured to emit light by or based on at least receiving electrical power from an electrical power source, the at least one light source (21, 27, 64) being arranged adjacent to and directed towards the at least one light pipe (18, 63), with the at least one light source (21, 27, 64) receiving electrical power from the electrical power source, the at least one of the continuous transparent or translucent coating is at least partially permeable to at least some light which is emitted by the at least one light source (21, 27, 64) and passed through the lens (7, 60), and wherein the mask and the lens (7, 60) are separable. at least one light pipe (18, 63); at least one light source (21, 27, 64) disposed at least partially within an interior of the system; at least one mask providing a desired pattern of illumination of the system, wherein the mask comprises faded marks which are suited to intentionally create brighter or duller areas obtaining a selective brightness to control illumination levels by both the light source and the mask; and a lens (7, 60) substantially enclosing the interior of the system, the at least one light pipe (18, 63), and the at least one light source (21, 27, 64), the lens (7, 60) having an inner surface, an outer surface disposed opposite the inner surface and at least one of a continuous transparent or translucent coating on the outer surface, the mask being in direct contact to the coated lens (7, 60), wherein the at least one light source (21, 27, 64) is configured to emit light by or based on at least receiving electrical power from an electrical power source, the at least one light source (21, 27, 64) being arranged adjacent to and directed towards the at least one light pipe (18, 63), with the at least one light source (21, 27, 64) receiving electrical power from the electrical power source, the at least one of the continuous transparent or translucent coating is at least partially permeable to at least some light which is emitted by the at least one light source (21, 27, 64) and passed through the lens (7, 60), and wherein the mask and the lens (7, 60) are separable.
A method for processing pixels of a digital image using a look-up table, the method comprising: partitioning the look-up table into a plurality of smaller look-up tables, respectively corresponding to different colour transformations; reducing the number of bits for the representation of at least one colour component of each pixel such that at least one bit is freed; allocating, for each pixel, at least one look-up table selection bit to the at least one freed bit, wherein the bit allocation is done in a given sequence; selecting, for each pixel, one of the plurality of smaller look up tables for transforming the colour components values of said pixel, wherein the selection is based on the at least one look-up table selection bit; transforming the colour component values of each pixel using the selected smaller look up table; sorting the transformed pixels according to the selected smaller look-up table used during the transforming step and in synchronisation with the bit allocation; and outputting the sorted pixels to provide a plurality of colour transformed versions of the image. partitioning the look-up table into a plurality of smaller look-up tables, respectively corresponding to different colour transformations; reducing the number of bits for the representation of at least one colour component of each pixel such that at least one bit is freed; allocating, for each pixel, at least one look-up table selection bit to the at least one freed bit, wherein the bit allocation is done in a given sequence; selecting, for each pixel, one of the plurality of smaller look up tables for transforming the colour components values of said pixel, wherein the selection is based on the at least one look-up table selection bit; transforming the colour component values of each pixel using the selected smaller look up table; sorting the transformed pixels according to the selected smaller look-up table used during the transforming step and in synchronisation with the bit allocation; and outputting the sorted pixels to provide a plurality of colour transformed versions of the image.
A medical apparatus (10, 300) configured to disperse a commanded quantity of fluid from a fluid dispersal line (307, 407, 607) to a receptacle (308, 606), comprising: a fluid source (34, 200); the fluid dispersal line; and a processor (18, 603) configured to determine whether fluid has been dispersed from the medical apparatus via the fluid dispersal line since the medical apparatus initiated operation, and assess whether fluid is available in the fluid dispersal line; wherein if fluid has not been dispersed from the medical apparatus since the medical apparatus initiated operation and fluid is not available in the fluid dispersal line, distributing the commanded quantity of fluid plus an amount of fluid determined to fill the fluid dispersal line, and otherwise dispersing only the commanded quantity of fluid. a fluid source (34, 200); the fluid dispersal line; and a processor (18, 603) configured to determine whether fluid has been dispersed from the medical apparatus via the fluid dispersal line since the medical apparatus initiated operation, and assess whether fluid is available in the fluid dispersal line; wherein if fluid has not been dispersed from the medical apparatus since the medical apparatus initiated operation and fluid is not available in the fluid dispersal line, distributing the commanded quantity of fluid plus an amount of fluid determined to fill the fluid dispersal line, and otherwise dispersing only the commanded quantity of fluid.
A sensor device (1710, 1900) for implantation through a tissue wall, comprising: a cylindrical housing (316, 191) having a first end and a second end; a first pressure sensor element (1712, 1900) located at a first end of the cylindrical housing (316, 191); a second pressure sensor element located at a second end of the cylindrical housing (316, 191); at least one wall anchor feature attached to the cylindrical housing (316, 191), the wall anchor feature having a first configuration with a straightened shape along the longitudinal direction of the cylindrical housing (316, 191), wherein the wall anchor feature is configured to extend outward and provide compressive force on the tissue wall when the sensor device is deployed from a delivery catheter; an antenna; a control circuitry accommodated within the housing (316, 191) and electrically coupled to the first and second sensor elements (1712, 1713) and the antenna; and a stent structure integrated with or attached to the sensor housing (316, 191) and configured to be implanted in the coronary sinus such that at least a portion of the sensor device (1710, 1900) is configured to pass through the wall between the left atrium and the coronary sinus. a cylindrical housing (316, 191) having a first end and a second end; a first pressure sensor element (1712, 1900) located at a first end of the cylindrical housing (316, 191); a second pressure sensor element located at a second end of the cylindrical housing (316, 191); at least one wall anchor feature attached to the cylindrical housing (316, 191), the wall anchor feature having a first configuration with a straightened shape along the longitudinal direction of the cylindrical housing (316, 191), wherein the wall anchor feature is configured to extend outward and provide compressive force on the tissue wall when the sensor device is deployed from a delivery catheter; an antenna; a control circuitry accommodated within the housing (316, 191) and electrically coupled to the first and second sensor elements (1712, 1713) and the antenna; and a stent structure integrated with or attached to the sensor housing (316, 191) and configured to be implanted in the coronary sinus such that at least a portion of the sensor device (1710, 1900) is configured to pass through the wall between the left atrium and the coronary sinus.
Device for measuring the physical parameters of a liquid, comprising a casing, inside of which there is arranged: • a refractometer configured for measuring a value of refractive index of the liquid, and • a sonic unit configured for measuring a value of sound propagation speed in the liquid, wherein the casing comprises an operative surface adapted for being in contact with the liquid and wherein the refractometer and the sonic unit are associated with said operative surface of the casing, wherein: • the refractometer comprises a prism projecting from the operative surface of the casing; and • the sonic unit comprises an emitter and a receiver of an acoustic signal, which project from the operative surface of the casing, wherein the prism comprises a first surface inside the casing and a second surface outside the casing and adapted for being in contact with the liquid, characterised in that the emitter and the receiver of the sonic unit are separated from each other and the second surface of the prism of the refractometer is situated between the emitter and the receiver of the sonic unit. • a refractometer configured for measuring a value of refractive index of the liquid, and • a sonic unit configured for measuring a value of sound propagation speed in the liquid, • the refractometer comprises a prism projecting from the operative surface of the casing; and • the sonic unit comprises an emitter and a receiver of an acoustic signal, which project from the operative surface of the casing,
A component for a gas turbine engine, comprising: an airfoil section having a leading edge, a pressure side, and a suction side; a first group of showerhead holes (94A-94C) in the leading edge; a second group of showerhead holes (96A-96C, 98A-98C) in one of the pressure side and the suction side; and a first core passageway and a second core passageway (92B-92C) configured to communicate fluid within the airfoil section, wherein the second core passageway (92B-92C) is separate from the first core passageway (92A-92C), and wherein the first core passageway and the second core passageway in communication with a respective one of the first group of showerhead holes (94A-94C) and the second group of showerhead holes (96A-96C; 98A-98C), the component including a pressure side wall and a suction side wall, and characterized by including a first passageway (102, 106) provided in one of the pressure side wall and the suction side wall configured to communicate fluid from the second core passageway to the second group of showerhead holes, wherein the first passageway feeds the second group of showerhead holes in series. an airfoil section having a leading edge, a pressure side, and a suction side; a first group of showerhead holes (94A-94C) in the leading edge; a second group of showerhead holes (96A-96C, 98A-98C) in one of the pressure side and the suction side; and a first core passageway and a second core passageway (92B-92C) configured to communicate fluid within the airfoil section, wherein the second core passageway (92B-92C) is separate from the first core passageway (92A-92C), and wherein the first core passageway and the second core passageway in communication with a respective one of the first group of showerhead holes (94A-94C) and the second group of showerhead holes (96A-96C; 98A-98C), the component including a pressure side wall and a suction side wall, and characterized by including a first passageway (102, 106) provided in one of the pressure side wall and the suction side wall configured to communicate fluid from the second core passageway to the second group of showerhead holes, wherein the first passageway feeds the second group of showerhead holes in series.
Method for assessing an angular position of an object detected on the basis of radar data, wherein the radar data are ascertained by a radar device, comprising the steps of: ascertaining an intrinsic speed (v_ego) of the radar device; ascertaining a relative speed (v_rel) of the detected object with respect to the radar device using the ascertained radar data; ascertaining at least one angular test region (α, β) using the ascertained intrinsic speed (v_ego) and the ascertained relative speed (v_rel), wherein the at least one angular test region (α, β) corresponds to possible stationary objects which have a relative speed (v_rel) that substantially corresponds to the ascertained relative speed (v_rel); and ascertaining whether an azimuth angle of the detected object lies in the ascertained angular test region (α, β), characterized in that the at least one angular test region (α, β) is also ascertained while taking into account an accuracy of the ascertained intrinsic speed (v_ego) and/or an accuracy of the ascertained relative speed (v_rel). ascertaining an intrinsic speed (v_ego) of the radar device; ascertaining a relative speed (v_rel) of the detected object with respect to the radar device using the ascertained radar data; ascertaining at least one angular test region (α, β) using the ascertained intrinsic speed (v_ego) and the ascertained relative speed (v_rel), wherein the at least one angular test region (α, β) corresponds to possible stationary objects which have a relative speed (v_rel) that substantially corresponds to the ascertained relative speed (v_rel); and ascertaining whether an azimuth angle of the detected object lies in the ascertained angular test region (α, β), characterized in that the at least one angular test region (α, β) is also ascertained while taking into account an accuracy of the ascertained intrinsic speed (v_ego) and/or an accuracy of the ascertained relative speed (v_rel).
Magnetic field sensor apparatus for measuring at least one magnetic field vector component H e, comprising at least one anisotropic magnetoresistive resistor device AMR resistor device arranged on a chip substrate, where the resistor device comprises a plurality of magnetoresistive AMR resistor elements which are connected in series by electrically conductive strips, characterized in that at least one permanent magnetic magnetization element with a magnetization axis is assigned to each resistor element in such a way that the resistor element is passed through by an initial magnetization field H 0 of the magnetization element in the direction of the magnetization axis, where a measurement current I S flowing through the resistor element from a contact region between a first conductive strip and the resistor element to a contact region between the resistor element and a second conductive strip has a mean current direction axis at a predefined linearization angle α > 0° and α < 90° relative to the magnetization axis.