mhurhangee/ep-ind-claims huggingface dataset:
Image processing system for generating a high dynamic range image from a first image and a second image, comprising: - a first displacement estimator adapted to estimate a displacement of image content between a reference image derived from the first image and an image to be warped derived from the second image, - a first warping unit adapted to compensate the estimated displacement by warping the image to be warped resulting in a first warped image, - a first error detector adapted to detect geometric warping errors within the first warped image, - a first error compensator adapted to compensate the detected geometric warping errors in the first warped image resulting in a first error corrected image; and - a high dynamic range calculator adapted to calculate the high dynamic range image based upon the first error corrected image and the reference image; characterized in that the first error detector comprises - a difference unit adapted to compute intensity differences of each pixel of the first warped image to a corresponding pixel of the reference image, - a histogram unit adapted to compute a histogram of the determined intensity differences, - a threshold determination unit adapted to determine an error threshold from the histogram, and - an error deciding unit adapted to determine geometric warping errors by comparing the intensity differences to the threshold resulting in a binary map of geometric warping error pixels; and wherein the threshold determination unit is adapted to adaptively determine the error threshold by analyzing gradients of consecutive values of the histogram and selecting the threshold as a value where the gradient is maximal, so that difference values below the error threshold indicate photometric warping errors and values above the error threshold indicate geometric warping errors. - a first displacement estimator adapted to estimate a displacement of image content between a reference image derived from the first image and an image to be warped derived from the second image, - a first warping unit adapted to compensate the estimated displacement by warping the image to be warped resulting in a first warped image, - a first error detector adapted to detect geometric warping errors within the first warped image, - a first error compensator adapted to compensate the detected geometric warping errors in the first warped image resulting in a first error corrected image; and - a high dynamic range calculator adapted to calculate the high dynamic range image based upon the first error corrected image and the reference image; characterized in that the first error detector comprises - a difference unit adapted to compute intensity differences of each pixel of the first warped image to a corresponding pixel of the reference image, - a histogram unit adapted to compute a histogram of the determined intensity differences, - a threshold determination unit adapted to determine an error threshold from the histogram, and - an error deciding unit adapted to determine geometric warping errors by comparing the intensity differences to the threshold resulting in a binary map of geometric warping error pixels; and
Electronic module for a chip card, the module comprising a substrate having, on a first face, a set of standardized electrical contacts (C1, C2, C3, C5, C6, C7) according to standard ISO 7816, allowing operation by contact with the corresponding contacts of a chip-card reader, and comprising, on a second face, an antenna and a microelectronic chip which is protected by an encapsulation zone and the chip being provided with a contact communication interface and with a contactless communication interface, the electrical contacts (C1-C7) being connected to the chip by conductive wires (13, 17, 19) passing through connection wells (8, 7, 6), the antenna comprising a plurality of turns which are located on the periphery of the module and a proximal connection pad and a distal connection pad which are arranged inside the encapsulation zone and intended to be connected to corresponding terminals of said contactless communication interface of the chip, and the turns of the antenna comprising a localized bulge skirting the distal connection pad and oriented in the direction of the chip, the distal connection pad being located at a small distance d from the edge of the encapsulation zone, characterized in that the inner edges (8", 10") of the connection wells (8, 10) of the two contacts closest to the distal connection pad are further towards the outside of the module than the inner edges of the connection wells of the other contacts, so as to maximize the space available between the distal connection pad and said connection wells (8, 10) for the passage of the tracks of the antenna.
A double-density small form-factor pluggable, SFP-DD, communication module, comprising: a set of control connector pins configured to exchange control signals; a first set of communication connector pins configured to establish a first communication channel supported by connector pins of a small form-factor pluggable, SFP, module; and a second set of communication connector pins configured to establish a second communication channel with a remote module, wherein a housing of the SFP-DD module is larger than the SFP module to accommodate the second set of communication pins. a set of control connector pins configured to exchange control signals; a first set of communication connector pins configured to establish a first communication channel supported by connector pins of a small form-factor pluggable, SFP, module; and a second set of communication connector pins configured to establish a second communication channel with a remote module, wherein a housing of the SFP-DD module is larger than the SFP module to accommodate the second set of communication pins.
A method for controlling a group of engines of an aircraft developing a required power (W nec) for driving a rotor, said group of engines being provided with at least one electrical member connected to a storage means for electrical energy and with a first number (n) of heat engines which is greater than or equal to two, each heat engine being capable of developing a continuous power without any limitation on duration during continuous operation, said electrical member being capable of developing a maximum power (W elec_max) in motor mode, characterised in that a processing unit executes stored instructions for evaluating a main condition according to which the group of engines can develop the required power while resting one heat engine, and when said main condition is met for: - resting one heat engine, and for accelerating the heat engines which are not at rest, namely for accelerating a second number (n-1) of heat engines which are not at rest which is equal to said first number (n) minus one unit in order to develop to the maximum a threshold power using the heat engines, said threshold power (PMC n-1) being achieved when each heat engine which is not at rest is developing said continuous power, and for - causing the electrical member to operate in motor mode if the processing unit evaluates that the main condition is met by jointly acting on the electrical member in motor mode and the second number of heat engines, the electrical member operating temporarily in electrical generation mode when the storage means is discharged. - resting one heat engine, and for accelerating the heat engines which are not at rest, namely for accelerating a second number (n-1) of heat engines which are not at rest which is equal to said first number (n) minus one unit in order to develop to the maximum a threshold power using the heat engines, said threshold power (PMC n-1) being achieved when each heat engine which is not at rest is developing said continuous power, and for - causing the electrical member to operate in motor mode if the processing unit evaluates that the main condition is met by jointly acting on the electrical member in motor mode and the second number of heat engines, the electrical member operating temporarily in electrical generation mode when the storage means is discharged.
A method for signal transmission, comprising: sending, by a sending node, a request-to-send,RTS, signal to a receiving node, the RTS signal comprising configuration information configured to transmit a clear-to-send,CTS, signal; and receiving, by the sending node, the CTS signal from the receiving node, the CTS signal being sent by the receiving node according to the configuration information, characterized in that, the configuration information comprises indication information of each of N candidate beams and information of sending time, corresponding to each of the N candidate beams, of the CTS signal, N being a positive integer. sending, by a sending node, a request-to-send,RTS, signal to a receiving node, the RTS signal comprising configuration information configured to transmit a clear-to-send,CTS, signal; and receiving, by the sending node, the CTS signal from the receiving node, the CTS signal being sent by the receiving node according to the configuration information, characterized in that, the configuration information comprises indication information of each of N candidate beams and information of sending time, corresponding to each of the N candidate beams, of the CTS signal, N being a positive integer.
An integrated circuit comprising an interconnection system which comprises a multilevel routing track the multilevel routing track comprising at least a first and a second conductive line, wherein each of the first and the second conductive line comprises conductive parts (31a, 31b, 31c) extending in parallel in at least three levels including a lower extension line level, a centerline level arranged directly above the lower extension line level and an upper extension line level arranged directly above the centerline level, wherein the conductive parts in said three levels have longitudinal sidewalls that are coplanar; wherein a first of the conductive parts of the first conductive line is arranged in the lower extension line level; wherein a first of the conductive parts of the second conductive line is arranged in the upper extension line level; the first conductive part of the first conductive line and the first conductive part of the second conductive line being separated by an insulating layer arranged in the centerline level; the first conductive part of the first conductive line being connected to a first crossing conductive line under the first conductive part of the first conductive line, and the first conductive part of the second conductive line being connected to a second crossing conductive line over the first conductive part of the first conductive line. the multilevel routing track comprising at least a first and a second conductive line, wherein each of the first and the second conductive line comprises conductive parts (31a, 31b, 31c) extending in parallel in at least three levels including a lower extension line level, a centerline level arranged directly above the lower extension line level and an upper extension line level arranged directly above the centerline level, wherein the conductive parts in said three levels have longitudinal sidewalls that are coplanar; wherein a first of the conductive parts of the first conductive line is arranged in the lower extension line level; wherein a first of the conductive parts of the second conductive line is arranged in the upper extension line level; the first conductive part of the first conductive line and the first conductive part of the second conductive line being separated by an insulating layer arranged in the centerline level; the first conductive part of the first conductive line being connected to a first crossing conductive line under the first conductive part of the first conductive line, and the first conductive part of the second conductive line being connected to a second crossing conductive line over the first conductive part of the first conductive line.
A turbine engine assembly comprising; a core gas turbine engine comprising a high-pressure compressor, a combustor, and a high-pressure turbine; a booster compressor coupled upstream from said core gas turbine engine; an intermediate-pressure turbine coupled to said booster compressor, said intermediate-pressure turbine disposed downstream from said core gas turbine engine; a counter-rotating fan assembly disposed upstream from said booster compressor, said counter-rotating fan assembly comprising a first fan assembly configured to rotate in a first direction and a second fan assembly configured to rotate in an opposite second direction; a single-rotating-direction low-pressure turbine disposed downstream from said intermediate-pressure turbine, said low-pressure turbine configured to drive said counter-rotating fan assembly; and a thrust bearing coupled between said booster compressor and a fan frame to transmit thrust loads generated by said booster compressor and said intermediate-pressure turbine to said fan frame; wherein said intermediate-pressure turbine is configured to rotate at a rotational speed between a rotational speed of said high-pressure compressor and a rotational speed of said single-rotating-direction low-pressure turbine.
Cabin of an armoured vehicle, in particular an armoured motor vehicle, wherein the cabin has at least one opening which is closed by an openable cover, wherein a wall of the cabin and the cover are made of a steel material and the cover is designed to be larger in area than the opening, in such a way that the cover overlaps the opening at the periphery and that at one edge of the opening a circumferential opening collar is formed which is oriented outwards with respect to an interior of the cabin, and that an externally circumferential, inwardly oriented cover collar is formed on the cover, in such a way that when the cover is closed, the opening collar and the cover collar form an undercut in cross-section, characterised in that the cover collar and the opening collar have a curved or bent profile in cross-section.
Operating device for a vehicle, in particular for an agricultural or industrial utility vehicle, having a manually actuatable control lever, using which the speed of the vehicle is adjustable, the control lever being adjustable in a longitudinal direction in order to adjust the speed of the vehicle, and having at least one operating element (24, 44, 46, 48) which is arranged on the control lever so as to be movable together with said control lever in the longitudinal direction and with which an implement which may be attached to the vehicle may be driven, characterized in that the control lever has, along its adjustment path in the longitudinal direction, at least one catch position, into which the control lever may be moved in order to drive the implement, a deflection of the control lever being permitted in the catch position in two directions (32, 34) differing from the longitudinal direction.
A valve protection basket for the protection of gas cylinder valves, composed of a protection basket having a cylindrical outer contour and fastening elements, which are arranged in the bottom region and which are used for fixing the protection basket to the cylinder valve, with the four support elements, which are forming the lateral region of the protection basket and a stability crown connecting the support elements, wherein the stability crown is interrupted between two support elements, wherein the protection basket is provided in its bottom region with two mutually opposite stability segments (1.6), which are connected to each other by means of two connection webs (1.7) of an intermediate central valve receiving ring (1.8) and wherein horizontally aligned bores (1.7.1), which are opposite each other, and which serve for receiving a connecting bolt are arranged on the two connection webs (1.7), characterized in that the protection basket is in one piece, a slot (1.9), which is offset by 90° with respect to the vertical separation plane (1.6.1) of the stability segments (1.6) and which divides the valve receiving ring (1.8) completely and the stability segments (1.6) only partially in a vertical orientation, is arranged in the bottom plate, the valve receiving ring (1.8) is provided in the lower region with an inwardly directed overhang (1.8.1), fixing elements (1.11) for fastening a cover plate (1.12), which is to be applied as a warranty seal, are arranged on the flanks of the separation plane (1.6.1) of the stability segments (1.6) and exchangeable spacers (1.13), which are used for support on the different cylinder radii and for improving the damping properties are arranged beneath the protection basket on the stability segments (1.6).
A pole grip, in particular for walking sticks, trekking poles, downhill ski poles, cross-country ski poles and Nordic walking poles, having a grip body and having a hook-like device for fastening a hand-retaining device in particular in the form of a hand strap or of a glove, characterized in that displaceable or rotatable latching-in means (6, 11) are arranged in the region of the hook-like device such that a loop-like, ring-like or eyelet-like device, which is pushed into the hook-like device essentially from above and is provided on the hand-retaining device, is fixed in the hook-like device with self-latching action wherein the hook-like device is arranged in the top region of the pole grip, on the hand side, wherein the hook-like device comprises a retaining peg or retaining pin offset in the direction of the hand side from the grip body to form an introduction slot or is arranged as a cutout in the grip body, and wherein the latching-in means are designed in the form of a restraining nose which, in the position in which it is braced, defines, in the downward direction, a region for the loop-like, ring-like or eyelet-like device which is enclosed counter to a preferably adjustable force.
An apparatus configured to apply maximum power limitations, comprising: a processor configured to determine a power headroom report; and a transmitter configured to transmit the headroom report, wherein the processor is configured to determine the power headroom by subtracting a nominal maximum transmission power configured by higher layers and the power that the apparatus would use if it did not apply maximum power limitations, wherein the result of said subtracting is not limited to zero and positive values, and determine the power headroom report with both positive and negative values of power headroom, as applicable, in which negative values indicate the missing power in dB that would be required to fulfill transmission requirements. a processor configured to determine a power headroom report; and a transmitter configured to transmit the headroom report, wherein the processor is configured to determine the power headroom by subtracting a nominal maximum transmission power configured by higher layers and the power that the apparatus would use if it did not apply maximum power limitations, wherein the result of said subtracting is not limited to zero and positive values, and determine the power headroom report with both positive and negative values of power headroom, as applicable, in which negative values indicate the missing power in dB that would be required to fulfill transmission requirements.
A process for producing a protein concentrate from a starch containing grain or oil seed, the process comprising: (i) grinding the starch containing grain to produce a ground starch containing grain; (ii) slurrying the ground starch containing grain with water to prepare a slurry comprising starch and glucans; (iii) solubilizing starch and glucans comprising the slurry with enzymes to provide a solubilized slurry, wherein solubilizing starch and glucans with enzymes produces glucose; (iv) adding a fermentation organism to the solubilized slurry, wherein the fermentation organism is a member selected from the group consisting of Rhizopus oryzae, Rhizopus microsporus, and yeast; (v) fermenting the solubilized slurry comprising the fermentation organism until fermentation is complete, thereby producing a fermented slurry; (vi) separating the fermented slurry into solid and liquid fractions; (vii) recovering the solid and liquid fractions; (viii) drying the recovered solid fraction at a temperature below that which would denature or damage proteins; thereby producing a protein concentrate. (i) grinding the starch containing grain to produce a ground starch containing grain; (ii) slurrying the ground starch containing grain with water to prepare a slurry comprising starch and glucans; (iii) solubilizing starch and glucans comprising the slurry with enzymes to provide a solubilized slurry, wherein solubilizing starch and glucans with enzymes produces glucose; (iv) adding a fermentation organism to the solubilized slurry, wherein the fermentation organism is a member selected from the group consisting of Rhizopus oryzae, Rhizopus microsporus, and yeast; (v) fermenting the solubilized slurry comprising the fermentation organism until fermentation is complete, thereby producing a fermented slurry; (vi) separating the fermented slurry into solid and liquid fractions; (vii) recovering the solid and liquid fractions; (viii) drying the recovered solid fraction at a temperature below that which would denature or damage proteins;
A fin, comprising: straight segments; and substantially-circular arc segments connected with the straight segments in turn along a longitudinal direction such that the substantially-circular arc segments form wave crests and wave troughs of the fin respectively, wherein the fin is divided in a lateral direction into a first end portion, a second end portion, and an intermediate portion between the first and second end portions (112, 114), characterised in that in the first end portion sections corresponding to each of the substantially-circular arc segments at least forming the wave troughs are separated from the substantially-circular arc segments of a corresponding intermediate portion via longitudinal slots, and wherein a top of each section in the first end portion corresponding to the top of each of the substantially-circular are segments is formed with a lateral slot along the lateral direction such that each of the sections in the first end portion is divided into a first straight portion and a second straight portion separated from each other. straight segments; and substantially-circular arc segments connected with the straight segments in turn along a longitudinal direction such that the substantially-circular arc segments form wave crests and wave troughs of the fin respectively, wherein the fin is divided in a lateral direction into a first end portion, a second end portion, and an intermediate portion between the first and second end portions (112, 114), characterised in that in the first end portion sections corresponding to each of the substantially-circular arc segments at least forming the wave troughs are separated from the substantially-circular arc segments of a corresponding intermediate portion via longitudinal slots, and wherein a top of each section in the first end portion corresponding to the top of each of the substantially-circular are segments is formed with a lateral slot along the lateral direction such that each of the sections in the first end portion is divided into a first straight portion and a second straight portion separated from each other.