mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a gas turbine, comprising a compressor, a turbine and a combustor with a pilot burner group, a rich premix burner group and a lean premix burner group, under changing composition of the incoming fuel gas, said method comprising the steps of: • Continuously measuring in real time the composition of the fuel gas; and • controlling the operation of said gas turbine and the combustion of said burners (15a-c) by using said real time fuel gas composition measurements; wherein said composition-dependent combustion control is combined with a pulsation dependent combustion control, characterized in that a closed loop control, based on combustor pulsation measurement is combined with an open loop control, based on the actual fuel gas composition, and that a fuel gas mixing device for mixing different kinds of fuel gases is arranged upstream of the combustor. • Continuously measuring in real time the composition of the fuel gas; and • controlling the operation of said gas turbine and the combustion of said burners (15a-c) by using said real time fuel gas composition measurements; wherein said composition-dependent combustion control is combined with a pulsation dependent combustion control,
Use of at least one compound of the formula (CmF 2m+1) n BiX 3-n, where m in each case, independently of one another, denotes 2, 3 or 4; n denotes 1, 2 or 3 and X denotes F, Cl, Br or OSO 2 CF 3, as Lewis acid catalyst. m in each case, independently of one another, denotes 2, 3 or 4; n denotes 1, 2 or 3 and X denotes F, Cl, Br or OSO 2 CF 3,
A method of touchless counting of substantially planar substrates, especially banknotes, which are stacked in the form of stacks of substrates, said method comprising the following steps: - taking at least one sample image of a portion of a side (01 A) of a stack of substrates, which sample image contains contrast information representing substrate edges that extend along substantially a first direction in the sample image; - processing the contrast information representing the substrate edges within the sample image, which processing includes subjecting at least one area of interest within the sample image to anisotropic diffusion to produce a processed image containing a substantially coherent set of continuous lines representing the substrate edges; and - counting the number of substrate edges in said processed image. - taking at least one sample image of a portion of a side (01 A) of a stack of substrates, which sample image contains contrast information representing substrate edges that extend along substantially a first direction in the sample image; - processing the contrast information representing the substrate edges within the sample image, which processing includes subjecting at least one area of interest within the sample image to anisotropic diffusion to produce a processed image containing a substantially coherent set of continuous lines representing the substrate edges; and - counting the number of substrate edges in said processed image.
A machining robot for machining workpieces with two main rotatory axes (11, 12) parallel to each other and with at least two rotatory secondary axes (13, 14), wherein a foot lever mounted in a first main axis of these main axes (11, 12) and a knee lever mounted on the free end of the foot lever in the second of the mentioned main axes form a kinematic chain, wherein a first minor axis of the mentioned minor axes (13, 14) is orientated in a longitudinal direction of the knee lever and wherein a second of the mentioned minor axes (13, 14) supports a machining unit in the knee lever, wherein - the first main axle is mounted in the base frame, - the machining unit is a multifunctional unit with at least two working sides (72, 91, 93) penetrated by the second secondary axis, - one working side is a multifunction side, and the other working side is a main spindle side, - the multifunctional unit comprises at least two chip-forming tools (73 - 75, 78, 81 - 85) that can be rotatably driven individually, in groups as well as together, - each of these tools (73 - 75, 78, 81 - 85) can be raised and lowered relative to the multifunction side by means of a tool lifting device (76; 86) that accommodates this tool (73 - 75, 78, 81 - 85), - the main spindle side comprises an driven main-spindle holder and is designed with or without torque support and - at least the first main axis, the second main axis and the second secondary axis are regulated in a common control circuit, so that each working side (72, 91, 93) can be moved relative to a working plane while maintaining the same angle of attack between that working side (72, 91, 93) and the working plane. - the first main axle is mounted in the base frame, - the machining unit is a multifunctional unit with at least two working sides (72, 91, 93) penetrated by the second secondary axis, - one working side is a multifunction side, and the other working side is a main spindle side, - the multifunctional unit comprises at least two chip-forming tools (73 - 75, 78, 81 - 85) that can be rotatably driven individually, in groups as well as together, - each of these tools (73 - 75, 78, 81 - 85) can be raised and lowered relative to the multifunction side by means of a tool lifting device (76; 86) that accommodates this tool (73 - 75, 78, 81 - 85), - the main spindle side comprises an driven main-spindle holder and is designed with or without torque support and - at least the first main axis, the second main axis and the second secondary axis are regulated in a common control circuit, so that each working side (72, 91, 93) can be moved relative to a working plane while maintaining the same angle of attack between that working side (72, 91, 93) and the working plane.
Apparatus for heat treatment, comprising a process space that is surrounded by a furnace lining made of quartz glass, a heating facility, and a reflector, characterised in that the furnace lining comprises multiple wall elements that have a side facing the process space and a side facing away from the process space, and in that at least one of the wall elements comprises multiple quartz glass tubes that are connected to each other by means of an SiO 2 -containing connecting mass.
A loading method, which is applied to an Advanced RISC Machine compiler system, characterized by comprising: loading a relocatable program according to an order of input segments in an ARM image file; and compiling a link of the loaded relocatable program to generate an executable file, so as to realize loading of the relocatable program; wherein, the step of loading a relocatable program according to an order of input segments in an ARM image file comprises: comparing an order of the input segments during the relocatable program being loaded into a memory with the order of the input segments in the ARM image file to determine whether they are the same; and if they are the same, directly loading loadable sections in the relocatable program into the memory; otherwise, loading the loadable sections in the relocatable program into the memory according to the order of the input segments in the ARM image file. loading a relocatable program according to an order of input segments in an ARM image file; and compiling a link of the loaded relocatable program to generate an executable file, comparing an order of the input segments during the relocatable program being loaded into a memory with the order of the input segments in the ARM image file to determine whether they are the same; and if they are the same, directly loading loadable sections in the relocatable program into the memory; otherwise, loading the loadable sections in the relocatable program into the memory according to the order of the input segments in the ARM image file.
A method of processing a blurred barcode image comprising multiple pixels, said method comprising the steps of: a) providing an image representation of said blurred barcode image comprising multiple grayscale values associated with different pixel positions of said blurred barcode image; b) providing a kernel having a kernel length; c) deconvoluting said image representation based on said kernel to get a deconvoluted representation of said blurred barcode image; d) calculating a barcode similarity measure for said deconvoluted representation, whereby said barcode similarity measure is indicative of how close a distribution of said grayscale values of said deconvoluted representation is to an optimal distribution of grayscale values for a barcode image, in which said grayscale values for said barcode image are distributed among a first value set and a second value set where said first value set and said second value set have minimum variance and an average grayscale value of said first value set has maximally large distance to an average grayscale value of said second value set; e) repeating said steps b) to d) for multiple different kernels; f) selecting a kernel, among said multiple different kernels, resulting in the deconvoluted representation that is closest to a barcode image as determined based on said barcode similarity measures. a) providing an image representation of said blurred barcode image comprising multiple grayscale values associated with different pixel positions of said blurred barcode image; b) providing a kernel having a kernel length; c) deconvoluting said image representation based on said kernel to get a deconvoluted representation of said blurred barcode image; d) calculating a barcode similarity measure for said deconvoluted representation, whereby said barcode similarity measure is indicative of how close a distribution of said grayscale values of said deconvoluted representation is to an optimal distribution of grayscale values for a barcode image, in which said grayscale values for said barcode image are distributed among a first value set and a second value set where said first value set and said second value set have minimum variance and an average grayscale value of said first value set has maximally large distance to an average grayscale value of said second value set; e) repeating said steps b) to d) for multiple different kernels; f) selecting a kernel, among said multiple different kernels, resulting in the deconvoluted representation that is closest to a barcode image as determined based on said barcode similarity measures.
A method performed by a Radio Access Network for providing local switching for call legs of a call, comprising the steps of: • Receiving a call identifier for a leg of a call from a Core Network to be handled by the Radio Access Network, wherein the call identifier is a globally unique identifier for the call; • Storing said received call identifier; • Comparing said received call identifier with stored call identifiers for call legs of calls via said Radio Access Network; • If said received call identifier matches a stored call identifier establish local switching between call legs identified by the matching call identifier.. • Receiving a call identifier for a leg of a call from a Core Network to be handled by the Radio Access Network, wherein the call identifier is a globally unique identifier for the call; • Storing said received call identifier; • Comparing said received call identifier with stored call identifiers for call legs of calls via said Radio Access Network; • If said received call identifier matches a stored call identifier establish local switching between call legs identified by the matching call identifier..
A method for handling wireless links in a wireless backhaul network, the method being performed by a network node, the method comprising performing a redirection routine comprising the steps of: acquiring load information from an end-user access network and from a wireless backhaul network, said wireless backhaul network providing backhaul to said end-user access network according to a current network topology, said current network topology associating client nodes (17a, 17b, 17c, 17d) in the wireless backhaul network to hub node sectors (18a, 18b,.., 18h) of hub nodes (16a, 16b) in the wireless backhaul network; associating the current network topology with a current performance value as a function of the acquired load information; providing an estimated performance value for a new network topology according to which at least one wireless link (19a, 19b, 19c, 19d) for a client node has been redirected from a current hub node sector to a new hub node sector; and redirecting said at least one wireless link according to said new network topology in a case said estimated performance value is higher than said current performance value. acquiring load information from an end-user access network and from a wireless backhaul network, said wireless backhaul network providing backhaul to said end-user access network according to a current network topology, said current network topology associating client nodes (17a, 17b, 17c, 17d) in the wireless backhaul network to hub node sectors (18a, 18b,.., 18h) of hub nodes (16a, 16b) in the wireless backhaul network; associating the current network topology with a current performance value as a function of the acquired load information; providing an estimated performance value for a new network topology according to which at least one wireless link (19a, 19b, 19c, 19d) for a client node has been redirected from a current hub node sector to a new hub node sector; and redirecting said at least one wireless link according to said new network topology in a case said estimated performance value is higher than said current performance value.
Method for the recovery of spent refractory material in steel plants, comprising the following steps: a) receiving the refractory material coming from the demolition of refractory material linings in the containers used in steel making, treatment and manufacturing processes, which refractory material includes basic refractory parts comprising magnesic or dolomite material, b) sieving (2, 21) and separating the refractory material, c) collecting the refractory material, characterized in that step b) provides the following sub-steps: b1) first sieving of the material into at least two fractions on the basis of a first specific threshold size value, such to identify a fine fraction and a coarse fraction, b2) magnetic separation of the fine fraction, b3) magnetic separation of the coarse fraction, b4) second sieving of the fine fraction into three sub-fractions (A, B, C) on the basis of two second specific threshold size values, there being provided a step b5), following step b4), related to identifying the two sub-fractions (B, C) with greater size, a step b6) being provided related to a nonmagnetic separation of the sub-fractions with greater size (B, C), intended to separate nonmagnetic metal parts with respect to fine parts, step b3) providing to separate the coarse fraction in at least one magnetic metal part, at least one nonmagnetic metal part and at least one refractory part, said coarse fraction being at least partially divided into small granules, the fine parts being used for the production of granulate materials. a) receiving the refractory material coming from the demolition of refractory material linings in the containers used in steel making, treatment and manufacturing processes, which refractory material includes basic refractory parts comprising magnesic or dolomite material, b) sieving (2, 21) and separating the refractory material, c) collecting the refractory material, b1) first sieving of the material into at least two fractions on the basis of a first specific threshold size value, such to identify a fine fraction and a coarse fraction, b2) magnetic separation of the fine fraction, b3) magnetic separation of the coarse fraction, b4) second sieving of the fine fraction into three sub-fractions (A, B, C) on the basis of two second specific threshold size values, there being provided a step b5), following step b4), related to identifying the two sub-fractions (B, C) with greater size, a step b6) being provided related to a nonmagnetic separation of the sub-fractions with greater size (B, C), intended to separate nonmagnetic metal parts with respect to fine parts, step b3) providing to separate the coarse fraction in at least one magnetic metal part, at least one nonmagnetic metal part and at least one refractory part, said coarse fraction being at least partially divided into small granules, the fine parts being used for the production of granulate materials.
Door handle for assembly, in particular horizontal assembly, on a furniture door, in particular a refrigeration furniture door, with a longitudinally extended handle centre piece, which is produced from a hollow extruded profile, and with two handle end pieces (3, 4), which are fixed to the handle centre piece by inserting a plug element into a recess of the handle centre piece, wherein the handle end pieces (3, 4) are attached to the handle centre piece so as to extend it in its longitudinal direction and wherein the recess has a circumferential wall passing through its entire length, wherein one of the handle end pieces is embodied at an angle and is provided with a flat area running essentially perpendicularly to the handle centre piece, which flat area serves as a contact area when fastening the door handle to a side surface of the furniture door, wherein the flat area has a through hole.
A method for noise rise estimation in a wireless communication system, said method comprising the steps of: measuring received total wideband power a plurality of times; computing an estimate of a noise floor measure based on at least a number of said measured received total wideband powers; performing an interference whitening based on one of GRAKE, GRAKE+ and chip equalizer for a first user; determining a useful signal power for said first user after interference whitening; deriving a first user noise floor compensation factor based on combining weights for said first user used in said interference whitening; obtaining a code power to interference ratio measure for said first user; and calculating a noise rise measure for said first user, based at least on said useful signal power for said first user after interference whitening, said first user noise floor compensation factor, said code power to interference ratio measure for said first user and said noise floor measure. measuring received total wideband power a plurality of times; computing an estimate of a noise floor measure based on at least a number of said measured received total wideband powers; performing an interference whitening based on one of GRAKE, GRAKE+ and chip equalizer for a first user; determining a useful signal power for said first user after interference whitening; deriving a first user noise floor compensation factor based on combining weights for said first user used in said interference whitening; obtaining a code power to interference ratio measure for said first user; and calculating a noise rise measure for said first user, based at least on said useful signal power for said first user after interference whitening, said first user noise floor compensation factor, said code power to interference ratio measure for said first user and said noise floor measure.
Pipe element which has a metal pipe and at least one metal connector which is fastened at one end of the metal pipe in such a way that torques and axial forces can be transmitted between the metal pipe and metal connector wherein the metal connector has an in particular conical thread or a flange by means of which thread or flange the metal connector can be screwed to another metal connector of an additional pipe element in order to connect two pipe elements, characterized in that the metal connector is screwed to an inner sleeve by means of a cylindrical thread (7, 9) in such a way that the metal pipe is clamped in planar manner between a metal connector on the outside and the inner sleeve on the inside in a connection region (1.1) which is designed to taper conically towards the pipe end.
An electroluminescent device based on an Organic Light-Emitting Diode which comprises a substrate and a sandwich that adjoins the substrate, said sandwich consisting of at least a first electrode, an electroluminescent layer, a second electrode and a layer comprising conductive particles, wherein the particle diameter of the conductive particles is at most twice the layer thickness of the adjoining layer and the conductive particles have a particle diameter between 10 and 400 nm such that the total reflection of the emitted light at the interface with the adjoining layer is disrupted and more light is decoupled from the electroluminescent device, wherein the layer is arranged between the first electrode and the second electrode, and wherein the layer adjoins the first electrode or the second electrode.
A radiation unit, comprising: two groups of dipoles the polarizations of which are orthogonal, each group of the dipoles comprises two radiation arms which are disposed to be spaced apart relative to each other, and each of the radiation arms is provided with a first extension branch and a second extension branch which are disposed to be spaced apart from each other; wherein the surface area of the first extension branch is greater than the surface area of the second extension branch; wherein an outer sidewall of each of the radiation arms is provided with a cut-off corner; wherein each of the radiation arms is provided with a first hollowed groove, each of one end of the first extension branch and one end of the second extension branch is connected with the outer sidewall of each of the radiation arms, a first spacer groove in communication with the first hollowed groove is provided between the first extension branch and the second extension branch, and each of the first extension branch and the second extension branch is disposed towards the inside of the first hollowed groove; wherein a second spacer groove and a current-conducting part for connecting two adjacent radiation arms are provided between the two adjacent radiation arms, and each of the two adjacent radiation arms is provided with a second hollowed groove in communication with the second spacer groove. two groups of dipoles the polarizations of which are orthogonal, each group of the dipoles comprises two radiation arms which are disposed to be spaced apart relative to each other, and each of the radiation arms is provided with a first extension branch and a second extension branch which are disposed to be spaced apart from each other; wherein the surface area of the first extension branch is greater than the surface area of the second extension branch; wherein an outer sidewall of each of the radiation arms is provided with a cut-off corner; wherein each of the radiation arms is provided with a first hollowed groove, each of one end of the first extension branch and one end of the second extension branch is connected with the outer sidewall of each of the radiation arms, a first spacer groove in communication with the first hollowed groove is provided between the first extension branch and the second extension branch, and each of the first extension branch and the second extension branch is disposed towards the inside of the first hollowed groove; wherein a second spacer groove and a current-conducting part for connecting two adjacent radiation arms are provided between the two adjacent radiation arms, and each of the two adjacent radiation arms is provided with a second hollowed groove in communication with the second spacer groove.