mhurhangee/ep-ind-claims huggingface dataset:
Pane, comprising: - at least one first pane (1.1) with an outer face and an inner face, - at least one transparent, electrically conductive coating, which is arranged on the outer face and/or the inner face of the first pane (1.1), and - at least two busbars (20.1, 20.2), which are provided for connecting to a voltage source and which are connected to the transparent, electrically conductive coating such that a current path for a heating current is formed between the busbars (20.1, 20.2), wherein - the transparent, electrically conductive coating has at least three regions (8.1,8.0,8.1') with de-coated structures, - the regions (8.1,8.0,8.1') are arranged adjacent one another and along the current path, - each region (8.1,8.0,8.1') has at least two rows of de-coated structures, and - the de-coated structure has the form of a full-surface de-coated rectangle or of a de-coated rectangular frame with a length a and a width w, wherein the length a is greater than the width w and a maximum angle γ between the longitudinal direction of the de-coated structure and the direction of the current path is, on average, less than or equal to 30°, characterized in that - the ratio of length a to width w is greater than 5:1, - the proportion of the de-coated area to the total area in the central region (8.0) of the pane is less than the proportion of the de-coated area to the total area in the upper region (8.1) of the pane and/or the lower region (8.1') of the pane. - at least one first pane (1.1) with an outer face and an inner face, - at least one transparent, electrically conductive coating, which is arranged on the outer face and/or the inner face of the first pane (1.1), and - at least two busbars (20.1, 20.2), which are provided for connecting to a voltage source and which are connected to the transparent, electrically conductive coating such that a current path for a heating current is formed between the busbars (20.1, 20.2), - the transparent, electrically conductive coating has at least three regions (8.1,8.0,8.1') with de-coated structures, - the regions (8.1,8.0,8.1') are arranged adjacent one another and along the current path, - each region (8.1,8.0,8.1') has at least two rows of de-coated structures, and - the de-coated structure has the form of a full-surface de-coated rectangle or of a de-coated rectangular frame with a length a and a width w, wherein the length a is greater than the width w and a maximum angle γ between the longitudinal direction of the de-coated structure and the direction of the current path is, on average, less than or equal to 30°, - the ratio of length a to width w is greater than 5:1, - the proportion of the de-coated area to the total area in the central region (8.0) of the pane is less than the proportion of the de-coated area to the total area in the upper region (8.1) of the pane and/or the lower region (8.1') of the pane.
External casing of an axial turbomachine, notably of an axial turbomachine compressor (4; 6), the casing comprising: - a circular wall comprising an internal annular groove; - an external sealing shroud arranged at least partially in the groove and intended to provide sealing between the external casing and an annular row of rotor blades of the turbomachine, - connecting elements connecting the external shroud to the wall, the connecting elements being piezoelectric actuators configured to move and/or deform the shroud so as to alter the clearance between the shroud and the rotor blades; characterized in that the piezoelectric actuators are arranged in two annular rows. - a circular wall comprising an internal annular groove; - an external sealing shroud arranged at least partially in the groove and intended to provide sealing between the external casing and an annular row of rotor blades of the turbomachine, - connecting elements connecting the external shroud to the wall, the connecting elements being piezoelectric actuators configured to move and/or deform the shroud so as to alter the clearance between the shroud and the rotor blades; characterized in that the piezoelectric actuators are arranged in two annular rows.
A casing brake assembly for applying a frictional force to a tubular or bag-shaped packaging casing being arranged on a filling tube of an apparatus for filling and closing said tubular or bag-shaped packaging casing, like a clipping machine, for limiting the movement of said tubular or bag-shaped packaging casing at least while being filled, wherein the filling tube has a longitudinal axis; wherein the casing brake assembly (100, 200; 300; 400; 500; 600; 700) comprises at least one braking body which is reversibly movable between a release position, in which the braking body is at least partially moved away from the filling tube, and a brake position in which the braking body at least approximately completely surrounds the filling tube, characterized in that the braking body comprises at least two free ends (130a, 130b; 230a, 230b, 240a, 240b; 330a, 330b, 340a, 340b; 430a, 430b, 440a, 440b; 530a, 530b, 540a, 540b; 730a, 730b, 740a, 740b); and in that the casing brake assembly (100; 200) further comprises at least two support elements (110, 120; 210, 220; 310, 320; 410, 420; 510, 520; 610, 620; 710, 720) for supporting and reversibly moving the at least one braking body between the release position and the brake position in a plane at least approximately vertically to the longitudinal axis of the filling tube.
A decoding method, comprising: a driving sound source vector generating step of obtaining a driving sound source vector from an input code; a linear prediction coefficient decoding step of decoding linear prediction coefficient code, and obtaining a synthesis filtering coefficient which is a quantized linear prediction coefficient; a synthesis filtering step of performing synthesis filtering processing on the driving sound source vector using the synthesis filter coefficient as a filter coefficient to generate a decoded speech signal; a noise generating step (SS2161C) of generating a noise signal that is a random signal; a noise adding step of outputting a noise-added signal, the noise-added signal being obtained by summing said decoded speech signal and a signal, the signal obtained by performing, on said noise signal, a signal processing that is based on the synthesis filter coefficient, characterized in that the signal processing based on the synthesis filter coefficient is a filtering processing with a filter A^(Z/γ n), the filter A^(Z/γ n) is the filter which is obtained by weighting the synthesis filter A^(z) by γ n, the synthesis filter A^(z) has the synthesis filter coefficient as the filter coefficient; and γ n is a parameter for bringing the shape of the filter A^(Z/γ n) closer from the filter A^(z) to the general shape of the noise. a driving sound source vector generating step of obtaining a driving sound source vector from an input code; a linear prediction coefficient decoding step of decoding linear prediction coefficient code, and obtaining a synthesis filtering coefficient which is a quantized linear prediction coefficient; a synthesis filtering step of performing synthesis filtering processing on the driving sound source vector using the synthesis filter coefficient as a filter coefficient to generate a decoded speech signal; a noise generating step (SS2161C) of generating a noise signal that is a random signal; a noise adding step of outputting a noise-added signal, the noise-added signal being obtained by summing said decoded speech signal and a signal, the signal obtained by performing, on said noise signal, a signal processing that is based on the synthesis filter coefficient, characterized in that the signal processing based on the synthesis filter coefficient is a filtering processing with a filter A^(Z/γ n), the filter A^(Z/γ n) is the filter which is obtained by weighting the synthesis filter A^(z) by γ n, the synthesis filter A^(z) has the synthesis filter coefficient as the filter coefficient; and γ n is a parameter for bringing the shape of the filter A^(Z/γ n) closer from the filter A^(z) to the general shape of the noise.
Apparatus for performing an open wedge, high tibial osteotomy, the apparatus comprising: a cutting_apparatus for forming an osteotomy cut in the tibia,_the osteotomy cut being formed in the tibia with a distal keyhole and a proximal keyhole formed below and above, respectively, the osteotomy cut,_the cutting apparatus comprising: a targeting-apparatus for identifying a cutting plane through the tibia and a boundary line for terminating a cut made along the cutting plane, wherein the boundary line is located within the tibia, parallel to the anterior-posterior slope of the tibia and parallel to the sagittal plane of the patient; characterized in that it further comprises a keyhole drill guide comprising a proximal hole and a distal hole, wherein each of the proximal and distal hole (435, 425) overlap the cutting plane to some extent so that when the osteotomy cut is thereafter formed and the tibia subsequently opened so as to create an wedge-like opening, the distal keyhole and the proximal keyhole overlap and communicate with the wedge-like opening. a cutting_apparatus for forming an osteotomy cut in the tibia,_the osteotomy cut being formed in the tibia with a distal keyhole and a proximal keyhole formed below and above, respectively, the osteotomy cut,_the cutting apparatus comprising: a targeting-apparatus for identifying a cutting plane through the tibia and a boundary line for terminating a cut made along the cutting plane, wherein the boundary line is located within the tibia, parallel to the anterior-posterior slope of the tibia and parallel to the sagittal plane of the patient; characterized in that it further comprises a keyhole drill guide comprising a proximal hole and a distal hole, wherein each of the proximal and distal hole (435, 425) overlap the cutting plane to some extent so that when the osteotomy cut is thereafter formed and the tibia subsequently opened so as to create an wedge-like opening, the distal keyhole and the proximal keyhole overlap and communicate with the wedge-like opening. a targeting-apparatus for identifying a cutting plane through the tibia and a boundary line for terminating a cut made along the cutting plane, wherein the boundary line is located within the tibia, parallel to the anterior-posterior slope of the tibia and parallel to the sagittal plane of the patient; characterized in that it further comprises a keyhole drill guide comprising a proximal hole and a distal hole, wherein each of the proximal and distal hole (435, 425) overlap the cutting plane to some extent so that when the osteotomy cut is thereafter formed and the tibia subsequently opened so as to create an wedge-like opening, the distal keyhole and the proximal keyhole overlap and communicate with the wedge-like opening.
Anchorage for fitting on a roof, comprising an anchoring plate for fixing on said roof and a pin which projects from said anchoring plate and is provided with an anchoring member on the free end projecting from the root, whereby said pin is movable relative to said anchoring plate (10,) between a first position in which said anchoring member is situated near said anchoring plate and a second position in which said anchoring member is distant from said anchoring plate, said anchoring member in said distant position being firmly connected to said anchoring plate, wherein the anchorage further comprises an additional anchoring plate (17,) coupled to the anchoring plate and positioned to a side of said anchoring plate opposite to a side of said anchoring plate facing the anchoring member, wherein the anchoring plate is provided with a bush extending from said plate and the additional anchoring plate has an opening for said bush, characterized in that said bush is provided with a threaded socket and said pin is provided with a corresponding external screw thread.
A method of processing content in a client computing system, content including one or more simultaneous protected content streams with distinct security properties and keying material, comprising: establishing a hardware-based root of trust between the client computing system and a service provider server; obtaining, by the client computing system, encrypted content and a key blob having an encrypted title key associated with the encrypted content from the service provider server, said key blob being bound to the client computing system; controlling content processing on the client computing system by a security processor of the client computing system; decrypting, by the security processor, the encrypted title key and re-encrypting the title key based on a storage key burned into fuses of a platform control hub of the client computing system, in order to form a key blob; passing the encrypted title key associated with the encrypted content from the security processor to a graphics engine over a protected chip to chip data interface; passing encrypted content to the graphics engine over a protected audio/video path at the full system memory bandwidth without compromising performance or security; decrypting, decoding, and decompressing the encrypted content using the encrypted title key received from the security processor, and composing display image data, within the graphics engine; re-encrypting the display image data within the graphics engine; and passing the encrypted display image data to a display over a protected display interface. establishing a hardware-based root of trust between the client computing system and a service provider server; obtaining, by the client computing system, encrypted content and a key blob having an encrypted title key associated with the encrypted content from the service provider server, said key blob being bound to the client computing system; controlling content processing on the client computing system by a security processor of the client computing system; decrypting, by the security processor, the encrypted title key and re-encrypting the title key based on a storage key burned into fuses of a platform control hub of the client computing system, in order to form a key blob; passing the encrypted title key associated with the encrypted content from the security processor to a graphics engine over a protected chip to chip data interface; passing encrypted content to the graphics engine over a protected audio/video path at the full system memory bandwidth without compromising performance or security; decrypting, decoding, and decompressing the encrypted content using the encrypted title key received from the security processor, and composing display image data, within the graphics engine; re-encrypting the display image data within the graphics engine; and passing the encrypted display image data to a display over a protected display interface.
Fill level measuring device designed to measure a fill level by measuring a transit time measurement of electromagnetic waves between an electronics unit and a filling material, comprising the electronics unit, which comprises a transmission means and a receiving means for electromagnetic waves having a frequency of less than 3 GHz, a process connection which is connected to the electronics unit, conducts the transmitted signals to the measured portion, and conducts the signals reflected by the filling material back to the electronics unit, and a transformer (17, 18) which is provided in the electronics unit and is connected between the transmission means, the receiving means and the process connection; wherein the transformer is a transformer directional coupler (17, 18) having four windings (18a, 18b, 18c, 18d).
Seal arrangement for a pipe line comprising two pipe burst closing brackets (2, 3; 21, 22) which are mountable on the outside surrounding the pipe line and comprise an outer solid body as well as elastic seal bodies (9, 25) arranged therein characterised in that a seal body (9, 25), on the front end, comprises a radially circumferential projection (12, 27) protruding over the solid body in an axial direction wherein the other seal body (9, 25) comprises, on the front end, a radially circumferential recess (14, 29) recessed with respect to the solid body in the axial direction wherein the projection (12, 27) engages in a positive-locking and fluid-tight manner into the recess (14, 29).
A combined continuous casting and endless rolling plant for a metal strip, comprising - a continuous casting line for casting a slab; - a first rolling mill for roughing the slab and for obtaining a transfer bar; - a second rolling mill for finishing the transfer bar and for obtaining a strip; - accumulation means of the strip comprising at least one first high-capacity reel (37, 37'), dimensioned to wind and unwind a coil weighing from 80 to 250 metric tons and/or up to 6 meters in diameter, named mega coil; characterized in that there are provided: - a third rolling mill, comprising at least two first rolling stands, for further reducing the thickness of the strip; said accumulation means of the strip being arranged downstream of said third rolling mill; - cutting means, arranged between said third rolling mill and said accumulation means, configured to cut the strip after the mega coil has been wound on the at least one first reel (37, 37'); - a cutting and winding line, downstream of said accumulation means, for cutting the strip of the mega coil and winding portions of said strip of the mega coil up to a predetermined weight limit or coil diameter limit, producing a plurality of coils; wherein said cutting and winding line is provided with a reversible rolling mill for performing at least one rolling of the strip before producing said plurality of coils. - a continuous casting line for casting a slab; - a first rolling mill for roughing the slab and for obtaining a transfer bar; - a second rolling mill for finishing the transfer bar and for obtaining a strip; - accumulation means of the strip comprising at least one first high-capacity reel (37, 37'), dimensioned to wind and unwind a coil weighing from 80 to 250 metric tons and/or up to 6 meters in diameter, named mega coil; - a third rolling mill, comprising at least two first rolling stands, for further reducing the thickness of the strip; said accumulation means of the strip being arranged downstream of said third rolling mill; - cutting means, arranged between said third rolling mill and said accumulation means, configured to cut the strip after the mega coil has been wound on the at least one first reel (37, 37'); - a cutting and winding line, downstream of said accumulation means, for cutting the strip of the mega coil and winding portions of said strip of the mega coil up to a predetermined weight limit or coil diameter limit, producing a plurality of coils;
A folate-imaging agent conjugate for use in a method for selecting a patient for therapy with an anti-inflammatory drug, the use comprising the step of administering to the patient a folate-imaging agent conjugate, and using said the folate-imaging agent conjugate to predict the response of the patient to the anti-inflammatory drug, and wherein the patient's inflammatory disease is selected from the group consisting of arthritis, osteoarthritis, rheumatoid arthritis, atherosclerosis, psoriasis, ischemia/reperfusion injury, pulmonary fibrosis, organ transplant rejection, ulcerative colitis, impact trauma, osteomyelitis, multiple sclerosis, scleroderma, Crohn's disease, Sjögren's syndrome, glomerulonephritis, systemic sclerosis, sarcoidosis, and an inflammatory lesion.
Use of an active compound combination comprising Prothioconazole and Fluxapyroxad and optionally an additional third fungicidally active compound as active ingredients for controlling soya bean diseases caused by Acremonium, Alternaria spp., Arkoola nigra, Athelia rolfsii, Calonectria crotalariae, Cephalosporium gregatum, Cercospora kikuchii, Cercospora sojina, Chalara elegans, Choanephora infundibulifera, Choanephora trispora, Colletotrichum dematiumtruncatum, Colletotrichum destructivum, Colletotrichum truncatum, Corynespara cassiicola, Cylindrocladium crotalariae, Dactuliochaeta glycines, Dactuliophora glycines, Diaporthe phaseolorum, Diaporthe phaseolorum var. caulivora, Diaporthe phaseolorum var. sojae, Drechslera glycines, Fusarium solani, Fusarium spp., Glomerella glycines, Leptosphaerulina trifolii, Macroplaamina phaseolina, Microsphaera diffusa, Mycoleptodiscus terrestris, Mycosphaerella usaenskajae, Neocosmospora vasinfecta, Peronospora manshurica, Phakopsora pachyrhizi, Phialophora gregata, Phomopsis phaseoli, Phomapsis sojae, Phomopsis spp., Phyllostictasojicola, Phymatotrichopsis omnivora, Phymatotrichum omnivorum, Phytophthora sojae, Pleospora tarda, Pyrenochaeta glycines, Pythium aphanidermatum, Pythium debaryanum, Pythium irregulare, Pythium myriotylum, Pythium ultimum, Rhizoctonia solani, Sclerotinia sclerotiorum, Sclerotium rolfsii, Septoria glycines, Spaceloma glycines, Stemphylium batryosum, Thanatephorus cucumeris, Thielaviopsis basicola.
An image processing method; comprising: a density unevenness measurement test image formation step of forming a density unevenness measurement test image using image data to which unevenness correction processing using a preset unevenness correction value is applied to correct density unevenness due to ink amount distribution in a recording element array direction of a recording head including multiple recording elements; a density measurement value acquisition step of acquiring a pre-conversion density measurement value that is a density measurement value of each density setting value for every recording element in the density unevenness measurement test image before processing after image formation using the recording head; a density measurement value conversion step of converting the acquired pre-conversion density measurement value into a post-conversion density measurement value corresponding to a density measurement value after the processing, using a density measurement value conversion value which is derived beforehand and indicates a conversion relationship of density measurement values before and after the processing for every density setting value and to which the preset unevenness correction value is applied as the density setting value; and an unevenness correction value derivation step of deriving a new unevenness correction value using the post-conversion density measurement value. a density unevenness measurement test image formation step of forming a density unevenness measurement test image using image data to which unevenness correction processing using a preset unevenness correction value is applied to correct density unevenness due to ink amount distribution in a recording element array direction of a recording head including multiple recording elements; a density measurement value acquisition step of acquiring a pre-conversion density measurement value that is a density measurement value of each density setting value for every recording element in the density unevenness measurement test image before processing after image formation using the recording head; a density measurement value conversion step of converting the acquired pre-conversion density measurement value into a post-conversion density measurement value corresponding to a density measurement value after the processing, using a density measurement value conversion value which is derived beforehand and indicates a conversion relationship of density measurement values before and after the processing for every density setting value and to which the preset unevenness correction value is applied as the density setting value; and an unevenness correction value derivation step of deriving a new unevenness correction value using the post-conversion density measurement value.