mhurhangee/ep-ind-claims huggingface dataset:
An image decoding method performed by a decoding apparatus, the method comprising: receiving a bitstream comprising residual information; deriving transform coefficients for a current block using the residual information, the current block having a first width (w) and a first height (h); deriving residual samples for the current block using the transform coefficients; and generating a reconstructed picture using the residual samples, wherein the residual information comprises last significant coefficient position information, and wherein the deriving of the transform coefficients comprises: deriving a top-left region within the current block, the top-left region having a second width and a second height; deriving a value of the last significant coefficient position information using a context increment; and deriving a last significant coefficient position using the value of the last significant coefficient position information, characterized by deriving the context increment using the first width and the first height, wherein the last significant coefficient position information is derived within maximum values set using the second width and the second height. receiving a bitstream comprising residual information; deriving transform coefficients for a current block using the residual information, the current block having a first width (w) and a first height (h); deriving residual samples for the current block using the transform coefficients; and generating a reconstructed picture using the residual samples, wherein the residual information comprises last significant coefficient position information, and wherein the deriving of the transform coefficients comprises: deriving a top-left region within the current block, the top-left region having a second width and a second height; deriving a value of the last significant coefficient position information using a context increment; and deriving a last significant coefficient position using the value of the last significant coefficient position information, deriving a top-left region within the current block, the top-left region having a second width and a second height; deriving a value of the last significant coefficient position information using a context increment; and deriving a last significant coefficient position using the value of the last significant coefficient position information, characterized by deriving the context increment using the first width and the first height, wherein the last significant coefficient position information is derived within maximum values set using the second width and the second height.
Centrifugal pendulum having a pendulum flange which rotates about an axis of rotation (d) and having a multiplicity of pendulum masses (3, 4) which are pivotable relative to said pendulum flange along an oscillation angle and which are arranged to both sides of the pendulum flange, wherein respectively axially oppositely situated pendulum masses (3, 4) are connected to form a pendulum mass pair by means of spacers which extend through the pendulum flange, and the oscillation angle is set by means of in each case two pivot bearings formed by raceways (15, 16) in the pendulum masses (3, 4) and in the pendulum flange and in each case one rolling body which rolls on said raceways, wherein two pendulum mass pairs are provided which are arranged over the circumference symmetrically with respect to the axis of rotation (d) and which in each case enclose an angle (β) of greater than 120° of the circumference, characterized in that the pendulum flange has an internal toothing for being received rotationally conjointly on a clutch disk, wherein the centrifugal pendulum can be received, axially adjacent to a rotary vibration damper, on a common hub and radially within the friction linings of the clutch disk.
An electronic, optical or optoelectronic device comprising a polymeric semiconductor component, characterized in that the polymeric semiconductor component comprises a polymer having formula: wherein: Ar and Ar' are different optionally substituted 5-8 membered heteroaryl groups; π and π' are different optionally substituted 11-24 membered polycyclic aryl or heteroaryl groups; R 1 is selected from F and Cl; R 3 and R 4 independently are selected from H, F, and Cl; c is 1 or 2; m and m' are 0, 1, or 2; n and n' are 0, 1, or 2 provided that m and m' are 1 and/or n and n' are 1; x and y are real numbers representing mole fractions, wherein 0.05 ≤ x ≤ 0.95, 0.05 ≤ y ≤ 0.95, and the sum of x and y is 1; and wherein the polymer has a molecular weight in the range of 3,000 to 300,000; and wherein optionally the repeating unit comprising x mole fraction of the polymer and the repeating unit comprising y mole fraction of the polymer are repeated in a random manner. Ar and Ar' are different optionally substituted 5-8 membered heteroaryl groups; π and π' are different optionally substituted 11-24 membered polycyclic aryl or heteroaryl groups; R 1 is selected from F and Cl; R 3 and R 4 independently are selected from H, F, and Cl; c is 1 or 2; m and m' are 0, 1, or 2; n and n' are 0, 1, or 2 provided that m and m' are 1 and/or n and n' are 1; x and y are real numbers representing mole fractions, wherein 0.05 ≤ x ≤ 0.95, 0.05 ≤ y ≤ 0.95, and the sum of x and y is 1; and wherein the polymer has a molecular weight in the range of 3,000 to 300,000; and wherein optionally the repeating unit comprising x mole fraction of the polymer and the repeating unit comprising y mole fraction of the polymer are repeated in a random manner.
A method of remanufacturing an imaging cartridge, comprising: providing the imaging cartridge comprising a rotatable member retaining element (118, 120) including an opening (119, 121); the method of remanufacturing the imaging cartridge comprising the steps of: providing a replacement rotatable member (400, 500, 1100, 1300) including an internal retaining member (404, 504, 1104, 1304) inserted and placed into the replacement rotatable member (400, 500, 1100, 1300); placing the replacement rotatable member (400, 500, 1100, 1300) into position to be retained by the rotatable member retaining element (118, 120); inserting an external hub (406, 506, 1106, 1306) into said opening (119, 121) of the rotatable member retaining element (118, 120); and as a last step of the method attaching the external hub (406, 506, 1106, 1306) to the internal retaining member (404, 504, 1104, 1304). providing the imaging cartridge comprising a rotatable member retaining element (118, 120) including an opening (119, 121); the method of remanufacturing the imaging cartridge comprising the steps of: providing a replacement rotatable member (400, 500, 1100, 1300) including an internal retaining member (404, 504, 1104, 1304) inserted and placed into the replacement rotatable member (400, 500, 1100, 1300); placing the replacement rotatable member (400, 500, 1100, 1300) into position to be retained by the rotatable member retaining element (118, 120); inserting an external hub (406, 506, 1106, 1306) into said opening (119, 121) of the rotatable member retaining element (118, 120); and as a last step of the method attaching the external hub (406, 506, 1106, 1306) to the internal retaining member (404, 504, 1104, 1304). providing a replacement rotatable member (400, 500, 1100, 1300) including an internal retaining member (404, 504, 1104, 1304) inserted and placed into the replacement rotatable member (400, 500, 1100, 1300); placing the replacement rotatable member (400, 500, 1100, 1300) into position to be retained by the rotatable member retaining element (118, 120); inserting an external hub (406, 506, 1106, 1306) into said opening (119, 121) of the rotatable member retaining element (118, 120); and as a last step of the method attaching the external hub (406, 506, 1106, 1306) to the internal retaining member (404, 504, 1104, 1304).
A method comprising: receiving, by a connected vehicle (123, 124), configuration data describing a set of different types of candidate vehicle-to-anything, V2X, channels of a V2X radio of the connected vehicle (123, 124); determining configuration selection probabilities describing likelihoods that the different types of candidate V2X channels of the set will be selected based in part on a resource demand as determined by an amount of network traffic generated by controllable vehicles within a geographic region that includes the connected vehicle (123, 124); selecting a V2X channel from the set of different types of candidate V2X channels that does not have the highest likelihood of being selected based on the configuration selection probabilities; and configuring the V2X radio of the connected vehicle (123, 124) to transmit data packets using the selected V2X channel. receiving, by a connected vehicle (123, 124), configuration data describing a set of different types of candidate vehicle-to-anything, V2X, channels of a V2X radio of the connected vehicle (123, 124); determining configuration selection probabilities describing likelihoods that the different types of candidate V2X channels of the set will be selected based in part on a resource demand as determined by an amount of network traffic generated by controllable vehicles within a geographic region that includes the connected vehicle (123, 124); selecting a V2X channel from the set of different types of candidate V2X channels that does not have the highest likelihood of being selected based on the configuration selection probabilities; and configuring the V2X radio of the connected vehicle (123, 124) to transmit data packets using the selected V2X channel.
A tool adapted for insertion into a body of a patient, the tool comprising: a first tube; and a second tube comprising one or more windows in a proximal portion thereof, characterized in that a distal portion of the first tube is positioned within the proximal portion of the second tube such that each of the windows overlays the distal portion of the first tube, and wherein each of the windows is filled with adhesive or solder such that the first tube is secured to the second tube. a first tube; and a second tube comprising one or more windows in a proximal portion thereof, characterized in that a distal portion of the first tube is positioned within the proximal portion of the second tube such that each of the windows overlays the distal portion of the first tube, and wherein each of the windows is filled with adhesive or solder such that the first tube is secured to the second tube. a distal portion of the first tube is positioned within the proximal portion of the second tube such that each of the windows overlays the distal portion of the first tube, and wherein each of the windows is filled with adhesive or solder such that the first tube is secured to the second tube.
A wear monitoring system for a gas turbine engine for measuring incursion depth into an abradable coating, the system comprising: a layer of abradable coating having a depth; a measurement circuit including a plurality of conductive leads disposed within the abradable coating, the conductive leads spaced radially apart within a common radial plane corresponding to the depth of the abradable coating; a plurality of resistor elements (90a-e), each of the plurality of resistor elements (90a-e) in electrical communication with one of the plurality of conductive leads, wherein an electrical characteristic of the measurement circuit varies responsive to cutting of one or more of the plurality of conductive leads by a passing airfoil; characterised in that the system further comprises a radio frequency identification tag (RFID) disposed within the abradable coating and connected to the measurement circuit; and an antenna disposed within the abradable coating and connected to the RFID. a layer of abradable coating having a depth; a measurement circuit including a plurality of conductive leads disposed within the abradable coating, the conductive leads spaced radially apart within a common radial plane corresponding to the depth of the abradable coating; a plurality of resistor elements (90a-e), each of the plurality of resistor elements (90a-e) in electrical communication with one of the plurality of conductive leads, wherein an electrical characteristic of the measurement circuit varies responsive to cutting of one or more of the plurality of conductive leads by a passing airfoil; characterised in that the system further comprises a radio frequency identification tag (RFID) disposed within the abradable coating and connected to the measurement circuit; and an antenna disposed within the abradable coating and connected to the RFID.
A process for producing casting molds, cores and mold base materials regenerated therefrom, comprising the following steps for production of a casting mold or a core: - providing or producing a molding material mixture comprising - a mold base material - a solution or dispersion comprising waterglass - 0.1% to 3% by weight of particulate amorphous silicon dioxide and, to facilitate the breakdown and/or to increase the regeneratability of the casting mold or the core, - one or more particulate sheet silicates in a total amount of 0.05% to 0.4% by weight, where the d 90 of the total amount of the sheet silicates is less than 45 μm, i.e. that 90% of the particulate sheet silicates contained in the molding material mixture are smaller than 45 μm, where the d 90 is determined by means of scanning electron microscope, where the percentages are each based on the total mass of the molding material mixture, - shaping the molding material mixture, - curing the molding material mixture by chemical reaction of constituents of the molding material mixture with one another, so as to result in the casting mold or the core. - providing or producing a molding material mixture comprising - a mold base material - a solution or dispersion comprising waterglass - 0.1% to 3% by weight of particulate amorphous silicon dioxide and, to facilitate the breakdown and/or to increase the regeneratability of the casting mold or the core, - one or more particulate sheet silicates in a total amount of 0.05% to 0.4% by weight, where the d 90 of the total amount of the sheet silicates is less than 45 μm, i.e. that 90% of the particulate sheet silicates contained in the molding material mixture are smaller than 45 μm, where the d 90 is determined by means of scanning electron microscope, where the percentages are each based on the total mass of the molding material mixture, - a mold base material - a solution or dispersion comprising waterglass - 0.1% to 3% by weight of particulate amorphous silicon dioxide and, to facilitate the breakdown and/or to increase the regeneratability of the casting mold or the core, - one or more particulate sheet silicates in a total amount of 0.05% to 0.4% by weight, where the d 90 of the total amount of the sheet silicates is less than 45 μm, i.e. that 90% of the particulate sheet silicates contained in the molding material mixture are smaller than 45 μm, where the d 90 is determined by means of scanning electron microscope, - shaping the molding material mixture, - curing the molding material mixture by chemical reaction of constituents of the molding material mixture with one another, so as to result in the casting mold or the core.
An electric power supply apparatus of an electric motor, the apparatus comprising an AC/DC converter and a DC/AC converter, the AC side of the AC/DC converter being connectable to an electric power transmission network, the DC sides of the converters being interconnected and the alternating current side of the DC/AC converter being controllable to form a desired alternating current, wherein the apparatus comprises a monitoring apparatus configured to monitor the frequency of the alternating current side of the AC/DC converter, a comparison means configured to compare the frequency monitored by the monitoring apparatus with a reference frequency and to provide a comparison value, a compensation means configured to form a compensation control signal as a response to the comparison value of the comparison means and a control signal means configured to form a control signal for the alternating current side of the DC/AC converter from an external setting signal and the compensation control signal, the formed control signal being such a kind that it changes the amount of electric power to be supplied to the electric motor, and therefore being also such a kind that it changes load of the electric power transmission network, the change of the electric power transforming the frequency of the electric power transmission network towards the reference frequency, wherein the control signal means is arranged to subtract the compensation control signal from the external setting signal in order to reduce the input of electric energy to the electric motor, or to add it thereto, in order to increase the input of electric energy to the electric motor.
Installation for treating a material, said installation having: a) a treatment chamber which is equipped with an envelope which separates an atmosphere which is present inside the envelope from an atmosphere which is present outside said envelope, the atmosphere which is present inside the envelope being a controlled atmosphere; b) a housing which delimits the treatment chamber; c) at least one supporting roller, which is arranged at least partly inside the treatment chamber, for conveying the material; d) one or more mounting apparatuses (34, 36; 64, 66) which are arranged outside the housing and by means of which the at least one supporting roller is mounted; characterised in that: e) a flexible compensating element (76, 78) is provided between at least one mounting apparatus (64, 66) and a wall of the housing associated with said mounting apparatus (64, 66); f) a sealing arrangement (93, 95) connected to the compensating element (76, 78) is provided, which separates the at least one mounting apparatus (64, 66) from the atmosphere which is present inside the envelope; g) the compensating element (76, 78) is arranged in a pretensioned manner in such a way that the sealing arrangement (93, 95) is pressed towards the at least one mounting apparatus (64, 66). a) a treatment chamber which is equipped with an envelope which separates an atmosphere which is present inside the envelope from an atmosphere which is present outside said envelope, the atmosphere which is present inside the envelope being a controlled atmosphere; b) a housing which delimits the treatment chamber; c) at least one supporting roller, which is arranged at least partly inside the treatment chamber, for conveying the material; d) one or more mounting apparatuses (34, 36; 64, 66) which are arranged outside the housing and by means of which the at least one supporting roller is mounted; e) a flexible compensating element (76, 78) is provided between at least one mounting apparatus (64, 66) and a wall of the housing associated with said mounting apparatus (64, 66); f) a sealing arrangement (93, 95) connected to the compensating element (76, 78) is provided, which separates the at least one mounting apparatus (64, 66) from the atmosphere which is present inside the envelope; g) the compensating element (76, 78) is arranged in a pretensioned manner in such a way that the sealing arrangement (93, 95) is pressed towards the at least one mounting apparatus (64, 66).
Method of setting an anchor in an anchoring hole in an anchoring substrate, wherein the anchor has an anchor shank with a fixing thread for fixing an add-on part to the anchor, an expander body rigidly arranged on the anchor shank, and an expansion sleeve axially movable on the anchor shank, which expansion sleeve is expansible by the expander body being drawn in by tensile force exerted on the fixing thread, which force is transmitted to the expander body by the anchor shank, the anchor shank together with the expander body being moved axially with respect to the expansion sleeve, wherein the anchor, without a nut screwed onto its fixing thread, is introduced into the anchoring hole with its fixing thread protruding from the anchoring substrate by a determined protruding length, wherein the protruding length is determined on the basis of a thickness of an add-on part in a region surrounding the anchor shank when the add-on part is fixed to the anchoring substrate by means of the anchor, a thickness/es of any further part(s) mounted or to be mounted on the anchor shank, a depth of a blind hole of a cap nut to be screwed onto the fixing thread, and an expansion length for expansion of the expansion sleeve, characterised by a setting tool (16; 20) having a contact surface which, on introduction of the anchor into the anchoring hole in the anchoring substrate, is brought into contact with the anchoring substrate next to the anchoring hole, with an add-on part that is in contact with the anchoring substrate and is to be fixed by means of the anchor, or with any further part(s) mounted on the anchor shank, and having a counter-bearing spaced from the contact surface by a distance that corresponds to the protruding length.
A compound of the formula (la) wherein A represents an aromatic bicyclic ring selected from and being optionally substituted by one or more substituents selected from halo; B represents an aromatic monocyclic ring of 6 ring members, containing optionally nitrogen atoms as ring member; C represents an aromatic monocyclic ring of 6 ring members, containing optionally nitrogen atoms as ring member and optionally substituted by an alkyl-sulfonyl, the radical RR'N-SO 2 -O being in meta or para position; R and R' represent, independently, hydrogen or alkyl; L is a linker selected from -CH 2 -, -NH-, -N(alkyl)- and -N(cycloalkyl-methyl)-; or any pharmaceutically acceptable salt thereof. A represents an aromatic bicyclic ring selected from and being optionally substituted by one or more substituents selected from halo; B represents an aromatic monocyclic ring of 6 ring members, containing optionally nitrogen atoms as ring member; C represents an aromatic monocyclic ring of 6 ring members, containing optionally nitrogen atoms as ring member and optionally substituted by an alkyl-sulfonyl, the radical RR'N-SO 2 -O being in meta or para position; R and R' represent, independently, hydrogen or alkyl; L is a linker selected from -CH 2 -, -NH-, -N(alkyl)- and -N(cycloalkyl-methyl)-; or any pharmaceutically acceptable salt thereof.