mhurhangee/patent-ind-claim-en huggingface dataset:
Method for preparing compound (I) characterized in that the compound of the formula (XIV) or the formula (XIVa) are reacted by addition of dimethyl sulfate to give the compound of the formula (XV) or (XVa) and the non-isolated methyl esters of the formula (XV) or (XVa) are reduced with 1.21 eq of REDAL (sodium bis(2-methoxyethoxy)aluminium dihydride and 1.28 eq of N-methylpiperazine to give the aldehyde of the formula (XVI) or (XVIa) and the aldehyde (XVI) or (XVIa) is reacted further without isolation to give the nitrile of the formula (VI)
A method of decoding video data, the method comprising: determining a chroma sampling format for the video data; in response to the chroma sampling format being 4:4:4, receiving in a picture parameter set, PPS, a syntax element indicating whether adaptive color transform is enabled for pictures of the video data that refer to the PPS; in response to adaptive color transform being enabled, receiving, in the PPS, one or more PPS-level offset values; in response to adaptive color transform being enabled, receiving, in a slice header of a slice that refers to the PPS, one or more slice-level offset values; determining a quantization parameter for one or more blocks of the slice based on the one or more PPS-level offset values and the one or more slice-level offset values; and dequantizing transform coefficients based on the determined quantization parameter. determining a chroma sampling format for the video data; in response to the chroma sampling format being 4:4:4, receiving in a picture parameter set, PPS, a syntax element indicating whether adaptive color transform is enabled for pictures of the video data that refer to the PPS; in response to adaptive color transform being enabled, receiving, in the PPS, one or more PPS-level offset values; in response to adaptive color transform being enabled, receiving, in a slice header of a slice that refers to the PPS, one or more slice-level offset values; determining a quantization parameter for one or more blocks of the slice based on the one or more PPS-level offset values and the one or more slice-level offset values; and dequantizing transform coefficients based on the determined quantization parameter.
A wheel loader comprising a front working device including a lift arm rotatable in a vertical direction, the front working device being provided at a front of a vehicle body, the wheel loader being configured for traveling by transmitting a drive force of an engine to wheels via a torque converter , and comprising: a traveling state sensor configured to detect a traveling state of the vehicle body; a motion sensor configured to detect that the lift arm is in a lifting motion; a speed stage switch configured to select one of a plurality of speed stages (S1 - S4) to which different maximum vehicle speeds are set, and a controller configured to control the engine , wherein the controller is configured to determine whether a specific condition for specifying an operation of the lift arm in an upward direction during forward travel of the vehicle body is satisfied or not, and is configured to limit a vehicle speed by reducing a maximum rotational speed of the engine in a case of satisfying the specific condition, wherein the specific condition is that the traveling state sensor detects (S502) forward traveling of the vehicle body and the motion sensor detects (S502) a lifting motion of the lift arm and the speed stage switch is switched to select a low speed stage (S504). a traveling state sensor configured to detect a traveling state of the vehicle body; a motion sensor configured to detect that the lift arm is in a lifting motion; a speed stage switch configured to select one of a plurality of speed stages (S1 - S4) to which different maximum vehicle speeds are set, and a controller configured to control the engine , wherein the controller is configured to determine whether a specific condition for specifying an operation of the lift arm in an upward direction during forward travel of the vehicle body is satisfied or not, and is configured to limit a vehicle speed by reducing a maximum rotational speed of the engine in a case of satisfying the specific condition, wherein the specific condition is that the traveling state sensor detects (S502) forward traveling of the vehicle body and the motion sensor detects (S502) a lifting motion of the lift arm and the speed stage switch is switched to select a low speed stage (S504).
An electrode assembly for measuring the concentration of contaminants within a fluid sample, the electrode assembly comprising: a first contact electrically coupled to a reference electrode ; a second contact electrically coupled to a cysteine-functionalized graphene oxide with polypyrrole nanocomposite modified working electrode ; and a third contact electrically coupled to a counter electrode ; wherein the cysteine-functionalized graphene oxide with polypyrrole nanocomposite is electrochemically grown on the working electrode . a first contact electrically coupled to a reference electrode ; a second contact electrically coupled to a cysteine-functionalized graphene oxide with polypyrrole nanocomposite modified working electrode ; and a third contact electrically coupled to a counter electrode ; wherein the cysteine-functionalized graphene oxide with polypyrrole nanocomposite is electrochemically grown on the working electrode .
A polypeptide comprising at least one amino acid sequence having the sequence of LSTEQVVAIASX 1 X 2 GGKQALEAVKAQLLVLRAAPYE (SEQ ID NO: 1), wherein X 1 X 2 comprises a repeat variable diresidue (RVD), and wherein the RVD consists of SI, SN, SH, NP, NH, NT, NK, ND, HN, HY, HD, HH, RN, RS, NG or GS; and a nucleic acid effector domain, wherein the nucleic acid effector domain comprises a nuclease, a nickase, a transcriptional activator, a transcriptional repressor, a methyltransferase, a deacetylase or any functional fragment thereof.
A tire including: a sound-absorbing material layer which is adhered to an inner surface of the tire ; and a sealant layer which is disposed between the inner surface of the tire and the sound-absorbing material layer and includes a sealant for adhering the sound-absorbing material layer to the inner surface of the tire , wherein the sound-absorbing material layer includes a first porous material having an average pore size of 1200 to 2400 μ m and a second porous material , wherein one surface of the first porous material is adhered to the inner surface of the tire by the sealant layer , and the second porous material is stacked on the other surface of the first porous material , wherein the sound-absorbing material layer has a thickness of 20 to 60 mm, said tire being characterised in that said second porous material has an average pore size of 100 to 1200 μm, and a thickness of the first porous material is 30 to 90 length% of the total thickness of the sound-absorbing material layer . a sound-absorbing material layer which is adhered to an inner surface of the tire ; and a sealant layer which is disposed between the inner surface of the tire and the sound-absorbing material layer and includes a sealant for adhering the sound-absorbing material layer to the inner surface of the tire , wherein the sound-absorbing material layer includes a first porous material having an average pore size of 1200 to 2400 μ m and a second porous material , wherein one surface of the first porous material is adhered to the inner surface of the tire by the sealant layer , and the second porous material is stacked on the other surface of the first porous material , wherein the sound-absorbing material layer has a thickness of 20 to 60 mm, said tire being characterised in that said second porous material has an average pore size of 100 to 1200 μm, and a thickness of the first porous material is 30 to 90 length% of the total thickness of the sound-absorbing material layer .
A vane structure for a gas turbine engine comprising: a ring defined about an axis; an airfoil section with a platform segment adjacent to said ring , the platform segment including a multiple of ceramic matrix composite (CMC) plies that bend apart to define a generally perpendicular orientation which form fillets ; an insert at least partially over the platform segment , the platform segment being sandwiched between the insert and the ring ; and an overwrap wound around said ring and said insert , wherein said platform segment is a T-section, wherein said platform segment includes a filler , wherein said filler is a preformed monolithic ceramic member . a ring defined about an axis; an airfoil section with a platform segment adjacent to said ring , the platform segment including a multiple of ceramic matrix composite (CMC) plies that bend apart to define a generally perpendicular orientation which form fillets ; an insert at least partially over the platform segment , the platform segment being sandwiched between the insert and the ring ; and an overwrap wound around said ring and said insert , wherein said platform segment is a T-section, wherein said platform segment includes a filler , wherein said filler is a preformed monolithic ceramic member .
A surgical system for driving an end effector coupled to an ultrasonic drive system of a surgical instrument , the system comprising at least one circuit configured to: receive a first activation request ; for a threshold time period, generate feedback indicating that the ultrasonic surgical instrument is activated while maintaining the ultrasonic surgical instrument in a deactivated state ; at an end of the threshold time period, activate the ultrasonic surgical instrument by providing a drive signal to the ultrasonic drive system to drive the end effector . receive a first activation request ; for a threshold time period, generate feedback indicating that the ultrasonic surgical instrument is activated while maintaining the ultrasonic surgical instrument in a deactivated state ; at an end of the threshold time period, activate the ultrasonic surgical instrument by providing a drive signal to the ultrasonic drive system to drive the end effector .
A connection device comprising - a line portion having, at its end, a radially outwardly projecting abutment flange for butting against a corresponding abutment flange of a further line portion which is to be coupled to the line portion , and - a ring-segment chain comprising a plurality of ring segments connected to one another in a pivotable manner in a common ring plane, wherein the ring-segment ends which form the chain ends can be latched to one another to give a ring-form connection clamp , wherein the line portion is designed in the form of a tubular connection stub with first thread means spaced apart axially from the abutment surface of its abutment flange , and wherein each ring segment has a radially inwardly projecting clamping flange and second thread means , which are spaced apart axially from said clamping flange and correspond to the first thread means . - a line portion having, at its end, a radially outwardly projecting abutment flange for butting against a corresponding abutment flange of a further line portion which is to be coupled to the line portion , and - a ring-segment chain comprising a plurality of ring segments connected to one another in a pivotable manner in a common ring plane, wherein the ring-segment ends which form the chain ends can be latched to one another to give a ring-form connection clamp ,
A helmet comprising: an outer shell ; a first liner disposed within and coupled to the outer shell, the first liner comprising a first protrusion and a second protrusion , wherein the first protrusion has a first end disposed on a side of the first liner facing away from the outer shell; a second liner comprising a first material and disposed within and coupled to the first liner, wherein the second protrusion faces the second liner; a polymer liner comprising a second material different from the first material, coupled to the second liner, and disposed between the first liner and the second liner; and a first pad coupled to the first end of the first protrusion, wherein a first coefficient of friction between the first pad and the polymer liner is less than a second coefficient of friction between the second protrusion and the polymer liner. an outer shell ; a first liner disposed within and coupled to the outer shell, the first liner comprising a first protrusion and a second protrusion , wherein the first protrusion has a first end disposed on a side of the first liner facing away from the outer shell; a second liner comprising a first material and disposed within and coupled to the first liner, wherein the second protrusion faces the second liner; a polymer liner comprising a second material different from the first material, coupled to the second liner, and disposed between the first liner and the second liner; and a first pad coupled to the first end of the first protrusion, wherein a first coefficient of friction between the first pad and the polymer liner is less than a second coefficient of friction between the second protrusion and the polymer liner.
A method, performed by a communication control device, of establishing a communication link, the method comprising: monitoring a heading direction of a vehicle; when the heading direction of the vehicle is changed by as much as a preset angle or more, determining a search order between a plurality of antenna modules by considering the changed heading direction of the vehicle and mounting positions of the plurality of antenna modules mounted on the vehicle; evaluating the plurality of antenna modules according to the search order; and communicating with a base station via a new antenna module selected based on a result of the evaluating, rather than via an old antenna module used for communication with the base station. monitoring a heading direction of a vehicle; when the heading direction of the vehicle is changed by as much as a preset angle or more, determining a search order between a plurality of antenna modules by considering the changed heading direction of the vehicle and mounting positions of the plurality of antenna modules mounted on the vehicle; evaluating the plurality of antenna modules according to the search order; and communicating with a base station via a new antenna module selected based on a result of the evaluating, rather than via an old antenna module used for communication with the base station.
Apparatus for astrophotography comprising at least an acquisition device configured to acquire astrophotographs, a support element , a movement device configured to move the acquisition device , and a control and command unit , said apparatus comprising at least one structural assembly element configured to accommodate said control and command unit inside it and to connect the latter with at least one of either said acquisition device or said movement device , wherein said control and command unit (33 is a computer equipped with a processor and with an operating system installed inside it, to command the functioning of the acquisition device and at least one of the movement device and/or a guide device , wherein the control and command unit is further provided with at least one power device configured to power said acquisition device and at least said movement device and/or said guide device , and wherein said control and command unit is configured to create a cabled and/or wireless connection network accessible to at least one user to control and drive said apparatus remotely.
Method for repairing a damaged leading or trailing edge region of a metallic turbine blade , which has a suction-side blade wall , a pressure-side blade wall and a leading edge and a trailing edge , comprising the steps: a) removing the damaged leading or trailing edge region , forming a cutout ; b) providing a replacement part which can be inserted by form fit into the cutout and which restores the intended geometry of the turbine blade ; c) inserting the replacement part by form fit into the cutout in a predetermined insertion direction , and d) connecting the replacement part to the turbine blade by substance bonding, characterized in that - in step a), recesses without undercut relative to the insertion direction are formed in the blade walls , wherein the recesses of the suction-side blade wall are positioned offset to the recesses of the pressure-side blade wall when the turbine blade is viewed from the side, - the replacement part provided in step b) has protrusions which in step c) are inserted by form fit into the recesses , wherein after insertion of the replacement part , the replacement part and the turbine blade have regions overlapping one another when the turbine blade is viewed from the side, and - in step c), after insertion into the cutout , the replacement part is fixed to the turbine blade using fixing elements extending through the mutually overlapping regions, such that this mechanical fixing blocks removal of the replacement part from the cutout against the predetermined insertion direction . a) removing the damaged leading or trailing edge region , forming a cutout ; b) providing a replacement part which can be inserted by form fit into the cutout and which restores the intended geometry of the turbine blade ; c) inserting the replacement part by form fit into the cutout in a predetermined insertion direction , and d) connecting the replacement part to the turbine blade by substance bonding, - in step a), recesses without undercut relative to the insertion direction are formed in the blade walls , wherein the recesses of the suction-side blade wall are positioned offset to the recesses of the pressure-side blade wall when the turbine blade is viewed from the side, - the replacement part provided in step b) has protrusions which in step c) are inserted by form fit into the recesses , wherein after insertion of the replacement part , the replacement part and the turbine blade have regions overlapping one another when the turbine blade is viewed from the side, and - in step c), after insertion into the cutout , the replacement part is fixed to the turbine blade using fixing elements extending through the mutually overlapping regions, such that this mechanical fixing blocks removal of the replacement part from the cutout against the predetermined insertion direction .
Use of an antimicrobial agent including an antimicrobial polyaminosilane for imparting an article or a hygiene product with antimicrobial activity, characterized by a step of: applying the antimicrobial agent including the antimicrobial polyaminosilane to the article or the hygiene product, wherein the antimicrobial polyaminosilane is prepared by subjecting only an aminosilane monomer to a hydrolysis and condensation reaction so that the repeating units of the antimicrobial polyaminosilane contain only aminosilane, and is free of halide ions; and wherein: (a) the aminosilane monomer is selected from the group consisting of 3-aminopropyltrimethoxysilane, 3-aminopropyltriethoxysilane, triamino-functional propyltrimethoxysilane, 2-aminoethyl-3-aminopropyltrimethoxysilane, bis(3-triethoxysilylpropyl)amine, diamino/alkyl-functional siloxane, cationic benzylamino-functional silane, cationic vinylbenzylamino-functional silane, 2-aminoethyl-3-aminopropylmethyldimethoxysilane, 3-aminopropylmethyldiethoxysilane, 3-ureidopropyltriethoxysilane, and combinations thereof; or (b) the aminosilane monomer contains an amino group selected from the group consisting of dioctylamino, octylamino, dodecylamino, hexylamino, pyridyl, oleylamino, and combinations thereof. applying the antimicrobial agent including the antimicrobial polyaminosilane to the article or the hygiene product, wherein the antimicrobial polyaminosilane is prepared by subjecting only an aminosilane monomer to a hydrolysis and condensation reaction so that the repeating units of the antimicrobial polyaminosilane contain only aminosilane, and is free of halide ions; and wherein: (a) the aminosilane monomer is selected from the group consisting of 3-aminopropyltrimethoxysilane, 3-aminopropyltriethoxysilane, triamino-functional propyltrimethoxysilane, 2-aminoethyl-3-aminopropyltrimethoxysilane, bis(3-triethoxysilylpropyl)amine, diamino/alkyl-functional siloxane, cationic benzylamino-functional silane, cationic vinylbenzylamino-functional silane, 2-aminoethyl-3-aminopropylmethyldimethoxysilane, 3-aminopropylmethyldiethoxysilane, 3-ureidopropyltriethoxysilane, and combinations thereof; or (b) the aminosilane monomer contains an amino group selected from the group consisting of dioctylamino, octylamino, dodecylamino, hexylamino, pyridyl, oleylamino, and combinations thereof. (a) the aminosilane monomer is selected from the group consisting of 3-aminopropyltrimethoxysilane, 3-aminopropyltriethoxysilane, triamino-functional propyltrimethoxysilane, 2-aminoethyl-3-aminopropyltrimethoxysilane, bis(3-triethoxysilylpropyl)amine, diamino/alkyl-functional siloxane, cationic benzylamino-functional silane, cationic vinylbenzylamino-functional silane, 2-aminoethyl-3-aminopropylmethyldimethoxysilane, 3-aminopropylmethyldiethoxysilane, 3-ureidopropyltriethoxysilane, and combinations thereof; or (b) the aminosilane monomer contains an amino group selected from the group consisting of dioctylamino, octylamino, dodecylamino, hexylamino, pyridyl, oleylamino, and combinations thereof.
A method of securely embedding a circuit on a semiconductor wafer to form a reverse engineering resistant semiconductor chip, wherein the method uses a first lithographic process, and a second lithographic process, wherein the first lithographic process has a first characteristic resolution corresponding to a set of coarser resolutions and the second lithographic process has a second characteristic resolution corresponding to a set of finer resolutions, the method comprising: (a) for one or more layers of the semiconductor chip: applying a respective circuit layout from a first set of circuit layouts to said layer using a first lithographic process at a respective coarser resolution from the set of coarser resolutions, to form a respective circuit at said respective coarser resolution, (b) for one layer of the semiconductor chip: applying a circuit layout to said layer using a second lithographic process at a respective finer resolution from the set of finer resolutions, to form the securely embedded circuit at said respective finer resolution, and wherein said circuit layout defines a set of functional elements in said securely embedded circuit that cannot be resolved at the respective coarser resolution of the set of coarser resolutions. (a) for one or more layers of the semiconductor chip: applying a respective circuit layout from a first set of circuit layouts to said layer using a first lithographic process at a respective coarser resolution from the set of coarser resolutions, to form a respective circuit at said respective coarser resolution, (b) for one layer of the semiconductor chip: applying a circuit layout to said layer using a second lithographic process at a respective finer resolution from the set of finer resolutions, to form the securely embedded circuit at said respective finer resolution, and wherein said circuit layout defines a set of functional elements in said securely embedded circuit that cannot be resolved at the respective coarser resolution of the set of coarser resolutions.