mhurhangee/ep-ind-claims huggingface dataset:
A method for performing a measurement on data traffic at a node (Ni) of a communication network, said node (Ni) comprising at least an input interface and an output interface (lout2), said method comprising, at said input interface, receiving first data units of said data traffic and: a) for each received first data unit, checking whether said first data unit is marked by a feature set to any value selected from a first value and a second value; b) implementing a global input parameter (X1) and, if said first data unit is marked, updating said global input parameter (X1) when said feature is set to said first value; and c) implementing a partial input parameter (X12) relating to said output interface (lout2) and updating said partial input parameter (X12) when said feature is set to said first value and when said first data unit is addressed to said output interface (lout2), said method further comprising, at said output interface (lout2), receiving second data units of said data traffic, said second data units comprising at least part of said first data units, and: d) for each received second data unit, checking whether said second data unit is marked by said feature set to any value selected from said first value and said second value; e) implementing a partial output parameter (Y12) relating to said input interface and, if said second data unit is marked, updating said partial output parameter (Y12) when said feature is set to said first value and when said second data unit is received from said input interface; and f) implementing a global output parameter (Y2) and updating said global output parameter (Y2) when said feature is set to said first value, said method further comprising: g) at said node (Ni), performing a measurement relating to said data traffic within said node (Ni) based on said partial input parameter (X12) and said partial output parameter (Y12). a) for each received first data unit, checking whether said first data unit is marked by a feature set to any value selected from a first value and a second value; b) implementing a global input parameter (X1) and, if said first data unit is marked, updating said global input parameter (X1) when said feature is set to said first value; and c) implementing a partial input parameter (X12) relating to said output interface (lout2) and updating said partial input parameter (X12) when said feature is set to said first value and when said first data unit is addressed to said output interface (lout2), d) for each received second data unit, checking whether said second data unit is marked by said feature set to any value selected from said first value and said second value; e) implementing a partial output parameter (Y12) relating to said input interface and, if said second data unit is marked, updating said partial output parameter (Y12) when said feature is set to said first value and when said second data unit is received from said input interface; and f) implementing a global output parameter (Y2) and updating said global output parameter (Y2) when said feature is set to said first value,
An assembly comprising: a turbine housing that comprises a bore, a wastegate seat and a wastegate passage that extends to the wastegate seat, a bushing configured for receipt by the bore; a rotatable wastegate shaft configured for receipt by the bushing; a wastegate arm extending from the wastegate shaft; and a wastegate plug extending from the wastegate arm wherein the wastegate plug comprises a profile, defined in part by a portion of a cone, for contacting the wastegate seat to cover the wastegate passage characterized in that: the wastegate seat comprises a profile, defined in part by a portion of a torus. a turbine housing that comprises a bore, a wastegate seat and a wastegate passage that extends to the wastegate seat, a bushing configured for receipt by the bore; a rotatable wastegate shaft configured for receipt by the bushing; a wastegate arm extending from the wastegate shaft; and a wastegate plug extending from the wastegate arm wherein the wastegate plug comprises a profile, defined in part by a portion of a cone, for contacting the wastegate seat to cover the wastegate passage characterized in that: the wastegate seat comprises a profile, defined in part by a portion of a torus. the wastegate seat comprises a profile, defined in part by a portion of a torus.
A compound of formula: wherein: R is hydrogen, CH 3, Cl, CF 3 or CN; R 1 is cyclic or acyclic amine; and L is optionally substituted C 2 -C 30 alkyl, or saturated cyclic ring; or a compound selected from any one of the following compounds: R is hydrogen, CH 3, Cl, CF 3 or CN; R 1 is cyclic or acyclic amine; and L is optionally substituted C 2 -C 30 alkyl, or saturated cyclic ring; or a compound selected from any one of the following compounds:
A speaker device comprising: a cylindrical cabinet configured with a housing part and a cap part; a wall part arranged in said cabinet, partitioning a space in said cabinet by extending from a central part toward two different positions (2r1, 2r2) in an outer periphery part of said cabinet, wherein the central part is formed by a tubular part, which is erected in the axial direction from a bottom face part of the housing part; and a plurality of speaker units (3, 31, 32) arranged in said cabinet and attached to said wall part, wherein a first speaker unit is arranged in one space (2S1) partitioned by said wall part with a sound emission surface (3a1) of said first speaker unit being directed to the other space (2S2) partitioned by said wall part, and a second speaker unit is arranged in the other space (2S2) with said sound emission surface (3a2) of said second speaker unit being directed to said one space (2S1), and a duct (4, 41, 42) is provided at said cabinet to communicate between said space and the outside. a cylindrical cabinet configured with a housing part and a cap part; a wall part arranged in said cabinet, partitioning a space in said cabinet by extending from a central part toward two different positions (2r1, 2r2) in an outer periphery part of said cabinet, wherein the central part is formed by a tubular part, which is erected in the axial direction from a bottom face part of the housing part; and a plurality of speaker units (3, 31, 32) arranged in said cabinet and attached to said wall part, wherein a first speaker unit is arranged in one space (2S1) partitioned by said wall part with a sound emission surface (3a1) of said first speaker unit being directed to the other space (2S2) partitioned by said wall part, and a second speaker unit is arranged in the other space (2S2) with said sound emission surface (3a2) of said second speaker unit being directed to said one space (2S1), and a duct (4, 41, 42) is provided at said cabinet to communicate between said space and the outside.
A method for acquiring a protocol message by a ring-network node, characterized by comprising: using dual fields to identify a Signal Fail, SF, protocol message, a Manual Switch, MS, protocol message and a Force Switch, FS, protocol message; and if a node supporting G.8032vl receives an FS or MS protocol message, determining that the message is an SF protocol message according to an identifier; and a node supporting G.8032v2 determining that the received protocol message is an SF or MS or FS protocol message according to the identifier, wherein the step of using dual fields to identify SF, MS and FS protocol messages comprises: using a code value in a Request/State field to identify that a protocol message belongs to a type of SF, MS and FS protocol messages, and then using different code values in a sub-code field to respectively identify SF, MS and FS protocol messages. using dual fields to identify a Signal Fail, SF, protocol message, a Manual Switch, MS, protocol message and a Force Switch, FS, protocol message; and if a node supporting G.8032vl receives an FS or MS protocol message, determining that the message is an SF protocol message according to an identifier; and a node supporting G.8032v2 determining that the received protocol message is an SF or MS or FS protocol message according to the identifier, wherein the step of using dual fields to identify SF, MS and FS protocol messages comprises: using a code value in a Request/State field to identify that a protocol message belongs to a type of SF, MS and FS protocol messages, and then using different code values in a sub-code field to respectively identify SF, MS and FS protocol messages.
An amine capturing system comprising: a carbon dioxide capturing module configured to bring a gas containing carbon dioxide in contact with an absorbing solution containing amine to cause the absorbing solution to absorb the carbon dioxide; a first cleaning apparatus configured to clean the gas exhausted from the carbon dioxide capturing module with a cleaning liquid to capture the amine entrained by the gas; a second cleaning apparatus configured to clean the gas exhausted from the first cleaning apparatus with a cleaning liquid to capture the amine entrained by the gas; a second measuring instrument configured to measure a concentration of the amine in the cleaning liquid used in the second cleaning apparatus; a liquid sending mechanism configured to extract the cleaning liquid used in the second cleaning apparatus and send the cleaning liquid to the first cleaning apparatus when the concentration of the amine detected by the second measuring instrument exceeds a predetermined value; an absorbing solution demister configured to capture mist of the absorbing solution entrained by the gas exhausted from the carbon dioxide capturing module; and a cleaning liquid demister configured to capture mist of the cleaning liquid entrained by the gas exhausted from the first cleaning apparatus. a carbon dioxide capturing module configured to bring a gas containing carbon dioxide in contact with an absorbing solution containing amine to cause the absorbing solution to absorb the carbon dioxide; a first cleaning apparatus configured to clean the gas exhausted from the carbon dioxide capturing module with a cleaning liquid to capture the amine entrained by the gas; a second cleaning apparatus configured to clean the gas exhausted from the first cleaning apparatus with a cleaning liquid to capture the amine entrained by the gas; a second measuring instrument configured to measure a concentration of the amine in the cleaning liquid used in the second cleaning apparatus; a liquid sending mechanism configured to extract the cleaning liquid used in the second cleaning apparatus and send the cleaning liquid to the first cleaning apparatus when the concentration of the amine detected by the second measuring instrument exceeds a predetermined value; an absorbing solution demister configured to capture mist of the absorbing solution entrained by the gas exhausted from the carbon dioxide capturing module; and a cleaning liquid demister configured to capture mist of the cleaning liquid entrained by the gas exhausted from the first cleaning apparatus.
A method for performing maintenance on an outer surface of at least one wind turbine part (2, 3, 5) of an offshore wind turbine, the method comprising the steps of: - transporting an access system to a site of the offshore wind turbine, - transferring the access system to a transition platform at a lower part of the offshore wind turbine, while operating the offshore wind turbine in accordance with a normal operating mode, - stopping normal operation of the offshore wind turbine, - performing maintenance on an outer surface of at least one wind turbine part (2, 3, 5) of the offshore wind turbine, using the access system, and - restarting normal operation of the offshore wind turbine in accordance with a normal operating mode when the maintenance has been completed. - transporting an access system to a site of the offshore wind turbine, - transferring the access system to a transition platform at a lower part of the offshore wind turbine, while operating the offshore wind turbine in accordance with a normal operating mode, - stopping normal operation of the offshore wind turbine, - performing maintenance on an outer surface of at least one wind turbine part (2, 3, 5) of the offshore wind turbine, using the access system, and - restarting normal operation of the offshore wind turbine in accordance with a normal operating mode when the maintenance has been completed.
Refrigerator with a fan, wherein the fan is arranged in an air pressure chamber, wherein the air pressure chamber has a single inflow opening for supplying air to the fan and two outflow openings (23, 25) for discharging air from the air pressure chamber, wherein the air pressure chamber is shaped such that the air is discharged from the at least one outflow opening (23, 25) with a homogeneous or virtually homogeneous flow, wherein the fan is completely enclosed by the air pressure chamber, wherein the air of the air pressure chamber can only be supplied via the fan and via the inflow opening, characterised in that the two outflow openings (23, 25) are opposite one another with respect to an axis of rotation of the fan, wherein the two outflow openings (23, 25) form the only air outlets of the air pressure chamber, wherein the fan is embodied as a radial fan.
A personal care composition comprising (i) an extract of Aloe vera; and (ii) a hyaluronic acid polymer having a molecular weight from 5 to 60 kDa, the hyaluronic acid having the monomeric structure; wherein the extract of Aloe vera comprises 60 to 95% by weight of hydrolysed polysaccharides having a molecular weight in the range of 2 to 3 kDa and 0.1 to 20% by weight polyphenols. (i) an extract of Aloe vera; and (ii) a hyaluronic acid polymer having a molecular weight from 5 to 60 kDa, the hyaluronic acid having the monomeric structure;
Magnetic sensor array comprising - at least one magnetic-field-sensitive sensor element, the electrical properties of which can be modified in accordance with a magnetic field of a working magnet (5; 5a) that can be influenced by a moved transmitter element, - wherein the magnetic sensor array is potted at least along with the sensor element and the working magnet (5; 5a) in a primary packaging of plastic, and - wherein, for the final mechanical fixing of the magnetic sensor array in the application of the sensor, the primary packaging can be surrounded with a secondary packaging in areas located away from the sensor head along with the magnetic-field-sensitive sensor element, while at the same time establishing the electrical connections (6, 7), characterized in that - for mechanical anchoring to the secondary packaging, the primary packaging is provided with a structured surface (20, 21) in the connecting regions of the two packagings. - at least one magnetic-field-sensitive sensor element, the electrical properties of which can be modified in accordance with a magnetic field of a working magnet (5; 5a) that can be influenced by a moved transmitter element, - wherein the magnetic sensor array is potted at least along with the sensor element and the working magnet (5; 5a) in a primary packaging of plastic, and - wherein, for the final mechanical fixing of the magnetic sensor array in the application of the sensor, the primary packaging can be surrounded with a secondary packaging in areas located away from the sensor head along with the magnetic-field-sensitive sensor element, while at the same time establishing the electrical connections (6, 7), characterized in that - for mechanical anchoring to the secondary packaging, the primary packaging is provided with a structured surface (20, 21) in the connecting regions of the two packagings.
A sensor device for the detection of target components in a liquid sample, comprising - a cartridge comprising a) a sample chamber which can be filled with a sample and in which a magnetic actuation field of a given configuration can be established; b) at least two reservoirs (131-331, 132-332) for magnetic particles (MP, MP') that are soluble in the sample, wherein the reservoirs are located on an inner surface of the sample chamber, c) at least two sensitive zones (121-321, 122-322) in which magnetic particles and/or target components can be detected, wherein each sensitive zones comprises a plurality of binding spots BS and BS', respectively, wherein said binding spots BS and BS' are coated with different capture molecules that specifically bind to different target components, wherein the at least two reservoirs and the at least two sensitive zones are located on surfaces that face each other or on the same surface - a magnetic field generator for generating a magnetic actuation field inside the cartridge, - a sensor unit for detecting magnetic particles (MP, MP') and/or target components inside the cartridge, characterized in that the gradient of the amplitude of the magnetic field strength is perpendicular to the sensitive zones and to the reservoirs. - a cartridge comprising a) a sample chamber which can be filled with a sample and in which a magnetic actuation field of a given configuration can be established; b) at least two reservoirs (131-331, 132-332) for magnetic particles (MP, MP') that are soluble in the sample, wherein the reservoirs are located on an inner surface of the sample chamber, c) at least two sensitive zones (121-321, 122-322) in which magnetic particles and/or target components can be detected, wherein each sensitive zones comprises a plurality of binding spots BS and BS', respectively, wherein said binding spots BS and BS' are coated with different capture molecules that specifically bind to different target components, wherein the at least two reservoirs and the at least two sensitive zones are located on surfaces that face each other or on the same surface a) a sample chamber which can be filled with a sample and in which a magnetic actuation field of a given configuration can be established; b) at least two reservoirs (131-331, 132-332) for magnetic particles (MP, MP') that are soluble in the sample, wherein the reservoirs are located on an inner surface of the sample chamber, c) at least two sensitive zones (121-321, 122-322) in which magnetic particles and/or target components can be detected, wherein each sensitive zones comprises a plurality of binding spots BS and BS', respectively, wherein said binding spots BS and BS' are coated with different capture molecules that specifically bind to different target components, wherein the at least two reservoirs and the at least two sensitive zones are located on surfaces that face each other or on the same surface - a magnetic field generator for generating a magnetic actuation field inside the cartridge, - a sensor unit for detecting magnetic particles (MP, MP') and/or target components inside the cartridge,
A resin molded body comprising: an uneven structure surface (30, 30A) that exhibits liquid repellency by having a plurality of recesses (32, 32a, 32b) and a plurality of projections (31, 31a, 31b) alternately arranged in a predetermined direction in a planar form; wherein each of the projections (31, 31a, 31b) includes a base portion and a distal end portion that is larger than the base portion, and each of the projections (31, 31a, 31b) includes a peripheral surface in a shape in which a distance from a central axis to an edge of the projection (31, 31a, 31b) gradually increases from the base portion toward the distal end portion; characterized in that: the peripheral surface of the projection (31, 31a, 31b) is spherical. an uneven structure surface (30, 30A) that exhibits liquid repellency by having a plurality of recesses (32, 32a, 32b) and a plurality of projections (31, 31a, 31b) alternately arranged in a predetermined direction in a planar form; wherein each of the projections (31, 31a, 31b) includes a base portion and a distal end portion that is larger than the base portion, and each of the projections (31, 31a, 31b) includes a peripheral surface in a shape in which a distance from a central axis to an edge of the projection (31, 31a, 31b) gradually increases from the base portion toward the distal end portion; characterized in that: the peripheral surface of the projection (31, 31a, 31b) is spherical.
An actuator member, exhibiting a capacitance across it, and comprising: an electroactive polymer material adapted to deform in dependence upon the magnitude of an applied electric field; and a capacitance compensation means adapted to at least partially offset changes in said capacitance caused by deformation of the actuator member, wherein the capacitance compensation means comprises a compensating material which forms a separate layer to the electroactive polymer material or forms a mixture or composite with the electroactive polymer material, wherein the separate layer exhibits a decrease in capacitance across it, or the compensating material in the mixture or composite exhibits a decrease in effective relative permittivity, in response to one or more of the following: increasing magnitude of an applied electric field, increase in the impressed electric charge, mechanical deformation of the actuator member. an electroactive polymer material adapted to deform in dependence upon the magnitude of an applied electric field; and a capacitance compensation means adapted to at least partially offset changes in said capacitance caused by deformation of the actuator member, wherein the capacitance compensation means comprises a compensating material which forms a separate layer to the electroactive polymer material or forms a mixture or composite with the electroactive polymer material, wherein the separate layer exhibits a decrease in capacitance across it, or the compensating material in the mixture or composite exhibits a decrease in effective relative permittivity, in response to one or more of the following: increasing magnitude of an applied electric field, increase in the impressed electric charge, mechanical deformation of the actuator member.
A method for preparing nilotinib, comprising the following steps: performing an aminocarbonylation reaction on a compound A and 3-(4-methyl-1H-imidazole-1-yl)-5-(trifluoromethyl)aniline to obtain an amination product; and performing deprotection treatment of an R group on the amination product to obtain the nilotinib, wherein the compound A has a structure shown in formula I: in the formula I, the R group is benzyl, -COCF 3, -CHO or -CO 2 R', wherein an R' group is C 1 ∼C 10 alkyl, C 1 ∼C 3 alkoxy ethyl or C 7 ∼C 19 aralkyl. performing an aminocarbonylation reaction on a compound A and 3-(4-methyl-1H-imidazole-1-yl)-5-(trifluoromethyl)aniline to obtain an amination product; and performing deprotection treatment of an R group on the amination product to obtain the nilotinib, wherein the compound A has a structure shown in formula I: in the formula I, the R group is benzyl, -COCF 3, -CHO or -CO 2 R', wherein an R' group is C 1 ∼C 10 alkyl, C 1 ∼C 3 alkoxy ethyl or C 7 ∼C 19 aralkyl.
Use of an urea filter material in an urea filter comprising three layers (3, 4, 5), namely a base layer, a cover layer and a filter layer lying therebetween, where all the layers (3, 4, 5) are formed from polypropylene non-woven fabric.