mhurhangee/ep-ind-claims huggingface dataset:
An electronic device, comprising: a node configured to communicatively couple to an antenna; and an interface circuit, communicatively coupled to the node, configured to communicate with a recipient electronic device, characterized in that the interface circuit is configured to: receive, from the node, preference-indication information associated with the recipient electronic device, wherein, when the recipient electronic device is capable of receiving downlink, DL, multi-user, MU, multiple input multiple output, MIMO, transmissions, the preference-indication information comprises a dynamic preference that indicates whether the recipient electronic device prefers that the electronic device uses DL MU MIMO transmissions when communicating with the recipient electronic device; and provide, to the node, a packet or frame intended for the recipient electronic device, wherein the packet or frame selectively specifies use of DL MU MIMO based at least in part in the preference-indication information. a node configured to communicatively couple to an antenna; and an interface circuit, communicatively coupled to the node, configured to communicate with a recipient electronic device, characterized in that the interface circuit is configured to: receive, from the node, preference-indication information associated with the recipient electronic device, wherein, when the recipient electronic device is capable of receiving downlink, DL, multi-user, MU, multiple input multiple output, MIMO, transmissions, the preference-indication information comprises a dynamic preference that indicates whether the recipient electronic device prefers that the electronic device uses DL MU MIMO transmissions when communicating with the recipient electronic device; and provide, to the node, a packet or frame intended for the recipient electronic device, wherein the packet or frame selectively specifies use of DL MU MIMO based at least in part in the preference-indication information. receive, from the node, preference-indication information associated with the recipient electronic device, wherein, when the recipient electronic device is capable of receiving downlink, DL, multi-user, MU, multiple input multiple output, MIMO, transmissions, the preference-indication information comprises a dynamic preference that indicates whether the recipient electronic device prefers that the electronic device uses DL MU MIMO transmissions when communicating with the recipient electronic device; and provide, to the node, a packet or frame intended for the recipient electronic device, wherein the packet or frame selectively specifies use of DL MU MIMO based at least in part in the preference-indication information.
A method for manufacturing a (meth)acrylic acid ester by reacting (meth)acrylic anhydride with a carbonate compound, wherein the reaction is carried out in the presence of at least one type of catalyst selected from among nitrogenous base-containing organic compounds, Group I metal compounds, and Group II metal compounds.
A process for the copolymerization of butadiene and styrene and/or substituted styrene comprising (i) preparing a solution of butadiene and styrene and/or substituted styrene in a solvent, (ii) adding a homogeneous catalytic system to said solution, (iii) conducting the copolymerization reaction at a temperature ranging from 30°C to 100°C for 12 hours or less, and (iv) recovering the resulting copolymer, characterised in that said solvent is selected from the group of aliphatic and cycloaliphatic hydrocarbons, and said homogeneous catalytic system comprises (a) a catalyst with general formula wherein R 1 and R 3, equal or different from each other, are a linear or branched alkyl group having from 1 to 10 carbon atoms, and R 2 and R 4, equal or different from each other, are a linear or branched arylalkyl group having from 7 to 14 carbon atoms, and (b) a mixture of co-catalysts comprising modified methylaluminoxane (m-MAO) and triisobutylaluminium (TIBA). said solvent is selected from the group of aliphatic and cycloaliphatic hydrocarbons, and said homogeneous catalytic system comprises (a) a catalyst with general formula wherein R 1 and R 3, equal or different from each other, are a linear or branched alkyl group having from 1 to 10 carbon atoms, and R 2 and R 4, equal or different from each other, are a linear or branched arylalkyl group having from 7 to 14 carbon atoms, and (b) a mixture of co-catalysts comprising modified methylaluminoxane (m-MAO) and triisobutylaluminium (TIBA). (a) a catalyst with general formula wherein R 1 and R 3, equal or different from each other, are a linear or branched alkyl group having from 1 to 10 carbon atoms, and R 2 and R 4, equal or different from each other, are a linear or branched arylalkyl group having from 7 to 14 carbon atoms, and (b) a mixture of co-catalysts comprising modified methylaluminoxane (m-MAO) and triisobutylaluminium (TIBA).
A compound of formula I or a pharmaceutically acceptable salt, solvate, enantiomer or racemic mixture thereof, wherein R1 and R2 are each independently hydrogen, -OH, alkyl, -CF 3, -OCHF 2, -OCF 3 or halogen; R3 is -OCH 2 CF 3; R4 is hydrogen, -OH, -O aryl, -OCH 2 aryl, alkyl, cycloalkyl, -CF 3, -OCHF 2, -OCF 3, -OCH 2 CF 3, -OCH 2 CHF 2, -OCH 2 CH 2 F or halogen; A is -CX 1 X 2, wherein X 1 and X 2 are each independently H and Cl. wherein R1 and R2 are each independently hydrogen, -OH, alkyl, -CF 3, -OCHF 2, -OCF 3 or halogen; R3 is -OCH 2 CF 3; R4 is hydrogen, -OH, -O aryl, -OCH 2 aryl, alkyl, cycloalkyl, -CF 3, -OCHF 2, -OCF 3, -OCH 2 CF 3, -OCH 2 CHF 2, -OCH 2 CH 2 F or halogen; A is -CX 1 X 2, wherein X 1 and X 2 are each independently H and Cl.
Vehicle, in particular a rail vehicle, comprising a driver's cab, the cab extending in a longitudinal direction and comprising a longitudinal plane extending in the longitudinal direction, said cab comprising a floor and a ceiling arranged opposite the floor in an elevation direction substantially perpendicular to the longitudinal direction, said cab comprising a control device for the vehicle, said control device comprising a control unit comprising a seat and a control console, the control unit further comprising a first support arm mounted on the control unit and a second support arm mounted on the first support arm and on a support element of the cab, the control unit being rotatable relative to the first support arm about a first transverse axis of rotation and rotatable relative to the first support arm about a first elevation axis of rotation substantially perpendicular to the first transverse axis of rotation, the first support arm being rotatable relative to the second support arm about a second transverse axis of rotation substantially parallel to the first transverse axis of rotation, the second support arm being rotatable relative to the support element of the cab about a third transverse axis of rotation substantially parallel to the first transverse axis of rotation and rotatable relative to the support element of the cab about a second elevation axis of rotation substantially parallel to the first elevation axis of rotation. the control unit being rotatable relative to the first support arm about a first transverse axis of rotation and rotatable relative to the first support arm about a first elevation axis of rotation substantially perpendicular to the first transverse axis of rotation, the first support arm being rotatable relative to the second support arm about a second transverse axis of rotation substantially parallel to the first transverse axis of rotation, the second support arm being rotatable relative to the support element of the cab about a third transverse axis of rotation substantially parallel to the first transverse axis of rotation and rotatable relative to the support element of the cab about a second elevation axis of rotation substantially parallel to the first elevation axis of rotation.
A system for segmenting medical images, the system comprising: a database configured to store a plurality of medical images acquired by an image acquisition device, including a first medical image of an object and a second medical image of the object, wherein the object is an anatomical structure of a patient; and a processor, configured to: determine a first structure label map for the first medical image using a first classifier model trained on first training images from a population of patients; register the first medical image and the first structure label map to the second medical image to generate a registered second medical image and a second structure label map; train a second classifier model using accumulated training data comprising the registered second medical image, the second structure label map, and the first training images from the population of patients; and determine an updated second structure label map associated with the second medical image using the second classifier model. a database configured to store a plurality of medical images acquired by an image acquisition device, including a first medical image of an object and a second medical image of the object, wherein the object is an anatomical structure of a patient; and a processor, configured to: determine a first structure label map for the first medical image using a first classifier model trained on first training images from a population of patients; register the first medical image and the first structure label map to the second medical image to generate a registered second medical image and a second structure label map; train a second classifier model using accumulated training data comprising the registered second medical image, the second structure label map, and the first training images from the population of patients; and determine an updated second structure label map associated with the second medical image using the second classifier model. determine a first structure label map for the first medical image using a first classifier model trained on first training images from a population of patients; register the first medical image and the first structure label map to the second medical image to generate a registered second medical image and a second structure label map; train a second classifier model using accumulated training data comprising the registered second medical image, the second structure label map, and the first training images from the population of patients; and determine an updated second structure label map associated with the second medical image using the second classifier model.
A system for reading diagnostic assays for in-vitro diagnostic applications, the system comprising: a receiving member adapted to receive a diagnostic assay cartridge carrying a diagnostic assay; at least one excitation module (102, 103) configured to illuminate the diagnostic assay, when the diagnostic assay cartridge is placed in the receiving member; a camera module for capturing an image of the illuminated diagnostic assay placed in the receiving member; a processor for receiving the captured image from the camera module and determining whether or not a target analyte was present in the diagnostic assay captured by the camera module; and a memory storing firmware, the firmware including a brightness compensation module configured to adjust the intensity of an image of a diagnostic cartridge captured by the camera module, in order to emulate a uniform field of illumination over the diagnostic cartridge; wherein the brightness compensation module is configured to adjust the intensity of the captured image based on an illumination compensation look-up table, the illumination compensation look-up table comprising a brightness scaling factor for each pixel. a receiving member adapted to receive a diagnostic assay cartridge carrying a diagnostic assay; at least one excitation module (102, 103) configured to illuminate the diagnostic assay, when the diagnostic assay cartridge is placed in the receiving member; a camera module for capturing an image of the illuminated diagnostic assay placed in the receiving member; a processor for receiving the captured image from the camera module and determining whether or not a target analyte was present in the diagnostic assay captured by the camera module; and a memory storing firmware, the firmware including a brightness compensation module configured to adjust the intensity of an image of a diagnostic cartridge captured by the camera module, in order to emulate a uniform field of illumination over the diagnostic cartridge; wherein the brightness compensation module is configured to adjust the intensity of the captured image based on an illumination compensation look-up table, the illumination compensation look-up table comprising a brightness scaling factor for each pixel.
A flap support fairing comprising: a housing configured to be coupled to a bottom side of a flap (112, 114) on a trailing edge of a wing (104, 106) of an aircraft; a tailcone disposed outward from an aft end of the housing; and an articulation assembly configured to move the tailcone between an extended position in which a portion of the tailcone is disposed beyond the aft end of the housing and a retracted position in which the portion of the tailcone is disposed within the housing wherein the articulation assembly is configured to move the tailcone from the extended position to the retracted position when the housing is moved downward relative to the wing (104, 106). a housing configured to be coupled to a bottom side of a flap (112, 114) on a trailing edge of a wing (104, 106) of an aircraft; a tailcone disposed outward from an aft end of the housing; and an articulation assembly configured to move the tailcone between an extended position in which a portion of the tailcone is disposed beyond the aft end of the housing and a retracted position in which the portion of the tailcone is disposed within the housing wherein the articulation assembly is configured to move the tailcone from the extended position to the retracted position when the housing is moved downward relative to the wing (104, 106).
A piezoelectric material comprising: a perovskite-type metal oxide represented by (Ba 1-x Ca x) a (Ti 1-y Zr y)O 3 as a main component, where 1.00 ≤ a ≤ 1.01, 0.155 ≤ x ≤ 0.300, 0.041 ≤ y ≤ 0.069, and manganese, wherein a manganese content in the piezoelectric material relative to 100 parts by weight of the perovskite-type metal oxide is 0.12 parts by weight or more and 0.40 parts by weight or less on a metal basis, wherein the piezoelectric material is constituted by crystal grains having an average circular equivalent diameter of 1 μm or more and 10.4 μm or less, wherein the piezoelectric material has a relative density of 92.1% or more and 100% or less, and wherein a total content of an auxiliary component other than the perovskite-type metal oxide and manganese relative to 100 parts by weight of the perovskite-type metal oxide is 1.2 parts by weight or less. a perovskite-type metal oxide represented by (Ba 1-x Ca x) a (Ti 1-y Zr y)O 3 as a main component, where 1.00 ≤ a ≤ 1.01, 0.155 ≤ x ≤ 0.300, 0.041 ≤ y ≤ 0.069, and manganese, wherein a manganese content in the piezoelectric material relative to 100 parts by weight of the perovskite-type metal oxide is 0.12 parts by weight or more and 0.40 parts by weight or less on a metal basis, wherein the piezoelectric material is constituted by crystal grains having an average circular equivalent diameter of 1 μm or more and 10.4 μm or less, wherein the piezoelectric material has a relative density of 92.1% or more and 100% or less, and wherein a total content of an auxiliary component other than the perovskite-type metal oxide and manganese relative to 100 parts by weight of the perovskite-type metal oxide is 1.2 parts by weight or less.
A gyroscope system (10, 250, 300, 350) comprising: a sensor system (12, 50, 150) comprising a vibrating-mass (16, 60, 154, 360) and a plurality of electrodes ( 18, 20, 22) each arranged to provide a driving force to the vibrating-mass (16, 60, 154, 360) along a first axis of three orthogonal axes and a force-rebalance to the vibrating-mass (16, 60, 154, 360) in a second and third axes of the three orthogonal axes; and a gyroscope controller configured to generate a drive signal that is provided to a first electrode of the plurality of electrodes (18, 20, 22, 66, 68, 70, 160, 162, 358, 364, 366) to provide the driving force to facilitate in-plane periodic oscillatory motion of the vibrating-mass (16, 60, 154, 360) along the first axis of the three orthogonal axes via spring flexures (64, 158, 362), with the spring flexures (64, 158, 362) providing a reactionary motion along the first axis at an opposite phase of the drive signal, and to generate a force-rebalance signal that is provided to each of the second electrode and a third electrode of the plurality of electrodes (18, 20, 22, 66, 68, 70, 160, 162, 358, 364, 366) associated with the respective second axis and the respective third axis of the three orthogonal axes to calculate a rotation of the gyroscope system (10, 250, 300, 350) about the respective second axis and the respective third axis of the three orthogonal axes, the gyroscope controller being further configured to change the drive axis during operation of the gyroscope system (10, 250, 300, 350). a sensor system (12, 50, 150) comprising a vibrating-mass (16, 60, 154, 360) and a plurality of electrodes ( 18, 20, 22) each arranged to provide a driving force to the vibrating-mass (16, 60, 154, 360) along a first axis of three orthogonal axes and a force-rebalance to the vibrating-mass (16, 60, 154, 360) in a second and third axes of the three orthogonal axes; and a gyroscope controller configured to generate a drive signal that is provided to a first electrode of the plurality of electrodes (18, 20, 22, 66, 68, 70, 160, 162, 358, 364, 366) to provide the driving force to facilitate in-plane periodic oscillatory motion of the vibrating-mass (16, 60, 154, 360) along the first axis of the three orthogonal axes via spring flexures (64, 158, 362), with the spring flexures (64, 158, 362) providing a reactionary motion along the first axis at an opposite phase of the drive signal, and to generate a force-rebalance signal that is provided to each of the second electrode and a third electrode of the plurality of electrodes (18, 20, 22, 66, 68, 70, 160, 162, 358, 364, 366) associated with the respective second axis and the respective third axis of the three orthogonal axes to calculate a rotation of the gyroscope system (10, 250, 300, 350) about the respective second axis and the respective third axis of the three orthogonal axes, the gyroscope controller being further configured to change the drive axis during operation of the gyroscope system (10, 250, 300, 350).
A flag (10A, 10B, 10C) comprising a piece of cloth (110A, 110B, 110C) adapted to be mounted to a mast (210A, 210B, 210C) and comprising two thicknesses defining two opposite faces (110A1, 110B1), said flag (10A, 10B, 10C) being characterised in that: - said piece of cloth (110A, 110B, 110C) comprises at least one pocket (110A-1, 110A-2, 110A-3; 110B-1; 110C-1), formed between said two thicknesses (110A1, 110B1) to receive an electrical or electronic device (120A-1, 120A-2, 120A-3; 120B-1; 120C-1), and - at least one of the faces (110A1, 110B1) of the piece of cloth (110A, 110B, 110C) comprises at least one opening (110A1-1, 110A1-2, 110A1-3; 110B1-1; 110C1-1) located at said at least one pocket (110A-1, 110A-2, 110A-3; 110B-1, 110C-1). - said piece of cloth (110A, 110B, 110C) comprises at least one pocket (110A-1, 110A-2, 110A-3; 110B-1; 110C-1), formed between said two thicknesses (110A1, 110B1) to receive an electrical or electronic device (120A-1, 120A-2, 120A-3; 120B-1; 120C-1), and - at least one of the faces (110A1, 110B1) of the piece of cloth (110A, 110B, 110C) comprises at least one opening (110A1-1, 110A1-2, 110A1-3; 110B1-1; 110C1-1) located at said at least one pocket (110A-1, 110A-2, 110A-3; 110B-1, 110C-1).
A method for rectifying degradation of a photovoltaic module in a photovoltaic power station, wherein the method comprises: controlling (101, 200) a to-be-rectified photovoltaic module in a photovoltaic power station to stop outputting, wherein the to-be-rectified photovoltaic module comprises one photovoltaic module or at least two serially-connected photovoltaic modules; and injecting (102, 202) a rectification current into a positive or negative electrode of the to-be-rectified photovoltaic module; wherein the injecting (102, 202) a rectification current into a positive or negative electrode of the to-be-rectified photovoltaic module comprises: determining a value of the rectification current for the to-be-rectified photovoltaic module and a length of a rectification time period of the to-be-rectified photovoltaic module; and injecting the current into the to-be-rectified photovoltaic module based on the determined value of the rectification current and the determined length of the rectification time period; characterized in that the method further comprises determining current environment information, wherein the current environment information comprises at least one of an ambient temperature, a wind speed, and a solar light intensity; and adjusting the determined value of the rectification current and the determined length of the rectification time period based on the current environment information. controlling (101, 200) a to-be-rectified photovoltaic module in a photovoltaic power station to stop outputting, wherein the to-be-rectified photovoltaic module comprises one photovoltaic module or at least two serially-connected photovoltaic modules; and injecting (102, 202) a rectification current into a positive or negative electrode of the to-be-rectified photovoltaic module; wherein the injecting (102, 202) a rectification current into a positive or negative electrode of the to-be-rectified photovoltaic module comprises: determining a value of the rectification current for the to-be-rectified photovoltaic module and a length of a rectification time period of the to-be-rectified photovoltaic module; and injecting the current into the to-be-rectified photovoltaic module based on the determined value of the rectification current and the determined length of the rectification time period; determining a value of the rectification current for the to-be-rectified photovoltaic module and a length of a rectification time period of the to-be-rectified photovoltaic module; and injecting the current into the to-be-rectified photovoltaic module based on the determined value of the rectification current and the determined length of the rectification time period; characterized in that the method further comprises determining current environment information, wherein the current environment information comprises at least one of an ambient temperature, a wind speed, and a solar light intensity; and adjusting the determined value of the rectification current and the determined length of the rectification time period based on the current environment information.
A method of producing a tampon that can be introduced into a woman's vagina comprising a cylindrical absorbent body which has a summit with a convex crown area that tapers towards an axial end of the absorbent body, where "convex crown area" designates a surface shape where each single point on the surface of the summit can be connected with each other point on the surface of the summit by means of lines running within the summit, a material web of absorbent material being wound into a winding and the winding being pressed at least in sections in the radial and/or axial direction where the summit is at least partially being covered with a liquid-permeable covering material, characterized in that before the winding process a retrieval string is looped around the material web and the material web around which the retrieval string is looped runs through a knotting apparatus.