mhurhangee/ep-ind-claims huggingface dataset:
Cold-rolled and heat-treated steel sheet, made of a steel having a composition comprising, by weight percent: C: 0.3 - 0.4 % Mn: 2.0 - 2.6 % 0.8% ≤ Si <1.5% Al: 0.01 - 0.6 % Mo: 0.15 - 0.5 % Cr: 0.3 - 1.0 % Nb: 0.0010% - 0.06 % Ti: 0.0010% - 0.06% B: 0.0003 - 0.005 % Ni ≤ 0.8 % S ≤ 0.010 % P ≤ 0.020 % N ≤ 0.008 %Cu ≤ 0.03% and comprising optionally one or more of the following elements, in weight percentage: V ≤ 0.2 % the remainder of the composition being iron and unavoidable impurities resulting from the smelting, said steel sheet having a microstructure consisting of, in surface fraction: - between 15% and 30% of retained austenite, said retained austenite having a carbon content of at least 0.7% - between 70% and 85% of tempered martensite and - at most 5% of fresh martensite and - at most 5% of bainite. C: 0.3 - 0.4 % Mn: 2.0 - 2.6 % 0.8% ≤ Si <1.5% Al: 0.01 - 0.6 % Mo: 0.15 - 0.5 % Cr: 0.3 - 1.0 % Nb: 0.0010% - 0.06 % Ti: 0.0010% - 0.06% B: 0.0003 - 0.005 % Ni ≤ 0.8 % S ≤ 0.010 % P ≤ 0.020 % N ≤ 0.008 %Cu ≤ 0.03% and comprising optionally one or more of the following elements, in weight percentage: V ≤ 0.2 % the remainder of the composition being iron and unavoidable impurities resulting from the smelting, said steel sheet having a microstructure consisting of, in surface fraction: - between 15% and 30% of retained austenite, said retained austenite having a carbon content of at least 0.7% - between 70% and 85% of tempered martensite and - at most 5% of fresh martensite and - at most 5% of bainite. - between 15% and 30% of retained austenite, said retained austenite having a carbon content of at least 0.7% - between 70% and 85% of tempered martensite and - at most 5% of fresh martensite and - at most 5% of bainite.
A power production system comprising: a combustor; a turbine; a first compressor on a common shaft with the turbine; an oxidant compressor; an exhaust flow line (126, 128) configured for passage of a turbine exhaust stream from the turbine to the first compressor; a recycle flow line configured for passage of a CO 2 recycle stream from the first compressor to the combustor; an oxidant flow line (140, 142, 144) configured for passage of an oxidant stream from the oxidant compressor to the combustor; a bypass line (141, 146) configured for controllable passage of at least a portion of the oxidant stream from the oxidant flow line (140, 142, 144) to the recycle flow line; characterized by the turbine including a gland seal and an air input; and a gland seal compressor configured to receive and compress a stream of air and turbine exhaust from the gland seal. a combustor; a turbine; a first compressor on a common shaft with the turbine; an oxidant compressor; an exhaust flow line (126, 128) configured for passage of a turbine exhaust stream from the turbine to the first compressor; a recycle flow line configured for passage of a CO 2 recycle stream from the first compressor to the combustor; an oxidant flow line (140, 142, 144) configured for passage of an oxidant stream from the oxidant compressor to the combustor; a bypass line (141, 146) configured for controllable passage of at least a portion of the oxidant stream from the oxidant flow line (140, 142, 144) to the recycle flow line; characterized by the turbine including a gland seal and an air input; and a gland seal compressor configured to receive and compress a stream of air and turbine exhaust from the gland seal.
A method performed by a first communication device in communication with a second communication device, the first communication device comprising means for communicating with the second communication device, the method comprising the first communication device performing the steps of: generating first display data, pertaining to elements of a first active application currently being executed on the first communication device, for display on a first display of the first communication device; outputting the display data to the first display; characterised in that the method further comprises the first communication device performing the steps of: receiving capability data from the second communication device; generating link data based on the received capability data pertaining to a subset of the elements of the first active application, wherein the link data comprises application type data of the first active application to allow an application corresponding to the first active application to be launched on the second communication device; and outputting the generated link data to the second communication device. generating first display data, pertaining to elements of a first active application currently being executed on the first communication device, for display on a first display of the first communication device; outputting the display data to the first display; characterised in that the method further comprises the first communication device performing the steps of: receiving capability data from the second communication device; generating link data based on the received capability data pertaining to a subset of the elements of the first active application, wherein the link data comprises application type data of the first active application to allow an application corresponding to the first active application to be launched on the second communication device; and outputting the generated link data to the second communication device. receiving capability data from the second communication device; generating link data based on the received capability data pertaining to a subset of the elements of the first active application, wherein the link data comprises application type data of the first active application to allow an application corresponding to the first active application to be launched on the second communication device; and outputting the generated link data to the second communication device.
A device (100, 500) for selecting a communication channel of an access point (110, 120) managed by the device (100, 500) in a wireless communication network (111, 121) from a set of communication channels; wherein the wireless communication network overlaps with a neighbouring wireless communication network not managed by the device (100, 500); characterized in that the device comprises: - a learning module configured to determine, for each combination of channels in the set, a probability that, when the access point switches to a first channel of the combination, an access point of the neighbouring network will reconfigure to a second channel of the combination; and - a performance module configured to determine, for each combination of channels in the set, a performance metric indicative for a gain obtained by switching the communication channel of the access point to the first channel; and - a selection module configured to select an optimal communication channel for the access point based on the determined performance metric and the determined probability of each combination. - a learning module configured to determine, for each combination of channels in the set, a probability that, when the access point switches to a first channel of the combination, an access point of the neighbouring network will reconfigure to a second channel of the combination; and - a performance module configured to determine, for each combination of channels in the set, a performance metric indicative for a gain obtained by switching the communication channel of the access point to the first channel; and - a selection module configured to select an optimal communication channel for the access point based on the determined performance metric and the determined probability of each combination.
Combustion chamber comprising a neck downstream of the injection of gases, and downstream of this neck a divergent section whereof the outer face of the wall, when in operation, is cooled by a cooling system using a cryogenic product and surrounding the said outer face, this divergent section being characterized in that on the inner face of its wall it comprises a coating acting as temperature compensator so that the temperature of the inner face of said coating is higher than the condensation temperature of the combustion gases on this inner face under operating conditions, such that no condensation is formed on this inner face.
A method for detecting a mechanical defect of an electrical pump actuated by an electrical machine electrically supplied by a three-phase electrical supply network, said method comprising: a step (10, 11) for sampling the three-phase tensions and three-phase currents at the input of the electrical machine; a step for filtering the sampled tensions and three-phase currents; a step (12, 13) for transforming the sampled tensions and currents in a two-phase benchmark; a step for valuing the phase of the electrical impedance of said electric rotating machine according to said transformed tensions and currents; a step for computing at least a value representative of the electrical impedance time evolution according to said calculated electrical impedance phase, and a step for detecting a defect of the mechanical pump comprising the comparison of said at least one value representative of the calculated electrical impedance time evolution with at least a predetermined reference value. a step (10, 11) for sampling the three-phase tensions and three-phase currents at the input of the electrical machine; a step for filtering the sampled tensions and three-phase currents; a step (12, 13) for transforming the sampled tensions and currents in a two-phase benchmark; a step for valuing the phase of the electrical impedance of said electric rotating machine according to said transformed tensions and currents; a step for computing at least a value representative of the electrical impedance time evolution according to said calculated electrical impedance phase, and a step for detecting a defect of the mechanical pump comprising the comparison of said at least one value representative of the calculated electrical impedance time evolution with at least a predetermined reference value.
A bimetal thermo mechanical actuator for positioning within a turbine engine between a stationary component and a moved component of the turbine engine for adjusting a clearance distance, comprising: a multi-layer bimetal structure comprising a plurality of bimetal structures, wherein each bimetal structure comprises a pair of metals, a structural metal and a driving metal, bonded together along a bonded interface, with the pair of metals forming one layer, wherein a sliding interface is there between each pair of metals, wherein the multi-layer bimetal structure has a shape with at least one arch having a first end and a second end on opposite ends of a length of the multi-layer bimetal structure, an inner edge and inner radius, an outer edge and an outer radius; and a first pivot head connected to the first end and a second pivot head connected to the second end of the multi-layer bimetal structure, wherein each pivot head includes a through-hole located approximately center of each pivot head, wherein the multi-layer bimetal structure expands and contracts with temperature changes. a multi-layer bimetal structure comprising a plurality of bimetal structures, wherein each bimetal structure comprises a pair of metals, a structural metal and a driving metal, bonded together along a bonded interface, with the pair of metals forming one layer, wherein a sliding interface is there between each pair of metals, wherein the multi-layer bimetal structure has a shape with at least one arch having a first end and a second end on opposite ends of a length of the multi-layer bimetal structure, an inner edge and inner radius, an outer edge and an outer radius; and a first pivot head connected to the first end and a second pivot head connected to the second end of the multi-layer bimetal structure, wherein each pivot head includes a through-hole located approximately center of each pivot head, wherein the multi-layer bimetal structure expands and contracts with temperature changes.
A swash plate having a sliding surface (3A, 3B) that slides with respect to a shoe, comprising: a substrate made of any of iron-, aluminum-, or copper-based materials; a hard first resin layer provided to coat a surface of the substrate and having an annular groove formed in an outer side surface; and a soft second resin layer provided to coat the surface of the first resin layer and formed to match a sectional shape of the annular groove in the first resin layer, wherein an annular groove is maintained on the surface of the second resin layer to match the shape of the surface of the first resin layer, and minute irregularities are formed in the entire surface of the second resin layer, wherein in an initial stage of sliding with respect to the shoe, the second resin layer is the sliding surface, and when the second resin layer partially wears and a protrusion of the annular groove in the first resin layer is exposed, the protrusion and the second resin layer adjacent to the protrusion are the sliding surface (3A, 3B). a substrate made of any of iron-, aluminum-, or copper-based materials; a hard first resin layer provided to coat a surface of the substrate and having an annular groove formed in an outer side surface; and a soft second resin layer provided to coat the surface of the first resin layer and formed to match a sectional shape of the annular groove in the first resin layer, wherein an annular groove is maintained on the surface of the second resin layer to match the shape of the surface of the first resin layer, and minute irregularities are formed in the entire surface of the second resin layer, wherein in an initial stage of sliding with respect to the shoe, the second resin layer is the sliding surface, and when the second resin layer partially wears and a protrusion of the annular groove in the first resin layer is exposed, the protrusion and the second resin layer adjacent to the protrusion are the sliding surface (3A, 3B).
An apparatus for processing particulate matter by exposing the particulate matter to successive surface reactions of at least a first and a second gaseous precursor according to the principles of atomic layer deposition method, the apparatus comprising a reaction chamber for particulate matter, and a vibration mechanism arranged to vibrate the reaction chamber for vibrating particulate matter inside the reaction chamber, wherein the apparatus comprises a vacuum chamber, the reaction chamber is provided inside the vacuum chamber; a precursor system arranged to supply the at least first and second gaseous precursors through the reaction chamber for subjecting the particulate matter to the at least first and second gaseous precursors, the precursor system comprises an inlet to supply the gaseous precursors to a bottom part of the reaction chamber and an outlet to discharge the gaseous precursors from a top part of the reaction chamber and said precursor system is arranged outside the vacuum chamber such that the inlet is arranged to go through the vacuum chamber and to the reaction chamber; and characterized in that the reaction chamber is arranged on a platform in the vacuum chamber, the platform comprising the vibration mechanism for vibrating particulate matter inside the reaction chamber. a reaction chamber for particulate matter, and a vibration mechanism arranged to vibrate the reaction chamber for vibrating particulate matter inside the reaction chamber, wherein the apparatus comprises a vacuum chamber, the reaction chamber is provided inside the vacuum chamber; a precursor system arranged to supply the at least first and second gaseous precursors through the reaction chamber for subjecting the particulate matter to the at least first and second gaseous precursors, the precursor system comprises an inlet to supply the gaseous precursors to a bottom part of the reaction chamber and an outlet to discharge the gaseous precursors from a top part of the reaction chamber and said precursor system is arranged outside the vacuum chamber such that the inlet is arranged to go through the vacuum chamber and to the reaction chamber; and characterized in that the reaction chamber is arranged on a platform in the vacuum chamber, the platform comprising the vibration mechanism for vibrating particulate matter inside the reaction chamber.
An amusement park ride, comprising: a passenger compartment mounted on a vehicle support; a guide track defining a ride path for the amusement park ride; a vehicle chassis engaging the guide track to travel along the ride path during operation of the amusement park ride; and a cam-based positioning assembly supported by the vehicle chassis, wherein the cam-based positioning assembly is connected to the vehicle support and operates in response the travel of the vehicle chassis to rotate the passenger compartment, wherein the cam-based positioning assembly comprises a cam shaft pivotally mounted within the vehicle chassis and having an end extending into the vehicle support to provide a rotating output to rotate the passenger compartment, and characterised in that the cam-based positioning assembly includes first, second, and third cam followers (160, 164, 170) connected to the cam shaft and extending outward from the cam shaft at angular offsets of about 60 degrees from an adjacent one of the cam followers. a passenger compartment mounted on a vehicle support; a guide track defining a ride path for the amusement park ride; a vehicle chassis engaging the guide track to travel along the ride path during operation of the amusement park ride; and a cam-based positioning assembly supported by the vehicle chassis, wherein the cam-based positioning assembly is connected to the vehicle support and operates in response the travel of the vehicle chassis to rotate the passenger compartment, wherein the cam-based positioning assembly comprises a cam shaft pivotally mounted within the vehicle chassis and having an end extending into the vehicle support to provide a rotating output to rotate the passenger compartment, and characterised in that the cam-based positioning assembly includes first, second, and third cam followers (160, 164, 170) connected to the cam shaft and extending outward from the cam shaft at angular offsets of about 60 degrees from an adjacent one of the cam followers.
A method of packing items in a print bed of a 3-D printer, the method comprising: predetermining one or more layouts for the print bed of the 3-D printer, each layout comprising a plurality of shapes; receiving a set comprising a plurality of items, wherein the set is stored in a computer readable medium, and the items are to be printed by the 3-D printer; determining one or more print bed configurations formed by assigning to each shape in the layout an item from the set, wherein the item matches the shape; scoring, using a processor, each print bed configuration; and selecting one print bed configuration based at least in part upon the scoring. predetermining one or more layouts for the print bed of the 3-D printer, each layout comprising a plurality of shapes; receiving a set comprising a plurality of items, wherein the set is stored in a computer readable medium, and the items are to be printed by the 3-D printer; determining one or more print bed configurations formed by assigning to each shape in the layout an item from the set, wherein the item matches the shape; scoring, using a processor, each print bed configuration; and selecting one print bed configuration based at least in part upon the scoring.
A nucleic acid for use in a method of therapy, said nucleic acid comprising a nucleotide sequence encoding an artificial T cell receptor which binds specifically to claudin-6 (CLDN6), wherein said artificial T cell receptor comprises a binding domain for CLDN6, a transmembrane domain and a T cell signaling domain, wherein the T cell signaling domain comprises the endodomain of CD3-zeta, optionally in combination with CD28, and wherein said method comprises expressing said artificial T cell receptor in T cells of a cancer patient, wherein binding of said artificial T cell receptor, when expressed by T cells, to CLDN6 present on cancer cells results in proliferation and activation of the T cells.
A method comprising: queuing a message into a buffer at a first time; generating a stamp message representative of a number of messages in the buffer at the first time; transmitting the message to a trace apparatus; and transmitting the stamp message to the trace apparatus to allow the trace apparatus to calculate a time when the message was queued based on the stamp message and the time the message arrived at the trace apparatus. queuing a message into a buffer at a first time; generating a stamp message representative of a number of messages in the buffer at the first time; transmitting the message to a trace apparatus; and transmitting the stamp message to the trace apparatus to allow the trace apparatus to calculate a time when the message was queued based on the stamp message and the time the message arrived at the trace apparatus.
Liquid (meth)acrylic syrup for impregnating a fibrous substrate, said fibrous substrate consisting of long glass fibers of refractive index n1, said impregnation syrup being characterized in that it comprises: a) a (meth)acrylic monomer, b) at least one component, of refractive index n3, such that n3 ≥ n1, said (meth)acrylic syrup having a refractive index n4 which tends toward n1 and a dynamic viscosity of between 10 mPa.s and 10 000 mPa.s, preferably between 50 mPa.s and 5000 mPa.s and advantageously between 100 mPa.s and 1000 mPa.s; in that said at least one component b) is chosen from: - styrene-maleic anhydride polymer, present in a proportion of at least 10% by weight of the total liquid (meth)acrylic syrup; or - styrene, present in a proportion of at least 10% by weight of the total liquid (meth)acrylic syrup. a) a (meth)acrylic monomer, b) at least one component, of refractive index n3, such that n3 ≥ n1, said (meth)acrylic syrup having a refractive index n4 which tends toward n1 and a dynamic viscosity of between 10 mPa.s and 10 000 mPa.s, preferably between 50 mPa.s and 5000 mPa.s and advantageously between 100 mPa.s and 1000 mPa.s; in that said at least one component b) is chosen from: - styrene-maleic anhydride polymer, present in a proportion of at least 10% by weight of the total liquid (meth)acrylic syrup; or - styrene, present in a proportion of at least 10% by weight of the total liquid (meth)acrylic syrup. - styrene-maleic anhydride polymer, present in a proportion of at least 10% by weight of the total liquid (meth)acrylic syrup; or - styrene, present in a proportion of at least 10% by weight of the total liquid (meth)acrylic syrup.