mhurhangee/ep-ind-claims huggingface dataset:
A high-Mn austenitic stainless steel for hydrogen having excellent weldability, the steel comprising, by mass%: C: 0.3% or less, Si: 0.1% to 1.5%, Mn: 5.5% to 20%, P: 0.050% or less, S: 0.005% or less, Cr: 10% to 20%, Ni: 4.0% to 12%, N: 0.40% or less, Cu: 4.0% or less, O: 0.02% or less, and either one or both of Ca: 0.01% or less and Al: 0.3% or less, further comprising: one or more selected from the group consisting of Sn, Zn, and Pb such that the amounts thereof satisfy the following Formula, and optionally further comprising, by mass%: Mo: 2.0% or less and/or optionally further comprising: one or more selected from the following groups: first group: by mass%, one or more of Ti: 1.0% or less, Nb: 1.0% or less, V: 1.0% or less, and W: 1.0% or less, second group: by mass%, Co: 1.0% or less, and third group: by mass%, Sb: 0.01% or less with a remainder being Fe and inevitable impurities, wherein the following Formula is satisfied: Ni + Cu + 12.93 C + 1.11 Mn + 0.72 Cr + 0.88 Mo − 0.27 Si + 7.55 N ≥ 29.3 [Si], [Ni], [Cu],, [Mn], [Cr], [Mo], and each represent an amount (mass%) of each element, and a value of an element which is not contained is set to 0, 1.2 ≥ 29 S + P + 4 O − 18 Ca − 0.4 Al − 0.02 Si + 5 Sn + Zn + Pb ≥ 0.18,,, [Ca], [Al], [Si], [Sn], [Zn], and [Pb] each represent an amount (mass%) of each element, and a value of an element which is not contained is set to 0. first group: by mass%, one or more of Ti: 1.0% or less, Nb: 1.0% or less, V: 1.0% or less, and W: 1.0% or less, second group: by mass%, Co: 1.0% or less, and third group: by mass%, Sb: 0.01% or less wherein the following Formula is satisfied: Ni + Cu + 12.93 C + 1.11 Mn + 0.72 Cr + 0.88 Mo − 0.27 Si + 7.55 N ≥ 29.3 [Si], [Ni], [Cu],, [Mn], [Cr], [Mo], and each represent an amount (mass%) of each element, and a value of an element which is not contained is set to 0, 1.2 ≥ 29 S + P + 4 O − 18 Ca − 0.4 Al − 0.02 Si + 5 Sn + Zn + Pb ≥ 0.18,,, [Ca], [Al], [Si], [Sn], [Zn], and [Pb] each represent an amount (mass%) of each element, and a value of an element which is not contained is set to 0.
A method of evaluating certificates respectively issued by a certificating authority on a device having a processor and communicating with a client set comprising various clients, the method comprising: executing on the processor instructions that cause the device to: receive from the set of clients a set of certificates presented to the clients and issued by a certificating authority; for respective certificating authorities: for respective certificates of the collected set of certificates issued by the certificating authority, determine a certificate trust level; and according to the certificate trust levels of the certificates issued by the certificating authority, determine a certificating authority trust level of the certificating authority; and distribute to the clients a certificating authority trust set identifying the certificating authority trust levels of the respective certificating authorities. receive from the set of clients a set of certificates presented to the clients and issued by a certificating authority; for respective certificating authorities: for respective certificates of the collected set of certificates issued by the certificating authority, determine a certificate trust level; and according to the certificate trust levels of the certificates issued by the certificating authority, determine a certificating authority trust level of the certificating authority; and for respective certificates of the collected set of certificates issued by the certificating authority, determine a certificate trust level; and according to the certificate trust levels of the certificates issued by the certificating authority, determine a certificating authority trust level of the certificating authority; and distribute to the clients a certificating authority trust set identifying the certificating authority trust levels of the respective certificating authorities.
A computer program for globally specifying a movement of a robot axis assembly and a movement of at least one further robot axis assembly, wherein the computer program is arranged to synchronize a pair of poses (q1_0; q1_4) of the movement of the robot axis assembly and a pair of poses (q2_0, q3_0; q2_5, q3_3) of the movement of at least one further robot axis assembly, and while this synchronization is being maintained, to selectively specify at least one further pose (q1_2, q2_2, q2_4) between one of these pairs of poses, which pose is not synchronised with a further pose between the thus synchronised pair of poses.
A feedstock line for additive manufacturing of an object, the feedstock line having a feedstock-line length and an exterior surface, defining an interior volume of the feedstock line, and comprising: elongate filaments, extending along at least a portion of the feedstock-line length; a resin, covering the elongate filaments; and optical direction modifiers, each extending along only a portion of the feedstock-line length; and wherein: the optical direction modifiers are covered by the resin and are interspersed among the elongate filaments; each of the optical direction modifiers has an outer surface; and each of the optical direction modifiers is configured such that when electromagnetic radiation strikes the outer surface from a first direction, at least a portion of the electromagnetic radiation departs the outer surface in a second direction that is at an angle to the first direction to irradiate, in the interior volume of the feedstock line, the resin that, due at least in part to the elongate filaments, is not directly accessible to the electromagnetic radiation, incident on the exterior surface of the feedstock line. elongate filaments, extending along at least a portion of the feedstock-line length; a resin, covering the elongate filaments; and optical direction modifiers, each extending along only a portion of the feedstock-line length; and wherein: the optical direction modifiers are covered by the resin and are interspersed among the elongate filaments; each of the optical direction modifiers has an outer surface; and each of the optical direction modifiers is configured such that when electromagnetic radiation strikes the outer surface from a first direction, at least a portion of the electromagnetic radiation departs the outer surface in a second direction that is at an angle to the first direction to irradiate, in the interior volume of the feedstock line, the resin that, due at least in part to the elongate filaments, is not directly accessible to the electromagnetic radiation, incident on the exterior surface of the feedstock line. the optical direction modifiers are covered by the resin and are interspersed among the elongate filaments; each of the optical direction modifiers has an outer surface; and each of the optical direction modifiers is configured such that when electromagnetic radiation strikes the outer surface from a first direction, at least a portion of the electromagnetic radiation departs the outer surface in a second direction that is at an angle to the first direction to irradiate, in the interior volume of the feedstock line, the resin that, due at least in part to the elongate filaments, is not directly accessible to the electromagnetic radiation, incident on the exterior surface of the feedstock line.
Method for transmitting a multi-carrier signal (SE1, SE2) implementing an OQAM-type modulation intended for transmission via a transmission channel (CH1, CH2), formed by a temporal succession of symbols consisting of a set of data elements comprising: - real-value informative data elements, and - for at least some of said symbols, reference data elements, so-called pilots, known by at least one receiver designed for receiving the multi-carrier signal, each of said data elements modulating a carrier frequency of said signal, a carrier frequency modulated by one of said data elements being called a carrier, a set of carriers (M1, M2) being allocated to a transmitter equipment (UE1, UE2), characterized in that said transmission method comprises a step of inserting a sequence of pilots (SP, SP') specific to said transmitter equipment (UE1, UE2) at a given time, TS, into the multi-carrier signal (SE1, SE2) on said allocated set of carriers, said sequence of pilots comprising: - a sequence of non-zero complex values, inserted on odd or even carriers, alternating with zero values, inserted on the other carriers, respectively even or odd-numbered, - the non-zero complex values of the sequence of pilots are chosen such that the modulated signal that is produced has a constant envelope, as does any time-frequency transform of this signal, and any inverse transform of this time-frequency transform, and - a sequence of zero values modulating the carriers of the set of carriers allocated at the following time, TS+τ0, where τ0 is the temporal spacing between two symbols. - real-value informative data elements, and - for at least some of said symbols, reference data elements, so-called pilots, known by at least one receiver designed for receiving the multi-carrier signal, - a sequence of non-zero complex values, inserted on odd or even carriers, alternating with zero values, inserted on the other carriers, respectively even or odd-numbered, - the non-zero complex values of the sequence of pilots are chosen such that the modulated signal that is produced has a constant envelope, as does any time-frequency transform of this signal, and any inverse transform of this time-frequency transform, and - a sequence of zero values modulating the carriers of the set of carriers allocated at the following time, TS+τ0, where τ0 is the temporal spacing between two symbols.
A marine hose comprising: a hose body that is formed from an inner surface rubber layer, a reinforcing layer formed on an outer peripheral side of the inner surface rubber layer, and a cover rubber layer formed on an outer peripheral side of the reinforcing layer; and a connection fitting provided at both ends in a longitudinal direction of the hose body, the connection fitting including a flange portion that has a connection end face and a cylindrical nipple portion that has a first end side connected to the flange portion; characterised by an inner peripheral side of the inner surface rubber layer and the nipple portion being covered with a single resin layer, and only the resin layer extending and being folded back to the connection end face of the flange portion and the resin layer being bonded to the connection end face via an adhesive layer. a hose body that is formed from an inner surface rubber layer, a reinforcing layer formed on an outer peripheral side of the inner surface rubber layer, and a cover rubber layer formed on an outer peripheral side of the reinforcing layer; and a connection fitting provided at both ends in a longitudinal direction of the hose body, the connection fitting including a flange portion that has a connection end face and a cylindrical nipple portion that has a first end side connected to the flange portion; characterised by an inner peripheral side of the inner surface rubber layer and the nipple portion being covered with a single resin layer, and only the resin layer extending and being folded back to the connection end face of the flange portion and the resin layer being bonded to the connection end face via an adhesive layer.
A DC breaker module suitable for use in a high voltage DC circuit comprising: at least a first breaker circuit enclosed within a conductive enclosure; the enclosure being configured such that, in use, the first breaker circuit can be connected in an electrical path with a circuit external to the conductive enclosure; characterised in that the conductive enclosure is further configured to be connected to a node of the electrical path such that, in use, the conductive enclosure is at the same voltage potential as the node of the circuit path. at least a first breaker circuit enclosed within a conductive enclosure; the enclosure being configured such that, in use, the first breaker circuit can be connected in an electrical path with a circuit external to the conductive enclosure; characterised in that the conductive enclosure is further configured to be connected to a node of the electrical path such that, in use, the conductive enclosure is at the same voltage potential as the node of the circuit path.
A magazine for storing and launching countermeasures arranged in cartridges, comprising a plurality of longitudinal cartridge cases forming the magazine, where each cartridge case comprises side walls and a front opening and a centre axis, wherein the side walls of two adjacent cartridge cases are arranged to each other in a slidable manner in a longitudinal direction, and where the magazine comprises a tilting means adapted to tilt the cartridge cases, such that the openings of the cartridge cases can be directed in a selected direction.
A method for drilling a well along a planned trajectory, the method comprising: (a) classifying a set of predetermined downlink commands, the downlink commands configured to control a steerable drilling tool; (b) receiving downhole data from the steerable drilling tool; (c) processing said downhole data received at (b) in combination with a planned trajectory to compute a desired downlink setting, the desired downlink setting including a desired toolface and a desired steer ratio for the steerable drilling tool"; (d) comparing the desired downlink setting with a current downlink setting of the steerable drilling tool to compute an error; (e) comparing the error with a predetermined tolerance; wherein the method is characterised by (f) creating a downlink path when the error computed in (d) exceeds the predetermined tolerance in (e) said downlink path consisting of a plurality of the downlink commands classified in (a), the downlink commands being recognizable by the steerable drilling tool and the downlink path being configured to transition the steerable drilling tool in incremental steps from the current downlink setting to the desired downlink setting computed in (c); and (g) sequentially downlinking the plurality of downlink commands that make up the downlink path generated in (f) to the steerable drilling tool to cause the steerable drilling tool to control a trajectory of drilling along the planned trajectory. (a) classifying a set of predetermined downlink commands, the downlink commands configured to control a steerable drilling tool; (b) receiving downhole data from the steerable drilling tool; (c) processing said downhole data received at (b) in combination with a planned trajectory to compute a desired downlink setting, the desired downlink setting including a desired toolface and a desired steer ratio for the steerable drilling tool"; (d) comparing the desired downlink setting with a current downlink setting of the steerable drilling tool to compute an error; (e) comparing the error with a predetermined tolerance; wherein the method is characterised by (f) creating a downlink path when the error computed in (d) exceeds the predetermined tolerance in (e) said downlink path consisting of a plurality of the downlink commands classified in (a), the downlink commands being recognizable by the steerable drilling tool and the downlink path being configured to transition the steerable drilling tool in incremental steps from the current downlink setting to the desired downlink setting computed in (c); and (g) sequentially downlinking the plurality of downlink commands that make up the downlink path generated in (f) to the steerable drilling tool to cause the steerable drilling tool to control a trajectory of drilling along the planned trajectory.
A hair colouring composition comprising, in a cosmetically acceptable carrier: - one or more oxidizing agent(s); - one or more alkalizing agent(s); - one or more oxidative dye precursor(s) selected from the group consisting of 2-methoxymethyl-p-phenylenediamine, cosmetically acceptable salts thereof and mixtures thereof; - one or more oil(s), wherein the composition comprises a total amount of oil(s) of more than 20%, preferably at least 30%, more preferably at least 50 % by total weight of the composition. - one or more oxidizing agent(s); - one or more alkalizing agent(s); - one or more oxidative dye precursor(s) selected from the group consisting of 2-methoxymethyl-p-phenylenediamine, cosmetically acceptable salts thereof and mixtures thereof; - one or more oil(s),
A member for roofing or ceiling, comprising: an outdoor-side heat insulating layer; an indoor-side heat insulating layer; and a heat storage layer between the outdoor-side heat insulating layer and the indoor-side heat insulating layer, wherein R ≤ 0.10 where R is represented by Equation: R = 2 R 1 − 0.5 2 + R 2 − 1 2 + R 3 − 0.55 2 where R1 is represented by Equation: R 1 = Tb / Kb / Ta / Ka + Tb / Kb where Ka is a thermal conductivity of the outdoor-side heat insulating layer, Ta is a thickness of the outdoor-side heat insulating layer, Kb is a thermal conductivity of the indoor-side heat insulating layer, and Tb is a thickness of the indoor-side heat insulating layer, R2 is a ratio of a latent heat amount of the heat storage layer in a temperature range of 15°C to 50°C with respect to a latent heat amount of the heat storage layer in a temperature range of -10°C to 60°C, and R3 is represented by Equation: R 3 = L 5 / L 20 where L5 is a latent heat amount of the heat storage layer in a temperature range X, and L20 is a latent heat amount of the heat storage layer in a temperature range of (X' - 10)°C inclusive to (X' + 10)°C inclusive, X is a 5°C-width temperature range in which the latent heat amount of the heat storage layer is the largest among latent heat amounts of given 5°C-width temperature ranges within the temperature range of -10°C to 60°C, X' is a center temperature of the temperature range X, and a latent heat amount is a value measured according to JSTM O6101:2018, characterised in that R3 is not less than 0.30 and not more than 0.75. an outdoor-side heat insulating layer; an indoor-side heat insulating layer; and a heat storage layer between the outdoor-side heat insulating layer and the indoor-side heat insulating layer, wherein R ≤ 0.10 where R is represented by Equation: R = 2 R 1 − 0.5 2 + R 2 − 1 2 + R 3 − 0.55 2 where R1 is represented by Equation: R 1 = Tb / Kb / Ta / Ka + Tb / Kb where Ka is a thermal conductivity of the outdoor-side heat insulating layer, Ta is a thickness of the outdoor-side heat insulating layer, Kb is a thermal conductivity of the indoor-side heat insulating layer, and Tb is a thickness of the indoor-side heat insulating layer, R2 is a ratio of a latent heat amount of the heat storage layer in a temperature range of 15°C to 50°C with respect to a latent heat amount of the heat storage layer in a temperature range of -10°C to 60°C, and R3 is represented by Equation: R 3 = L 5 / L 20 where L5 is a latent heat amount of the heat storage layer in a temperature range X, and L20 is a latent heat amount of the heat storage layer in a temperature range of (X' - 10)°C inclusive to (X' + 10)°C inclusive, X is a 5°C-width temperature range in which the latent heat amount of the heat storage layer is the largest among latent heat amounts of given 5°C-width temperature ranges within the temperature range of -10°C to 60°C, X' is a center temperature of the temperature range X, and a latent heat amount is a value measured according to JSTM O6101:2018, characterised in that R3 is not less than 0.30 and not more than 0.75.
An electrodynamic-transducer magnetic motor device with a moving coil, comprising a magnetic circuit consisting of an annular bonded magnet, characterized in that said annular bonded magnet has a hollow annular structure, said hollow annular structure comprising an annular cavity connected to a top part of an outer surface of said hollow annular structure by a first annular channel forming a first air gap in which a first winding of the moving coil can move, the annular cavity being formed by an internal hollow volume arranged inside the solid body of the annular bonded magnet and bounded by an inner surface of the annular bonded magnet, said outer surface of the annular bonded magnet being radially at a distance from said inner surface of the annular bonded magnet and being connected to said inner surface by a solid portion of the annular bonded magnet forming a thickness of residual magnetic material between said inner surface bounding said annular cavity inside the solid body of the annular bonded magnet and said outer surface of the annular bonded magnet, the intersection of said inner surface and said outer surface of the annular bonded magnet respectively with an axial plane of the annular bonded magnet forming a circle or an ellipse.
A respiratory assistance device, comprising: a blower with an output; a patient ventilation interface configured for fitment on a patient respiratory passageway, the patient ventilation interface including a piloted exhalation valve; a gas passage conduit coupling the output of the blower to the patient ventilation interface, a pilot line from the gas passage conduit being coupled to a pilot of the exhalation valve; a first pressure sensor measuring a mask pressure in the patient ventilation interface; a second pressure sensor measuring a blower pressure at the output of the blower; and a pressure controller in communication with the first pressure sensor and the second pressure sensor, the pressure controller being configured to detect a patient inspiratory phase and a patient expiratory phase based upon measurements of pressure differential between the first pressure sensor and the second pressure sensor, wherein therapeutic airflow is delivered to the patient during the patient inspiratory phase and exhausted through the piloted exhalation valve during the patient expiratory phase. a blower with an output; a patient ventilation interface configured for fitment on a patient respiratory passageway, the patient ventilation interface including a piloted exhalation valve; a gas passage conduit coupling the output of the blower to the patient ventilation interface, a pilot line from the gas passage conduit being coupled to a pilot of the exhalation valve; a first pressure sensor measuring a mask pressure in the patient ventilation interface; a second pressure sensor measuring a blower pressure at the output of the blower; and a pressure controller in communication with the first pressure sensor and the second pressure sensor, the pressure controller being configured to detect a patient inspiratory phase and a patient expiratory phase based upon measurements of pressure differential between the first pressure sensor and the second pressure sensor, wherein therapeutic airflow is delivered to the patient during the patient inspiratory phase and exhausted through the piloted exhalation valve during the patient expiratory phase.
A superconducting current limiter having at least one superconducting conductor wound so as to form a coil extending in a single plane and connecting a first electrical connection terminal to a second electrical connection terminal, an electrically insulating spacer being arranged between two turns of the coil, the superconducting conductor consists of at least two separate superconducting cables wound in parallel and whose ends are electrically connected by the first electrical connection terminal and by the second electrical connection terminal, and an electrically conductive spacer arranged between two of said separate superconducting cables, this electrically conductive spacer being able to be traversed by a cooling fluid, characterized by the electrically conductive spacer providing an electrical continuity between these two superconducting cables.