mhurhangee/ep-ind-claims huggingface dataset:
A hot-dip galvanized steel sheet comprising: a steel sheet; a boundary layer provided on the steel sheet; and a hot-dip galvanized layer provided on the boundary layer, wherein the steel sheet contains, as a chemical composition, by mass%, C: 0.18% to 0.50%, Si: 0.10% to 1.50%, Mn: 0.50% to 2.50%, Al: 0.001% to 0.100%, Ti: 0.010% to 0.100%, S: 0.0100% or less, P: 0.100% or less, N: 0.0100% or less, Nb: 0% to 0.05%, V: 0% to 0.50%, Cr: 0% to 0.50%, Mo: 0% to 0.50%, B: 0% to 0.0100%, Ni: 0% to 2.00%, a sum of REM, Ca, Co, and Mg: 0% to 0.0300%, and a remainder consisting of Fe and impurities, in a region between a surface of the steel sheet and a depth of 25 μm from the surface of the steel sheet, an average grain size exceeds 4.0 μm, in a region between a depth of 50 μm from the surface of the steel sheet and a depth of 100 μm from the surface of the steel sheet, an area ratio of unrecrystallized ferrite is 50% or more, and in the hot-dip galvanized layer, a maximum value of a C concentration is 0.05 mass% or more, wherein the average grain size, the area ratio of unrecrystallized ferrite, and the maximum value of a C concentration is measured as described in the description. a steel sheet; a boundary layer provided on the steel sheet; and a hot-dip galvanized layer provided on the boundary layer, wherein the steel sheet contains, as a chemical composition, by mass%, C: 0.18% to 0.50%, Si: 0.10% to 1.50%, Mn: 0.50% to 2.50%, Al: 0.001% to 0.100%, Ti: 0.010% to 0.100%, S: 0.0100% or less, P: 0.100% or less, N: 0.0100% or less, Nb: 0% to 0.05%, V: 0% to 0.50%, Cr: 0% to 0.50%, Mo: 0% to 0.50%, B: 0% to 0.0100%, Ni: 0% to 2.00%, a sum of REM, Ca, Co, and Mg: 0% to 0.0300%, and a remainder consisting of Fe and impurities, C: 0.18% to 0.50%, Si: 0.10% to 1.50%, Mn: 0.50% to 2.50%, Al: 0.001% to 0.100%, Ti: 0.010% to 0.100%, S: 0.0100% or less, P: 0.100% or less, N: 0.0100% or less, Nb: 0% to 0.05%, V: 0% to 0.50%, Cr: 0% to 0.50%, Mo: 0% to 0.50%, B: 0% to 0.0100%, Ni: 0% to 2.00%, a sum of REM, Ca, Co, and Mg: 0% to 0.0300%, and a remainder consisting of Fe and impurities, in a region between a surface of the steel sheet and a depth of 25 μm from the surface of the steel sheet, an average grain size exceeds 4.0 μm, in a region between a depth of 50 μm from the surface of the steel sheet and a depth of 100 μm from the surface of the steel sheet, an area ratio of unrecrystallized ferrite is 50% or more, and in the hot-dip galvanized layer, a maximum value of a C concentration is 0.05 mass% or more, wherein the average grain size, the area ratio of unrecrystallized ferrite, and the maximum value of a C concentration is measured as described in the description.
A pharmaceutical composition for use in inhibiting metastasis of cancer, comprising a benproperine derivative represented by Formula 1 or pharmaceutically acceptable salts thereof as an active ingredient, and pharmaceutically acceptable carrier, wherein R 1 and R 2 are independently hydrogen or hydroxyl.
A GEO and LEO/MEO satellite communication dual role antenna assembly, comprising: a ground plane; at least two curled inverted-F substantially omnidirectional antennas (2a,2b) mounted on the ground plane, said antennas having asymmetrical gain patterns favoring certain sectors, and said antennas being oriented such that the favored sectors of the different antenna face different directions, wherein the asymmetric gain patterns of said antennas are tilted in relation to the horizon with said antennas having optimum low elevation performance facing in different directions; an RF beam selection switch for selectively connecting said antennas to an RF front-end; a controller controlling said RF beam selection switch in accordance with predetermined performance criteria; and a received signal strength monitor configured to provide a received signal strength indication of a GEO satellite, wherein the predetermined performance criteria comprises the received signal strength indication, and wherein the controller is configured to control the RF beam selection switch to selectively connect the antenna having an optimum low elevation performance in a desired direction for said GEO satellite, whilst maintaining substantially omnidirectional coverage for LEO/MEO satellite communication. a ground plane; at least two curled inverted-F substantially omnidirectional antennas (2a,2b) mounted on the ground plane, said antennas having asymmetrical gain patterns favoring certain sectors, and said antennas being oriented such that the favored sectors of the different antenna face different directions, wherein the asymmetric gain patterns of said antennas are tilted in relation to the horizon with said antennas having optimum low elevation performance facing in different directions; an RF beam selection switch for selectively connecting said antennas to an RF front-end; a controller controlling said RF beam selection switch in accordance with predetermined performance criteria; and a received signal strength monitor configured to provide a received signal strength indication of a GEO satellite, wherein the predetermined performance criteria comprises the received signal strength indication, and wherein the controller is configured to control the RF beam selection switch to selectively connect the antenna having an optimum low elevation performance in a desired direction for said GEO satellite, whilst maintaining substantially omnidirectional coverage for LEO/MEO satellite communication.
A control system (100, 300), wherein the control system (100, 300) comprises: a plurality of zone control circuits (320, 400) operable to provide power to a plurality of heater zones of a heater system and to sense electrical characteristics of the heater zones; at least two auxiliary controllers coupled to the plurality of zone control circuits (320, 400), wherein the at least two auxiliary controllers are configured to control power to the plurality of heater zones via the plurality of zone control circuits (320, 400) and monitor operation of the heater zones based on the electrical characteristics; and a primary controller coupled to the at least two auxiliary controllers, the primary controller being configured to provide an operation set-point for each of the heater zones based on the electrical characteristics, wherein the at least two auxiliary controllers operate the zone control circuits (320, 400) to supply power to the heater system based on the operation set-point, wherein the at least two auxiliary controllers are communicably coupled to each other and each of the auxiliary controllers is configured to exchange results with the other auxiliary controllers to perform a diagnostic verification check. a plurality of zone control circuits (320, 400) operable to provide power to a plurality of heater zones of a heater system and to sense electrical characteristics of the heater zones; at least two auxiliary controllers coupled to the plurality of zone control circuits (320, 400), wherein the at least two auxiliary controllers are configured to control power to the plurality of heater zones via the plurality of zone control circuits (320, 400) and monitor operation of the heater zones based on the electrical characteristics; and a primary controller coupled to the at least two auxiliary controllers, the primary controller being configured to provide an operation set-point for each of the heater zones based on the electrical characteristics, wherein the at least two auxiliary controllers operate the zone control circuits (320, 400) to supply power to the heater system based on the operation set-point, wherein the at least two auxiliary controllers are communicably coupled to each other and each of the auxiliary controllers is configured to exchange results with the other auxiliary controllers to perform a diagnostic verification check.
An inhibitor of aldose reductase for use in treating a cardiovascular disorder or complications arising from diabetes, wherein the aldose reductase inhibitor is a compound of formula or a pharmaceutically acceptable salt or solvate thereof, wherein, R 1 is H, (C 1 -C 6)-alkyl, (C 1 -C 6)-hydroxyalkyl, or (C 1 -C 6)-aminoalkyl; X 1 is N or CR 3; X 2 is N or CR 4; X 3 is N or CR 5; X 4 is N or CR 6; with the proviso that two or three of X 1, X 2, X 3, or X 4 are N; Y is a bond, C=O, C=S, C=NH, or C=N(C 1 -C 4)-alkyl; Z is A 1 is NR 11, O, S or CH 2; A 2 is N or CH; A 3 is NR 11, O, or S; R 3 through R 10 are independently hydrogen, halogen, cyano, acyl, haloalkyl, haloalkoxy, haloalkylthio, trifluoroacetyl, (C 1 -C 4)-alkyl, (C 1 -C 4)-alkoxy, (C 1 -C 4)-alkylthio, (C 1 -C 4)-alkylsulfinyl, or (C 1 -C 4)-alkylsulfonyl; or two of R 3 through R 6 or two of R 7 through R 10 taken together are (C 1 -C 4)-alkylenedioxy; and R 11 is hydrogen, C 1 -C 4 alkyl, or C O-(C 1 -C 4)-alkyl. X 1 is N or CR 3; X 2 is N or CR 4; X 3 is N or CR 5; X 4 is N or CR 6; with the proviso that two or three of X 1, X 2, X 3, or X 4 are N; Y is a bond, C=O, C=S, C=NH, or C=N(C 1 -C 4)-alkyl; Z is A 1 is NR 11, O, S or CH 2; A 2 is N or CH; A 3 is NR 11, O, or S; R 3 through R 10 are independently hydrogen, halogen, cyano, acyl, haloalkyl, haloalkoxy, haloalkylthio, trifluoroacetyl, (C 1 -C 4)-alkyl, (C 1 -C 4)-alkoxy, (C 1 -C 4)-alkylthio, (C 1 -C 4)-alkylsulfinyl, or (C 1 -C 4)-alkylsulfonyl; or two of R 3 through R 6 or two of R 7 through R 10 taken together are (C 1 -C 4)-alkylenedioxy; and R 11 is hydrogen, C 1 -C 4 alkyl, or C O-(C 1 -C 4)-alkyl.
A communication method, wherein the method comprises: monitoring, by a first shared agent, a first shared memory, wherein the first shared agent is configured to directly access the first shared memory and send data in a remote direct memory access, RDMA, manner; and wherein the first shared memory is used by a first application, the first application runs on a first virtual device, the first virtual device is located on a first host, the first shared memory belongs to a part of memory of the first host and does not belong to memory specified by the first host for the first virtual device, and the first shared agent independent of the first virtual device is disposed on the first host; and after monitoring that data of the first application is written to the first shared memory, reading, by the first shared agent, the data from the first shared memory, and sending, by the first shared agent, the data to a second application in the RDMA manner, wherein the second application is a data sharing party specified by the first application. monitoring, by a first shared agent, a first shared memory, wherein the first shared agent is configured to directly access the first shared memory and send data in a remote direct memory access, RDMA, manner; and wherein the first shared memory is used by a first application, the first application runs on a first virtual device, the first virtual device is located on a first host, the first shared memory belongs to a part of memory of the first host and does not belong to memory specified by the first host for the first virtual device, and the first shared agent independent of the first virtual device is disposed on the first host; and after monitoring that data of the first application is written to the first shared memory, reading, by the first shared agent, the data from the first shared memory, and sending, by the first shared agent, the data to a second application in the RDMA manner, wherein the second application is a data sharing party specified by the first application.
A method being performed in a transceiver, the method comprising: receiving data using a first communication parameter value; determining a first value for a CRC computation period based on the communication parameter value; calculating a first number of normalized CRC anomalies based on the first value for the CRC computation period; declaring a severely errored second when the first number of normalized CRC anomalies in a one second interval is 18 or greater than 18; changing, based on a change in on-line data rate, to receiving data using a second communication parameter value, wherein the first communication parameter value is different than the second communication parameter value; determining a second value for the CRC computation period based on the second communication parameter value, wherein the first value for the CRC computation period is different than the second value for the CRC computation period; calculating a second number of normalized CRC anomalies based on the second value for the CRC computation period; and declaring a severely errored second when the second number of normalized CRC anomalies in a one second interval is 18 or greater than 18. receiving data using a first communication parameter value; determining a first value for a CRC computation period based on the communication parameter value; calculating a first number of normalized CRC anomalies based on the first value for the CRC computation period; declaring a severely errored second when the first number of normalized CRC anomalies in a one second interval is 18 or greater than 18; changing, based on a change in on-line data rate, to receiving data using a second communication parameter value, wherein the first communication parameter value is different than the second communication parameter value; determining a second value for the CRC computation period based on the second communication parameter value, wherein the first value for the CRC computation period is different than the second value for the CRC computation period; calculating a second number of normalized CRC anomalies based on the second value for the CRC computation period; and declaring a severely errored second when the second number of normalized CRC anomalies in a one second interval is 18 or greater than 18.
Poppet valve comprising a valve body with a plurality of passage channels, a plurality of closing elements, a plurality of guide means, and a catcher, each passage channel opening into a valve seat, a closing element being mounted on each guide means so as to be movable in a stroke direction, wherein a respective closing element is associated with each valve seat opposite in the stroke direction, so that each valve seat can be closed by the respectively associated closing element, wherein each guide means successively comprises in the stroke direction a guide section, a support section and a fastening section, wherein each guide means is connected to the catcher via the fastening section, wherein the guide section comprises an inner cavity extending in the stroke direction, and wherein the support section comprises a bearing surface, wherein a spring extends in the inner cavity of the guide section and is clamped between the support surface and the closing element, and wherein the guide means comprises a single guide section extending in the stroke direction, characterized in that each guide means has a first stop surface oriented toward the valve seat, that each closing element has a second stop surface oriented toward the first stop surface, that the first and second stop surfaces (6f, 4e) are arranged to cooperate in such a way that they limit the maximum stroke of the closing element in the stroke direction, and in that the fastening section forms a positive connection to the catcher which acts in both directions of the stroke direction.
A magnetron comprising a main body and an antenna part, the main body having an anode part and a cathode part and the antenna part (1 being connected to the main body and outputs a microwave, wherein the antenna part includes: an exhaust portion that is connected to an antenna conductor derived from the anode part and has an output terminal from which the microwave is outputted; an output-side ceramic stem that holds internally the antenna conductor and is firmly fixed to the exhaust portion to insulate electrically a side pipe connected to the anode part of the main body of the magnetron from the exhaust portion; and an antenna cap that is joined to the exhaust portion via a conductive adhesive arranged on an outer periphery of the exhaust portion; characterized in that an outer peripheral surface of the exhaust portion and an inner peripheral surface of the antenna cap include respective threaded portions (19, 21), and the antenna cap and the exhaust portion are screwed and joined to each other via the conductive adhesive. an exhaust portion that is connected to an antenna conductor derived from the anode part and has an output terminal from which the microwave is outputted; an output-side ceramic stem that holds internally the antenna conductor and is firmly fixed to the exhaust portion to insulate electrically a side pipe connected to the anode part of the main body of the magnetron from the exhaust portion; and an antenna cap that is joined to the exhaust portion via a conductive adhesive arranged on an outer periphery of the exhaust portion; characterized in that
Energy supply system for an island grid, having a first electricity generating device, having a second electricity generating device, having a third electricity generating device, having a fourth electricity generating device, having a load (13, 14, 15, 16), having an energy management system, having a first operating state and a second operating state which differs therefrom, wherein a first operating mode is assigned to the first electricity generating device and a second operating mode is assigned to the second electricity generating device in the first operating state, wherein the first operating mode is assigned to the second electricity generating device in the second operating state, wherein the second operating mode is assigned to the third electricity generating device in the first operating state, wherein the second operating mode is also assigned to the third electricity generating device in the second operating state, characterized in that the second operating mode is a droop mode and has a power addition function, wherein a third operating mode is allocated to the fourth electricity generating device in the first operating state, wherein the third operating mode is also assigned to the fourth electricity generating device in the second operating state, and in that the assignment of an operating mode (18, 19, 20) depends on a prioritization of the electricity generating devices (7, 8, 9, 10), wherein the electricity generating device (7, 8, 9, 10) that is in the first operating mode has a rated power of at least 200% of the rated power of the greatest load (13, 14, 15, 16). having a first electricity generating device, having a second electricity generating device, having a third electricity generating device, having a fourth electricity generating device, having a load (13, 14, 15, 16), having an energy management system, having a first operating state and a second operating state which differs therefrom, wherein a first operating mode is assigned to the first electricity generating device and a second operating mode is assigned to the second electricity generating device in the first operating state, wherein the first operating mode is assigned to the second electricity generating device in the second operating state, wherein the second operating mode is assigned to the third electricity generating device in the first operating state, wherein the second operating mode is also assigned to the third electricity generating device in the second operating state, characterized in that the second operating mode is a droop mode and has a power addition function, wherein a third operating mode is allocated to the fourth electricity generating device in the first operating state, wherein the third operating mode is also assigned to the fourth electricity generating device in the second operating state, and in that the assignment of an operating mode (18, 19, 20) depends on a prioritization of the electricity generating devices (7, 8, 9, 10), wherein the electricity generating device (7, 8, 9, 10) that is in the first operating mode has a rated power of at least 200% of the rated power of the greatest load (13, 14, 15, 16).
A high-efficiency generator for generating pairs of photons, which may be used in a quantum process employing parametric fluorescence processes, comprising: - a type-one crystal receiving a laser pump beam at the input and generating pairs of photons (f) of like polarization (e, o) at the output: - a first and a second polarization rotator (20a, 20b), which respectively receive the photons in each generated pair, said polarization rotators each performing a rotation of 45°; - a beam splitter, which reflects one polarization at its inputs (17a, 17b), and transmits the other polarization; - conveying means (14a, 14b) for directing the photons from the first and second polarization rotator (20a, 20b) to the inputs (17a, 17b) of said beam splitter; the state of the photons at the outputs (17c, 17d) of said beam splitter comprising a Bell state Φ (-) which may be used, for example, in a quantum cryptography process. - a type-one crystal receiving a laser pump beam at the input and generating pairs of photons (f) of like polarization (e, o) at the output: - a first and a second polarization rotator (20a, 20b), which respectively receive the photons in each generated pair, said polarization rotators each performing a rotation of 45°; - a beam splitter, which reflects one polarization at its inputs (17a, 17b), and transmits the other polarization; - conveying means (14a, 14b) for directing the photons from the first and second polarization rotator (20a, 20b) to the inputs (17a, 17b) of said beam splitter;
Process for demineralizing (20,30,40) a sugar solution A having a determined initial conductivity a (mSiemens/cm) using a sugar solution D of conductivity d (mSiemens/cm) characterized in that it comprises the following steps: i) Optionally a step of electrodialysis of the sugar solution A and/or D by means of an electrodialyzer (22,33,41) in order to obtain a sugar solution B of conductivity b lower than the conductivity a and/or d; ii) At least a first step of capacitive deionization of the sugar solution A or B by means of a capacitive deionization device (2,21,31,42) in order to obtain a sugar juice C having a conductivity c, lower than the conductivity b and/or a; and in that the sugar solution D is derived from the ion discharge of the capacitive deionization device in step ii), said sugar solution D derived from the discharge being characterized in that it is obtained at the end of the regeneration cycle of the electrodes at the outlet of said capacitive deionization device in step ii), said cycle comprising the discharge, strictly speaking, of the electrodes and the purging of the desorbed species, and in that said sugar solution D undergoes a capacitive deionization step, in particular in step ii), and/or an electrodialysis step, in particular in step i). i) Optionally a step of electrodialysis of the sugar solution A and/or D by means of an electrodialyzer (22,33,41) in order to obtain a sugar solution B of conductivity b lower than the conductivity a and/or d; ii) At least a first step of capacitive deionization of the sugar solution A or B by means of a capacitive deionization device (2,21,31,42) in order to obtain a sugar juice C having a conductivity c, lower than the conductivity b and/or a;