mhurhangee/ep-ind-claims huggingface dataset:
A data processing method, wherein the method comprises: receiving S first data blocks at a physical coding sublayer, wherein S is a positive integer; performing, at the physical coding sublayer, FEC encoding on the S first data blocks and first information to generate a check part, wherein the first information comprises code word synchronization information and operation, administration and maintenance, OAM, information; generating a code word structure at the physical coding sublayer, wherein the code word structure comprises the S first data blocks, the first information, and the check part; and sending the code word structure, wherein the first information further comprises second indication information, and the second indication information is used to indicate whether a receive end performs FEC decoding on the code word structure, and the step of performing FEC encoding further comprises deleting an idle character being comprised in the first data blocks, wherein a length of the deleted idle character is the same as a length of the piece of first information. receiving S first data blocks at a physical coding sublayer, wherein S is a positive integer; performing, at the physical coding sublayer, FEC encoding on the S first data blocks and first information to generate a check part, wherein the first information comprises code word synchronization information and operation, administration and maintenance, OAM, information; generating a code word structure at the physical coding sublayer, wherein the code word structure comprises the S first data blocks, the first information, and the check part; and sending the code word structure, wherein the first information further comprises second indication information, and the second indication information is used to indicate whether a receive end performs FEC decoding on the code word structure, and the step of performing FEC encoding further comprises deleting an idle character being comprised in the first data blocks, wherein a length of the deleted idle character is the same as a length of the piece of first information.
Resonator equipped with a heavy member and an elastic blade, the said heavy member comprising a casing fixed to the said elastic blade, the said heavy member comprising a mass assembly which is mobile in translation in the said casing along a longitudinal direction, the said resonator comprising an endless screw inserted into a sliding nut of the said mass assembly, the said resonator comprising a drive means able to rotate the endless screw so that a rotation of the endless screw induces the said translation, the said casing having an internal face which partially delimits at least two cylindrical spaces each having a generator parallel to the said longitudinal direction, the said two cylindrical spaces being disposed outside a central space, the said endless screw being arranged in the said central space, the said mass assembly comprising two masses sliding respectively in the said two cylindrical spaces, the said mass assembly comprising a support bearing the said sliding nut, each mass comprising at least one heavy element fixed to the support, each mass having at least two pressure means interposed between this mass and the said internal face, each pressure means comprising a groove characterised in that each groove is provided in a circumference of a mass and contained in a plane perpendicular to the longitudinal direction, each groove following a closed line, each pressure means comprising at least one elastic member disposed in the said groove and a split bushing pressed against the said internal face by the said at least one elastic member of the pressure means, the said split bushing partially protruding from the said groove.
A duet stent deployment system for transjugular intrahepatic portosystemic shunting procedures, the system comprising: an inner catheter; exactly two stents mounted on a distal segment of the inner catheter, and the two stents include a primary stent and a secondary stent; an outer sheath slidably mounted on the inner catheter, and being movable along an axis of the inner catheter from a predeployment configuration to a first deployment configuration, and then from the first deployment configuration to a second deployment configuration; the primary and secondary stents being covered by the outer sheath in the predeployment configuration; the primary stent being uncovered but the secondary stent being covered by the outer sheath in the first deployment configuration; the primary and secondary stents being uncovered by the outer sheath at the second deployment configuration; wherein the secondary stent is longer than the primary stent, and both the primary stent and the secondary stent are self-expanding stents;. characterized in that the primary stent includes a sleeve covering which prevents fluid communication between the lumen defined by the primary stent and the surrounding tissue. an inner catheter; exactly two stents mounted on a distal segment of the inner catheter, and the two stents include a primary stent and a secondary stent; an outer sheath slidably mounted on the inner catheter, and being movable along an axis of the inner catheter from a predeployment configuration to a first deployment configuration, and then from the first deployment configuration to a second deployment configuration; the primary and secondary stents being covered by the outer sheath in the predeployment configuration; the primary stent being uncovered but the secondary stent being covered by the outer sheath in the first deployment configuration; the primary and secondary stents being uncovered by the outer sheath at the second deployment configuration; wherein the secondary stent is longer than the primary stent, and both the primary stent and the secondary stent are self-expanding stents;. characterized in that the primary stent includes a sleeve covering which prevents fluid communication between the lumen defined by the primary stent and the surrounding tissue.
A method for manufacturing a cold-rolled steel sheet having a metallic structure such that the main phase is a low-temperature transformation producing phase, and the secondary phase contains retained austenite, characterized by comprising the following steps and: a cold-rolling step in which a hot-rolled steel sheet having a chemical composition consisting, in mass percent, of C: more than 0.020% and less than 0.30%, Si: more than 0.10% and at most 3.00%, Mn: more than 1.00% and at most 3.50%, P: at most 0.10%, S: at most 0.010%, sol.Al: at least 0% and at most 2.00%, N: at most 0.010%, Ti: at least 0% and less than 0.050%, Nb: at least 0% and less than 0.050%, V: at least 0% and at most 0.50%, Cr: at least 0% and at most 1.0%, Mo: at least 0% and at most 0.50%, B: at least 0% and at most 0.010%, Ca: at least 0% and at most 0.010%, Mg: at least 0% and at most 0.010%, REM: at least 0% and at most 0.050%, and Bi: at least 0% and at most 0.050%, the remainder of Fe and impurities, wherein the average grain size of the grains having a bcc structure and the grains having a bct structure surrounded by a grain boundary having an orientation difference of 15° or larger is 6.0 μm or smaller, is subjected to cold rolling to form a cold-rolled steel sheet; and an annealing step in which the cold-rolled steel sheet is subjected to soaking treatment in the temperature region of Ac 3 point - 40°C, or higher, thereafter cooled to the temperature region of 500°C or lower and 300°C or higher, and is held in that temperature region for 30 seconds or longer. a cold-rolling step in which a hot-rolled steel sheet having a chemical composition consisting, in mass percent, of C: more than 0.020% and less than 0.30%, Si: more than 0.10% and at most 3.00%, Mn: more than 1.00% and at most 3.50%, P: at most 0.10%, S: at most 0.010%, sol.Al: at least 0% and at most 2.00%, N: at most 0.010%, Ti: at least 0% and less than 0.050%, Nb: at least 0% and less than 0.050%, V: at least 0% and at most 0.50%, Cr: at least 0% and at most 1.0%, Mo: at least 0% and at most 0.50%, B: at least 0% and at most 0.010%, Ca: at least 0% and at most 0.010%, Mg: at least 0% and at most 0.010%, REM: at least 0% and at most 0.050%, and Bi: at least 0% and at most 0.050%, the remainder of Fe and impurities, wherein the average grain size of the grains having a bcc structure and the grains having a bct structure surrounded by a grain boundary having an orientation difference of 15° or larger is 6.0 μm or smaller, is subjected to cold rolling to form a cold-rolled steel sheet; and an annealing step in which the cold-rolled steel sheet is subjected to soaking treatment in the temperature region of Ac 3 point - 40°C, or higher, thereafter cooled to the temperature region of 500°C or lower and 300°C or higher, and is held in that temperature region for 30 seconds or longer.
LED lamp comprising an LED module with at least one dye-converted blue or UV LED (3, 3'), as well as at least one monochromatic, red LED (4, 4'), which are arranged on a common carrier of the LED module, wherein the mixing spectrum of the at least two specified LEDs is white light with a color temperature between 1500K and 2400K, preferably 1700K and 2100K, at room temperature and a color temperature between 1800K and 2400K, preferably 2100K and 2300K, at constant operating temperature between 70°C and 80°C of the LED lamp, and wherein the surface of the common carrier of the LEDs (3, 3', 4, 4') is coated with a highly reflective layer, wherein at least a small amount of a second type of color conversion substance whose peak wavelength has at least a distance of 10 nm or 15 nm from the dominant wavelength of the red LED (4, 4') is added to the color conversion substance of the blue or UV LED (3, 3').
A method in an electronic communication device for processing a digital signal within a wireless communication network in order to transform the digital signal from a first domain representation to a second domain representation, comprising the steps of: - transforming (86, 98, 308) the signal from the first domain to the second domain resulting in a signal of a first order of values with quantization noise in at least one area of the second domain, and - performing (88, 100, 310) a cyclic shift on the transformed signal to move the quantization noise in the second domain, resulting in a first shifted signal. - transforming (86, 98, 308) the signal from the first domain to the second domain resulting in a signal of a first order of values with quantization noise in at least one area of the second domain, and - performing (88, 100, 310) a cyclic shift on the transformed signal to move the quantization noise in the second domain, resulting in a first shifted signal.
A composition comprising succinic acid, aconitic acid, and a carrier, said succinic acid and aconitic acid being present in the composition in a ratio of succinic acid to aconitic acid of from 0.9:1 to 14:1 and wherein the total combined amount of succinic acid and aconitic acid is from 0.1 to 2% w/w of the composition.
An array substrate, comprising: a plurality of thin film transistors, an organic transparent layer, a first passivation layer, and a plurality of post spacers, wherein the thin film transistors are arranged in a matrix on the array substrate, the first passivation layer is arranged on a source/drain electrode of the thin film transistors, the organic transparent layer is arranged on the first passivation layer and is located in an area other than an area of the thin film transistors and an area between adjacent two thin film transistors, the post spacers are arranged on a surface of the array substrate, and are located in the area between the adjacent two of the thin film transistors, characterized in that the organic transparent layer comprises a hole extending along a scan line direction across each of said adjacent two of the thin film transistors and the area between said adjacent two of the thin film transistors.
A light source system that includes at least one light source (201; 1001) and controls an amount of light from the light source (201; 1001), the light source system comprising: a detector (208; 1008) configured to detect a light intensity of a second light bundle (F0; 206; 1006) and thereby obtaining information on intensity of a first light bundle (F0; 202; 1002) emitted from the light source (201; 1001); a splitter (204; 1004) configured to split the first light bundle (F0; 202; 1002) into at least the second light bundle (FM; 206; 1006) and a third light bundle (FS; 205; 1005) such that a light component near a peak of the light intensity in a plane perpendicular to a propagation direction of the first light bundle (F0; 202; 1002) is included only in the third light bundle (FS; 205; 1005); and an optical detecting system (207; 1007) configured to guide the second light bundle (FM; 206; 1006) to the detector (208; 1008); characterized by: a driving circuit configured to drive the light source (201; 1001) based on the information obtained by the detector (208; 1008); and an optical element (203; 1003) with a focal length between the light source (201; 1001) and the splitter (204; 1004), wherein the splitter (204; 1004) is located near a rear focal point of the optical element (203; 1003) in an optical axis direction of the optical element (203; 1003). a detector (208; 1008) configured to detect a light intensity of a second light bundle (F0; 206; 1006) and thereby obtaining information on intensity of a first light bundle (F0; 202; 1002) emitted from the light source (201; 1001); a splitter (204; 1004) configured to split the first light bundle (F0; 202; 1002) into at least the second light bundle (FM; 206; 1006) and a third light bundle (FS; 205; 1005) such that a light component near a peak of the light intensity in a plane perpendicular to a propagation direction of the first light bundle (F0; 202; 1002) is included only in the third light bundle (FS; 205; 1005); and an optical detecting system (207; 1007) configured to guide the second light bundle (FM; 206; 1006) to the detector (208; 1008); characterized by: a driving circuit configured to drive the light source (201; 1001) based on the information obtained by the detector (208; 1008); and an optical element (203; 1003) with a focal length between the light source (201; 1001) and the splitter (204; 1004), wherein the splitter (204; 1004) is located near a rear focal point of the optical element (203; 1003) in an optical axis direction of the optical element (203; 1003). a driving circuit configured to drive the light source (201; 1001) based on the information obtained by the detector (208; 1008); and an optical element (203; 1003) with a focal length between the light source (201; 1001) and the splitter (204; 1004), wherein the splitter (204; 1004) is located near a rear focal point of the optical element (203; 1003) in an optical axis direction of the optical element (203; 1003).
A plastic lens comprising: a plastic substrate; a λ/4 layer that is formed on the plastic substrate, is formed by curing a composition comprising a bifunctional or higher functional acrylate compound, a dendritic aliphatic compound having an acrylate group at an end thereof, and metal oxide particles, and has a thickness of from 50 to 100 nm; a hard coat layer that is formed on the λ/4 layer directly or through another layer; and an impact absorbing layer between the λ/4 layer and the hard coat layer. a plastic substrate; a λ/4 layer that is formed on the plastic substrate, is formed by curing a composition comprising a bifunctional or higher functional acrylate compound, a dendritic aliphatic compound having an acrylate group at an end thereof, and metal oxide particles, and has a thickness of from 50 to 100 nm; a hard coat layer that is formed on the λ/4 layer directly or through another layer; and an impact absorbing layer between the λ/4 layer and the hard coat layer.
Monitoring system for monitoring a watercraft or a number of watercrafts (141, 143), having an identification apparatus and a first hydrophone, which is arranged in a fixed position and is designed such that sound signals emitted from one of the watercrafts (141, 143) are determined as measured underwater-sound information, wherein the identification apparatus has a first memory for the measured underwater-sound information and a second memory (117, 119) for a watercraft information which has been measured and/or stored, wherein the watercraft information which has been measured and/or stored is free of an underwater-sound-based watercraft information, wherein the first memory and the second memory are linked to one another in order, on the basis of the first memory being linked to the second memory, to achieve clear assignment of the measured underwater-sound information to the watercraft information which has been measured and/or stored, wherein the monitoring system has a classification apparatus which is designed to ascertain the watercraft information of the watercraft, wherein the monitoring system is designed so that a reference underwater-sound information assigned to the watercraft information is compared with the measured underwater-sound information, in order for a high-risk situation to be identified.
A heavy cutting nozzle for cutting workpieces made of steel and workpieces made of iron alloys, particularly slabs, ingots and billets, comprising a nozzle body with a thread for fastening to a cutting torch, a centrally arranged cutting oxygen channel, a multiplicity of heating gas channels arranged concentrically thereto on a specific inner pitch circle (10.1) and a multiplicity of heating oxygen channels arranged concentrically thereto on a further middle pitch circle (11.1), wherein the outflow openings of the media channels (5, 10, 11) open out into a clearance enclosed by the nozzle body, characterised in that the clearance enclosed by the nozzle body is formed in a conical or approximately semicircular manner from the outflow openings of the media channels (5, 10, 11) for cutting oxygen, heating oxygen and heating gas and, in this way and thereby enables effect that the media, heating oxygen and heating gas, flowing out are diverted by ultrasonic flow at the conical or slightly semi-circular curved outlet surfaces towards the centre of the nozzle, and swirl with the surrounding air at a distance farther away from the heavy cutting nozzle outside the nozzle body.
A flue gas mixing device, comprising: a flue entrance section; a throat section, wherein a plurality of air inlet holes are circumferentially arranged on a side wall of the throat section; an annular cavity, arranged on an outer periphery of the throat section; an annular cold exhaust gas branch pipe, connected to the annular cavity; a flue exit section; a necking section, connected between the flue entrance section and the throat section; and a flaring section, connected between the throat section and the flue exit section; characterized by further comprising an air branch pipe and a control assembly, wherein the air branch pipe is arranged on the annular cavity, an included angle between an axis of the air branch pipe and an axis of the throat section is in a range from 30° to 90°; and the air branch pipe comprises an electric valve being installed at a bottom of the air branch pipe to control the air branch pipe to perform air intake, and the electric valve is electrically connected to the control assembly. a flue entrance section; a throat section, wherein a plurality of air inlet holes are circumferentially arranged on a side wall of the throat section; an annular cavity, arranged on an outer periphery of the throat section; an annular cold exhaust gas branch pipe, connected to the annular cavity; a flue exit section; a necking section, connected between the flue entrance section and the throat section; and a flaring section, connected between the throat section and the flue exit section; characterized by further comprising an air branch pipe and a control assembly, wherein the air branch pipe is arranged on the annular cavity, an included angle between an axis of the air branch pipe and an axis of the throat section is in a range from 30° to 90°; and the air branch pipe comprises an electric valve being installed at a bottom of the air branch pipe to control the air branch pipe to perform air intake, and the electric valve is electrically connected to the control assembly.
A compound of general formula wherein R 1 represents a group selected from C 1 -C 6 -alkyl-, C 3 -C 7 -cycloalkyl-, heterocyclyl-, phenyl-, heteroaryl-, phenyl-C 1 -C 3 -alkyl- and heteroaryl-C 1 -C 3 -alkyl-, wherein said group is optionally substituted with one or two or three substituents, identically or differently, selected from the group of hydroxy, cyano, halogen, halo-C 1 -C 3 -alkyl-, C 1 -C 6 -alkoxy-, C 1 -C 3 -fluoroalkoxy-, -NH 2, alkylamino-, dialkylamino-, acetylamino-, N-methyl-N-acetylamino-, cyclic amines, -OP 2, -C OH, -C NH 2; R 2 represents the group R 3, R 4 represent, independently from each other, a group selected from a hydrogen atom, fluoro atom, chloro atom, bromo atom, cyano, -SF 5, C 1 -C 3 -alkyl-, C 1 -C 3 -alkoxy-, halo-C 1 -C 3 -alkyl-, C 1 -C 3 -fluoroalkoxy-; R 5a, R 5b represent, independently from each other, a group selected from a hydrogen atom, fluoro atom, chloro atom, bromo atom, cyano, C 1 -C 3 -alkyl-, C 1 -C 3 -alkoxy-, halo-C 1 -C 3 -alkyl-, C 1 -C 3 -fluoroalkoxy-; R 6, R 7 represent, independently from each other, a group selected from a hydrogen atom, fluoro atom, chloro atom, C 1 -C 3 -alkyl-, C 1 -C 3 -alkoxy-, halo-C 1 -C 3 -alkyl-, C 1 -C 3 -fluoroalkoxy-; and the salts, solvates or salts of solvates thereof. R 1 represents a group selected from C 1 -C 6 -alkyl-, C 3 -C 7 -cycloalkyl-, heterocyclyl-, phenyl-, heteroaryl-, phenyl-C 1 -C 3 -alkyl- and heteroaryl-C 1 -C 3 -alkyl-, wherein said group is optionally substituted with one or two or three substituents, identically or differently, selected from the group of hydroxy, cyano, halogen, halo-C 1 -C 3 -alkyl-, C 1 -C 6 -alkoxy-, C 1 -C 3 -fluoroalkoxy-, -NH 2, alkylamino-, dialkylamino-, acetylamino-, N-methyl-N-acetylamino-, cyclic amines, -OP 2, -C OH, -C NH 2; R 2 represents the group R 3, R 4 represent, independently from each other, a group selected from a hydrogen atom, fluoro atom, chloro atom, bromo atom, cyano, -SF 5, C 1 -C 3 -alkyl-, C 1 -C 3 -alkoxy-, halo-C 1 -C 3 -alkyl-, C 1 -C 3 -fluoroalkoxy-; R 5a, R 5b represent, independently from each other, a group selected from a hydrogen atom, fluoro atom, chloro atom, bromo atom, cyano, C 1 -C 3 -alkyl-, C 1 -C 3 -alkoxy-, halo-C 1 -C 3 -alkyl-, C 1 -C 3 -fluoroalkoxy-; R 6, R 7 represent, independently from each other, a group selected from a hydrogen atom, fluoro atom, chloro atom, C 1 -C 3 -alkyl-, C 1 -C 3 -alkoxy-, halo-C 1 -C 3 -alkyl-, C 1 -C 3 -fluoroalkoxy-;