mhurhangee/ep-ind-claims huggingface dataset:
A method for compensating for a voice packet loss, comprising: extracting a pitch period from received voice data when a lost frame is detected; calculating a backward phase (t n) of a last received frame of normal voice data, wherein the backward phase is a time interval between a frame trailer of the normal voice data and a wave crest of a last pitch period; calculating a forward phase (t p) of the lost frame, wherein the forward phase determines a time interval between a frame header of the voice data and a wave crest of a first pitch period and is calculated as difference between the pitch period and the backward phase (t n); and capturing, from the received data, data whose last frame is with a same phase as the forward phase (t p), compensation data. extracting a pitch period from received voice data when a lost frame is detected; calculating a backward phase (t n) of a last received frame of normal voice data, wherein the backward phase is a time interval between a frame trailer of the normal voice data and a wave crest of a last pitch period; calculating a forward phase (t p) of the lost frame, wherein the forward phase determines a time interval between a frame header of the voice data and a wave crest of a first pitch period and is calculated as difference between the pitch period and the backward phase (t n); and capturing, from the received data, data whose last frame is with a same phase as the forward phase (t p), compensation data.
A resonator structure of a saddle-ride type vehicle comprising: a head box that includes a head pipe forming a handlebar steering axis and forms an intake passage through which air is taken from a front of the vehicle into an inside of the vehicle when the vehicle is travelling; an air cleaner box that is connected to the head box and allows the air to be taken into a power unit of the vehicle; and a resonator that forms a resonator chamber configured to reduce an intake noise, wherein the resonator chamber is formed inside the head box in such a way as to continue to the intake passage, characterised in that the resonator forms an inner wall of the head box and an outer wall of the head pipe, and in that the resonator is disposed at a position adjacent to the upper pipe portion of the head pipe. a head box that includes a head pipe forming a handlebar steering axis and forms an intake passage through which air is taken from a front of the vehicle into an inside of the vehicle when the vehicle is travelling; an air cleaner box that is connected to the head box and allows the air to be taken into a power unit of the vehicle; and a resonator that forms a resonator chamber configured to reduce an intake noise, wherein the resonator chamber is formed inside the head box in such a way as to continue to the intake passage, characterised in that the resonator forms an inner wall of the head box and an outer wall of the head pipe, and in that the resonator is disposed at a position adjacent to the upper pipe portion of the head pipe.
A through riser landing string valve, comprising: a housing defining a flow path; a valve member mounted in the housing; a fluid rotary actuator coupled to the housing and operatively connected to the valve member by a drive arrangement, the fluid rotary actuator comprising a vane piston rotatable around a rotation axis within an internal chamber, wherein a piston chamber is defined by the walls of the internal chamber and the vane piston, such that the volume of the piston chamber varies with movement of the vane piston; and the drive arrangement extending through a wall of the housing and providing a rotational operative connection between the fluid rotary actuator and the valve member; the fluid rotary actuator operable to operate the valve member to control fluid flow along the fluid pathway. a housing defining a flow path; a valve member mounted in the housing; a fluid rotary actuator coupled to the housing and operatively connected to the valve member by a drive arrangement, the fluid rotary actuator comprising a vane piston rotatable around a rotation axis within an internal chamber, wherein a piston chamber is defined by the walls of the internal chamber and the vane piston, such that the volume of the piston chamber varies with movement of the vane piston; and the drive arrangement extending through a wall of the housing and providing a rotational operative connection between the fluid rotary actuator and the valve member; the fluid rotary actuator operable to operate the valve member to control fluid flow along the fluid pathway.
Method for scheduling the charging of a vehicle with an electric drive by means of an evaluation device and a display and operator control device, wherein, by means of the evaluation device, at least one electric charging station (13, 14) in the vicinity of the vehicle is identified and displayed on the display and operator control device, wherein a current operating strategy of the vehicle as far as a destination is displayed on the display and operator control device, wherein the current operating strategy is a division into electric-motor mode and combustion-engine mode in the case of a plug-in hybrid vehicle or a representation of loads being switched on or off in order to reach the destination in the case of a purely electric vehicle, characterized in that, when an electric charging station (13, 14) is selected on the display and operator control device, a charging time or amount of charge or range as the amount of charge in km for electric driving at the selected charging station (13, 14) is inquired about, wherein, on the basis of the input charging time or amount of charge or range, the evaluation device determines a future operating strategy as far as the destination and displays it on the display and operator control device.
A process for preparing a compound of Formula I-2 containing no more than 0.5% 5,6- trans isomer: wherein is ---- is a single or double bond; R 2 is a single bond or a C 1-4 -alkylene or -CH 2 O-; and R 3 is a C 1-7 -alkyl or an aryl or an aralkyl, each of which is unsubstituted or substituted by a C 1-4 -alkyl, a halogen or a trihalomethyl; R 4 is C 1-7 -alkyl, comprising the steps of: macrolactonization of a compound of Formula IV-1 containing 0∼5% 5,6- trans isomer wherein is or a protecting group for the carbonyl group; P 1 and P 2 are protecting groups for hydroxyl groups; ----, R 2 and R 3 are as defined above, to form a compound of Formula III: wherein ----, P 1, R 2 and R 3 are as defined above for Formula IV-1; removing P 1 or/and P 2; and opening the macrolactone ring by transesterification. macrolactonization of a compound of Formula IV-1 containing 0∼5% 5,6- trans isomer wherein is or a protecting group for the carbonyl group; P 1 and P 2 are protecting groups for hydroxyl groups; ----, R 2 and R 3 are as defined above, to form a compound of Formula III: wherein ----, P 1, R 2 and R 3 are as defined above for Formula IV-1; removing P 1 or/and P 2; and opening the macrolactone ring by transesterification.
A device for conveying bulk material consisting of at least one driven worm conveyor and at least one supporting body counteracting the forces of the worm conveyor and the inertia forces of the device, which effect an inhibition, characterized in that the supporting body has one or more recoil faces that are in contact with the grains in the range of action of the conveyed stream of grains and are oriented with respect to the direction of motion of the device such that the developing recoil forces completely or partially act in the same direction as the horizontal force component F H and the at least one worm conveyor is oriented or orientable, in the direction of motion, at an angle of greater than 0° with respect to the vertical line, said force component F H resulting from a motion and orientation of the at least one worm conveyor.
A floating support device comprising a plurality of floating elements (FD1, FD2, FD3, FDn) assembled so as to together form a floating layer comprising a first surface suitable for floating on a second surface and/or arranged substantially parallel to said second surface, said device being characterized in that: - said floating elements (FD1, FD2, FD3, FDn) are connected to one another by at least one of their respective edges by means of a first attachment system, - said floating support device comprises an anchoring element arranged on a longitudinal axis of said floating device and suitable for attaching a fastening device, - said floating device further comprises an attachment support (FIXSYS) attached to at least one of said floating elements (FD1, FD2, FD3, FDn) and comprising a third antenna or sensor support surface and an articulated mechanical support element (PATSUP, PAT, WGHT), the floating layer being configured to deform and to match the average relief of the second surface, so as to guarantee improved positioning of an antenna or a sensor attached to this support surface when the distance of pairs of points facing one another vertically and belonging to said first surface and to said second surface, respectively, does not exceed a predetermined length. - said floating elements (FD1, FD2, FD3, FDn) are connected to one another by at least one of their respective edges by means of a first attachment system, - said floating support device comprises an anchoring element arranged on a longitudinal axis of said floating device and suitable for attaching a fastening device, - said floating device further comprises an attachment support (FIXSYS) attached to at least one of said floating elements (FD1, FD2, FD3, FDn) and comprising a third antenna or sensor support surface and an articulated mechanical support element (PATSUP, PAT, WGHT), the floating layer being configured to deform and to match the average relief of the second surface, so as to guarantee improved positioning of an antenna or a sensor attached to this support surface when the distance of pairs of points facing one another vertically and belonging to said first surface and to said second surface, respectively, does not exceed a predetermined length.
A method for controlling a Sounding Reference Signal, SRS, transmission in a wireless access system supporting a Machine Type Communication, MTC, the method being performed by an MTC User Equipment, MTC UE, and comprising: receiving a higher-layer signal including information about an SRS to be transmitted; configuring the SRS based on the information about the SRS; transmitting (S1430a, S1430b) a Physical Uplink Shared Channel, PUSCH, repeatedly; and when the PUSCH is transmitted at a transmission time for the SRS: transmitting (S1430b) the SRS in a frequency-hopped subband to which the PUSCH is allocated, when an SRS subband for transmitting the SRS is identical with the frequency-hopped subband; and dropping (S1430a) the SRS when the SRS subband is different from the frequency-hopped subband, wherein the frequency-hopped subband is configured with six Physical Resource Blocks, PRBs. receiving a higher-layer signal including information about an SRS to be transmitted; configuring the SRS based on the information about the SRS; transmitting (S1430a, S1430b) a Physical Uplink Shared Channel, PUSCH, repeatedly; and when the PUSCH is transmitted at a transmission time for the SRS: transmitting (S1430b) the SRS in a frequency-hopped subband to which the PUSCH is allocated, when an SRS subband for transmitting the SRS is identical with the frequency-hopped subband; and dropping (S1430a) the SRS when the SRS subband is different from the frequency-hopped subband, transmitting (S1430b) the SRS in a frequency-hopped subband to which the PUSCH is allocated, when an SRS subband for transmitting the SRS is identical with the frequency-hopped subband; and dropping (S1430a) the SRS when the SRS subband is different from the frequency-hopped subband, wherein the frequency-hopped subband is configured with six Physical Resource Blocks, PRBs.
A process for producing a bent line pipe, comprising the steps of: preparing a steel pipe containing, by mass, at most 0.009% C, at most 1.0% Mn, at most 1.0% Si, at most 0.04% P, at most 0.005% S, 0.01 to 0.2% Ti, 0.01 to 0.10% V, 0.001 to 0.1% Al, at most 0.1% N, 4.0 to 8.0% Ni, 9.0 to 15.0% Cr, and 1.5 to 7.0% Mo, the balance being Fe and impurities; bending the steel pipe into a bent pipe by using a high-frequency coil and a bending arm; quenching the bent pipe at a quenching temperature of at least 890°C and lower than 950°C; and tempering the quenched bent pipe. preparing a steel pipe containing, by mass, at most 0.009% C, at most 1.0% Mn, at most 1.0% Si, at most 0.04% P, at most 0.005% S, 0.01 to 0.2% Ti, 0.01 to 0.10% V, 0.001 to 0.1% Al, at most 0.1% N, 4.0 to 8.0% Ni, 9.0 to 15.0% Cr, and 1.5 to 7.0% Mo, the balance being Fe and impurities; bending the steel pipe into a bent pipe by using a high-frequency coil and a bending arm; quenching the bent pipe at a quenching temperature of at least 890°C and lower than 950°C; and tempering the quenched bent pipe.
A seating unit, which is movable between a retracted position and an extended position and comprises a seat, a backrest, extendable primary and secondary footrests and a mechanical extending mechanism, wherein the mechanical extending mechanism is configured to be mounted in the seating unit; wherein the mechanical extending mechanism comprises a footrest assembly for extending and retracting the primary and secondary footrests, the footrest assembly comprising a primary footrest link, a secondary footrest link and an intermediate link set; wherein the intermediate link set comprises a first intermediate link, a second intermediate link, a third intermediate link and a fourth intermediate link; wherein the seat is supported by a seat mounting plate to which the secondary footrest link is coupled via sequentially the first intermediate link and the third intermediate link, and to which the primary footrest link is coupled via sequentially the second intermediate link and the fourth intermediate link, and wherein the footrest assembly is configured in such a manner that when the seating unit is in the retracted position, the secondary footrest link, the first intermediate link and the second intermediate link are arranged substantially parallel with the seat, characterized in that the footrest assembly further comprises a secondary footrest drive link connected between the primary footrest link and the secondary footrest link.
A method of measuring the formation of solids deposits in a gas environment comprising: a) initially measuring the weight gain due to water condensation on a metal-coated quartz crystal microbalance in a QCM probe within a high pressure gas chamber of the gas environment; b) subsequent to the initial measuring, measuring the condensation rate and the metal oxidation rate; c) finally measuring the solids deposits weight gain of the metal-coated QCM after water evaporation; wherein steps a) to c) are together defined as a condensation-evaporation cycle, step b) being during a condensation period of the condensation-evaporation cycle, and step c) being after the water evaporation period of the condensation-evaporation cycle; the method further comprising: d) determining the final solids deposits weight gain during a first CE cycle; e) continuously measuring the solids deposits weight gain of the metal-coated QCM during at least one subsequent CE cycle; and determining a cumulative solids deposits rate, the cumulative solids deposits rate corresponding to the cumulative weight gain of the coated QCM over a certain time period during multiple CE cycles; where the weight gain measurements are conducted at a condition selected from the group consisting of: constant temperature differential (ΔT) and a controlled variable temperature differential (ΔT = f(t)) between the high pressure gas chamber and the QCM probe. a) initially measuring the weight gain due to water condensation on a metal-coated quartz crystal microbalance in a QCM probe within a high pressure gas chamber of the gas environment; b) subsequent to the initial measuring, measuring the condensation rate and the metal oxidation rate; c) finally measuring the solids deposits weight gain of the metal-coated QCM after water evaporation; d) determining the final solids deposits weight gain during a first CE cycle; e) continuously measuring the solids deposits weight gain of the metal-coated QCM during at least one subsequent CE cycle; and constant temperature differential (ΔT) and a controlled variable temperature differential (ΔT = f(t)) between the high pressure gas chamber and the QCM probe.
A measuring body for checking geometric deviations in a 3-axis machine tool comprising: ▪a quadrangular base plate, ▪a first wall, which is arranged at the base plate and protrudes perpendicularly from the base plate, ▪a second wall, which is arranged at the base plate and protrudes perpendicularly from the base plate, ▪wherein a first hole row and a second hole row are formed in the base plate, ▪wherein the first wall comprises a step-shaped portion with a plurality of steps at an upper, exposed portion, ▪wherein the second wall comprises a step-shaped portion with a plurality of steps at an upper, exposed portion, ▪wherein the first wall is arranged along a first edge of the base plate and wherein the second wall is arranged along a second edge of the base plate, wherein the first hole row is arranged along a third edge of the base plate and wherein the second hole row is arranged along a fourth edge of the base plate, ▪wherein the first wall and the second wall are adjacent to each other at a corner of the base plate, and ▪wherein each step comprises a reference hole. ▪a quadrangular base plate, ▪a first wall, which is arranged at the base plate and protrudes perpendicularly from the base plate, ▪a second wall, which is arranged at the base plate and protrudes perpendicularly from the base plate, ▪wherein a first hole row and a second hole row are formed in the base plate, ▪wherein the first wall comprises a step-shaped portion with a plurality of steps at an upper, exposed portion, ▪wherein the second wall comprises a step-shaped portion with a plurality of steps at an upper, exposed portion, ▪wherein the first wall is arranged along a first edge of the base plate and wherein the second wall is arranged along a second edge of the base plate, wherein the first hole row is arranged along a third edge of the base plate and wherein the second hole row is arranged along a fourth edge of the base plate, ▪wherein the first wall and the second wall are adjacent to each other at a corner of the base plate, and ▪wherein each step comprises a reference hole.
Multi-outlet nozzle for electrohydrodynamic or aerohydrodynamic processing operations and which is of the type comprising at least one chamber for the flow of a fluid with: - an inlet opening connected to a fluid inlet duct, - a plurality of outlet openings through which the fluid leaves the nozzle, and it is characterized in that it comprises a fluid distributor, arranged in the chamber, which is a hollow body intended for the flow of the fluid crossing said chamber, and having a configuration corresponding to the geometry of the interior of the chamber (1, 2) and is connected to a first opening that is an inlet opening for allowing the flow of the fluid therein and comprises a plurality of second openings aligned with the outlet openings of the chamber (1, 2) for allowing the outlet of the flow crossing it, through the outlet openings in a uniform manner and the fluid distributor is made of a porous material not soluble in the components of a solution to be introduced into the nozzle. - an inlet opening connected to a fluid inlet duct, - a plurality of outlet openings through which the fluid leaves the nozzle, and it is characterized in that it comprises a fluid distributor, arranged in the chamber, which is a hollow body intended for the flow of the fluid crossing said chamber, and having a configuration corresponding to the geometry of the interior of the chamber (1, 2) and is connected to a first opening that is an inlet opening for allowing the flow of the fluid therein and comprises a plurality of second openings aligned with the outlet openings of the chamber (1, 2) for allowing the outlet of the flow crossing it, through the outlet openings in a uniform manner and the fluid distributor is made of a porous material not soluble in the components of a solution to be introduced into the nozzle.
A nucleic acid molecule encoding a polypeptide having the activity of an endonuclease, which is (a) a nucleic acid molecule encoding a polypeptide comprising the amino acid sequence of SEQ ID NO: 1; (b) a nucleic acid molecule comprising the nucleotide sequence of SEQ ID NO: 2; (c) a nucleic acid molecule encoding an endonuclease, the amino acid sequence of which is at least 70% identical to the amino acid sequence of SEQ ID NO: 1; (d) a nucleic acid molecule comprising a nucleotide sequence which is at least 50% identical to the nucleotide sequence of SEQ ID NO: 2; (e) a nucleic acid molecule which is degenerate with respect to the nucleic acid molecule of (d); or (f) a nucleic acid molecule corresponding to the nucleic acid molecule of any one of (a) to (e) wherein T is replaced by U; a fragment of the polypeptide of having the activity of an endonuclease. a polypeptide having the activity of an endonuclease, which is (a) a nucleic acid molecule encoding a polypeptide comprising the amino acid sequence of SEQ ID NO: 1; (b) a nucleic acid molecule comprising the nucleotide sequence of SEQ ID NO: 2; (c) a nucleic acid molecule encoding an endonuclease, the amino acid sequence of which is at least 70% identical to the amino acid sequence of SEQ ID NO: 1; (d) a nucleic acid molecule comprising a nucleotide sequence which is at least 50% identical to the nucleotide sequence of SEQ ID NO: 2; (e) a nucleic acid molecule which is degenerate with respect to the nucleic acid molecule of (d); or (f) a nucleic acid molecule corresponding to the nucleic acid molecule of any one of (a) to (e) wherein T is replaced by U; (a) a nucleic acid molecule encoding a polypeptide comprising the amino acid sequence of SEQ ID NO: 1; (b) a nucleic acid molecule comprising the nucleotide sequence of SEQ ID NO: 2; (c) a nucleic acid molecule encoding an endonuclease, the amino acid sequence of which is at least 70% identical to the amino acid sequence of SEQ ID NO: 1; (d) a nucleic acid molecule comprising a nucleotide sequence which is at least 50% identical to the nucleotide sequence of SEQ ID NO: 2; (e) a nucleic acid molecule which is degenerate with respect to the nucleic acid molecule of (d); or (f) a nucleic acid molecule corresponding to the nucleic acid molecule of any one of (a) to (e) wherein T is replaced by U; a fragment of the polypeptide of having the activity of an endonuclease.