mhurhangee/ep-ind-claims huggingface dataset:
A method for yaw control of a wind turbine generator system, comprising: obtaining a real-time parameter of wind condition according to a predetermined length of time, wherein the parameter of wind condition comprises a wind direction angle and a wind velocity; performing vector analysis of the obtained parameter of wind condition to obtain a direction angle of prime wind energy during the predetermined length of time, wherein the direction angle of the prime wind energy is the direction with the highest wind energy, and is obtained by performing vector analysis on a cube value of the wind velocity during the predetermined length of time; and controlling yaw of the wind turbine generator system according to the direction angle of the prime wind energy. obtaining a real-time parameter of wind condition according to a predetermined length of time, wherein the parameter of wind condition comprises a wind direction angle and a wind velocity; performing vector analysis of the obtained parameter of wind condition to obtain a direction angle of prime wind energy during the predetermined length of time, wherein the direction angle of the prime wind energy is the direction with the highest wind energy, and is obtained by performing vector analysis on a cube value of the wind velocity during the predetermined length of time; and controlling yaw of the wind turbine generator system according to the direction angle of the prime wind energy.
A modified polypeptide having an RNA polymerase sigma factor A activity, and being able to enhance L-lysine production when expressed in a microorganism, wherein at least one amino acid at positions of 136, 281, 254, 268, 381, 429, 447, 451, 491, 455, 479, 483, and 488 is substituted with another amino acid in the amino acid sequence of SEQ ID NO:2, wherein the amino acid at position 136 is substituted with glycine and the amino acid at position 281 is substituted with serine; the amino acid at position 254 is substituted with asparagine; the amino acid at position 268 is substituted with serine; the amino acid at position 381 is substituted with arginine; the amino acid at position 429 is substituted with arginine; the amino acid at position 447 is substituted with histidine; the amino acid at position 451 is substituted with isoleucine and the amino acid at position 491 is substituted with arginine; the amino acid at position 455 is substituted with valine; the amino acid at position 479 is substituted with arginine; the amino acid at position 483 is substituted with arginine; and the amino acid at position 488 is substituted with threonine.
A data processing method for generating a compensation information for tracking or for determining the position and orientation of an object in space, the method comprising the following steps performed by a computer: a) acquiring a predetermined constraint information defining one or more relative or absolute positions and/or orientations of the object in space; b) acquiring position and orientation data of the object while the object is positioned or moved while fulfilling the predetermined constraint; and c) determining the compensation information based on the predetermined constraint information and the acquired position and orientation data of the object, wherein the compensation information defines a bias field being determined based on a number of determined compensation information at different acquired position and orientation data of the object, wherein the bias depends on the measured uncorrected position and/or orientation of the object. a) acquiring a predetermined constraint information defining one or more relative or absolute positions and/or orientations of the object in space; b) acquiring position and orientation data of the object while the object is positioned or moved while fulfilling the predetermined constraint; and c) determining the compensation information based on the predetermined constraint information and the acquired position and orientation data of the object,
An adjusting device for adjusting a focal length or an aperture of an imaging device carried on a gimbal, the adjusting device comprising an adjusting means, wherein the adjusting device further comprises a supporting mechanism comprising a mounting assembly, a supporting assembly and a connection assembly (50, 64), the connection assembly comprising an assembling member, one end of the assembling member being rotatably connected to the mounting assembly, and the other end of the assembling member being rotatably connected to the supporting assembly, wherein the adjusting means is provided on the supporting assembly, and wherein a position of the adjusting means relative to the gimbal is adjustable by adjusting a position of the supporting assembly and a position of the assembling member relative to the mounting assembly characterized in that the supporting assembly comprises a supporting member (72, 672) provided on the assembling member, the supporting member being movably provided on the assembling member.
An encapsulation method, comprising: embedding, at an encapsulation node in an in-situ operation administration and maintenance, IOAM, domain, IOAM information in a segment routing multi-protocol label switching, SR MPLS, header, characterized in that, the IOAM information comprises: an IOAM header and an IOAM payload, and the embedding the IOAM information in the SR MPLS header comprises: inserting the IOAM header into a SR MPLS label stack, and inserting the IOAM payload between the SR MPLS label stack and a data packet. embedding, at an encapsulation node in an in-situ operation administration and maintenance, IOAM, domain, IOAM information in a segment routing multi-protocol label switching, SR MPLS, header, characterized in that, the IOAM information comprises: an IOAM header and an IOAM payload, and the embedding the IOAM information in the SR MPLS header comprises: inserting the IOAM header into a SR MPLS label stack, and inserting the IOAM payload between the SR MPLS label stack and a data packet.
Process for manufacturing epichlorohydrin, by subjecting dichloropropanol to a dehydrochlorination reaction, in which, at least one part of the dichloropropanol was obtained by reacting a glycerol-based product with a chlorinating agent, wherein the glycerol-based product contains at least 900 g/kg of glycerol and from 0.001 g/kg to 5 g/kg of 1,3-propanediol.
A method of determining link failure in a receiver for receiving a differential voltage signal via a first signal line and a second signal line, characterized in that the method comprises: obtaining a first quantity depending on the larger one of a maximum value over time of a voltage level that is attained in the first signal line and a maximum value over time of a voltage level that is attained in the second signal line; obtaining a second quantity depending on a maximum value over time of an average of an instantaneous voltage level in the first signal line and an instantaneous voltage level in the second signal line; and determining that the link failure has occurred on the basis of the first quantity and the second quantity. obtaining a first quantity depending on the larger one of a maximum value over time of a voltage level that is attained in the first signal line and a maximum value over time of a voltage level that is attained in the second signal line; obtaining a second quantity depending on a maximum value over time of an average of an instantaneous voltage level in the first signal line and an instantaneous voltage level in the second signal line; and determining that the link failure has occurred on the basis of the first quantity and the second quantity.
Surge arrester having an arrester column that is held at both ends by end fittings, at least two tensioning elements that are clamped in the end fittings in the axial direction and at least one collar that encompasses at least one part of the tensioning elements in a plane that lies in a perpendicular manner with respect to the center axis of the surge arrester, in such a manner that the encompassed tensioning elements are fixed in the radial direction, characterized in that the collar lies against the outside of the arrester column and comprises radial protuberances (8a, 11a, 12a) that receive the encompassed tensioning elements and fix said tensioning elements in the tangential direction with respect to the center axis, wherein the collar is extendable and forms deformation zones that are arranged between the protuberances (8a, 11a, 12a).
Device for discharging the heat emitted by at least one electrical and/or electronic unit installed in a motor vehicle dashboard, the discharge device comprising a fan and a discharge duct provided with at least one radial orifice so as to allow the heat emitted by at least one electrical and/or electronic unit to enter an interior volume of the discharge duct, an air flow passing through all or part of the interior volume of the discharge duct under the effect of the fan, so as to extract the heat, notably to extract the heat via an open end of the discharge duct, characterized in that the discharge device comprises a first diffuser arranged at the open end of the discharge duct so as to allow the heat to be diffused to the outside of a motor vehicle, a second diffuser arranged at the open end of the discharge duct so as to allow the heat to be diffused into an interior compartment of the motor vehicle and a junction element able to orient the air flow from the interior volume of the discharge duct towards the first diffuser and/or towards the second diffuser, depending on the requirements in the vehicle interior compartment.
An end barrier box for blocking ambient gases from entering a hearth of a reflow oven, comprising: a box body, wherein the box body comprises a bottom, the bottom has a mounting bottom plate, the box body forms a top opening, the box body further comprises a pair of side walls (104, 105), and the side walls (104, 105) are oppositely disposed; and a plurality of deflectors, wherein each of the plurality of deflectors is mounted between the pair of side walls (104, 105), each of the plurality of deflectors comprises at least three fins (212.1, 212.2, 212.3), and the at least three fins (212.1, 212.2, 212.3) are mounted on the mounting bottom plate and extend upward from the mounting bottom plate, wherein each of the fins comprises a bent portion, and the bent portion is connected to the mounting bottom plate by a removable fastening assembly such that the at least three fins (212.1, 212.2, 212.3) are mounted on the mounting bottom plate. a box body, wherein the box body comprises a bottom, the bottom has a mounting bottom plate, the box body forms a top opening, the box body further comprises a pair of side walls (104, 105), and the side walls (104, 105) are oppositely disposed; and a plurality of deflectors, wherein each of the plurality of deflectors is mounted between the pair of side walls (104, 105), each of the plurality of deflectors comprises at least three fins (212.1, 212.2, 212.3), and the at least three fins (212.1, 212.2, 212.3) are mounted on the mounting bottom plate and extend upward from the mounting bottom plate, wherein each of the fins comprises a bent portion, and the bent portion is connected to the mounting bottom plate by a removable fastening assembly such that the at least three fins (212.1, 212.2, 212.3) are mounted on the mounting bottom plate.
An air conditioner comprising a compressor, and a heat storage device disposed around the compressor, the heat storage device comprising: a heat storage material, a heat storage tank to accommodate the heat storage material and a heat storage heat exchanger in an internal space of a tank body delimited by an outer side wall, a bottom wall, and an inner wall, wherein heat generated by the compressor is transferred through the inner wall of the tank body and stored in the heat storage material, characterised in that a material of the tank body has a greater contractility than a material of the compressor such that a degree of contact between the compressor and the inner wall of the tank body is changed depending on temperature changes of the compressor, in that: i) the degree of contact is increased at a low temperature thereby increasing a heat-transfer performance from the compressor to the heat storage material, and ii) the degree of contact is reduced at a high temperature thereby reducing the heat-transfer performance from the compressor to the heat storage material. a heat storage material, a heat storage tank to accommodate the heat storage material and a heat storage heat exchanger in an internal space of a tank body delimited by an outer side wall, a bottom wall, and an inner wall, wherein heat generated by the compressor is transferred through the inner wall of the tank body and stored in the heat storage material, characterised in that a material of the tank body has a greater contractility than a material of the compressor such that a degree of contact between the compressor and the inner wall of the tank body is changed depending on temperature changes of the compressor, in that: i) the degree of contact is increased at a low temperature thereby increasing a heat-transfer performance from the compressor to the heat storage material, and ii) the degree of contact is reduced at a high temperature thereby reducing the heat-transfer performance from the compressor to the heat storage material. i) the degree of contact is increased at a low temperature thereby increasing a heat-transfer performance from the compressor to the heat storage material, and ii) the degree of contact is reduced at a high temperature thereby reducing the heat-transfer performance from the compressor to the heat storage material.
Method for estimating the amount of light scattered by a heterogeneous participating medium, characterised in that the method comprises the steps of: - selecting at least one level of spatial subdivision of said medium from among a plurality of hierarchical levels (21, 22, 23, 24) of spatial subdivision according to at least one item of error information representative of a light attenuation difference in said medium in at least one direction (110, 120) between two consecutive hierarchical levels, said selection comprising a comparison of said error information with a threshold value, wherein the selected level of spatial subdivision corresponds to the level of the highest hierarchical position and of the least fine subdivision if said at least one item of error information is less than said threshold value, and the at least one direction (110, 120) being sampled from a set of samples, a first level of spatial subdivision being selected and associated with at least one first sample (31, 32, 33) of said set, for all other samples of said set situated downstream of the first sample in said direction, the selected level of spatial subdivision is hierarchically greater than or equal to the first level of spatial subdivision; - estimating the amount of scattered light by sampling said medium along at least one scattering direction, the sampling being a function of at least one selected level of spatial subdivision. - selecting at least one level of spatial subdivision of said medium from among a plurality of hierarchical levels (21, 22, 23, 24) of spatial subdivision according to at least one item of error information representative of a light attenuation difference in said medium in at least one direction (110, 120) between two consecutive hierarchical levels, said selection comprising a comparison of said error information with a threshold value, wherein the selected level of spatial subdivision corresponds to the level of the highest hierarchical position and of the least fine subdivision if said at least one item of error information is less than said threshold value, and the at least one direction (110, 120) being sampled from a set of samples, a first level of spatial subdivision being selected and associated with at least one first sample (31, 32, 33) of said set, for all other samples of said set situated downstream of the first sample in said direction, the selected level of spatial subdivision is hierarchically greater than or equal to the first level of spatial subdivision; - estimating the amount of scattered light by sampling said medium along at least one scattering direction, the sampling being a function of at least one selected level of spatial subdivision.
A carton unloader (3500, 3600) for unloading cartons, wherein the carton unloader (3500, 3600) is movable across a floor, the carton unloader (3500, 3600) comprising: a mobile body; a movable arm attached to the mobile body and comprising an end effector at an end thereof, the end effector configured to unload cartons from a carton pile; an operator interface attached to a chassis of the mobile body and extends inwardly above a portion of a conveyor system (3550, 3700, 4400, 4600), wherein the operator interface is configured to control the carton unloader (3500, 3600); and the conveyor system (3550, 3700, 4400, 4600) being mounted on the mobile body and configured to receive the cartons from the end effector, wherein the conveyor system (3550, 3700, 4400, 4600) is configured to simultaneously move the cartons towards a rear of the carton unloader (3500, 3600), characterized in that, the conveyor system is further configured to singulate the cartons while the cartons move, wherein the conveyor system (3550, 3700, 4400, 4600) comprises a plurality of rows of conveyors (4422a, 4422b, 4422c, 4422d, 4422e 4630a, 4630b, 4630c, 4630d) oriented side by side, wherein at least one of the conveyors (4422a, 4422b, 4422c, 4422d, 4422e 4630a, 4630b, 4630c, 4630d) in the plurality of rows of conveyors is configured to move a carton carried thereon at a different speed than other conveyors (4422a, 4422b, 4422c, 4422d, 4422e 4630a, 4630b, 4630c, 4630d) in the plurality of rows of conveyors, rearwards and towards a center line of the conveyor system (3550, 3700, 4400, 4600). a mobile body; a movable arm attached to the mobile body and comprising an end effector at an end thereof, the end effector configured to unload cartons from a carton pile; an operator interface attached to a chassis of the mobile body and extends inwardly above a portion of a conveyor system (3550, 3700, 4400, 4600), wherein the operator interface is configured to control the carton unloader (3500, 3600); and the conveyor system (3550, 3700, 4400, 4600) being mounted on the mobile body and configured to receive the cartons from the end effector, wherein the conveyor system (3550, 3700, 4400, 4600) is configured to simultaneously move the cartons towards a rear of the carton unloader (3500, 3600), characterized in that, the conveyor system is further configured to singulate the cartons while the cartons move, wherein the conveyor system (3550, 3700, 4400, 4600) comprises a plurality of rows of conveyors (4422a, 4422b, 4422c, 4422d, 4422e 4630a, 4630b, 4630c, 4630d) oriented side by side, wherein at least one of the conveyors (4422a, 4422b, 4422c, 4422d, 4422e 4630a, 4630b, 4630c, 4630d) in the plurality of rows of conveyors is configured to move a carton carried thereon at a different speed than other conveyors (4422a, 4422b, 4422c, 4422d, 4422e 4630a, 4630b, 4630c, 4630d) in the plurality of rows of conveyors, rearwards and towards a center line of the conveyor system (3550, 3700, 4400, 4600).
A cardiac stent-valve, preferably a mitral stent-valve, comprising a stent component and a valve component, wherein the stent component comprises an inflow end and an outflow end and a wall between the inflow and the outflow end, and wherein the valve component is made of one single leaflet; the periphery of said single leaflet being partially attached or attachable to the stent component along at least three fixation lines (7', 7"), wherein two fixation lines are at least partially inclined with respect to an annular plane of said valve perpendicular to a flow direction through the stent-valve; characterized by the fact said the third fixation line (7") runs substantially parallel with respect to said plane and wherein said two fixation lines are inclined in a range between about 5° and 50°, preferably in a range of about 25° and 40°, and more preferably about 35° with respect to the annular plane.
Canine excrement collector, constituted on the basis of a telescopic mast with a handle, provided at its upper end with a leash, wherein at the mentioned upper end there is also a trigger, characterised in that the trigger is internally attached to a retractable pulley, and this in turn to a cord whose lower end extends longitudinally inside the mast, passing through a second pulley connected to a floating hexagonal piece, and reaching a fixed hexagonal piece located at the lower end of the mast, wherein the ends of some six flexible or articulated catch pins are attached with a hinge to the floating hexagonal piece, while the fixed hexagonal piece is tangentially provided of six platens, whose opposite ends are attached to the relatively central area of the catch pins, opening or guiding them, while each platen is attached by a cord to the bottom end of its corresponding catch pin.
Aircraft gas turbine oil tank having a casing, which is connected to a filler port, and an optical indicator, where the optical indicator includes several light emitters, each being designed in the form of an LED, which are associated with different specified filling levels provided by a quantity-indicating transmitter of the oil tank and emit an optical signal to an operator, where the indicator is provided at a place that can be well observed by an operator during the filling operation.
A compound of Formula I wherein: R 1 is H; R 2 is t -butyl; R 3 is H or C 1 - 6 alkyl; A is phenyl optionally substituted with one or more A'; and each A' is independently C 1 - 6 alkyl, halo, C 1 - 6 alkyl sulfonyl, amido, C 1 - 6 hydroxyalkyl, C 1 - 6 alkoxy, amino C 1 - 6 alkyl, or deuterium; or a pharmaceutically acceptable salt thereof. R 1 is H; R 2 is t -butyl; R 3 is H or C 1 - 6 alkyl; A is phenyl optionally substituted with one or more A'; and each A' is independently C 1 - 6 alkyl, halo, C 1 - 6 alkyl sulfonyl, amido, C 1 - 6 hydroxyalkyl, C 1 - 6 alkoxy, amino C 1 - 6 alkyl, or deuterium;