mhurhangee/ep-ind-claims huggingface dataset:
Inverter power-controller of an electrical generating system based on a static power converter aimed at improving the integration of renewable energy plants to an electric grid, where the power controller comprises two main blocks, referred to as: electromechanical block formed by a virtual electromechanical characteristic controller and an inertia and damping factor controller which generates and transmits a virtual internal electromotive force (e) to an electric block, formed by a virtual electrical characteristic controller and a virtual admittance controller, characterized in that the virtual electromechanical characteristic controller is configured to: - receive the power difference (ΔP) existing between an input power (P in) into the converter and a power delivered to the grid (P elec), as well as the virtual inertia (J 1, J 2,..., J n) and damping factor (ξ 1, ξ 2,..., ξ n) values for each frequency range (f 1, f 2,... f n) out of a plurality of frequency ranges and a series of auxiliary parameters, such as a nominal frequency of the system (ω rated) and the maximum power supplied (P max), as input signal, and with all of it - generate at the output the virtual internal electromotive force (e) and apply it to one of the inputs of the electric block wherein the inertia and damping factor controller is configured to: - receive input voltage (v in), input current (i in), output voltage (vout), and output current (i out) signals and process them selectively according to a series of adjustment parameters (c 1, c 2..., c n) and powers of reference (P 1, P 2..., P n) for each frequency range, and with all of it - generate the virtual inertia (J 1, J 2,..., J n) and the damping factor values (ξ 1, ξ 2,..., ξ n) for each frequency. electromechanical block formed by a virtual electromechanical characteristic controller and an inertia and damping factor controller which generates and transmits a virtual internal electromotive force (e) to an electric block, formed by a virtual electrical characteristic controller and a virtual admittance controller, - receive the power difference (ΔP) existing between an input power (P in) into the converter and a power delivered to the grid (P elec), as well as the virtual inertia (J 1, J 2,..., J n) and damping factor (ξ 1, ξ 2,..., ξ n) values for each frequency range (f 1, f 2,... f n) out of a plurality of frequency ranges and a series of auxiliary parameters, such as a nominal frequency of the system (ω rated) and the maximum power supplied (P max), as input signal, and with all of it - generate at the output the virtual internal electromotive force (e) and apply it to one of the inputs of the electric block wherein the inertia and damping factor controller is configured to: - receive input voltage (v in), input current (i in), output voltage (vout), and output current (i out) signals and process them selectively according to a series of adjustment parameters (c 1, c 2..., c n) and powers of reference (P 1, P 2..., P n) for each frequency range, and with all of it - generate the virtual inertia (J 1, J 2,..., J n) and the damping factor values (ξ 1, ξ 2,..., ξ n) for each frequency.
A trimmer for trimming a bound material, comprising: a trim knife that trims the bound material; a blade receiving portion that receives a blade edge of the trim knife; and an adjustment mechanism characterized in that the adjusting mechanism is configured to adjust a position of the blade receiving portion in such a manner that each of one side and other side of the blade receiving portion is moved by not only a same amount but also a different amount and in directions toward and away from the blade edge of the trim knife, wherein the adjustment mechanism comprises: first and second motors (61,62); a first connecting portion configured to connect the one side of the blade receiving portion with the first motor; and a second connecting portion configured to connect the other side of the blade receiving portion with the second motor, whereby each of the one side and the other side of the blade receiving portion is moved in the directions toward and away from the blade edge of the trim knife. a trim knife that trims the bound material; a blade receiving portion that receives a blade edge of the trim knife; and an adjustment mechanism characterized in that the adjusting mechanism is configured to adjust a position of the blade receiving portion in such a manner that each of one side and other side of the blade receiving portion is moved by not only a same amount but also a different amount and in directions toward and away from the blade edge of the trim knife, wherein the adjustment mechanism comprises: first and second motors (61,62); a first connecting portion configured to connect the one side of the blade receiving portion with the first motor; and a second connecting portion configured to connect the other side of the blade receiving portion with the second motor, whereby first and second motors (61,62); a first connecting portion configured to connect the one side of the blade receiving portion with the first motor; and a second connecting portion configured to connect the other side of the blade receiving portion with the second motor, whereby each of the one side and the other side of the blade receiving portion is moved in the directions toward and away from the blade edge of the trim knife.
A lamp unit for a vehicle, comprising: one light-emitting element array composed by a plurality of light-emitting elements, said plurality of light-emitting elements having respective individual irradiation regions constituting a high-beam light-distribution pattern and configured to be capable of being turned on individually, said plurality of light-emitting elements mounted in a row on a substrate; a projection lens disposed in front of the light-emitting element array; and a reflector, characterized in that the light-emitting element array is disposed such that a light axis of the light-emitting element array passes through the projection lens; wherein the reflector is disposed below the light-emitting element array and arranged for reflecting light from the light-emitting element array toward the projection lens; and a portion of light from the light-emitting element array is directly incident on the projection lens and at least another portion of light from the light-emitting element array is reflected by the reflector before being incident on the projection lens; and wherein an interval between the light-emitting elements within the one light-emitting element array increases as the distance from the optical axis of the projection lens increases. one light-emitting element array composed by a plurality of light-emitting elements, said plurality of light-emitting elements having respective individual irradiation regions constituting a high-beam light-distribution pattern and configured to be capable of being turned on individually, said plurality of light-emitting elements mounted in a row on a substrate; a projection lens disposed in front of the light-emitting element array; and a reflector, characterized in that the light-emitting element array is disposed such that a light axis of the light-emitting element array passes through the projection lens; wherein the reflector is disposed below the light-emitting element array and arranged for reflecting light from the light-emitting element array toward the projection lens; and a portion of light from the light-emitting element array is directly incident on the projection lens and at least another portion of light from the light-emitting element array is reflected by the reflector before being incident on the projection lens; and wherein an interval between the light-emitting elements within the one light-emitting element array increases as the distance from the optical axis of the projection lens increases.
A catheter comprising: a sheath having a guidewire lumen, an inflation lumen, a proximal end and a distal end; a plurality of optical fibers circumferentially arranged around or adjacent to the guidewire lumen, wherein at least a portion of the plurality of optical fibers comprise a distal end, wherein each distal end comprises an emitter to emit laser light; a balloon assembly circumferentially arranged around a portion of the sheath and around at least one emitter; one or more liquid medium ports disposed within the sheath and within the balloon assembly; and a pressure-wave reflective element disposed adjacent the balloon assembly, wherein the pressure-wave reflective element attenuates the pressure wave passing therethrough upon creation of the pressure wave within the balloon assembly by the reaction between laser light emitted by the emitter and a liquid medium introduced into the balloon assembly via the one or more liquid medium ports. a sheath having a guidewire lumen, an inflation lumen, a proximal end and a distal end; a plurality of optical fibers circumferentially arranged around or adjacent to the guidewire lumen, wherein at least a portion of the plurality of optical fibers comprise a distal end, wherein each distal end comprises an emitter to emit laser light; a balloon assembly circumferentially arranged around a portion of the sheath and around at least one emitter; one or more liquid medium ports disposed within the sheath and within the balloon assembly; and a pressure-wave reflective element disposed adjacent the balloon assembly, wherein the pressure-wave reflective element attenuates the pressure wave passing therethrough upon creation of the pressure wave within the balloon assembly by the reaction between laser light emitted by the emitter and a liquid medium introduced into the balloon assembly via the one or more liquid medium ports.
A method for the treatment of effluents containing nitrogen in the form of ammonium, using a sequencing batch reactor, according to which: - a volume of effluent to be treated in a complete cycle is introduced into the batch reactor in successive volume fractions, each volume fraction being treated during a subcycle, the successive introduction of the volume fractions making it possible to exert a bacterial selection pressure favorable to the development and to the activity of nitriting bacteria by means of ammoniacal single-shots, - each subcycle comprises a phase of feeding with a volume fraction and, in an alternating manner, two treatment stages, i.e.: - an aerated first stage, during which complete or partial oxidation of the ammonium so as to give nitrites takes place, - followed by a nonaerated second stage, under anoxic conditions, during which the nitrites produced and the ammonium are converted to nitrogen gas, characterized in that: - during the aerated first stage, the dissolved oxygen concentration in the batch reactor is maintained between 0.1 mgO 2 /l and 0.6 mgO 2 /l, - the N-NO 2:N-NH 4 ratio is adjusted so as to be between 0.9 and 1.5 at the beginning of the nonaerated stage, - and the nonaerated stage is carried out by deammonification, without the provision of a carbon-based substrate. - a volume of effluent to be treated in a complete cycle is introduced into the batch reactor in successive volume fractions, each volume fraction being treated during a subcycle, the successive introduction of the volume fractions making it possible to exert a bacterial selection pressure favorable to the development and to the activity of nitriting bacteria by means of ammoniacal single-shots, - each subcycle comprises a phase of feeding with a volume fraction and, in an alternating manner, two treatment stages, i.e.: - an aerated first stage, during which complete or partial oxidation of the ammonium so as to give nitrites takes place, - followed by a nonaerated second stage, under anoxic conditions, during which the nitrites produced and the ammonium are converted to nitrogen gas, characterized in that: - during the aerated first stage, the dissolved oxygen concentration in the batch reactor is maintained between 0.1 mgO 2 /l and 0.6 mgO 2 /l, - the N-NO 2:N-NH 4 ratio is adjusted so as to be between 0.9 and 1.5 at the beginning of the nonaerated stage, - and the nonaerated stage is carried out by deammonification, without the provision of a carbon-based substrate. - an aerated first stage, during which complete or partial oxidation of the ammonium so as to give nitrites takes place, - followed by a nonaerated second stage, under anoxic conditions, during which the nitrites produced and the ammonium are converted to nitrogen gas, - during the aerated first stage, the dissolved oxygen concentration in the batch reactor is maintained between 0.1 mgO 2 /l and 0.6 mgO 2 /l, - the N-NO 2:N-NH 4 ratio is adjusted so as to be between 0.9 and 1.5 at the beginning of the nonaerated stage, - and the nonaerated stage is carried out by deammonification, without the provision of a carbon-based substrate.
A system for manufacturing a blade component of a rotor blade of a wind turbine, the system comprising: a blade mold of the rotor blade; at least one blade skin arranged atop the blade mold; and, a computer numeric control device comprising a printer head and a scanning device, the printer head for printing and depositing a material onto the at least one blade skin to form the blade component, wherein the scanning device comprises a processor and a scanner communicatively coupled to the processor, the scanning device for determining a profile of the at least one blade skin atop the blade mold as the blade component is being printed and deposited layer by layer characterized in that the printer head is automatically adjusted to compensate for changes in the profile in at least one of a horizontal direction or a vertical direction due to at least one of thermal expansion of the blade mold, thickness variations of fibers of the at least one blade skin, or movement of the at least one blade skin atop the blade mold. a blade mold of the rotor blade; at least one blade skin arranged atop the blade mold; and, a computer numeric control device comprising a printer head and a scanning device, the printer head for printing and depositing a material onto the at least one blade skin to form the blade component, wherein the scanning device comprises a processor and a scanner communicatively coupled to the processor, the scanning device for determining a profile of the at least one blade skin atop the blade mold as the blade component is being printed and deposited layer by layer characterized in that the printer head is automatically adjusted to compensate for changes in the profile in at least one of a horizontal direction or a vertical direction due to at least one of thermal expansion of the blade mold, thickness variations of fibers of the at least one blade skin, or movement of the at least one blade skin atop the blade mold.
A communication method performed by a terminal device, comprising: determining downlink signal quality; determining a downlink coverage enhancement level of the terminal device based on the downlink signal quality and a first coverage enhancement level quality threshold; and determining an uplink coverage enhancement level of the terminal device based on the downlink signal quality and a second coverage enhancement level quality threshold, wherein the first coverage enhancement level quality threshold is different from the second coverage enhancement level quality threshold; characterized in that the uplink coverage enhancement level of the terminal device is an uplink coverage enhancement level of a first uplink carrier, and the method further comprises: determining an uplink coverage enhancement level of a supplementary uplink, SUL, carrier; if the uplink coverage enhancement level of the first uplink carrier is higher than the uplink coverage enhancement level of the SUL carrier, performing uplink transmission by using the SUL carrier, wherein a frequency of the first uplink carrier is higher than a frequency of the SUL carrier, and a higher uplink coverage enhancement level indicates a poorer coverage capability corresponding to the uplink coverage enhancement level. determining downlink signal quality; determining a downlink coverage enhancement level of the terminal device based on the downlink signal quality and a first coverage enhancement level quality threshold; and determining an uplink coverage enhancement level of the terminal device based on the downlink signal quality and a second coverage enhancement level quality threshold, wherein the first coverage enhancement level quality threshold is different from the second coverage enhancement level quality threshold; characterized in that the uplink coverage enhancement level of the terminal device is an uplink coverage enhancement level of a first uplink carrier, and the method further comprises: determining an uplink coverage enhancement level of a supplementary uplink, SUL, carrier; if the uplink coverage enhancement level of the first uplink carrier is higher than the uplink coverage enhancement level of the SUL carrier, performing uplink transmission by using the SUL carrier, wherein a frequency of the first uplink carrier is higher than a frequency of the SUL carrier, and a higher uplink coverage enhancement level indicates a poorer coverage capability corresponding to the uplink coverage enhancement level. determining an uplink coverage enhancement level of a supplementary uplink, SUL, carrier; if the uplink coverage enhancement level of the first uplink carrier is higher than the uplink coverage enhancement level of the SUL carrier, performing uplink transmission by using the SUL carrier, wherein a frequency of the first uplink carrier is higher than a frequency of the SUL carrier, and a higher uplink coverage enhancement level indicates a poorer coverage capability corresponding to the uplink coverage enhancement level.
A T-shaped wedge for assembling a furniture unit, comprising: - a rectangular plate, wherein the edges of the plate define a length direction and a width direction, - a trapezoid plate, superimposed on the rectangular plate such that a first parallel edge of the trapezoid plate is adjacent to a first width edge of the rectangular plate, and wherein the non-parallel edges are symmetrically tapered along the length direction and in the direction away from the first width edge, and - a beam, placed at the first width edge, thereby forming the T-shape wherein the wedge is configured for frictionally engaging two planes within the furniture unit, and characterized in that it comprises - at least one slit extending in the length direction of the wedge, configured for slidably receiving an expander. - a rectangular plate, wherein the edges of the plate define a length direction and a width direction, - a trapezoid plate, superimposed on the rectangular plate such that a first parallel edge of the trapezoid plate is adjacent to a first width edge of the rectangular plate, and wherein the non-parallel edges are symmetrically tapered along the length direction and in the direction away from the first width edge, and - a beam, placed at the first width edge, thereby forming the T-shape wherein the wedge is configured for frictionally engaging two planes within the furniture unit, and characterized in that it comprises - at least one slit extending in the length direction of the wedge, configured for slidably receiving an expander.
A double stranded RNAi agent for inhibiting expression of Serpinal in a cell, wherein said double stranded RNAi agent comprises a sense strand and an antisense strand forming a double stranded region, wherein said sense strand comprises at least 15 contiguous nucleotides differing by no more than 3 nucleotides from any one of the nucleotide sequences of SEQ ID NO:1, SEQ ID NO:2, SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO:5, SEQ ID NO:6, SEQ ID NO:7, SEQ ID NO:8, SEQ ID NO:9, SEQ ID NO:10, or SEQ ID NO:11, and said antisense strand comprises at least 15 contiguous nucleotides differing by no more than 3 nucleotides from any one of the nucleotide sequences of SEQ ID NO:15, SEQ ID NO:16, SEQ ID NO:17, SEQ ID NO:18, SEQ ID NO: 19, SEQ ID NO:20, SEQ ID NO:21, SEQ ID NO:22, SEQ ID NO:23, SEQ ID NO:24, or SEQ ID NO:25, wherein substantially all of the nucleotides of said sense strand comprise a modification selected from the group consisting of a 2'-O-methyl modification and a 2'-fluoro modification, wherein said sense strand comprises two phosphorothioate internucleotide linkages at the 5'-terminus, wherein substantially all of the nucleotides of said antisense strand comprise a modification selected from the group consisting of a 2'-O-methyl modification and a 2'-fluoro modification, wherein said antisense strand comprises two phosphorothioate internucleotide linkages at the 5'-terminus and two phosphorothioate internucleotide linkages at the 3'-terminus, wherein said sense strand is conjugated to one or more GalNAc derivatives attached through a branched bivalent or trivalent linker at the 3'-terminus, wherein "substantially all" of the nucleotides being modified means that not more than 5, 4, 3, 2 or 1 nucleotides are unmodified.
A packet forwarding method, comprising: determining that a total number of links is an integral power of 2, wherein the total number of links is a sum of a number of added virtual links and a number of actual links for forwarding a data packet, wherein the virtual links are added to make the total number of links be an integral power of 2; extracting a part of fields from the data packet, performing cyclic redundancy check on a byte sequence formed by the extracted part of fields, to calculate a hash value of the data packet, and calculating a remainder of the hash value divided by the total number of links; and if the remainder of the hash value divided by the total number of links corresponds to a virtual link, calculating a remainder of the hash value divided by the number of actual links, and forwarding the data packet on an actual link corresponding to the remainder of the hash value divided by the number of the actual links; or if the remainder of the hash value divided by the total number of links corresponds to an actual link, forwarding the data packet on the actual link. determining that a total number of links is an integral power of 2, wherein the total number of links is a sum of a number of added virtual links and a number of actual links for forwarding a data packet, wherein the virtual links are added to make the total number of links be an integral power of 2; extracting a part of fields from the data packet, performing cyclic redundancy check on a byte sequence formed by the extracted part of fields, to calculate a hash value of the data packet, and calculating a remainder of the hash value divided by the total number of links; and if the remainder of the hash value divided by the total number of links corresponds to a virtual link, calculating a remainder of the hash value divided by the number of actual links, and forwarding the data packet on an actual link corresponding to the remainder of the hash value divided by the number of the actual links; or if the remainder of the hash value divided by the total number of links corresponds to an actual link, forwarding the data packet on the actual link.