mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a wind turbine blade of at least 40 metres in length, the method comprising the steps of: curing at least a section of a first wind turbine blade shell in a first blade mould ; curing at least a section of a second wind turbine blade shell in a second blade mould ; transferring said first and second cured blade shells from said first and second blade moulds to a post-moulding station comprising two blade cradles to receive said first and second cured blade shells, wherein said step of transferring comprises transferring said first cured blade shell to a first blade cradle and transferring said second cured blade shell to a second blade cradle ; closing said first and second cured blade shells to form a closed wind turbine blade shell, and bonding said first and second cured blade shells in said closed wind turbine blade shell to form a wind turbine blade, characterized in that the method comprises the step of turning said first cured blade shell relative to said second cured blade shell by hinging the first blade cradle relative to the second blade cradle in said post-moulding station to form a closed wind turbine blade shell, and wherein said step of bonding is performed on said closed wind turbine blade shell to form a wind turbine blade. curing at least a section of a first wind turbine blade shell in a first blade mould ; curing at least a section of a second wind turbine blade shell in a second blade mould ; transferring said first and second cured blade shells from said first and second blade moulds to a post-moulding station comprising two blade cradles to receive said first and second cured blade shells, wherein said step of transferring comprises transferring said first cured blade shell to a first blade cradle and transferring said second cured blade shell to a second blade cradle ; closing said first and second cured blade shells to form a closed wind turbine blade shell, and bonding said first and second cured blade shells in said closed wind turbine blade shell to form a wind turbine blade, characterized in that the method comprises the step of turning said first cured blade shell relative to said second cured blade shell by hinging the first blade cradle relative to the second blade cradle in said post-moulding station to form a closed wind turbine blade shell, and wherein said step of bonding is performed on said closed wind turbine blade shell to form a wind turbine blade.
A method for wireless connection, characterized in that the method comprises: sending, by a main Transmission Point, TP, a connection indication to User Equipment, UE, the connection indication being used to indicate the UE to establish a connection with at least one sub TP on the premise of keeping a current connection with the main TP ; the method further comprising: acquiring, by the main TP, related information of the at least one sub TP; acquiring, by the main TP, basic information of the at least one sub TP through the UE, and sending the related information of the at least one sub TP to the UE, wherein the related information is sent to the UE together with the connection indication. sending, by a main Transmission Point, TP, a connection indication to User Equipment, UE, the connection indication being used to indicate the UE to establish a connection with at least one sub TP on the premise of keeping a current connection with the main TP ; the method further comprising: acquiring, by the main TP, related information of the at least one sub TP; acquiring, by the main TP, basic information of the at least one sub TP through the UE, and sending the related information of the at least one sub TP to the UE, wherein the related information is sent to the UE together with the connection indication.
An electrode assembly comprising two or more positive electrode plates, two or more negative electrode plates laminated with each of separators interposed therebetween, a positive electrode lead , a negative electrode lead , an horizontal length x, a vertical length y and an average thickness (mm) t wherein the horizontal length x is longer than the vertical length y, wherein the positive electrode lead and the negative electrode lead protrude side by side in a parallel direction to the vertical length y, protrude in an opposite direction to each other in a parallel direction to the vertical length y, protrude side by side in a parallel direction to the horizontal length x, or protrude in an opposite direction to each other in the parallel direction to an horizontal length x, wherein the electrode assembly is bent perpendicular to the horizontal length x by a curvature radius (R) satisfying the following Equation 1: S 1 / ln x / y * t = R wherein S is a constant between 10 and 15, R is 5 mm to 40 mm, ln(x/y) ≥ 1, the average thickness t is 2 mm or less, and preferably a ratio of y to x (y:x) is from 1:3 to 1:50.
A method for generating a filter of an audio signal, comprising: receiving one or more proto-type filter coefficients for filtering each subband signal of an input audio signal, the proto-type filter coefficients being binaural room impulse response, BRIR, filter coefficients in a time domain; converting the proto-type filter coefficients into a plurality of subband filter coefficients; the method being characterized in that it further comprises the steps of: individually truncating the subband filter coefficients for each subband, wherein the length of the truncated subband filter coefficients is determined based on filter order information obtained by at least partially using reverberation time information extracted from the corresponding subband filter coefficients, and wherein the filter order is determined to be variable in a frequency domain according to the reverberation time information of each subband; and generating FFT filter coefficients by fast Fourier transforming, FFT, the truncated subband filter coefficients by a predetermined block size in the corresponding subband. receiving one or more proto-type filter coefficients for filtering each subband signal of an input audio signal, the proto-type filter coefficients being binaural room impulse response, BRIR, filter coefficients in a time domain; converting the proto-type filter coefficients into a plurality of subband filter coefficients; the method being characterized in that it further comprises the steps of: individually truncating the subband filter coefficients for each subband, wherein the length of the truncated subband filter coefficients is determined based on filter order information obtained by at least partially using reverberation time information extracted from the corresponding subband filter coefficients, and wherein the filter order is determined to be variable in a frequency domain according to the reverberation time information of each subband; and generating FFT filter coefficients by fast Fourier transforming, FFT, the truncated subband filter coefficients by a predetermined block size in the corresponding subband. individually truncating the subband filter coefficients for each subband, wherein the length of the truncated subband filter coefficients is determined based on filter order information obtained by at least partially using reverberation time information extracted from the corresponding subband filter coefficients, and wherein the filter order is determined to be variable in a frequency domain according to the reverberation time information of each subband; and generating FFT filter coefficients by fast Fourier transforming, FFT, the truncated subband filter coefficients by a predetermined block size in the corresponding subband.
A light emitting diode , comprising: a substrate comprising an upper surface and side surfaces; a semiconductor stack disposed under the substrate and comprising a first conductivity type semiconductor layer , a second conductivity type semiconductor layer , and an active layer interposed between the first conductivity type semiconductor layer and the second conductivity type semiconductor layer ; an ohmic reflection layer electrically connected to the second conductivity type semiconductor layer ; a first bump pad and a second bump pad disposed under the ohmic reflection layer and electrically connected to the first conductivity type semiconductor layer and the second conductivity type semiconductor layer , respectively; a side reflection layer comprising a portion covering the upper surface of the substrate along an edge of the upper surface of the substrate and covering the side surfaces of the substrate , and a portion partially covering the upper surface of the substrate such that a region exposing the upper surface of the substrate is divided into at least two regions to define a light emitting surface having a smaller area than the upper surface of the substrate ; and a plurality of wavelength converters (81a, 81 b) attached to the upper surface of the substrate to be arranged adjacent to each other, the plurality of wavelength converters containing different kinds of phosphors. a substrate comprising an upper surface and side surfaces; a semiconductor stack disposed under the substrate and comprising a first conductivity type semiconductor layer , a second conductivity type semiconductor layer , and an active layer interposed between the first conductivity type semiconductor layer and the second conductivity type semiconductor layer ; an ohmic reflection layer electrically connected to the second conductivity type semiconductor layer ; a first bump pad and a second bump pad disposed under the ohmic reflection layer and electrically connected to the first conductivity type semiconductor layer and the second conductivity type semiconductor layer , respectively; a side reflection layer comprising a portion covering the upper surface of the substrate along an edge of the upper surface of the substrate and covering the side surfaces of the substrate , and a portion partially covering the upper surface of the substrate such that a region exposing the upper surface of the substrate is divided into at least two regions to define a light emitting surface having a smaller area than the upper surface of the substrate ; and a plurality of wavelength converters (81a, 81 b) attached to the upper surface of the substrate to be arranged adjacent to each other, the plurality of wavelength converters containing different kinds of phosphors.
An absorbent article comprising: a liquid permeable topsheet , a liquid impermeable backsheet , and an absorbent core positioned between said topsheet and backsheet , wherein the absorbent core comprises an absorbent material , said absorbent material comprising cellulose fibers and/or superabsorbent polymer particles, and wherein said absorbent material is contained within at least one core wrap substrate enclosing said absorbent material therein, wherein the absorbent core further comprises an intermediate layer positioned between a top layer of said core wrap and a bottom layer of said core wrap such that said absorbent material is disposed between said top layer and said intermediate layer and between said bottom layer and said intermediate layer , characterized in that the intermediate layer is selected from a nonwoven, and wherein the absorbent core comprises no more than two compartments or clusters of absorbent material, and at most a top compartment or cluster between the top layer and the intermediate layer ; and a bottom compartment or cluster (11") between the bottom layer and the intermediate layer , and wherein the top layer , the bottom layer , and the intermediate layer are joined together by one or more adhesives and/or by one or more mechanical bonds selected from the group consisting of ultrasonic bonds, thermal bonds, pressure bonds, and combinations thereof, and wherein the nonwoven is selected from the group consisting of wetlaid, airlaid, carded, spunbond, meltblown, carded thermobonded, air-through-bonded, spunlaced, tissue, and combinations thereof. a liquid permeable topsheet , a liquid impermeable backsheet , and an absorbent core positioned between said topsheet and backsheet , wherein the absorbent core comprises an absorbent material , said absorbent material comprising cellulose fibers and/or superabsorbent polymer particles, and wherein said absorbent material is contained within at least one core wrap substrate enclosing said absorbent material therein, wherein the absorbent core further comprises an intermediate layer positioned between a top layer of said core wrap and a bottom layer of said core wrap such that said absorbent material is disposed between said top layer and said intermediate layer and between said bottom layer and said intermediate layer , characterized in that the intermediate layer is selected from a nonwoven, and wherein the absorbent core comprises no more than two compartments or clusters of absorbent material, and at most a top compartment or cluster between the top layer and the intermediate layer ; and a bottom compartment or cluster (11") between the bottom layer and the intermediate layer , and wherein the top layer , the bottom layer , and the intermediate layer are joined together by one or more adhesives and/or by one or more mechanical bonds selected from the group consisting of ultrasonic bonds, thermal bonds, pressure bonds, and combinations thereof, and wherein the nonwoven is selected from the group consisting of wetlaid, airlaid, carded, spunbond, meltblown, carded thermobonded, air-through-bonded, spunlaced, tissue, and combinations thereof.
An adhesive composition comprising: 20% to 90% of an adhesive; 0.1% to 50% of at least one absorbent; 0.1% to 20% of at least one active agent; 0.1% to 30% of at least one soluble crystallization inhibitor; and 0.1% to 30% of a vehicle, wherein the at least one active agent exists in a stable amorphous state within the adhesive composition, the at least one crystallization inhibitor is polyvinylpyrrolidone, and the various components are homogeneously blended into a single cohesive mass. 20% to 90% of an adhesive; 0.1% to 50% of at least one absorbent; 0.1% to 20% of at least one active agent; 0.1% to 30% of at least one soluble crystallization inhibitor; and 0.1% to 30% of a vehicle, wherein the at least one active agent exists in a stable amorphous state within the adhesive composition, the at least one crystallization inhibitor is polyvinylpyrrolidone, and the various components are homogeneously blended into a single cohesive mass.
A power control circuit connectable to a load adapted to receive a mains power supply , including a series reactive power controller connected in series with the mains power supply and the load for absorbing and delivering power thereby enabling the power control circuit to absorb power from and deliver power to the mains power supply to stabilize a mains voltage of the mains power supply , wherein the power can be reactive or active or both, wherein the power control circuit is designed to maintain the mains power supply at a nominal mains voltage characterized in that the power control circuit is configured such that a difference between an actual ac mains voltage Vs, which is an input voltage of the series reactive power controller , and a reference mains voltage Vs_ref, which is the nominal mains voltage, is fed to said series reactive power controller such that said series reactive power controller is configured to cause the actual ac mains voltage Vs to follow said reference mains voltage Vs_ref by providing an auxiliary voltage such that a vectorial sum of a load voltage of the load and the auxiliary voltage equals the nominal supply voltage, wherein the power control circuit is designed to allow an output voltage (Vo) of the series reactive power controller to fluctuate dynamically to follow a dynamic power profile.
A stent-graft for use in a medical procedure, the stent-graft comprising: a stent and a graft material , wherein said the stent includes: a series of proximal apices disposed at a proximal end of the stent; a series of distal apices disposed at a distal end of the stent; a transition region disposed between the proximal and distal ends of the stent; a plurality of first adjacent strut segments disposed between the proximal apices and the transition region , the first adjacent strut segments each having a distal end; a plurality of second adjacent strut segments disposed between the transition region and the distal apices , the second adjacent strut segments each having a proximal end; wherein the distal ends of the first adjacent strut segments are joined at the transition region , and wherein the proximal ends of the second adjacent strut segments are joined at the transition region ; at least one imaging element disposed in transition region ; and a first suture bore disposed at a location in the transition region distal to the imaging element , wherein the first suture bore receives a suture that couples a portion of the stent to the graft material , wherein a distal region of the stent, including the series of distal apices and a distal part of the transition region including the first suture bore , overlaps with the graft material , and wherein a proximal region of the stent, including the series of proximal apices and a proximal portion of the transition , is disposed proximally beyond the graft material . a series of proximal apices disposed at a proximal end of the stent; a series of distal apices disposed at a distal end of the stent; a transition region disposed between the proximal and distal ends of the stent; a plurality of first adjacent strut segments disposed between the proximal apices and the transition region , the first adjacent strut segments each having a distal end; a plurality of second adjacent strut segments disposed between the transition region and the distal apices , the second adjacent strut segments each having a proximal end; wherein the distal ends of the first adjacent strut segments are joined at the transition region , and wherein the proximal ends of the second adjacent strut segments are joined at the transition region ; at least one imaging element disposed in transition region ; and a first suture bore disposed at a location in the transition region distal to the imaging element , wherein the first suture bore receives a suture that couples a portion of the stent to the graft material , wherein a distal region of the stent, including the series of distal apices and a distal part of the transition region including the first suture bore , overlaps with the graft material , and wherein a proximal region of the stent, including the series of proximal apices and a proximal portion of the transition , is disposed proximally beyond the graft material .
A flying object including an image capturing apparatus , the flying object comprising: a light emitting apparatus that includes a light source and is configured to cause the light source to emit light to indicate a status of the flying object , a light emission control means configured to control an amount of light emission of the light source included in the light emitting apparatus according to an exposure setting of the image capturing apparatus , characterized in that the light emission control means is configured to control the amount of light emission of the light source included in the light emitting apparatus such that the amount of light emission of the light source included in the light emitting apparatus is smaller in a case where the exposure setting corresponds to a second exposure amount larger than a first exposure amount than in a case where the exposure setting corresponds to the first exposure amount. a light emitting apparatus that includes a light source and is configured to cause the light source to emit light to indicate a status of the flying object , a light emission control means configured to control an amount of light emission of the light source included in the light emitting apparatus according to an exposure setting of the image capturing apparatus , characterized in that the light emission control means is configured to control the amount of light emission of the light source included in the light emitting apparatus such that the amount of light emission of the light source included in the light emitting apparatus is smaller in a case where the exposure setting corresponds to a second exposure amount larger than a first exposure amount than in a case where the exposure setting corresponds to the first exposure amount.
An endoscope comprising: (h) an insertion portion having a flexible insertion tube and a distal end with a distal end face, wherein the insertion portion has a first surgical instrument channel and a second surgical instrument channel; (i) a distal end face having a first quadrant, a second quadrant, a third quadrant and a fourth quadrant arranged_thereon; (iv) wherein the first quadrant and third quadrant are at opposite sides of the center of the distal end face; (v) wherein the second quadrant and the fourth quadrant are at opposite sides of the center of the distal end face; (vi) wherein the quadrants are arranged in a quadrant sequence; (j) an objective camera lens and a lens cleaning nozzle (A/W nozzle) located entirely in the first quadrant; (k) a first surgical instrument channel outlet located in the second quadrant; (I) an auxiliary channel outlet (Aux) located entirely in the third quadrant; (m) a second surgical instrument channel outlet located entirely in the fourth quadrant; and (n) a forward feeding water jet (WJ) located on the distal end face entirely in any single quadrant other than the first quadrant. (h) an insertion portion having a flexible insertion tube and a distal end with a distal end face, wherein the insertion portion has a first surgical instrument channel and a second surgical instrument channel; (i) a distal end face having a first quadrant, a second quadrant, a third quadrant and a fourth quadrant arranged_thereon; (iv) wherein the first quadrant and third quadrant are at opposite sides of the center of the distal end face; (v) wherein the second quadrant and the fourth quadrant are at opposite sides of the center of the distal end face; (vi) wherein the quadrants are arranged in a quadrant sequence; (iv) wherein the first quadrant and third quadrant are at opposite sides of the center of the distal end face; (v) wherein the second quadrant and the fourth quadrant are at opposite sides of the center of the distal end face; (vi) wherein the quadrants are arranged in a quadrant sequence; (j) an objective camera lens and a lens cleaning nozzle (A/W nozzle) located entirely in the first quadrant; (k) a first surgical instrument channel outlet located in the second quadrant; (I) an auxiliary channel outlet (Aux) located entirely in the third quadrant; (m) a second surgical instrument channel outlet located entirely in the fourth quadrant; and (n) a forward feeding water jet (WJ) located on the distal end face entirely in any single quadrant other than the first quadrant.
Use of a rapid-acting, blood arginine level-increasing oral preparation comprising citrulline or a salt thereof and arginine or a salt thereof as active ingredients for the prevention or improvement of muscle fatigue or feeling of fatigue after exercise, wherein the weight ratio of citrulline or a salt thereof and arginine or a salt thereof in the oral preparation is 1:2 to 2:1, based on free citrulline and arginine, and wherein methods for treatment of the human or animal body by therapy are excluded.