mhurhangee/patent-ind-claim-en huggingface dataset:
A sorting system for an absorbent product which is provided with: a main conveyor path ; a branch conveyor path which is branched from the main conveyor path ; a main conveyor mechanism which is configured to convey an absorbent product along the main conveyor path ; a sorting mechanism which is configured to divert an absorbent product in the main conveyor path from the main conveyor path to the branch conveyor path ; and a branch conveyor mechanism which is configured to convey an absorbent product which was diverted by the sorting mechanism along the branch conveyor path wherein the sorting mechanism is provided with a sorting member which is configured to divert the absorbent product, and wherein the sorting member is configured to be held in a stand-by position outside the main conveyor path when said absorbent product should move along the main conveyor path and is moved, without being stopped, from said standby position outside the main conveyor path to the inside of the main conveyor path and is configured to divert the absorbent product from the main conveyor path to the branch conveyor path and is configured to be then retracted from the main conveyor path and is returned to the standby position, wherein the sorting member is configured to be rotated in one direction so as to leave the standby position, cut across the main conveyor path , and return to the standby position, characterised in that the rotation operation of the sorting member is started so that the front ends (AE) of the absorbent products (A) strike the leading end parts of the sorting member . a main conveyor path ; a branch conveyor path which is branched from the main conveyor path ; a main conveyor mechanism which is configured to convey an absorbent product along the main conveyor path ; a sorting mechanism which is configured to divert an absorbent product in the main conveyor path from the main conveyor path to the branch conveyor path ; and a branch conveyor mechanism which is configured to convey an absorbent product which was diverted by the sorting mechanism along the branch conveyor path wherein the sorting mechanism is provided with a sorting member which is configured to divert the absorbent product, and wherein the sorting member is configured to be held in a stand-by position outside the main conveyor path when said absorbent product should move along the main conveyor path and is moved, without being stopped, from said standby position outside the main conveyor path to the inside of the main conveyor path and is configured to divert the absorbent product from the main conveyor path to the branch conveyor path and is configured to be then retracted from the main conveyor path and is returned to the standby position, wherein the sorting member is configured to be rotated in one direction so as to leave the standby position, cut across the main conveyor path , and return to the standby position, characterised in that the rotation operation of the sorting member is started so that the front ends (AE) of the absorbent products (A) strike the leading end parts of the sorting member .
User equipment (302 1 ) of a wireless communication system, wherein the user equipment (302 1 ) is configured to communicate with a base station of the wireless communication system via a satellite of the wireless communication system, wherein the user equipment (302 1 ) is configured to receive, from the base station via the satellite or from another user equipment (302 2 ) of the wireless communication system via a sidelink, a control information, the control information signaling parameters for parameterizing a non-linear function, the parameterized non-linear function describing a course of a round trip time or delay time between - the satellite and one out of the base station or satellite gateway of the wireless communication system, or - the satellite and a geographical reference point of the wireless communication system, or - a first reference point and a second reference point, the first reference point having a fixed relation to the satellite and the second reference point having a fixed relation to one out of the base station , satellite gateway or user equipment (302 1 ), in dependence on a location of the satellite , wherein the user equipment (302 1 ) is configured to time synchronize communications with the base station using the parameterized non-linear function. wherein the user equipment (302 1 ) is configured to communicate with a base station of the wireless communication system via a satellite of the wireless communication system, wherein the user equipment (302 1 ) is configured to receive, from the base station via the satellite or from another user equipment (302 2 ) of the wireless communication system via a sidelink, a control information, the control information signaling parameters for parameterizing a non-linear function, the parameterized non-linear function describing a course of a round trip time or delay time between - the satellite and one out of the base station or satellite gateway of the wireless communication system, or - the satellite and a geographical reference point of the wireless communication system, or - a first reference point and a second reference point, the first reference point having a fixed relation to the satellite and the second reference point having a fixed relation to one out of the base station , satellite gateway or user equipment (302 1 ), - the satellite and one out of the base station or satellite gateway of the wireless communication system, or - the satellite and a geographical reference point of the wireless communication system, or - a first reference point and a second reference point, the first reference point having a fixed relation to the satellite and the second reference point having a fixed relation to one out of the base station , satellite gateway or user equipment (302 1 ), in dependence on a location of the satellite , wherein the user equipment (302 1 ) is configured to time synchronize communications with the base station using the parameterized non-linear function.
Floor formwork support structure, comprising diagonal reinforcements and height-adjustable props on which said diagonal reinforcements are mounted, one of the ends of which reinforcements is attached in a hole in the upper portion of a prop and a region close to the other end of said reinforcements is attached to a second prop, the upper portion of the props comprising respective rows of adjustment holes, wherein each of the diagonal reinforcements comprises a projecting pivot close to the upper end thereof, or on the upper end itself, characterised in that the free end of which pivot is curved, the projecting pivot and the curved free end of said pivot being in a plane perpendicular to a longitudinal axis of the reinforcement, adopting a curvature that allows the curved end of the pivot to be progressively inserted into one of the adjustment holes in the prop by rotating the reinforcement about the axis thereof, the reinforcement simultaneously rolling on the surface of the prop, and being possible to detach the reinforcement simply by reproducing the insertion movement in reverse.
Method for synchronizing a turbine with an AC network having a network frequency , comprising the following steps: A) accelerating the turbine up to a nominal rotational speed without taking into consideration a difference angle between turbine and AC network; B) detecting a difference angle between turbine and AC network; C) accelerating or decelerating the turbine such that the differential speed follows a target trajectory, wherein the differential speed represents the metrologically detected frequency difference between turbine and AC network, wherein the target trajectory is a trajectory which specifies a target rotational speed in dependence on the detected difference angle , so that a target angular position suitable for a synchronous supply is achieved between turbine and AC network. A) accelerating the turbine up to a nominal rotational speed without taking into consideration a difference angle between turbine and AC network; B) detecting a difference angle between turbine and AC network; C) accelerating or decelerating the turbine such that the differential speed follows a target trajectory,
A wind turbine drive control device for controlling a plurality of drive devices for moving two structures included in a wind power generation device relative to each other, the wind turbine drive control device comprising: a sensor configured to obtain a plurality of information items related to loads occurring between each of the plurality of drive devices and one of the two structures that receives forces generated by the plurality of drive devices ; and a control unit configured to control the plurality of drive devices based on the plurality of information items, characterized in that in a case that at least one drive device of the plurality of drive devices is under a load equal to or greater than a threshold value in a state where each of the plurality of drive devices is controlled to generate a first predetermined braking force, the control unit is configured to control the plurality of drive devices to temporarily reduce each braking force of the at least one drive device, while temporarily increasing each braking force of other drive devices than the at least one drive device, which are under a load smaller than the threshold value. a sensor configured to obtain a plurality of information items related to loads occurring between each of the plurality of drive devices and one of the two structures that receives forces generated by the plurality of drive devices ; and a control unit configured to control the plurality of drive devices based on the plurality of information items, characterized in that in a case that at least one drive device of the plurality of drive devices is under a load equal to or greater than a threshold value in a state where each of the plurality of drive devices is controlled to generate a first predetermined braking force, the control unit is configured to control the plurality of drive devices to temporarily reduce each braking force of the at least one drive device, while temporarily increasing each braking force of other drive devices than the at least one drive device, which are under a load smaller than the threshold value.
A fiber-reinforced resin sheet comprising a nonwoven fabric made of reinforcing fibers having a thermoplastic resin (A) impregnated on one side in thickness direction of the nonwoven fabric, wherein the fiber-reinforced resin sheet satisfies any one of the following conditions (I) and (II): (I) the nonwoven fabric has an area wherein the reinforcing fibers constituting the nonwoven fabric are exposed on the other side in the thickness direction of the nonwoven fabric wherein anti-plane angle θz of the reinforcing fiber in the sheet is at least 5°, and the nonwoven fabric has a reinforcing fiber volume ratio Vfm1 of 5% up to 20% by volume, and (II) the nonwoven fabric has a thermoplastic resin (B) impregnated on the other side in thickness direction of the nonwoven fabric, and the nonwoven fabric has a reinforcing fiber volume ratio Vfm of 3% up to 20% by volume, and wherein the thermoplastic resin (A) and the thermoplastic resin (B) form an interface layer in the sheet, and the interface layer has a concave-convex shape with a maximum height Ry of at least 50 μm and an average roughness Rz of at least 30 μm, and wherein usable temperature range of the thermoplastic resin (A) and usable temperature range of the thermoplastic resin (B) overlap with each other with the overlapping temperature range of at least 5°C, wherein the determination of the usable temperature range is defined according to the method described in the description. (I) the nonwoven fabric has an area wherein the reinforcing fibers constituting the nonwoven fabric are exposed on the other side in the thickness direction of the nonwoven fabric wherein anti-plane angle θz of the reinforcing fiber in the sheet is at least 5°, and the nonwoven fabric has a reinforcing fiber volume ratio Vfm1 of 5% up to 20% by volume, and (II) the nonwoven fabric has a thermoplastic resin (B) impregnated on the other side in thickness direction of the nonwoven fabric, and the nonwoven fabric has a reinforcing fiber volume ratio Vfm of 3% up to 20% by volume, and wherein the thermoplastic resin (A) and the thermoplastic resin (B) form an interface layer in the sheet, and the interface layer has a concave-convex shape with a maximum height Ry of at least 50 μm and an average roughness Rz of at least 30 μm, and wherein usable temperature range of the thermoplastic resin (A) and usable temperature range of the thermoplastic resin (B) overlap with each other with the overlapping temperature range of at least 5°C, wherein the determination of the usable temperature range is defined according to the method described in the description.
An elevator system comprising: an elevator car having a first elevator car door ; and an audio orientation system, the audio orientation system comprising: an audio system controller ; at least one first speaker (502', 502") positioned proximate the first elevator car door ; and at least one second speaker (504', 504") positioned in the elevator car opposite the first elevator car door , wherein, when the first elevator car door opens, the audio system controller controls the at least one first speaker (502', 502") and the at least one second speaker (504', 504") such that an audio orientation output is generated at at least one of the speakers to indicate that the first elevator car door is open. characterized in that when a request is made at a landing of the elevator system and when the first elevator car door opens, the audio system controller controls the at least one second speaker (504', 504") to generate an audio orientation output indicating that the first elevator car door is open. an elevator car having a first elevator car door ; and an audio orientation system, the audio orientation system comprising: an audio system controller ; at least one first speaker (502', 502") positioned proximate the first elevator car door ; and at least one second speaker (504', 504") positioned in the elevator car opposite the first elevator car door , wherein, when the first elevator car door opens, the audio system controller controls the at least one first speaker (502', 502") and the at least one second speaker (504', 504") such that an audio orientation output is generated at at least one of the speakers to indicate that the first elevator car door is open. an audio system controller ; at least one first speaker (502', 502") positioned proximate the first elevator car door ; and at least one second speaker (504', 504") positioned in the elevator car opposite the first elevator car door , wherein, when the first elevator car door opens, the audio system controller controls the at least one first speaker (502', 502") and the at least one second speaker (504', 504") such that an audio orientation output is generated at at least one of the speakers to indicate that the first elevator car door is open. characterized in that when a request is made at a landing of the elevator system and when the first elevator car door opens, the audio system controller controls the at least one second speaker (504', 504") to generate an audio orientation output indicating that the first elevator car door is open.
An image data processing method for performing the following steps 1 to 5 for handling a product (C) in which a specific image (A) is applied to a specific article (B), the method comprising: (step 1) a step of converting image data (A0) corresponding to the image (A) to generate image data (A1), wherein variables of the image data (A0) to be converted and amount of conversion are set according to characteristics of the image (A) and a type of the article (B); (step 2) a step of converting image data (B0) corresponding to the article (B) to generate image data (B1) corresponding to a surface state of a region of the article (B) on which the image (A) is printed, by using both the conversion to grayscale image data and the blurring of the image data (B0) ; (step 3) a step of generating image data (A2) by synthesizing the image data (A1) and the image data (B1); (step 4) a step of converting a value corresponding to one or more of hue, brightness, chroma, transparency, and sharpness of the image data (A2) to generate image data (A3); and (step 5) a step of generating image data (C0) corresponding to the product (C) by synthesizing the image data (A3) and the image data (B0). (step 1) a step of converting image data (A0) corresponding to the image (A) to generate image data (A1), wherein variables of the image data (A0) to be converted and amount of conversion are set according to characteristics of the image (A) and a type of the article (B); (step 2) a step of converting image data (B0) corresponding to the article (B) to generate image data (B1) corresponding to a surface state of a region of the article (B) on which the image (A) is printed, by using both the conversion to grayscale image data and the blurring of the image data (B0) ; (step 3) a step of generating image data (A2) by synthesizing the image data (A1) and the image data (B1); (step 4) a step of converting a value corresponding to one or more of hue, brightness, chroma, transparency, and sharpness of the image data (A2) to generate image data (A3); and (step 5) a step of generating image data (C0) corresponding to the product (C) by synthesizing the image data (A3) and the image data (B0).
Beverage cooling device for rapidly cooling a beverage and serving the beverage when cooled, after having been dispensed from a beverage preparation machine in the device, comprising a heat exchange container comprising a closed chamber containing a phase-change coolant capable of accumulating and restoring thermal energy and a beverage cavity with an open upper end for receiving the beverage; the closed chamber and cavity being separated by at least one heat conductive inner wall ; the chamber being further closed by an outer wall ; wherein the device is arranged to be handled separately from the beverage preparation machine, characterised in that the device comprises a control unit comprising a communication module arranged for communicating to the beverage preparation machine information representative of the presence of the device at proximity of the beverage preparation machine and/or of a temperature state of the coolant in the chamber, wherein the beverage cooling device comprises an electrical energy management unit comprising a thermoelectric module arranged in thermal contact with the outer wall of the chamber for generating electric energy to the control unit , as a function of the temperature difference between a first heat conductive wall of the module in contact with the outer wall of the chamber and a second heat conductive wall of the module distant to the first wall ; such electrical energy being at least partially used to power the communication module to generate communication signal(s).
A method of fabricating alternating N-type and P-type emitter regions of a solar cell, the method comprising: forming a silicon layer above a substrate ; implanting dopant impurity species of a first conductivity type in the silicon layer to form first implanted regions and resulting in non-implanted regions of the silicon layer ; implanting ancillary impurity species into the first implanted regions of the silicon layer , the ancillary impurity species being different from the dopant impurity species of the first conductivity type; implanting dopant impurity species of a second, opposite, conductivity type in portions of the non-implanted regions of the silicon layer to form second implanted regions and resulting in remaining non-implanted regions of the silicon layer ; removing the remaining non-implanted regions of the silicon layer with a selective etch process preserving at least a portion of the first implanted regions and preserving the second implanted regions of the silicon layer; and annealing the first implanted regions and the second implanted regions of the silicon layer to form doped polycrystalline silicon emitter regions . forming a silicon layer above a substrate ; implanting dopant impurity species of a first conductivity type in the silicon layer to form first implanted regions and resulting in non-implanted regions of the silicon layer ; implanting ancillary impurity species into the first implanted regions of the silicon layer , the ancillary impurity species being different from the dopant impurity species of the first conductivity type; implanting dopant impurity species of a second, opposite, conductivity type in portions of the non-implanted regions of the silicon layer to form second implanted regions and resulting in remaining non-implanted regions of the silicon layer ; removing the remaining non-implanted regions of the silicon layer with a selective etch process preserving at least a portion of the first implanted regions and preserving the second implanted regions of the silicon layer; and annealing the first implanted regions and the second implanted regions of the silicon layer to form doped polycrystalline silicon emitter regions .
A stent graft comprising: a) a tubular aortic component defining a lumen having a proximal end , a distal end , a major longitudinal axis , and defining a fenestration between the proximal end and the distal end ; b) a pocket at the fenestration, the pocket defining a pocket proximal opening and a pocket distal opening opposite the pocket proximal opening within the lumen; c) at least one proximal tunnel graft having a proximal tunnel graft proximal end and a proximal tunnel graft distal end , and defining at least one proximal tunnel graft lumen , the proximal tunnel graft extending proximally within the lumen from the proximal opening of the pocket, and being secured at its proximal end to the tubular aortic component ; and d) at least one distal tunnel graft having a distal tunnel graft proximal end and a distal tunnel graft distal end , and defining at least one distal tunnel graft lumen , the distal tunnel graft extending distally within the lumen from the distal opening of the pocket, and being secured at its distal end to the tubular aortic component , characterised in that the proximal end of the at least one proximal tunnel graft and the distal end of the at least one distal tunnel graft defines a flared opening , and the fenestration defines at least one of a fenestration proximal end and a fenestration distal end that lies in a plane orthogonal to the major longitudinal axis of the tubular aortic component , at least one of the fenestration proximal end and the fenestration distal end of the fenestration lying in the plane orthogonal to the major longitudinal axis has a length greater than that of at least one of: the total diameter of the distal end of the at least one proximal tunnel graft ; and the total diameter of the proximal end of the at least one distal tunnel graft . a) a tubular aortic component defining a lumen having a proximal end , a distal end , a major longitudinal axis , and defining a fenestration between the proximal end and the distal end ; b) a pocket at the fenestration, the pocket defining a pocket proximal opening and a pocket distal opening opposite the pocket proximal opening within the lumen; c) at least one proximal tunnel graft having a proximal tunnel graft proximal end and a proximal tunnel graft distal end , and defining at least one proximal tunnel graft lumen , the proximal tunnel graft extending proximally within the lumen from the proximal opening of the pocket, and being secured at its proximal end to the tubular aortic component ; and d) at least one distal tunnel graft having a distal tunnel graft proximal end and a distal tunnel graft distal end , and defining at least one distal tunnel graft lumen , the distal tunnel graft extending distally within the lumen from the distal opening of the pocket, and being secured at its distal end to the tubular aortic component ,