mhurhangee/patent-ind-claim-en huggingface dataset:
Method for amplifying a laser beam in a laser amplifier system including a laser amplifier module and an optical module , the method comprising: - generating an excited volume in a laser amplifier module so that a surface of the laser amplifier module facing the optical module includes an excited area ; - coupling the laser beam into the laser amplifier system ; - conducting a first amplifying pass by reflecting the laser beam multiple times between the optical module and the laser amplifier module , wherein each time the laser beam is reflected from the optical module to the laser amplifier module , the laser beam impacts on a respective impact area (I2-I47) of the surface of the laser amplifier module , wherein the size of each impact area (I2-I47) is smaller than the size of the excited area , wherein all of the impact areas located within the excited area form a subset of said impact areas and each impact area of said subset is located on a distinct position within the excited area , wherein adjacent impact areas (I2-I47) of said subset are spaced apart from each other on the surface of the laser amplifier module by at least 1 times the size of the impact area, and wherein the size of each impact area is determined by the beam diameter of the laser beam . - generating an excited volume in a laser amplifier module so that a surface of the laser amplifier module facing the optical module includes an excited area ; - coupling the laser beam into the laser amplifier system ; - conducting a first amplifying pass by reflecting the laser beam multiple times between the optical module and the laser amplifier module , wherein each time the laser beam is reflected from the optical module to the laser amplifier module , the laser beam impacts on a respective impact area (I2-I47) of the surface of the laser amplifier module , wherein the size of each impact area (I2-I47) is smaller than the size of the excited area , wherein all of the impact areas located within the excited area form a subset of said impact areas and each impact area of said subset is located on a distinct position within the excited area , wherein adjacent impact areas (I2-I47) of said subset are spaced apart from each other on the surface of the laser amplifier module by at least 1 times the size of the impact area, and wherein the size of each impact area is determined by the beam diameter of the laser beam . wherein the size of each impact area (I2-I47) is smaller than the size of the excited area , wherein all of the impact areas located within the excited area form a subset of said impact areas and each impact area of said subset is located on a distinct position within the excited area , wherein adjacent impact areas (I2-I47) of said subset are spaced apart from each other on the surface of the laser amplifier module by at least 1 times the size of the impact area, and wherein the size of each impact area is determined by the beam diameter of the laser beam .
A lane detection method, comprising: sensing magnetic fields corresponding to magnetic particles included in multiple lane lines based on a magnetic sensor attached to a vehicle ; setting at least one of magnetic field correction intervals with reference to a first rate of change in the magnetic field intensity for the sensed magnetic fields; correcting data corresponding to the magnetic field correction intervals ; and detecting multiple lane lines based on the corrected data corresponding to the magnetic fields, wherein the at least one of magnetic field correction intervals are set with reference to a second rate of change in vehicle sensor data as well as the first rate of change in the magnetic field intensity for the sensed magnetic fields. sensing magnetic fields corresponding to magnetic particles included in multiple lane lines based on a magnetic sensor attached to a vehicle ; setting at least one of magnetic field correction intervals with reference to a first rate of change in the magnetic field intensity for the sensed magnetic fields; correcting data corresponding to the magnetic field correction intervals ; and detecting multiple lane lines based on the corrected data corresponding to the magnetic fields, wherein the at least one of magnetic field correction intervals are set with reference to a second rate of change in vehicle sensor data as well as the first rate of change in the magnetic field intensity for the sensed magnetic fields.
A fender device to be attached to a berthing face alongside which a marine vessel comes, the fender device comprising: an impact receiving member configured to come into contact with the marine vessel; a buffer member that is arranged between the impact receiving member and the berthing face , is made of an elastic material, and is capable of undergoing compressive deformation in a normal direction (A1) orthogonal to the berthing face ; and a stopper that includes a stopper main body arranged between the impact receiving member and the berthing face so as to extend in the normal direction (A1) in order to prevent excessive compression of the buffer member, wherein a cavity is formed inside the stopper main body , wherein the stopper main body includes a first end portion and a second end portion in the normal direction (A1) and is fixed to the impact receiving member or the berthing face on the first end portion side, characterized in that the stopper further includes a cover for closing the cavity (S2) on the second end portion side of the stopper main body , and in that at least an outermost surface of the cover is made of rubber or resin. an impact receiving member configured to come into contact with the marine vessel; a buffer member that is arranged between the impact receiving member and the berthing face , is made of an elastic material, and is capable of undergoing compressive deformation in a normal direction (A1) orthogonal to the berthing face ; and a stopper that includes a stopper main body arranged between the impact receiving member and the berthing face so as to extend in the normal direction (A1) in order to prevent excessive compression of the buffer member, wherein a cavity is formed inside the stopper main body , wherein the stopper main body includes a first end portion and a second end portion in the normal direction (A1) and is fixed to the impact receiving member or the berthing face on the first end portion side, characterized in that the stopper further includes a cover for closing the cavity (S2) on the second end portion side of the stopper main body , and in that at least an outermost surface of the cover is made of rubber or resin.
A method for processing clusters of poultry viscera, wherein each of the clusters of viscera is separated from a carcass, comprises at least a gizzard and is free from gall and intestines, the method comprising: - conveying the successive clusters of viscera in a suspended manner along a processing trajectory in a conveying direction , - pulling the gizzard of each cluster of viscera, while the latter are being conveyed in a suspended manner, over two elongate, juxtaposed scraper bodies which rotate in mutually opposite directions of rotation about respective rotation axes and extend in the conveying direction, each of the scraper bodies comprising at least one scraper element , wherein, due to the rotation of the two scraper bodies, gizzard fat which is present on a gizzard wall is separated from the gizzard by the scraper elements while the gizzard is being pulled, and - collecting the gizzard fat which has been separated from the gizzard of the successive clusters of viscera. - conveying the successive clusters of viscera in a suspended manner along a processing trajectory in a conveying direction , - pulling the gizzard of each cluster of viscera, while the latter are being conveyed in a suspended manner, over two elongate, juxtaposed scraper bodies which rotate in mutually opposite directions of rotation about respective rotation axes and extend in the conveying direction, each of the scraper bodies comprising at least one scraper element , wherein, due to the rotation of the two scraper bodies, gizzard fat which is present on a gizzard wall is separated from the gizzard by the scraper elements while the gizzard is being pulled, and - collecting the gizzard fat which has been separated from the gizzard of the successive clusters of viscera.
A semiconductor light emitting device comprising: a light emitting element ; and a phosphor layer provided on the light emitting element , and including a plurality of phosphor particles and a plurality of inorganic particles having smaller sizes than the phosphor particles , the phosphor particles being bound together with aggregation of the inorganic particles and the phosphor particles , wherein thermal conductivities of the inorganic particles are 20 W/m·K or more. a light emitting element ; and a phosphor layer provided on the light emitting element , and including a plurality of phosphor particles and a plurality of inorganic particles having smaller sizes than the phosphor particles , the phosphor particles being bound together with aggregation of the inorganic particles and the phosphor particles , wherein thermal conductivities of the inorganic particles are 20 W/m·K or more.
Refrigerator with a cabinet body having an access opening lying essentially in a vertical plane, in which a sliding door arrangement is arranged, the sliding door arrangement comprising: a horizontal mounting rail fastened to the cabinet body in the access opening vertical plane, at least one sliding door element arranged to be slidable in the transverse direction in the access opening vertical plane, one carriage connected with the sliding door element , the carriage having rollers which run in the mounting rail , and a damping arrangement connected on the one hand to the carriage and on the other hand to the cabinet body and damping the closing movement of the sliding door element , wherein the damping arrangement has a horizontal damping cylinder in which a damping piston is arranged for displacement, wherein the damping cylinder and/or the damping piston has a valve element which ventilates the enclosed cylinder space during the sliding door opening movement and ventilates it less or not at all during the sliding door closing movement, and wherein the carriage is formed by a profile body to which the rollers are rotatably fastened, the damping cylinder being an integral part of the profile body which has a cylinder body that forms the damping cylinder . a horizontal mounting rail fastened to the cabinet body in the access opening vertical plane, at least one sliding door element arranged to be slidable in the transverse direction in the access opening vertical plane, one carriage connected with the sliding door element , the carriage having rollers which run in the mounting rail , and a damping arrangement connected on the one hand to the carriage and on the other hand to the cabinet body and damping the closing movement of the sliding door element , wherein the damping arrangement has a horizontal damping cylinder in which a damping piston is arranged for displacement, wherein the damping cylinder and/or the damping piston has a valve element which ventilates the enclosed cylinder space during the sliding door opening movement and ventilates it less or not at all during the sliding door closing movement, and wherein the carriage is formed by a profile body to which the rollers are rotatably fastened, the damping cylinder being an integral part of the profile body which has a cylinder body that forms the damping cylinder .
A method for treating, preferably by the expansion treatment, the stems of tobacco and/or leaf veins of tobacco, in particular those discarded by cigarette making machines, whereby it provides the sequence of the following steps: - a step of moistening said stems and/or leaf veins such that said stems and/or leaf veins have a moisture at the end of said step, which is measured on moisture basis, ranging from 35 to 85% and a volume which is greater than the initial volume thereof before said moistening step , - at least one laminating step of said previously moistened stems and/or leaf veins , such that the stems and/or the leaf veins have a thickness ranging from 0.07 to 1.7 mm at the end of the laminating, - at least one drying step of said previously moistened and laminated stems and/or leaf veins , such that said stems and/or leaf veins have a moisture ranging from 20 to 40% at the end of said step, and characterized in that : - said at least one laminating step is carried out immediately after said moistening step , - said at least one drying step is carried out immediately after said at least one laminating step . - a step of moistening said stems and/or leaf veins such that said stems and/or leaf veins have a moisture at the end of said step, which is measured on moisture basis, ranging from 35 to 85% and a volume which is greater than the initial volume thereof before said moistening step , - at least one laminating step of said previously moistened stems and/or leaf veins , such that the stems and/or the leaf veins have a thickness ranging from 0.07 to 1.7 mm at the end of the laminating, - at least one drying step of said previously moistened and laminated stems and/or leaf veins , such that said stems and/or leaf veins have a moisture ranging from 20 to 40% at the end of said step, - said at least one laminating step is carried out immediately after said moistening step , - said at least one drying step is carried out immediately after said at least one laminating step .
An organic light emitting display device comprising: a substrate including a bending area (BA) and a non-bending area (NBA); and a complex film comprising; an adhesive layer having a first area (A1) and a second area (A2); an optical film provided on the first area of the adhesive layer; an optical conversion film provided on the second area of the adhesive layer; and a protective film provided on the optical film and the optical conversion film; wherein the complex film is provided on the substrate; and further wherein the non-bending area corresponds to the first area (A1) and the bending area corresponds to the second area (A2); wherein a sidewall of the optical film and a sidewall of the optical conversion film are in contact with each other, and their boundary portion forms a step difference. a substrate including a bending area (BA) and a non-bending area (NBA); and a complex film comprising; an adhesive layer having a first area (A1) and a second area (A2); an optical film provided on the first area of the adhesive layer; an optical conversion film provided on the second area of the adhesive layer; and a protective film provided on the optical film and the optical conversion film; an adhesive layer having a first area (A1) and a second area (A2); an optical film provided on the first area of the adhesive layer; an optical conversion film provided on the second area of the adhesive layer; and a protective film provided on the optical film and the optical conversion film; wherein the complex film is provided on the substrate; and further wherein the non-bending area corresponds to the first area (A1) and the bending area corresponds to the second area (A2); wherein a sidewall of the optical film and a sidewall of the optical conversion film are in contact with each other, and their boundary portion forms a step difference.
A method for generating a pulsed magnetic field (B), the method being implemented using a device comprising an electrical supply , a switch , a capacitor and a coil having a first extremity connected to an electrical ground and a second extremity , the capacitor comprising a first electrode connected to the electrical ground and a second electrode , the switch being able to commute between a first configuration wherein the second electrode and the second extremity are electrically insulated and at least one second configuration wherein the second electrode and the second extremity are electrically connected, the capacitor , the switch and the coil forming a series circuit when the switch is in the second configuration, the series circuit being underdamped, and the electrical supply being able to commute between a third configuration wherein the electrical supply is able to charge the second electrode with an electrical charge having a first polarity and a fourth configuration wherein the electrical supply is able to change the second electrode with an electrical charge having a second polarity different from the first polarity, the method comprising: • a first step for charging the second electrode with a first electrical charge having the first polarity, the switch having the first configuration, • a first step for discharging the first electrical charge through the coil to generate a first pulse of magnetic field (B), the switch having the second configuration, • a second step for charging the second electrode with a second electrical charge having the second polarity different from the first polarity, the switch having the first configuration, and • a second step for discharging the second electrical charge through the coil to generate a second pulse of magnetic field, the switch having the second configuration. • a first step for charging the second electrode with a first electrical charge having the first polarity, the switch having the first configuration, • a first step for discharging the first electrical charge through the coil to generate a first pulse of magnetic field (B), the switch having the second configuration, • a second step for charging the second electrode with a second electrical charge having the second polarity different from the first polarity, the switch having the first configuration, and • a second step for discharging the second electrical charge through the coil to generate a second pulse of magnetic field, the switch having the second configuration.
A computer-implemented method, comprising: receiving, by a user device from an access device, a first message comprising a terminal type indicator; in response to the terminal type indicator indicating a first terminal type: transmitting, from the user device to the access device, a second message comprising a first identifier and an encrypted identifier; and in response to the terminal type indicator indicating a second terminal type: generating, by the user device, an obfuscated Primary Account Number, PAN, based at least in part on a first portion of a PAN and a second portion of the encrypted identifier, wherein the first portion of the PAN comprises an identification number associated with an acquirer; and transmitting, from the user device to the access device, the second message comprising the obfuscated PAN and the encrypted identifier. receiving, by a user device from an access device, a first message comprising a terminal type indicator; in response to the terminal type indicator indicating a first terminal type: transmitting, from the user device to the access device, a second message comprising a first identifier and an encrypted identifier; and in response to the terminal type indicator indicating a second terminal type: generating, by the user device, an obfuscated Primary Account Number, PAN, based at least in part on a first portion of a PAN and a second portion of the encrypted identifier, wherein the first portion of the PAN comprises an identification number associated with an acquirer; and transmitting, from the user device to the access device, the second message comprising the obfuscated PAN and the encrypted identifier. generating, by the user device, an obfuscated Primary Account Number, PAN, based at least in part on a first portion of a PAN and a second portion of the encrypted identifier, wherein the first portion of the PAN comprises an identification number associated with an acquirer; and transmitting, from the user device to the access device, the second message comprising the obfuscated PAN and the encrypted identifier.
An equipment for measuring the human alcohol intoxication level including: a smart device with an image capture camera; a special alcohol testing apparatus configured to communicate with the smart device ; wherein the special alcohol testing apparatus comprises: - at least one light source for optical communication with the smart device ; characterized in that the special alcohol testing apparatus further comprises: - a light source arranged to illuminate a tube of the alcohol testing apparatus , the light source being fastened in a place where the tube connects with the alcohol testing apparatus , and said light source being arranged to illuminate to the edge of walls of the tube of the alcohol testing apparatus ; and the smart device comprises technical and software means configured for 3D identification of the alcohol testing apparatus , when the alcohol testing apparatus is rotated at different angles with respect to the camera. a smart device with an image capture camera; a special alcohol testing apparatus configured to communicate with the smart device ; wherein the special alcohol testing apparatus comprises: - at least one light source for optical communication with the smart device ; - at least one light source for optical communication with the smart device ; characterized in that the special alcohol testing apparatus further comprises: - a light source arranged to illuminate a tube of the alcohol testing apparatus , the light source being fastened - a light source arranged to illuminate a tube of the alcohol testing apparatus , the light source being fastened in a place where the tube connects with the alcohol testing apparatus , and said light source being arranged to illuminate to the edge of walls of the tube of the alcohol testing apparatus ; and the smart device comprises technical and software means configured for 3D identification of the alcohol testing apparatus , when the alcohol testing apparatus is rotated at different angles with respect to the camera.
Method for assembling a slat , for an aircraft wing, comprising: - providing a skin and a plurality of stiffeners ; - assembling the stiffeners to the skin obtaining a skin sub-assembly ; - providing a spar and a plurality of lugs ; - assembling the lugs to the spar obtaining a spar sub-assembly; - assembling the spar sub-assembly to the skin sub-assembly to obtain the slat , wherein the spar is connected to the skin in an upright position, resulting in a closed cell between the skin and the spar , the closed cell being empty apart from the stiffeners . - providing a skin and a plurality of stiffeners ; - assembling the stiffeners to the skin obtaining a skin sub-assembly ; - providing a spar and a plurality of lugs ; - assembling the lugs to the spar obtaining a spar sub-assembly; - assembling the spar sub-assembly to the skin sub-assembly to obtain the slat , wherein the spar is connected to the skin in an upright position, resulting in a closed cell between the skin and the spar , the closed cell being empty apart from the stiffeners .