mhurhangee/patent-ind-claim-en huggingface dataset:
A repair system for performing at least one repair task in at least one wind turbine , in particular the nacelle , the repair system comprising a controllable robotic repair device installed in the wind turbine , in particular in the nacelle , and having at least one environment sensor , the repair system further comprising an operating device for remotely operating the robotic repair device , the operating device comprising a control device , and a virtual reality equipment providing a virtual reality environment of an interior of the wind turbine , in particular of the nacelle , for at least one human service user provided remote to the wind turbine , wherein the control device of the operating device is adapted to remotely control the robotic repair device , in particular as an avatar, according to user input commands provided via the virtual reality equipment , to determine, based on status information received from a wind turbine controller and/or sensor data of the at least one environment sensor , and/or to receive repair task information describing a current repair task, and to, in the virtual reality environment, highlight objects of the interior, in particular of the nacelle , relevant for the repair task according to the repair task information, and/or fade objects not relevant for the repair task according to the repair task information. a control device , and a virtual reality equipment providing a virtual reality environment of an interior of the wind turbine , in particular of the nacelle , for at least one human service user provided remote to the wind turbine , wherein the control device of the operating device is adapted to remotely control the robotic repair device , in particular as an avatar, according to user input commands provided via the virtual reality equipment , to determine, based on status information received from a wind turbine controller and/or sensor data of the at least one environment sensor , and/or to receive repair task information describing a current repair task, and to, in the virtual reality environment, highlight objects of the interior, in particular of the nacelle , relevant for the repair task according to the repair task information, and/or fade objects not relevant for the repair task according to the repair task information. to remotely control the robotic repair device , in particular as an avatar, according to user input commands provided via the virtual reality equipment , to determine, based on status information received from a wind turbine controller and/or sensor data of the at least one environment sensor , and/or to receive repair task information describing a current repair task, and to, in the virtual reality environment, highlight objects of the interior, in particular of the nacelle , relevant for the repair task according to the repair task information, and/or fade objects not relevant for the repair task according to the repair task information.
Method for recycling silver present on a photovoltaic cell , comprising: - a step a) of supplying a photovoltaic cell including: - a silicon support substrate having a front face and a rear face (1 b), - an upper layer of doped silicon, of a doping type opposite to that of the support substrate , which layer is arranged on the front face , - a plurality of silver lines arranged on the upper layer , - at least one anti-reflective layer arranged on the upper layer and adjacent to the silver lines ; - a step b) of etching the anti-reflective layer by immersing the photovoltaic cell in an acid solution; - a step c) of etching the upper layer by immersing, in a basic solution, the photovoltaic cell without the anti-reflective layer, leading to separation of the silver lines ; - a step d) of drying the assembly formed by the support substrate and the separated silver lines ; - a step e) of extracting the silver lines in the solid state. - a step a) of supplying a photovoltaic cell including: - a silicon support substrate having a front face and a rear face (1 b), - an upper layer of doped silicon, of a doping type opposite to that of the support substrate , which layer is arranged on the front face , - a plurality of silver lines arranged on the upper layer , - at least one anti-reflective layer arranged on the upper layer and adjacent to the silver lines ; - a silicon support substrate having a front face and a rear face (1 b), - an upper layer of doped silicon, of a doping type opposite to that of the support substrate , which layer is arranged on the front face , - a plurality of silver lines arranged on the upper layer , - at least one anti-reflective layer arranged on the upper layer and adjacent to the silver lines ; - a step b) of etching the anti-reflective layer by immersing the photovoltaic cell in an acid solution; - a step c) of etching the upper layer by immersing, in a basic solution, the photovoltaic cell without the anti-reflective layer, leading to separation of the silver lines ; - a step d) of drying the assembly formed by the support substrate and the separated silver lines ; - a step e) of extracting the silver lines in the solid state.
A method for distributing traffic by a terminal in a wireless communication system, the method comprising: generating a first secure sockets layer, SSL, connection for receiving data of content through a first network interface with a server that provides the content based on hypertext transfer protocol security, HTTPS, if an HTTPS request is received from an application in the terminal; generating , based on information about a data amount of the content, a second SSL connection for receiving the data of the content through a second network interface with the server based on the hypertext transfer protocol security, HTTPS; and receiving the data of the content distributively transmitted through the first SSL connection and the second SSL connection from the server, respectively, through the first network interface and the second network interface. generating a first secure sockets layer, SSL, connection for receiving data of content through a first network interface with a server that provides the content based on hypertext transfer protocol security, HTTPS, if an HTTPS request is received from an application in the terminal; generating , based on information about a data amount of the content, a second SSL connection for receiving the data of the content through a second network interface with the server based on the hypertext transfer protocol security, HTTPS; and receiving the data of the content distributively transmitted through the first SSL connection and the second SSL connection from the server, respectively, through the first network interface and the second network interface.
A method at a base station, comprising: determining a resource indication value, RIV, according to a first parameter, denoted as x, and a second parameter, denoted as y, wherein the first parameter x indicates a starting resource block location allocated to a user equipment and the second parameter y indicates a length of a sequence of resource blocks allocated to the user equipment, and a predefined relationship specifies that xL + yQ ≤ N, where L and Q are predefined positive integers each larger than 1, and N represents a maximum number of available resource blocks that the base station can allocate to the user equipment; and transmitting, by a first communication device, the RIV to the user equipment. determining a resource indication value, RIV, according to a first parameter, denoted as x, and a second parameter, denoted as y, wherein the first parameter x indicates a starting resource block location allocated to a user equipment and the second parameter y indicates a length of a sequence of resource blocks allocated to the user equipment, and a predefined relationship specifies that xL + yQ ≤ N, where L and Q are predefined positive integers each larger than 1, and N represents a maximum number of available resource blocks that the base station can allocate to the user equipment; and transmitting, by a first communication device, the RIV to the user equipment.
An oil-in-water emulsion comprising: (i) a C 10 -C 22 fatty acid which is liquid; (ii) an emulsifier for the C 10 -C 22 fatty acid and (iii) a water-soluble metal salt capable of forming a water-insoluble salt with the C 10 -C 22 fatty acid at a pH of greater than 6, wherein the water-soluble metal salt is a zinc salt. (i) a C 10 -C 22 fatty acid which is liquid; (ii) an emulsifier for the C 10 -C 22 fatty acid and (iii) a water-soluble metal salt capable of forming a water-insoluble salt with the C 10 -C 22 fatty acid at a pH of greater than 6,
A system for tracking a location of a medical personnel comprising: one or more processors to activate one or more electronic devices when a medical personnel enters a patient room and to obtain image data acquired by the one or more electronic devices that captures the medical personnel; one or more light sources placed adjacent the patient room to generate a visual identification pattern assigned to the medical personnel on determination that the medical personnel has entered the patient room; an input to acquire, from the one or more electronic devices , image data that captures the visual identification pattern; logic to analyze the acquired image data to determine an identity of the medical personnel based on the captured visual identification pattern; and a database for storing a record of a location of the medical personal. one or more processors to activate one or more electronic devices when a medical personnel enters a patient room and to obtain image data acquired by the one or more electronic devices that captures the medical personnel; one or more light sources placed adjacent the patient room to generate a visual identification pattern assigned to the medical personnel on determination that the medical personnel has entered the patient room; an input to acquire, from the one or more electronic devices , image data that captures the visual identification pattern; logic to analyze the acquired image data to determine an identity of the medical personnel based on the captured visual identification pattern; and a database for storing a record of a location of the medical personal.
A combination washer/dryer comprising: a tub at least partially defining a tub interior with a tub access opening ; a rotatable drum located within the tub interior and at least partially defining a treating chamber with a treating chamber access opening ; a drying air duct having an inlet formed in the tub and defining a cross-sectional area at the inlet ; and a filter having a front face overlying the inlet and having a surface area greater than the cross-sectional area of the inlet, wherein the front face of the filter comprises a mesh defining a plurality of openings characterised in that the plurality of openings define an aggregate cross-sectional area equal to or greater than the cross-sectional area of the inlet . a tub at least partially defining a tub interior with a tub access opening ; a rotatable drum located within the tub interior and at least partially defining a treating chamber with a treating chamber access opening ; a drying air duct having an inlet formed in the tub and defining a cross-sectional area at the inlet ; and a filter having a front face overlying the inlet and having a surface area greater than the cross-sectional area of the inlet, wherein the front face of the filter comprises a mesh defining a plurality of openings characterised in that the plurality of openings define an aggregate cross-sectional area equal to or greater than the cross-sectional area of the inlet .
A vibratory meter configured to predict and reduce noise in the vibratory meter , the vibratory meter comprising: a sensor assembly ; and a meter electronics in communication with the sensor assembly , the meter electronics being configured to: provide a drive signal to a sensor assembly , wherein the drive signal comprises a multi-tone drive signal including a drive tone and one or more test tones for verifying the sensor assembly; receive a sensor signal from the sensor assembly having one or more components, wherein the one or more components comprise at least one of intermodulation distortion signals and harmonic signals; characterised in that the meter electronics is further configured to generate a signal to be applied to one of the sensor signal and the drive signal to compensate for the one or more components, wherein the meter electronics being configured to generate the signal to be applied to one of the sensor signal and the drive signal comprises generating the signal based on a system model of the sensor assembly . a sensor assembly ; and a meter electronics in communication with the sensor assembly , the meter electronics being configured to: provide a drive signal to a sensor assembly , wherein the drive signal comprises a multi-tone drive signal including a drive tone and one or more test tones for verifying the sensor assembly; receive a sensor signal from the sensor assembly having one or more components, wherein the one or more components comprise at least one of intermodulation distortion signals and harmonic signals; characterised in that the meter electronics is further configured to generate a signal to be applied to one of the sensor signal and the drive signal to compensate for the one or more components, wherein the meter electronics being configured to generate the signal to be applied to one of the sensor signal and the drive signal comprises generating the signal based on a system model of the sensor assembly . provide a drive signal to a sensor assembly , wherein the drive signal comprises a multi-tone drive signal including a drive tone and one or more test tones for verifying the sensor assembly; receive a sensor signal from the sensor assembly having one or more components, wherein the one or more components comprise at least one of intermodulation distortion signals and harmonic signals; characterised in that the meter electronics is further configured to generate a signal to be applied to one of the sensor signal and the drive signal to compensate for the one or more components, wherein the meter electronics being configured to generate the signal to be applied to one of the sensor signal and the drive signal comprises generating the signal based on a system model of the sensor assembly .
A turbine engine fan case assembly comprising: a structural case ; a liner assembly ; and a radially accommodating attachment system connecting the liner assembly to the structural case and characterized by comprising: a circumferentially-distributed plurality of longitudinally elongate radially outwardly open channels mounted to the liner assembly ; and an associated plurality of inwardly-projecting tongues mounted to the structural case , each tongue accommodated in an associated said channel ; and in that: the structural case comprises a non metallic member principally dictating thermal expansion of the structural case; and the liner assembly comprises a metallic member principally dictating thermal expansion of the liner assembly . a structural case ; a liner assembly ; and a radially accommodating attachment system connecting the liner assembly to the structural case and characterized by comprising: a circumferentially-distributed plurality of longitudinally elongate radially outwardly open channels mounted to the liner assembly ; and an associated plurality of inwardly-projecting tongues mounted to the structural case , each tongue accommodated in an associated said channel ; and in that: the structural case comprises a non metallic member principally dictating thermal expansion of the structural case; and the liner assembly comprises a metallic member principally dictating thermal expansion of the liner assembly . a circumferentially-distributed plurality of longitudinally elongate radially outwardly open channels mounted to the liner assembly ; and an associated plurality of inwardly-projecting tongues mounted to the structural case , each tongue accommodated in an associated said channel ; and in that: the structural case comprises a non metallic member principally dictating thermal expansion of the structural case; and the liner assembly comprises a metallic member principally dictating thermal expansion of the liner assembly .
A headlight device comprising: a headband for encircling the head of a wearer; a padding system comprising a pad removably attached to at least a portion of the headband; wherein the pad comprises a first layer of a first cushioning material having a first durometer, and a second layer of a second cushioning material having a second durometer that is different from the first durometer; and characterized in that the first layer is perforated in a first perforation pattern , and the second layer is perforated in a second perforation pattern that differs from the first perforation pattern. a headband for encircling the head of a wearer; a padding system comprising a pad removably attached to at least a portion of the headband; wherein the pad comprises a first layer of a first cushioning material having a first durometer, and a second layer of a second cushioning material having a second durometer that is different from the first durometer; and characterized in that the first layer is perforated in a first perforation pattern , and the second layer is perforated in a second perforation pattern that differs from the first perforation pattern.
A system comprising a probe and a test sample , said probe being adapted for testing electrical properties of said test sample, said probe comprising: a body having a probe arm defining a proximal and an opposite distal end, said probe arm extending from said body at said proximal end of said probe arm, a first axis defined by said proximal and said distal end, said probe arm having two linear parts, connected so as to define a first angle between 55 and 145 degrees, said probe arm extend from the body in a second angle between 0 and 180 degrees, said probe arm extends freely from the body allowing flexible movement of said probe arm along said first axis and along a second axis perpendicularly to said first axis and along a third axis orthogonal to a plane defined by said first axis and second axis, wherein said probe arm defines spring constants in the direction of said first, second and third axis, when these spring constants are projected onto a plane defined by the surface of the test sample, said plane extending in mutually orthogonal x- and y-directions, and a z-direction is defined orthogonally to said plane, the projected spring constants having an in-plane value Cxy, and a value Cz in the z-direction, the Cxy and Cz values having a ratio Cxy:Cz between 1:1 to 1:20, such a 1:2 to 1:15, such as 1:3 to 1:10, such as 1:4 to 1:6, such as 1:1 to 1:2, such as 1:2 to 1:3, such as 1:3 to 1:4, such as 1:4 to 1:5, such as 1:5 to 1:8, such as 1:8 to 1:10, such as 1:10 to 1:15, such as 1:15 to 1:20. a body having a probe arm defining a proximal and an opposite distal end, said probe arm extending from said body at said proximal end of said probe arm, a first axis defined by said proximal and said distal end, said probe arm having two linear parts, connected so as to define a first angle between 55 and 145 degrees, said probe arm extend from the body in a second angle between 0 and 180 degrees, said probe arm extends freely from the body allowing flexible movement of said probe arm along said first axis and along a second axis perpendicularly to said first axis and along a third axis orthogonal to a plane defined by said first axis and second axis, wherein said probe arm defines spring constants in the direction of said first, second and third axis, when these spring constants are projected onto a plane defined by the surface of the test sample, said plane extending in mutually orthogonal x- and y-directions, and a z-direction is defined orthogonally to said plane, the projected spring constants having an in-plane value Cxy, and a value Cz in the z-direction, the Cxy and Cz values having a ratio Cxy:Cz between 1:1 to 1:20, such a 1:2 to 1:15, such as 1:3 to 1:10, such as 1:4 to 1:6, such as 1:1 to 1:2, such as 1:2 to 1:3, such as 1:3 to 1:4, such as 1:4 to 1:5, such as 1:5 to 1:8, such as 1:8 to 1:10, such as 1:10 to 1:15, such as 1:15 to 1:20.
An agricultural system for determining crop loss of an agricultural harvester , the agricultural system being characterized by : a support beam extending along a lateral direction (L1) between a first lateral end and a second lateral end of the support beam ; one or more impact sensors supported on the support beam , each of the one or more impact sensors being configured to generate data indicative of a crop impact location of each crop impact of a plurality of crop impacts on the support beam between the first and second lateral ends ; and a computing system communicatively coupled to the one or more impact sensors , the computing system being configured to determine the crop impact location of each crop impact of the plurality of crop impacts on the support beam between the first and second lateral ends based at least in part on the data from the one or more impact sensors , characterized in that the support beam has a tapering profile along the lateral direction (L1) between the first and second lateral ends of the support beam . a support beam extending along a lateral direction (L1) between a first lateral end and a second lateral end of the support beam ; one or more impact sensors supported on the support beam , each of the one or more impact sensors being configured to generate data indicative of a crop impact location of each crop impact of a plurality of crop impacts on the support beam between the first and second lateral ends ; and a computing system communicatively coupled to the one or more impact sensors , the computing system being configured to determine the crop impact location of each crop impact of the plurality of crop impacts on the support beam between the first and second lateral ends based at least in part on the data from the one or more impact sensors , characterized in that the support beam has a tapering profile along the lateral direction (L1) between the first and second lateral ends of the support beam .
A method of producing Ingenol, Ingenol esters and/or Tiglian-3-one derivatives, the method comprising the steps of: (a) culturing plant cells obtained from a plant selected from the family Euphorbiaceae in a nutrient medium in a suspension cell culture, wherein the cells produce Ingenol, one or more Ingenol esters and/or one or more Tiglian-3-one derivatives; and (b) recovering the Ingenol, the one or more Ingenol esters and/or the one or more Tiglian-3-one derivatives produced in (a). (a) culturing plant cells obtained from a plant selected from the family Euphorbiaceae in a nutrient medium in a suspension cell culture, wherein the cells produce Ingenol, one or more Ingenol esters and/or one or more Tiglian-3-one derivatives; and (b) recovering the Ingenol, the one or more Ingenol esters and/or the one or more Tiglian-3-one derivatives produced in (a).