mhurhangee/ep-ind-claims huggingface dataset:
A steel wire for flexible card clothing, wherein the steel wire has an equivalent diameter between 0.2 and 0.7 mm; wherein the steel wire has a composition comprising 0.7% - 1.1 % by weight carbon; 0.5% - 1.2 % by weight manganese; 0.05% - 0.5% by weight silicon; less than 0.4% by weight chromium; less than 0.05% by weight phosphorus; less than 0.05% by weight sulphur; less than 0.2% by weight copper; less than 0.2% by weight nickel; and at least one alloying element with a content of 0.02% - 0.2% by weight and selected from the group consisting of vanadium, titanium, niobium and tungsten, or between 0.001 % by weight and 0.01% by weight of boron, the steel wire composition further comprises unavoidable impurities and the remainder being iron, wherein the steel wire has a tempered martensitic microstructure, wherein the microstructure of the steel wire comprises between 1 and 10 % by volume of undissolved carbides, wherein the content is measured as defined in the description. wherein the steel wire has an equivalent diameter between 0.2 and 0.7 mm; wherein the steel wire has a composition comprising 0.7% - 1.1 % by weight carbon; 0.5% - 1.2 % by weight manganese; 0.05% - 0.5% by weight silicon; less than 0.4% by weight chromium; less than 0.05% by weight phosphorus; less than 0.05% by weight sulphur; less than 0.2% by weight copper; less than 0.2% by weight nickel; and at least one alloying element with a content of 0.02% - 0.2% by weight and selected from the group consisting of vanadium, titanium, niobium and tungsten, or between 0.001 % by weight and 0.01% by weight of boron, 0.7% - 1.1 % by weight carbon; 0.5% - 1.2 % by weight manganese; 0.05% - 0.5% by weight silicon; less than 0.4% by weight chromium; less than 0.05% by weight phosphorus; less than 0.05% by weight sulphur; less than 0.2% by weight copper; less than 0.2% by weight nickel; and at least one alloying element with a content of 0.02% - 0.2% by weight and selected from the group consisting of vanadium, titanium, niobium and tungsten, or between 0.001 % by weight and 0.01% by weight of boron, the steel wire composition further comprises unavoidable impurities and the remainder being iron, wherein the steel wire has a tempered martensitic microstructure, wherein the microstructure of the steel wire comprises between 1 and 10 % by volume of undissolved carbides, wherein the content is measured as defined in the description.
A combined antenna and radome arrangement (100a, 100b), comprising: an advanced antenna system, AAS, the AAS comprising antenna elements and being configured for communication in a frequency range of 2.5 GHz to 10 GHz; a non-advanced antenna system, non-AAS, comprising antenna elements and an inner radome placed in front of the antenna elements of the non-AAS, the non-AAS being configured for communication in a frequency range of 0.6-2.7 GHz; and a radome (130a, 130b), the radome (130a, 130b) having a first layer sandwiched between two second layers (134a, 134b), the two second layers (134a, 134b) being of a second dielectric material, and the first layer being of a first dielectric material and having a thickness t 1, where t 1 ≤ λ min /3, wherein λ min is the wavelength of the highest frequency in the frequency range of the AAS, and wherein the radome (130a, 130b) is an outer radome placed in front of the AAS and the non-AAS such that the radome (130a, 130b) forms a common cover for the AAS (noa) and the non-AAS an advanced antenna system, AAS, the AAS comprising antenna elements and being configured for communication in a frequency range of 2.5 GHz to 10 GHz; a non-advanced antenna system, non-AAS, comprising antenna elements and an inner radome placed in front of the antenna elements of the non-AAS, the non-AAS being configured for communication in a frequency range of 0.6-2.7 GHz; and a radome (130a, 130b), the radome (130a, 130b) having a first layer sandwiched between two second layers (134a, 134b), the two second layers (134a, 134b) being of a second dielectric material, and the first layer being of a first dielectric material and having a thickness t 1, where t 1 ≤ λ min /3, wherein λ min is the wavelength of the highest frequency in the frequency range of the AAS, and wherein the radome (130a, 130b) is an outer radome placed in front of the AAS and the non-AAS such that the radome (130a, 130b) forms a common cover for the AAS (noa) and the non-AAS
A method for automatically measuring a subject's phoria while the subject fixates on a visual target, comprising: covering and uncovering at least one of the subject's eyes; illuminating the at least one of the subject's eyes with at least two lights using at least two light sources; capturing a sequence of images of the at least one of the subject's eyes after uncovering the at least one of the subject's eyes using an image capturing device, the sequence of images including a first image and a second image including reflections of the at least two lights from at least one of the subject's eyes; analyzing the first image and the second image to identify respective positions of the reflections of the at least two lights within the at least one of the subject's eyes; and determining a phoria measurement based on the respective positions of the reflections of the at least two lights within the at least one of the subject's eyes. covering and uncovering at least one of the subject's eyes; illuminating the at least one of the subject's eyes with at least two lights using at least two light sources; capturing a sequence of images of the at least one of the subject's eyes after uncovering the at least one of the subject's eyes using an image capturing device, the sequence of images including a first image and a second image including reflections of the at least two lights from at least one of the subject's eyes; analyzing the first image and the second image to identify respective positions of the reflections of the at least two lights within the at least one of the subject's eyes; and determining a phoria measurement based on the respective positions of the reflections of the at least two lights within the at least one of the subject's eyes.
A method of detecting stray fibers emanating from a substrate comprising: a) Creating a contrasting backlit background using one or more light sources; b) Taking an image or a series of consecutive images of stray fibers in front of the contrasting backlit background, using a digital device; c) Segmenting of stray fibers and background from objects not directly contrasted against the background resulting in a binary image mask; d) Applying an edge detection technique to the image or modification of original image to enhance contrast of stray fibers against the background; e) Applying the binary image mask from step c) to an image created in step d) to create an image in which only the stray fibers and/or outline of any other object contrasted against the background are present. a) Creating a contrasting backlit background using one or more light sources; b) Taking an image or a series of consecutive images of stray fibers in front of the contrasting backlit background, using a digital device; c) Segmenting of stray fibers and background from objects not directly contrasted against the background resulting in a binary image mask; d) Applying an edge detection technique to the image or modification of original image to enhance contrast of stray fibers against the background; e) Applying the binary image mask from step c) to an image created in step d) to create an image in which only the stray fibers and/or outline of any other object contrasted against the background are present.
A cable accessory (10, 20) made of thermoplastic elastomer materials, wherein the thermoplastic elastomer materials comprise hard segments and soft segments in a weight ratio of 10:90 to 50:50, wherein the cable accessory (10, 20) comprises a first layer defining a passage way and a second layer surrounding the first layer, in which the first layer is made of a first thermoplastic elastomer material which is semi-conductive having a volume resistivity below 100 Q-cm and comprises hard segments and soft segments in a weight ratio of 20:80 to 50:50, and the second layer is made of a second thermoplastic elastomer material which is insulative and comprises hard segments and soft segments in a weight ratio of 15:85 to 45:55.
A method for receiving a viewing-restricted channel in a broadcast receiver without a CAS module, comprising: checking whether a requested channel is a viewing-restricted channel during a channel switching operation by a user; when the viewing-restricted channel is requested during the channel switching operation, transmitting to a second broadcast receiver equipped with the CAS module through a network a command requesting for decoding broadcast signals of the viewing-restricted channel into broadcast data and transmitting the decoded broadcast data; receiving the decoded broadcast data from the second broadcast receiver through the network and processing the decoded broadcast data to audio/video signal characterized in that the method further comprises: when the viewing-restricted channel is requested during the channel switching operation, switching an operation mode from a tuner mode to an input mode, wherein the tuner mode indicates an operation mode in which broadcast signals are received from a user-requested channel via a tuner equipped in the broadcast receiver, and the input mode indicates an operation mode in which broadcast data is received through the network by a communication module equipped in the broadcast receiver. checking whether a requested channel is a viewing-restricted channel during a channel switching operation by a user; when the viewing-restricted channel is requested during the channel switching operation, transmitting to a second broadcast receiver equipped with the CAS module through a network a command requesting for decoding broadcast signals of the viewing-restricted channel into broadcast data and transmitting the decoded broadcast data; receiving the decoded broadcast data from the second broadcast receiver through the network and processing the decoded broadcast data to audio/video signal characterized in that the method further comprises: when the viewing-restricted channel is requested during the channel switching operation, switching an operation mode from a tuner mode to an input mode, wherein the tuner mode indicates an operation mode in which broadcast signals are received from a user-requested channel via a tuner equipped in the broadcast receiver, and the input mode indicates an operation mode in which broadcast data is received through the network by a communication module equipped in the broadcast receiver. when the viewing-restricted channel is requested during the channel switching operation, switching an operation mode from a tuner mode to an input mode, wherein the tuner mode indicates an operation mode in which broadcast signals are received from a user-requested channel via a tuner equipped in the broadcast receiver, and the input mode indicates an operation mode in which broadcast data is received through the network by a communication module equipped in the broadcast receiver.
An active vibration damping system for a rolling stand, in particular for rolling strips, comprising two or more working rolls (1, 1') with respective chocks, the damping system comprising: a plurality of hydraulic actuators (2', 2", 2"', 2 iv) having respective movable pistons (3', 3", 3"', 3 iv) acting on said chocks, and respective chambers (6', 6", 6"', 6 iv), a hydraulic circuit for feeding said plurality of hydraulic actuators (2', 2", 2'", 2 iv), one or more injectors (8', 8", 8"', 8 iv) within said hydraulic circuit, characterized in that said one or more injectors (8', 8", 8"', 8 iv) are directly arranged within or in the proximity of the structure of the respective chambers (6', 6", 6"', 6 iv) of the hydraulic actuators (2', 2", 2"', 2 iv) to actuate an active damping of the vibrations of the working rolls (1, 1'), said injectors being adapted to inject pressurized oil into a respective chamber (6', 6", 6"', 6 iv) of the hydraulic actuators (2', 2", 2"', 2 iv) under the control of an electronic control unit. a plurality of hydraulic actuators (2', 2", 2"', 2 iv) having respective movable pistons (3', 3", 3"', 3 iv) acting on said chocks, and respective chambers (6', 6", 6"', 6 iv), a hydraulic circuit for feeding said plurality of hydraulic actuators (2', 2", 2'", 2 iv), one or more injectors (8', 8", 8"', 8 iv) within said hydraulic circuit, characterized in that said one or more injectors (8', 8", 8"', 8 iv) are directly arranged within or in the proximity of the structure of the respective chambers (6', 6", 6"', 6 iv) of the hydraulic actuators (2', 2", 2"', 2 iv) to actuate an active damping of the vibrations of the working rolls (1, 1'), said injectors being adapted to inject pressurized oil into a respective chamber (6', 6", 6"', 6 iv) of the hydraulic actuators (2', 2", 2"', 2 iv) under the control of an electronic control unit.
A method for controlling a touch screen of a terminal, comprising: detecting a multi-touch event generated in a sliding operation and performed on a touch screen of a terminal; determining an area where multiple touch points corresponding to the multi-touch event are distributed, wherein the touch screen of the terminal is divided into a wrong-trigger prevention area, a buffer area and a normal touch area, the buffer area being located between the wrong-trigger prevention area and the normal touch area; wherein when determining that the multiple touch points are distributed in the wrong-trigger prevention area and the normal touch area, controlling the touch screen not to respond to a touch operation at touch points in the wrong-trigger prevention area, and to respond to a touch operation at touch points in the normal touch area; characterized by further comprising when determining that the multiple touch points are distributed in the wrong-trigger prevention area and the buffer area, controlling (103, 104, 606) the touch screen to respond to a touch operation at the multiple touch points for preventing the whole sliding operation from being disconnected; and when determining that the multiple touch points are distributed in the buffer area and the normal touch area, controlling the touch screen to respond to a touch operation at the multiple touch points. detecting a multi-touch event generated in a sliding operation and performed on a touch screen of a terminal; determining an area where multiple touch points corresponding to the multi-touch event are distributed, wherein the touch screen of the terminal is divided into a wrong-trigger prevention area, a buffer area and a normal touch area, the buffer area being located between the wrong-trigger prevention area and the normal touch area; wherein when determining that the multiple touch points are distributed in the wrong-trigger prevention area and the normal touch area, controlling the touch screen not to respond to a touch operation at touch points in the wrong-trigger prevention area, and to respond to a touch operation at touch points in the normal touch area; characterized by further comprising when determining that the multiple touch points are distributed in the wrong-trigger prevention area and the buffer area, controlling (103, 104, 606) the touch screen to respond to a touch operation at the multiple touch points for preventing the whole sliding operation from being disconnected; and when determining that the multiple touch points are distributed in the buffer area and the normal touch area, controlling the touch screen to respond to a touch operation at the multiple touch points. when determining that the multiple touch points are distributed in the wrong-trigger prevention area and the buffer area, controlling (103, 104, 606) the touch screen to respond to a touch operation at the multiple touch points for preventing the whole sliding operation from being disconnected; and when determining that the multiple touch points are distributed in the buffer area and the normal touch area, controlling the touch screen to respond to a touch operation at the multiple touch points.
Method of obtaining zinc sulphate solution for electrolysis of zinc from selected Waelz oxide of hydrometallurgical properties, with the application of purification by means of sodium carbonate solution at atmospheric or elevated pressure in an autoclave, characterised in that selected oxides of hydrometallurgical properties from the Waelz plant are used in the process, and the process of preparing zinc electrolyte for electrolytic zinc manufacture is carried out in three stages, wherein each of the stages is preceded by a different process of preparing process suspension, in the first stage the crude zinc oxide being treated with cold water to remove chlorine and alkali elements in a two-step counter-current operation of leaching soluble components carried out in a washing and thickening unit, wherefrom water containing alkali elements and chlorine is selectively transferred to CaCl2 manufacture, in the second stage the crude zinc oxide processed in the first stage being further treated in an autoclave at a temperature of 120-130°C to remove fluorine by treatment with Na 2 CO 3 and/or Na 2 CO 3 solution, after which the suspension, preferably upon thickening, is subjected to phase separation by means of filtration and washing the filter cake on the filter, in the third stage the filter cake obtained in the second stage being dissolved in the spent electrolyte after which the thickened suspension is separated in a thickening and phase separation process by means of filtration and washing the filter cake on the filter, and the solution after sedimentation constituting a zinc electrolyte for electrolytic zinc manufacture, wherein solutions from the second step are transferred to selective purification to separate CaF2.
A spinning winder comprising: a godet roller (11, 12) on which a plurality of yarns supplied from a spinning unit are wound while being aligned in directions in parallel to an axis of the godet roller; a winding axis to which a plurality of bobbins are attached in series along the same, the winding axis winding the yarns supplied from the godet roller onto the respective bobbins; a plurality of distribution guides (13a-d) which are disposed in predetermined alignment directions in parallel to the winding axis and distribute the yarns supplied from the godet roller to the respective bobbins attached to the winding axis; and a yarn holding component which is arranged to be movable in the alignment directions of the distribution guides while holding the yarns, and characterized in that each of the distribution guides includes a yarn threading portion to which a yarn is threaded from one side in the alignment directions, and the yarn holding component is arranged to be movable in an inclined direction which is between the alignment directions and directions orthogonal to the alignment directions, and to move in the inclined direction from said one side to the other side of the distribution guides while holding the yarns to be threaded aligned in directions orthogonal to the alignment directions, and wherein the yarn holding component moves along the alignment directions from the other side to said one side of the distribution guides, and then moves in the inclined direction from said one side to the other side of the distribution guides. a godet roller (11, 12) on which a plurality of yarns supplied from a spinning unit are wound while being aligned in directions in parallel to an axis of the godet roller; a winding axis to which a plurality of bobbins are attached in series along the same, the winding axis winding the yarns supplied from the godet roller onto the respective bobbins; a plurality of distribution guides (13a-d) which are disposed in predetermined alignment directions in parallel to the winding axis and distribute the yarns supplied from the godet roller to the respective bobbins attached to the winding axis; and a yarn holding component which is arranged to be movable in the alignment directions of the distribution guides while holding the yarns, and characterized in that each of the distribution guides includes a yarn threading portion to which a yarn is threaded from one side in the alignment directions, and the yarn holding component is arranged to be movable in an inclined direction which is between the alignment directions and directions orthogonal to the alignment directions, and to move in the inclined direction from said one side to the other side of the distribution guides while holding the yarns to be threaded aligned in directions orthogonal to the alignment directions, and wherein the yarn holding component moves along the alignment directions from the other side to said one side of the distribution guides, and then moves in the inclined direction from said one side to the other side of the distribution guides.
A method, comprising: forming a lithium metal film on a current collector, wherein the current collector comprises copper and/or stainless steel; and forming a protective film stack on the lithium metal film, comprising: forming a first protective film on the lithium metal film, wherein the first protective film is selected from a tin chalcogenide film, a gallium chalcogenide film, a germanium chalcogenide film, an indium chalcogenide film, a silver chalcogenide film, a dielectric film, or a combination thereof; and forming a second protective film on the first protective film, the second protective film selected from a lithium fluoride (LiF) film, a metallic film, a carbon-containing film, or a combination thereof. forming a lithium metal film on a current collector, wherein the current collector comprises copper and/or stainless steel; and forming a protective film stack on the lithium metal film, comprising: forming a first protective film on the lithium metal film, wherein the first protective film is selected from a tin chalcogenide film, a gallium chalcogenide film, a germanium chalcogenide film, an indium chalcogenide film, a silver chalcogenide film, a dielectric film, or a combination thereof; and forming a second protective film on the first protective film, the second protective film selected from a lithium fluoride (LiF) film, a metallic film, a carbon-containing film, or a combination thereof. forming a first protective film on the lithium metal film, wherein the first protective film is selected from a tin chalcogenide film, a gallium chalcogenide film, a germanium chalcogenide film, an indium chalcogenide film, a silver chalcogenide film, a dielectric film, or a combination thereof; and forming a second protective film on the first protective film, the second protective film selected from a lithium fluoride (LiF) film, a metallic film, a carbon-containing film, or a combination thereof.