mhurhangee/ep-ind-claims huggingface dataset:
A light control film, comprising: a first electrode and a second electrode disposed facing each other; a light control material disposed between the first electrode and the second electrode and changing a transmittance in accordance with a potential difference between the first electrode and the second electrode, wherein the light control material comprises a liquid crystal material; a potential gradient forming part for providing a gradient of the potential difference in an extension direction of the first electrode and the second electrode; the potential gradient forming part comprising; at least one power feeding unit provided on at least one portion of the first electrode and is arranged to provide 4trrg- a voltage between the first electrode and the second electrode, wherein at least another portion of the first electrode, which is different from the at least one portion on which the at least one power feeding unit is provided, is electrically connected to the second electrode; characterised in that, a resistance member is disposed between the first electrode and the second electrode, and a resistance value of the resistance member is variable. a first electrode and a second electrode disposed facing each other; a light control material disposed between the first electrode and the second electrode and changing a transmittance in accordance with a potential difference between the first electrode and the second electrode, wherein the light control material comprises a liquid crystal material; a potential gradient forming part for providing a gradient of the potential difference in an extension direction of the first electrode and the second electrode; the potential gradient forming part comprising; at least one power feeding unit provided on at least one portion of the first electrode and is arranged to provide 4trrg- a voltage between the first electrode and the second electrode, wherein at least another portion of the first electrode, which is different from the at least one portion on which the at least one power feeding unit is provided, is electrically connected to the second electrode; characterised in that, a resistance member is disposed between the first electrode and the second electrode, and a resistance value of the resistance member is variable.
Tool-holding device for a hammer drill, with a rotatably driveable tool holder (5, 9) for receiving an insert tool and with a striking element which acts axially on the insert tool, characterized in that the tool-holding device comprises a base plug system with a first tool holder, and in that an interchangeable chuck with a second tool holder can be releaseably placed on the first tool holder and locked in a rotationally fixed manner, wherein the first tool holder in the base plug system is designed to be axially open on both sides in order to receive the striking element or a component interacting with the striking element.
Apparatus for automatically analyzing extruded films, in particular stretched films,, the apparatus comprising: a film extruder comprising an extrusion lip configured to form a neck-in portion (7a, 7b) at each of both edges of the extruded film at a specific distance from the extrusion lip along the longitudinal transport direction of the extruded film, two edge detectors (31a, 31b) being arranged along a first line substantially transversal to the longitudinal direction and being spaced from each other by a specific distance, wherein each one edge detector (31a, 31b) is configured to detect, preferably to continuously detect, the lateral position of one respective edge of the neck-in portion (7a, 7b) of the film, characterized in that said apparatus further comprises a calculation means configured to determine the spatial relation between at least one lateral position at the extrusion lip and a respective lateral position at the neck-in portion (7a, 7b) on the basis of the two lateral positions of the edges of the neck-in portion (7a, 7b) of the film; at least one component configured to create at least one mark on the extruded film at at least one lateral position at the extrusion lip in the border region of the first and/or second lateral side of the film and at least one component configured to detect the lateral position of the mark at the neck-in portion (7a, 7b). a film extruder comprising an extrusion lip configured to form a neck-in portion (7a, 7b) at each of both edges of the extruded film at a specific distance from the extrusion lip along the longitudinal transport direction of the extruded film, two edge detectors (31a, 31b) being arranged along a first line substantially transversal to the longitudinal direction and being spaced from each other by a specific distance, wherein each one edge detector (31a, 31b) is configured to detect, preferably to continuously detect, the lateral position of one respective edge of the neck-in portion (7a, 7b) of the film, characterized in that said apparatus further comprises a calculation means configured to determine the spatial relation between at least one lateral position at the extrusion lip and a respective lateral position at the neck-in portion (7a, 7b) on the basis of the two lateral positions of the edges of the neck-in portion (7a, 7b) of the film; at least one component configured to create at least one mark on the extruded film at at least one lateral position at the extrusion lip in the border region of the first and/or second lateral side of the film and at least one component configured to detect the lateral position of the mark at the neck-in portion (7a, 7b).
A yarn cooler configured to cool a yarn spun out downward from a spinneret, the yarn cooler comprising: a cooling cylinder provided below the spinneret to be opposed to the spinneret, the cooling cylinder including therein a yarn running space through which the yarn is runnable, an upper peripheral wall of the yarn running space forming a flow adjustment section configured to adjust the flow of cooling air entering into the yarn running space while a lower peripheral wall of the yarn running space forming a impassable section configured to prevent the cooling air from entering into the yarn running space; an accommodation box accommodating the cooling cylinder, to which box the cooling air is supplied through a supply portion provided at a lower portion of the accommodation box; a first porous plate disposed in a supply passage where the cooling air supplied through the supply portion flows upward along the impassable section, the first porous plate being configured to adjust the flow of the cooling air; and a second porous plate disposed above and apart from the first porous plate in the supply passage, the second porous plate being configured to further adjust the flow of the cooling air having been adjusted by the first porous plate, wherein a thickness ratio, which is a ratio of a thickness of the plate to the diameter of the holes formed in the plate of the second porous plate is smaller than the thickness ratio of the first porous plate. a cooling cylinder provided below the spinneret to be opposed to the spinneret, the cooling cylinder including therein a yarn running space through which the yarn is runnable, an upper peripheral wall of the yarn running space forming a flow adjustment section configured to adjust the flow of cooling air entering into the yarn running space while a lower peripheral wall of the yarn running space forming a impassable section configured to prevent the cooling air from entering into the yarn running space; an accommodation box accommodating the cooling cylinder, to which box the cooling air is supplied through a supply portion provided at a lower portion of the accommodation box; a first porous plate disposed in a supply passage where the cooling air supplied through the supply portion flows upward along the impassable section, the first porous plate being configured to adjust the flow of the cooling air; and a second porous plate disposed above and apart from the first porous plate in the supply passage, the second porous plate being configured to further adjust the flow of the cooling air having been adjusted by the first porous plate, wherein a thickness ratio, which is a ratio of a thickness of the plate to the diameter of the holes formed in the plate of the second porous plate is smaller than the thickness ratio of the first porous plate.
Method of operating a reversing coiler with a rotor, at which at least one coiler mandrel is mounted by its rotor-side end eccentrically with respect to the axis of rotation of the rotor, for winding up strip, particularly metal strip, wherein the method comprises the following steps: rotating the rotor for transferring the initially empty coiler mandrel to a winding-on position; and releasable coupling of an accompanying mandrel support bearing to the free end of the coiler mandrel; characterised in that the free end of the coiler mandrel in the winding-on position is lifted against gravitational force to the height of its rotor-side end with the help of the coupled accompanying mandrel support bearing. rotating the rotor for transferring the initially empty coiler mandrel to a winding-on position; and releasable coupling of an accompanying mandrel support bearing to the free end of the coiler mandrel; characterised in that the free end of the coiler mandrel in the winding-on position is lifted against gravitational force to the height of its rotor-side end with the help of the coupled accompanying mandrel support bearing.
A method for evaluating a battery value, comprising: applying a predetermined charge/discharge current pattern to a battery; obtaining a highest SOC value and a lowest SOC value when the predetermined charge/discharge current pattern is applied to the battery; calculating a first width between the highest SOC value and the lowest SOC value; detecting, by referring to a preset SOC-vs-charge current curve, a first SOC value in a case that the battery is charged with a first current value detected at the time immediately before reaching the highest SOC value, the preset SOC-vs-charge current curve being obtained by measuring characteristics of the battery and plotting a maximal current that enables charge based on a SOC of the battery; detecting, by referring to a preset SOC-vs-discharge current curve, a second SOC value in a case that the battery is discharged with a second current value detected at the time immediately before reaching the lowest SOC value, the preset SOC-vs-discharge current curve being obtained by measuring the characteristics of the battery and plotting a maximal current that enables discharge based on the SOC of the battery; calculating a second width between the first SOC value and the second SOC value; and determining that the battery reaches end of life, when the second width is smaller than the first width. applying a predetermined charge/discharge current pattern to a battery; obtaining a highest SOC value and a lowest SOC value when the predetermined charge/discharge current pattern is applied to the battery; calculating a first width between the highest SOC value and the lowest SOC value; detecting, by referring to a preset SOC-vs-charge current curve, a first SOC value in a case that the battery is charged with a first current value detected at the time immediately before reaching the highest SOC value, the preset SOC-vs-charge current curve being obtained by measuring characteristics of the battery and plotting a maximal current that enables charge based on a SOC of the battery; detecting, by referring to a preset SOC-vs-discharge current curve, a second SOC value in a case that the battery is discharged with a second current value detected at the time immediately before reaching the lowest SOC value, the preset SOC-vs-discharge current curve being obtained by measuring the characteristics of the battery and plotting a maximal current that enables discharge based on the SOC of the battery; calculating a second width between the first SOC value and the second SOC value; and determining that the battery reaches end of life, when the second width is smaller than the first width.
A soundproof structure, comprising: two or more soundproof units (12a, 12b), wherein each soundproof unit (12a, 12b) has a frame (14a, 14b) having an opening portion (13a, 13b) and a sound absorbing member (16a, 16b) attached to the opening portion (13a, 13b) of the frame (14a, 14b), two adjacent soundproof units (12a, 12b) are disposed such that at least parts of the sound absorbing members (16a, 16b) face each other, the sound absorbing members (16a, 16b) at least parts of which face each other are spaced apart from each other, characterised in that an average distance between the sound absorbing members (16a, 16b) at least parts of which face each other is less than 20 mm; wherein the sound absorbing member (16a, 16b) is a film that vibrates with respect to sound, and the film covers the opening portion of the frame and is fixed to the frame (14a, 14b). two or more soundproof units (12a, 12b), wherein each soundproof unit (12a, 12b) has a frame (14a, 14b) having an opening portion (13a, 13b) and a sound absorbing member (16a, 16b) attached to the opening portion (13a, 13b) of the frame (14a, 14b), two adjacent soundproof units (12a, 12b) are disposed such that at least parts of the sound absorbing members (16a, 16b) face each other, the sound absorbing members (16a, 16b) at least parts of which face each other are spaced apart from each other, characterised in that an average distance between the sound absorbing members (16a, 16b) at least parts of which face each other is less than 20 mm; wherein the sound absorbing member (16a, 16b) is a film that vibrates with respect to sound, and the film covers the opening portion of the frame and is fixed to the frame (14a, 14b).
DC metering device, comprising two current transducers (R1, I1, R2, I2) provided as hall sensors and configured for measuring direct currents, two electrical switches (S1, S2) and a control device, whereby each one current transducer (R1, I1, R2, I2) and one switch (S1, S2) are connected in series, the series connections of the current transducers (R1, I1, R2, I2) and switches (S1, S2) are connected in parallel, and the control device is configured for switching off in a repeating sequence alternately one of the switches (S1, S2) and for continuously calculating a sum of continuously measured direct currents (I1, I2) subtracted by the measured zero offset currents (I zero R1, I zero R2) of the two current transducers (R1, I1, R2, I2), whereby the zero offset currents (I zero R1, I zero R2) are measured when no current goes through the current transducers (R1, I1, R2, I2). two current transducers (R1, I1, R2, I2) provided as hall sensors and configured for measuring direct currents, two electrical switches (S1, S2) and a control device, whereby each one current transducer (R1, I1, R2, I2) and one switch (S1, S2) are connected in series, the series connections of the current transducers (R1, I1, R2, I2) and switches (S1, S2) are connected in parallel, and the control device is configured for switching off in a repeating sequence alternately one of the switches (S1, S2) and for continuously calculating a sum of continuously measured direct currents (I1, I2) subtracted by the measured zero offset currents (I zero R1, I zero R2) of the two current transducers (R1, I1, R2, I2), whereby the zero offset currents (I zero R1, I zero R2) are measured when no current goes through the current transducers (R1, I1, R2, I2).
A vector for making circular mRNA, said vector comprising the following elements operably connected to each other and arranged in the following sequence: a) an RNA polymerase promoter, b) a self circularizing intron 5' splice junction, c) an IRES, d) an optional 5' UTR, e) a multiple cloning insertion site for inserting an ORF into said vector, f) a 3'UTR, g) an polyA tract, h) a self circularizing intron 3' slice junction, and i) an optional RNA polymerase terminator said vector allowing production of a circular mRNA that is able to compete against native cellular mRNAs for eukaryotic translation initiation machinery. a) an RNA polymerase promoter, b) a self circularizing intron 5' splice junction, c) an IRES, d) an optional 5' UTR, e) a multiple cloning insertion site for inserting an ORF into said vector, f) a 3'UTR, g) an polyA tract, h) a self circularizing intron 3' slice junction, and i) an optional RNA polymerase terminator
Use of glycoproteins extracted from the bacteria Klebsiella pneumoniae for producing a drug designed for the curative treatment of acute infections and chronic infections, in particular when these infections persist after an antibiotic treatment, characterized in that the glycoprotein is held on membrane of average porosity of 0.011 micrometres and is at the dose of 1mg per tablet or sachet, or of membrane proteoglycans extracted from the bacteria Klebsiella pneumoniae at the dose of 1.125mg per tablet or capsule, for an average dosage of 2 doses daily.
A method (400, 500) for replacing an at least one symbol in a first image, the method comprising: obtaining (402, 502) the first image comprising a plurality of pixels representing the at least one symbol and a plurality of pixels representing a background area; defining (404, 504) a first and a second boundary in the first image, wherein the first and the second boundaries are each a path comprising a plurality of pixels that minimizes a cost associated with the path, and the paths are positioned on opposite sides of the at least one symbol, wherein the cost associated with the path is defined as a sum of gradient change in pixel color of a plurality of pixels along the path; generating (406, 506) a plurality of pixels representing an at least one translated symbol of the at least one symbol; generating (408, 508) a plurality of pixels representing an augmented version of the background area, by interpolating pixel values of the interior region between the first and the second boundaries using the first and the second boundaries; and constructing (410, 510) a second image comprising the plurality of pixels representing the at least one translated symbol and the plurality of pixels representing the augmented version of the background area. obtaining (402, 502) the first image comprising a plurality of pixels representing the at least one symbol and a plurality of pixels representing a background area; defining (404, 504) a first and a second boundary in the first image, wherein the first and the second boundaries are each a path comprising a plurality of pixels that minimizes a cost associated with the path, and the paths are positioned on opposite sides of the at least one symbol, wherein the cost associated with the path is defined as a sum of gradient change in pixel color of a plurality of pixels along the path; generating (406, 506) a plurality of pixels representing an at least one translated symbol of the at least one symbol; generating (408, 508) a plurality of pixels representing an augmented version of the background area, by interpolating pixel values of the interior region between the first and the second boundaries using the first and the second boundaries; and constructing (410, 510) a second image comprising the plurality of pixels representing the at least one translated symbol and the plurality of pixels representing the augmented version of the background area.
A hardware security module (100, 200, 300, 300', 300", 401), comprising a cryptographic engine (110, 210, 310, 310', 310", 410) operable to execute a cryptographic process: characterized in that the hardware security module (100, 200, 300, 300', 300", 401) comprises: two or more hardware ports (102, 202, 302, 402), each one of which operable to electronically receive given input hardware port-specific cryptographic data thereon to initiate execution of an internal cryptographic process as a function thereof; and two or more segregated hardware port-specific storage spaces (104, 204, 304, 304', 304", 404), each operatively linked to a corresponding hardware port via a corresponding hardware link (108, 208, 308), and storing respective secured hardware port-specific cryptographic data thereon exclusively retrievable upon said given input hardware port-specific cryptographic data corresponding thereto and being received via said corresponding hardware port (102, 202, 302, 402); wherein said cryptographic engine (110, 210, 310, 310', 310", 410) is operable to execute said internal cryptographic process based on said secured port-specific cryptographic data retrieved from said segregated hardware port-specific storage spaces (104, 204, 304, 304', 304", 404) as a function of said given input port-specific cryptographic data. two or more hardware ports (102, 202, 302, 402), each one of which operable to electronically receive given input hardware port-specific cryptographic data thereon to initiate execution of an internal cryptographic process as a function thereof; and two or more segregated hardware port-specific storage spaces (104, 204, 304, 304', 304", 404), each operatively linked to a corresponding hardware port via a corresponding hardware link (108, 208, 308), and storing respective secured hardware port-specific cryptographic data thereon exclusively retrievable upon said given input hardware port-specific cryptographic data corresponding thereto and being received via said corresponding hardware port (102, 202, 302, 402); wherein said cryptographic engine (110, 210, 310, 310', 310", 410) is operable to execute said internal cryptographic process based on said secured port-specific cryptographic data retrieved from said segregated hardware port-specific storage spaces (104, 204, 304, 304', 304", 404) as a function of said given input port-specific cryptographic data.