mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a security element for a security paper or an object of value, in particular a value document, comprising the following steps: a) the supplying of a transparent carrier substrate; b) the supplying of an emboss-lacquer layer having an emboss structure on the carrier substrate; d) the applying of a crack-forming coating on the emboss-lacquer layer and drying of the crack-forming coating, wherein upon the drying the coating forms numerous cracks in the form of narrow-meshed, contiguous network; e) the applying of a metallization on the carrier substrate obtained in the step d), wherein metal is deposited within the cracks of the coating furnished with cracks, optionally also above the coatings furnished with cracks; f) the removing of the coating furnished with cracks optionally having metals present on the coating, so that in the region of the removed coatings furnished with cracks, a transparent, conductive metallization remains in form of a narrow-meshed, contiguous network on the emboss-lacquer layer. a) the supplying of a transparent carrier substrate; b) the supplying of an emboss-lacquer layer having an emboss structure on the carrier substrate; d) the applying of a crack-forming coating on the emboss-lacquer layer and drying of the crack-forming coating, wherein upon the drying the coating forms numerous cracks in the form of narrow-meshed, contiguous network; e) the applying of a metallization on the carrier substrate obtained in the step d), wherein metal is deposited within the cracks of the coating furnished with cracks, optionally also above the coatings furnished with cracks; f) the removing of the coating furnished with cracks optionally having metals present on the coating, so that in the region of the removed coatings furnished with cracks, a transparent, conductive metallization remains in form of a narrow-meshed, contiguous network on the emboss-lacquer layer.
A biomolecule complex for the detection and/or quantitation of an analyte in a sample, comprising: (a) an anchor strand attached to a support; (b) a capture reagent attached to the support; (c) a detection reagent linked to a hook strand, the hook strand being releasably attached to the anchor strand, the hook strand and the anchor strand being linked together by a double-stranded DNA hybrid; and (d) a displacer agent comprising a DNA oligonucleotide complementary to at least a portion of the hook strand and capable of hybridizing to the hook strand, thereby releasing the hook strand from the anchor strand via a DNA displacement reaction, the displacer agent being detectably labeled; wherein: the capture reagent and the detection reagent can simultaneously bind to the analyte, if present in the sample, forming a tertiary complex; and release of the hook strand from the anchor strand by the displacer agent can release the detection reagent from the support in the absence of the analyte. (a) an anchor strand attached to a support; (b) a capture reagent attached to the support; (c) a detection reagent linked to a hook strand, the hook strand being releasably attached to the anchor strand, the hook strand and the anchor strand being linked together by a double-stranded DNA hybrid; and (d) a displacer agent comprising a DNA oligonucleotide complementary to at least a portion of the hook strand and capable of hybridizing to the hook strand, thereby releasing the hook strand from the anchor strand via a DNA displacement reaction, the displacer agent being detectably labeled; wherein: the capture reagent and the detection reagent can simultaneously bind to the analyte, if present in the sample, forming a tertiary complex; and release of the hook strand from the anchor strand by the displacer agent can release the detection reagent from the support in the absence of the analyte.
A touch display device comprising: an active area including a first area in which a plurality of subpixels are disposed; a second area surrounded by the first area; a first hole located in the second area; a second hole located in the second area and spaced apart from the first hole; a plurality of touch electrodes disposed in the first area and disposed in at least a portion of the second area, except for a portion in which the first hole and the second hole are disposed; and a plurality of X-touch electrode connecting lines (X-CL) electrically connecting two adjacent touch electrodes among the plurality of touch electrodes along a first direction, and a plurality of Y-touch electrode connecting lines (Y-CL) electrically connecting two adj acent touch electrodes among the plurality of touch electrodes along a second direction different from the first direction, characterized in that the number of X-touch electrode connecting lines, among the plurality of X-touch electrode connecting lines (X-CL), connecting two adjacent touch electrodes, among the plurality of touch electrodes, in the first direction between the first hole and the second hole is greater than the number of X-touch electrode connecting lines, among the plurality of X-touch electrode connecting lines (X-CL), connecting two adjacent touch electrodes, among the plurality of touch electrodes, outside of the second area. an active area including a first area in which a plurality of subpixels are disposed; a second area surrounded by the first area; a first hole located in the second area; a second hole located in the second area and spaced apart from the first hole; a plurality of touch electrodes disposed in the first area and disposed in at least a portion of the second area, except for a portion in which the first hole and the second hole are disposed; and a plurality of X-touch electrode connecting lines (X-CL) electrically connecting two adjacent touch electrodes among the plurality of touch electrodes along a first direction, and a plurality of Y-touch electrode connecting lines (Y-CL) electrically connecting two adj acent touch electrodes among the plurality of touch electrodes along a second direction different from the first direction, characterized in that the number of X-touch electrode connecting lines, among the plurality of X-touch electrode connecting lines (X-CL), connecting two adjacent touch electrodes, among the plurality of touch electrodes, in the first direction between the first hole and the second hole is greater than the number of X-touch electrode connecting lines, among the plurality of X-touch electrode connecting lines (X-CL), connecting two adjacent touch electrodes, among the plurality of touch electrodes, outside of the second area.
Agent for the use in a prophylactic and therapeutic treatment of virus infections caused by a virus of the family of herpesviridae, characterized in that said agent contains piroxicam in a carrier substance.
A power transmission system comprising: a power conversion device including a first arm and a second arm each including a plurality of cells, each of the plurality of cells including a switching element (Q1, Q2) and a capacitor, and at least one bypass switch provided for one or more of the plurality of cells, the at least one bypass switch being configured to be closed so as to allow passage of a fault current; characterized by a switch configured to be opened so as to prevent an inflow of a current from a sound pole, being a first or second pole, where no fault has occurred into the at least one bypass switch after the at least one bypass switch is closed, and to be closed after the at least one bypass switch is opened, wherein the power transmission system comprises the first pole having a first main line and a first power conversion device connected to a neutral line through a first switch and the second pole having a second main line and a second power conversion device connected to a neutral line through a second switch, where the first and second poles share the neutral line. a power conversion device including a first arm and a second arm each including a plurality of cells, each of the plurality of cells including a switching element (Q1, Q2) and a capacitor, and at least one bypass switch provided for one or more of the plurality of cells, the at least one bypass switch being configured to be closed so as to allow passage of a fault current; characterized by a first arm and a second arm each including a plurality of cells, each of the plurality of cells including a switching element (Q1, Q2) and a capacitor, and at least one bypass switch provided for one or more of the plurality of cells, the at least one bypass switch being configured to be closed so as to allow passage of a fault current; characterized by a switch configured to be opened so as to prevent an inflow of a current from a sound pole, being a first or second pole, where no fault has occurred into the at least one bypass switch after the at least one bypass switch is closed, and to be closed after the at least one bypass switch is opened, to be opened so as to prevent an inflow of a current from a sound pole, being a first or second pole, where no fault has occurred into the at least one bypass switch after the at least one bypass switch is closed, and to be closed after the at least one bypass switch is opened, wherein the power transmission system comprises the first pole having a first main line and a first power conversion device connected to a neutral line through a first switch and the second pole having a second main line and a second power conversion device connected to a neutral line through a second switch, where the first and second poles share the neutral line.
A microsphere produced by thermally induced phase separation having a radial pore structure of tubular pores interconnected by a ladder-like structure of smaller pores, wherein the microsphere includes a skin region at its surface comprising a plurality of pores.
A biodegradable drug delivery composition comprising: (i) a mixture of at least three different block copolymers, wherein each block copolymer is: (a) a biodegradable triblock copolymer having the formula: A v -B w -A x wherein A is a polyester and B is polyethylene glycol and v and x are the number of repeat units ranging from 1 to 3,000 and w is the number of repeat units ranging from 3 to 300 and v=x or v≠x; or (b) a biodegradable diblock copolymer having the formula: C y -A z wherein A is a polyester and C is an end-capped polyethylene glycol and y and z are the number of repeat units with y ranging from 2 to 250 and z ranging from 1 to 3,000; and wherein the mixture comprises at least one (a) and at least one (b); and the weight ratio between (a) and (b) is 1:19 to 5:1; and (ii) at least one pharmaceutically active ingredient. (i) a mixture of at least three different block copolymers, wherein each block copolymer is: (a) a biodegradable triblock copolymer having the formula: A v -B w -A x wherein A is a polyester and B is polyethylene glycol and v and x are the number of repeat units ranging from 1 to 3,000 and w is the number of repeat units ranging from 3 to 300 and v=x or v≠x; or (b) a biodegradable diblock copolymer having the formula: C y -A z wherein A is a polyester and C is an end-capped polyethylene glycol and y and z are the number of repeat units with y ranging from 2 to 250 and z ranging from 1 to 3,000; and wherein the mixture comprises at least one (a) and at least one (b); and the weight ratio between (a) and (b) is 1:19 to 5:1; and (a) a biodegradable triblock copolymer having the formula: A v -B w -A x wherein A is a polyester and B is polyethylene glycol and v and x are the number of repeat units ranging from 1 to 3,000 and w is the number of repeat units ranging from 3 to 300 and v=x or v≠x; or (b) a biodegradable diblock copolymer having the formula: C y -A z wherein A is a polyester and C is an end-capped polyethylene glycol and y and z are the number of repeat units with y ranging from 2 to 250 and z ranging from 1 to 3,000; and wherein the mixture comprises at least one (a) and at least one (b); and the weight ratio between (a) and (b) is 1:19 to 5:1; and wherein A is a polyester and C is an end-capped polyethylene glycol and y and z are the number of repeat units with y ranging from 2 to 250 and z ranging from 1 to 3,000; and wherein the mixture comprises at least one (a) and at least one (b); and the weight ratio between (a) and (b) is 1:19 to 5:1; and (ii) at least one pharmaceutically active ingredient.
A computer-implemented method comprising: accessing, by a computer system, position data of a first virtual reality head-mounted display, the position data generated based on image data of a physical environment that comprises the first virtual reality head-mounted display, the image data generated by an optical sensor of a second virtual reality head-mounted display; determining, by the computer system, a position of the first virtual reality head-mounted display in the physical environment based on the position data; and causing, by the computer system, a presentation of virtual reality content at the first virtual reality head-mounted display based on the position in the physical environment, wherein the first virtual reality head-mounted display comprises the computer system, wherein accessing the position data comprises receiving the position data from the second virtual reality head-mounted display over a peer-to-peer data communication network, and wherein the position of the first reality head-mounted display is tracked over time based on updates to the position data, wherein the position data is further generated based on first inertial data of the first virtual reality head-mounted display and based on second inertial data of the second virtual reality head-mounted display, wherein the first inertial data is generated by a first inertial measurement unit rigidly connected with the first virtual reality head-mounted display, and wherein the second inertial data is generated by a second inertial measurement unit rigidly connected with the second virtual reality head-mounted display. accessing, by a computer system, position data of a first virtual reality head-mounted display, the position data generated based on image data of a physical environment that comprises the first virtual reality head-mounted display, the image data generated by an optical sensor of a second virtual reality head-mounted display; determining, by the computer system, a position of the first virtual reality head-mounted display in the physical environment based on the position data; and causing, by the computer system, a presentation of virtual reality content at the first virtual reality head-mounted display based on the position in the physical environment, wherein the first virtual reality head-mounted display comprises the computer system, wherein accessing the position data comprises receiving the position data from the second virtual reality head-mounted display over a peer-to-peer data communication network, and wherein the position of the first reality head-mounted display is tracked over time based on updates to the position data, wherein the position data is further generated based on first inertial data of the first virtual reality head-mounted display and based on second inertial data of the second virtual reality head-mounted display, wherein the first inertial data is generated by a first inertial measurement unit rigidly connected with the first virtual reality head-mounted display, and wherein the second inertial data is generated by a second inertial measurement unit rigidly connected with the second virtual reality head-mounted display.
A method for associating sounds with different keypresses, comprising: defining a plurality of significant elements on a computing device associated with a keyboard comprising a plurality of keys, wherein each of the significant elements is a particular key of the plurality of keys, wherein the plurality of significant elements is a subset of the plurality of keys, the plurality of significant elements being grouped into classes of significant elements, wherein each class of significant elements is a subset of the plurality of significant elements; associating a first sound event associated with a first sound to a first class of significant elements for keys comprising numbers, and a second sound event associated with a second sound to a second class of significant elements for keys comprising symbols, wherein the first sound and the second sound are each unique sounds; receiving an input of a first keypress from the keyboard; determining whether a key corresponding to the first keypress is one of the plurality of significant elements, determining a first sound event associated with the key, when the key is one of the plurality of significant elements in the first class, or a second sound event associated with the key, when the key is one of the plurality of significant elements in the second class; and outputting the first sound in response to determining the first sound event and outputting the second sound in response to determining the second sound event. defining a plurality of significant elements on a computing device associated with a keyboard comprising a plurality of keys, wherein each of the significant elements is a particular key of the plurality of keys, wherein the plurality of significant elements is a subset of the plurality of keys, the plurality of significant elements being grouped into classes of significant elements, wherein each class of significant elements is a subset of the plurality of significant elements; associating a first sound event associated with a first sound to a first class of significant elements for keys comprising numbers, and a second sound event associated with a second sound to a second class of significant elements for keys comprising symbols, wherein the first sound and the second sound are each unique sounds; receiving an input of a first keypress from the keyboard; determining whether a key corresponding to the first keypress is one of the plurality of significant elements, determining a first sound event associated with the key, when the key is one of the plurality of significant elements in the first class, or a second sound event associated with the key, when the key is one of the plurality of significant elements in the second class; and outputting the first sound in response to determining the first sound event and outputting the second sound in response to determining the second sound event.
A method of reducing the ammonium ion concentration in a mammalian cell culture, comprising steps of: growing the cells in a cell culture medium, and contacting or administering an effective amount of a tricarboxylic acid ("TCA) intermediate composition to the cell culture medium, wherein the TCA intermediate composition comprises about 3 mM to about 45 mM malic acid and about 3 mM to about 45 mM pyruvic acid. growing the cells in a cell culture medium, and contacting or administering an effective amount of a tricarboxylic acid ("TCA) intermediate composition to the cell culture medium, wherein the TCA intermediate composition comprises about 3 mM to about 45 mM malic acid and about 3 mM to about 45 mM pyruvic acid.
A method for operating a communication device for remotely controlling an actuator for a movable equipment of the building, comprising the steps consisting in: a) analyzing a first received signal to determine whether at least one sequence of the first received signal can be interpreted as being in accordance with a configuration communication mode (MCi) usable by the communication device; b) receiving at least one sequence of the first received signal in accordance with a configuration communication mode, defining said configuration communication mode (MCi) as identified configuration communication mode; c) defining an operational communication mode depending on the identified configuration communication mode (MCi); d) receiving a second signal according to the operational communication mode; and e) interpreting the second received signal in accordance with the operational communication mode, so as to identify control data in the second received signal. a) analyzing a first received signal to determine whether at least one sequence of the first received signal can be interpreted as being in accordance with a configuration communication mode (MCi) usable by the communication device; b) receiving at least one sequence of the first received signal in accordance with a configuration communication mode, defining said configuration communication mode (MCi) as identified configuration communication mode; c) defining an operational communication mode depending on the identified configuration communication mode (MCi); d) receiving a second signal according to the operational communication mode; and e) interpreting the second received signal in accordance with the operational communication mode, so as to identify control data in the second received signal.
A method of preparing a hair care composition, wherein the composition comprises: (a) a cationic surfactant system; (b) a high melting point fatty compound, wherein the high melting point fatty compound is a fatty compound having a melting point of 25°C or higher; (c) aqueous carrier; (d) an antidandruff agent selected from metal pyrithiones; and wherein the method comprises the steps of: mixing the cationic surfactant system, high melting point fatty compound and aqueous carrier to form an emulsion; adding the antidandruff agent to the emulsion by injection. (a) a cationic surfactant system; (b) a high melting point fatty compound, wherein the high melting point fatty compound is a fatty compound having a melting point of 25°C or higher; (c) aqueous carrier; (d) an antidandruff agent selected from metal pyrithiones; mixing the cationic surfactant system, high melting point fatty compound and aqueous carrier to form an emulsion; adding the antidandruff agent to the emulsion by injection.
A method of producing a multilayer polyethylene sealant film comprising coextruding and stretching a sealant layer comprising a low density polyethylene resin or linear low density polyethylene resin having a melting point of 90-110°C and a Vicat softening temperature of 70-105 °C and an orientation layer comprising a polyethylene resin having a melting point of 120-130°C and a Vicat softening temperature of 80-120°C, wherein the melting point and Vicat softening temperature of the sealant layer is lower than those of the orientation layer, by an inflation method at a surface temperature at the maximum diameter portion of the bubble higher than the melting point of the sealant layer and higher than the Vicat softening temperature of the orientation layer but lower than the melting point of the orientation layer, wherein the blow ratio is 2 - 3.5, characterized in that the low density polyethylene resin or linear low density polyethylene resin of the sealant layer has a melt flow rate of 0.1-5 g/10 minutes and the polyethylene resin of the orientation layer has a melt flow rate of 0.1-5 g/10 minutes, a molecular weight distribution (Mw/Mn) of 6 or more and a melt tension of 5-15 g, wherein the melt flow rate is measured under the conditions at 190°C and a load of 21.18 N, according to JIS K 7210 and the melt tension is measured by using a capillary rheometer provided with an orifice having a length of 8 mm, a diameter of 2 mm and an entrance angle of 90 degrees, at 190°C at a piston descending speed of 10 mm/min at a winding speed of 10 m/min, and indicated by the necessary load (g) for taking up, according to JIS K 7119.