mhurhangee/ep-ind-claims huggingface dataset:
A clathrate compound comprising a clathrate lattice with atoms of at least one element selected from silicon and carbon as a main structure, doping atoms which are encapsulated within lattice spacings of said clathrate lattice, and substitution atoms which are substituted for one portion of atoms which make up said clathrate lattice, wherein said clathrate lattice is one clathrate selected from the group consisting of: i) a silicon clathrate 46 (Si 46) mixed lattice of a Si 20 cluster comprising a dodecahedron of Si atoms and a Si 24 cluster comprising a tetradecahedron of Si atoms; ii) a silicon clathrate 34 (Si 34) mixed lattice of a Si 20 cluster comprising a dodecahedron of Si atoms, and a Si 28 cluster comprising a hexadecahedron of Si atoms; iii) a carbon clathrate 46 (C 46)mixed lattice of a C 20 cluster comprising a dodecahedron of C atoms, and a C 24 cluster comprising a tetradecahedron of C atoms; and iv) a carbon clathrate 34 (C 34) mixed lattice of a C 20 cluster comprising a dodecahedron of C atoms, and a C 28 cluster comprising a hexadecahedron of C atoms; said doping atoms are atoms of at least one element selected from the group consisting of Li, Na, K, Rb, Cs, Fr, Be, Mg, Ca, Sr, Ba, Ra, Sc, Y, La, Ce, Pr, Nd, Pm, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, Lu, Ac, Th, Pa, U, Np, Pu, Am, Cm, Bk, Cf, Es, Fm, Md, No, Lr, Cu, Ag, Au, Zn, Cd, Hg, B, Al, Ga, In, Tl, Ti, Zr, Of, Th, V, Nb, Ta, Pa, Cr, Mo, W, Fe, Co, Ni, Ru, Rh, Pd, Os, Ir, and Pt; said substitution atoms are atoms of at least one element selected from the group consisting of Li, Na, K, Rb, Cs, Fr, Be, Mg, Ca, Sr, Ba, Ra, Sc, Y, La, Ce, Pr, Nd, Pm, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, Lu, Ac, The, Pa, U, Np, Pu, Am, Cm, Bk, Cf, Es, Fm, Md, No, Lr, Cu, Ag, Au, Zn, Cd, Hg, B, Al, Ga, In, Tl, V, Nb, Ta, Cr, Mo, W, Mn, Tc, Re, N, P, As, Sb, Bi, O, S, Se, Te, Po, F, Cl, Br, I, At, Fe, Co, Ni, Ru, Rh, Pd, Os, Ir, and Pt. i) a silicon clathrate 46 (Si 46) mixed lattice of a Si 20 cluster comprising a dodecahedron of Si atoms and a Si 24 cluster comprising a tetradecahedron of Si atoms; ii) a silicon clathrate 34 (Si 34) mixed lattice of a Si 20 cluster comprising a dodecahedron of Si atoms, and a Si 28 cluster comprising a hexadecahedron of Si atoms; iii) a carbon clathrate 46 (C 46)mixed lattice of a C 20 cluster comprising a dodecahedron of C atoms, and a C 24 cluster comprising a tetradecahedron of C atoms; and iv) a carbon clathrate 34 (C 34) mixed lattice of a C 20 cluster comprising a dodecahedron of C atoms, and a C 28 cluster comprising a hexadecahedron of C atoms;
A method for location authentication at a server, the method comprising: receiving a client received coded satellite signal from a client device, said signal comprising a public code and an encrypted code comprising a product of a unknown low-rate code and a known high-rate code synchronized to the public code; estimating a time synchronization of the public code to provide an estimated code time synchronization; generating the known high-rate code based on the estimated code time synchronization to provide an estimated client known high-rate code; removing the estimated client known high-rate code from the encrypted code of the client received coded satellite signal to provide an estimated client unknown low-rate code signal; receiving a server received coded satellite signal comprising a public code and an encrypted code comprising a product of a unknown low-rate code and a known high-rate code synchronized to the public code; estimating a time synchronization of the public code to provide an estimated server code time synchronization; generating the known high-rate code based on the estimated server code time synchronization and navigation message data from the server received coded satellite signal to provide an estimated server known high-rate code; removing the estimated server known high-rate code from the encrypted code of the server received coded satellite signal to provide an estimated server unknown low-rate code signal; comparing the estimated client unknown low-rate code signal to the estimated server unknown low-rate code signal to provide a unknown low-rate code comparison result. receiving a client received coded satellite signal from a client device, said signal comprising a public code and an encrypted code comprising a product of a unknown low-rate code and a known high-rate code synchronized to the public code; estimating a time synchronization of the public code to provide an estimated code time synchronization; generating the known high-rate code based on the estimated code time synchronization to provide an estimated client known high-rate code; removing the estimated client known high-rate code from the encrypted code of the client received coded satellite signal to provide an estimated client unknown low-rate code signal; receiving a server received coded satellite signal comprising a public code and an encrypted code comprising a product of a unknown low-rate code and a known high-rate code synchronized to the public code; estimating a time synchronization of the public code to provide an estimated server code time synchronization; generating the known high-rate code based on the estimated server code time synchronization and navigation message data from the server received coded satellite signal to provide an estimated server known high-rate code; removing the estimated server known high-rate code from the encrypted code of the server received coded satellite signal to provide an estimated server unknown low-rate code signal; comparing the estimated client unknown low-rate code signal to the estimated server unknown low-rate code signal to provide a unknown low-rate code comparison result.
A system to create periodic pulse sequences with defined absolute phase, the system comprising a phase coherent analyzer and a pulse generator, the phase coherent analyzer and the pulse generator being connected with each other, the pulse generator having a clock input connected to the analyzer for receiving a clock signal from the analyzer, the system comprising a trigger line via which a marker signal is provided to at least one of the analyzer and the pulse generator, the marker signal temporally aligning an output signal of the pulse generator with a measurement process of the analyzer.
An array substrate, being a thin-film transistor array substrate for a display panel, comprising: a substrate; a common-signal line, a plurality of common electrode lines and a plurality of gate lines over the substrate, wherein the common-signal line is insulated from and crossed over by each gate line to thereby form a plurality of signal line-cross-over regions at each site of crossing; and a conductive layer being provided with a plurality of openings in a non-display region; wherein the conductive layer is configured to electrically couple the common-signal line with each of the plurality of common electrode lines; wherein an orthographic projection of each of the signal line-cross-over regions on the substrate is configured to be completely covered by an orthographic projection of a respective one of the openings on the substrate; wherein a first zone formed by an orthographic projection of the signal line-cross-over regions on the substrate is configured to have a gap with a second zone formed by an orthographic projection of the conductive layer on the substrate excluding the first zone; and wherein each of the openings is surrounded by the conductive layer. a substrate; a common-signal line, a plurality of common electrode lines and a plurality of gate lines over the substrate, wherein the common-signal line is insulated from and crossed over by each gate line to thereby form a plurality of signal line-cross-over regions at each site of crossing; and a conductive layer being provided with a plurality of openings in a non-display region; wherein the conductive layer is configured to electrically couple the common-signal line with each of the plurality of common electrode lines; wherein an orthographic projection of each of the signal line-cross-over regions on the substrate is configured to be completely covered by an orthographic projection of a respective one of the openings on the substrate; wherein a first zone formed by an orthographic projection of the signal line-cross-over regions on the substrate is configured to have a gap with a second zone formed by an orthographic projection of the conductive layer on the substrate excluding the first zone; and wherein each of the openings is surrounded by the conductive layer.
A system for real-time audio signal processing that receives one or more captured signals through a captured audio path including a microphone, and produces one or more playback signals through a playback audio path including a speaker, and executes one or more signal processing functions comprising: a processor configured to measure delays of the playback audio path and captured audio path during operation of the one or more signal processing functions; and a memory for storing the measured delays; where the processor is further configured to compensate the one or more signal processing functions for the playback delay and the capture delay, wherein the measurement of the delays of the playback audio path and captured audio path comprises measuring delay of a test signal played and then received over a feedback channel, where the feedback channel passes synchronously through components of the playback path and capture audio path, but is not passed through the speaker. a processor configured to measure delays of the playback audio path and captured audio path during operation of the one or more signal processing functions; and a memory for storing the measured delays;
A non-volatile storage device comprising: an interface module (106; 206); a controller (108; 208) that is operably coupled to the interface module; a key storage module (110; 210) that is operably coupled to the controller, the key storage module being configured to store a key; and a non-volatile storage module (104; 204) that is operably coupled to the controller and configured to store data, the non-volatile storage module having a first partition and a second partition, wherein: the first partition is designated as a read-only storage area for the data, the second partition is designated as a write-only storage area for new data received through the interface module, and the first partition is re-designated as the write-only storage area for other new data and the second partition is re-designated as the read-only storage area for the new data in response to the new data being written to the second partition with a signature and the controller verifying the signature using the key stored in the key storage module. an interface module (106; 206); a controller (108; 208) that is operably coupled to the interface module; a key storage module (110; 210) that is operably coupled to the controller, the key storage module being configured to store a key; and a non-volatile storage module (104; 204) that is operably coupled to the controller and configured to store data, the non-volatile storage module having a first partition and a second partition, wherein: the first partition is designated as a read-only storage area for the data, the second partition is designated as a write-only storage area for new data received through the interface module, and the first partition is re-designated as the write-only storage area for other new data and the second partition is re-designated as the read-only storage area for the new data in response to the new data being written to the second partition with a signature and the controller verifying the signature using the key stored in the key storage module. the first partition is designated as a read-only storage area for the data, the second partition is designated as a write-only storage area for new data received through the interface module, and the first partition is re-designated as the write-only storage area for other new data and the second partition is re-designated as the read-only storage area for the new data in response to the new data being written to the second partition with a signature and the controller verifying the signature using the key stored in the key storage module.
An asphalt modifier comprising a vinyl aromatic hydrocarbon-conjugated diene block copolymer of Formula 1: [Formula 1] (A-B-C) n -D in Formula 1, A represents a vinyl aromatic hydrocarbon block having a peak molecular weight (Mp) of 10,000 g/mol to 35,000 g/mol, B represents a first conjugated diene block having a peak molecular weight (Mp) of 16,000 g/mol to 30,000 g/mol and an amount of vinyl of 10 wt% to 20 wt%, C represents a second conjugated diene block having a peak molecular weight (Mp) of 10,000 g/mol to 24,000 g/mol and an amount of vinyl of greater than 20 wt% and equal to or less than 34 wt%, D represents a residual group of a coupling agent, and n is an integer between 2 and 4.
A method for visualizing security information of a digitally stored image comprising a plurality of pixels and at least one digitally encoded security information, comprising the steps of: Assigning at least some of the pixels to at least one image area; Determining an average colour value of the pixels assigned to the image area; Determining two mutually complementary colour values whose mean colour value is at least approximately identical to the determined mean colour value of the pixels assigned to the image area; Representing, visually perceptibly, the image area and at least part of the digitally encoded security information, wherein the displayed image area has a first of the complementary colour values, and the part of the digitally encoded security information is displayed within the image area and has a second of the colour values complementary to each other. Assigning at least some of the pixels to at least one image area; Determining an average colour value of the pixels assigned to the image area; Determining two mutually complementary colour values whose mean colour value is at least approximately identical to the determined mean colour value of the pixels assigned to the image area; Representing, visually perceptibly, the image area and at least part of the digitally encoded security information, wherein the displayed image area has a first of the complementary colour values, and the part of the digitally encoded security information is displayed within the image area and has a second of the colour values complementary to each other.
Modular system comprising at least an upright (1A, 1B) comprising a tubular transversal section or at least a lower or an upper terminal segment with transversal tubular section; said modular system optionally comprising a foot; a base element with a height-adjustable foot; a small metal plate, a system on two levels and an anchor; an anti-release plate for wheel and a wheel; said modular system further comprising a small base for uprights, said small base having an essentially parallelepiped shape with polygonal transversal section, optionally a square section, and comprising: - an upper portion oriented toward the upright; - a lower portion oriented toward the ground; said small base being provided with a groove on at least three sides of the small base itself, and with a U-shaped edge wall on just three sides of the small base itself, which groove has shape and dimensions substantially corresponding to the shape and dimension of the outer wall of the upright in correspondence of one of its terminal ends, the groove being provided with coupling means, said small base being used alternatively in combination with: - an assembly comprising an upright and a foot for adjusting the height of the upright itself; - an assembly comprising an upright a base element, and a height-adjustable foot; - an assembly comprising an upright, a small metal plate for the anchoring to the floor of said upright through a system on two levels and an anchor; - an assembly comprising an upright, an anti-release plate for wheel and a wheel. at least an upright (1A, 1B) comprising a tubular transversal section or at least a lower or an upper terminal segment with transversal tubular section; said modular system optionally comprising a foot; a base element with a height-adjustable foot; a small metal plate, a system on two levels and an anchor; an anti-release plate for wheel and a wheel; - an upper portion oriented toward the upright; - a lower portion oriented toward the ground; - an assembly comprising an upright and a foot for adjusting the height of the upright itself; - an assembly comprising an upright a base element, and a height-adjustable foot; - an assembly comprising an upright, a small metal plate for the anchoring to the floor of said upright through a system on two levels and an anchor; - an assembly comprising an upright, an anti-release plate for wheel and a wheel.
A method of operating a cellular repeater having a variable-gain donor antenna adapted to communicate with a base station, and a server antenna adapted to communicate with a mobile device, the method comprising: receiving a signal at the cellular repeater, the signal having a dynamically-changing input signal power level; setting a gain of the cellular repeater to a predetermined first level, controlling, by the cellular repeater, a gain applied to the input signal power level based on the input power level; detecting, at the cellular repeater, an increase in the input signal power level of the signal during receipt of a first data burst; dropping, at the cellular repeater and in response to the detecting, the gain of the cellular repeater from its current level to a level lower than the current level; holding the gain of the cellular repeater at the lower level until an increase in the input signal power level of the signal is detected during receipt of a further data burst; the steps of dropping of the gain level of the cellular repeater followed by holding of the gain level are repeated for a number of received data bursts; and in response to an expiration of a period of time during which no input signal is received at the cellular repeater, gradually increasing the gain of the cellular repeater to the predetermined first level. receiving a signal at the cellular repeater, the signal having a dynamically-changing input signal power level; setting a gain of the cellular repeater to a predetermined first level, controlling, by the cellular repeater, a gain applied to the input signal power level based on the input power level; detecting, at the cellular repeater, an increase in the input signal power level of the signal during receipt of a first data burst; dropping, at the cellular repeater and in response to the detecting, the gain of the cellular repeater from its current level to a level lower than the current level; holding the gain of the cellular repeater at the lower level until an increase in the input signal power level of the signal is detected during receipt of a further data burst; the steps of dropping of the gain level of the cellular repeater followed by holding of the gain level are repeated for a number of received data bursts; and in response to an expiration of a period of time during which no input signal is received at the cellular repeater, gradually increasing the gain of the cellular repeater to the predetermined first level.
A method of producing a turbomachine blade comprising a coupling root, and an airfoil-shaped oblong member cantilevered projecting from said coupling root; said airfoil-shaped oblong member comprising a main plate-like element connected directly to the coupling root, and a cover plate for closing a hollow weight-reducing seat formed in one of the two faces of said main plate-like element; said main plate-like element being in turn divided into a lower connecting fin cantilevered projecting from the coupling root, and a plate-like body butt welded to said lower connecting fin to form an extension of the lower connecting fin; the method being characterized by comprising the steps of: - making a flat metal plate which has a substantially constant thickness (s) greater than the maximum thickness of the plate-like body of the blade, and which has a contour over-approximating the flat, spread-out contour of said plate-like body; and - twisting and curving said flat plate by means of a sheet metal forming process, thus to obtain a blank plate in which the three-dimensional shape of the centerline surface of the blank plate substantially matches with the three-dimensional shape of the centerline surface of the plate-like body of said main plate-like element. - making a flat metal plate which has a substantially constant thickness (s) greater than the maximum thickness of the plate-like body of the blade, and which has a contour over-approximating the flat, spread-out contour of said plate-like body; and - twisting and curving said flat plate by means of a sheet metal forming process, thus to obtain a blank plate in which the three-dimensional shape of the centerline surface of the blank plate substantially matches with the three-dimensional shape of the centerline surface of the plate-like body of said main plate-like element.
A control system for controlling a machine for the temperature processing of containers for food products, the machine including a movement element for moving the containers to be processed on a movement path along which at least one temperature-processing zone is defined, where the temperature of the containers is to be brought to a desired value, the temperature-processing zone being divided into a number of sub-zones (6a-6c) each having a respective injection assembly for injecting processing fluid on the containers and a respective adjusting assembly (17, 18, 19) for setting the temperature of the injected processing fluid; the control system including a control unit operatively coupled to the adjusting assemblies (17, 18, 19) of the sub-zones (6a-6c) in order to regulate the temperature of the processing fluid, wherein said control unit is configured to: perform a prediction of the output temperature of the containers located on said movement path, i.e. a temperature the containers would reach at output from said temperature-processing zone, based on a current operating condition of the machine and a past thermal trend for said containers; and control said adjusting assemblies (17, 18, 19) based on the predicted output temperature; characterized by further comprising a presence sensor located at the input of said movement path and configured to detect the presence of containers at input to said machine; wherein the control unit is operatively coupled to the presence sensor and is configured to: locate the position of containers along said movement path based on presence information provided by said presence sensor; and perform the temperature prediction based on the located position of the containers along said movement path.