mhurhangee/ep-ind-claims huggingface dataset:
A copper titanium alloy for electronic components comprising 2.0 to 4.0 mass % of Ti, and 0 to 0.5 mass %, in total, of one or more third elements selected from the group consisting of Fe, Co, Mg, Si, Ni, Cr, Zr, Mo, V, Nb, Mn, B and P, with the balance being copper and unavoidable impurities, wherein a coefficient of variation in a Ti concentration fluctuation curve is 0.2 to 0.8, the Ti concentration fluctuation curve being obtained when Ti in a matrix phase for <100>-oriented crystal grains in a cross section parallel to a rolling direction is subjected to line analysis by EDX, the coefficient of variation of Ti concentration being a value calculated by the coefficient of variation = standard deviation/the average value by calculating the standard deviation and average value of Ti concentration, and in structure observation of a cross section parallel to the rolling direction, a number of second-phase particles having a size of 3 μm or more per an observation field of view of 10000 μm 2 is 35 or less.
A transmissive electrode, comprising: a light transmission layer including a metal and a metal oxide that is included in a smaller amount than the metal; and a light transmission auxiliary layer on one side of the light transmission layer, the light transmission auxiliary layer including an organic material, and the organic material being an amine derivative; wherein the light transmission auxiliary layer is disposed at a side where light enters; wherein a weight ratio of the metal and the metal oxide in the light transmission layer is 99.9:0.1 to 60:40; wherein the metal includes at least one of silver (Ag), aluminum (Al), copper (Cu), gold (Au), and an alloy thereof, and the metal oxide includes one of molybdenum oxide, tungsten oxide, vanadium oxide, rhenium oxide, niobium oxide, tantalum oxide, titanium oxide, zinc oxide, nickel oxide, copper oxide, cobalt oxide, manganese oxide, chromium oxide, indium oxide, and a combination thereof. a light transmission layer including a metal and a metal oxide that is included in a smaller amount than the metal; and a light transmission auxiliary layer on one side of the light transmission layer, the light transmission auxiliary layer including an organic material, and the organic material being an amine derivative; wherein the light transmission auxiliary layer is disposed at a side where light enters; wherein a weight ratio of the metal and the metal oxide in the light transmission layer is 99.9:0.1 to 60:40; wherein the metal includes at least one of silver (Ag), aluminum (Al), copper (Cu), gold (Au), and an alloy thereof, and the metal oxide includes one of molybdenum oxide, tungsten oxide, vanadium oxide, rhenium oxide, niobium oxide, tantalum oxide, titanium oxide, zinc oxide, nickel oxide, copper oxide, cobalt oxide, manganese oxide, chromium oxide, indium oxide, and a combination thereof. wherein the light transmission auxiliary layer is disposed at a side where light enters; wherein a weight ratio of the metal and the metal oxide in the light transmission layer is 99.9:0.1 to 60:40; wherein the metal includes at least one of silver (Ag), aluminum (Al), copper (Cu), gold (Au), and an alloy thereof, and the metal oxide includes one of molybdenum oxide, tungsten oxide, vanadium oxide, rhenium oxide, niobium oxide, tantalum oxide, titanium oxide, zinc oxide, nickel oxide, copper oxide, cobalt oxide, manganese oxide, chromium oxide, indium oxide, and a combination thereof.
A time synchronization method, comprising: receiving a unicast message at a second system frame, the unicast message comprising a frame number and time information, the frame number indicates a first system frame, the time information indicates a time period; calculating a fifth time based on the time period and a preset time, wherein the first system frame indicates a time location corresponding to the fifth time, and the first system frame is a system frame closest to the second system frame; and synchronizing a time based on the fifth time. receiving a unicast message at a second system frame, the unicast message comprising a frame number and time information, the frame number indicates a first system frame, the time information indicates a time period; calculating a fifth time based on the time period and a preset time, wherein the first system frame indicates a time location corresponding to the fifth time, and the first system frame is a system frame closest to the second system frame; and synchronizing a time based on the fifth time.
A mist extinguishing system, comprising a line system for connecting an extinguishing fluid supply and one or more extinguishing nozzles in a fluid-conducting manner, characterized by at least one flow generator (7a, 7b) for swirling up solids in the extinguishing fluid and/or for generating an extinguishing fluid flow within a measurement zone of the line system which is adapted to be operated whilst the mist extinguishing system is in a state of readiness, wherein a measuring device for sensing the solids which are swirled up and/or conveyed through the measurement zone with the extinguishing fluid flow is arranged within the measurement zone, and characterized by an evaluation unit connected to the measuring device in a signal-conducting manner and configured to determine the solid component and/or the extinguishing fluid flow rate inside the measurement zone.
A cosmetic comprising: spherical organopolysiloxane particles which are at least 90 mol% composed of organosilsesquioxane units and have a volume mean particle size of from 0.1 to 30 μm and an average refractive index of from 1.44 to 1.57, an oil, and one, two or more substance selected from crosslinked silicones and silicone-resin-coated silicone rubber powders. spherical organopolysiloxane particles which are at least 90 mol% composed of organosilsesquioxane units and have a volume mean particle size of from 0.1 to 30 μm and an average refractive index of from 1.44 to 1.57, an oil, and
A liquid behavior suppression device configured to partition an inside of a liquid propellant container of a spacecraft in a direction orthogonal to a central axis and configured to hold a liquid propellant on a bottom side of the liquid propellant container, comprising: an annular portion that is arranged in an outer peripheral edge portion of the liquid behavior suppression device to extend along the outer peripheral edge portion; a central plate arranged in a central portion in a radial direction; a plurality of coupling portions couple the annular portion to the central plate in the radial direction; and a plurality of partition walls (35, 36) extending in a circumferential direction, wherein a plurality of holes that are defined by the plurality of coupling portions and the plurality of partition walls (35, 36) are formed to penetrate the liquid behavior suppression device in an axial direction, wherein the plurality of holes are arranged to form a radial pattern around the central axis, wherein sizes of the plurality of holes in the radial direction differ from each other, wherein sizes of the plurality of holes in the circumferential direction differ from each other, and wherein, among the plurality of holes, opening areas of the holes which are positioned on one side with respect to the central portion and along a turning direction, which is one direction in the radial direction, are smaller than opening areas of the holes which are positioned on the other side with respect to the central portion and along the turning direction. an annular portion that is arranged in an outer peripheral edge portion of the liquid behavior suppression device to extend along the outer peripheral edge portion; a central plate arranged in a central portion in a radial direction; a plurality of coupling portions couple the annular portion to the central plate in the radial direction; and a plurality of partition walls (35, 36) extending in a circumferential direction, wherein a plurality of holes that are defined by the plurality of coupling portions and the plurality of partition walls (35, 36) are formed to penetrate the liquid behavior suppression device in an axial direction, wherein the plurality of holes are arranged to form a radial pattern around the central axis, wherein sizes of the plurality of holes in the radial direction differ from each other, wherein sizes of the plurality of holes in the circumferential direction differ from each other, and wherein, among the plurality of holes, opening areas of the holes which are positioned on one side with respect to the central portion and along a turning direction, which is one direction in the radial direction, are smaller than opening areas of the holes which are positioned on the other side with respect to the central portion and along the turning direction.
A method for checking the usage state of a document of value, having the steps of: - illuminating the document of value with illumination light, - taking an image of the document of value by detecting light intensities of the light reflected from the illuminated document of value, - choosing an image detail of the taken image in which an opaque, reflective section of the document of value is imaged, which is a partial area of an opaque, reflective security element of the document of value and a partial area of an opaque, reflective foil element, - examining the chosen image detail for signs of creases which may possibly be present in the opaque, reflective section of the document of value, - using a result of the examining for judging the usage state of the document of value. - illuminating the document of value with illumination light, - taking an image of the document of value by detecting light intensities of the light reflected from the illuminated document of value, - choosing an image detail of the taken image in which an opaque, reflective section of the document of value is imaged, which is a partial area of an opaque, reflective security element of the document of value and a partial area of an opaque, reflective foil element, - examining the chosen image detail for signs of creases which may possibly be present in the opaque, reflective section of the document of value, - using a result of the examining for judging the usage state of the document of value.
Coupling device (100; 200; 400; 500; 600; 700; 900) comprising a substrate (110; 210; 511; 610; 810) in or on which the following are integrated: - a waveguide (121; 421) capable of guiding a light beam centred on a central wavelength λ 0; and - an optical injection and/or extraction coupler (13A; 63A; 73A; 93A); the coupling device comprising a guide stage (120; 220; 520; 620; 720) comprising the waveguide and a coupling stage (130; 230; 630) comprising the optical coupler, superposed one on the other, the optical coupler being composed of at least one index gradient structure (139; 239; 439; 739; 1039), and the average optical index in the index gradient structure varying monotonously, decreasing in planes parallel to the plane of the substrate, as the distance from the waveguide (121; 421) increases, the average optical index being defined as being an average value of the optical index in a cubic volume ( V ( x, y, z)) with a side dimension equal to: λ 0 2 ∗ n eff in which n eff is the effective index of guided mode in the waveguide (121; 421); said average value being a root mean square of the optical indexes of materials forming said cubic volume, weighted by the volume proportion of each of these materials in the cubic volume. - a waveguide (121; 421) capable of guiding a light beam centred on a central wavelength λ 0; and - an optical injection and/or extraction coupler (13A; 63A; 73A; 93A); the coupling device comprising a guide stage (120; 220; 520; 620; 720) comprising the waveguide and a coupling stage (130; 230; 630) comprising the optical coupler, superposed one on the other, the optical coupler being composed of at least one index gradient structure (139; 239; 439; 739; 1039), and the average optical index in the index gradient structure varying monotonously, decreasing in planes parallel to the plane of the substrate, as the distance from the waveguide (121; 421) increases, the average optical index being defined as being an average value of the optical index in a cubic volume ( V ( x, y, z)) with a side dimension equal to: λ 0 2 ∗ n eff in which n eff is the effective index of guided mode in the waveguide (121; 421); said average value being a root mean square of the optical indexes of materials forming said cubic volume, weighted by the volume proportion of each of these materials in the cubic volume.
Method for the manufacture of a toothbrush with a head part having a cleaning structure that comprises bristles, with a handle part and with a neck part, wherein a cavity with at least one outlet opening for an active substance is located in the head part, characterized in that a half of the head part on the rear face of the brush head has a saucer-shaped depression which, in the state when joined to a support plate, forms the cavity, wherein the support plate is provided with conventional bristles, in particular by the anchor-free tufting method, and is then non-releasably connected to the rest of the toothbrush, wherein an active substance element is enclosed in the cavity, wherein the active substance element is configured as a solid body or a highly viscous, dimensionally stable paste.
A conference device comprising: a conference controller; a microphone array comprising a plurality of microphones for provision of audio signals representing audio from one or more sound sources; a direction estimator connected to the conference controller and the microphone array, the direction estimator configured to: obtain, from the microphone array, a plurality of audio signals including a first audio signal and a second audio signal; determine direction data (D_DATA) based on the plurality of audio signals, the direction data comprising an indication of an estimated probability of voice activity for a plurality of directions, wherein to determine direction data comprises to apply an offline-trained neural network; and output audio data (A_DATA) based on the direction data to the conference controller, characterized in that to determine direction data comprises to estimate a noise probability indicative of a probability of presence of noise in the audio signals. a conference controller; a microphone array comprising a plurality of microphones for provision of audio signals representing audio from one or more sound sources; a direction estimator connected to the conference controller and the microphone array, the direction estimator configured to: obtain, from the microphone array, a plurality of audio signals including a first audio signal and a second audio signal; determine direction data (D_DATA) based on the plurality of audio signals, the direction data comprising an indication of an estimated probability of voice activity for a plurality of directions, wherein to determine direction data comprises to apply an offline-trained neural network; and output audio data (A_DATA) based on the direction data to the conference controller, characterized in that to determine direction data comprises to estimate a noise probability indicative of a probability of presence of noise in the audio signals. obtain, from the microphone array, a plurality of audio signals including a first audio signal and a second audio signal; determine direction data (D_DATA) based on the plurality of audio signals, the direction data comprising an indication of an estimated probability of voice activity for a plurality of directions, wherein to determine direction data comprises to apply an offline-trained neural network; and output audio data (A_DATA) based on the direction data to the conference controller,
Silicone-free leave-in emulsion for the treatment of hair, comprising a) Caesalpinia spinosa gum in a proportion of 0.01 - 3 % by weight of the total weight of the leave-in emulsion, b) at least one C 16 -C 24 fatty alcohol in a proportion of 1 - 15 % by weight of the total weight of the leave-in emulsion, c) at least one cationic or cationizable surfactant in a proportion of 0.5 - 5% by weight of the total weight of the leave-in emulsion and d) Water in a proportion of 75-85% by weight. a) Caesalpinia spinosa gum in a proportion of 0.01 - 3 % by weight of the total weight of the leave-in emulsion, b) at least one C 16 -C 24 fatty alcohol in a proportion of 1 - 15 % by weight of the total weight of the leave-in emulsion, c) at least one cationic or cationizable surfactant in a proportion of 0.5 - 5% by weight of the total weight of the leave-in emulsion and d) Water in a proportion of 75-85% by weight.
A planar antenna for an active RFID reader embedded in a portable electronic device comprising: • a substrate having opposed first and second flat faces; • the first flat face comprising, printed thereon, a first ground, a second ground, a feed track intended to receive a feed terminal and an antenna pattern, and the opposed second flat face comprising, printed thereon, a third ground; • the second ground being separated from the first ground by the feed track; • the third ground being connected to first and second grounds for ensuring the continuity of the ground plane; wherein the antenna pattern forming a coil line on said substrate is disposed into the remaining surface of the first flat face and comprises an external loop and an internal loop in such a way that the antenna pattern is substantially auto-complementary, said external loop having a length and a width that is greater than a length and a width of said internal loop, and said coil line of WC width and a line of substrate of WS width disposed therebetween having a width ratio (WC/WS) comprised between 0,5 and 2. • a substrate having opposed first and second flat faces; • the first flat face comprising, printed thereon, a first ground, a second ground, a feed track intended to receive a feed terminal and an antenna pattern, and the opposed second flat face comprising, printed thereon, a third ground; • the second ground being separated from the first ground by the feed track; • the third ground being connected to first and second grounds for ensuring the continuity of the ground plane;
An ash container, comprising an ash box having a first closable opening (1.1) for feeding ash into the ash box and having a second closable opening (1.2) for removing ash from the ash box, characterized in that a locking device which prevents an opening of the first opening (1.1) when the second opening (1.2) is open is provided on the ash box.
A propylene polymer composition made with a non-metallocene catalyst and by visbreaking to a MFR ratio of at least 4.5, the propylene polymer composition comprising at least 90 wt% propylene, said polymer composition having: a) a melt flow rate (MFR, ASTM 1238, 230°C, 2.16 kg) of 10 dg/min to 25 dg/min; b) a Dimensionless Stress Ratio/Loss Tangent Index R 2 at 190°C from 1.5 to 28.0; and c) an average meso run length determined by 13 C NMR of at least 70, or having a percentage molar meso pentads (mmmm) content of greater than 0.935; or a number of stereo defects from 44 to 145 and a number of regio defects from 0 to 80. a) a melt flow rate (MFR, ASTM 1238, 230°C, 2.16 kg) of 10 dg/min to 25 dg/min; b) a Dimensionless Stress Ratio/Loss Tangent Index R 2 at 190°C from 1.5 to 28.0; and c) an average meso run length determined by 13 C NMR of at least 70, or having a percentage molar meso pentads (mmmm) content of greater than 0.935; or a number of stereo defects from 44 to 145 and a number of regio defects from 0 to 80.
A communications device comprising: a plurality of In-phase, I, power amplifiers (52a-52b) coupled in parallel and configured to respectively generate a plurality of I amplified signals; a plurality of Quadrature, Q, power amplifiers (51a-52b) coupled in parallel and configured to respectively generate a plurality of Q amplified signals; a plurality of I antennas respectively coupled to said plurality of I power amplifiers; a plurality of Q antennas (53a-53b) respectively coupled to said plurality of Q power amplifiers; an I controller coupled to said plurality of I power amplifiers and configured to selectively enable at least one of said plurality of I power amplifiers based upon at least a distance from a network tower; and a Q controller coupled to said plurality of Q power amplifiers and configured to selectively enable at least one of said plurality of Q power amplifiers based upon at least the distance from the network tower. a plurality of In-phase, I, power amplifiers (52a-52b) coupled in parallel and configured to respectively generate a plurality of I amplified signals; a plurality of Quadrature, Q, power amplifiers (51a-52b) coupled in parallel and configured to respectively generate a plurality of Q amplified signals; a plurality of I antennas respectively coupled to said plurality of I power amplifiers; a plurality of Q antennas (53a-53b) respectively coupled to said plurality of Q power amplifiers; an I controller coupled to said plurality of I power amplifiers and configured to selectively enable at least one of said plurality of I power amplifiers based upon at least a distance from a network tower; and a Q controller coupled to said plurality of Q power amplifiers and configured to selectively enable at least one of said plurality of Q power amplifiers based upon at least the distance from the network tower.
Method for managing a signal transmission emitted by a wireless transponder to a reader, said transmission using an active load modulation and being based on transmitted bursts (TXBST) separated by pause periods, each transmitted burst (TXBST) including transmitted pulses, said method comprising - performing an active damping operation at the end of said transmitted bursts in the beginning of the pause periods, said active damping operation comprising transmitting a number of additional pulses (DP1, DP2, DP3) having a phase opposite to the phase of said transmitted pulses, and - controlling the transmitted pulses power, the additional pulses power (Dampi), the number of additional pulses based on a distance between the reader and the wireless transponder and on reference values of the transmitted pulses power, the additional pulses power, and the number respectively associated with reference distances (DREF1-DREFP). - performing an active damping operation at the end of said transmitted bursts in the beginning of the pause periods, said active damping operation comprising transmitting a number of additional pulses (DP1, DP2, DP3) having a phase opposite to the phase of said transmitted pulses, and - controlling the transmitted pulses power, the additional pulses power (Dampi), the number of additional pulses based on a distance between the reader and the wireless transponder and on reference values of the transmitted pulses power, the additional pulses power, and the number respectively associated with reference distances (DREF1-DREFP).