mhurhangee/ep-ind-claims huggingface dataset:
A metal foil for electromagnetic shielding, consisting of: (i) a metal foil base having a thickness of exceeding 4 μm, (ii) an alloy layer comprising an A element composed of Sn and a B element group selected from the group consisting of one or more of Ag, Ni, Fe and Co formed on one or both surfaces of the base, wherein optionally an oxide is formed on the surface of the alloy layer, (iii) an underlayer comprising the B element group formed between the alloy layer and the base, and optionally a Zn layer formed between the base and the underlayer if the base is aluminum or aluminum alloy, wherein a total adhesion amount of the A element per one surface is 10 to 300 μmol/dm 2, and a total adhesion amount of the B element group per one surface is 40 to 900 μmol/dm 2. (i) a metal foil base having a thickness of exceeding 4 μm, (ii) an alloy layer comprising an A element composed of Sn and a B element group selected from the group consisting of one or more of Ag, Ni, Fe and Co formed on one or both surfaces of the base, wherein optionally an oxide is formed on the surface of the alloy layer, (iii) an underlayer comprising the B element group formed between the alloy layer and the base, and optionally a Zn layer formed between the base and the underlayer if the base is aluminum or aluminum alloy,
A communication method comprising before a power adapter charges a terminal: sending, by the power adapter, a first handshake request message to the terminal; receiving, by the power adapter, a first handshake response message from the terminal, in which the first handshake response message comprises first information indicating that the terminal supports a quick charging mode, determining, by the power adapter, a charging mode in the initial charging parameter as the quick charging mode, according to the first information, sending, by the power adapter, a second handshake request message to the terminal; receiving, by the power adapter, a second handshake response message from the terminal, in which the second handshake response message comprises second information indicating a type or a model of the terminal; determining, by the power adapter, a charging voltage and/or a charging current in the initial charging parameter according to the second information, and charging, by the power adapter, the terminal according to the initial charging parameter in accordance with the determined charging mode and the determined charging voltage and/or a charging current. sending, by the power adapter, a first handshake request message to the terminal; receiving, by the power adapter, a first handshake response message from the terminal, in which the first handshake response message comprises first information indicating that the terminal supports a quick charging mode, determining, by the power adapter, a charging mode in the initial charging parameter as the quick charging mode, according to the first information, sending, by the power adapter, a second handshake request message to the terminal; receiving, by the power adapter, a second handshake response message from the terminal, in which the second handshake response message comprises second information indicating a type or a model of the terminal; determining, by the power adapter, a charging voltage and/or a charging current in the initial charging parameter according to the second information, and charging, by the power adapter, the terminal according to the initial charging parameter in accordance with the determined charging mode and the determined charging voltage and/or a charging current.
Dental implant for insertion into a jawbone and for fastening a tooth replacement, with a shape of one piece corresponding to two partially overlapping cylinder-like bodies (29, 30) that have significantly different diameters, wherein the axis of symmetry of the second body having the smaller diameter is tilted at an acute angle relative to the axis of symmetry of the first body having the larger diameter, wherein the acute angle lies in the direction of the foot end.
A method for removing phosphatide from crude oil obtained from a plant or animal source, the method comprising: providing crude oil containing nonhydratable phosphatide, treating the crude oil with immobilized phospholipase, free of emulsification, to effect conversion of the nonhydratable phosphatide to hydratable phosphatide, mixing the treated crude oil with pure water or an aqueous solution, free of emulsification, to form a mixture having an oil phase and an aqueous phase, allowing separation of the oil phase and the aqueous phase, and collecting the oil phase. providing crude oil containing nonhydratable phosphatide, treating the crude oil with immobilized phospholipase, free of emulsification, to effect conversion of the nonhydratable phosphatide to hydratable phosphatide, mixing the treated crude oil with pure water or an aqueous solution, free of emulsification, to form a mixture having an oil phase and an aqueous phase, allowing separation of the oil phase and the aqueous phase, and collecting the oil phase.
A method of pulse welding, said method comprising: advancing a welding electrode towards a workpiece to perform a pulse welding process; generating a pulse welding waveform for said pulse welding process which includes a series of successive waveforms having a pulse defined by a peak current which begins when said electrode is separated from said workpiece and a background current; detecting when a short circuit occurs between said electrode and said workpiece; clearing said short circuit; and creating a plasma boost pulse after said short circuit has been cleared, characterized in that a ratio of said peak current to said background current is in the range of 6 to 8. advancing a welding electrode towards a workpiece to perform a pulse welding process; generating a pulse welding waveform for said pulse welding process which includes a series of successive waveforms having a pulse defined by a peak current which begins when said electrode is separated from said workpiece and a background current; detecting when a short circuit occurs between said electrode and said workpiece; clearing said short circuit; and creating a plasma boost pulse after said short circuit has been cleared, characterized in that a ratio of said peak current to said background current is in the range of 6 to 8.
A method for identifying potential malware comprising: identifying an anchor event in a first telemetry data stream having a plurality of events, wherein the anchor event is an event previously identified as a potentially suspicious event; and identifying at least one satellite event in a second telemetry data stream that corresponds to one of the plurality of events in the first telemetry data stream wherein the at least one satellite event is different from the anchor event, and is reported and/or found in an anchor timeframe on a machine where an anchor was identified; treating at least one satellite event as a second anchor event; and identifying in the first telemetry data stream and the second telemetry data stream a second satellite event occurring within an anchor timeframe from the satellite event, the method further comprising identifying the at least one satellite event in at least a third telemetry data stream; classifying the at least one satellite event as a malicious event; wherein the preceding steps are executed by at least one processor. identifying an anchor event in a first telemetry data stream having a plurality of events, wherein the anchor event is an event previously identified as a potentially suspicious event; and identifying at least one satellite event in a second telemetry data stream that corresponds to one of the plurality of events in the first telemetry data stream wherein the at least one satellite event is different from the anchor event, and is reported and/or found in an anchor timeframe on a machine where an anchor was identified; treating at least one satellite event as a second anchor event; and identifying in the first telemetry data stream and the second telemetry data stream a second satellite event occurring within an anchor timeframe from the satellite event, the method further comprising identifying the at least one satellite event in at least a third telemetry data stream; classifying the at least one satellite event as a malicious event; wherein the preceding steps are executed by at least one processor.
A Doppler-type log speed meter configured to measure a log speed of a ship, the log speed meter comprising: a measurement module arranged to acquire data of a time difference between a transmission wave and a received reflective wave, and the frequency of the reflective wave, and to output the acquired data to a ship speed calculation module as measurement data; and a ship speed calculation module which calculates a flow velocity at a given water depth in fluid where the ship is floating based on the measurement data; wherein the ship speed calculation module is arranged to correct the flow velocity to calculate the log speed, characterized by: a data store which holds information on different correction coefficients according to navigational conditions of the ship; and a correction coefficient acquisition module which acquires the correction coefficient (α) corresponding to a navigational condition of the ship at a time of measuring the flow velocity, the navigational condition comprising at least one of a draft state of the ship and the measured flow velocity, wherein the ship speed calculation module is arranged to correct the flow velocity based on the acquired correction coefficient (α) to calculate the log speed. a measurement module arranged to acquire data of a time difference between a transmission wave and a received reflective wave, and the frequency of the reflective wave, and to output the acquired data to a ship speed calculation module as measurement data; and a ship speed calculation module which calculates a flow velocity at a given water depth in fluid where the ship is floating based on the measurement data; wherein the ship speed calculation module is arranged to correct the flow velocity to calculate the log speed, characterized by: a data store which holds information on different correction coefficients according to navigational conditions of the ship; and a correction coefficient acquisition module which acquires the correction coefficient (α) corresponding to a navigational condition of the ship at a time of measuring the flow velocity, the navigational condition comprising at least one of a draft state of the ship and the measured flow velocity, wherein the ship speed calculation module is arranged to correct the flow velocity based on the acquired correction coefficient (α) to calculate the log speed. a data store which holds information on different correction coefficients according to navigational conditions of the ship; and a correction coefficient acquisition module which acquires the correction coefficient (α) corresponding to a navigational condition of the ship at a time of measuring the flow velocity, the navigational condition comprising at least one of a draft state of the ship and the measured flow velocity, wherein the ship speed calculation module is arranged to correct the flow velocity based on the acquired correction coefficient (α) to calculate the log speed.
An aqueous formaldehyde-free binder composition comprising: (i) an aldehyde or ketone being a reducing sugar; (ii) an organic anhydride, the organic anhydride is chosen from maleic anhydride, phthalic anhydride, tetrahydrophthalic anhydride, perhydrophthalic anhydride, itaconic anhydride, and succinic anhydride; (iii) an alkanol amine, the alkanol amine having the structure: wherein R 1, R 2, and R 3 are independently chosen from, a hydrogen, a C 1-10 alkyl group, an aromatic group, and a C 1-10 hydroxy alkyl group, and wherein at least one of R 1, R 2, and R 3 is a hydroxyl alkyl group; and (iv) a nitrogen-containing salt of an inorganic acid, said binder composition having a pH in the range from 2 to 4.5. (i) an aldehyde or ketone being a reducing sugar; (ii) an organic anhydride, the organic anhydride is chosen from maleic anhydride, phthalic anhydride, tetrahydrophthalic anhydride, perhydrophthalic anhydride, itaconic anhydride, and succinic anhydride; (iii) an alkanol amine, the alkanol amine having the structure: wherein R 1, R 2, and R 3 are independently chosen from, a hydrogen, a C 1-10 alkyl group, an aromatic group, and a C 1-10 hydroxy alkyl group, and wherein at least one of R 1, R 2, and R 3 is a hydroxyl alkyl group; and (iv) a nitrogen-containing salt of an inorganic acid,
Radiological imaging device comprising - a gantry suitable to perform said radiological imaging and comprising a source suitable to emit radiation and a detector suitable to receive said radiation; - a control station suitable to control the functioning of said source and said detector; - said gantry defining a preferred axis of expansion, a circular trajectory of expansion having its center on said preferred axis of expansion; an analysis zone suitable to contain the portion to be analyzed and two base surfaces having a circular crown cross-sectional profile and substantially perpendicular to said preferred axis of expansion; - said control station comprising an interface suitable to permit the operator to interact with said radiological imaging device; an electronic circuit board to control the functioning of said radiological imaging device; a power supply group for said radiological imaging device; and a housing suitable to at least partially house said elements and defining a main axis of extension; characterized in that it comprises - an articulated arm suitable to move said gantry in relation to said control station defining, for said radiological imaging device, an operating configuration wherein said gantry is distanced from said control station and a rest configuration wherein said gantry is alongside said control station, the base surface is substantially adjacent to said housing and said preferred axis of expansion substantially coincides with said main axis of extension limiting the overall dimensions of said radiological imaging device. - a gantry suitable to perform said radiological imaging and comprising a source suitable to emit radiation and a detector suitable to receive said radiation; - a control station suitable to control the functioning of said source and said detector; - said gantry defining a preferred axis of expansion, a circular trajectory of expansion having its center on said preferred axis of expansion; an analysis zone suitable to contain the portion to be analyzed and two base surfaces having a circular crown cross-sectional profile and substantially perpendicular to said preferred axis of expansion; - said control station comprising an interface suitable to permit the operator to interact with said radiological imaging device; an electronic circuit board to control the functioning of said radiological imaging device; a power supply group for said radiological imaging device; and a housing suitable to at least partially house said elements and defining a main axis of extension; characterized in that it comprises - an articulated arm suitable to move said gantry in relation to said control station defining, for said radiological imaging device, an operating configuration wherein said gantry is distanced from said control station and a rest configuration wherein said gantry is alongside said control station, the base surface is substantially adjacent to said housing and said preferred axis of expansion substantially coincides with said main axis of extension limiting the overall dimensions of said radiological imaging device.
A heater, comprising: a resistor having a folded shape; a pair of leads joined to each end of the resistor; and an insulating base in which the resistor is buried at a front side thereof and the pair of leads are buried in a rear side thereof, at junctions (51, 52) between the resistor and the leads, the resistor and the leads are overlapped in a direction perpendicular to an axial direction of the leads, the junctions (51, 52) have a portion overlapped in the direction perpendicular to the axial direction of the leads, and a rear end of the junction between one end of the resistor and one of the leads is located rearward relative to a rear end of the junction between the other end of the resistor and the other lead. a resistor having a folded shape; a pair of leads joined to each end of the resistor; and an insulating base in which the resistor is buried at a front side thereof and the pair of leads are buried in a rear side thereof, at junctions (51, 52) between the resistor and the leads, the resistor and the leads are overlapped in a direction perpendicular to an axial direction of the leads, the junctions (51, 52) have a portion overlapped in the direction perpendicular to the axial direction of the leads, and a rear end of the junction between one end of the resistor and one of the leads is located rearward relative to a rear end of the junction between the other end of the resistor and the other lead.
Lining structure for an opening of a trim wall comprising a frame delimiting an orifice of polygonal form, the frame having: - a planar face of which an inner edge surrounds the orifice, - L-shaped holding tongues each having: ∘ a first part (10a, 11a, 12a, 13a) extending along a side of the orifice from the inner edge of said planar face, substantially at right angles thereto, and ∘ a second part (10b, 11b, 12b, 13b) linked to the first part (10a, 11a, 12a, 13a) substantially at right angles thereto, extending facing at least a part of the planar face, characterized in that at least one holding tongue comprises two V-shaped retaining tabs (14, 15) arranged on either side of its second part in a direction substantially parallel to the side of the orifice along which the holding tongue extends, the concavity of each V-shaped retaining tab (14, 15) being directed towards a plane containing the planar face, each V-shaped retaining tab (14, 15) having a first arm (14a, 15a) and a second arm (14b, 15b) that are linked by an end, an end of the first arm not linked to the second arm being secured to the second part. - a planar face of which an inner edge surrounds the orifice, - L-shaped holding tongues each having: ∘ a first part (10a, 11a, 12a, 13a) extending along a side of the orifice from the inner edge of said planar face, substantially at right angles thereto, and ∘ a second part (10b, 11b, 12b, 13b) linked to the first part (10a, 11a, 12a, 13a) substantially at right angles thereto, extending facing at least a part of the planar face, ∘ a first part (10a, 11a, 12a, 13a) extending along a side of the orifice from the inner edge of said planar face, substantially at right angles thereto, and ∘ a second part (10b, 11b, 12b, 13b) linked to the first part (10a, 11a, 12a, 13a) substantially at right angles thereto, extending facing at least a part of the planar face,
A measuring system comprising: a stereo camera including a pair of imaging devices (601R, 601L); a subject having at least two feature points (FP1, FP2) and a measuring device comprising: an acquisition unit configured to obtain at least one pair of stereo captured images captured by the stereo camera; a detection unit configured to detect two or more feature points from each one of the at least one pair of stereo captured images; and a measuring unit configured to measure a disparity error using a distance between a pair of feature points of the two or more feature points detected by the detection unit on each one of the at least one pair of stereo captured images, wherein an equation S img > Δ S E da d is satisfied, where S img denotes the distance between a pair of feature points on the image, ΔS denotes a detection error between the pair of imaging devices (601R, 601L), E da denotes precision of measurement of a disparity error in disparity between a pair of images of the at least one pair of stereo captured images, and d denotes the disparity. a stereo camera including a pair of imaging devices (601R, 601L); a subject having at least two feature points (FP1, FP2) and a measuring device comprising: an acquisition unit configured to obtain at least one pair of stereo captured images captured by the stereo camera; a detection unit configured to detect two or more feature points from each one of the at least one pair of stereo captured images; and a measuring unit configured to measure a disparity error using a distance between a pair of feature points of the two or more feature points detected by the detection unit on each one of the at least one pair of stereo captured images, wherein an equation S img > Δ S E da d is satisfied, where S img denotes the distance between a pair of feature points on the image, ΔS denotes a detection error between the pair of imaging devices (601R, 601L), E da denotes precision of measurement of a disparity error in disparity between a pair of images of the at least one pair of stereo captured images, and d denotes the disparity. an acquisition unit configured to obtain at least one pair of stereo captured images captured by the stereo camera; a detection unit configured to detect two or more feature points from each one of the at least one pair of stereo captured images; and a measuring unit configured to measure a disparity error using a distance between a pair of feature points of the two or more feature points detected by the detection unit on each one of the at least one pair of stereo captured images, wherein an equation S img > Δ S E da d is satisfied, where S img denotes the distance between a pair of feature points on the image, ΔS denotes a detection error between the pair of imaging devices (601R, 601L), E da denotes precision of measurement of a disparity error in disparity between a pair of images of the at least one pair of stereo captured images, and d denotes the disparity.
LED module comprising: - a reflective surface, - at least one LED chip, which is disposed on the reflective surface, and - at least one globe top, which is applied to the reflective surface and covers the at least one LED chip, wherein the outer contour of the reflective surface is equal to or greater than the outer contour of the globe top, wherein at least one bonding surface for contacting the at least one LED chip with at least one bonding wire is disposed below the at least one globe top and within the circular outer contour of the reflective surface, characterized in that the at least one bonding surface, which is disposed on the same side of the LED module as the reflective surface, is contacted by at least one electrically conductive finger from outside the at least one globe top and outside the reflective surface. - a reflective surface, - at least one LED chip, which is disposed on the reflective surface, and - at least one globe top, which is applied to the reflective surface and covers the at least one LED chip, wherein the outer contour of the reflective surface is equal to or greater than the outer contour of the globe top,