mhurhangee/ep-ind-claims huggingface dataset:
A mobile terminal including a display unit formed to allow for a touch input, the mobile terminal comprising: a sensing unit configured to sense an object touched on the display unit and monitor a first movement of the object; and a controller configured to: move a page displayed on the display unit in a first direction corresponding to a first ongoing direction of the first movement; determine whether or not the first movement moves within a reference region that includes a starting point of the first movement; detect a second movement of the object in a second ongoing direction, following the first movement of the object, wherein the second ongoing direction is different from the first ongoing direction; and move the page in response to the second movement of the object, wherein when the first movement moves within the reference region, the page moves in the first direction in response to the second movement of the object; and when the first movement moves out of the reference region, the page moves in a second direction corresponding to the second ongoing direction in response to the second movement of the object. a sensing unit configured to sense an object touched on the display unit and monitor a first movement of the object; and a controller configured to: move a page displayed on the display unit in a first direction corresponding to a first ongoing direction of the first movement; determine whether or not the first movement moves within a reference region that includes a starting point of the first movement; detect a second movement of the object in a second ongoing direction, following the first movement of the object, wherein the second ongoing direction is different from the first ongoing direction; and move the page in response to the second movement of the object, wherein when the first movement moves within the reference region, the page moves in the first direction in response to the second movement of the object; and when the first movement moves out of the reference region, the page moves in a second direction corresponding to the second ongoing direction in response to the second movement of the object. move a page displayed on the display unit in a first direction corresponding to a first ongoing direction of the first movement; determine whether or not the first movement moves within a reference region that includes a starting point of the first movement; detect a second movement of the object in a second ongoing direction, following the first movement of the object, wherein the second ongoing direction is different from the first ongoing direction; and move the page in response to the second movement of the object, wherein when the first movement moves within the reference region, the page moves in the first direction in response to the second movement of the object; and when the first movement moves out of the reference region, the page moves in a second direction corresponding to the second ongoing direction in response to the second movement of the object.
An electronic device having a touch panel, the electronic device comprising: a display control unit configured to display on the touch panel a user interface related to start of actuation of a target system different from the electronic device; a detection unit configured to detect an operation of the user interface on the touch panel; and an instruction unit configured to transmit an instruction signal according to the operation detected by the detection unit to the target system, characterized in that the instruction unit measures a signal intensity of wireless communication with the target system in accordance with an end of the operation and transmits the instruction signal if the signal intensity is less than or equal to a predetermined threshold. a display control unit configured to display on the touch panel a user interface related to start of actuation of a target system different from the electronic device; a detection unit configured to detect an operation of the user interface on the touch panel; and an instruction unit configured to transmit an instruction signal according to the operation detected by the detection unit to the target system, characterized in that the instruction unit measures a signal intensity of wireless communication with the target system in accordance with an end of the operation and transmits the instruction signal if the signal intensity is less than or equal to a predetermined threshold.
An oxo-nitrogenated vanadium complex having the general formula: in which: - R 1, R 2, R 3, R 4, R 5, R 6 and R 7, mutually identical or different, represent a hydrogen atom; or are selected from linear or branched C 1 -C 20 alkyl groups; - X 1 and X 2, mutually identical, represent a halogen atom selected from chlorine, bromine, iodine; - Y is tetrahydrofuran; - n is 0 or 1. - R 1, R 2, R 3, R 4, R 5, R 6 and R 7, mutually identical or different, represent a hydrogen atom; or are selected from linear or branched C 1 -C 20 alkyl groups; - X 1 and X 2, mutually identical, represent a halogen atom selected from chlorine, bromine, iodine; - Y is tetrahydrofuran; - n is 0 or 1.
A method of detecting a defect in a noisy material in which the microstructure of the material will scatter ultrasound energy, the method comprising: emitting an amount of acoustic energy from an acoustic crystal element having a circular cross section 12.7 mm in diameter driven at 5 MHz through a polycarbonate delay layer in the shape of a cylinder having a height of 32 mm and a diameter of 38mm attached to the acoustic crystal element, the polycarbonate delay layer having a sidewall and an end portion of the polycarbonate delay layer having a first surface to be disposed on a curved surface of the noisy material and a second surface upon which the acoustic crystal element is disposed, a surface of the polycarbonate delay layer being in contact with a curved surface of the noisy material; and detecting the defect in the noisy material based on a measurement of a portion of the emitted acoustic energy scattered by the defect through the polycarbonate delay layer. emitting an amount of acoustic energy from an acoustic crystal element having a circular cross section 12.7 mm in diameter driven at 5 MHz through a polycarbonate delay layer in the shape of a cylinder having a height of 32 mm and a diameter of 38mm attached to the acoustic crystal element, the polycarbonate delay layer having a sidewall and an end portion of the polycarbonate delay layer having a first surface to be disposed on a curved surface of the noisy material and a second surface upon which the acoustic crystal element is disposed, a surface of the polycarbonate delay layer being in contact with a curved surface of the noisy material; and detecting the defect in the noisy material based on a measurement of a portion of the emitted acoustic energy scattered by the defect through the polycarbonate delay layer.
Adaptive lighting luminous module for automotive vehicle, including a field-correcting optical element configured to be arranged crosswise to light rays emitted by a plurality of light sources, the optical element comprising an entrance face through which light rays enter and an exit face through which these light rays exit, at least one segment of the entrance face being covered with an antireflection coating that is able to decrease the reflection of some of the light rays by this entrance face: said luminous module further including: - primary light sources that are configured to emit light rays from a common emission plane that is orthogonal to the optical axis of the luminous module; - a primary optical element that includes a front segment forming a lens and a back segment that includes a plurality of light guides, each light guide including an entrance face through which light rays emitted by a primary light source enter and an exit face through which these light rays exit in the direction of the front segment forming said lens; and - a projecting optic that is able to project an image of the exit faces in order to form an overall adaptive light beam, the field-correcting optical element being arranged on the optical axis of the luminous module between the primary optical element and the projecting optic, the entrance face, which is at least partially covered with an antireflection coating, being turned towards the primary optical element. said luminous module further including: - primary light sources that are configured to emit light rays from a common emission plane that is orthogonal to the optical axis of the luminous module; - a primary optical element that includes a front segment forming a lens and a back segment that includes a plurality of light guides, each light guide including an entrance face through which light rays emitted by a primary light source enter and an exit face through which these light rays exit in the direction of the front segment forming said lens; and - a projecting optic that is able to project an image of the exit faces in order to - primary light sources that are configured to emit light rays from a common emission plane that is orthogonal to the optical axis of the luminous module; - a primary optical element that includes a front segment forming a lens and a back segment that includes a plurality of light guides, each light guide including an entrance face through which light rays emitted by a primary light source enter and an exit face through which these light rays exit in the direction of the front segment forming said lens; and - a projecting optic that is able to project an image of the exit faces in order to form an overall adaptive light beam,
A lighting driver circuit for dimming at least one LED assembly, the lighting driver circuit comprising: a series resonant inverter adapted to be driven by a pulse train and configured to output a current to at least one LED assembly, wherein the pulse train has an envelope waveform comprising an on-time, T on, followed by an off-time, T off, wherein a sum of T on and T off equals a period T of the envelope, wherein the pulse train has a duty cycle equal to T on /T, wherein the duration of the envelope waveform determines the number of pulses within the pulse train and wherein the pulses in the pulse train have a switching frequency (f sw); and a controller operatively coupled to the series resonant inverter and configured to receive a dimming signal and, in response to the dimming signal, to change the parameters of the pulse train by performing frequency modulation dimming for dimming the at least one LED assembly at high brightness levels, and by performing burst control dimming for dimming the at least one LED assembly at low brightness levels, wherein burst control dimming comprises changing the duty cycle of the pulse train, wherein frequency modulation dimming comprises changing the switching frequency (f sw) of pulses within the pulse train, wherein changing the switching frequency (f sw) of the pulses within the pulse train comprises increasing the switching frequency (f sw) in a plurality of frequency levels, the lighting driver circuit being characterized in that frequency modulation dimming further comprises hopping between neighboring frequencies at each of the plurality of frequency levels. a series resonant inverter adapted to be driven by a pulse train and configured to output a current to at least one LED assembly, wherein the pulse train has an envelope waveform comprising an on-time, T on, followed by an off-time, T off, wherein a sum of T on and T off equals a period T of the envelope, wherein the pulse train has a duty cycle equal to T on /T, wherein the duration of the envelope waveform determines the number of pulses within the pulse train and wherein the pulses in the pulse train have a switching frequency (f sw); and a controller operatively coupled to the series resonant inverter and configured to receive a dimming signal and, in response to the dimming signal, to change the parameters of the pulse train by performing frequency modulation dimming for dimming the at least one LED assembly at high brightness levels, and by performing burst control dimming for dimming the at least one LED assembly at low brightness levels, wherein burst control dimming comprises changing the duty cycle of the pulse train, wherein frequency modulation dimming comprises changing the switching frequency (f sw) of pulses within the pulse train, wherein changing the switching frequency (f sw) of the pulses within the pulse train comprises increasing the switching frequency (f sw) in a plurality of frequency levels, the lighting driver circuit being characterized in that frequency modulation dimming further comprises hopping between neighboring frequencies at each of the plurality of frequency levels.
A filled composition for radiation shielding, comprising: at least one polymer ingredient selected from the group consisting of a polyolefin elastomer, a polyolefin co-polymer, a polyolefin ter-polymer, and a combination thereof, wherein the polyolefin elastomer, the polyolefin co-polymer, or the polyolefin ter-polymer comprises monomer units derived from ethylene and at least one vinyl monomer being butene or having at least five carbon atoms; and at least one metal-containing filler comprising a metal having an atomic number greater than 50. at least one polymer ingredient selected from the group consisting of a polyolefin elastomer, a polyolefin co-polymer, a polyolefin ter-polymer, and a combination thereof, wherein the polyolefin elastomer, the polyolefin co-polymer, or the polyolefin ter-polymer comprises monomer units derived from ethylene and at least one vinyl monomer being butene or having at least five carbon atoms; and at least one metal-containing filler comprising a metal having an atomic number greater than 50.
A toothed belt drive with a compression span comprising: a first sprocket having a first number of teeth; a second sprocket having a second number of teeth, wherein a centre of the second sprocket is a distance A from a centre of the first sprocket; a toothed belt having a toothed belt length and a belt pitch length, wherein the toothed belt is trained between the first sprocket and the second sprocket, and characterized by a first linear guide member in cooperative relation to and having a predetermined clearance distance from the toothed belt; a second linear guide member in cooperative relation to and having a predetermined clearance distance from the toothed belt; wherein the toothed belt drive has a drive length which is + (0.5 x first number of teeth x belt pitch length) + (0.5 x second number of teeth x belt pitch length), and the toothed belt length is greater than the drive length by between 0.5 and 1.5 times the belt pitch length, such that the toothed belt forms a free-standing arcuate span between the first sprocket and the second sprocket on a toothed belt compression span, wherein the arcuate span is concave with respect to the first or the second linear guide member (40, 50). a first sprocket having a first number of teeth; a second sprocket having a second number of teeth, wherein a centre of the second sprocket is a distance A from a centre of the first sprocket; a toothed belt having a toothed belt length and a belt pitch length, wherein the toothed belt is trained between the first sprocket and the second sprocket, and characterized by a first linear guide member in cooperative relation to and having a predetermined clearance distance from the toothed belt; a second linear guide member in cooperative relation to and having a predetermined clearance distance from the toothed belt; wherein the toothed belt drive has a drive length which is + (0.5 x first number of teeth x belt pitch length) + (0.5 x second number of teeth x belt pitch length), and the toothed belt length is greater than the drive length by between 0.5 and 1.5 times the belt pitch length, such that the toothed belt forms a free-standing arcuate span between the first sprocket and the second sprocket on a toothed belt compression span, wherein the arcuate span is concave with respect to the first or the second linear guide member (40, 50).
A coolant system comprising: a reservoir that stores coolant discharged from a machine tool; a filtering device that filters the coolant in the reservoir; a first pump that feeds the coolant after filtration to the machine tool; and a second pump that feeds the coolant in the reservoir to the filtering device; wherein the reservoir comprises: a reservoir frame; and a partition member that partitions the interior of the reservoir frame into an outer peripheral coolant tub and a central coolant tub and that is formed with a slit extending in the depth direction to make the outer peripheral coolant tub communicate with the central coolant tub; wherein a suction port of the second pump is arranged in the central coolant tub; the system further comprising: a first supply port that supplies the central coolant tub with the coolant fed from the machine tool without passing through the outer peripheral coolant tub; and a second supply port that supplies the outer peripheral coolant tub with at least a part of the coolant filtered by the filtering device and fed from the filtering device without passing through the central coolant tub characterized by a secondary reservoir storing the coolant discharged from the filtering device, wherein the first pump feeds the coolant stored in the secondary reservoir to the machine tool. a reservoir that stores coolant discharged from a machine tool; a filtering device that filters the coolant in the reservoir; a first pump that feeds the coolant after filtration to the machine tool; and a second pump that feeds the coolant in the reservoir to the filtering device; wherein the reservoir comprises: a reservoir frame; and a partition member that partitions the interior of the reservoir frame into an outer peripheral coolant tub and a central coolant tub and that is formed with a slit extending in the depth direction to make the outer peripheral coolant tub communicate with the central coolant tub; wherein a suction port of the second pump is arranged in the central coolant tub; the system further comprising: a reservoir frame; and a partition member that partitions the interior of the reservoir frame into an outer peripheral coolant tub and a central coolant tub and that is formed with a slit extending in the depth direction to make the outer peripheral coolant tub communicate with the central coolant tub; wherein a suction port of the second pump is arranged in the central coolant tub; the system further comprising: a first supply port that supplies the central coolant tub with the coolant fed from the machine tool without passing through the outer peripheral coolant tub; and a second supply port that supplies the outer peripheral coolant tub with at least a part of the coolant filtered by the filtering device and fed from the filtering device without passing through the central coolant tub characterized by a secondary reservoir storing the coolant discharged from the filtering device, wherein the first pump feeds the coolant stored in the secondary reservoir to the machine tool.
A head-up display device comprising: a casing provided inside an instrument panel and provided with a concave mirror configured to project image information emitted from a light source onto a front windshield glass, characterized in that a retraction portion is provided on a lower side of the concave mirror in a vehicle up-down direction and configured to allow the concave mirror to move downward in the vehicle up-down direction when an impact load is input to the concave mirror from an upper side of the casing in the vehicle up-down direction. a casing provided inside an instrument panel and provided with a concave mirror configured to project image information emitted from a light source onto a front windshield glass, characterized in that a retraction portion is provided on a lower side of the concave mirror in a vehicle up-down direction and configured to allow the concave mirror to move downward in the vehicle up-down direction when an impact load is input to the concave mirror from an upper side of the casing in the vehicle up-down direction.
A stent, comprising: a body extending between a distal end and a proximal end, the body defined by a plurality of elongated members, each elongated member extending between a distal end that is substantially coterminous with the distal end of the body and a proximal end that is substantially coterminous with the proximal end of the body; wherein each of the plurality of elongated members comprises an inner surface having a curved concave shape and an outer surface and two side surfaces (34, 36), wherein the plurality of elongated members are arranged so that the inner surfaces of the plurality of elongated members form a lumen with a smooth circular inner surface, wherein the lumen extends along the length of the respective plurality of elongated members, the lumen extending between the distal and proximal ends of the body so as to form a lumen length; wherein the plurality of elongated members are configured to permit drainage of a fluid from within the lumen to an environment external the stent along the entire lumen length. a body extending between a distal end and a proximal end, the body defined by a plurality of elongated members, each elongated member extending between a distal end that is substantially coterminous with the distal end of the body and a proximal end that is substantially coterminous with the proximal end of the body; wherein each of the plurality of elongated members comprises an inner surface having a curved concave shape and an outer surface and two side surfaces (34, 36), wherein the plurality of elongated members are arranged so that the inner surfaces of the plurality of elongated members form a lumen with a smooth circular inner surface, wherein the lumen extends along the length of the respective plurality of elongated members, the lumen extending between the distal and proximal ends of the body so as to form a lumen length; wherein the plurality of elongated members are configured to permit drainage of a fluid from within the lumen to an environment external the stent along the entire lumen length.
Method for dynamically balancing a rotational body, - wherein an arc-shaped balancing mass is fastened in the region of the free ends of the arms of the arc of the arc-shaped balancing mass on an outer circumference of the rotational body in a material-bonding manner by means of welding by a respective welding point, - wherein the balancing mass has an inner radius that is smaller than an outer radius of the outer circumference, so that the difference in radius has the effect that a clearance is formed in the region of an apex point of the balancing mass as thermal insulation between the balancing mass and the rotational body, - wherein the rotational body is set in rotation, - wherein an imbalance of the rotational body is determined, - wherein, in dependence on the determined imbalance, material of the balancing mass is removed and/or additional material is applied to the balancing mass, and - wherein the removal and/or the application is/are carried out by means of a laser beam of a laser. - wherein an arc-shaped balancing mass is fastened in the region of the free ends of the arms of the arc of the arc-shaped balancing mass on an outer circumference of the rotational body in a material-bonding manner by means of welding by a respective welding point, - wherein the balancing mass has an inner radius that is smaller than an outer radius of the outer circumference, so that the difference in radius has the effect that a clearance is formed in the region of an apex point of the balancing mass as thermal insulation between the balancing mass and the rotational body, - wherein the rotational body is set in rotation, - wherein an imbalance of the rotational body is determined, - wherein, in dependence on the determined imbalance, material of the balancing mass is removed and/or additional material is applied to the balancing mass, and - wherein the removal and/or the application is/are carried out by means of a laser beam of a laser.