mhurhangee/ep-ind-claims huggingface dataset:
An active vibration noise control device having a pair of speakers (10L, 10R) configured for making the speakers generate control sounds, comprising: a basic signal generating unit which is configured to generate a basic signal based on a vibration noise frequency generated by a vibration noise source; an adaptive notch filter which is configured to generate a first control signal provided to one of the speakers by applying a first filter coefficient to the basic signal and is configured to generate a second control signal provided to the other speaker by applying a second filter coefficient to the basic signal, in order to make the speakers generate the control sounds so that the vibration noise generated by the vibration noise source is cancelled; a microphone (11L, 11R) which is configured to detect a cancellation error between the vibration noise and the control sounds, and is configured to output an error signal; a reference signal generating unit which is configured to generate a reference signal from the basic signal based on a transfer function from the speakers to the microphone; a filter coefficient updating unit which is configured to update the first and second filter coefficients used by the adaptive notch filter based on the error signal and the reference signal so as to minimize the error signal, wherein the active vibration noise control device being characterized by further having a phase difference limiting unit which is configured to limit a phase difference between a control sound generated by one of the speakers and a control sound generated by the other speaker. a basic signal generating unit which is configured to generate a basic signal based on a vibration noise frequency generated by a vibration noise source; an adaptive notch filter which is configured to generate a first control signal provided to one of the speakers by applying a first filter coefficient to the basic signal and is configured to generate a second control signal provided to the other speaker by applying a second filter coefficient to the basic signal, in order to make the speakers generate the control sounds so that the vibration noise generated by the vibration noise source is cancelled; a microphone (11L, 11R) which is configured to detect a cancellation error between the vibration noise and the control sounds, and is configured to output an error signal; a reference signal generating unit which is configured to generate a reference signal from the basic signal based on a transfer function from the speakers to the microphone; a filter coefficient updating unit which is configured to update the first and second filter coefficients used by the adaptive notch filter based on the error signal and the reference signal so as to minimize the error signal, wherein the active vibration noise control device being characterized by further having a phase difference limiting unit which is configured to limit a phase difference between a control sound generated by one of the speakers and a control sound generated by the other speaker.
Self-propelled construction machine with a machine frame supported by running gears (3, 4, 6), at least some of which are drivable and/or steerable running gears (3, 4, 6), a positioning device for determining the position of a reference point related to the construction machine and the orientation (ψ) of the construction machine in a coordinate system (X, Y, Z) not dependent on the construction machine, with the position-determining device comprising a navigation satellite system receiver for receiving satellite signals of a global navigation satellite system and a computing unit configured so that, based on the satellite signals of the global navigation satellite system, the position of the reference point and the orientation (ψ) of the construction machine are determined in a coordinate system (X, Y, Z) not dependent on the construction machine, and a controller cooperating with the position-determining device configured to adjust the steering angles of the steerable running gears (3, 4, 6) so that the reference point of the construction machine moves along a set trajectory, the computing unit of the position-determining device being configured so that, in a control mode in which the control of the construction machine is not based on the satellite signals of the navigation satellite system, during the movement of the construction machine the position (xn, y n, z n) of the reference point relative to the construction machine and the orientation ( ψ) of the construction machine are determined in the coordinate system (X, Y, Z) that is not dependent on the construction machine based on a kinematic model implemented in the computing unit of the position-determining device, which describes the position of the reference point in the coordinate system (X, Y, Z) independent of the construction machine and the orientation (ψ) of the construction machine depending on the steering angles and the speeds of the running gears (3, 4, 6), characterised in that the computing unit of the position-determining device is configured so that, in the control mode in which the control of the construction machine is based on the satellite signals of the global navigation satellite system, at least one correction variable is determined for the kinematic model based on at least one steering angle set in a certain route section (S1, S2) for a running gear (3, 4, 6) by the controller, with the computing unit of the position-determining device being configured so that, in the control mode in which the control of the construction machine is not based on the satellite signals of the navigation satellite system, the position (x n, y n, z n) of the reference point relative to the construction machine and the orientation (ψ) of the construction machine in the coordinate system (X, Y, Z) that is not dependent on the construction machine are determined on the basis of the kinematic model implemented in the computing unit of the position-determining device taking into account the at least one correction variable.
A cardboard sheet-cutting method performed by a cardboard sheet-cutting device including a digital printing machine, a first cutting machine, a second cutting machine, a mark detector, and a control unit, comprising: printing, by the digital printing machine, a cutting mark on a cardboard sheet under transport; cutting, by the first cutting machine, the cardboard sheet under transport to a predetermined width in a longitudinal direction; detecting, by the mark detector, the cutting mark in the cardboard sheet under transport; cutting, by the second cutting machine, the cardboard sheet under transport to a predetermined length in a width direction, when the mark detector detects the cutting mark; and controlling, by the control unit, operation of the first cutting machine and the second cutting machine and a movement of the mark detector on the basis of a change in printing image information, wherein the printing image information is a cutting width, of the cardboard sheet to be cut by the first cutting machine, changed with a change in the printing image, and the control unit moves the mark detector on the basis of the changed printing image, without stopping the transport of the cardboard sheet. printing, by the digital printing machine, a cutting mark on a cardboard sheet under transport; cutting, by the first cutting machine, the cardboard sheet under transport to a predetermined width in a longitudinal direction; detecting, by the mark detector, the cutting mark in the cardboard sheet under transport; cutting, by the second cutting machine, the cardboard sheet under transport to a predetermined length in a width direction, when the mark detector detects the cutting mark; and controlling, by the control unit, operation of the first cutting machine and the second cutting machine and a movement of the mark detector on the basis of a change in printing image information, wherein the printing image information is a cutting width, of the cardboard sheet to be cut by the first cutting machine, changed with a change in the printing image, and the control unit moves the mark detector on the basis of the changed printing image, without stopping the transport of the cardboard sheet.
An axial flow impeller comprising a hub and at least three base blades mounted around the hub evenly and capable of doing work on an external object, with a cover blade detachably mounted on each base blade, whereas a front cover blade is detachably mounted in the front of each base blade and a rear cover blade is detachably mounted in the rear of each base blade, characterized in that the outer edge of each of the cover blades is provided with a reinforcing enveloping edge (31, 41) and in that said reinforcing enveloping edges (31, 41) of the two cover blades (3,4) are contacted and detachably fitted with each other on the opposing sides, such that the base blade is enclosed within a space formed by the two cover blades.
A method of manufacturing an annular member (32; 46; 56) to be placed in a process chamber of a substrate processing apparatus that performs plasma processing on a substrate accommodated in the process chamber, the method comprising: arranging one silicon member (34; 48; 58) and another silicon member (36; 50; 60) to cause one abutting surface (37; 49; 63A) of the one silicon member (34; 48; 58) and another abutting surface (37; 49; 63A) of the other silicon member (36; 50; 60) to abut on each other; characterized in that the method further comprises: heating the one abutting surface (37; 49; 63A) and the other abutting surface (37; 49; 63A) through optical heating by a xenon lamp or a halogen lamp to melt silicon on a surface of the one abutting surface (37; 49; 63A) and silicon on a surface of the other abutting surface (37; 49; 63A) such that silicon melt is caused to flow into a gap between the one abutting surface (37; 49; 63A) and the other abutting surface (37; 49; 63A); and cooling the one abutting surface (37; 49; 63A) and the other abutting surface (37; 49; 63A) to crystallize the silicon melt forming a silicon adhesion part (39A; 51; 68) such that the one silicon member (34; 48; 58) and the other silicon member (36; 50; 60) are joined to each other with the silicon adhesion part (39A; 51; 68). heating the one abutting surface (37; 49; 63A) and the other abutting surface (37; 49; 63A) through optical heating by a xenon lamp or a halogen lamp to melt silicon on a surface of the one abutting surface (37; 49; 63A) and silicon on a surface of the other abutting surface (37; 49; 63A) such that silicon melt is caused to flow into a gap between the one abutting surface (37; 49; 63A) and the other abutting surface (37; 49; 63A); and cooling the one abutting surface (37; 49; 63A) and the other abutting surface (37; 49; 63A) to crystallize the silicon melt forming a silicon adhesion part (39A; 51; 68) such that the one silicon member (34; 48; 58) and the other silicon member (36; 50; 60) are joined to each other with the silicon adhesion part (39A; 51; 68).
A track for traction of a vehicle, the track being mountable around a plurality of wheels that comprises a drive wheel for driving the track, the track being elastomeric to flex around the wheels, the track comprising: - an inner surface for facing the wheels; - a ground-engaging outer surface for engaging the ground; and - a plurality of traction projections (58 1-T) projecting from the ground-engaging outer surface and distributed in a longitudinal direction of the track, each traction projection (58 1-T) of the plurality of traction projections comprising: - a first elastomeric material (60 y); and - a second elastomeric material (60 x) disposed inwardly of the first elastomeric material (60 y); characterized in that a blowout resistance of the second elastomeric material (60 x) is greater than a blowout resistance of the first elastomeric material (60 y). - an inner surface for facing the wheels; - a ground-engaging outer surface for engaging the ground; and - a plurality of traction projections (58 1-T) projecting from the ground-engaging outer surface and distributed in a longitudinal direction of the track, each traction projection (58 1-T) of the plurality of traction projections comprising: - a first elastomeric material (60 y); and - a second elastomeric material (60 x) disposed inwardly of the first elastomeric material (60 y); - a first elastomeric material (60 y); and - a second elastomeric material (60 x) disposed inwardly of the first elastomeric material (60 y);
An assembly comprising a milling tool body being rotatable around a central rotation axis, the milling tool body having a front end surface and a rear end surface, wherein an envelope surface surrounds the central rotation axis and extends between the rear end surface and the front end surface, wherein a plurality of insert pockets are formed in a transition between the envelope surface and the front end surface, wherein a first central through-hole extends between the rear end surface and the front end surface, wherein the assembly includes a locking disc with a second central through-hole and a fastening device arranged to extend through the second central through-hole of the locking disc, characterized in that the first central through hole is of constant diameter and in that the locking disc is arranged to press against the front end surface of the milling tool body when mounting the milling tool body to an adaptor by the fastening device being mountable to an end of the adaptor insertable into the first central through-hole of the milling tool body.
Cosmetic use of at least one essential oil of Origanum majorana and/or of Origanum X majoricum Cambassedes, comprising more than 18% by weight of cis-4-thujanol and more than 16% by weight of carvacrol relative to the total weight of the constituents of the essential oil, or of a cosmetic composition comprising at least one essential oil of Origanum majorana and/or of Origanum X majoricum Cambassedes, comprising more than 18% by weight of cis-4-thujanol and more than 16% by weight of carvacrol relative to the total weight of the constituents of the essential oil, as an agent for treating and/or preventing greasy or greasy-prone skin and/or the associated aesthetic skin defects.
A method for the electrochemical production of calcium silicate compounds in an electrochemical cell that comprises (a) a Ca-based electrode that comprises calcium metal or an inorganic calcium material, (b) an SiO x -based electrode that comprises a SiO x material, where x ranges from 1 to 2, and (c) a liquid electrolyte disposed between the Ca-based electrode and the SiO x -based electrode, wherein the electrochemical cell is operated under conditions such that calcium cations are produced at the Ca-based electrode and one or more calcium silicate (Ca-Si-oxide) compounds are produced at the SiO x -based electrode.
A method of making a device for preventing restenosis of a blood vessel comprising the steps of: providing a porous graft; providing a small diameter hollow tubing in contact with said graft and having a porous region in fluid communication with an outer surface of said porous graft; connecting an end of said small diameter hollow tubing to an anti-restenosis agent source; the anti-restenosis agent source being a system that provides constant controlled rate delivery of an agent for delivering said anti-restenosis agent to said blood vessel via said small diameter hollow tubing and said porous graft. providing a porous graft; providing a small diameter hollow tubing in contact with said graft and having a porous region in fluid communication with an outer surface of said porous graft; connecting an end of said small diameter hollow tubing to an anti-restenosis agent source; the anti-restenosis agent source being a system that provides constant controlled rate delivery of an agent for delivering said anti-restenosis agent to said blood vessel via said small diameter hollow tubing and said porous graft.
A urinary catheter collection bag, comprising a first flexible wall having a perimeter; a second flexible wall having a perimeter; a perimeter seal joining at least a portion of the perimeter of the first flexible wall and the perimeter of the second flexible wall; the first flexible wall including a surface; a drainage hole included in the surface; and characterised in that the urinary catheter collection bag further comprises a water soluble cover member covering the drainage hole, wherein the water soluble cover member is configured to dissolve after coming into contact with water, thereby exposing drainage hole. a first flexible wall having a perimeter; a second flexible wall having a perimeter; a perimeter seal joining at least a portion of the perimeter of the first flexible wall and the perimeter of the second flexible wall; the first flexible wall including a surface; a drainage hole included in the surface; and characterised in that the urinary catheter collection bag further comprises a water soluble cover member covering the drainage hole, wherein the water soluble cover member is configured to dissolve after coming into contact with water, thereby exposing drainage hole.
A method for presenting a thermal image of a scene within a visible light image of the scene, the thermal image and the visible light image being captured by a system that includes an infrared camera module a visible light camera module and a display (20, 120) and the method comprising: viewing the visible light image of the scene on the display; identifying an outline of at least one object of interest within the visible light image; and selecting, with an interactive element of the system (345, 351, 353, 355, 357) an area of the visible light image in which to present a corresponding portion of the thermal image on the display, the selected area having a perimeter edge (315, 325) that corresponds in shape to the identified outline of each of the at least one object of interest (310, 320) and either overlays the outline (312, 322) or resides alongside the outline, in close proximity thereto. viewing the visible light image of the scene on the display; identifying an outline of at least one object of interest within the visible light image; and selecting, with an interactive element of the system (345, 351, 353, 355, 357) an area of the visible light image in which to present a corresponding portion of the thermal image on the display, the selected area having a perimeter edge (315, 325) that corresponds in shape to the identified outline of each of the at least one object of interest (310, 320) and either overlays the outline (312, 322) or resides alongside the outline, in close proximity thereto.
A method of production of a solution containing 3-mercaptohexan-1-ol and alcohol, comprising: inoculating a starting material aqueous solution comprising S -(3-hexan-1-ol)glutathione and S-(3-hexan-1-ol)-L-cysteine with a lactic acid bacterium and yeast to produce 3-mercaptohexan-1-ol and alcohol; wherein the starting material aqueous solution consists of a grape skin extract; the lactic acid bacterium is a lactic acid bacterium that is capable of converting S -(3-hexan-1-ol)glutathione to S -(3-hexan-1-ol)-L-cysteine; and after inoculating the starting material aqueous solution with a lactic acid bacterium and conducting fermentation for 0 to 6 days, the aqueous solution is inoculated with the yeast and alcohol fermentation is conducted, wherein the starting material aqueous solution exhibits a concentration of S -(3-hexan-1-ol)glutathione based on a Brix 20 percent conversion in a range of 300 to 8,000 nM and a concentration of S -(3-hexan-1-ol)-L-cysteine in a range of 70 to 11,100 nM. inoculating a starting material aqueous solution comprising S -(3-hexan-1-ol)glutathione and S-(3-hexan-1-ol)-L-cysteine with a lactic acid bacterium and yeast to produce 3-mercaptohexan-1-ol and alcohol; wherein the starting material aqueous solution consists of a grape skin extract; the lactic acid bacterium is a lactic acid bacterium that is capable of converting S -(3-hexan-1-ol)glutathione to S -(3-hexan-1-ol)-L-cysteine; and after inoculating the starting material aqueous solution with a lactic acid bacterium and conducting fermentation for 0 to 6 days, the aqueous solution is inoculated with the yeast and alcohol fermentation is conducted,
Method for producing an upgraded polymer product from recycled polyvinyl butyral, the method comprising - feeding a polymer feed stream to an extruder, wherein said polymer feed stream comprises a recycled polyvinyl butyral; - melting said polymer feed stream in the extruder to produce polymer melt and passing said polymer melt through one or more degassing zones connected to a vacuum pump; - measuring the melt flow index of the polymer product, wherein the vacuum pump is operated at a pressure that is controlled by the measured melt flow index of the polymer product, wherein the melt flow index is measured in accordance with ISO 1133 at a load of 2.16 kg and at a temperature of 190 °C. - feeding a polymer feed stream to an extruder, wherein said polymer feed stream comprises a recycled polyvinyl butyral; - melting said polymer feed stream in the extruder to produce polymer melt and passing said polymer melt through one or more degassing zones connected to a vacuum pump; - measuring the melt flow index of the polymer product,
Drive system having - a converter, - a motor fed from the converter by means of three supply lines, - an electromagnetically actuatable brake arranged on the motor, characterised in that the drive system further has: - a DC-to-AC converter arranged on or in the converter, and an AC-to-DC converter arranged on the motor, the DC-to-AC converter being fed and/or controlled by a signal electronics of the converter, the AC-to-DC converter being fed from the DC-to-AC converter by means of lines, and the brake being powered, and thus controlled, from the AC-to-DC converter, and - an STO detector that is connected to a signal electronics integrated in the motor and is configured to control the AC-to-DC converter and to monitor voltage curves applied on the motor side at least at two of the three, or at the three, supply lines, and to cause the brake to apply, by switching off the AC-to-DC converter, when a Safe Torque Off signal is executed by the converter and/or in the event of a broken line and/or faults in the converter. - a converter, - a motor fed from the converter by means of three supply lines, - an electromagnetically actuatable brake arranged on the motor, - a DC-to-AC converter arranged on or in the converter, and an AC-to-DC converter arranged on the motor, the DC-to-AC converter being fed and/or controlled by a signal electronics of the converter, the AC-to-DC converter being fed from the DC-to-AC converter by means of lines, and the brake being powered, and thus controlled, from the AC-to-DC converter, and the DC-to-AC converter being fed and/or controlled by a signal electronics of the converter, the AC-to-DC converter being fed from the DC-to-AC converter by means of lines, and the brake being powered, and thus controlled, from the AC-to-DC converter, and - an STO detector that is connected to a signal electronics integrated in the motor and is configured to control the AC-to-DC converter and to monitor voltage curves applied on the motor side at least at two of the three, or at the three, supply lines, and to cause the brake to apply, by switching off the AC-to-DC converter, when a Safe Torque Off signal is executed by the converter and/or in the event of a broken line and/or faults in the converter.