Devices to Reduce Friction at Drawing and Sonochemical Cleaning Wire from Lubrication

S.D. Shestakov

Abstract


Article is devoted to reduce friction during drawing wire at the expense of ultrasonic axial vibration the portage, sonochemical cleaning it from technological lubricant type residues in aqueous solutions of detergents by acoustic cavitation generated by energy dissipation of elastic vibrations in the washing solution, as well as the design of ultrasonic devices for the implementation of these technology. At the expense of axial ultrasonic oscillations for the reducing friction on the surface of the wire is formed additional hardening. Cleaning - it removal from the surface of the wire technological lubricant and under-lubricant layer before polishing, coppering and applying corrosion-resistant coatings in the manufacture of welding wire or before applying insulation in the production of electrical wires. It can be performed as a separate process, which implemented on the rewinding machine. A device may be used as a part of drawing machine, or together with the rewinding machine. The paper presents the principles of calculation of the integrating waveguide transformers - essential elements for controlling devices with ultrasonic oscillations and their industrial use. They allows to integrate the power of several of ultrasonic transducers, does not obstacles to the rectilinear trajectory of drawing wire. Is shown the original design of small cavitation reactors which located inside transformers and are providing sufficiently sonochemical effects on cleaning solutions.

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References


Prokic M., Tapson J., Mortimer B. The ultrasonic hammer transducer, Piezoelecric transducers modeling and characterization, 2004, 2nd edition (available at: http://www.mpi-ultrasonics.com).

Khmelev V.N., Levin S.V., Khmelev S.S., Tsyganok S.N. Design of piezoelectric ultrasonic generators [Sozdaniye pyezoelektricheskikh istochnikov ultrazvukovogo vozdeystviya], Elektronnyy zhurnal “Tekhnicheskaya akustika” [Electronic Journal “Technical Acoustics”], 2013, no.2 (available at: http://ejta.org)

Khmelev V.N., Savin I.I., Tsiganok S.N. Barsukov R.V., Lebedev A.N. Ultrazvukovaya kolebatelnaya sistema [Ultrasonic oscillatory system], Patent RU 2332266, 2008.

Shestakov S.D., Gorodischenskiy P.A. Integriruyushchiy akusticheskiy volnovodnyy transformator [Integrating acoustic waveguide transformer], Patent RU 2402386, 2010.

Shestakov S. Pishchevaya sonokhimiya: kontseptsiya, teoreticheskiye aspekty i prakticheskiye prilozheniya [Food sonochemistry: the concept, the theoretical aspects and practical applications], Saarbruecken, LAMBERT Academic Publishing, 2012, 152 p.

Fuchs B.A., Levin V.I. Funktsii kompleksnogo peremennogo i nekotoryye ikh prilozheniya [Functions of a complex variable and some of their applications], Moscow, Leningrad, Nauka Publ., 1951.

Baulina T., Krasulya O., Rink R., Shestakov S. Criterial Assessment of Quality Transformations a Plane Elastic Wave in the Solid-State Resonant Sonotrode, International Journal of Engineering Inventions, 2013, vol. 3, no. 9, is. 3, рр. 8-11.

Mason W. (ed.) Fizicheskaya akustika [Physical Acoustics], New York, London, Academic Press, 1964.

Drozd M. Wire cleaning apparatus and method, Pаtent US 6505372, 2003.

Serebrennikov V.D. Sposob kombinirovannoy elektrodugovoy obrabotki metallicheskoy provoloki [A method combined electroarc processing the metal wire], Patent RU 2456376, 2012.

Lebedev Н.М., Zhirnova T.I., Vatolin A.A., Voronin O.V., Popov V.D., Alexandrov Y.A., A.N., Balin A.N., Berezovsky A.V. Sposob ochistki provoloki ili lenty i ustroystvo dlya yego osushchestvleniya [A method of cleaning wire or strip and device for its implementation], Patent RU 2238162, 2004.

Shestakov S., Babak V. Mathematical Model of the Spatial Distributing of Density of Erosive Power of Multibubble Cavitation, Applied Physics Research, 2012, vol. 4, no. 1, pp. 64-77. DOI: 10.5539/apr.v4n1p64

Rosenberg L.D. (ed.) Fizika i tekhnika moshchnogo ultrazvuka. Moshchnyye ultrazvukovyye polya [Physics and technology of high-intensity ultrasound. Powerful ultrasonic fields], Moscow, Nauka Publ., 1968.

Bagrov I.V., Nigmetzyanov I.I., Prikhot'ko V.M. Technological application of ultrasonic in cleaning processes [Tekhnologicheskoye primeneniye ultrazvuka v protsessakh ochistki], Ultrazvukovyye tekhnologicheskiye protsessy – 98: sb. nauchn. tr. [Ultrasonic processes – 98], Moscow, Publishing MADI (TU), 1998, pp. 49-52.

Margulis M.A. Sonochemistry and Cavitation, London: Gordon & Breach, 1995.

, Kandalintsev B.A., Shestovskih A.E. Ustroystvo dlya ultrazvukovoy ochistki poverkhnostey provoloki ili lenty [Device for ultrasonic cleaning surfaces of wire or tape], Patent RU 2360746, 2009.

Gorelik G.S. Kolebaniya i volny [Vibration and Waves], Moscow, Publishing Physics and Mathematics Literatura, 1959.

Shestakov S. Research of an opportunity to strengthen the nonparametric multibubble cavitation [Issledovaniye vozmozhnosti neparametricheskogo usileniya mnogopuzyrkovoy kavitatsii], Prikladnaya fizika [Applied Physics], 2008, no. 6, pp. 18-24.

Shestakov S., Befus A. Formulirovaniye kriteriya podobiya sonokhimicheskikh reaktorov pri obrabotke sred, ne obespechivayushchikh akusticheskogo rezonansa [The formulation of the criterion of similarity sonochemical reactors processing environments that do not ensure acoustic resonance], Moscow, VINITI, 2008.

Shestakov S.D., Gorodischenskiy P.A., Befus A.P. Kompleks programm kriterialnoy otsenki proizvodi-telnosti sonokhimicheskogo reaktora [Complex performance evaluation criterion of productivity sonochemical reactor], Certificate of official registration of computer programs RU 2008612431, 2009.

http://www.ultrasonicsworld.com (accessed 12 May 2014).




DOI: http://dx.doi.org/10.24892/RIJIE/20140203

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