On the Characteristic Functions and Parameters of Different Kind of Thermodynamic Systems: Experiment, Observation, Theory

Main Article Content

Anzor I. Gvelesiani

Abstract

The paper consists own results of laboratory experiments, results of well known other works using by us for introduce corrections and interpretations of some of them proceed from common point of view. There are discussion and comparison all of them with each other, in the light of classical works. In the first part of the article, briefly, is given the original laboratory bubble boiling method for modeling (BBMM) of vertical convective motion of two phase homo- and heterogeneous fluids (Georgian natural waters were investigated. The rest part of paper is devoted to the studying of thermodynamic parameters of systems, studying in geophysics and other ranges of science, technology, metallurgy, physical chemistry. In particular, except above-mentioned water solution, there are considered phase transformation processing in the following way: crystalliquidvapour and in the opposite direction. Thus, it is obtained similarity between: (1) Van-der-Waals (P,V)-phase diagram, stress-strain diagram (σ/ϵ), modelling earthquakes, and reconstructed by us figures (MPa/porosity) and ()-reverse heat capacity-temperature diagram for glycerin, C3H8O3, and (h, E)-, dependence between depth of cosmic rays penetration into the Earth atmosphere and their energy; (2)space-time change of parameters  of cosmic rays, solar wind, F10.7 and ultra-violet radiation, and temperature-time change of nucleation of melted piperin, C17H19NO3, in glass-like crystal state, and sulfides, arsenides, sulfates; (3) change of number of sunspots, W, and geomagnetic activity,, in time, reconstructed by us (here), are in a good agreement with (ΔT, t); (4)(BBMM) bubble-boiling method, may be used for modelling of vertical convection, first of all, in the geo- and solar atmosphere; theoretically is confirmed our conclusion about Van-der-Waals-type and Tammann-type thermodynamic phenomena in geophysical spheres, metallurgical and physico-chemical investigations. It is necessary to note that well known Tammann’s curve is not Gaussian one.

Keywords:
glass-like state, convection, thermodynamic system, phase, bubble boiling, nucleation, magma, volcano, cosmic rays, magnetic field, solar wind, sunspot, alloys, modelling.
Published: Sep 29, 2017

Article Details

How to Cite
Gvelesiani, A. I. (2017). On the Characteristic Functions and Parameters of Different Kind of Thermodynamic Systems: Experiment, Observation, Theory. Journals of Georgian Geophysical Society, 19(22). Retrieved from https://ggs.openjournals.ge/index.php/GGS/article/view/1877
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References

Wallis G. B. One-dimensional two-phase flow. McGraw Hill Book Company, New York-San Louis-San Francisko-London- Sydney-Toronto-Mexico-Panama, 1970.

Thomson J. On a changing tessellated structure in certain liquids. Proc. Philos. Soc. Glasgow, v. 13,1882, pp. 464-468.

Bénard M. Les tourbillons cellulaires dans une nappe liquide. Revue generale des Sciences pures et appliquee, v. 11,1900, pp. 1261-71 and 1309-28.

Chandrasekhar S. Hydrodynamic and hydromagnetic stability. Clarendon Press, Oxford, England, 1961, 652 p.

Gibbs J. W. Thermodynamics. Statistical Mechanics. Moscow, Nauka, 1982, 584 p. (in Russian).

Volmer M. Kinetik der Phasenbildung. Drezden-Leipzig: Steinkopf, 1939, 220 p.

Frenkel Ya. I. Kinetic theory of liquids. Leningrad, Leningrad Department, Nauka, 1975, 592 p. (in Russian).

Zel’dovich Ya. B. On the theory of new phase formation. JETF, 1942, T. 12, vip. 11-12, pp. 525-538, (in Russian).

Kagan Yu. O kinetike kipenia chistoy zhidkosti. Zhurnal fizicheskoy khimii. T. XXXI, № 1, 1960, pp. 92-101, (in Russian).

Skripov V. P. Metastable Liquids. M.: Nauka, GRFML, 1972, 312 p. (in Russian).

Ermakov G. V., Lipnjagov E. V., Perminov C. A. New criterium for comparison of classic. T. 16, № 4, 2009, pp. 695-699, (in Russian).

Golitsyn G. S. Energy of convection. Non-linear waves: Stochasticity and Turbulence. Gorky:AN SSSR, IPF, 1980, pp. 131-139, (in Russian).

Boubnov B. M., Golitsyn G. S. Convection in rotating fluids. J. Fluid Mech., 1995, v. 219, pp. 215-239.

Brennen Chr. E. Cavitation and bubble dynamics. University Press, 1995, 64 p.

Kubo R. Thermodynamics. An advanced course with problems and solutions. North Holland Publishing Company–Amsterdam, 1968 (Russian ed.: M.: Mir, 1970, 304 pp.).

Roberts M. J., Jökulhlaups: A reassessment of floodwater flow through glaciers. Reviews of Geophysics, 2005, 43, RG1002/ 2005, pp. 1-21.

Zhang Y., Xu Z., Zhu M., Wang H. Silicate melt properties and volcanic eruptions. Reviews of Geophysics, 2007, 45, RG4004/ 2007, pp. 1-27.

Jellinek A. M., Manga M. Links between long-lived hot spots, mantle plumes, , and plate tectonics, Reviews of Geophysics., 42, RG3002,2004, doi: 10.1029/2003RG00014

Rundle J. B., Turcotte D. L., Shcherbakov R., Klein W., Summis Ch. Statistical physics approach to understanding the multiscale dynamics of earthquake fault system. Reviews of Geophysics, v. 41, N 4, RG4001, 2003, pp. 5.1-5.30.

Marshall J., Schott F. Open-ocean convection: observations, theory, and models. Reviews of Geophysics, 37, 1 / February,98RG02739, 1999, pp. 1-64.

Gvelesiani A.I. To the problem of one-dimensional two-phase/many-component flow indifferent geophysical mediums. J. Georgian Geophys. Soc., v.16B,2013, pp. 118-127.

Gvelesiani A., Chiabrishvili N. Laboratory modeling of thermals generation in geophysical environment by means of bubble boiling method. J. Georgian Geophys. Soc., v.16B, 2013, pp. 128-136.

Gvelesiani A., Chiabrishvili N. Additional experiments about investigation of the peculiarities of the bubble boiling of clear water, H2O, and sugar, С12Н22О11, and edible salt, NaCl, water solutions of different densities. J. Georgian Geophys. Soc., v.17A,2014,132-139.

Gvelesiani A. Open thermodynamic systems: convection and similar processes modeling by the only fluids bubble boiling method. J. Georgian Geophys. Soc., v.17B,2014, pp. 38-57

Gvelesiani A., Chiabrishvili N. Study of Georgian natural waters thermodynamic parameters behavior by means of original fluids bubble boiling method. J. Georgian Geophys. Soc., v.18B, 2015, pp. 52-63.

Silvestri M. Hydrodynamics and heat exchange at drop-annular regime of two-phase flow. In book: Advances in Heat Transfer. (Ed. by T. F. Irvine, J. P. Hartnett), AP, New York-London, v. I, 1964.

Debenedetti P. G. Metastable Liquids. Princeton Univ. Press, Princeton, N. J., 1996.

Skripov V. P., Koverda V. P. Spontanous crystallization of super-cooled liquids. M.: Nauka, GRFML, 1984, 232 p. (in Russian)

Dergarabedian P. The rate growth of vapor bubbles in superheated water. J. Appl. Mech.,1953, pp.537-545.

Spieler O., Kennedy B., Kueppers U., Dingwell D. B., Scheu B., Tuddeucci J. The fragmentation threshold of pyroclastic rocks. Earth Planet. Sci. Lett., v. 226, 2004, pp. 139-148.

Sparks R.S.J., The dynamics of bubble formation and growth in magmas: a review andanalysis, J. Volcanol. Geotherm. Res., 28, 1978, pp. 257-274.

Sparks R.S.J., J. Barclay, C. Jaupart, H.M. Mader, J.C. Phillips, Physical aspects of magma degassing. I. Experimental and theoretical constraints on vesiculation, Rev. Mineral. 30, 1994, pp. 414-445.

Gardner J.E., R.M.E. Thomas, C. Jaupart, S. Tait, Fragmentation of magma during plinian volcanic eruptions, Bull. Volcanol. v. 58, 1996,pp. 144-162.

McBirney A.R, T. Murase, Factors governing the formation of pyroclastic rocks, Bull. Volcanol., v. 34,1970, pp. 372-384.

Zhang Y., A criterion for the fragmentation of bubbly magma based on brittle failure theory, Nature, v. 402, 1999,pp. 648 – 650.

Tammann G. Kristallisieren u. Schmelzen, Leipzig, 1903; Die Aggregatzustände, Leipzig, 1922.

Akasofu S.-I., S. Chapman. SolarTerrestrial Physics. Part I. Oxford, Clarendon Press, 1972.

Eddington A. S. The internal constitution of the stars. Cambridge Univ. Press, London, 1926.

Hinterreger H. E. J. Atmosp. Terr. Phys., v. 38, 1976, p. 791.

Manson J. E. Solar specter between 10 and 300 Å. In book: The Solar Output and itsvariation. Colorado Associated University Press, Boulder, 1976 (pp. 287-312 Russian ed., 1980).

Dorman L. I. Cosmic Rays Variations and Study of Cosmos. North-Holland, Amsterdam, 1974.

Neher H., AndersonV. Cosmic rays of balloon altitudes and the solar cycle. J. Geophys. Res., v. 67, N 4, 1962, pp. 1301-1315.

Kulebakin V. G. Apply mechanic-chemistry in hydro-metallurgic processes. Novosibirsk: Nauka, SO AN SSSR, Inst. Gorn. Dela, 1988, 272 c.

Moffatt H. K. Magnetic field generation in electrically conducting fluids. Cambridge: Cambridge University Press. London-New York-Melbourne, 1978, pp. 344 (Russian ed.).

Spieler O., Kennedy B., Kueppers U., Dingwell D.B. et all. The fragmentation threshold of pyroclastic rocks. Earth and Planetary Sciences Letters, Sep. 30, 226 (1-2),2004, pp. 139-148.

Skripov V. P., Koverda V. P. Spontanous crystallization of super-cooled liquids. M.: Nauka, Gl. red.fiz.-mat. lit., 1984, 232 p.

Leppert G., Boiling P.K. Advances in Heat Transfer. Academic Press, New York –London, 1964, pp. 142-198.

Gvelesiani A. On the hierarchy of mesoscale vortexes in the turbulent media. Reports of Enlarged Session of the Seminar of I. Vekua Institute of Applied Mathematics, v. 27, 2013.

Neugebauer M. The three-dimensional solar wind at solar wind minimum. Reviews of Geophysics, v. 37, N 1/February, RG4001, 1999,pp. 107-127.

Parker E. N. The formation of sunspots from the solar toroidal field. Astrophys. J., v. 122, 1955, pp. 293-314.