Non-Markovian Processes in Cement Systems
Abstract
Non-Markovian processes occur in nature in the form of the structural organization laws of space-time objects at different scale levels. Non-Markovian processes preserve the memory of the past state of the system and its further evolution is largely predetermined by information about previous stages of development. This is typical for solid-phase processes, ceramics, metals and alloys, water and aqueous solutions, and other inorganic objects. Non-Markovian process indicators are harmonious integers of nature, Fibonacci numbers and the golden proportion. The paper presents evidence of non-Markovian process occurred in cement systems. It is shown that during the formation of fine crystalline structure the cement system is capable to produce such elements and generate a low-frequency current, which simulates the intensity and duration of the processes. It is shown that the active phase of self-organization in cement systems is of temporary nature as the energy from outside sources is limited.
About the Authors
Yuri S. Sarkisov
Tomsk State University of Architecture and Building
Russian Federation
Russian Federation
DSc, Professor,
2, Solyanaya Sq., 634003, Tomsk
Nikolai P. Gorlenko
Tomsk State University of Architecture and Building
Russian Federation
Russian Federation
DSc, Professor,
2, Solyanaya Sq., 634003, Tomsk
Tatiana S. Shepelenko
Tomsk State University of Architecture and Building
Russian Federation
Russian Federation
PhD, A/Professor,
2, Solyanaya Sq., 634003, Tomsk
Olga A. Zubkova
Tomsk State University of Architecture and Building
Russian Federation
Russian Federation
PhD, A/Professor,
2, Solyanaya Sq., 634003, Tomsk
Marina Yu. Shevchenko
Tomsk State University of Architecture and Building
Russian Federation
Russian Federation
Student,
2, Solyanaya Sq., 634003, Tomsk
References
1. Filosofiya nauki. Formirovanie sovremennoi estestvennonauchnoi paradigm [Philosophy of science. Formation of the modern natural science paradigm]. 2001. No. 7. 270 p. (rus)
2. Shcherbakov A.S. Samoorganizatsiya materii v nezhivoi prirode. Filosovskie aspekty v sinergetike [Self-organization of matter in inorganic nature. Philosophical aspects in synergy]. Moscow: MSU Publ., 1990. 105 p. (rus)
3. Roulier C.F. Izbrannye biologicheskie proizvedeniya [Selected papers on biology]. Moscow: USSR Academy of Sciences Publ., 1954. 78 p. (rus)
4. Krushakov A.A. Universal'naya paradigma ekologii [Universal ecology paradigm]. Filosofiya nauki. Formirovanie sovremennoi estestvennonauchnoi paradigm [Philosophy of science. Formation of the modern natural science paradigm]. 2001. No. 7. Pp. 124–128. (rus)
5. Shelepin L.A. Stanovlenie novoi paradigmy [Formation of a new paradigm]. Filosofiya nauki. Formirovanie sovremennoi estestvennonauchnoi paradigm [Philosophy of science. Formation of the modern natural science paradigm]. 2001. No. 7. Pp. 24–43. (rus)
6. Knyazeva E.N., Kurdyumov S.P. Zhizn' nezhivogo s tochki zreniya sinergetiki [Life of nonliving matter in terms of synergy]. Filosofiya i sinergetika. 2016. 6 p. (rus)
7. Dobrocheev O.V. Neustoichivoe razvitie kollektivnykh sistem fiziko-khimicheskoi, biologicheskoi i sotsial'noi prirody [Unsustainable development of collective systems of physicochemical, biological and social nature]. Zhurnal Ross. Khim. Ob-va im D.I. Mendeleeva [Mendeleev Chemistry Journal]. 1995. V. 39. No. 2. Pp. 48–54. (rus)
8. Oleinikov N.N. Effekt topokhimicheskoi pamyati: priroda i rol' v sinteze tverdofazovykh veshchestv i materialov [Effect topochemical memory: the nature and role in the synthesis of solidphase compounds and materials]. Zhurnal Ross. Khim. Ob-va im D.I. Mendeleeva [Mendeleev Chemistry Journal]. 1995. V. 39. No. 2. Pp. 86–93. (rus)
9. Legasov V.A., Oleinikov N.N., Tret'yakov Yu.D. Problemy gibkosti v tekhnologii keramicheskikh materialov [Problems of flexibility in ceramic material technology]. Zhurnal neorganicheskoi khimii [Russian Journal of Inorganic Chemistry]. 1986. V. 31. No. 7. Рp. 1637–1643. (rus)
10. West A.R. Khimiya tverdogo tela [Solid State Chemistry and Its Applications. Pt. I]. Moscow: Mir Publ., 1998. 555 p. (transl. from Engl.)
11. Soroko E.M. Strukturnaya garmoniya sistem [Structural harmony of systems]. Minsk: Nauka i tekhnika Publ., 1984. 264 p. (rus)
12. Kozlov G.V. Strukturnaya pamyat' makromolekulyarnogo klubka poliarilatov: fraktal'nyi analiz [Structural memory of macromolecular polyarylate cluster: fractal analysis]. Proc. 17th Mendeleev Forum on General and Applied Chemistry. Moscow, 2007. Pp. 175–179. (rus)
13. Lobyshev V.I. Voda kak sensor slabykh vozdeistvii fizicheskoi i khimicheskoi prirody [Water as a sensor of weak influences the physical and chemical nature]. Zhurnal Ross. Khim. Ob-va im D.I. Mendeleeva [Mendeleev Chemistry Journal]. 2007. V. 11. No. 1. Pp. 107–111. (rus)
14. Shandako S.D., Kosobutskii A.V., Sevast'yanov O.G., Lomakin M.V., Sarkisov Yu.S., Sarkisov D.Yu. Opticheskie svoistva plenok na osnove nanotrubok v infrakrasnom i teragertsevom diapazone spektra [Optical properties of nanotube films in infrared and terahertz spectral range]. Izvestiya vuzov. Fizika [Russian Physics Journal]. 2016. V.59. No. 5. Pp. 130–132. (rus)
15. Bezrukov O.V. Voda v biologicheskikh sistemakh i ikh komponentakh [Water in biological systems and components]. Leningrad: LSU Publ., 1983. 172 p. (rus)
16. Ivanitskii G.R., Deev A.A., Khizhnyak E.P. Mozhet li sushchestvovat' dolgovremennaya strukturnodinamicheskaya pamyat' vody? [Can there be a long-term structural and dynamic memory of water?]. Uspekhi fizicheskikh nauk [Physics – Uspekhi]. 2014. V. 184. Pp. 43–74. (rus)
17. Aksenov S.I. Voda i ee rol' v regulyatsii biologicheskikh protsessov [Water and its role in regulation of biological processes]. Moskva-Izhevsk: Institut komp'yuternykh issledovanii, 2004. 212 p. (rus)
18. Presman A.S. Elektromagnitnye polya i zhivaya priroda [Electromagnetic fields and wildlife]. Moscow: Nauka Publ., 1968. 228 p. (rus)
19. Devyatkov N.D., Goland M.B., Betskii O.V. Millimetrovye volny i ikh rol' v protsessakh zhiznedeyatel'nosti [Millimeter waves and their role in vital processes]. Moscow: Radio i svyaz', 1991. 168 p. (rus)
20. Levdikova T.L., Tsyganyuk Yu.I., Sarkisov Yu.S., Gorlenko N.P., Dunaevskii G.E. Kodirovannoe strukturoobrazovanie [Coded structure formation]. Izvestiya vuzov. Stroitel'stvo [News of Higher Educational Institutions. Construction]. 2003. No. 11. Pp. 51–55. (rus)
21. Sarkisov Yu.S., Kuznetsova T.V. Sinergetika i printsipy neravnovesnogo stroitel'nogo materialovedeniya [Synergetics and principles of non-equilibrium construction materials science]. Tekhnika i tekhnologiya silikatov. 2009. No. 4. Pp. 2–6. (rus)
22. Zhavoronkov M.M., Nekhoroshev A.V., Gusev B.V. Svoistvo kolloidnykh sistem generirovat' nizkochastotnyi peremennyi tok [Colloidal system property to generate low-frequency alternating current]. Proc. USSR Academy of Sciences (Doklady Akademii Nauk). 1983. V. 270. No. 1. Pp. 114–128. (rus)
23. Smirnov A.N. Generatsiya akusticheskikh kolebanii v khimicheskikh reaktsiyakh i fizikokhimicheskikh protsessakh [Generation of acoustic oscillations in chemical reactions and physical-chemical processes]. Zhurnal Ross. Khim. Ob-va im D.I. Mendeleeva [Mendeleev Chemistry Journal]. 2000. No. 3. Pp. 29–34. (rus)
24. Andreev A.N., Kulevskii L.A. Modelirovanie effekta generirovaniya elektrich-eskogo signala v vode pod deistviem lazernogo izlucheniya [Simulation of elec-trical signal generation in water under laser radiation]. Prikladnaya fizika [Ap-plied Physics]. 2008. No. 4. Pp. 30–31. (rus)
25. Gorlenko N.P., Sarkisov Yu.S., Kuznetsova T.V. Generatsiya sobstvennykh nizkochastotnykh kolebanii v sisteme „tsement–voda‟ [Low eigenfrequency generated by cement-water system]. Tekhnika i tekhnologiya silikatov. 2004. No. 1. Pp. 14–20. (rus)
26. Barkevich S.Ya. Kletochnye avtomaty kak model' real'nosti novykh predstavlenii fizicheskikh i informatsionnykh protsessov [Cellular automation as real model of new ideas on physical and information processes]. Moscow: MSU Publ., 1993. 112 p. (rus)
27. Shipitsyn E.V., Popkov V.V. Dvoistvennost' i zolotoe sechenie v termodinamike [Duality and golden section in thermodynamics]. Vestnik mezhdunarodnogo instituta Bogdanova. 2001. No. 7. Available at : www.ephes.ru (rus)
28. Klyuikov S.F. Chisla i poznanie mira [Numbers and knowledge of the world]. Mariupol': InformMenyu Publ., 1997. 112 p. (rus)
29. Feigenbau M. Universal'nost' v povedenii nelineinykh sistem [Versatility in be-havior of nonlinear systems]. Uspekhi fizicheskikh nauk [Physics – Uspekhi]. 1983. V. 41. No. 2. Pp. 343–374. (rus)
30. Belintsev B.N. Samoorganizatsiya i razvitie zarodysha [Self-organization and embryogenesis]. Priroda. 1989. No. 2. Pp. 81–89. (rus)
31. Petrovskii V.A. Znachenie dokriticheskoi stadii v kinetike zarozhdeniya tsentrov kristallizatsii [The critical step in the kinetics of nucleation]. Zhurnal Ross. Khim. Ob-va im D.I. Mendeleeva [Mendeleev Chemistry Journal]. 1983. T. 57. No. 8. Pp. 2575–2578. (rus)
32. Haken H. Sinergetika [Synergetics]. Moscow: Mir Publ., 1980. 404 p. (transl. from Engl.)
33. Rebane K.K. Energiya, entropiya, sreda obitaniya [Energy, entropy, environ-ment]. Moscow: Znanie Publ., 1985. 64 p. (rus)
34. Ol'chak A.S. O vozmozhnosti svyazi fundamental'nykh konstant fiziki: postoyannoi tonkoi struktury i postoyannoi Feigenbauma [Possible communication between fundamental constants of physics: fine structure and Feigenbaum constants]. Estestvennye i tekhnicheskie nauki [Natural and Technical Sciences]. 2009. No. 2. Pp.19–21. (rus)
Review
For citations:
Sarkisov Yu.S., Gorlenko N.P., Shepelenko T.S., Zubkova O.A., Shevchenko M.Yu. Non-Markovian Processes in Cement Systems. Vestnik of Tomsk state university of architecture and building. 2017;(1):134-143. (In Russ.)
Views:
570
Email this article 