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The Comparison of the Bead Size Effect on the Two Wave Patterns Induced in One Reaction System


Abstract

We have studied the characteristic wave propagation in 1,4-CHD-Bromate-Ferroin reaction system and we have examined the bead size effect on the wave propagation of the system by adopting a half-divided Petri dish which is separated into two parts by the size of cation-exchange resin. It has been done to understand the reaction process inducing the characteristic wave behavior in the system. The characteristic wave behavior of the system is in the spontaneous induction of a revival wave with a long time lag. We have obtained a result that the revival wave is not affected by the size of catalyst-doped beads while the initially induced wave is influenced by the size of beads. It means that the two waves are induced by different reaction processes each other and the revival wave is induced by an uncatalyzed reaction process.

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References

  1. Elecktrochem. v.12 no.596 Luther, R.
  2. Science v.175 no.634 Winfree, A. T.
  3. Chemical Waves and Patterns Kapral, R.(eds.);Showalter, K.(eds.)
  4. Nature v.225 no.35 Zaikin, A. N.;Zhabotinsky, A. M.
  5. Oscillations and Traveling Waves in Chemical Systems Field, R. J.(eds.);Burger, M.(eds.)
  6. Nature v.355 no.349 Davidenko, J. M.;Pertsov, A. V.;Salmonsz, R.;Baxter, W.;Jalife, J.
  7. J. Cell. Sci. v.93 no.325 Siegert, F.;Weijer, C.
  8. Science v.252 no.23 Lechleiter, J.;Girard, S.;Peralta, E.;Clapham, D.
  9. J. Neurobiol. v.14 no.353 Gorelova, N. A.;Bures, J.
  10. Physica v.39 no.38 Agladze, K.;Krinsky, V. I.;Panfilov, A. V.;Linda, H.;Kuhnert, L.
  11. J. Phys. Chem. v.95 no.5831 Yamaguchi, T.;Kuhnert, L.;Nagy-Ungvarai, Zs.;Muller, S. C.;Hess, B.
  12. Physica D v.49 no.21 Maselko, J.;Showalter, K.
  13. Phys. Rev. E v.50 no.667 Munuzuri, A. P.;Innocenti, C.;Flessels, J. M.;Gilli, G. M.;Agladze, K.;Krinsky, V. I.
  14. J. Phys. Chem. v.100 no.13895 Agladze, K.;Aliev, R. R.;Yamuguchi, T.;Yoshikawa, K.
  15. Science v.264 no.1746 Agladze, K.;Keener, J. P.;Muller, S. C.;Panfilov, A.
  16. J. Phys. Chem. v.93 no.2774 Maselko, J.;Reckley, J. S.;Showalter, K.
  17. J. Phys. Chem. A v.102 no.7649 Yoshikawa, K.;Aihara, R.;Agladze, K.
  18. React. Kinet. Catal. Lett. Huh, D. S.;Choe, S. J.;Kim, M. S.
  19. React. Kinet. Catal. Lett. v.53 no.115 Kurin-Csorgei, K.;Szalai, I.;Molnar-Perl, I.;Koros, E.
  20. J. Phys. Chem. A v.101 no.6827 Kurin-Csorgei, K.;Zhabotinsky, A. M.;Orban, M.;Epstein, I. R.
  21. J. Phys. Chem. A v.104 no.5895 Manz, N.;Muller, S. C.;Steinbock, O.
  22. J. Am. Chem. Soc. v.94 no.8649 Field, R. L.;Koros, E.;Noyes, R. L.
  23. J. Phys. Chem. v.102 no.6892 Szalai, I.;Koros, E.

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