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Water Structure and Science, References 301 - 400

 

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  3. G. V. Andrievsky, M. V. Kosevich, O. M. Vovk, V. S. Shelkovsky and L. A. Vashchenko, On the production of an aqueous colloidal solution of fullerenes, Journal of Chemical Soicety Chemical Communications, 12 (1995) 1281-1282. G. V. Andrievsky, V. K. Klochkov, A. Bordyuh and G. I. Dovbeshko, Comparative analysis of two aqueous-colloidal solutions of C60 fullerene with help of FTIR reflectance and UV-Vis spectroscopy, Chemical Physics Letters, 364 (2002) 8-17; S. M. Andreev, D. D. Purgina, E. N. Bashkatova, A. V. Garshev, A. V. Maerle and M. R. Khaitov, Facile preparation of aqueous fullerene C60 nanodispersions, Nanotechnologies in Russia, 9 (2014) 369-379 first published in Rossiiskie Nanotekhnologii, 9 (2014). [Back]
  4. H. D. B. Jenkins and Y. Marcus, Viscosity B-coefficients of ions in solution, Chemical Reviews, 95 (1995) 2695-2724; Y. Marcus, The effect of complex anions on the structure of water, Journal of Solution Chemistry, 44 (2015) 2258–2265. [Back, 2]
  5. M. V. Korobov, E. B. Stukalin, N. I. Ivanova, N. V. Avramenko and G. V. Andrievsky, DSC study of C60 - water system : unexpected peaks. In: The exciting world of nanocages and nanotubes, P. V. Kamat, D. M. Guldi, and K. M. Kadish, Eds, Fullerenes 12 (2002) 799-814, The Electrochemical Society Inc., Pennington, NJ, USA. [Back]
  6. J. Havel and E. Högfeldt, Evaluation of water sorption equilibrium data on Dowex ion exchanger using WSLET-MINUIT program, Scripta Fac. Science Nat. Univ. Masaryk. Brun. 25 (1995) Chemistry, 73-84. [Back]
  7. Hi. Uedaira and Ha. Uedaira, Role of hydration of polyhydroxy compounds in biological systems, Cellular and Molecular Biology, 47 (2001) 823-829. [Back, 2]
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  9. E. Dickinson, Hydrocolloids at interfaces and the influence on the properties of dispersed systems, Food hydrocolloids 17 (2003) 25-39. [Back, 2, 3]
  10. A. H. Harvey, J. S. Gallagher and J. M. H. Levelt-Sengers, Revised formulation for the refractive index of water and steam as a function of wavelength, temperature and density, Journal of Physical Chemistry Reference Data, 27 (1998) 761-774. [Back, 2]
  11. R. Schmid, Recent advances in the description of the structure of water, the hydrophobic effect, and the like-dissolves-like rule, Monatsh. Chem. 132 (2001) 1295-1326. T. M. Truskett and K. A. Dill, Predicting water's phase diagram and liquid-state anomalies, Journal of Chemical Physics, 117 (2002) 5101-5104. [Back]
  12. Gyan Johari, Erwin Mayer, Andreas Hallbrucker and Thomas Loerting all propose that the glass transition point of water is 136 K. (a) G. P. Johari, G. Astl and E. Mayer, Enthalpy relaxation of glassy water, Journal of Chemical Physics, 92 (1990) 809-810. (b) G. P. Johari, Calorimetric features of high-enthalpy amorphous solids and glass-softening temperature of water, Journal of Physical Chemistry B 107 (2003) 9063-9070. (c) G. P. Johari, State of water at 136 K determined by its relaxation time Physical Chemistry Chemical Physics, 7 (2005) 1091-1095. (d) I. Kohl, L. Bachmann, E. Mayer, A. Hallbrucker and T. Loerting, Water behaviour: Glass transition in hyperquenched water?, Nature, 435 (2005) E1. (e) I. Kohl, L. Bachmann, A. Hallbrucker, E. Mayer, and T. Loerting, Liquid-like relaxation in hyperquenched water at <= 140 K, Physical Chemistry Chemical Physics, 7 (2005) 3210-3220 [Back]. However Austen Angell proposed 165 K (f) V. Velikov, S. Borick, C. A. Angell, The glass transition of water, based on hyperquenching experiments, Science, 294 (2001) 2335-2338. (g) D. D. Klug, Glassy water, Science, 294 (2001) 2305-2306, (h) C. A. Angell, Amorphous water, Annual Reviews of Physical Chemistry 55 (2004) 559-583. (i) Y. Yue and C. A. Angell, Clarifying the glass-transition behaviour of water by comparison with hyperquenched inorganic glasses, Nature, 427 (2004) 717 - 720. (j) Y. Yue and C. A. Angell, Water behaviour: Glass transition in hyperquenched water? (reply), Nature, 435 (2005) E1-E2. The dispute may not be over, see (k) P. Earis, The mysterious nature of water, Chemistry World, 2(4) (2005) 23. But 136 K appears most likely (S. Capaccioli and K. L. Ngai, Resolving the controversy on the glass transition temperature of water? J Chem Phys. 135(2011) 104504), see also [1005] and [1200]. Angell reconciles the different views: (l) C. A. Angell, Insights into phases of liquid water from study of its unusual glass-forming properties, Science, 319 (2008) 582-587, However, Jan Swenson and José Teixeira propose ≈ 228 K, (m) J. Swenson and J. Teixeira, The glass transition and relaxation behavior of bulk water and a possible relation to confined water, Journal of Chemical Physics,132 (2010) 014508, and McCartneyand Sadtchenko, propose ≈ 205 K using extrapolation from concentrated solutions of organic solutes, (n) S. A. McCartney and V. Sadtchenko, Fast scanning calorimetry studies of the glass transition in doped amorphous solid water: Evidence for the existence of a unique vicinal phase, Journal of Chemical Physics,138 (2013) 084501. (see also [2048]) [Back, 2]
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