Klein, R.A. and Pacheco, V. (2001) Binary Diol-Water Systems Studied by 17O Nuclear Magnetic Resonance Spectroscopy. Interpretation of the Effect of Diol Structure on 17O-Water Chemical Shift. Formation of Networks of Water Molecules Stabilized by Weak C-HO Interactions. The Journal of Physical Chemistry A, 105, 9298-9304.
https://doi.org/10.1021/jp010470v

has been cited by the following article:

• TITLE: A Proton Nuclear Magnetic Resonance (1H NMR) Investigation of NaCl-Induced Phase Separation of Acetonitrile-Water Mixtures

  AUTHORS: Ruizhi Wen, Muqian Yu, Le Jiang, Lili Feng, Wenjie Deng, Bo Chen

  KEYWORDS: 1H NMR, NaCl, Phase Separation, Acetonitrile-Water Mixtures, Hydrogen Bond

  JOURNAL NAME: American Journal of Analytical Chemistry, Vol.8 No.10, October 27, 2017

  ABSTRACT: The microscopic properties of NaCl-induced phase separation of acetonitrile (ACN)-water mixtures have been studied by proton nuclear magnetic resonance (1H NMR). Acetonitrile-rich phase increases with increasing NaCl concentration (cNaCl) at xACN ≈ 0.25. 1H chemical shift of water for acetonitrile-rich phase rapidly decreases with decreasing NaCl mole concentration and that for water-rich phase quickly increases with increasing cNaCl. However, 1H chemical shift of acetonitrile has nothing to do with the molar concentration of NaCl, and it keeps relatively stable for all solutions (±0.002). These results reveal that Na+ and Cl- are rapidly hydrated by water, not by acetonitrile. The change of 1H chemical shift of water has shown that the number of hydrogen bond increases or hydrogen bond strengths with increasing NaCl molarity in mixtures. But hydrogen bond is broken or weaken with the temperature rising. 1H chemical shifts of pure water and the water in acetonitrile-rich phase have been investigated at 293 K, 298 K and 303 K. The hydration number of Na+ (6.05) in water-rich phase is determined by an empirical equation involving 1H chemical shift, temperature and NaCl molarity, which is in good agreement with the literatures.