Hydrogen-bond relaxation dynamics: Resolving mysteries of water ice
arXiv:1809.01523 · doi:10.1016/j.ccr.2014.10.003
Abstract
We examined O:H-O bond relaxation under compression,heating,molecular undercoordination and claimed a universal resolution to the best-known mysteries of water ice such as ice foating, ice slipperiness, relegation and warm water cools faster. progress shows that O:H-O bond segmental disparity and O-O repulsivity form the soul dictating the extraordinary adaptivity, cooperativity, recoverability, and sensitivity of water and ice.
42 k words, 411 Refs, 65 figures, 10 tables
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- The generality of uncooperative and cooperative effects in elementary hydrogen-bonded systems
- Mpemba paradox: Hydrogen bond memory and water-skin supersolidity
- Regelation: why does ice melt under pressure?
- Anomalies of water nanobubbles and nanodroplets: molecular undercoordination
- Multifield phonon spectrometrics of structured liquid and solid crystals
- Elastic Coulomb-levitation: why is ice so slippery?