21 Sep
Miracles of Water

THE FOURTH PHASE OF WATER Beyond Solid, Liquid, and Vapor

What mysteries lurk in the depths of a glass of water? What makes the wispy clouds of vapor rising from your cup of hot coffee? Or the puffy white clouds hovering in the sky? Why do the bubbles in your pop get bigger the longer you wait? What keeps Jell-O’s water from oozing out? Why does your tongue stick to something frozen? And why don’t your joints squeak? Questions such as those have remained unanswered not only because they have seemed complex, but also because they require that scientists pursue a politically risky domain of science: water research. Scientists trying to understand the “social behavior” of H20 do so at grave risk to their reputations and livelihoods because water science has suffered repeated fiascos. Water scientists have been virtually tarred and feathered.
Undaunted, one scientist has navigated the perils of water science by conducting dozens of simple, carefully controlled experiments and piecing together the first coherent account of water’s three dimensional structure and behavior.
Professor Pollack takes us on a fantastic voyage through water, showing us a hidden universe teeming with physical activity that provides answers so simple that any curious person can understand. In conversational prose, Pollack relentlessly documents just where some scientists may have gone wrong with their Byzantine theories, and instead lays a simple foundation for understanding how changes of water structure underlie most energetic transitions of form and motion on Earth.
Pollack invites us to open our eyes and re-experience our natural world, to take nothing for granted, and to reawaken our childhood dream of having things make sense.

GERALD H. POLLACK

EBNER & SONS PUBLISHERS
EBNERANDSONS.COM
SEATTLE WA, USA

05 Sep
Miracles of Water

The Miracle of Water

Masaru Emoto has photographed thousands of water crystals throughout his years of research, yet few have been as beautiful and life affirming as those formed from the words “love and gratitude.” In The Miracle of Water, Dr. Emoto demonstrates how water’s unique role in transporting the natural vibration of these words can help you welcome change and live a more positive and happy life.
When we speak positive words, we send out a special vibration to others. They in turn emit positive words and, as a result, we are touched by the energy of love and gratitude. Words expressed in kindness and compassion are certain to result in positive effects for the giver. As Emoto says: ‘If you shine a light on those around you with the words you use, you won’t ever have to walk in the dark again.’
This reflective, contemplative book explores water’s critical role in transporting ‘vibration information’ to the body, and what we can learn from water crystals. There are compelling insights on using the lessons of resonance to mend disharmonious relationships, restore health and bring positive energy into your life.

 Masaru Emoto

05 Sep
Miracles of Water, uncategorized post

Water Memory Due to Chains of Nano-Pearls

Biologically active molecules create substitutes in liquid water by forming single-domain ferroelectric crystallites. These nanoparticles are spherical and constitute growing chains. The dipoles are aligned, but can be set in oscillation at the frequency of vibration of the charged part of active molecules. They are then automatically trimmed and become information carriers. Moreover, they produce an oscillating electric field, causing autocatalytic multiplication of identical chains in the course of successive dilutions. Active molecules are thus only required to initiate this process. Normally, they excite their specific receptors by resonance, but trimmed chains have the same effect. This theory is confirmed by many measurements.

Auguste Meessen

Journal of Modern Physics, 2018, 9, 2657-2724
http://www.scirp.org/journal/jmp
ISSN Online: 2153-120X
ISSN Print: 2153-1196

05 Sep
Miracles of Water

The structural memory of water persists on a picosecond timescale

A team of scientists from the Max Planck Institute for Polymer Research (MPI-P) in Mainz, Germany and FOM Institute AMOLF in the Netherlands has characterized the local structural dynamics of liquid water, i.e. how quickly water molecules change their binding state. Using innovative ultrafast vibrational spectroscopies, the researchers show why liquid water is unique when compared to most other molecular liquids. This study has recently been published in the scientific journal Nature Communications.

With the help of a novel combination of ultrafast laser experiments, the scientists found that local structures persist in water for longer than a picosecond, a picosecond (ps) being one thousandth of one billionth of a second (10-12 s). This observation changes the general perception of water as a solvent. “71% of Earth’s surface is covered with water. As most chemical and biological reactions on earth occur in water or at the air water interface in oceans or in clouds, the details of how water behaves at the molecular level are crucial. Our results show that water cannot be treated as a continuum, but that specific local structures exist and are likely very important” says Mischa Bonn, director at the MPI-P.

Water is a very special liquid with extremely fast dynamics. Water molecules wiggle and jiggle on sub-picosecond timescales, which make them undistinguishable on this timescale. While the existence of very short-lived local structures — e.g. two water molecules that are very close to one another, or are very far apart from each other — is known to occur, it was commonly believed that they lose the memory of their local structure within less than 0.1 picoseconds.

The proof for relatively long-lived local structures in liquid water was obtained by measuring the vibrations of the Oxygen-Hydrogen (O-H) bonds in water. For this purpose the team of scientists used ultrafast infrared spectroscopy, particularly focusing on water molecules that are weakly (or strongly) hydrogen-bonded to their neighboring water molecules. The scientists found that the vibrations live much longer (up to about 1 ps) for water molecules with a large separation, than for those that are very close (down to 0.2 ps). In other words, the weakly bound water molecules remain weakly bound for a remarkably long time.

Max Planck Institute for Polymer Research