H-O bond resonsance effects

[lostmente]

Molecular bonds within a molecule are not stationary, not static.

They bend, flex and twist...this actually gives rise to some of the more interesting properties that we see in neurotransmitters...a sort of extra dimension of information transfer.

These bonds, are also open to resonance effects.

I put it that water molecules adequately close to higher frequency and higher energy vibration of a similarly proportional object (say a molecular magnet) could be entrained so the H-O bonds begin to vibrate, eventually resonance could set in and the H-O bond will only in a matter of time have to break.

Perhaps this is the effect seen with electric fields and electrolysis but the majority of what I have seen has been very trial and error, the water molecule is more than large enough to be equated to a mechanical object...as such it is pretty easy to calculate the requirements for the resonance of the bonds...and if you have that, you can quickly find a suitable reference material.

Molecular magnets are good because well, they are molecules. Also, you can indirectly set their vibrations using an oscillating magnetic field...almost instaneously.

Ferro-fluid is well known for its fast reaction to alternating fields.

[Creativity]

so do u propose any particulair frequency(calculation)?Water will both react to a magnetic and electric field if u r willing to do some calculations it may inspire somone to try it out.

[Yucca]

42.8kHz:
http://www.keelynet.com/energy/docx.htm

Suddenly, with no warning whatever the water disappeared from the open quartz tube. He looked up thinking to see the water splashed on the ceiling when to his amazement a clean hole went right through the ceiling. The hole was the same size as the inside of the quartz tube.

[lostmente]

cool.

i was going to go for something like this

http://www.lsbu.ac.uk/water/vibrat.html

as I wasn't looking to dissociate water but the H-O bond

http://en.wikipedia.org/wiki/Water_absorption#Technical_explanation

http://en.wikipedia.org/wiki/Rovibrational_coupling

One day...

for std bond vibration, f=wavelength/velocity= 3*10^6[m/s] / 1.2*10^-6 [m] = 2.5Hz

The absorption feature centered near 970 nm is attributed to a 2V1 + V3 combination, the one near 1200 nm to a V1 + V2 + V3 combination, the one near 1450 nm to a V1 + V3 combination, and the one near 1950 nm to a V2 + V3 combination.[3]

[lostmente]

Idea being here tho that it at an exact octave of the frequency of bond vibration, one could transfere ALOT of energy. And with the entraining device (a molecule) being quite responsive then the effect of hydrogren bonding could be mitigated, esp by pushing down water clustering...like they do with salts in sports drinks (osmotic potential)