Hi Mike
That Power Point presentation is worth its weight in gold when it comes to summing up what we know and what we don't know. It brings together nicely all the issues we have about the gases.
I for one am leaning toward Rhode's Gas as being a combination of H2, O2, H, O, and HOH.
Let's face it, the water molecule would be in gaseous state if it were not for its bipolar arrangement. It makes a lot of sense then that adding energy could possibly alter the angle of hydrogen bonding to a point whereby it is far less likely to cluster. Afterall, it's only due to the clustering effect created by the hydrogen bonding that it remains liquid in the first place.
But then you have to ask, what role would a water molecule play during the combustion process. We know water is great for absorbing heat, but we must assume that the new form of water molecule is already energised greater than normal.
All very interesting stuff. I hope Eckman continues his work in this area.
Farrah
That Power Point presentation is worth its weight in gold when it comes to summing up what we know and what we don't know. It brings together nicely all the issues we have about the gases.
I for one am leaning toward Rhode's Gas as being a combination of H2, O2, H, O, and HOH.
Let's face it, the water molecule would be in gaseous state if it were not for its bipolar arrangement. It makes a lot of sense then that adding energy could possibly alter the angle of hydrogen bonding to a point whereby it is far less likely to cluster. Afterall, it's only due to the clustering effect created by the hydrogen bonding that it remains liquid in the first place.
But then you have to ask, what role would a water molecule play during the combustion process. We know water is great for absorbing heat, but we must assume that the new form of water molecule is already energised greater than normal.
All very interesting stuff. I hope Eckman continues his work in this area.
Farrah
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