There is a similar strange occurrence to homeopathy in enzyme chemistry where an effectively
non-existent material still has a major effect; enzymes prepared in buffers of known pH retain (remember) those specific pH-dependent kinetic properties even when effectively dry; these molecules seemingly having an effect in their absence somewhat against common sense at the simplistic level. Water does store and transmit information, concerning solutes, by means of its hydrogen-bonded network.
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The original results [132] were, however, confirmed in a rather bizarre Nature paper purporting to prove the opposite [346b],c and have been recently comprehensively confirmed by a blinded multi-center trial [346a
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Working hypothesis for homeopathic effect
A further consideration about 'the memory of water' is that the popular understanding concerning how homeopathic preparations may work not only requires this memory but also requires that this memory be amplified during the dilution; this amplification, necessitated by the increase in efficacy with extensive dilution, being even harder to explain. Samal and Geckeler have published an interesting, if controversial, paper [272] concerning the effect of dilution on some molecules. They found that some molecules form larger clusters on dilution rather than the smaller clusters thermodynamically expected
http://www.lsbu.ac.uk/water/homeop.html#500
JamesM wrote:
Reference 500c is:
"Thermoluminescence of deuterated amorphous and crystalline ices"
Louis Rey
Radiation Physics and Chemistry, 2005, 72, 587-594.
This hardly seems like a recantation. But I must admit to being at a loss as to how the above paper supports the "trace material" argument.
the reason it hardly seems like a recantation is because that is the way scientists are --- they try and save face.
If you read these papers in his bibliography you will see that he no longer accepts the contamination theory.
(b) L. R. Milgrom, The memory of water regained? Homeopathy 92 (2003) 223-224. (c) L. Rey, Thermoluminescence of deuterated amorphous and crystalline ices, Radiation Phys. Chem. 72 (2005) 587-594. [Back]