There's a beautiful
presentation by Rupert Sheldrake that makes the case of "frequency resonance vibration" as underlying morphogenetic fields.
He presents his research on vibratory patterns in water using concepts of analog computers which model processes by creating processes, which are actually easier to understand than digital computing where you need to be a computer expert.
Sheldrake explains how analog computing is better for true phenomena and processes involving waves. He modelled waves because he thinks that that is the underlying processes in morphogenesis in biology, chemistry molecules, crystals, etc. in what he calls morphogenetic fields.
They're basically vibratory fields of activity, wavelike and rhythmic. And the way to understand better patterns of vibration is through analog model systems.
After a few historical examples, he explains how Michal Faraday discovered that if you vibrate water, you get patterns or ripples on the surface. And if you add vertical walls to the container where the water is located, these ripples or patterns are reflected, giving standing wave patterns which are now called Faraday waves. The science of Faraday Wave phenomena, is also popularly known as cymatics.
Nowadays, you can study Faraday waves with a CymaScope developed by John Stuart Reid and available
here. Other than water science, the CymaScope can be used to study blood, brain wave patterns, geology, music, etc.
It contains a coil that vibrates up and down, and there's a container where a small amount of fluid can be poured in. You can adjust the frequency and amplitude of the CymaScope, and these are some of the patterns obtained depending on the frequency and amplitude. It illustrates symmetry patterns and resonant frequencies:
Symmetrical patterns that you obtain from vibrating water, have distinct analogs in biological forms, like flowers, turtle shells, pollen grains, etc. You can find these patterns in art as well:
Sheldrake thinks morphogenetic fields are actually vibratory patterns, that the underlying morphogenetic process must depend on waves, wave patterns of some kind, possibly acoustic waves but more likely electrical wave patterns, within cell membranes. He thinks that body rhythms, like brainwaves, are best modeled by vibrating models such as the Cymascope.
Here's an example I obtained from the CymaScope website:
The CymaScope Pro instrument can make visible much of the electrical activity of the brain via recorded electroencephalograph signals. The frequency of such signals ranges from as low as 0.1Hz for the Delta range, and up to 40Hz for the Gamma range. The CymaScope bandwidth begins at 3Hz, which covers part of the Delta range, and can image all frequencies in the Theta range, Alpha range, Beta range and Gamma range.
If I had the time and energy, I could come up with a few experiments using the CymaScopePro....
And here are examples of analog liquid computers that they used in the 20th century, of which there are a few models in existence, the only thing that will keep working in case of an EMP catastrophe:
https://royalsocietypublishing.org/doi/epdf/10.1098/rstb.2018.0372
en.wikipedia.org
Here's Sheldrake's full presentation:
