Water, Light, and Life: Presenting New Research at Aquaphotomics 2026
Water, light, and the quantum world—exploring a deeper connection to life.
I’ll share a theoretical framework and preliminary laboratory findings exploring how electromagnetic environments could influence water’s molecular organization—and why that matters for biology.
Water surrounds and supports the machinery of life. But could its interaction with electromagnetic fields play a deeper role in how that machinery functions?
Director of Biophysics Research, ISF
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As Director of Biophysics Research at the International Space Federation (ISF), I’ll explore this question at the 4th European Aquaphotomics Conference, taking place 23–26 September 2026 at the Kaneff Centre, University of Ruse “Angel Kanchev,” in Ruse, Bulgaria. See the conference announcement.
My presentation will bring together a physical model of water–field interactions and an early look at experimental findings from ISF’s research program.
When water and light respond together
At the heart of the work is a compelling possibility: water’s electromagnetic surroundings may influence how its molecules respond together, with consequences for the network of hydrogen bonds connecting them.
In specially designed optical cavities, molecular vibrations and infrared light can become sufficiently coupled to form hybrid light–matter states called vibrational polaritons. Experiments with water have mapped this transition. Our research at ISF asks how related interactions might influence water in other environments, including the complex interfaces found within living cells.
In our latest paper (to be published in the conference proceedings), Nassim Haramein and I develop a framework for understanding this mutual interaction. An electromagnetic field influences water’s molecular polarization; the responding water, in turn, changes the field acting upon it. An idealized, externally powered resonator illustrates how this feedback can alter the collective vibrational response.
The framework also accounts for quantum fluctuations—the electromagnetic fluctuations present even when a field mode contains no photons. Material boundaries shape that electromagnetic environment, while the powered source supplies the external excitation in the illustrative model.
Why the biological connection matters
Proteins and membranes operate in intimate contact with water. Changes in the organization of that surrounding water could influence the conditions under which biological molecules change shape and function. Investigating that connection is a central goal of our research.
Energized membranes, including those within mitochondria, motivate the question: could their distinctive interfaces support an appreciably modified water response? The paper uses this biological setting to define a research direction, with the optical conditions still to be established.
A first look inside the laboratory
I’ll also share preliminary near-infrared measurements of a seawater-derived saline solution before and after electromagnetic treatment. Both sample pairs showed a similar pattern of spectral changes after baseline and scaling correction, consistent with a greater contribution from more extensively hydrogen-bonded water environments.
These observations give the proposed structural interpretation an experimental starting point. Aquaphotomics examines such patterns across water’s absorption bands, which provide clues to its molecular environment.
The findings are exploratory, but they provide a measurable response for future experiments to investigate.
By bringing electromagnetic theory into conversation with aquaphotomics, I hope to offer a glimpse into our ongoing investigation at ISF of the relationship between water, physical fields, and biological organization.
Join me in Ruse. Explore the conference and registration information.
