About Us

How We Got Here

In 2016, we began exploring controlled-environment agriculture, initially focusing on cannabis due to its rapid growth and the sophistication of its cultivation ecosystem. That industry provided a unique opportunity to study plant growth at a highly detailed level.

As we examined the many systems surrounding plant production - lighting, environmental controls, irrigation, nutrients, and monitoring - we noticed something important:
Very little attention was being paid to the role of water beyond simply delivering it.

Yet, at the most fundamental level, plant growth depends on three inputs:
light, carbon dioxide, and water.

Water, just 1% to 3% of total water uptake in the plant, is the only
source of the electrons that drive photosynthesis.
That realization led us down a path: a deep dive into water itself.

A Deeper Look at Water

Water is often treated as simple, but we learned it is one of the most complex and dynamic substances in nature, having over 70 anomalies. Scientific research continues to uncover surprising behaviors:

• The water-splitting reactions in photosynthesis that release the electrons powering plant growth
• Constantly shifting hydrogen-bond networks between molecules
• Structured regions near surfaces that can carry electrical charge
• Sensitivity to electrical and magnetic influences
• Phenomena such as sonoluminescence and water bridging

The more we learned, the clearer it became:

Water is not well understood. It is one of the least explored, least understood and least optimized variables in plant performance, yet it is absolutely central to plant growth.

This lack of clarity about water raised a different kind of question - could water itself be influenced to perform more effectively within the photosynthetic process?

The Question That Changed Everything

We began asking:

If water is the sole source of electrons in photosynthesis, could changing how water behaves influence how plants grow?

That question led to experimentation.

Drawing on prior experience with high-energy vaporization of metals, we developed a method of exposing water to controlled, high-energy conditions and then evaluated its effects in side-by-side plant trials.  We had surprising results, right out of the gate.

What We Observed

Initial testing in cannabis provided clear, measurable results:

• Larger root systems
• Thicker stems
• Increased flower production

But what mattered more was understanding why.

We knew that only a small fraction of water uptake - typically just 1–3% - is used in photosynthesis, where it provides the electrons that drive plant growth.

What became increasingly clear is that small changes in how that fraction behaves can have outsized effects on plant performance.

While we continue to study the underlying mechanisms, our working hypothesis is that influencing how water can participate in this early stage of photosynthesis may impact electron flow and, in turn, energy production.

Even more surprising - very small amounts of HydroTonics Water produced nearly the same results as using it exclusively.  Through repeated trials, we identified a practical working ratio of approximately 2% HTW to standard irrigation water.  At this level, HTW consistently delivered meaningful improvements in growth and yield.

From Crop Specific to Plant-Wide Insight

While cannabis provided an ideal testing environment, the underlying mechanism is not crop-specific.

Photosynthesis works the same way across all plants.

That means the same principles apply to:

• Root vegetables
• Leafy greens
• Fruited plants
• Herbs and microgreens
• Commercial and controlled-environment agriculture

What began as crop-specific experimentation has evolved into a broader application of HTW in photosynthesis to influence growth across all plant types.

What HydroTonics Does

Given observable results, HydroTonics is believed to participate in the earliest stage of photosynthesis - the point at which electrons are released and enter the plant’s energy system.

By supporting more effective participation of water under light, the hypothesis is that HydroTonics helps increase electron throughput, which in turn drives:

• Greater energy production
• More efficient conversion of CO₂
• Increased carbohydrate formation
• Stronger plant structure and yield