q.wave is already installed and running — on farms, in greenhouses, on golf courses, and across industrial water systems. Every case here comes from a real, working installation.
Real sites. Real operating conditions. Real observations.
The same q.wave technology runs on farms, in ponds, in homes, on golf courses, in industrial systems, and in concrete and ready-mix production. Here's what's been observed and reported at each one.
No chemicals added. No heat. Just intelligent water conditioning that adapts as water flows.
One Platform. Different Water. Different Possibilities.
Results vary by water source, site conditions, system design, and application. Performance statements should be considered in the context of each individual installation, and are not presented as controlled comparative results.
Chamoe (Korean melon) is popular in Korea but notoriously hard to bring to full sweetness. This is a 2025 case of q.wave applied at a hands-on agritourism farm on Ganghwa Island.
After using q.wave conditioned water for irrigation, the melons grew to a large and uniform size, with well-defined ridges and even color. Most notably, the sweetness observed on site was especially impressive. Because chamoe is a high-demand crop where sweetness is the key challenge, this stands as a strong reference case for how q.wave can help in the field.
What the grower observed after introducing q.wave into the irrigation system.
Before q.wave, the grower described difficulty keeping the irrigation basin clean and managing the crop.
After q.wave was introduced, the grower reported that irrigation-basin water quality and plant development looked better than before, with more uniform cucumbers.
Over the same period, the farm operated with about 20% less fertilizer input while reporting healthy development and a strong harvest.
Field observations reported by the grower at this installation. Results may vary depending on water source, crop, growing conditions, and farm management practices.
Across q.wave growing sites, we continue to observe how plants respond under real farming conditions. From roots and foliage to fruit size, color, and texture, each site adds another piece to the story.

Thicker leaves, deeper green color, and more uniform growth were observed.

More vivid color, firmer texture, and consistent fruit development were observed.

Plants irrigated with q.wave-conditioned water showed thicker, denser root development in this comparison.

More uniform fruit size and elongated growth were observed.

Growers reported improved color, sweetness, texture, and fuller fruit development.

Vivid color, firm texture, and consistent fruit development were observed.

Thicker, more developed root structures were observed at harvest.

Larger, firmer bulbs were observed at harvest.

Dense fruit clusters, consistent color, and uniform development were observed.

Fuller clusters with consistent fruit size and even ripening were observed.
These images reflect observations from individual growing sites. Results may vary depending on crop variety, water source, soil, climate, and growing conditions.
| Crop | Field Observations |
|---|---|
| Cucumber (Greenhouse) | Grower reported better irrigation-basin water quality and more uniform fruit; about 20% less fertilizer input at this site |
| Lettuce (Hydroponic) | Thicker leaves, deeper green color, and more uniform growth observed |
| Strawberry | More vivid color, firmer texture, and consistent fruit development observed |
| Root Development | Thicker, denser root development observed in the comparison |
| Chili Pepper | More uniform fruit size and elongated growth observed |
| Cherry | Growers reported improved color, sweetness, texture, and fuller fruit development |
| Bell Pepper | Vivid color, firm texture, and consistent fruit development observed |
| Ginseng & Codonopsis | Thicker, more developed root structures observed at harvest |
| Garlic | Larger, firmer bulbs observed at harvest |
| Cherry Tomato | Dense fruit clusters, consistent color, and uniform development observed |
| Shine Muscat | Fuller clusters with consistent fruit size and even ripening observed |
These observations are specific to individual growing sites and are not presented as controlled comparative results unless otherwise noted. Results may vary depending on crop variety, water source, soil, climate, growing practices, and site conditions.
This approximately 40-acre vegetable farm grows cabbage, peppers, and zucchini using groundwater supplied from a central well.
q.wave was integrated into the farm's existing 6-inch PVC irrigation line, with the sensing system, signal coil, and Independent Earth Ground configured for the site. The system is powered entirely by solar energy, allowing q.wave to operate independently of grid power.
The off-grid power system allows q.wave to operate continuously in remote agricultural environments where conventional electrical infrastructure may not be readily available.
This large agricultural operation covers approximately 1,800 acres and operates around 30 individual irrigation zones.
As the first stage of a broader deployment, q.wave was installed on a 4-inch irrigation line serving approximately 40 acres, where cabbage and radish are grown using groundwater. The installation provides a practical starting point for evaluating q.wave within an existing large-scale irrigation infrastructure before expanding to additional zones.
Start with one zone.
Build for the whole farm.
Beyond irrigation, q.wave was also applied to the water used in the post-harvest Washing & Cooling process.


Muan Park pond, Miryang, Korea. These photos were taken 14 days after q.wave was installed. Over that period, the site manager reported that the pond's surface condition and odor looked better than before. Pond conditions are affected by weather, water temperature, source water, biological activity, and circulation; this is an observation, not a controlled comparison.


A private pond in Yeoju, Korea. These photos were taken 3 days after q.wave was installed. Over that period, the owner reported that water clarity looked better than before. Pond conditions depend on many factors including weather, temperature, source water, and circulation; this is an observation, not a controlled comparison.
Field observations from individual pond installations. Changes in pond conditions can be influenced by weather, temperature, water source, biological activity, circulation, and other site conditions.
Pool case studies are currently in progress at additional sites, and this section will be updated as results become available.
q.wave is working with the University of Central Florida (UCF) on a controlled research program to better understand how q.wave-conditioned water performs under defined operating conditions.
The study focuses on mineral scale behavior in a controlled water-loop system, comparing treated and untreated conditions over time.
The goal is to move beyond field observations and build a clearer, data-based understanding of q.wave technology through structured university research.
From field observations to controlled research —
building a deeper understanding of how q.wave works.
q.wave has been applied to golf course ponds and irrigation systems in Korea, supporting water management from the water source to the turf. Course staff reported clearer, more stable pond conditions and easier irrigation management over the period — site reports, not controlled comparisons.
Pond Water · Irrigation · Turf Management

Following q.wave installation, course staff reported that pond surface condition and odor looked better than before, with clearer, more stable pond conditions. Pond conditions depend on many factors; this is a site report, not a controlled comparison.
Site reports: Better surface condition · Less odor · Clearer pond water

q.wave was applied across the course's pond and irrigation system, extending water conditioning from the water source to the turf. Course staff reported clearer, more stable pond conditions over the period.
Observed: Clearer Pond Water · Cleaner Irrigation Conditions · More Uniform Turf
Different courses. Different water conditions.
The same focus: better water management from pond to turf.
q.wave applications for concrete and ready-mix water are currently being explored. Case studies will be added as field data on hydration, curing, and concrete performance becomes available.
Water plays a different role in every industry — growing crops, transferring heat, supporting hydration, or keeping systems operating efficiently. q.wave applies the same core approach to each: sense the water, adapt the signal, and condition it as it flows.
Different applications. Same intelligent approach to water.



