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Engineering the Future of Clean, Healthy Lakes
Every clear lake protects more than water; it protects health, recreation, and the investments built around its shoreline.
Lake Robots for HAB Control
Autonomous Lake Robots That Prevent Blooms
Before They Become a CrisIs
Oxybot patrols your lake 24/7, detecting algae, bacteria, and nutrient hotspots before they become visible scums or health advisories. Through an electrophoresis-based innovation, it gently guides and gathers microscopic algae toward its intake, where a controlled release of aluminum—functioning as a smart, on‑board version of traditional alum—binds with the phosphorus that feeds harmful blooms and locks it out of circulation. This aluminum treatment chemistry emulates the proven success of landmark projects such as Lake Ketchum in Washington State, USA, where long‑term phosphorus reduction and clear‑water conditions have been achieved through aluminum‑based restoration.
Algae Bloom MITIGATION
We target algae before it blooms, helping to keep lakes clean and safe for communities, and lakefront property owners.
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Bacteria Control
We target harmful bacteria like E. coli, supporting efforts to ensure healthier water for swimmers and safer lakes for your community.
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Swimmer’s Itch Prevention
We target swimmer’s itch at its source, making lake water more comfortable and enjoyable for residents, visitors, and families.
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The Evolution of Oxybot
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Turning Lakes Into Climate Assets
AI‑Directed HAB Control
When oxygen drops and phosphorus accumulates in stratified basins, lakes flip from carbon sinks to powerful methane sources, amplifying climate impacts far beyond their surface area. Oxybot is designed to intervene directly in this chemistry by restoring oxygen, removing phosphorus by aluminum electrocoagulation, and stabilizing redox conditions so that sediments remain a long‑term sink rather than a source.
Through targeted nanobubble aeration and circulation cycles, Oxybot raises dissolved oxygen in critical bottom zones while its aluminum‑based electrochemical processes strip phosphorus at the molecular level and bind it into redox‑stable mineral phases. As oxygen returns, methanotrophic microbes consume methane before it escapes, bound phosphorus stays locked in the sediments, and clear‑water conditions become easier to maintain season after season.
Unlike dredging or broad‑scale chemical dosing, this robotic approach is continuous, autonomous, and evidence‑driven, responding to real‑time sensor data instead of fixed schedules. Each Oxybot unit turns a previously unmanaged basin into an actively controlled carbon, nutrient, and water‑quality system, offering one of the most accessible “low‑hanging fruit” opportunities for natural methane suppression and climate‑positive lake management.
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