Mechanical
Designing the lattice network of tiles to expand and retract such that they can capture energy from their relative motion in the water.
A reef protection system applying wave energy via a floating lattice to support electrochemical mineral accretion technology.
CSalt’s newest initiative addresses coral reef bleaching by combining wave energy, solar power, and mineral accretion technology into a single protective system.
The design centers on floating, expandable tiles equipped with solar panels. These tiles are intended to filter coral reefs from the sun’s harmful rays, a key driver of coral bleaching, while converting the motion of the waves into electrical power.
On the ocean floor, an electrochemical cage system uses low-voltage current generated by the system’s wave energy to stimulate mineral accretion.
By running electrical current through a special framework, the system encourages the natural growth of calcium carbonate and other minerals on the structure. The resulting limestone base is intended to provide habitat where coral can establish and grow.
Designing the lattice network of tiles to expand and retract such that they can capture energy from their relative motion in the water.
Researching mineral accretion, developing a lab-scale electrochemical system, and building an electric cage prototype.
Evaluating the economic value of coral reef ecosystems and identifying promising locations for future deployment.
Interviewing reef-affected communities and coral conservation experts while raising awareness and advocating for renewable energy solutions.
Coral Lattice will bring the tile, energy, electrochemistry, and community research streams together into an integrated concept. Our goal is to test the scientific and engineering foundations, learn directly from the people protecting reefs today, and shape a system that can meaningfully support coral resilience.
← Back to the project timelineValidate the technical, environmental, and community needs.
Build lab-scale tile, cage, and electrochemical systems.
Connect wave and solar generation to mineral accretion.
Assess performance and identify responsible deployment pathways.