Lost in Ocean is a groundbreaking mission by us to revolutionize ocean exploration. By deploying a smart network of underwater stations, powered by solar energy and advanced technology, it supports AUVs with wireless charging and data transfer—making deep-sea mapping faster, safer, and more sustainable for our planet’s future.
Dive In
Mapping the ocean floor is a costly and complex challenge, with nearly half of U.S. waters still unmapped. Traditional methods using sonar and ROVs are expensive, require specialized crews, and are prone to failure in harsh underwater conditions. A notable example is NOAA’s 2017 Deep Discoverer mission, which suffered a cable failure and cost over $146,000 to recover. These high costs and risks limit deep-sea exploration, slowing efforts to understand marine ecosystems, manage resources, and address environmental threats. Without more efficient and affordable solutions, vast ocean regions remain unexplored, hindering scientific progress and our ability to protect underwater environments.
Our Project introduces a network of underwater support stations to revolutionize seafloor mapping. These stations act as rest points for AUVs, offering wireless power recharging, data transfer via acoustic communication, and docking support. Built from durable HY-80 steel and powered by solar energy, the stations are strategically placed 35 km apart at various depths to ensure AUVs always remain supported. A dynamic winch system allows solar panels to surface for energy collection. This scalable, sustainable solution reduces dependence on costly ships, enhances exploration efficiency, and enables long-term, autonomous deep-sea missions in a more affordable, eco-friendly way.
Our project has the potential to transform ocean exploration. By making seafloor mapping more accessible, efficient, and affordable, it supports critical research in marine biodiversity, climate change, and underwater resource management. The autonomous station network reduces the need for expensive ship-based missions, lowers operational risks, and promotes sustainable practices through solar energy. It empowers scientists, conservationists, and policymakers with better data to protect marine ecosystems. Globally scalable and environmentally friendly, this innovation brings us closer to fully understanding and preserving the oceans—bridging the gap between advanced technology and the urgent need for ocean conservation.
Seafloor mapping is vital for understanding marine ecosystems, yet nearly half of U.S. waters remain unmapped due to high costs, technical limitations, and harsh underwater conditions. Traditional methods using ROVs and sonar systems are expensive, require specialized crews, and are vulnerable to failure, slowing global efforts in ocean exploration and conservation.
In our project, the solar panel system powers the underwater stations by generating clean energy, enabling AUV recharging, data transfer, and continuous station operation without fuel.
Flexible umbilical cables were used to raise and lower solar panels, transfer data, and provide power by allowing flexibility and durability in harsh underwater environments, so the mission could last longer.
Our Station consits of two parts, the upper one with the solar panels, and the base with everthing else, the upper part will be raised through this whinch, and will be connected to the flexiable umbilical cable.
Acoustic communication is a method were the data is transfered from it's data form to sound waves, then it's sent to the receiver and transfered back to it's original form, this methon is effecient and doesn't need any cables which helps our project goal.
Under Water Wireless Power Transmission or UWPT the technology were we charge the AUV so it's mission can last longer.
The whole project idea is about this, about the 40 km apart stations were we charge the AUVs through UWPT, receive data through acoustic communication and act like the AUVs home.
Enables continuous deep-sea exploration by supporting long AUV missions without needing to surface.
Reduces operational costs by replacing fuel-based systems with solar-powered stations.
Promotes sustainability through the use of clean, renewable energy.
Improves data collection via wireless charging and underwater acoustic communication.
Minimizes reliance on costly research vessels and human crews.
Expands global seafloor mapping, helping close major knowledge gaps.
Supports marine conservation by providing more accurate environmental data.
Boosts scientific research in climate change, resource management, and biodiversity protection.