Landing a drone on a moving ship is one of the hardest problems in unmanned aviation. WaiV Robotics built a system that does it autonomously, without touching the drone itself.
Drones have become a standard tool across the energy sector, handling pipeline inspections, flare stack monitoring and offshore platform surveys with growing efficiency. Yet one obstacle has kept maritime operators from fully integrating UAVs into their workflows: getting the drone back on the boat in one piece. At the 10th Annual Energy Drone & Robotics Summit, held June 22–24, 2026, at the Woodlands Waterway Marriott in Houston, WaiV Robotics founder Johnny Carni sat down with Autonomy Global to explain how his company built a solution to a problem that had no answer in the market.
The Physics of the Problem
A drone in flight operates on GPS and gravity, two predictable forces that make autonomous flight relatively straightforward. A vessel at sea operates on none of those terms. The deck pitches, rolls and yaws continuously. And the motion is stochastic, meaning no algorithm can predict it perfectly in advance. Bringing a GPS-stabilized aircraft down onto a surface that moves in six degrees of freedom simultaneously presents a serious systems engineering problem. For years the industry simply worked around it by limiting offshore drone flights to calm weather windows.
Carni saw this gap firsthand during his career as an electrical engineer working on EO/IR equipment and UAV program management, and later during four years based in Singapore where offshore clients explicitly asked him for a landing solution that did not yet exist. Five years ago, he and his team started building one.
What the WR15 Actually Does
WaiV’s system, called the WR15, is a deck-mounted autonomous landing platform rated for drones up to 15 kilograms. The name itself reflects the spec: WAIV Robotics 15, for the maximum drone weight in kilograms the system currently supports. Three core engineering decisions define how it works.
First, the landing pad maintains a level, horizontal surface regardless of vessel motion. Gyro-stabilization on its own is not novel, and Carni was direct about that. What differentiates the WR15 is what happens at the moment of contact and immediately after (see point #3 below).
Second, the pad uses a specialized impact-absorption cushion designed specifically for maritime recovery. On land, a drone approaches slowly and settles gently. At sea, the drone must come in fast and hard, because any hesitation over a moving deck creates more risk, not less. The WR15 cushion absorbs that hard landing energy so the aircraft does not bounce back into the air.
Third, once the drone touches down, the system engages a vacuum-based locking mechanism that clamps onto the skids and holds the aircraft against any forces generated by the vessel’s continued motion. The lock engages at the moment of touchdown and releases only when commanded.
Autonomous Guidance Without Modifying the Drone
Perhaps most operationally significant, the WR15 guides the drone to touchdown. Radar, LiDAR or camera sensors on the landing pad continuously track the approaching aircraft, giving the onboard computer a precise, real-time position of the drone relative to the deck. The system then connects to the drone’s existing remote control interface and takes over flight inputs, steering the aircraft toward the pad as if a skilled pilot were on the sticks.
Crucially, this requires zero hardware or software modifications to the drone itself. WaiV simply adapts the communication protocol to each UAV type as needed. The system supports any VTOL platform, including multirotors, fixed-wing VTOLs and helicopter-style aircraft. A human pilot retains override authority by touching the control sticks, but the default recovery process runs end-to-end without human input.
The timing logic draws on an analogy Carni used to explain it. The system waits for the right moment to commit to touchdown the way a surfer reads a wave before dropping in. It hovers one meter above the deck, reads the vessel’s motion, identifies the optimal window and executes the landing. There is no go-around. When the signal comes, it commits.
Built for Energy Sector Offshore Operations And More
At the EDR Summit, Carni identified offshore inspection as the primary commercial target for the WR15. Energy operators running inspection programs on vessels, platforms and port infrastructure currently face a hard ceiling on where and when drone operations are feasible. The WR15 pushes that ceiling significantly by making drone recovery reliable in sea states that would otherwise ground the program.
The system can be installed on vessels as small as 10 meters. This brings mobile drone operations within reach of smaller support vessels and crew transfer boats, not just large platform supply ships. Installation takes approximately seven minutes once components are aboard. The system can be strapped or bolted to the deck, depending on operator preference. When not in use, it can be stowed to keep the working deck clear.
Seaport operators represent another market WaiV is actively pursuing. Port environments combine vessel traffic, variable weather and a need for persistent situational awareness across large areas. All of this aligns with what autonomous maritime drone recovery enables. Defense and other applications are also within the realm of possibility.
Reactions at the Summit
Carni described the response at the Summit as split between two groups. Operators who had already tried to build an offshore drone program and hit the recovery problem immediately recognized the WR15 as the solution they had been looking for. Those less familiar with maritime drone operations came away surprised by how specifically the system addressed a challenge they had not previously quantified.
The value proposition is clear. Offshore drone programs have stalled not because the drones lack capability, but because bringing them back reliably in operational sea states has remained an unsolved problem. A system that handles recovery autonomously, works with any compliant VTOL platform and deploys in minutes onto an existing vessel removes that barrier.
WaiV Robotics operates from both Manassas, Virginia, and the United Kingdom. More information and contact details are available at waivrobotics.com.