At the Posidonia trade fair, classification society DNV awarded HD Hyundai Mipo an Approval in Principle(AiP) for the design of a new ammonia dual fuel feeder container vessel. The AiP is the result of a collaborative effort between HD Hyundai Mipo, WinGD, HD Hyundai Heavy Industries, Kangrim Heavy Industries, and DNV.
Ammonia continues to attract attention as a potential fuel for shipping as the industry steps up to tackle the International Maritime Organization's(IMO) greenhouse gas reduction strategy. When produced sustainably ammonia is a potential zero-carbon option but comes with several challenges, especially in terms of supply and the safety considerations required due to its toxicity.
Dongjin-Lee, Head of the Initial Design Division of HD Hyundai Mipo said: "Ammonia fuel is important as a means to achieve the IMO's 2050 carbon emission net zero target, but its toxicity makes safety a top priority. HD Hyundai Mipo has successfully delivered various world-first dual-fuel propulsion ships, including LNG, LPG, and methanol-powered vessels. Through our proven experience with dual fuel technology, we have developed this ammonia-powered container ship collaborate with partners. HD Hyundai Mipo has taken a significant step closer to ammonia-powered ships and the company is expected to lead a safer decarbonization trend."
The ammonia-powered feeder container ship features an engine developed by WinGD, a Swiss-based company, and manufactured by HD Hyundai Heavy Industries. The ship's ammonia fuel supply system and boiler are designed by HD Hyundai Heavy Industries and Kangrim Heavy Industries, respectively. To enhance the safety of the vessel, it utilizes AI technologies to apply autonomous navigation and video-based integrated safety control solutions. The video-based integrated safety control solution is a core technology for unmanned ships, featuring a real-time situation analysis and prediction system through CCTV monitoring of all hazardous areas on the vessel. The ship also features a Type C fuel tank to minimize the risk of leakage.