温室气体
可再生能源
燃烧
化石燃料
背景(考古学)
推进
可再生燃料
环境科学
碳足迹
工程类
废物管理
航空航天工程
古生物学
有机化学
化学
电气工程
生物
生态学
作者
Scott Curran,Angelo Onorati,Raúl Payri,Avinash Kumar Ágarwal,C. Arcoumanis,Choongsik Bae,Konstantinos Boulouchos,Flavio Dal Forno Chuahy,Manolis Gavaises,Gregory J. Hampson,Christian Hasse,Brian Kaul,Song‐Charng Kong,Dhananjay Kumar,Ricardo Novella,Apostolos Pesyridis,Rolf D. Reitz,Bianca Maria Vaglieco,Nicole Wermuth
标识
DOI:10.1177/14680874231187954
摘要
Shipping is one of the most efficient transportation modes for moving freight globally. International regulations concerning decarbonization and emission reduction goals drive rapid innovations to meet the 2030 and 2050 greenhouse gas reduction targets. The internal combustion engines used for marine vessels are among the most efficient energy conversion systems. Internal combustion engines dominate the propulsion system architectures for marine shipping, and current marine engines will continue to serve for several decades. However, to meet the aggressive goals of low-carbon-intensity shipping, there is an impetus for further efficiency improvement and achieving net zero greenhouse gas emissions. These factors drive the advancements in engine technologies, low-carbon fuels and fueling infrastructure, and emissions control systems. This editorial presents a perspective on the future of ship engines and the role of low-life cycle-carbon-fuels in decarbonizing the marine shipping sector. A selection of zero-carbon, net-zero carbon, and low-lifecycle-carbon-fuels are reviewed. This work focuses on the opportunities and challenges of displacing distillate fossil fuels for decarbonizing marine shipping. Enabling technologies such as next-generation air handling, fuel injection systems, and advanced combustion modes are discussed in the context of their role in the future of low-CO 2 intensity shipping.
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