Editorial of special issue of “International shipbuilding Progress” on Maritime Hydrogen

IF 0.6 Q4 ENGINEERING, MARINE
K. Visser, F. Baldi, L. V. Biert
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引用次数: 1

Abstract

As we write this editorial, the coronavirus has been declared a pandemic by the World Health Organization, and it is spreading at dramatic speed in parts of the world. It would be difficult not to relate the current situation to the climate emergency that we are also facing in this same moment. While the time scales are different, the basics of the phenomenon are similar: experts are repeating that it is a major threat, and that once it has started, it will be difficult, if not impossible, to stop it before it dramatically impacts our lives. As current effects are small and the costs of acting are high, most world leaders are stalling, waiting for others to make the move. However, studies have shown that the costs of acting now is far less than the costs required for climate adaption in the long run. The shipping industry makes no exception. Developments are not unseen, but slow, and mostly incremental. While there has been some efforts in reducing speed and moving towards cleaner fuels (mostly liquefied natural gas), these changes are still only applied in few cases, and will not be sufficient to shift the tide. Doing so would require the use of more innovative, disruptive solutions. Hydrogen is commonly referred to as a future renewable energy carrier as well as chemical building block for a sustainable society. Although produced primary from fossil sources today, its potential lies in its generation using water and renewable electricity. It can be used to fuel conventional propulsion systems based on internal combustion engines, but most importantly newer technologies like fuel cells. This ensures continuity with the past and the potential to enable synergic effects with new, more efficient ways of converting energy on board ships. From a maritime perspective, and besides the superior fuel cell performance in terms of higher efficiencies and zero hazardous and greenhouse emissions, fuel cells are expected to enhance the holistic ship performance with low noise emissions, graceful performance degradation, reduced maintenance and the absence of a zero point of failure. While hydrogen can hardly be described as the unchallenged solution for the future of shipping, there are definitely signs of rising interest, both from the scientific community, and from the industry. Notable projects include:
《国际造船进展》海上氢能专刊社论
在我们写这篇社论的时候,世界卫生组织已经宣布冠状病毒为大流行,它正在世界部分地区以惊人的速度传播。很难不把当前的局势与我们在同一时刻也面临的气候紧急情况联系起来。虽然时间尺度不同,但这种现象的基本原理是相似的:专家们重申,这是一种重大威胁,一旦它开始,即使不是不可能,也很难在它对我们的生活产生巨大影响之前阻止它。由于目前的影响很小,行动成本很高,大多数世界领导人都在拖延,等待其他人采取行动。然而,研究表明,从长远来看,现在采取行动的成本远低于适应气候所需的成本。航运业也不例外。发展不是看不见的,而是缓慢的,而且大多是渐进的。尽管在降低速度和转向更清洁的燃料(主要是液化天然气)方面做出了一些努力,但这些变化仍然只适用于少数情况,不足以改变趋势。要做到这一点,就需要使用更具创新性和颠覆性的解决方案。氢通常被称为未来的可再生能源载体,也是可持续社会的化学组成部分。尽管目前主要由化石资源生产,但其潜力在于利用水和可再生电力发电。它可以用于为基于内燃机的传统推进系统提供燃料,但最重要的是,它可以用于燃料电池等新技术。这确保了与过去的连续性,并有可能通过新的、更有效的船上能源转换方式实现协同效应。从海事角度来看,除了在更高的效率和零危险和温室气体排放方面具有卓越的燃料电池性能外,燃料电池有望通过低噪音排放、优雅的性能退化、减少维护和零故障点来提高船舶的整体性能。虽然氢很难被描述为未来航运业不受挑战的解决方案,但科学界和行业都有越来越感兴趣的迹象。值得注意的项目包括:
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
2.60
自引率
0.00%
发文量
8
期刊介绍: The journal International Shipbuilding Progress was founded in 1954. Each year four issues appear (in April, July, September and December). Publications submitted to ISP should describe scientific work of high international standards, advancing subjects related to the field of Marine Technology, such as: conceptual design structural design hydromechanics and dynamics maritime engineering production of all types of ships production of all other objects intended for marine use shipping science and all directly related subjects offshore engineering in relation to the marine environment ocean engineering subjects in relation to the marine environment
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