4.7 Article

Decarbonising inland ship power system: Alternative solution and assessment method

Journal

ENERGY
Volume 226, Issue -, Pages -

Publisher

PERGAMON-ELSEVIER SCIENCE LTD
DOI: 10.1016/j.energy.2021.120266

Keywords

Inland ship; Decarbonisation; Battery power; Hybrid power; LCA; LCCA

Funding

  1. National Natural Science Foundation of China [51809202]
  2. Green Intelligent Inland Ship Innovation Programme [2019-358]
  3. Chinese - Croatian Bilateral Project on Energy Efficient and Environmentally Friendly Power System Options for Inland Green Ships [2019-16]
  4. Strategy Research on Integrated Development of Transportation and Energy in China [2021-XZ-25]

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The shipping industry is transforming towards greening, decarbonisation, and electrification in the context of harsh emission control and ecological environment protection. Research indicates that using battery power and hybrid power can reduce the lifetime CO2 emissions and costs of inland ships, which is significant for guiding the low-carbon development of inland ship power.
In the context of harsh emission control and ecological environment protection, the shipping industry is transforming and upgrading towards greening, decarbonisation, and electrification. The energy and power types of inland ships are becoming increasingly diversified. It is urgently important to investigate strategies for decarbonising inland ship power systems. First, the development status of inland shipping in China is introduced with respect to shipping resources, existing problems, and driving factors of green development. Then, the power requirements of inland ships and the characteristics of new power systems are analysed, and on this basis, alternative solutions for inland ship power systems are proposed. Two case studies are carried out, focussed on canal and Yangtze River ships using battery power and hybrid power, respectively. Moreover, environmental and economic impacts during the life cycle of the two typical alternative solutions are assessed. Finally, an uncertainty analysis method is adopted to assess the reliability of the life cycle assessment and life cycle cost assessment results. The results indicate that compared with traditional diesel power, battery power and hybrid power have lower lifetime CO2 emissions and costs, under four considered carbon credit scenarios. The proposed alternative solutions and assessment methods are of significance for guiding the low-carbon development of inland ship power. (C) 2021 Elsevier Ltd. All rights reserved.

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