4.6 Article

Carbon Emission Flow Oriented Tri-Level Planning of Integrated Electricity-Hydrogen-Gas System with Hydrogen Vehicles

Journal

IEEE TRANSACTIONS ON INDUSTRY APPLICATIONS
Volume 58, Issue 2, Pages 2607-2618

Publisher

IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/TIA.2021.3095246

Keywords

Hydrogen; Carbon dioxide; Planning; Pipelines; Production; Electrochemical processes; Wind power generation; Carbon emission flow (CEF); hydrogen vehicles (HVs); integrated electricity-hydrogen-gas network; tri-level planning method

Funding

  1. National Natural Science Foundation of China [72001058]
  2. General Program of Foundations of Shenzhen Science and Technology Committee [GXWD20201230155427003-20200822103658001]
  3. Research Start-Up Foundation for new teachers in Harbin Institute of Technology (Shenzhen)
  4. ARC Training Centre [IC200100023]
  5. ARC linkage project [LP200100056]
  6. ARC Research Hub [IH180100020]

Ask authors/readers for more resources

This article proposes a planning method for an integrated electricity-hydrogen-gas system to supply hydrogen for hydrogen vehicles (HVs) while considering carbon emission distribution. The article presents a CEF model and a tri-level planning method to highlight the role of hydrogen in reducing carbon emission, and considers two major hydrogen production methods.
A planning of integrated electricity-hydrogen-gas system to supply hydrogen for hydrogen vehicles (HVs) with the consideration of carbon emission flow (CEF) is proposed in this article. From the perspective of energy consumption, hydrogen production will inevitably produce carbon dioxide. This article innovatively presents the CEF model to quantify the distribution of carbon emission in each energy hub by tracing the energy flow in the coupled network. After solving the CEF model, a novel tri-level planning method is utilized to coordinate the plan of electricity-hydrogen-gas integrated network to highlight the role of hydrogen in reducing carbon emission of HVs. Moreover, two major hydrogen production methods, seawater electrolysis and steam methane reforming, are considered and analyzed simultaneously to provide hydrogen for HVs. Therefore, the proposed approach will satisfy the growing requirement of carbon reduction by installing new clean energy equipment in electricity-hydrogen-gas integrated network. A coupling system of 24-node power system, 9-node hydrogen energy network, and 7-node natural gas network is utilized in the case study. Simulation results show that the proposed model plays an effective role in reducing carbon emission of the coupled system with growing number of HVs.

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