Analysis of hydrogen supply and demand in China's energy transition towards carbon neutrality

The role of hydrogen in the transition to carbon-neutral energy systems will be influenced by key factors such as carbon neutrality pathways, hydrogen production technology costs, and hydrogen transportation costs. Existing studies have not comprehensively analyzed and compared the impact of these key factors on the development of hydrogen supply and demand under China's carbon neutrality pathways. This study uses the Global Change Assessment Model (GCAM) with an upgraded hydrogen module to evaluate the development potential of China's hydrogen industry, considering various carbon neutrality pathways as well as hydrogen production and transportation costs. The findings indicate that, by 2050, hydrogen could account for 8%‒14% of final energy, averting 1.0‒1.7 Bt of carbon emissions annually at an average mitigation cost of 85‒183$ t−1CO2. The total hydrogen production is projected to reach 75‒135 Mt, with 34%‒56% from renewable energy electrolysis and about 15%‒29% from fossil fuel-based CCS. On a sectoral level, by 2050, the hydrogen demand in the industrial and transportation sectors is expected to reach 37‒63 Mt and 30‒42 Mt, with a potential reduction of about 0.6‒0.9 BtCO2 and 0.5‒0.6 BtCO2. The share of hydrogen in the final energy of the steel and chemical sectors is estimated to be 9%‒19% and 17%‒25%, collectively accounting for 36%‒42% of total hydrogen demand and 46%‒50% of total emission reduction potential. Realizing hydrogen’s emission reduction potential relies on the rapid development of hydrogen production, transportation, and utilization technologies. Firstly, the development of on-site electrolysis for hydrogen production and early deployment of industrial hydrogen applications should be prioritized to stimulate overall growth of hydrogen industry and cost reduction. Secondly, vigorous development of renewable energy electrolysis and hydrogen end-use technologies like fuel cells should be pursued, along with the demonstration and promotion of hydrogen transportation technologies. Lastly, further advancement of carbon market mechanisms is essential to support the widespread adoption of hydrogen technologies.

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Publication Details

Journal
Advances in Climate Change Research
Published
2024-08-05
DOI
https://doi.org/10.1016/j.accre.2024.07.013
Citations
17
Primary Topic
Integrated Energy Systems Optimization
Type
article
Field-Weighted Citation Impact
3.55

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article

Analysis of hydrogen supply and demand in China's energy transition towards carbon neutrality

Kangli Xiang, Qianzhi Zhang, Chenglong Zhang, Lining Wang et al.
17 citations
Advances in Climate Change Research
Integrated Energy Systems Optimization
3.55
article

Analysis of hydrogen supply and demand in China's energy transition towards carbon neutrality

Kangli Xiang, Qianzhi Zhang, Chenglong Zhang, Lining Wang, Wenying Chen, Jin-Yu Chen
article en
17 citations

Abstract

The role of hydrogen in the transition to carbon-neutral energy systems will be influenced by key factors such as carbon neutrality pathways, hydrogen production technology costs, and hydrogen transportation costs. Existing studies have not comprehensively analyzed and compared the impact of these key factors on the development of hydrogen supply and demand under China's carbon neutrality pathways. This study uses the Global Change Assessment Model (GCAM) with an upgraded hydrogen module to evaluate the development potential of China's hydrogen industry, considering various carbon neutrality pathways as well as hydrogen production and transportation costs. The findings indicate that, by 2050, hydrogen could account for 8%‒14% of final energy, averting 1.0‒1.7 Bt of carbon emissions annually at an average mitigation cost of 85‒183$ t−1CO2. The total hydrogen production is projected to reach 75‒135 Mt, with 34%‒56% from renewable energy electrolysis and about 15%‒29% from fossil fuel-based CCS. On a sectoral level, by 2050, the hydrogen demand in the industrial and transportation sectors is expected to reach 37‒63 Mt and 30‒42 Mt, with a potential reduction of about 0.6‒0.9 BtCO2 and 0.5‒0.6 BtCO2. The share of hydrogen in the final energy of the steel and chemical sectors is estimated to be 9%‒19% and 17%‒25%, collectively accounting for 36%‒42% of total hydrogen demand and 46%‒50% of total emission reduction potential. Realizing hydrogen’s emission reduction potential relies on the rapid development of hydrogen production, transportation, and utilization technologies. Firstly, the development of on-site electrolysis for hydrogen production and early deployment of industrial hydrogen applications should be prioritized to stimulate overall growth of hydrogen industry and cost reduction. Secondly, vigorous development of renewable energy electrolysis and hydrogen end-use technologies like fuel cells should be pursued, along with the demonstration and promotion of hydrogen transportation technologies. Lastly, further advancement of carbon market mechanisms is essential to support the widespread adoption of hydrogen technologies.

Advances in Climate Change ResearchVol. 15(5)
Energy Research Institute (CN), China National Petroleum Corporation (China) (CN), Tsinghua University (CN)
National Development and Reform Commission, State Grid Corporation of China
Affordable and clean energy
Openalex Percentile: Top 7%
Integrated Energy Systems Optimization
3.55
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