Climate change performance of hydrogen production based on life cycle assessment

被引:26
|
作者
Patel, Gulam Husain [1 ]
Havukainen, Jouni [1 ]
Horttanainen, Mika [1 ]
Soukka, Risto [1 ]
Tuomaala, Mari [1 ]
机构
[1] LUT Univ, Dept Sustainabil Sci, FI-53851 Lappeenranta, Finland
关键词
NATURAL-GAS; OPTIONS; FINLAND;
D O I
10.1039/d3gc02410e
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
Hydrogen has the potential to revolutionize how we power our lives, from transportation to energy production. This study aims to compare the climate change impacts and the main factors affecting them for different categories of hydrogen production, including grey hydrogen (SMR), blue hydrogen (SMR-CCS), turquoise hydrogen (TDM), and green hydrogen (PEM electrolysis). Grey hydrogen, blue hydrogen, and turquoise hydrogen, which are derived from fossil sources, are produced using natural gas and green hydrogen is produced from water and renewable electricity sources. When considering natural gas as a feedstock, it is sourced from the pipeline route connected to Russia and through the liquefied natural gas (LNG) route from the USA. The life cycle assessment (LCA) result showed that grey hydrogen had the highest emissions, with the LNG route showing higher emissions, 13.9 kg CO2 eq. per kg H2, compared to the pipeline route, 12.3 kg CO2 eq. per kg H2. Blue hydrogen had lower emissions due to the implementation of carbon capture technology (7.6 kg CO2 eq. per kg H2 for the pipeline route and 9.3 kg CO2 eq. per kg H2 for the LNG route), while turquoise hydrogen had the lowest emissions (6.1 kg CO2 eq. per kg H2 for the pipeline route and 8.3 kg CO2 eq. per kg H2 for the LNG route). The climate change impact showed a 12-25% increase for GWP20 compared to GWP100 for grey, blue, and turquoise hydrogen. The production of green hydrogen using wind energy resulted in the lowest emissions (0.6 kg CO2 eq. per kg H2), while solar energy resulted in higher emissions (2.5 kg CO2 eq. per kg H2). This article emphasizes the need to consider upstream emissions associated with natural gas and LNG extraction, compression, liquefaction, transmission, and regasification in assessing the sustainability of blue and turquoise hydrogen compared to green hydrogen. Green H2 production reduces emissions by 80-95% compared to grey H2 thus meeting the REDII directive. However, blue and turquoise H2 fall short of meeting this criterion without CO2 sequestration.
引用
收藏
页码:992 / 1006
页数:15
相关论文
共 50 条
  • [1] Life cycle assessment of hydrogen production
    Solli, C
    Stromman, AH
    Hertwich, EG
    PROCEEDINGS OF ECOS 2005, VOLS 1-3: SHAPING OUR FUTURE ENERGY SYSTEMS, 2005, : 109 - 116
  • [2] Flexible pavement performance and life cycle assessment incorporating climate change impacts
    Blaauw, Sheldon A.
    Maina, James W.
    Mturi, Georges A. J.
    Visser, Alex T.
    TRANSPORTATION RESEARCH PART D-TRANSPORT AND ENVIRONMENT, 2022, 104
  • [3] Life Cycle Assessment Perspective for Sectoral Adaptation to Climate Change: Environmental Impact Assessment of Pig Production
    Ndue, Kennedy
    Pal, Goda
    LAND, 2022, 11 (06)
  • [4] Data Hub for Life Cycle Assessment of Climate Change Solutions-Hydrogen Case Study
    Zargar, Shiva
    Kannangara, Miyuru
    Gonzales-Calienes, Giovanna
    Yang, Jianjun
    Shadbahr, Jalil
    Deces-Petit, Cyrille
    Bensebaa, Farid
    DATA, 2024, 9 (11)
  • [5] Life cycle assessment of various hydrogen production methods
    Cetinkaya, E.
    Dincer, I.
    Naterer, G. F.
    INTERNATIONAL JOURNAL OF HYDROGEN ENERGY, 2012, 37 (03) : 2071 - 2080
  • [6] Economic assessment of the life cycle of hydrogen production at hydroapplications☆
    Korablev, V. V.
    Ilin, I. V.
    Levina, A. I.
    Shemyakina, A. A.
    INTERNATIONAL JOURNAL OF HYDROGEN ENERGY, 2024, 68 : 696 - 704
  • [7] Exergetic life cycle assessment of a hydrogen production process
    Ozbilen, Ahmet
    Dincer, Ibrahim
    Rosen, Marc A.
    INTERNATIONAL JOURNAL OF HYDROGEN ENERGY, 2012, 37 (07) : 5665 - 5675
  • [8] Life cycle assessment of hydrogen fuel production processes
    Koroneos, C
    Dompros, A
    Roumbas, G
    Moussiopoulos, N
    INTERNATIONAL JOURNAL OF HYDROGEN ENERGY, 2004, 29 (14) : 1443 - 1450
  • [9] Fission or fossil: Life cycle assessment of hydrogen production
    Solli, Christian
    Stromman, Anders Hammer
    Hertwich, Edgar G.
    PROCEEDINGS OF THE IEEE, 2006, 94 (10) : 1785 - 1794
  • [10] Exergetic life cycle assessment for green hydrogen production
    Gerhardt-Moersdorf, Janis
    Incer-Valverde, Jimena
    Morosuk, Tatiana
    Minke, Christine
    ENERGY, 2024, 299