Biohydrogen, a potential roadmap to sustainable green energy supply and carbon sequestrating in the transport sector by 2060

• Open-field burning and utilization of fossil fuels in transport are major CO 2 contributors. • Agricultural and forestry residues can be sustainable raw materials for green energy. • Biohydrogen can be a potential roadmap toward carbon neutrality by 2060. • 165 BL of biohydrogen by end of 2060 can help to meet energy demand in transport sector. • Bottom-up accounting framework scenario showed CO 2 reduction prospects by 2060. Current research goals lead to achieve zero carbon emission in transportation, agricultural, and forest sector through biohydrogen production by biomass residues. To assess the current development status and forecast future technologies, Traffic emission evaluation model of project (TEEMP) was used. Results show that, in 2024 cumulative CO 2 emission by forest and agricultural were 3.5 billion metric tonne (BMt) while from transportation 8.47 BMt. Major assessments indicate that globally about 5–10 Gt/year of biomass residues are technically and economically recoverable, mainly from China, India, the U.S., Russia, and Europe, corresponding to roughly 40–60 EJ/year of bioenergy potential. Instead of burning these wastes in fields, they should be collected, converted into biohydrogen, and used as a fossil fuel replacement to reduce CO 2 emissions. So far, biological pre-treatment and dark-photo fermentation are well-known techniques for the production of high-quality biohydrogen due to their controllability and low energy consumption. The experimental findings showed that the collection of agricultural 1840 Mt and forest 927 Mt waste residues can produce 15,460 Kt and 929 Kt of biohydrogen respectively, which will help to achieve to reduce the carbon emission of 85.13 Mt agriculture and 57.75 Mt forest by 2040 respectively. Sustainable biohydrogen production can be achieved by enhancing the production capacity by solving collection, transportation, and management challenges. These challenges can be overcome through the development of policies, implementations, laws, government and organization training, satellite monitoring, and electronic media. Lastly, bottom-up accounting framework scenario reflected the overall possibilities of CO 2 emissions reduction from 9.699 BMt to 0.03 BMt by 2010 to 2060 can be reduced from the atmosphere by stopping the open field burning of waste residues and using biohydrogen as an alternative to fossil.

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Publication Details

Journal
Applications in Energy and Combustion Science
Published
2025-10-09
DOI
https://doi.org/10.1016/j.jaecs.2025.100410
Citations
2
Primary Topic
Hybrid Renewable Energy Systems
Type
article
Field-Weighted Citation Impact
1.06
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article

Biohydrogen, a potential roadmap to sustainable green energy supply and carbon sequestrating in the transport sector by 2060

Aqib Zahoor, Amanda Reichelt‐Brushett, Tapas Sen, Wenchao Ma et al.
2 citations
Applications in Energy and Combustion Science
Hybrid Renewable Energy Systems
1.06
article

Biohydrogen, a potential roadmap to sustainable green energy supply and carbon sequestrating in the transport sector by 2060

Aqib Zahoor, Amanda Reichelt‐Brushett, Tapas Sen, Wenchao Ma, Lingyu Tai, Yajuan Yu, Nadeem Tahir, Martina Damizia, Paolo De Filippis, Benedetta de Caprariis, Mingtao Hu
article en
2 citations

Abstract

• Open-field burning and utilization of fossil fuels in transport are major CO 2 contributors. • Agricultural and forestry residues can be sustainable raw materials for green energy. • Biohydrogen can be a potential roadmap toward carbon neutrality by 2060. • 165 BL of biohydrogen by end of 2060 can help to meet energy demand in transport sector. • Bottom-up accounting framework scenario showed CO 2 reduction prospects by 2060. Current research goals lead to achieve zero carbon emission in transportation, agricultural, and forest sector through biohydrogen production by biomass residues. To assess the current development status and forecast future technologies, Traffic emission evaluation model of project (TEEMP) was used. Results show that, in 2024 cumulative CO 2 emission by forest and agricultural were 3.5 billion metric tonne (BMt) while from transportation 8.47 BMt. Major assessments indicate that globally about 5–10 Gt/year of biomass residues are technically and economically recoverable, mainly from China, India, the U.S., Russia, and Europe, corresponding to roughly 40–60 EJ/year of bioenergy potential. Instead of burning these wastes in fields, they should be collected, converted into biohydrogen, and used as a fossil fuel replacement to reduce CO 2 emissions. So far, biological pre-treatment and dark-photo fermentation are well-known techniques for the production of high-quality biohydrogen due to their controllability and low energy consumption. The experimental findings showed that the collection of agricultural 1840 Mt and forest 927 Mt waste residues can produce 15,460 Kt and 929 Kt of biohydrogen respectively, which will help to achieve to reduce the carbon emission of 85.13 Mt agriculture and 57.75 Mt forest by 2040 respectively. Sustainable biohydrogen production can be achieved by enhancing the production capacity by solving collection, transportation, and management challenges. These challenges can be overcome through the development of policies, implementations, laws, government and organization training, satellite monitoring, and electronic media. Lastly, bottom-up accounting framework scenario reflected the overall possibilities of CO 2 emissions reduction from 9.699 BMt to 0.03 BMt by 2010 to 2060 can be reduced from the atmosphere by stopping the open field burning of waste residues and using biohydrogen as an alternative to fossil.

Applications in Energy and Combustion ScienceVol. 24
Beijing Institute of Technology (CN), Tianjin University (CN), Donghua University (CN), University of Lancashire (GB), Hainan University (CN), Henan Agricultural University (CN), Southern Cross University (AU), Sapienza University of Rome (IT)
Openalex Percentile: Top 18%
Hybrid Renewable Energy Systems
1.06
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