Rising greenhouse gas emissions embodied in the global bioeconomy supply chain

Abstract The bioeconomy is key to meeting climate targets. Here, we examine greenhouse gas emissions in the global bioeconomy supply chain (1995–2022) using advanced multi-regional input-output analysis and a global land-use change model. Considering agriculture, forestry, land use, and energy, we assess the carbon footprint of biomass production and examine its end-use by provisioning systems. The footprint increased by 3.3 Gt CO 2 -eq, with 80% driven by international trade, mainly beef and biochemicals (biofuels, bioplastics, rubber). Biochemicals showed the largest relative increase, doubling due to tropical land-use change (feedstock cultivation) and China’s energy-intensive processing. Food from retail contributes most to the total biomass carbon footprint, while food from restaurants and canteens account for >50% of carbon-footprint growth, with three times higher carbon intensity than retail. Our findings emphasize the need for sustainable sourcing strategies and that adopting renewables and halting land-use change could reduce the bioeconomy carbon footprint by almost 60%.

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Publication Details

Journal
Communications Earth & Environment
Published
2025-03-01
DOI
https://doi.org/10.1038/s43247-025-02144-0
Citations
8
Primary Topic
Bioeconomy and Sustainability Development
Type
article
Field-Weighted Citation Impact
38.66
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article

Rising greenhouse gas emissions embodied in the global bioeconomy supply chain

Stephan Pfister, Stefanie Hellweg, Clemens Schwingshackl, Livia Cabernard
8 citations
Communications Earth & Environment
Bioeconomy and Sustainability Development
38.66
article

Rising greenhouse gas emissions embodied in the global bioeconomy supply chain

Stephan Pfister, Stefanie Hellweg, Clemens Schwingshackl, Livia Cabernard
article en
8 citations

Abstract

Abstract The bioeconomy is key to meeting climate targets. Here, we examine greenhouse gas emissions in the global bioeconomy supply chain (1995–2022) using advanced multi-regional input-output analysis and a global land-use change model. Considering agriculture, forestry, land use, and energy, we assess the carbon footprint of biomass production and examine its end-use by provisioning systems. The footprint increased by 3.3 Gt CO 2 -eq, with 80% driven by international trade, mainly beef and biochemicals (biofuels, bioplastics, rubber). Biochemicals showed the largest relative increase, doubling due to tropical land-use change (feedstock cultivation) and China’s energy-intensive processing. Food from retail contributes most to the total biomass carbon footprint, while food from restaurants and canteens account for >50% of carbon-footprint growth, with three times higher carbon intensity than retail. Our findings emphasize the need for sustainable sourcing strategies and that adopting renewables and halting land-use change could reduce the bioeconomy carbon footprint by almost 60%.

Communications Earth & EnvironmentVol. 6(1)
ETH Zurich (CH), NCCR Chemical Biology - Visualisation and Control of Biological Processes Using Chemistry (CH), Technical University of Munich (DE), Ludwig-Maximilians-Universität München (DE)
Openalex Percentile: Top 0%
Bioeconomy and Sustainability Development
38.66
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