Showing 41–60 of 511
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Evaluating LCA Approaches and Methodologies for Renewable Carbon Sources Report 2 of 3 – Renewable Carbon in Recycling Situations (March 2025) (PDF)
Markets & Economy, Policy, Sustainability & Health
37 Pages
664 Downloads
664 Downloads
2025-03
FREE
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DownloadsThis report focuses on renewable carbon in recycling scenarios and the key challenges in LCA and carbon footprint assessments. It examines system boundaries, allocation methods, and biogenic carbon accounting approaches, highlighting their influence on sustainability evaluations. The report emphasises the cut-off and avoided-burden approaches for recycling while recommending the -1/+1 method for biogenic carbon transparency. However, it also identifies contradictions between LCA results and broader sustainability goals, such as the EU waste hierarchy, which prioritises recycling. To address these inconsistencies, the report suggests integrating LCA with additional sustainability metrics like land use and recyclability. Ultimately, refining these methodologies will enhance the accuracy and reliability of environmental assessments for bio-based and recycled materials.
This report is the second report of a larger RCI project on LCA methodology, which includes two additional publications:
Report 1 of 3 – Renewable Carbon in LCA Guidelines
Report 3 of 3 – Non-technical SummaryPlease find these additional reports by following the respective links at the bottom of this page.
DOI No.: https://doi.org/10.52548/QTVU8642
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Evaluating LCA Approaches and Methodologies for Renewable Carbon Sources Report 3 of 3 – Non-technical Summary (March 2025) (PDF)
Markets & Economy, Policy, Sustainability & Health
15 Pages
860 Downloads
860 Downloads
2025-03
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DownloadsThis Non-technical Summary (15 pages),highlights main insights into the project results and states key take-aways for policy-makers.
It compares several frameworks, such as ISO 14040, Product Environmental Footprint (PEF), and GHG Protocol, finding both commonalities and critical differences in areas like biogenic carbon accounting and recycling assessment. The study identifies significant methodological flexibility in existing frameworks, leading to inconsistencies in LCA results and challenges in standardisation. Key issues include differing treatment of carbon capture and utilisation (CCU), direct air capture (DAC), and allocation of environmental burdens in multifunctional processes. Policy recommendations emphasise the need for harmonisation, improved biogenic carbon accounting, and clear guidance on emerging technologies like DAC and mass balance attribution. Overall, the study calls for refining LCA methodologies to ensure fair comparison between renewable and fossil-based carbon solutions.
This report is the third report of a larger RCI project on LCA methodology, which includes two additional publications:
Report 1 of 3 – Renewable Carbon in LCA Guidelines
Report 2 of 3 – Renewable Carbon in Recycling SituationsPlease find these additional reports by following the respective links at the bottom of this page.
DOI No.: https://doi.org/10.52548/ZEKY1803
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SUITED approach: SUstainable Integrated TEchnology Development (PNG)
Markets & Economy, Sustainability & Health
1 Page
20 Downloads
20 Downloads
2025-02
FREE
20
DownloadsStart the ecological and economic evaluation of your technology as early as possible:
- Continuous optimization process
- Sustainability integrated technology development
- SUITED as a tool for technology improvement
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Bio-based Polymers Worldwide (PDF)
Markets & Economy, Policy, Sustainability & Health
5 Pages
790 Downloads
790 Downloads
2025-02
FREE
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DownloadsExpert insight into capacity developments, investments and new policy frameworks:- Firstly, global capacity for bio-based polymers will grow strongly over the next five years, much faster than for fossil-based polymers
- Secondly, investments in new capacity will take place in China, Europe, the Middle East, and the US
- Thirdly, investment in bio-based polymer capacities is mainly driven by policy frameworks that create demand.
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Sustainable textiles – the way forward (PDF)
Markets & Economy, Sustainability & Health
6 Pages
556 Downloads
556 Downloads
2025-02
FREE
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DownloadsHigh reliance on fossil carbon, associated high carbon footprint, low recycling rates and microplastics:Several solutions are emerging. The article analyses the evolution of the textile industry from 1960 to today, fossil and bio-based as well as recycling.The future of sustainable textilesThe sustainable textile industry of the future will be built on a foundation of cotton fibres and fast-growing cellulose fibres, later strongly supported by bio- and CO2-based synthetic fibres (“biosynthetics”) and high recycling rates for all types of fibres. This combination can eventually replace most fossil-based synthetic fibres by 2050. -
Global Major Fibre Types by Production in % (PNG)
Markets & Economy, Sustainability & Health
1 Page
41 Downloads
41 Downloads
2025-02
FREE
41
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Textile-Waste-Generation-Collection-and-Treatment-in-Europe-2020 (PNG)
Markets & Economy, Sustainability & Health
1 Page
48 Downloads
48 Downloads
2025-02
FREE
48
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Bio-based-Polymer-Production-and-Bio-based-shares-2024 (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
176 Downloads
176 Downloads
2025-02
FREE
176
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Global-Production-Capacities-of-Bio-based-Polymers-per-Region-2024 (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
39 Downloads
39 Downloads
2025-02
FREE
39
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Supply and Demand of Agriculture Biomass in the EU 2050 – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
32 Downloads
32 Downloads
2025-02
FREE
32
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Supply and Demand of Agriculture Biomass Worldwide 2050 – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
37 Downloads
37 Downloads
2025-02
FREE
37
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Wood Demand in the Green LRD Scenario Worldwide 2050 – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
14 Downloads
14 Downloads
2025-02
FREE
14
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Supply and Demand of Agricultural Biomass in the EU 2050 in HT +5 Scenario – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
25 Downloads
25 Downloads
2025-02
FREE
25
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Supply and Demand of Agricultural Biomass Worldwide 2050 in HT +10 Scenario – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
37 Downloads
37 Downloads
2025-02
FREE
37
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Wood Supply in the Green LRD Scenario in 2050 – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
9 Downloads
9 Downloads
2025-02
FREE
9
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Share of Different Types of Biomass Worldwide 2023-2050 – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
58 Downloads
58 Downloads
2025-02
FREE
58
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Share-of-Different-Types-of-Biomass-EU-2023–2050 – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
30 Downloads
30 Downloads
2025-02
FREE
30
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Is there Enough Biomass to Defossilise the Chemicals and Derived Materials Sector by 2050? – A Joint BIC and RCI Scientific Background Report (PDF)
Markets & Economy, Policy, Sustainability & Health
41 Pages
1818 Downloads
1818 Downloads
2025-02
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DownloadsThis reports presents the findings of a joint project of the Bio-based Industries Consortium (BIC) and the Renewable Carbon Initiative (RCI), which focuses on whether agricultural and woody biomass combined sustainably provide enough biomass to meet 20% of the future carbon demand of the chemical and derived materials industries in 2050 (up from 5.5% (EU27) and 10% (global) in 2023).
This leading question was investigated with professional experts to model a business-as-usual, a low resource depletion, and a high-tech scenario to better analyse the possible ranges of biomass availability under different developments.
Agriculture: By 2050, under the BAU scenario, production is projected to increase by 31% to 5.07 billion tonnes. Cereals increase by 32% to 3.1 billion tonnes, sugar by 40% to 340 million tonnes and vegetable oils by 45% to 317 million tonnes. In the Green LRD scenarios, production is projected to increase by 24–26%, and in the Green HT scenarios by 38–53% – compared to 31% in the BAU scenario.
Forestry: Global supply and demand of industrial roundwood (coniferous and non-coniferous) will increase by an estimated 38% between 2020 and 2050, from 0.9 to 1.3 billion tdm. The largest increase in supply is expected in Asia (69%), including China and Russia, but a significant increase of 32% is also seen for Europe.
The report concludes that sustainably meeting 20% of total carbon demand of the chemicals and derived materials sector in 2050 via biomass seems a realistic and achievable estimate.
DOI No.: https://doi.org/10.52548/PIRL6916
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Global Biomass Demand in Mt for Biofuel Production – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
24 Downloads
24 Downloads
2025-01
FREE
24
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Global Non-fossil C-fuel Demand in the Transport Sector – Basic – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
24 Downloads
24 Downloads
2025-01
FREE
24
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