Showing 41–60 of 401
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EU and Global: Biomass Demand for Transport Fuels, Aviation and Shipping up to 2050 and Implications for Biomass Supply to the Chemical Sector (PDF)
Markets & Economy, Policy, Sustainability & Health
44 Pages
965 Downloads965 Downloads
2025-01
FREE
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DownloadsThe Renewable Carbon Initiative’s Scientific Background Report explores three potential future scenarios for carbon-based fuel demand up to 2050 under current policy frameworks. It predicts a sharp rise in the demand for second-generation biomass biofuels, driven primarily by increasing quotas for aviation and shipping fuels. This growth raises concerns about ecological and resource sustainability and creates challenges for sectors like chemicals and materials, which rely on renewable carbon to reduce fossil dependency. Without similar regulatory incentives, these sectors may face limited access to critical feedstocks like biomass and captured carbon.
The report highlights that while bio-based and synthetic fuel production could indirectly benefit the chemical industry through by-products, competition with the fuel sector poses significant obstacles.The report includes 11 tables, 9 graphics, and a detailed overview of EU fuel regulations. Though focused on Europe, it also provides global insights, making it a valuable resource for stakeholders in biomass and CO2 utilisation sectors.
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European Biomass Demand in Mt for Biofuel Production – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
30 Downloads30 Downloads
2025-01
FREE
30
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Industrial Roundwood Production in Three Scenarios in Million m3 – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
5 Downloads5 Downloads
2025-01
FREE
5
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European Non-fossil C-fuel Demand in the Transport Sector – Basic – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
18 Downloads18 Downloads
2025-01
FREE
18
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European Non-fossil C-fuel Demand in the Transport Sector – Strong Ammonia – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
7 Downloads7 Downloads
2025-01
FREE
7
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European Non-fossil C-fuel Demand in the Transport Sector – Strong CCU – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
13 Downloads13 Downloads
2025-01
FREE
13
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Global Biomass Demand in Mt for Biofuel Production – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
19 Downloads19 Downloads
2025-01
FREE
19
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Global Non-fossil C-fuel Demand in the Transport Sector – Basic – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
19 Downloads19 Downloads
2025-01
FREE
19
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Global Non-fossil C-fuel Demand in the Transport Sector – Strong Ammonia – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
14 Downloads14 Downloads
2025-01
FREE
14
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Advanced Recycling Conference 2024 (Proceedings)
Markets & Economy, Policy, Sustainability & Health, Technology
2024-12
150 € ex. tax
Plus 19% MwSt.Press
release Add to
cartThe proceedings of the Advanced Recycling Conference 2024 (20-21 November, https://advanced-recycling.eu) contain 42 conference presentations, the conference journal, sponsor documents and the press release.
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Evaluation of Recent Reports on the Future of a Net-Zero Chemical Industry in 2050 (PDF)
Markets & Economy, Policy, Sustainability & Health
20 Pages
1399 Downloads1399 Downloads
2024-11
FREE
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DownloadsThe Renewable Carbon Initiative’s Scientific Background Report assesses 24 scenarios from 15 studies to envision a net-zero chemical industry by 2050. The analysis anticipates continued growth in chemical production, projecting a 2.4-fold increase in global feedstock demand by 2050 compared to 2020 levels, with most expansion expected outside Europe while European feedstock volumes remain stable. To achieve net-zero emissions, the industry is projected to undergo a significant shift in feedstocks, with key renewable carbon sources identified as biomass (22%), carbon capture and utilisation (33%), and recycling (20%), while the remaining 24% comes from fossil sources with carbon capture and storage. For plastics specifically, recycling is expected to play an even larger role, accounting for 42% of feedstocks on average. This transition will require continued innovation and investment in renewable carbon technologies to meet ambitious defossilisation goals.
The report provides invaluable insights for industry leaders, policymakers, and researchers, highlighting the urgent need for action to achieve a net-zero future in the chemical sector by 2050.
DOI No.: https://doi.org/10.52548/SXWV6083
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Net-Zero Plastics – Evaluation of Feedstock (%) Across 10 Scenarios from 7 Reports 2050 – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
94 Downloads94 Downloads
2024-11
FREE
94
DownloadsThe graph illustrates feedstock projections specifically for the plastics sector by 2050, analysing 10 scenarios from 7 reports, where recycling emerges as the dominant feedstock at 42% (combining mechanical and chemical recycling), while biomass (21%), CCU (17%), and fossil with CCS (19%) play supporting roles. The data shows less variation in projections compared to the chemical industry overall, suggesting stronger agreement on the future role of recycling in plastics production.
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Net-Zero Chemical Industry – Evaluation of Feedstock (%) Across 16 Scenarios from 9 Reports 2050 – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
74 Downloads74 Downloads
2024-11
FREE
74
DownloadsThe graph shows the distribution of feedstock sources for the net-zero chemical industry by 2050, based on 16 scenarios from 9 reports, with CCU having the highest mean share at 33%, followed by biomass (22%), recycling (20%, split between mechanical and chemical), and fossil with CCS (24%). The data reveals significant variability across scenarios, particularly for CCU which ranges from near 0% to 90%, while both biomass and recycling show more moderate ranges, indicating a general consensus on their roles in the future chemical industry.
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Net-Zero Plastics – Mean Feedstock Shares (%) Across 10 Scenarios From 7 Reports – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
61 Downloads61 Downloads
2024-11
FREE
61
DownloadsThe graph presents the mean feedstock shares for the 2050 net-zero plastics sector, derived from 10 scenarios across 7 reports. In this projection, recycling dominates with a 42% share, followed by biomass (21%), fossil & CCS (19%), and CCU (17%), highlighting the increased potential for circularity in the plastics industry compared to the broader chemical sector.
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Net-Zero Chemical Industry – Mean Feedstock Shares (%) Across 16 Scenarios From 9 Reports – Graphic (PNG)
Markets & Economy, Policy, Sustainability & Health
1 Page
47 Downloads47 Downloads
2024-11
FREE
47
DownloadsThe graph illustrates the mean feedstock shares projected for the 2050 net-zero chemical industry, based on 16 scenarios across 9 reports. The chart shows a diverse mix of feedstocks, with CCU (33%) and recycling (20%) playing significant roles alongside biomass (22%), while fossil & CCS still account for 24% of the feedstock share.
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Alternatives Naphtha – Den Kreislauf für Kunststoffe und Reifen schließen: Pyrolyseöl als chemischer Rohstoff (Gastbeitrag Teil 3) (PDF)
Markets & Economy, Technology
1 Page
60 Downloads60 Downloads
2024-11
FREE
60
DownloadsIn den beiden vorangegangenen Artikeln dieser Serie wurde das Konzept des alternativen Naphthas als Ersatz für fossile Rohstoffe in Raffinerien und Steamcrackern vorgestellt. In diesem dritten Artikel konzentriert sich die Diskussion auf Pyrolyseöl, das durch chemisches Recycling von Kunststoffabfällen und Reifen gewonnen wird, und warum dies ein wichtiges „alternatives Naphtha“ für Raffinerien und Steamcracker ist.
Relevante Anteile erneuerbarer Chemikalien und Polymere sind ohne „alternatives Naphtha“ nicht möglich. Ohne eine Abkehr von fossilem Naphtha wird es keine signifikante Defossilisierung des Chemiesektors geben.
Dieser Artikel ist im Rahmen einer Serie von Gastbeiträgen im CHEManager erschienen. Es handelt sich um „Alternatives Naphtha Teil 3“ – aus CHEManager 11/2024.
Hier finden sie den Artikel auch bei CHEManager.
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Alternatives Naphtha – Herstellung und Nutzung – Wie erneuerbare Rohstoffe zu Naphtha verarbeitet werden (Gastbeitrag Teil 2) (PDF)
Markets & Economy, Technology
1 Page
29 Downloads29 Downloads
2024-10
FREE
29
DownloadsIm ersten Artikel dieser dreiteiligen Serie wurde das Konzept „Alternatives Naphtha“ als Ersatz für fossile Rohstoffe in Raffinerien und Steamcrackern vorgestellt. Relevante Mengen erneuerbarer Chemikalien und Polymere sind ohne alternatives Naphtha nicht realisierbar, eine signifikante Defossilisierung des Chemiesektors erfordert den Verzicht auf fossiles Naphtha. Im zweiten Artikel wird die Herstellung und Nutzung von alternativem Naphtha genauer beleuchtet.
Biobasierte Rohstoffe wie Fette, Öle und Schmierstoffe (Triglyceride) können fossile Erdölrohstoffe ersetzen und in bestehenden Raffinerien mitverarbeitet werden. Dies ist attraktiv, da Raffinerien ohne große Investitionen Biokraftstoffe und biobasierte Grundchemikalien produzieren können. Eine Vorbehandlung der Rohstoffe kann dabei erforderlich sein.
Dieser Artikel ist im Rahmen einer Serie von Gastbeiträgen im CHEManager erschienen. Es handelt sich um „Alternatives Naphtha Teil 2“ – aus CHEManager 10/2024.
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Forest-Based Biorefineries: Innovative Bio-Based Products for a clean Transition (PDF)
Markets & Economy, Policy, Technology
8 Pages
359 Downloads359 Downloads
2024-10
FREE
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DownloadsA new study conducted by the nova-Institute and commissioned by the Confederation of European Paper Industries (Cepi) unveils a significant surge in the European biorefinery sector, with forest-based biorefineries more than doubling their turnover to €6 billion since 2020. This remarkable growth underscores the rising demand for sustainable, bio-based alternatives to fossil-based products.
The research, focused on the pulp and paper industry that produce additional bio-based products which land on the market beyond pulp and paper, identifies a total of 143 biorefineries across Europe, with 126 currently operational and 17 in development. The largest number of biorefineries is in Sweden, Finland, Germany, Portugal and Austria. The study points to a bright future for biorefineries, with projected annual growth rates of up to 5% until 2050.
The products of these biorefineries provide sustainable solutions across various industries, from aviation to fashion, offering alternatives in materials, chemicals, fuels, food, and pharmaceuticals. Importantly, biorefineries contribute to Europe’s climate targets, with bio-based products already substituting over 3.1 megatons of CO2 emissions that would have been produced by fossil-based industries.The study emphasises that these advancements are not replacing traditional pulp and paper-making activities but are creating new revenue streams and increasing resource efficiency, providing a pathway to sustainable economic growth.
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Die Zukunft des Recyclings gestalten (PDF)
Markets & Economy, Policy, Sustainability & Health, Technology
2 Pages
402 Downloads402 Downloads
2024-10
FREE
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DownloadsDie ambitionierten Recyclingziele der EU, die (Selbst-)Verpflichtungen der chemischen Industrie und der Markenhersteller sowie die Anforderungen der Kunden üben einen enormen Entwicklungsdruck auf den Recyclingsektor aus. Einem großen Anteil nicht recycelter Abfallströme stehen die Nachfrage und die Suche nach erneuerbaren Rohstoffen für Chemikalien und Materialien gegenüber. Dies wirft die Frage auf, welche Technologien für welchen Abfallstrom am besten geeignet sind und wie die Umweltauswirkungen zu bewerten sind.
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nova-paper #17: Science-based Definition of Natural Polymers (PDF)
NewMarkets & Economy, Policy, Sustainability & Health
22 Pages
639 Downloads639 Downloads
2024-09
FREE
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DownloadsEuropean policy has defined „natural polymers“ in a way that has caused much concern and debate among scientists and industry, and has created a barrier to innovation. The authors of this report have carried out a comprehensive scientific evaluation of how the scientific literature defines „natural polymers“, and the result is: The European policy definition is partly in clear contrast to the scientific definitions.
„Occurring in nature“ is the basis for every definition of „natural polymers“ in the scientific literature and in policy. All scientific definitions include biotechnological processes for the production of natural polymers. Not a single definition mentions the place of polymerisation as a criterion – in clear contrast to European policy. Industrial practice confirms this finding: A long list of widely accepted natural polymers includes biotechnologically processed polymers and the place of polymerisation is not a criterion.
Conclusion: A policy definition of „natural polymers“ that is at odds with almost all scientific definitions and at odds with business reality, and which is a major barrier to innovation, green investment and lower carbon footprints, needs to be revised.
The essence of the scientific definitions evaluated in this report is simple and leads to the following proposed definition: „Natural polymers are those that occur in nature, are produced in and extracted from nature, or can be produced identically using biotechnological processes“.DOI No.: https://doi.org/10.52548/UGBZ5516