For the average citizen, Algae is often viewed as a problematic growth, sometimes found in backyard swimming pools and in-home fish tanks. These environments are constantly trying to eliminate and prevent algae formation. On the other hand, algae today in greenhouse gas emissions reduction efforts and biofuel production via algae growth are significant; where algae support environmental improvement (via CO2 sequestration) and supports biofuels, which should be among the most acute demands of our time. Coincidentally, with restrictions on fossil fuels in the Middle East; this is ever more critical than before. In addition to ethanol projects today, the electric utility sector has tested the injection of hot flue gas from coal and gas fired power plants, with the potential for carbon sequestration. Certain blue-green algae can grow in an environment with hot flue gas from such power or chemical projects. Via photosynthesis, carbon dioxide and water are basic requirements for algae growth, and oxygen plus water vapor are by-products from this process. The algae also can absorb SOx and NOx; two compounds which cause acid rain. The algae process from power, combustion, and other chemical projects including ethanol are therefore a means of sequestering carbon, plus, in some cases, other environmentally harmful agents, with an energy source feedstock in the form of algae generated; which could be used for both ethanol and biodiesel projects. As for ethanol and biodiesel, when a full loop or cycle is considered, whereby ethanol yields CO2 as a by-product, and this CO2 is then used in algae growth, from this point, algae can be used in the manufacture of biodiesel and/or a feedstock for fermentation as ethanol; conceivably a cycle is then generated; that being a cycle using CO2 from ethanol and other CO2 sources for production of algae; and this algae returning as a feedstock for ethanol or as a feedstock in biodiesel projects. The algae growth is a CO2 sink, or form of sequestering carbon; thus, it is extremely important today, as would be generating a viable, highly efficient form of plant oil from algae. Algae could be considered the most viable oil source available, growing more rapidly than any other material. Please see illustration 1 for the CO2 an algae sourcing concepts for biodiesel and ethanol production. As a rule of thumb, approximately one ton of carbon dioxide would be removed (from otherwise airborne emissions) via the growth of two tons of algae. Carbon Dioxide – Gross Yield, Markets, and Ethanol Merchant Carbon dioxide is well known as a soft drink carbonation agent, a cryogenic fluid, and an industrial gas consumed in foundries, to name a few. Globally, there is an estimated 25 million tons of total CO2 emissions daily absorbed by the oceans, leaving a gross 50 million tons in excess, beyond the ocean’s ability to take on this gas as a natural process, again this is on a daily schedule, all produced from industrial and biological processes. This is primarily power plant, flue gas & chemical by-product; to follow with a wide range of other processes daily. This total 50 million tons of carbon dioxide in excess each day is growing at an astronomical rate, from an emissions perspective. Next is the question of growing energy demand. The U.S. has a dire need to become green energy independent, as well as other continents and countries throughout the globe. Even in markets which are oil rich, CO2 sinks must be established which are of a viable nature, v. those which are not true sequestration methods, such as enhanced oil recovery (EOR), and class VI wells. Therefore, using CO2 from ethanol sources as an ingredient for algae growth, is an excellent CO2 sink, since algae oil can then be used to produce biodiesel. Some 40% of the U.S. merchant CO2 is sourced from ethanol v. other sources in the United States. The U.S. Midwest is today well satisfied with merchant CO2 from ethanol, assuming all current CO2 from ethanol sources continue. Other regions of the US and various global markets are also candidates for CO2 from ethanol; that being for merchant use. As for algae use, all regions are wide open when ethanol and CO2 emitting sources exist. The ethanol markets in the US and Brazil essentially equal each other in terms of volume, however, corn-based ethanol sources run year-round v. those sourced from sugar cane, as found in Brazil. The problem with the sources in Brazil, if dedicating these sources to the algae production, a chemical process, or the merchant markets, yield a void period due to the timing associated with sugarcane crops as well as the lack of a viable means for storage of sugarcane v. corn. At one time, and in error, corn gained a negative reputation in terms of creating food shortages and high food prices; which is not correct; evermore in today’s world. Since most of the corn is dedicated to markets other than ethanol, those concerned about grain use as a feedstock sometimes sought alternate feedstocks, such as algae. Ethanol is one of today’s hopes to become green energy independent in the U.S., and elsewhere; and the drive in some markets to increase the gasoline blend to E-15, only makes sense. Biodiesel growth, Feedstock Yield & Projects Algae have basic requirements for growth, including CO2, water, nutrients, and sunlight. CO2 is a major by-product of ethanol production. Algae can serve as a feedstock for biodiesel and ethanol. The discussion surrounding this article surrounds the biodiesel sector, where on the front end, CO2 is one ingredient for growth of algae; and algae is then discussed as perhaps the ultimate source of plant-based oil for biodiesel. It is also well known that algae can flourish in otherwise hostile growing environments, including non-arable land, or in dirty water. When algae flourishes, it is unmatched by any terrestrial feedstock known. Algae can double in mass several times daily. In the United States, Iowa and Texas have traditionally been the largest producers of biodiesel; with a total of 11 plants or so; with a newfound interest in SAF. Of course, B100 as 100% biodiesel is more expensive than diesel; so the most common form of biodiesel is 20% by volume, or B20 more commonly known. With respect to estimating the number of U.S. gallons of biodiesel produced from a variety of feedstock materials, algae is often considered the highest in efficiency when compared to a variety of other materials, for example, table 1 below has estimates which are defined in terms of gallons of biodiesel per acre (gpa). Table 1 – feedstock yield from acreage of crop source CROP YIELD – gpa Algae 1,800 to 15,000 Tallow, Chinese 503 to 970 Palm Oil 508 Coconut 230 Rapeseed 102 Soy 59.2 to 98.6 Peanut 90 Sunflower 82 The DOE has estimated that algae fuel can yield up to 30 times more energy per acre than land crops such as soybean. A growing consensus suggests that biodiesel produced from algae is the only feasible solution today for replacement in full of petro-diesel products. No other feedstock has the oil yield sufficient in volume to produce such large volumes of oil. To illustrate this point, in order to produce sufficient oil for biodiesel from crops such as soy or palm, all growing regions for all of today’s crops would have to produce simply soy (for example) to yield sufficient biodiesel for full replacement v. producing a mix of biofuel the ideal algae strains and food dedicated products. Given the high oil yield from algae, from 10 to 45 million acres would be sufficient, as land, pond, or ocean space, to grow enough algae to replace the total petro- diesel fuel in the United States today. This is 发布时间：2026-07-16 renewable carbon news

CEO and Founder, Tom Rose, holding ReVentas virgin-like recycled film © Reventas ReVentas, a Scottish start-up pioneering a new type of plastic recycling, has been awarded £3.5m grant funding from Scottish Enterprise to support the development of their solvent based recycling technology over the next three years. The funding, awarded as part of a £9m project, will help ReVentas further develop its proprietary recycling technology, with a particular focus on difficult to recycle plastics such as films found in food packaging. These materials remain one of the biggest challenges in plastic recycling today and will become an increasing priority for councils from 2028 onwards as requirements to collect and process films expands across the UK. ReVentas’ patented dissolution recycling technology uses a chemical solvent to rapidly dissolve waste plastics, filtering the polymer of contaminants including colour and odour, and producing a natural, virgin-like polymer that can be directly used in high value applications such as packaging, automotive and consumer products. The technology operates at low temperatures and pressures, reducing both process cost and carbon footprint, providing a sustainable route to recycling plastics at scale. ReVentas recently signed an engineering and licensing alliance agreement with global engineering company KBR to support the roll out of the technology globally. The Scottish Enterprise backed project will accelerate ReVentas ambition to take its technology closer to commercial deployment by expanding their pilot plant facility in Livingston to handle more complex plastic waste streams. CEO and Founder of ReVentas, Tom Rose, said: “Plastics are essential to every part of our lives, but we have not yet delivered workable solutions to deal with them at the end of life. ReVentas is providing a simple, scalable solution that can ensure the waste plastic we produce today are directly used in the products we buy tomorrow. “By continuing to develop our technology in Scotland, ReVentas can impactfully contribute to Scotland’s important net zero and circular economy goals.” Nicola Anderson, Director of Scaling Innovation at Scottish Enterprise, said: “ReVentas is developing pioneering recycling technology that has the potential to transform how valuable materials are recovered and reused, supporting Scotland’s transition to a more sustainable, circular economy. By turning cutting-edge innovation into commercial opportunity, the company is creating high-quality green jobs, attracting investment and strengthening Scotland’s position as a leader in clean technologies. “We are proud to have supported ReVentas throughout its growth journey. Over several years, Scottish Enterprise has worked alongside the company to secure international funding, develop a robust intellectual property strategy and unlock the investment needed to scale. More recently, our £2 million investment and this R&D grant are helping accelerate the development and commercialisation of technology with significant global potential. “ReVentas is a fantastic example of Scottish innovation delivering economic, environmental and social value. We look forward to continuing our partnership as the business grows internationally, creates new opportunities for Scotland and helps address some of the world’s most pressing sustainability challenges.” About ReVentas ReVentas is a Scottish recycling technology company based in Livingston, developing a patented solvent based recycling technology for polyethylene and polypropylene, the two most common plastics in use today. The process dissolves waste plastic, removes contamination including colour and odour, and produces a virgin-like recycled polymer suitable for high value applications. Based in Livingston, Scotland, ReVentas is focused on creating closed-loop recycling solutions that allow plastic waste to be reused in the products and packaging of the future. About Scottish Enterprise Scottish Enterprise (SE) is Scotland’s national economic development agency and a non-departmental public body of the Scottish Government. It supports businesses to innovate and scale to transform the Scottish economy by focusing on new market opportunities through targeted investment, innovation and internationalisation. Source ReVentas, press release, 2026-07-08. Supplier KBR ReVentas Scottish Enterprise Share Renewable Carbon News – Daily Newsletter Subscribe to our daily email newsletter – the world's leading newsletter on renewable materials and chemicals Subscribe

It was revealed last month that Pryme was undergoing a strategic realignment. The company had halted operations at its “Pryme One” plant in Rotterdam, a facility designed to process plastic waste into pyrolysis oil. In 2021, Pryme had signed an off-take agreement with Shell for the pyrolysis oil produced at the “Pryme One” plant. © Pryme Closure of the plastics recycling plant However, technical issues forced Pryme to scale back the plant’s capacity. Ultimately, it proved impossible to repair or replace the reactor. The Port of Rotterdam Authority recently announced that the plant will remain permanently shut down, as Pryme was unable to secure sufficient funding to upgrade or expand the facility. The company states that it is considering a restructuring and remains open to “strategic alternatives,” including options in Rotterdam and Amsterdam. Note from the editorial office: this text was translated from German language by the Google translater! Source nova-Institute, original text, 2026-07-06. Supplier Port of Rotterdam Pryme Shell Group Share Renewable Carbon News – Daily Newsletter Subscribe to our daily email newsletter – the world's leading newsletter on renewable materials and chemicals Subscribe

Im vergangenen Monat wurde bekannt, dass Pryme eine Neuausrichtung vornimmt. Das Unternehmen hatte die Anlage „Pryme One“ in Rotterdam stillgelegt, in der Kunststoffabfälle zu Pyrolyseöl verarbeitet werden. In 2021 wurde mit Shell ein Abnahmevertrag für das Pyrolyseöl abgeschlossen, welches in der Anlage „Pryme One“ in Rotterdam seit Januar 2024 produziert wird. © Pryme Schließung der Kunststoffrecyclinganlage Aufgrund technischer Probleme sah sich Pryme jedoch gezwungen, die Kapazität der Anlage zu drosseln. Letztendlich war es nicht möglich, den Reaktor zu reparieren oder zu ersetzen. Die Hafenbehörde Rotterdam teilte kürzlich mit, dass die Anlage endgültig stillstehen bleibt. Für Pryme sei es nicht machbar, ausreichende Finanzmittel zu beschaffen, um die Anlage zu verbessern oder zu erweitern. Pryme wird weiterbestehen. Das Unternehmen gibt an, eine Umstrukturierung zu prüfen und offen für „strategische Alternativen“ zu sein, unter anderem in Rotterdam und Amsterdam. Originalquelle: https://www.europoortkringen.nl/pryme-sluit-plasticrecyclingfabriek-definitief/ Source nova-Institut, Originaltext, 2026-07-06. Supplier Port of Rotterdam Pryme Shell Group Share Renewable Carbon News – Daily Newsletter Subscribe to our daily email newsletter – the world's leading newsletter on renewable materials and chemicals Subscribe

Signing Ceremony © MGC Mitsubishi Gas Chemical Company, Inc. (MGC; Head Office: Chiyoda-ku, Tokyo; President: Yoshinori Isahaya) is pleased to announce that on July 2, 2026, it entered into a purchase and sale agreement (hereinafter “the Agreement”) with ACME Group. In connection with the signing of this Agreement, a signing ceremony was held on the same day in the presence of the high officials from the Ministry of New and Renewable Energy (MNRE), India and the Ministry of Economy, Trade and Industry (METI), Japan. ACME Group cemented its position as a global pioneer in this space by commissioning an integrated green hydrogen and ammonia pilot plant in Rajasthan – a landmark milestone in India’s clean energy journey. Further strengthening its global credentials, the Group has started the additional green ammonia project in Oman, as well as Odisha, India. Building on the momentum of its ammonia initiative, ACME has now set its sights on green methanol as its next strategic frontier, developing dedicated production infrastructure to serve this emerging market. The present agreement relates to the offtake of green methanol to be produced by a project currently under advancement in Odisha, India (“Project”), forming an integral part of ACME’s broader green methanol strategy. Starting from the commencement of commercial operation, scheduled for 2030, MGC will offtake approximately 100,000 tons per year of green methanol, becoming a key offtaker for the Project. By supplying green methanol – a product with reduced environmental impact – for fuel as well as a wide range of chemical applications, MGC will respond effectively to growing demand and promote methanol-based decarbonization in Japan and across Asia. MGC aims to play a pioneering role in the decarbonization of the energy and chemical sectors through “CarbopathTM”, an environmentally circular platform that MGC drives to achieve carbon recycling by producing methanol from emitted CO2, waste plastics, biomass, and other sources, and using it as fuel, raw material, and chemical feedstock. This Agreement will contribute to the stable supply of low carbon energy and materials primarily in Japan and the broader Asian region, while supporting the creation and expansion of green markets. Anil Kumar Taparia, Chief Executive Officer – Green Molecule Business, ACME Group: “This agreement marks an important milestone in ACME’s journey to build a globally competitive green methanol business and accelerate the transition to sustainable fuels and chemicals. We are proud to partner with MGC, a globally respected leader in the methanol industry, to advance the commercialization of green methanol at scale. As industries worldwide seek viable pathways to decarbonization, green methanol is emerging as a critical solution for reducing emissions across shipping, chemicals, and other hard-to-abate sectors. By combining ACME’s expertise in renewable energy and green hydrogen with MGC’s deep experience in methanol technologies and markets, we are creating a strong foundation for the growth of the global green methanol economy. This partnership extends beyond a long-term offtake arrangement. It reflects a shared vision to accelerate innovation, scale sustainable production, and make green methanol a commercially viable and widely adopted solution for the low-carbon future. We look forward to working closely with MGC to unlock the full potential of green methanol and contribute meaningfully to the global energy transition.” Hideaki Akase, Managing Executive Officer, Green Energy & Chemicals Business Sector for Mitsubishi Gas Chemical Company, commented: “ACME Group, which has continuously created new frameworks in new business fields, is now trying to navigate through the challenge in green methanol field. We are very honored to have concluded a long-term contract to purchase this green methanol and contributed them to overcome those challenges. The green methanol that MGC will offtake under this contract will have the ultra-low carbon intensity compliant with EU regulations and future IMO regulations, alongside an attracting price to the green market. We are confident that this green methanol have the power to significantly transform not only in Japan or Asia but also the global green chemical and green energy markets. We will continue to collaborate with ACME Group to contribute to the global transition to a sustainable society by the potential of methanol.” Guided by our corporate mission, “Creating value to share with society,” MGC will continue to promote the widespread adoption of environmentally circular methanol within the methanol value chain and contribute to building a sustainable future. About ACME Group ACME Group is promoting the Green Molecules Business and rapidly expanding global footprint, reinforcing its credibility as a reliable supplier of green molecules. It has established a strong foundation with its operational green ammonia facility in Bikaner, India and is advancing its international ambitions through a world-class green ammonia project in Duqm, Oman. ACME Group is also establishing new facilities in Odisha, India. Guided by a clear vision to partner with industries in achieving their net zero goals, ACME’s Green Molecules Business is focused on decarbonizing hard-to-abate sectors such as fertilizers, shipping, and heavy industry. Through integrated project development, strategic collaborations, and a commitment to innovation, the company aims to accelerate the global transition towards sustainable energy systems. More Information For more about CarbopathTM: https://www.carbopath.mgc.co.jp/en Source Mitsubishi Gas Chemical, press release, 2026-07-03. Supplier ACME Group METI Ministry of Economy, Trade and Industry Ministry of New and Renewable Energy (MNRE) Mitsubishi Gas Chemical (MGC) Share Renewable Carbon News – Daily Newsletter Subscribe to our daily email newsletter – the world's leading newsletter on renewable materials and chemicals Subscribe

© CBE JU What do coffee capsules, car components, cosmetics, fertilisers and household cleaners have in common? They can be made from Europe’s renewable biological resources instead of imported fossil-based materials. Innovative and sustainable bioproducts are entering a wide range of markets to offer consumers a variety of advantages compared to their fossil-based alternatives and strengthen Europe’s strategic autonomy. On 7 July, CBE JU marks World Bioproduct Day by highlighting products developed thanks to CBE JU-funded projects. Made from resources, such as agricultural and forestry side-streams, food-processing residues, microalgae, hemp and botanical extracts, these solutions span packaging, agriculture, construction, food, cosmetics, home care and many other applications. CBE JU has funded 243 projects, supporting the building up of 23 first-of-their-kind biorefineries across Europe, helping bio-based innovation progress from research and demonstration to industrial deployment. Current project reporting points to 141 new bio-based products delivered under BBI JU and 97 circular bio-based products being developed through CBE JU-funded projects. These new materials, ingredients and products can reduce reliance on fossil resources, strengthen European industrial value chains and create economic opportunities across rural, coastal and industrial regions. They also often outperform fossil-based products while offering a more sustainable and healthy alternative. © TERRIFIC coffee capsules Compostable packaging from agricultural resources The TERRIFIC flagship project has produced compostable coffee capsules from sugars derived from agricultural side-streams. The materials are designed to contain more than 95% renewable resources while preserving coffee freshness and flavour and withstand the temperatures required to make an excellent espresso. The project is also exploring several end-of-life routes, including recycling, composting, repulping and anaerobic digestion. This offers greater flexibility for different waste-management systems while reducing dependence on fossil-based packaging materials. Bio-based bottles already on supermarket shelves © PEFerence bio-based bottles The PEFerence flagship project has developed fully recyclable bottles made from 100% bio-based PEF, marketed as releaf®, using renewable plant-based resources. The material is already used in a lightweight, mono-material bottle available at Albert Heijn supermarkets. The bottle provides a strong oxygen barrier, helping protect product quality and extend shelf life, while reducing reliance on fossil-based plastic. The project has also demonstrated applications for wine and carbonated drinks, including bottles designed to preserve wine quality and improve oxygen and carbon dioxide barriers while remaining compatible with existing production and recycling systems. © BRILIAN mulch films Biodegradable materials for crop production The BRILIAN project has developed mulch films for seed potato cultivation, using starch recovered from potato-processing waste and water from potato-cutting operations. The material is designed to biodegrade within one growing season, offering farmers an alternative to conventional plastic mulch without leaving persistent waste in the field. Better for soil health, and it also creates additional value from side-streams generated by the potato-processing industry. “Biodegradable potato-starch mulching developed within the BRILIAN project optimises seed potato cultivation. Since it degrades naturally, it eliminates removal needs and prevents soil erosion. Furthermore, this circular use of potato starch within the project ensures stable material pricing for the partners, avoiding the high market volatility currently associated with traditional straw mulch.” – Laura Villacian, European R&D Project Manager at TECNOPACKAGING. © FIBSUN hemp composite Natural fibres in automotive components The FIBSUN project has developed lightweight, durable non-woven composites for automotive applications using industrial hemp fibres cultivated in Germany. These materials can reduce reliance on fossil-based components and lower the carbon footprint of vehicles. They also create new market opportunities for sustainably produced natural fibres and strengthen links between agriculture and industrial manufacturing. “Balancing environmental benefits with economic value, industrial hemp (Cannabis sativa) is the ultimate sustainable fibre for automotive design. Integrated into hybrid composites and optimised with microfibrillated cellulose, hemp pre-forms drive vehicle weight reductions while delivering the elite crash, acoustic, and vibrational performance demanded by automotive OEMs over traditional synthetic alternatives.” – Percy Alao, FIBSUN project. © ELLIPSE fertiliser Controlled-release fertilisers from industrial side-streams The ELLIPSE project has developed controlled-release fertiliser granules coated with bio-based, biodegradable polyesters and polymers produced from paper and pulp industry waste. This coating releases nutrients gradually, helping reduce nutrient losses, while avoiding the microplastic pollution associated with conventional coatings. Designed to meet EU soil-biodegradability requirements, the solution creates higher-value applications for industrial by-products and supports more efficient nutrient use in agriculture. © VIOBOND sand paper Lignin-based resins for construction and industrial materials The VIOBOND flagship project has developed a thermosetting resin in which lignin replaces fossil-based phenol in phenol-formaldehyde formulations. The resin can be used in impregnated paper for plywood overlays and interior laminates, improving durability while reducing the use of fossil chemicals. It has also been applied in sandpaper, where it delivers the required abrasive performance with a lower fossil-based resin content. Replacing fossil phenol with lignin in these established applications reduces the carbon footprint of plywood, laminates and abrasive materials without compromising the durability or performance required by manufacturers. © SUSTAINEXT botanical extracts Botanical extracts in food products The SUSTAINEXT flagship project has developed an artichoke pesto, containing rosemary extract in replacement of chemical preservatives. The botanical ingredient helps limit oxidation and browning while reducing acidic and bitter notes, improving the product’s sensory profile. The example demonstrates the practical role that natural extracts can play in food formulations and their potential to replace synthetic preservatives while supporting biobased sustainable products. © REDWINE algae face cream Cosmetics from microalgae and wine-production side-streams The REDWINE project has developed a cosmetic cream containing Chlorella vulgaris extract and ingredients obtained from red wine production by-products. The formulation combines these ingredients in stable cosmetic matrices designed to support microbiological safety and product performance. It shows how microalgae and food-production side-streams can provide high-value ingredients for more sustainable cosmetics. Biosurfactants for home care © SURFs UP cleaning products The SURFs UP project is developing biosurfactants from hardwood sugars, lignin from wood waste and regional food-processing residues. These ingredients will be incorporated into products such as bathroom cleaners, kitchen cleaners and dishwashing liquids. The project is demonstrating how bio-based surfactants can provide effective cleaning performance while reducing reliance on fossil-based ingredients and potentially lowering the toxicity of cleaning formulations. Potato-processing side-streams can become biodegradable mulch, almond shells can be incorporated into manufactured products and wood and food-processing residues can provide ingredients for household cleaners. These examples show how resources that are currently underused can supply materials and ingredients for established markets. World Bioproduct Day also highlights what is needed to bring such solutions into wider use. Through collaboration across research, industry and primary production, CBE JU-funded projects are demonstrating technologies at scale, validating product performance and building the value chains required for industrial deployment. This strengthens Europe’s capacity to manufacture more of its materials and products from renewable resources, supporting competitiveness, resilience and strategic autonomy. Check out some of the bio-based products © REDYSIGN food trays © WOODCELL burger box © BARBARA car fascia © BARBARA light stool made from almond shells © FIBSUN bio-based cement SUSTAINEXT pesto Discover more bio-based products Source CBE JU, press release, 2026-07-06. Supplier Circular Bio-based Europe Joint Undertaking (CBE JU) Share Renewable Carbon News – Daily Newsletter Subscribe to our daily email newsletter – the world's leading newsletter on renewable materials and chemicals Subscribe

Avantium N.V. gibt die Ausgliederung seiner elektrochemischen Plattform, die zuvor unter dem Namen Volta Technology bekannt war, in ein neues,… Full text: https://www.chemie.de/news/1189144/avantium-gliedert-volta-technology-in-das-neue-unternehmen-carbeau-aus.html Source Chemie.de, 2026-07-07. Supplier Avantium Technologies B.V. Carbeau (former Volta Technology) Share Renewable Carbon News – Daily Newsletter Subscribe to our daily email newsletter – the world's leading newsletter on renewable materials and chemicals Subscribe

Avantium N.V., a pioneer in renewable and circular polymer materials, today announces the spin‑out of its electrochemical platform, previously known as Volta Technology, into a new, independent company named Carbeau, with retrospective effect from 1 April 2026. Carbeau is backed by a strong investor consortium comprising GKT, Invest‑NL, Al Baleed Petrochemical and NOM, alongside Avantium. Volta Technology is an electrochemical platform that converts CO₂ into high-performing chemicals using electricity, enabling the use of CO₂ as a raw material rather than a waste stream. Carbeau has secured a total of €35.2 million in funding. This includes €23.7 million in cash contributions from external investors and an 11.5 million in-kind contribution (non-cash) from Avantium. Following the transaction, Avantium retains a 32.7% shareholding in Carbeau. The external investor group brings together complementary industrial, financial and regional expertise. Strategic partners comprise GKT GmbH, based in Austria, contributing extensive experience in industrial process technology, and Al Baleed Petrochemical (SFZ), based in Oman, adding petrochemical and international market expertise. Financial partners are Invest‑NL, the National Promotional Institution of the Netherlands, supporting the acceleration of innovative and sustainable technologies, and Investment and Development Agency for the Northern Netherlands (NOM) strengthening Carbeau’s connection to the Northern Netherlands’ industrial ecosystem. Together with Avantium, the consortium is well positioned to support Carbeau’s next phase of growth and scale‑up ambitions. The name Carbeau unites “Carbon” and “Beau” (beautiful), perfectly capturing the company’s mission: Making Carbon Work Beautifully. Carbeau shifts the global narrative around CO₂ by transforming it from a critical emission challenge into valuable and sustainable materials. Carbeau’s technology platform focuses on the electrochemical conversion of CO₂, using electrons, preferably generated from renewable electricity, into valuable chemical building blocks. This approach enables the transformation of CO₂ from a waste emission into a valuable feedstock, supporting the production of high‑value, renewable products with limited to negative carbon emissions. The company’s initial product focus includes glycolic acid for the personal care market and PLGA (polylactic‑co‑glycolic acid), a compostable plastic offering strong technical performance in terms of barrier properties and marine degradability. These CO₂‑based products are designed to be cost‑competitive with incumbent fossil‑based materials, supporting both climate objectives and broad market adoption. Carbeau will be headquartered at the Amsterdam Science Park, maintaining close ties with Avantium’s broader innovation ecosystem, and is planning the development of a pilot plant in Delfzijl in the north of the Netherlands. The Delfzijl region offers a strong industrial and Carbon Capture & Utilization (CCU) base and aligns well with Carbeau’s ambitions to leverage sustainable energy and infrastructure for scaling its electrochemical CO₂ conversion technology. The company will be led by an experienced management team with expertise across technology development, scale‑up and commercialization. By spinning out Volta Technology into Carbeau, Avantium enables a sharper strategic focus for both companies. Avantium continues to advance its core activities in renewable polymer materials, while Carbeau accelerates the development and industrial deployment of electrochemical CO₂ utilization technologies. Yap Chie Cheung, CEO of Carbeau, said: “Today marks an important milestone for our team. What started within Avantium as a pioneering technology platform has grown into Carbeau, a company with a clear mission and a bright future ahead. I would like to sincerely thank Avantium for its support and belief in the technology over the years, as well as our investors for their confidence in our vision. With €35.2 million in funding and the backing of an outstanding consortium of strategic and financial partners, we are in a strong position to accelerate commercialization and scale-up. We believe Carbeau can play an important role in transforming CO₂ from a challenge into an opportunity, and we now have the team, technology and partners to make that ambition a reality.” Tom van Aken, CEO of Avantium, added: “We are tremendously proud to see Volta Technology evolve into Carbeau. This spin-out demonstrates Avantium’s ability to develop breakthrough technologies and bring them to a stage where they can attract substantial external investment and pursue their own growth trajectory. The €35.2 million financing and the strong consortium supporting Carbeau are a powerful endorsement of both the technology and the team behind it. We are pleased to remain closely involved as a significant shareholder, retaining a 32.7% stake in Carbeau. We look forward to supporting the company as it enters this exciting next phase and to seeing the impact its technology can have on advancing the circular carbon economy.” About Carbeau Carbeau is a technology company focused on the electrochemical conversion of CO₂ into high‑value, renewable products. Building on an electrochemical platform that uses electricity to drive chemical reactions, Carbeau enables CO₂ to be used as a raw material rather than a waste stream. The company’s technology supports the production of cost‑competitive, CO₂‑based chemicals and materials with limited to negative carbon emissions, contributing to the transition towards a circular and climate‑neutral economy. Carbeau is headquartered in Amsterdam, the Netherlands. More information can be found at www.carbeau.com About Avantium Avantium is a pioneering commercial-stage company focused on renewable & circular polymer materials. Avantium develops and commercializes innovative technologies for the production of materials based on sustainable carbon feedstocks. The most advanced technology is the YXY® Technology that catalytically converts plant-based sugars into FDCA (furandicarboxylic acid), the key building block for the sustainable plastic PEF (polyethylene furanoate). PEF is known under the brand name releaf®, an EU registered trademark of Avantium. Avantium has successfully demonstrated the YXY® Technology at its pilot plant in Geleen, the Netherlands, and is in the process of starting the world’s first commercial plant for FDCA in Delfzijl, the Netherlands. Avantium works in partnership with like-minded companies around the globe to develop revolutionary renewable chemistry solutions from invention to commercial scale. Avantium’s shares are listed on Euronext Amsterdam and Euronext Brussels (symbol: AVTX). Avantium is incorporated in the Euronext Amsterdam SmallCap Index (AScX). Its offices and headquarters are in Amsterdam, the Netherlands. About GKT GKT GmbH is an Austrian technology company specializing in industrial process technology and engineering solutions. The company supports the development, design and scale-up of innovative industrial processes across a range of sectors. With extensive expertise in process development and commercialization, GKT helps bring advanced technologies from concept to industrial implementation. About Al Baleed Petrochemical (SFZ) Al Baleed Petrochemical (SFZ), based in the Sultanate of Oman, is a company focused on investments and partnerships in the petrochemical and chemicals sector. The company supports the development and commercialization of innovative technologies that contribute to a more sustainable industrial future, while leveraging its expertise in petrochemical markets and international business development. About Invest-NL Invest-NL is the National Promotional Institution. Invest-NL supports innovative companies and projects that contribute to societal transitions, including the energy transition, circular economy, sustainable industry and deep-tech innovation. Through financing and expertise, Invest-NL helps accelerate the development and scaling of solutions that strengthen the future earning capacity of the Netherlands. About NOM NOM (Investment and Development Agency for the Northern Netherlands) is the regional development agency for the Northern Netherlands. NOM supports innovative companies through investment, business development and internationalization, with the aim of strengthening the regional economy and accelerating sustainable growth. NOM plays an active role in developing the Northern Netherlands as a leading region for energy, circularity and industrial innovation. Source Avantium, press release, 2026-07-06. Supplier Avantium Technologies B.V. Carbeau (former Volta Technology) GKT.at NOM, Investment and Development Agency for the Northern Netherlands Share Renewable Carbon News – Daily Newsletter Subscribe to our daily email newsletter – the world's leading newsletter on renewable materials and chemicals Subscribe

© Algenesis Labs Algenesis Labs, a San Diego-based sustainable materials science company, today announced it has received the 2026 ACS Green Chemistry Challenge Award in the Small Business category. The award recognizes Algenesis for its Soleic® platform, a family of plant-based, fully biodegradable polyurethane materials engineered to match the performance of conventional petroleum-based alternatives while leaving zero persistent microplastics behind. One of the most prestigious recognitions in sustainable chemistry, the ACS Green Chemistry Challenge Award honors technologies that advance green chemistry principles to benefit human health and the environment. Algenesis will be honored at the ACS Fall 2026 Meeting in Chicago on Aug. 26, 2026. Dr. Stephen Mayfield © Algenesis Labs “Winning in the Small Business category is a validation that you don’t need a massive R&D budget to solve one of the most urgent pollution crises on the planet,” said Dr. Stephen Mayfield, CEO and Co-Founder of Algenesis Corporation. “We built Soleic® from the ground up to address the growing accumulation of microplastics in our oceans, our soil, and ultimately our bodies. This recognition from ACS tells us the science is right and the timing is now.” Performance Without the Plastic Legacy Soleic® is a patent-pending family of polyurethane materials — polyols, isocyanates, thermoplastic polyurethanes, and foams, derived from plant-based feedstocks that do not compete with the food supply. USDA BioPreferred® certified across multiple product grades (56% to 100% biobased content), Soleic® matches the durability, flexibility, and abrasion resistance of conventional polyurethane while biodegrading fully in compost, soil, and marine environments. Creating truly sustainable plastics requires reducing greenhouse gas emissions, replacing petroleum with renewable raw materials, and eliminating persistent microplastic pollution at end of life. Soleic® addresses all three, delivering a 50–65% reduction in greenhouse gas emissions compared to petroleum-based alternatives, according to an independent life cycle assessment conducted by TrueNorth Collective. Unlike conventional plastics that fragment into persistent microplastics, Soleic® undergoes true mineralization, breaking down into CO₂ and biomass with no harmful residues. Biodegradation has been validated under ASTM D5338 and ISO 14855, with ecotoxicity confirmed through OECD 208 plant growth studies. Why It Matters Footwear alone sheds up to 400,000 tonnes of microplastics annually, representing 15–20% of total sole mass produced globally. A 2025 Nature Medicine study confirmed microplastic bioaccumulation in human kidneys, livers, and brains. Duke University’s 2025 analysis estimated the U.S. Social Cost of Plastic at up to $1.1 trillion annually.Algenesis’ 17 peer-reviewed papers demonstrate that Soleic® microplastics biodegrade rapidly — unlike petroleum-based microplastics, which persist for centuries. About Algenesis Corporation Algenesis pioneers bio-based, fully biodegradable polyurethanes that leave no harmful microplastics behind. Spun out of UC San Diego and built on 17 peer-reviewed studies, Soleic® delivers high-performance materials for footwear, apparel, and industrial applications with 50–65% lower GHG emissions than petroleum-based alternatives and USDA BioPreferred® certification. For a World Without Microplastics. www.algenesislabs.com Source Algenesis Corporation, press release, 2026-07-06. Supplier Algenesis Materials American Chemical Society (ACS) BioPreferred TrueNorth Collective Share Renewable Carbon News – Daily Newsletter Subscribe to our daily email newsletter – the world's leading newsletter on renewable materials and chemicals Subscribe

Wie fördert Indien verantwortungsvoll erzeugte biobasierte Rohstoffe? Sangeeta Srivastava, Executive Director bei Godavari Biorefineries© Godavari Sangeeta Srivastava: Die aktuellen geopolitischen Spannungen… Full text: https://www.farbeundlack.de/nachrichten/rohstoffe/biobasierte-rohstoffe-das-indische-modell/ Source Farbe und Lack, 2026-06-23. Supplier Arkema Godavari Biorefineries Ltd. Share Renewable Carbon News – Daily Newsletter Subscribe to our daily email newsletter – the world's leading newsletter on renewable materials and chemicals Subscribe