All post items with tag CCU
LanzaTech Global, Inc. (NASDAQ: LNZA), a leader in industrial carbon recycling, has announced successful operational results at the municipal solid waste (MSW) to ethanol pilot plant in Kuji City, Iwate, Japan owned and operated by longstanding partner, SEKISUI CHEMICAL CO., LTD. (TSE: 4204) (SEKISUI). This 1/10th commercial scale facility, with the capacity to produce approximately
Das europäische Emissionshandelssystem (EU-ETS) ist das zentrale Klimaschutzinstrument der Europäischen Union und befindet sich aktuell in einer entscheidenden Umbruchphase. Durch die geplante schrittweise Abschaffung der kostenlosen Zuteilung von Emissionszertifikaten und die Einführung des CO₂-Grenzausgleichs (CBAM) stehen viele Industrieunternehmen vor spürbaren Mehrbelastungen und drohenden Wettbewerbsnachteilen. Daher kam es zu wachsendem Protest, zuletzt in Form eines offenen
The Global Centre for Maritime Decarbonisation (GCMD) has published a life cycle assessment (LCA) of the greenhouse gas emissions from Project CAPTURED, the world’s first ship-to-ship offloading of onboard captured and liquefied CO2 (LCO2) with downstream utilisation, completed in June 2025. Verified by DNV, the LCA quantifies GHG emissions and savings across the pilot’s entire
The HICCUPS project aims to efficiently convert biogenic CO₂ from wastewater treatment plants into bio-based polymers for packaging. Using an electrochemical process, CO₂ from sludge is transformed into monomers and polymerised into polylactic-co-glycolic acid (PLGA). This biodegradable polymer, with excellent barrier properties, offers a renewable alternative to fossil-based polyethylene. To showcase its potential, PLGA-based packaging
The article noted that Mitsubishi Corporation, working with partners including Infinium, has supplied polypropylene resin produced from synthetic raw materials derived from captured carbon dioxide to Volkswagen. Early estimates suggest that manufacturing emissions associated with these components could be reduced by approximately 75% compared to conventional materials. The development reflects increasing interest from the automotive
Contribution to European energy and fuel security In the future, Rheinmetall intends to enable armed forces to produce their own fuel locally and independently of global fossil fuel supply chains. To ensure the operational readiness and energy supply of military forces, Rheinmetall is now presenting a new strategic concept: the independent synthesis of e-fuels by
Beitrag zur Europäischen Energie- und Kraftstoffsicherheit Rheinmetall will den Streitkräften künftig ermöglichen, ihren benötigten Kraftstoff dezentral und unabhängig von globalen Lieferketten fossiler Energieträger selbst zu produzieren. Mit Blick auf die Sicherstellung der Einsatzbereitschaft und Energieversorgung militärischer Kräfte stellt Rheinmetall daher nun ein neues strategisches Konzept vor: Die eigenständige Synthetisierung von e-Fuels durch europäische Armeen. Das
From cutting-edge chemical recycling and more sustainable polymers to renewable fuels, clean energy technologies, and low-carbon construction materials, the most promising innovators in Sustainable Chemistry pitched their ideas at the final of the ISC3 Innovation Challenge 2025. The 6th edition of the International Sustainable Chemistry Collaborative Centre (ISC3) start-up challenge took place as part of the ISC3 Investor
Von innovativem chemischem Recycling und nachhaltigeren Polymeren über erneuerbare Kraftstoffe, saubere Energietechnologien und CO₂-arme Baumaterialien: Die vielversprechendsten Innovator:innen im Bereich Nachhaltige Chemie präsentierten ihre Ideen beim Finale der ISC3 Innovation Challenge 2025. Die sechste Ausgabe des Start-up-Wettbewerbs des International Sustainable Chemistry Collaborative Centre (ISC3) fand im Rahmen des ISC3 Investor Forums auf dem Impact Festival am 26.
In a breakthrough that defies nature, Northwestern University and Stanford University synthetic biologists have created a new artificial metabolism that transforms waste carbon dioxide (CO2) into useful biological building blocks. In the new study, the team engineered a biological system that can convert formate — a simple liquid molecule easily made from CO2 — into