Key parameters about the sustainability of bioenergy systems have been studied for a number of years. Studies have highlighted the importance of assessing sustainability in the face of rapid expected growth, and the value of developing standardized assessments on environmental, social, and economic impacts of bioenergy production. Critically, it is also important that benefits be […]
read moreSocial Life Cycle Assessment (S-LCA) is a methodology used to assess the social impacts of products and services across their life cycle. S-LCA applies LCA methodology and systematic assessment but combines it with social science methodologies; with impact categories focusing on direct positive and/or negative impact on key stakeholders during the life cycle of a […]
read moreIn a circular economy, materials can be recovered and upgraded to new high value products or reused keeping the material in-the-loop as long as it is safe from an environmental and health perspective. Developing and implementing smart sorting technologies in the waste management industry generates new possibilities to keep materials in circulation and create future […]
read moreDeployment of BECCUS value chain – From concept to commercialization Synthesis Report – Synthesis Report – Over the duration of the 2019-2021 IEA Bioenergy triennium, a consortium of IEA Bioenergy Tasks – Task 36, Task 40, Task 44 and Task 45 – collaborated on an inter-task project called Deployment of BECCUS value chains. The objective […]
read moreValorisation of biowaste in the United States: Distributed biogas upgrading to Renewable Natural Gas (RNG)using biomethanation Renewable natural gas deployments in the United States have increased significantly in recent years. As of 3/31/2020, there are 119 operational projects with a further 88 under construction. Renewable natural gas upgrading is a mature technology that processes biogas […]
read moreSorting technologies Case study about a MSW sorting facility in Norway – IVAR The IVAR plant combines post-sorting of residual waste with recycling of some of the plastic waste fractions. At the plant five different fraction of plastics, four fractions of paper, bio-waste, glass, and metal packaging are separated. In total 83.2 % by weight […]
read moreFinal report: Material and Energy Valorisation of Waste in a Circular Economy Waste-to-energy, commonly via a combustion-based process, is an effective component of a modern waste management strategy, whereby landfill-bound waste streams are converted to heat and power. The technologies supporting these pathways are mature and well-developed and have for many years contributed positively to […]
read moreBioenergy in Australia’s Circular Economy Our overlooked renewable energy opportunity In this report, we present the case for how Bioenergy could become a key pillar of Australia’s circular economy of the future. We show the way forward for Australia to realise the immense opportunities in bioenergy other countries are already taking advantage of. Bioenergy can […]
read moreDuring 2022–2024, Task 36 will focus on the effect that circular economy initiatives along the waste and energy value chain will have in the deployment of bioenergy globally. Objectives The specific objectives for the proposed programme are: Understanding economic, societal, and environmental aspects derived from different EfW and material recycling technologies/strategies adopted. Highlight the role […]
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