Showing results for: Bioenergy
French non-profit Solagro has released an English version of this report, which presents the Afterres2050 scenario: a bottom-up assessment of the future of the French food system. The scenario was developed in consultation with farmers, foresters, nutritionists, community representatives, etc. as well as a multidisciplinary scientific council.
This blog post by Shefali Sharma of the Institute for Agriculture & Trade Policy says that agriculture and the people whose livelihoods depend on it must be core considerations in international climate negotiations. Sharma argues that proposed solutions such as bioenergy with carbon capture and storage (BECCS) and carbon credits simply allow existing industries to continue increasing their emissions.
This report sets out the plans of the UK’s NFU (National Farmers Union) to make emissions from agriculture in England and Wales net zero by 2040. It calls for collaboration between farmers, government and NGOs to reduce emissions through improved production efficiency, carbon capture through land management, and bioenergy with carbon capture and storage (BECCS).
This book, by Ramesh Ray and S Ramachandran, presents technological interventions in ethanol production from food crops, addresses food security issues arising from bioethanol production and identifies development bottlenecks.
This book, by Klaus Lorenz and Rattan Lal, discusses the present state of knowledge on soil carbon dynamics in different types of agricultural systems, including croplands, grasslands, wetlands and agroforestry systems. It also discusses bioenergy and biochar.
In a guest post for Carbon Brief, Professor Pete Smith of the University of Aberdeen discusses recent research on how climate mitigation through negative emissions could affect biodiversity, through changes in land use. He argues that bioenergy with carbon capture and storage (BECCS) should be implemented sooner rather than later, because of the risk of not meeting climate mitigation targets if BECCS is left until later in the century and because a study estimated that natural land loss could be lower if BECCS is deployed earlier in the century.
The Hoffmann Centre at UK think tank Chatham House has produced a summary of a workshop held in January 2018 on policy implications of widespread deployment of negative emissions technologies. The workshop concluded that bioenergy with carbon capture and storage (BECCS) cannot be used at the scale assumed in emissions pathways compliant with the Paris agreement, because it would cause large land use change in regions of high biodiversity and compete with food production for land. Nevertheless, some BECCS may be needed. Direct air capture would use less land than BECCS, but there are economic and technical barriers.
This book, by Annoula Paschalidou, Michael Tsatiris, Kyriaki Kitikidou and Christina Papadopoulou, identifies the challenges and opportunities surrounding the conflict between food production and energy crop production.
This Research Handbook, edited by Mary Jane Angelo, Fredric G. Levin and Anél Du Plessis, brings together scholars from across disciplines and across the globe (including FCRN member Jonathan Verschuuren) to untangle the climate-food web and critically explore the nexus between climate change, agriculture and law, upon which food security and climate resilient development depends. It is a useful introduction to the research which is being undertaken in the area of climate change and agricultural law.
Using a political-economic approach supplemented with insights from human ecology, this books analyzes the long-term dynamics of food security and economic growth.
This paper by researchers in Germany explores the scalability of managed woody and herbaceous bioenergy plantations (BP) for terrestrial capture of atmospheric carbon. The researchers make simulations to quantitatively explore how much land area could be made available globally for this terrestrial carbon dioxide removal (tCDR) strategy.
This book considers the main links between global conservation of the environment and food production.
This paper describes the operation of a bubble-insulated greenhouse system that recycles organic waste, through its anaerobic conversion into biogas and digestate, into inputs for new food. It reports that commercial crop yields were repeatedly matched and bettered, while an 80% reduction in heat energy demand and 95% reduction in CO2eq emissions was realised compared to conventional greenhouse production.