Identifying sustainable sources of renewable energy is key to ensuring that countries can grow on a sustainable path that also meets climate change targets as outlined in countries’ NDCs. Among renewables, bioenergy can attract investments in the rural sector and help farmers to improve their income by increasing agricultural production and diversifying markets for by-products, such as digestate. FAO’s Bioenergy and Food Security (BEFS) Approach assists countries in defining which bioenergy options can be both sustainable and viable while ensuring food security and protecting the environment.In Rwanda the agriculture sector plays a key role in its economy, contributing around one-third of the country’s GDP and employing approximately 70 percent of the working population. The livestock sector is an important economic sector and agriculture sub-subsector. Driving change through this sector can provide win-win solutions to achieve poverty reduction targets.Bringing in the energy facet through bioenergy options such as biogas can further corroborate these strategies by also addressing energy access and energy substitution targets.After the genocide, the government worked on re-establishing the livestock sector, and in 2003 the poverty reduction strategy flagged developing a biogas programme as one of the elements the country should pursue. The programme has been ongoing until recently when a detailed review of the sector was implemented due to the relatively limited number of households implementing the systems. This report aims to shed some light on the issues around biogas viability in Rwanda and how to possibly strengthen biogas in the country.

This paper provides a diagnostic of Rwanda’s food systems and the policy landscape that shapes it. It aims to inform national and local conversations on Rwanda’s food systems transformation—an idea that has attracted considerable attention in national consultations conducted in the run-up to the United Nations Food Systems Summit in September 2021, at the summit itself, and in the post-summit actions that Rwanda is now pursuing. A food system comprises the full range of actors and activities originating from agriculture, livestock, forestry, or fisheries, as well as the broader economic, societal, and natural environments in which they operate. An inclusive and sustainable food systems transformation is a process of growth and development that is profitable for the full range of individual actors engaged in the system, beneficial for society including marginalized and vulnerable groups, and advantageous for the natural environment. Rwanda’s journey towards a food systems transformation is well captured in Vision 2050, the National Strategy for Transformation (NST 1), and strategic plans for sectors such as agriculture, health, nutrition, commerce, and the environment. Their priorities are echoed in ongoing programs and investments of the government, its development partners, the private sector, and civil society. Nonetheless, there are still challenges facing Rwanda’s efforts to sustain and accelerate progress along this journey. Efforts to overcome these challenges call for a deeper and more significant shift in thinking—informed by the food systems perspective—that is highlighted by stronger multi-sectoral approaches to problem-solving. Overall findings suggest an opportunity for a tangible shift in how public policy in Rwanda approaches its food systems and how the systems contribute to the broader national transformation process. This means addressing how balances are struck—and tradeoffs are managed—between and among agriculture, nutrition, health, and the environment in the face of a climate crisis. It also means giving greater attention to the demand-side drivers in Rwanda’s food system, recognizing that singularly focused supply-side strategies rarely succeed in isolation. Finally, it means deepening the integration of policies and policy actors in the design and implementation phases of interventions that shape the food system. We offer several recommendations to translate abstract ideas into a coherent and focused set of actions in the policy space. 1. Strengthen existing entities and mechanisms rather than create new ones. 2. Develop a national food systems transformation strategy that is integrative, multi-sectoral, and action-oriented. 3. Innovate on existing programs. 4. Allow for learning through both success and failure. 5. Invest in rigorous impact evaluation. These actions aim to strengthen the policy environment that enables a truly broad-based food systems transformation. This enabling environment is itself an outcome of broad-based national conversations, integration across sectors, domains, and levels; and the encouragement of policy and program innovation.

Access to sustainable energy is essential for development, poverty reduction and food security. Rwanda, like many other developing countries, is working on identifying sustainable energy solutions to ensure access to energy. Bioenergy is one possible form of renewable energy that countries are looking at to supply part of their energy portfolio. Rwanda currently relies on traditional biomass for energy supply, and shifting away from traditional biomass use would lower its dependency on traditional biomass and improve access to modern sustainable energy forms. Sustainable bioenergy interlinks closely with the agriculture sector, therefore it is necessary to find specific options that minimize negative impacts on the environment and food security. This accomplishes the dual purpose of energy security and food security. This report assesses the use of agriculture residues for the production of bioenergy in Rwanda. The methodology used for the assessment is the Bioenergy and Food Security (BEFS) approach of the Food and Agriculture Organization of the United Nations (FAO). The report provides a detailed assessment of the potential of crop, livestock and woody biomass availability for the production of off-grid electricity solutions and cooking fuels. Through the assessment, a number of specific bioenergy pathways are identified as suitable for bioenergy production. These options should be carried forward for piloting in the country and ground truthing.

In 2021, the United Nations Secretary-General will convene the Food Systems Summit to advance dialogue and action towards transforming the way the world produces, consumes and thinks about food guided by the overarching vision of a fairer, more sustainable world. The Secretary-General will also convene the High-Level Dialogue on Energy (HLDE) to promote the implementation of the energy-related goals and targets of the 2030 Agenda for Sustainable Development. Given the inextricable linkages between the energy and agriculture sectors, integrating the nexus perspective within the FSS and the HLDE is crucial to formulate a joint vision of actions to advance the 2030 Agenda for Sustainable Development and the Paris Agreement. In this context, IRENA and FAO have decided to jointly develop a report on the role of renewable energy used in food chain to advance energy and food security as well as climate action towards the achievement of Sustainable Development Goals and the Paris Agreement. While energy has a key enabling role in food system transformation and innovation in agriculture, its current use is unsustainable because of the high dependence on fossil fuels and frequent access to energy in developing countries. The challenge is to disconnect fossil fuel use from food system transformation without hampering food security. The use of renewable energy in food systems offers vast opportunities to address this challenge and help food systems meet their energy needs while advancing rural development while contributing to rural development and climate action.

This catalogue aims to improve the dissemination and outreach of FAO’s knowledge products and overall publishing programme. By providing information on its key publications in every area of FAO’s work, and catering to a range of audiences, it thereby contributes to all organizational outcomes. From statistical analysis to specialized manuals to children’s books, FAO publications cater to a diverse range of audiences. This catalogue presents a selection of FAO’s main publications, produced in 2021 or earlier, ranging from its global reports and general interest publications to numerous specialized titles. In addition to the major themes of agriculture, forestry and fisheries, it also includes thematic sections on climate change, economic and social development, and food safety and nutrition.

This catalogue aims to improve the dissemination and outreach of FAO’s knowledge products and overall publishing programme. By providing information on its key publications in every area of FAO’s work, and catering to a range of audiences, it thereby contributes to all organizational outcomes. From statistical analysis to specialized manuals to children’s books, FAO publications cater to a diverse range of audiences. This catalogue presents a selection of FAO’s main publications, produced in 2021 or earlier, ranging from its global reports and general interest publications to numerous specialized titles. In addition to the major themes of agriculture, forestry and fisheries, it also includes thematic sections on climate change, economic and social development, and food safety and nutrition

In recent years, the importance of biogas energy has risen manifold and has become universal. This is due to the realization that biogas capture and utilization has great potential in controlling global warming. By capturing biogas wherever it is formed, we not only tap a source of clean energy, but we also prevent the escape of methane to the atmosphere. Given that methane has 25 times greater global warming potential than CO2, methane capture through biogas energy in this manner can contribute substantially towards global warming control.

Technologies such as renewable energy alternatives including wind, solar and biomass, storage technologies and electric engines are creating a different landscape for the electricity industry. Using sources and ideas from technologies such as renewable energy alternatives, Research and Technology Management in the Electricity Industry explores a different landscape for this industry and applies it to the electric industry supported by real industry cases. Divided into three sections, Research and Technology Management in the Electricity Industry introduces a range of methods and tools including technology assessment, forecasting, roadmapping, research and development portfolio management and technology transfer. These tools are the applied to emerging technologies in this industry with case studies including data from various organizations including Bonneville Power Administration and Energy Trust of Oregon, from sectors including lighting and wind energy. The final section considers innovation through these technologies. A product result of a collaboration between Bonneville Power Administration and Portland State University, Research and Technology Management in the Electricity Industry is a comprehensive collection of methods, tools, examples and pathways for future innovation in the electricity industry.

The International Conference on the State of the Art on Biogas Technology, Transfer and Diffusion was held in Cairo, Egypt, from 17 to 24 November 1984. The Conference was organized by the Egyptian Academy of Scientific Research and Technology (ASR T), the Egyptian National Research Centre (NRC), the Bioenergy Systems and Technology project (BST) of the US Agency for International Development (US/AID) Office of Energy, and the National Academy of Sciences (NAS). A number of international organizations and agencies co-sponsored the Conference. More than 100 participants from 40 countries attended. The purpose of the Conference was to assess the viability of biogas technology (BGT) and propose future courses of action for exploiting BGT prospects to the fullest extent. The Conference emphasized a balanced coverage of technical, environ mental, social, economic and organizational aspects relevant to biogas systems design, operation and diffusion. It was organized to incorporate experiences that are pertinent, for the most part, to developing countries. In addition to the wide spectrum of presentations and country programs, structured and non-structured discussions among the participants were strongly encouraged in thematic sessions at round-table discussions, and through personal contacts during poster sessions and field trips. It was clear from the enthusiastic response of most participants that the Conference, in large measure, succeeded in fulfilling its mission. Although draft papers were distributed to all participants, it was felt that the results obtained were worthy of organized and refined documentation. And this is precisely what this book intends to do.

With increasing pressures to utilize wastes effectively and sustainably, biogas production represents one of the most important routes towards reaching renewable energy targets. This comprehensive reference on the development and deployment of biogas supply chains and technology reviews the role of biogas in the energy mix and outlines the range of biomass and waste resources for biogas production. Contributors provide detailed coverage of anaerobic digestion for the production of biogas and review the utilization of biogas for various applications. They consider all aspects in the biogas production chain from the origin of the biomass feedstocks, feedstock selection and preparation, the anaerobic digestion process, biogas plant equipment design and operation, through to utilization of the biogas for energy production and the residue, the digestate, which can be used as a biofertilizer. The book also addresses biogas utilization, and explores environmental impacts and commercial market applications. Table of Contents: Biogas as an energy option: An overview Part 1 Biomass resources, feedstock treatment and biogas production: Biomass resources for biogas production; Analysis and characterisation of biogas feedstocks; Storage and pre-treatment of substrates for biogas production; Fundamental science and engineering of the anaerobic digestion process for biogas production; Optimisation of biogas yields from anaerobic digestion by feedstock type; Anaerobic digestion as a key technology for biomass valorisation: Roles and contribution to the energy balance of biofuel chains Part 2 Plant design, engineering, process optimisation and digestate utilization: Design and engineering of biogas plants; Energy flows in biogas plants: Analysis and implications for plant design; Process control in biogas plants; Methane emissions in biogas production; Biogas digestate quality and utilization; Land application of digestate Part 3 Biogas utilisation: international experience and best practice: Biogas cleaning; Biogas up-grading to biomethane; Biomethane injection into natural gas networks; Generation of heat and power from biogas for stationery applications: Boilers, gas engines and turbines, combined heat and power (CHP) plants and fuel cells; Biomethane for transport applications; Market development and certification schemes for biomethane