Search Climate Insights Directory

The document analyzes how the falling costs of variable renewable energy (VRE) and batteries impact the bioeconomy. It identifies competitive tensions in ground transport and power generation, where electrification may disrupt biofuel demand or create infrastructure lock-in. Conversely, it highlights complementary roles for biomass in 'hard-to-abate' sectors like aviation, marine transport, and heavy industry (steel and cement), as well as its value as a dispatchable energy source. In low-income countries, the brief suggests 'clean stacking' for cooking and the use of solar-powered appliances to enable bioeconomy value chains. Finally, it notes synergistic opportunities where low-cost renewable electricity can reduce the carbon footprint of biofuel production via electrolysis-based hydrogen.

The document examines the relationship between the bioeconomy—defined as sectors based on biomass production and processing—and the rapid growth of variable renewable energy (VRE) and electrification. It argues that while electrification competes with biofuels in some areas, such as road transport, it offers complementary and synergistic opportunities in others. For instance, biomass provides dispatchable power to balance VRE, and low-cost solar energy can enable critical infrastructure for agricultural bioeconomies in low-income countries. The text emphasizes that the bioeconomy should be designed to support and benefit from electrification to achieve deep decarbonization.

The report argues that the bioeconomy—the use of bio-based feedstocks and processes to reduce greenhouse gas emissions—requires context-specific sustainability monitoring across environmental, economic, social, and governance pillars. It highlights that while the bioeconomy can support UN Sustainable Development Goals (SDGs), it risks deepening existing social inequalities if not managed through a lens of feminist political ecology and multidimensional poverty frameworks. The authors propose a monitoring system that integrates socio-economic indicators, such as the Human Development Index (HDI) and Gini Index, to ensure benefits reach vulnerable groups in the global South.

The document describes a pioneered practice of harvesting cattails and other plants from water retention areas and drainage ditches to remove phosphorus, improve habitat, and create biomass for energy and bioproducts. It highlights the role of this 'unconventional' waste biomass in a circular economy by recycling nutrients and sequestering carbon in soil. The review specifically looks at global carbon markets since the Kyoto Protocol and Paris Agreement to find verification methodologies suitable for bioeconomy projects in Manitoba and Canada.

The Stockholm Environment Institute (SEI) Strategy 2020–24 focuses on bridging science, policy, and practice to address global sustainability challenges. The institute identifies three primary impact areas: reducing climate risk, promoting sustainable resource use and resilient ecosystems, and improving health and well-being. To achieve these, SEI employs a theory of change centered on changing agendas, enhancing capacities, and improving decisions. The strategy emphasizes the use of data science, the development of decision-support tools, and the implementation of programmatic hubs called 'Initiatives' to tackle specific issues like carbon lock-in and bioeconomy pathways. Operationally, SEI utilizes a distributed network of centres across five continents to ensure regional relevance and North-South/South-South knowledge exchange. The institute also commits to an environmental policy aiming to reduce its per capita carbon travel footprint by at least 25% between 2017 and 2024.

The document examines how the bioeconomy interacts with the rise of cheap solar, wind, and battery technologies. It identifies competitive pressures in ground transport and power generation, complementary roles for bioenergy in aviation, marine transport, and heavy industry, and synergistic opportunities where electrification enables bioeconomy value chains and lower-carbon biofuel production.

The report details IISD's Bioeconomy project (2017-2019) focusing on harvesting unconventional biomass from water retention sites and roadside ditches in Manitoba. It argues that this practice removes phosphorus to protect Lake Winnipeg, improves habitat health, and provides a low-carbon alternative to fossil fuels or a means of soil carbon sequestration. The document analyzes harvesting methods, the shift from bioenergy to livestock bedding and compost, and evaluates global and North American carbon market verification methodologies to identify frameworks suitable for these watershed management activities.

The paper examines bioenergy trade flows and the necessity of developing sustainable supply chains and governance to meet 2050 global energy and climate scenarios. It emphasizes the need for innovative, integrated value chains and flexible biogenic carbon supply networks to reduce stakeholder risk and ensure economic and environmental benefits.

The document argues that the EU's transition to a bioeconomy must be integrated into a broader sustainability transition to prevent excessive pressure on bioresources. It highlights that increasing biomass imports to reduce fossil fuel reliance could negatively impact supplier countries, necessitating guiding principles to manage synergies and trade-offs across sectors and regions.

The Environmental and Energy Study Institute criticizes a June 30, 2018, EPA report for omitting a comparative analysis between biofuels and petroleum. The statement asserts that biofuels generally offer better environmental and health outcomes than fossil fuels and highlights the role of cellulosic fuels in reducing methane emissions and waste. It further argues that biofuels are essential for meeting Paris Climate Accord goals, particularly in hard-to-electrify sectors like aviation and shipping.

The document describes Thailand's top-down approach to developing a bioeconomy focused on adding value to existing commodities like sugarcane and cassava. It highlights a model where the private sector drives innovation while the government facilitates through tax incentives, R&D funding, and regulatory easing. However, the authors note significant challenges regarding social equity, as the system prioritizes large industrial players over smallholder farmers.

The briefing emphasizes that strategic management of water retention sites—including engineered wetlands—is essential for Manitoba to mitigate risks from floods, drought, and nutrient loading. It details the importance of controlling retention times, water levels, and biomass harvesting to capture contaminants and support a local bioeconomy. The document highlights successful examples like Pelly’s Lake in Manitoba and North Ottawa in Minnesota, and calls for the use of Light Detection and Ranging data and clear management criteria to ensure the sustainability and effectiveness of these projects.

The document argues that gender inequality and unequal power relations frequently exclude women from environmental decision-making and the benefits of development programmes. It emphasizes that gender intersects with other vulnerabilities, such as disability and class, and calls for the integration of disaggregated gender data into technical models and climate finance to ensure equitable outcomes in the energy transition and natural resource management.

The text advocates for policy instruments that reward sustainable, resource-efficient production based on renewable inputs to enable a future bioeconomy and job creation. It emphasizes that the forest industry is vital for reducing climate impact and contributes 9-12 percent of Swedish industry's employment, export, turnover, and value added, significantly supporting the national trade balance.

The study examines bioscience innovation in Ethiopia, Kenya, Rwanda, Tanzania, and Uganda, focusing on crop improvement, agro-industrial waste conversion, value-added sorghum and millet products, and industrial enzymes. It finds that while R&D knowledge is generally strong, the transition to market is hindered by weak policy guidance, insufficient market creation, and limited resource mobilization. The authors argue that the region's R&D is 'demand-driven, but not business-driven', and recommend strengthening public-private partnerships, establishing business incubators, and creating national bioeconomy strategies to bridge the gap between research and commercialization.

The SEI Gender and Social Equity Programme seeks to address knowledge and policy gaps by mainstreaming gender and social equity into the institute's research and technical tools. The programme is structured around three main tasks: developing new research projects with a gender and social equity lens, adapting modelling tools like WEAP and LEAP for social inclusion, and aligning these perspectives across all SEI research and operations. Current initiatives include studying the gender pay gap in Estonia's bioeconomy, analyzing social factors in SMEs' sustainability agendas, and using agent-based modelling to simulate inclusive sustainability pathways for the Sustainable Development Goals (SDGs).

The policy brief argues that while modern bioscience is gradually entering Eastern Africa's agricultural sector, structural and policy constraints—rather than technical knowledge—hinder its impact. It advocates for a 'triple helix' model of collaboration between the public R&D sector, private sector, and government, emphasizing that public institutions must move beyond basic research to act as innovation hubs that link technologies to markets.

The report defines the bioeconomy as the part of the business sector based on biomass resources, estimating its 2013 value at approximately 5% of Sweden's GDP. It explores four future scenarios for 2050—ranging from global circular welfare to regional self-sufficiency—concluding that while biomass demand will likely increase, sustainable growth requires strong public-private cooperation, investment in biorefineries, and a shift toward circular material flows.

The briefing outlines the 'From Farms to Regions' project, which used a participatory framework and the Envision geospatial modelling platform to develop climate adaptation strategies for southeastern Ontario. By engaging stakeholders and analysts, the project identified key drivers of change—climate change, markets, and governance—and created five future scenarios (Business-as-Usual, Targeting foreign markets, Promoting the bioeconomy, Moving towards greener agriculture, and Living locally). These scenarios were used to quantify impacts on land use and environmental indicators, leading to the identification of over 50 adaptation actions clustered into farm-level changes, new insurance mechanisms, ecosystem service support, information tools, and public education. The document concludes with a framework for monitoring the integration of these adaptation measures into cross-sectoral policy and planning.

The document outlines a framework for mainstreaming climate change adaptation by combining stakeholder engagement with quantitative spatial modelling. Using the 'Farms to Regions' (F2R) project in Eastern Ontario as a case study, it describes a process of identifying regional drivers, developing qualitative and quantitative scenarios (including a Business-As-Usual baseline), and simulating these futures using the Envision modelling platform. The guide emphasizes the use of integrated decision units (IDUs) to map impacts on farm income and environmental services, providing a toolkit for planners to evaluate trade-offs and develop robust adaptation strategies.