Bioenergy and Biorefinery for Sustainable Growth

Tropical developing countries can convert productive agricultural resources into competitive bioenergy, biofuels, and biobased products. The strongest projects combine dependable biomass supply, appropriate industrial technology, and access to markets. With responsible land management and disciplined execution, these industries can strengthen energy security, create skilled employment, and increase regional economic value.

Growing demand strengthens the business opportunity

Urbanization, industrial development, and rising living standards increase the need for reliable, affordable, and diversified energy supplies. In 2025, global energy demand grew by 1.3%, while electricity demand increased by about 3%, according to the International Energy Agency. The relationship between energy consumption and GDP varies with industrial structure, electrification, and efficiency; demand should be assessed by market rather than assumed to outpace economic growth everywhere. [1]

Exposure to oil price volatility and pressure to reduce greenhouse gas emissions strengthen the business case for renewable energy and a broader industrial product mix. Integrated biomass projects can supply energy, fuels, materials, and chemicals, provided that product selection reflects local demand, achievable costs, and the capabilities of the chosen technology.

Dependable biomass supply is a commercial foundation

Many biomass conversion technologies are commercially established, although maturity and economics vary by application. A central constraint is securing feedstock that is reliable, competitively priced, and sustainably produced. Successful projects require coordinated agricultural production, long-term supply arrangements, efficient logistics, and processing systems suited to local resources.

Locating biorefineries near production areas can reduce the cost of moving bulky biomass, particularly when moisture increases transported weight. Site selection should also account for storage losses, utilities, transport infrastructure, labor, and access to customers. Integrating supply and processing can improve resource efficiency and operational reliability.

Tropical advantages can support competitive industries

Abundant sunlight and favorable soil and climate conditions can support productive food and biomass industries. Agricultural technology, suitable crop varieties, and sustainable land management help translate these natural advantages into competitive supply chains. Local yield trials, land suitability assessments, water availability, and delivered-cost analysis are essential to confirm performance.

For tropical developing countries, the opportunity extends beyond raw material supply. Investment in technical capacity, technology transfer and adaptation, infrastructure, and sustainable production can increase agricultural value, diversify rural economies, and develop domestic industrial capabilities.

Technology investment and innovation

Over the past two decades, G20 countries have invested tens of billions of dollars in biomass conversion research, development, and demonstration, strengthening the technological foundation for bioenergy and biorefineries. Tens of thousands of patent applications are filed each year to protect innovations in this field and support their deployment and commercialization.

Climate science and international cooperation

The Intergovernmental Panel on Climate Change was established in 1988 by the United Nations Environment Programme and the World Meteorological Organization. It assesses climate science, risks, and response options, including implications for freshwater, food security, ecosystems, biodiversity, oceans, marine life, and fisheries. Its assessments inform understanding of the environmental and socioeconomic consequences of climate change. [3]

The Paris Agreement, adopted in 2015 under the United Nations Framework Convention on Climate Change, aims to hold global warming well below 2°C above preindustrial levels while pursuing efforts to limit it to 1.5°C. The adoption decision recognized the gap between mitigation commitments and emissions pathways consistent with these goals. It also called for financial, technological, and capacity-building support for developing countries and emphasized the benefits of early action in reducing future mitigation and adaptation costs. [4, 5]

The same decision highlighted universal access to sustainable energy, particularly in Africa, and cooperation among governments, businesses, financial institutions, cities, subnational authorities, local communities, Indigenous Peoples, and civil society. These relationships can help mobilize capital, build skills, and support implementation. [5]

Converting renewable resources into lasting value

Sound planning, stable policies, responsible land use, and social and environmental safeguards can turn tropical resource advantages into competitive industries. Bioenergy and biorefinery projects can create skilled, permanent jobs, strengthen regional economies, reduce dependence on fossil fuels, and expand access to sustainable energy.

Environmental benefits must be demonstrated across the life cycle. Assessment should include cultivation, processing, logistics, conversion, relevant land-use changes, and changes in carbon stocks, while protecting food security, water, biodiversity, and community rights. [6]

A strategy built around dependable feedstock, suitable technologies, credible product offtake, and disciplined execution can position tropical developing countries as attractive investment destinations and strategic suppliers in the global low-carbon economy.

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