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Energy outlooks for Africa feature increased use of fossil fuels. However, they widely ignore that a transition from traditional to modern bioenergy can support the increasing commercial energy demand and offer a high level of flexibility and dispatchability. We use energy statistics, resource assessments and demand analysis to show how switching traditional biomass use to more sustainable technologies could practically eliminate unsustainable fuelwood use. Furthermore, mobilising agricultural and forestry residue for commercial use could grow a sustainable biomass industry and offset Africa's projected expansion of fossil fuels. The assessment focuses on feedstocks and potential energy conversion options for selected and most promising bioenergy pathways in Sub-Saharan Africa's growing and economically relevant industries: cement, agricultural processing, livestock, and horticulture. Examples of specific applications are given to support the high-level resource assessment and demand balances in these sectors. Our results indicate that 3317 PJ bioenergy could be utilised in Sub-Saharan Africa. Even with the calculated gap between biomass availability and biomass demand of 5559 PJ in future energy scenarios, bioenergy can contribute to sustainable energy supply and access in SSA. The sustainability mapping highlighted that bioenergy could deliver integral social and economic impacts because of the close integration with agriculture as the main livelihood supporting sector in SSA. Sustainability frameworks and governance structures must consider bioenergy beyond its cost and clean energy potential to maximise positive trade-offs. • Residue-based bioenergy has potential for scaling up modern energy services in Africa. • Modern bioenergy can enable industries to prosper without compromising sustainability. • Industrial use of bioenergy can offset projected expansion of fossil fuels in Africa. • Bioenergy can deliver sustainability benefits beyond energy access and decarbonisation. [ABSTRACT FROM AUTHOR]

Shifting from fossil-fuel (FF) to renewable energy systems, a process known as energy transition (ET ) , is crucial for developing countries as the ET brings new opportunities to accomplish leapfrog development for achieving carbon neutrality. Parallel to climate change, developing countries face energy security and independence issues with extra pressures such as the Covid-19 pandemic and increasing inequality. Taking Mexico as a case, four ET scenarios under "gradual" or "rapid" narratives are developed with the Kaya Identity. Gradual Transition Scenarios (GTS) present a business-as-usual scenario with natural gas as the most significant fuel in the supply mix due to economic and social concerns. Rapid Transition Scenarios (RTS) propose a combination of FF and renewables or a full deployment of Renewable Energy Sources (RES). The results show that GTS reach 491∼ 501 Mt CO 2 emissions in 2050, risking a carbon lock-in, stranded assets and economic losses. RTS reach 87∼103 Mt CO 2 in 2050 with RES prioritization, energy efficiency improvements and coal phase-out. In particular, following GTS would mean failing to join global efforts to limit warming temperature to 1.5 °C. Alternatively, following RTS brings Mexico closer to achieve carbon neutrality. Several strategies are proposed, including reducing the carbon intensity of the energy supply mix, increasing energy efficiency, prioritizing environmental protection, improving actions based on science, and promoting environmental education and awareness. This paper presents a consistent methodology to encourage ET in developing countries where the role of science is still not fully exploited under the goal of carbon neutrality. [Display omitted] [ABSTRACT FROM AUTHOR]