Why Understanding Human Behaviour Is Key to Africa's Clean Energy Transition

This CEPREC article is one of the strongest practical matches for renewable resilience because it explicitly frames retired electric vehicle batteries as a usable energy-storage asset for solar and wind systems. The piece states that second-life batteries can support solar and wind storage systems, which makes it directly relevant for off-grid planning, backup power design, and distributed energy resilience. Its emphasis on reuse rather than disposal aligns with circular-economy thinking and the need to extend battery value beyond automotive life. The article is especially useful because it points to a service model rather than only a technology concept: it implies a chain of collection, assessment, reuse, and eventual recycling, which is the operational backbone needed for real deployments.

For practitioners, the main value is the practical framing of second-life batteries as infrastructure for energy self-sufficiency. In solar or wind contexts, storage is not just about shaving peaks; it is what allows intermittent generation to be turned into dependable power for households, businesses, and community systems. By linking retired EV batteries to storage for solar and wind, the article supports use cases such as microgrids, local backup systems, and renewable balancing in places where grid reliability is weak or where resilience is a priority. This makes the concept relevant to SMEs, rural electrification, and resilience planning in African and similar emerging-market contexts.

The article also appears to fit the broader economic logic seen in related sources: second-life batteries can reduce the cost of storage compared with purchasing new batteries, while also reducing waste and lowering dependence on new raw-material extraction. That matters for implementation because storage economics often determine whether a solar or wind project can move from pilot to scale. Although the snippet provided is short, it is still substantive enough to show a concrete systems perspective: batteries are not just end-of-life products, but assets that can be integrated into renewable energy systems to improve reliability, affordability, and circularity.