{"id":58992,"date":"2025-09-26T10:40:05","date_gmt":"2025-09-26T10:40:05","guid":{"rendered":"https:\/\/becolve.com\/blog\/smart-grids-and-battery-storage-the-future-of-connected-energy\/"},"modified":"2025-09-26T10:40:05","modified_gmt":"2025-09-26T10:40:05","slug":"smart-grids-and-battery-storage-the-future-of-connected-energy","status":"publish","type":"blog","link":"https:\/\/becolve.com\/en\/blog\/smart-grids-and-battery-storage-the-future-of-connected-energy\/","title":{"rendered":"Smart Grids and Battery Storage: the Future of Connected Energy"},"content":{"rendered":"

The battery market is experiencing accelerated growth, with an annual rate of close to 25%, positioning itself as a key sector for the transition towards a sustainable future. Currently, it has a global production capacity of 283 GWh, but this figure is expected to reach 2700 GWh in less than six years. This growth will drive both the integration of renewable energies and electric mobility. <\/p>\n

The Life Cycle of Batteries and Their Second Life<\/h2>\n

Within this context of growth, it is important to explore how batteries can be reused when their natural life cycle ends. In electric vehicles, battery modules, managed by BMS (Battery Management Systems), have an estimated life cycle of 10 years.<\/strong> Although after this period<\/strong> they lose utility in automotive \u2013as their capacity is reduced\u2013, they retain approximately 70% of their value.<\/strong> Therefore, instead of being discarded, they become a unique opportunity in stationary storage systems. <\/p>\n

By 2035, it is estimated that reused batteries will completely cover the global demand for stationary energy storage, a use that ranges from applications in renewable energies and mini-grids to energy backup, load peak compensation, and balancing in industrial plants.<\/p>\n

Interconnection for a Connected Future<\/h3>\n

For batteries, even in their second life, to be integrated with energy systems, there needs to be a robust and flexible communication network<\/strong> that allows modules to be connected with superior energy management systems (EMS). This interconnection between key components and different technologies, ranging from standardized communication protocols to advanced monitoring and control tools, is the basis for centralizing data, optimizing resources, and ensuring the coordinated operation of systems. These networks should include: <\/p>\n