By designing specific virtual twin experiences, battery circularity can be planned, optimized and automated before batteries reach the end of its first life. Figure represents the digital thread connecting materials resilience, materials traceability and second life eligibility. By simulating supply chain fluctuations, price hikes as well as market demands, raw material resilience can be built. With virtual twin experiences covering battery materials chemistry, formulation and design, the most appropriate raw materials and process can be chosen, which are cost efficient while maximizing performance and lowering environmental footprint. Virtual twin experiences where 3D modeling and simulations are combined with generative AI and ML allow to screen the phase space of second life materials and predict cell performance allowing to assess the potential battery health, safety and lifetime. The Virtual Twin experiences allow to visualize, model, and simulate the entire environment of a sophisticated experience, facilitating sustainable business innovation across a full product's lifecycle. VTs cover a range of length scales, starting from cell chemistry at the nanometer scale to the micrometer scale, and cell and pack engineering covers millimeter to meter scales. To cite some examples, a few recent publications that used different software like BIOVIA Materials Studio at the cell chemistry scale, are highlighted .