Circular Economy Modeling and Analysis
Modeling and analysis underpin all NREL work in circular economy for energy materials. Using innovative research capabilities, NREL provides credible, objective analyses of clean energy systems throughout their life cycles.
NREL performs technical, economic, social/behavioral, and regulatory analysis of clean energy technologies and supply chains. To identify the most promising circular economy pathways and strategies for a decarbonized, sustainable future, NREL analysts develop models that simulate the impacts of clean energy products and circular systems. The models use dynamic, systems approaches, such as agent-based modeling or life cycle assessment, to accurately capture the complexity of circular transitions.
Researchers assess trade-offs to enhance ecological and human benefit where possible to identify opportunities for circular transitions. Insights can inform future R&D and policy and investment decisions as well as guide better technology design to extend product lifetimes or more easily repair, reuse, or recover valuable materials and improve energy systems overall.
NREL has developed a suite of tools to support circular economy modeling and analysis efforts.
Quantifies economy-wide environmental and socio-economic impacts of new products or product portfolios
Circular Economy Agent-Based Model
Models how interactions between a system’s actors might help maximize circularity
Quantifies environmental, social, and economic impacts of circular economy transitions
Quantifies the material and energy impacts of PV system designs, lifetime, reliability, and disposal
LIBRA: Lithium-Ion Battery Resources Analysis
Evaluates global trends in supply and demand for critical materials in lithium-ion batteries
Identifies and assesses energy and material demands and carbon emissions from the supply chain
Do We Need a New Sustainability Assessment Method for the Circular Economy? A Critical Literature Review, Frontiers in Sustainability (2021)
Design for Recycling Principles Applicable to Selected Clean Energy Technologies: Crystalline-Silicon Photovoltaic Modules, Electric Vehicle Batteries, and Wind Turbine Blades, Journal of Sustainable Metallurgy (2020)