Our research focuses on unlocking domestic sources of critical minerals, including rare earth elements, lithium, and nickel.
We investigate complex mineralogical systems, such as sedimentary claystones and mine tailings, to develop more efficient beneficiation and extraction techniques, ensuring these essential materials can be recovered sustainably.
Addressing the urgent need for a circular economy, we are developing automated processes to recover high-value metals from spent lithium-ion batteries and electronic waste.
By combining innovative chemical leaching with advanced automation, we aim to transform waste streams into valuable secondary resource inputs.
We are pioneering new technologies to enable sustainable exploration beyond Earth.
Our work explores novel beneficiation strategies for lunar and off-world regolith, aiming to solve the complex challenges of in-situ resource utilization (ISRU) to support long-term space infrastructure.
We are also exploring how a data-driven approach can be used to optimize the entire mineral lifecycle.
By integrating AI/ML models with process engineering, we are designing robust, scalable, and environmentally conscious workflows.