Electrolyte Engineering for Next-Generation Batteries Using NMR and Electrochemical Techniques
Explore the ion transport and failure modes in battery electrolytes using advanced NMR and electrochemical techniques. Develop next-generation batteries with improved safety and performance in cold and extreme environments.
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Project Description
Project Overview
This PhD project investigates next-generation battery electrolytes to enhance performance, safety, and operation in colder climates. It focuses on ion transport mechanisms and failure modes using chemically sensitive, non-destructive nuclear magnetic resonance (NMR) techniques combined with electrochemical analysis. The objective is to probe battery electrolytes under non-equilibrium conditions to achieve ion-specific insights.
What You Will Do
The project is experimental, emphasizing NMR spectroscopy and electrochemistry to characterize battery electrolytes. It involves developing a comprehensive understanding of temperature-dependent ion transport mechanisms and electrolyte degradation pathways under various operating conditions. The candidate will gain hands-on experience with advanced analytical tools and battery analysis methods.
Expected Outcomes
Expected outcomes include elucidation of ion-specific transport phenomena, novel insights into failure mechanisms, and improved electrolyte designs tailored for specific extreme operating environments. This knowledge will inform the development of batteries with faster charging, enhanced safety, and better performance at low temperatures.
Why This Matters
Batteries are critical for clean energy technologies. Understanding electrolyte behavior under real-world conditions enables the design of safer, more efficient energy storage solutions essential for sustainability goals and expanding battery applications in diverse climates and industries.
Entry Requirements
How to Apply
Eligibility
Supervisor Profile
Assistant Professor Leo W. Gordon specializes in electrolyte engineering for energy storage systems, focusing on understanding ion transport phenomena and degradation mechanisms in next-generation batteries. His research integrates advanced nuclear magnetic resonance spectroscopy with electrochemical methods to elucidate complex material behaviors. He is recognized for his interdisciplinary approach in advancing battery science and clean energy technologies.