We are building a major effort in electrochemical science, engineering, and technology at UC Berkeley / LBL to synergize with @OregonEChem and work together to change the world through electrochemistry. https://t.co/lTYrNX6jfZ
In conclusion, connecting measurable voltage values with complex phenomena like lithium plating is a step toward reliable machine-learning models for battery preservation. 🤖🔋 (10/10)
How can we safely fast-charge aging batteries? We offer simple rules using the battery voltage during charge and explore new methods for battery modeling, data science, and controls 🧪🔋 @UCB_Chemistry@BerkeleyLab @NREL https://t.co/hDgwECmOtu 🧵👇 (1/10)
Our work opens doors for optimizing charge protocols, exploring other electrode materials, and considering 3D modeling for real-world applications. 🌐🔍 (9/10)
Tenure track faculty position in Berkeley Chemical and Biomolecular Engineering
@UCB_Chemistry
! Reach out to me with any questions & apply here - https://t.co/gYLZ81Y6G8
Non-ideal ion correlations challenge ideal solution assumptions in commonly used battery electrolyte engineering. Understanding ion correlations is crucial for designing battery electrolytes with improved ion transport. (7/7)
Can we enhance Li transport without sacrificing conductivity in polyelectrolyte solutions? Our study uncovers negative Li transference due to correlated ion motion, challenging common assumptions in battery electrolyte engineering. https://t.co/HqAU3VAKWh @HelenkBergstrom (1/7)