Electrolyte Design for Wide-Temperature and Fast Charging Batteries, Dr. Zheng Chen, University of California at San Diego
Dr. Marm Dixit, Oak Ridge National Laboratory
Fluorinated Catholyte to Boost Lithium Primary Battery Energy, Dr. Haining Gao for Dr. Betar Gallant, Massachusetts Institute of Technology
Lithium primary batteries, with energy densities up to 800 Wh/kg in packaged cell, are critical for stand-alone long-duration applications where recharging is impractical, such as implantable medical devices, unmanned autonomous vehicles, and remote monitoring. Li−carbon monofluoride (Li−CFx) battery, with a theoretical energy density of 2180 Wh/kgCFx+Li, is the current energy-leading system. However, to meet the demand for longer battery life and/or smaller battery size and weight, battery chemistries that can surpass the energy density of Li–CFx cell are greatly in need. Our research group has developed three generations of Li primary battery catholytes based on liquid fluorinated reactants (LFRs), which exhibit high specific energies (up to 1845 Wh/kgLFR+Li) by utilizing fluoride bond reduction. In addition, the LFRs are also compatible with CFx solid cathodes, allowing for the design of a solid-liquid hybrid battery system that substantially increases the energy of Li−CFx cell, with a projected boost of more than 50%. Herein, we will introduce the molecular structural design evolution of the three generations of LFRs. The electrochemical performances of these reactants and the characterizations of their discharge products using SEM, XRD, XPS, and UV-vis spectroscopy will be discussed. We will also examine and compare projected cell-level metrics. Overall, this study provides new insights into redox mechanisms of fluoride bonds, showing potential to underpin future conversion battery chemistries to significantly improve cell-level energy metrics.
High energy lithium primary batteries for extreme conditions, Dr. Arden Johnson
Emerging Technology for Producing High Energy Density Cathode Active Materials, Dr. Ozge Kahvecioglu
There is an incentive to implement emerging synthesis technologies that can lower manufacturing costs and the negative environmental impacts of lithium-ion battery. This is primarily due to the rapid changes in cathode material chemistries in recent years. Co-precipitation, followed by high-temperature calcination, is the current method for producing high-quality cathode powders. Aqueous co-precipitation processes are known to deliver the best cation mixing, and the most common system used by the battery industry is the continuous stirred tank reactor (CSTR). CSTRs have some drawbacks, such as undergoing very long stabilization times due to low mass and heat transfer rates. This presentation will focus on a new emerging synthesis technology, namely Taylor Vortex Reactor (TVR), for synthesizing cathode precursors, which overcomes several drawbacks we see in CSTRs techniques. As a case study, this talk will discuss high-energy-density cathode materials and their synthesis-performance relationships.
Chemistry-Agnostic Microstructure Design and Manufacturing of Cathode Materials, Dr. Feng Lin, Virginia Tech
Advances in Battery Technologies for Implantable Medical Devices, Mr. Robert Rubino, Integer Holdings Corporation
Testing the Limits of Cell Voltage and Electrode Loading with LiNi0.5Mn1.5O4, Dr. Marshall Schroeder, Army Research Laboratory
Transitioning toward more sustainable materials and manufacturing methods will be critical to continue supporting the rapidly expanding market for lithium-ion batteries. Meanwhile, energy storage applications are demanding higher power and energy densities than ever before. Due to its high operating voltage and cobalt-free chemistry, the spinel-type LiNi0.5Mn1.5O4 (LNMO) cathode material is one of the candidates capable of addressing this combination of challenges; however, severe capacity degradation and poor interphase stability have thus far impeded the practical application of LNMO. This talk will cover recent progress toward addressing these challenges by leveraging a dry electrode coating process and advanced electrolytes developed in collaboration with Professor Shirley Meng’s research group.
Solid-State Batteries, a manufacturer’s perspective: status, future designs, and challenges, Mr. Adrian Tylim, Blue Solutions
Solid-state batteries (SSBs) are considered the future of battery technology, offering improved safety, higher energy density, and greater durability compared to conventional lithium-ion batteries. Despite this potential, SSBs have often been perceived as a technology that is constantly ten years away from widespread adoption. However, it is essential to understand the current status of SSBs, including their achievements and the challenges that need to be addressed for their wide-scale implementation. In this discussion, we will explore the history of a company that has been successfully deploying SSBs for over a decade and delve into their near-future prospects.
Dr. Jie Xiao, Pacific Northwest National Laboratory
Mr. Oliver Hamann for Mr. Mickey Fortune, RadTech
Junzheng Chen, 24M Technologies Inc.
Junzheng Chen is the Senior Director for Advanced R&D at 24M Technologies in Cambridge, Massachusetts. A materials scientist, his focus is electrochemical energy storage and conversion for both transportation and stationary applications. He holds more than 50 patents/applications and research papers in lithium-ion and next-generation energy storage systems. He serves as a principal investigator in multiple government contracts as well as a subject matter expert for internal and external technical development programs.
Dr. Zheng Chen, University of California at San Diego
Zheng Chen is Associate Professor in the Department of Nano and Chemical Engineering, and Materials Science and Engineering at the University of California, San Diego. His B.S. is from Tianjin University and Ph.D. from UCLA, both in Chemical Engineering. He did postdoctoral research at Stanford before joining UCSD. His research focus is understanding the fundamental properties of electrochemical interfaces and structures as well as designing materials and processes for more efficient and sustainable energy storage and conversion.
Dr. Marm Dixit, Oak Ridge National Laboratory
Marm Dixit joined the Emerging & Solid-State Battery Group at Oak Ridge in January 2021 as a Weinberg Distinguished Staff Fellow. At Oak Ridge his focus is evaluation of solid electrolyte candidates for solid-state batteries. Among his recognitions are ECS Toyota & APS Rosalind Franklin Young Investigator Awards, and a R&D100 Award. His PhD from Vanderbilt University is in mechanical engineering. Between graduate school and Oak Ridge he was an intern at the Argonne Advanced Photon Source, applying the beamline to image solid-state batteries.
Dr. Betar Gallant, Massachusetts Institute of Technology
Dr. Betar Gallant is an Associate Professor and Class of ’22 Career Development Chair in Mechanical Engineering at MIT. She leads the Energy & Gas Conversions Laboratory. Her research interests include advanced battery chemistries & materials for high-energy rechargeable and primary batteries, including fluorinated cathode conversion reactions, lithium and calcium metal anodes, and their interfaces.<
Dr. Haining Gao, Massachusetts Institute of Technology
Haining Gao is a Kavanaugh postdoctoral fellow in Prof. Betar Gallant’s group in the Department of Mechanical Engineering at MIT. She received her Ph.D. (’22) in Materials Science and Engineering from MIT, and B.Eng. (’17) from Tsinghua University. Her research focuses on developing fluorinated catholytes for high-energy lithium primary batteries.
Dr. Arden Johnson, Electrochem Solutions, Inc
Arden Johnson holds the title of Fellow Scientist at Electrochem Solutions, Inc., located in Raynham, MA. Electrochem is a leading supplier of high energy power solutions for the oil-and-gas, oceanographic, and military markets. Arden holds a B.S. in chemistry from Yale University and a Ph.D. in inorganic chemistry from Stanford University. He has been engaged for more than thirty years in research on primary and secondary lithium batteries, with a particular focus on high-energy lithium-based batteries that operate under extreme conditions.
Dr. Ozgenur Kahvecioglu, Argonne National Laboratory
Kahvecioglu is a Senior Materials Scientist at ANL. She scales up chemical and thermochemical processes, using emerging synthesis technologies. She is the PI of three DOE, Vehicle Technologies Office funded projects, focused on cathode active materials optimization and production and process development of recycling/upcycling of spent battery materials. She has co-authored several peer reviewed publications, 4 issued patents, numerous patent applications and invention disclosures, and presentations. She also has an R&D100 (2012) award. She has a Materials Science and Engineering PhD from Istanbul Technical University, Turkiye.
Dr. Feng Lin, Virginia Tech
Feng Lin is an Associate Professor of Chemistry, and the Leo and Melva Harris Faculty Fellow at Virginia Tech. He is also jointly appointed in the Department of Materials Science and Engineering and affiliated with the Macromolecules Innovation Institute at Virginia Tech. Prior to joining Virginia Tech in 2016, Dr. Lin worked at QuantumScape Corporation as a Senior Member of the Technical Staff, and at Lawrence Berkeley National Lab as a Postdoctoral Fellow.
Mr. Robert Rubino, Integer Holdings Corporation
Rubino is Senior Director of R&D at Integer Holdings Company, responsible for technology development for active implants including batteries. Through more than 20 years has participated in development of multiple battery technology platforms (QHR, QMR, CFx, Li-ion) currently used in pacemakers, defibrillators, neurostimulators and sensors. Robert holds an M.S. in Medicinal Chemistry from SUNY at Buffalo, and a Bachelor’s degree in Medicinal Chemistry from SUNY at Buffalo. He has co-authored over 30 granted US patents. His current interests include miniaturization of active implants to enable next-generation diagnostics and therapeutics that provide improved patient outcomes.
Dr. Marshall Schroeder, Army Research Laboratory
Marshall A. Schroeder is a senior Materials Engineer in the Battery Science Branch at the DEVCOM Army Research Laboratory. His research is currently focused on ion-gated devices for neuromorphic computing and electrolyte development for advanced lithium and multivalent-ion battery chemistries for U.S. Army applications. Prior to joining DEVCOM ARL in 2016, during his Ph.D. studies in Materials Science and Engineering at the University of Maryland, he was awarded the Hendricks Energy Research Fellowship and researched vacuum-based materials synthesis, characterization, and testing of lithium oxygen and thin film solid state batteries.
Mr. Adrian Tylim, Blue Solutions
Mr. Adrian Tylim, Senior Vice President of Business Development North America at Blue Solutions, building relationships with OEMs and global battery manufacturing companies. He was part of NASA’s space station solar power module team. He has an MS in Energy Systems Engineering from the University of Arizona and BS in Applied Physics from California State University.
Dr. Jie Xiao, Pacific Northwest National Laboratory
Jie Xiao is a Battelle Fellow at Pacific Northwest National Laboratory (PNNL). She leads the Battery Materials & System Group. She holds a joint appointment with University of Washington and is a PNNL-UW distinguished faculty fellow. Dr. Xiao’s research includes materials synthesis and scaleup, electrochemical kinetics to cell design and manufacturing for vehicle electrification and grid energy storage. She is Deputy Director of DOE’s Innovation Center for Battery500 Consortium
. She directs the DOE sponsored Cathode-Electrolyte Interphase Consortium.
Mr. Oliver Hamann, RadTech
Oliver Hamann represents RadTech International North America, host for the afternoon break. RadTech is an industry association focused on the development and use of Ultraviolet and Electron Beam processing for industrial applications. RadTech is promoting UV and EB curing technology in battery development. Mr. Hamann is VP of Technology for Miltec UV, a member company of RadTech, who is developing environmentally friendly and cost effective technology using UV curable materials and UV lamp systems to replace processes requiring NMP.
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Parking on campus can be a bit tricky, however, policies are a bit more relaxed during the summer!
- Follow this link to the UMD DOTS website to learn more about parking, and how to avoid pesky citations.
- You may download a visitor parking map here. Note: The top floor of Regents Drive Garage has the closest visitor parking to A. James Clark Hall.
For information on campus COVID protocol, please follow this link to the 4Maryland website.