2019 Chemistry Nobel Laureate Stan Whittingham lecture Oct. 8

Nobel laureate Stan Whittingham will present a virtual technical lecture on Friday as part of MSE's Van Vlack Lectureship.
2019 Chemistry Nobel Laureate Stan Whittingham lecture Oct. 8

On Friday, October 8, M. Stanley Whittingham, 2019 Chemistry Nobel Laureate, will present a virtual lecture at 10:30 a.m.: "The Lithium Ion Battery - from a Dream to Readiness to Take on Climate Change -- Materials Opportunities and Challenges" as part of MSE's annual Lawrence H. Van Vlack Lectureship in Materials Science & Engineering. Professor Whittingham's in-person public lecture is being rescheduled for Spring 2022.

Considered to be the "father of the lithium ion battery," Whittingham is a SUNY distinguished professor of chemistry and materials science and engineering at Binghamton and the 2019 Chemistry Nobel Laureate. He received his BA and D Phil degrees in chemistry from Oxford University, where he is an honorary Fellow of New College. He has been active in Li-batteries since 1971 when he won the Young Author Award of the Electrochemical Society for his work on beta-alumina. In 1972, he joined Exxon and discovered the role of intercalation in battery reactions, which resulted in the first commercial lithium rechargeable batteries that were built by Exxon Enterprises. In 1988 he returned to academia at SUNY Binghamton to initiate a program in materials chemistry. In 2018 he was elected a member of the National Academy of Engineering and received the Turnbull Award from MRS. He is a Fellow of the Royal Society and of the Materials Research Society, amongst others.

Lecture abstract

Lithium-ion batteries have come from an idea in 1972 to dominate electrochemical energy storage today. They are now in a position to enable the large-scale introduction of renewable energy, as well as electrifying transportation, which will leave a cleaner and more sustainable environment for the next generation. There are ample scientific opportunities to further improve their performance and safety. Today’s cells attain only 25% of their theoretical value. However, as the energy density is increased, the safety tends to be compromised. Examples will include: the soft TiS2 lattice, the layered oxides, LiMO2, and Li2VOPO4, a proof of concept for a two-electron transfer. These opportunities and the technical challenges that need to be overcome will be described in order to open up a discussion.

Please click here for the Zoom link to access the lecture.