Adelstein Research Group

Computational Materials Science & some Biochem. Website under construction.

We run moleulcar dynamics to simulate and understand ion diffusion in solid electrolytes for all-solid-state batteries. The codes we utilize are VASP, Quantum Espresso, and Gaussian for first-principles simulations, and LAMMPS for classical or machine learning force field simulations. We collaborate with SFSU Professor Jingjing Qiu to study oxygen evolution catalysts and with SFSU Professor Misty Kuhn to understand acetylation of lysine residues in E. Coli proteins. We have collaborated with SJSU Professor Dahyun Oh to study novel anode materials for Li-ion batteries.

We are always looking for new master’s and undergraduate research students to join the group, so please contact Professor Adelstein if interested. Qualifications are only two semesters of general chemistry and an interest in learning Python and to work on renewable energy research.

In addition, please contact Professor Adelstein if you would like a pdf of any of her papers or access to scripts used to analyze diffusion in molecular dynamics simulations. Included after the list of publications are links to posters presented by students at conferences.

Publications at SFSU

  1. *K. M. Jew, *V. T. B. Le, *K. Amaral, *A. Ta, *N. M. Nguyen, *M. Law, N. Adelstein, and M. L. Kuhn, “Investigation of the importance of protein 3D structure for assessing conservation of lysine acetylation sites in protein homologs” Frontiers in Microbiology 12:805181 (2022).

  2. P.E. Weng, A. Gooyandeh, M. Tariq, T. Li, A. Godara, J. Valenzuela, S. Mancini, S.M.T. Yeung, R. Sosa, D. R. Wagner, R. Dhall, N. Adelstein, K. Kao, D. Oh “Microbe-Assisted Nanocomposite Anodes for Aqueous Li-ion batters” ACS Applied Materials & Interfaces 13(33) 39195-39204 (2021).

  3. T. W. Heo, *A. Grieder, B. Wang, M. Wood, T. Hsu, S. A. Akhade, L. Wan, L.Q. Chen, N. Adel- stein, and B. C. Wood, “Microstructural impacts on the ionic conductivity of oxide-based solid electrolytes: A combined atomistic-mesoscale approach” npj Computational Materials 7 (214) (2021).

  4. *Z. Mehmedovi`c, *V. Wei, *A. Grieder, P. Shea, B. C. Wood, N. Adelstein, “Impacts of vacancy- induced polarization and distortion on diffusion in solid electrolyte Li3OCl” Philosophical Transactions of the Royal Society A. 379 (2211): 20190459 (2021).

  5. B. C. Wood, J. B. Varley, K. E. Kweon, P. Shea, *A. T. Hall, *A. Grieder, *M. Ward, *V. P. Aguirre, *D. Rigling, *E. Lopez Ventura, *C. Stancill, and N. Adelstein, “Paradigms of frustration in superionic solid electrolytes” Philosophical Transactions of the Royal Society A. 379 (2211): 20190467 (2021).

  6. P. Pennings, *M. M. Banuelos, *F. L. Catalan, *V. R. Caudill, *B. Chakalov, *S. Hernandez, *J. Jones, *C. Okorie, S. Modrek, R. Rohlfs, N. Adelstein, “Ten simple rules for an inclusive summer coding program for non-CS undergraduates” PLOS Computational Biology 16 (9): e1007833 (2020).

  7. *A. Zevgolis, B. C. Wood, *Z. Mehmedovi`c, *A. Hall, *T. Alves, and N. Adelstein, “Alloying effects on superionic conductivity in lithium indium halides for all-solid-state batteries” APL Materials 6, 047903 (2018).

  8. K. Kweon, J. Varley, P. Shea, N. Adelstein, P. Mehta, T. W. Heo, T. Udovic, V. Stavila, B. Wood, “Structural, chemical, and dynamical frustration: Origins of superionic conductivity in closo-borate solid electrolytes” Chemistry of Materials 29 (21), 9142-9153 (2017).

  9. N. Adelstein, D. Lee, J. DuBois, K. Ray, J. Varley, V. Lordi, “Magnetic stability of oxygen defects on the SiO2 surface” AIP Advances (2016).

  10. N. Adelstein and B. Wood, “Role of dynamically frustrated bond disorder in a Li+ superionic solid electrolyte” Chemistry of Materials 28 (20) 7218-7231 (2016).*

Pulications at LLNL and UCB

Coming soon.

Posters for your perusal

Coming soon.