Shaofei Wang

Shaofei Wang

Postdoc

Shaofei is Postdoc in the ORNL. Her research interests is in phonon and ionic transportation. She now focus on using neutron experiments to uncover the transport properties in materials. She also skill at the DFT calculations. 

2018~2019 Merit Student of Chinese Academy of Sciences 

2018           The second-class prize chorus contest at Chinese Academy of Sciences 

2019          The silver award prize chorus contest at Songshan Lake 

2020~2021 Merit Student of Chinese Academy of Sciences

2020           2st prize of Doctoral Scholarship

2020           Doctoral Scholarship of Dongguan Research Department, Institute of High Energy Physics, Chinese          Academy of Sciences

2021~2022 Excellent Merit Student of Chinese Academy of Sciences

2021           1st prize of Doctoral Scholarship (10%)

2021            Instructor in the national science-popularizing public activity--the Chinese Academy of Sciences Public Science Day

2022           National doctoral Scholarship in China (0.2%)

2022           1st prize of Doctoral Scholarship (10%)

2022           Director's Scholarship Excellence Award in the Institute of High Energy Physics (2%)

2022~2023 Merit Student of Chinese Academy of Sciences 

2023           Instructor in the national science-popularizing public activity--the Chinese Academy of Sciences Public Science Day 

 

Postdoc, Oak Ridge National Laboratory, 2023~present

PhD. Institute of High Energy Physics, Chinese Academy of Sciences, Beijing 100049, China (2018~2023)

B.S University of Jinan,  Jinan 250022, China (2014~2018)

  1. Acoustic phonon softening enhances phonon scattering in Zintl-phase II-I-V compounds. SF Wang, JR Zhang, FW Wang, Physical Review B 108 (23), 235213.
  2. Intrinsic Ultralow Lattice Thermal Conductivity in the Full-Heusler Compound. SF Wang, ZG Zhang, BT Wang, JR Zhang, FW Wang, Physical Review Applied 17 (3), 034023.
  3. Theoretical investigation of Ti2B monolayer as powerful anode material for Li/Na batteries with high storage capacity. SF Wang, BT Wang, T Bo, JR Zhang, FW Wang, Applied Surface Science 538, 148048.
  4. Zintl phase BaAgSb: Low thermal conductivity and high performance thermoelectric material in ab initio calculation. SF Wang, ZG Zhang, BT Wang, JR Zhang, FW Wang, Chinese Physics Letters 38 (4), 046301.
  5. Tailoring interphase structure to enable high-rate, durable sodium-ion battery cathode. N Li*, SF Wang*, E Zhao, W Yin, Z Zhang, K Wu, J Xu, Y Kuroiwa, Z Hu, Journal of Energy Chemistry 68, 564-571.
  6. Enhancing the Whole Migration Kinetics of Na+ in the Anode Side for Advanced Ultralow Temperature Sodium‐Ion Hybrid Capacitor. J Ruan, S Luo, SF Wang, J Hu, F Fang, F Wang, M Chen, S Zheng, D Sun, Advanced Energy Materials 13 (34), 2301509.
  7. Confining Bulk Molecular O2 by Inhibiting Charge Transfer on Surface Anions Toward Stable Redox Electrochemistry in Layered Oxide Cathodes. K Wu, P Ran, SF Wang, L He, W Yin, B Wang, F Wang, J Zhao, E Zhao, Nano Energy, 108602.
  8. Ultra-fast surface reconstruction enabled by the built-in electric field in heterostructured CoS2/CuS for water electrolysis. H Man, J Feng, SF Wang, S Li, P Li, H He, W Raróg-Pilecka, J Zhao, Cell Reports Physical Science 3 (10).
  9. Ni, beyond thermodynamic tuning, maintains the catalytic activity of V species in Ni 3 (VO 4) 2 doped MgH 2. J Zang, SF Wang, R Hu, H Man, J Zhang, F Wang, D Sun, Y Song, F Fang, Journal of Materials Chemistry A 9 (13), 8341-8349.
  10. Oxygen vacancy promising highly reversible phase transition in layered cathodes for sodium-ion batteries. K Jiang, S Guo, WK Pang, X Zhang, T Fang, S Wang, F Wang, X Zhang, Nano Research 14, 4100-4106.
  11. Li-triggered superior catalytic activity of V in Li 3 VO 4: enabling fast and full hydrogenation of Mg at lower temperatures. J Zang, SF Wang, F Wang, Z Long, F Mo, Y Xia, F Fang, Y Song, D Sun. Journal of Materials Chemistry A 8 (30), 14935-14943.