[1]  Sun, B., Y. Li, Z. Wang*, B. An, X. Zhou, and Z. Zhang (2026). The East Helanshan Fault: revisiting the 1739 Pingluo M 8 event and earthquake scenarios. Seismological Research Letters, 97(2A), 1018-1031.

[2]  Sunilkumar, T. C., D. Xin, Z. Zhang*, V. K. Gahalaut, Z. Wang, and Z. He (2026). Dynamic rupture modeling of the Kachchh Mainland Fault (KMF), Bhuj, India: Implications for earthquake risk assessment, Journal of Asian Earth Sciences, 299, 106956.

[3]  He, Z., Z. Zhang*, X. Wang, Z. Wang, T. C. Sunilkumar, X. Xu, and R. Wang (2026). Rupture dynamics of the 2025 Mw 7.7 Myanmar earthquake: A bilateral supershear rupture on unusually long fault superhighway, Geophysical Research Letters, 53(1), e2025GL118023.

[4]  Xu, T., H. Yu, W. Wang, Z. Wang, and Z. Zhang* (2026). A mixed efficient AWENO scheme to model cross-fault ground motions and its applications, Seismological Research Letters, 97(1), 161-172.

[5]  Li, X., Z. Wang, Y. Li*, H. Yu, Z. Zhang, W Zhang, and X. Chen (2025). Rupture dynamics of the middle section of Littoral Fault Zone: Potential maximum magnitude and cascading rupture analysis, Seismological Research Letters, 96(5), 2916-2927.

[6]  Sunilkumar, T. C., Z. Zhang*, Z. Wang, Z. He, D. Xin, T. Xu, and W. Wang (2025). Physics-based simulations of earthquake scenarios on the Kopili Fault in northeast India: Insights into seismic hazard and fault mechanics, Tectonophysics, 911, 230838.

[7]  Wang, Z. and Z. Zhang* (2025). Unexpected rupture triggering behavior of subshear and free-surface-induced supershear ruptures on stepover, Earth and Planetary Science Letters, 664, 119457.

[8]  He, Z., Y. Zhang, W. Wang, Z. Wang, T. C. Sunilkumar, and Z. Zhang* (2025). Revisiting the 2020 Mw 6.8 Elaziğ, Türkiye Earthquake with physics-based 3D numerical simulations constrained by geodetic and seismic observations, Remote Sensing, 17(4), 720.

[9]  Sunilkumar, T. C., Z. Zhang*, Z. Wang, W. Wang, and Z. He (2024). Unveiling the mechanisms of the 1819 M 7.7 Kachchh earthquake, India: Integrating physics-based simulation and strong ground motion estimates, Earth and Space Science, 11(8), e2023EA003308.

[10]He, Z., Z. Zhang*, Z. Wang, and W. Wang (2024). Slip-weakening distance and energy partitioning estimated from near-fault recordings during the 2023 Mw 7.8 Türkiye-Syria earthquake, Tectonophysics, 885, 230424.

[11]Li, Y., Z. Wang, Z. Zhang*, Y. Gu, and H. Yu (2024). A physics-based seismic risk assessment of the Qujiang Fault: From dynamic rupture to disaster estimation, International Journal of Disaster Risk Science, 15, 165-177.

[12]Wan, W., L. Gan*, W. Wang*, Z. Yin*, H. Tian, Z. Zhang, Y. Wang, M. Hua, X. Liu, S. Xiang, Z. He, Z. Wang, P. Gao, X. Duan, W. Liu, W. Xue, H. Fu, G. Yang*, X. Chen, Z. Song, Y. Chen, X. Liu, and W. Zhang (2023). 69.7-PFlops Extreme Scale Earthquake Simulation with Crossing Multi-faults and Topography on Sunway, Proceedings of the International Conference for High Performance Computing, Networking, Storage and Analysis, 10, 1-15.

[13]Wang, Z., W. Zhang, T. Taymaz, Z. He, T. Xu, and Z. Zhang* (2023). Dynamic rupture process of the 2023 Mw 7.8 Kahramanmaras earthquake (SE Türkiye): Variable rupture speed and implications for seismic hazard, Geophysical Research Letters, 50(15), e2023GL104787. (ESI高被引, GRL Top Viewed Article)

[14]Gu, Y., Z. Zhang*, W. Wang, and Z. Wang (2023). Dynamic rupture simulations based on interseismic locking models— taking the Suoerkuli section of the Altyn Tagh Fault as an example, Geophysical Journal International, 234(3), 1737-1751.

[15]Wang, Z., Y. Li, W. Wang, W. Zhang, and Z. Zhang* (2023). Revisiting paleoearthquakes with numerical modeling: a case study of the 1679 Sanhe-Pinggu earthquake, Seismological Research Letters, 94(2A), 720-730.