Compiled from authorship records collected on this website, including collaborative papers and arXiv preprints, without distinguishing author order.
Physical Review Letters 137, 143601 (2026) · Published · 2026.09.29
Songyu Zhu, Yushan Zeng, Chenhao Pan, Yiming Pan, Ye Tian, Ruxin Li
Programming light with a freely propagating electron wavepacket: quadratic phase evolution offers a route to tunable coherent radiation and nonclassical light.
Laser & Photonics Reviews 20(14), e02603 (2026) · 2026.03.14
Liang Zhang, Zirui Zhao, Qiaofei Pan, Chenhao Pan, Qingqing Cheng, Yiming Pan
Current group contributors: Liang Zhang, Zirui Zhao
Providing a topologically protected spacetime location for a wavepacket, then weaving these ‘events’ together to control noise-driven amplification.
Pan, C., Song, X., Cao, Y., Xiong, L., Lan, X., Wang, S., ... & Pan, Y*. Superluminal spacetime boundary, time reflection and quantum light generation from relativistic plasma mirrors. Laser & Photonics Reviews, e01986(2025).
How do time reflection and photon-pair generation emerge when a strong laser drives a plasma mirror? This theoretical work seeks answers at spacetime boundaries.
Liang Zhang, Chenhao Pan, Yiming Pan. Breathing k-Gap Events and Instability on Instability in Nonlinear Photonic Time Crystals. arXiv:2607.06077 (2026). arXiv ↗
Current group contributors: Liang Zhang
A breathing event can emerge in an unstable optical field, drawing energy from competing solitons; its rhythm can be tuned by a seed signal.
Liang Zhang, Chenhao Pan, Yiming Pan. Quantization and Biphoton Statistics of k-Gap Solitons in Nonlinear Photonic Time Crystals. arXiv:2606.30508 (2026). arXiv ↗
Current group contributors: Liang Zhang
At the quantum scale, k-gap solitons involve photon pairs, collapse and revival, and nonclassical interference.
Liang Zhang, Chenhao Pan, Jinze He, Danni Chen, Zirui Zhao, Qingqing Cheng, Yiming Pan. Topologically-protected superluminal pair annihilation in photonic time crystals. arXiv:2510.08995 (2025). arXiv ↗
Current group contributors: Liang Zhang, Jinze He, Danni Chen, Zirui Zhao
Tuning the relative phase allows two amplified optical waves to cancel. Their pattern may evolve superluminally without transmitting information faster than light.