超快、强场与量子光物质相互作用
激光诱导的自由电子加速(DLA)和自由电子辐射(FEL)
光子诱导的近场电子显微镜(PINEM)
阿秒动力学调控以及量子弱测量
光与自由电子，
量子与时空。
量子，量子，还是TMD量子！强场，强场，还是TMD强场！
在强场和量子领域中，研究自由电子和光的相互作用。应用物理目标是实现电子和光场之间的能量、动量和信息的可控转移；基础物理目标是探索电磁相互作用的深层结构。
三个相互连接的研究方向
拓扑光子学与量子模拟
激光直写，等离子体激化，微波等波导中的拓扑光子学。
超快PINEM电子合成维度。拓扑Floquet时间晶体，非线性光子时间晶体。
时间调制的动量带隙孤子，次谐波产生和非线性调制不稳定性等。
凝聚态与场论
Weyl半金属的手性输运，二维材料的量子输运，Weyl半金属光学行为。
在周期驱动系统中的量子反常和Callan-Harvey机制。
持续拓展的方向
自由电子量子光学（QFEL、DLA、UTEM）、自由电子凝聚态物理（material-free）、光子时空晶体、量子反常、光孤子、对偶性与量子弱测量，以及神经算子和 Koopman 算子（AI4Science）。
我们关心电子本身、光本身；材料是实现相位匹配与场增强的媒介。
“Shaping electron with light,— Ido Kaminer · Technion
shaping light with electron.”
“潘兄，会不会光就是电，电就是光？” — Zhaopin Chen · Technion
从 Floquet 工程到量子测量
[Rep. Prog. Phys. 88 017601(2025); PRL 132, 3 (2024): 035001; Light Science & Applications 12:267 (2023); Science Advances 9, eadg8516(2023); PRL 126, 137403 (2021); PRL122.183204 (2019).]
Research I:
• Floquet engineering in optics and condensed matters: Floquet engineering is a paradigm of tailoring and manipulating a system by a periodic drive [Nature Communications (2022); Laser & Photon. Rev. (2022); Laser & Photon. Rev. (2015)].
![Floquet engineering in optics and condensed matters: Floquet engineering is a paradigm of tailoring and manipulating a system by a periodic drive [Nature Communications (2022); Laser & Photon. Rev. (2022); Laser & Photon. Rev. (2015)].](images/original-3.jpeg)
• Momentum gaps (k-gaps) and energy-momentum gaps(ωk-gaps) [PRL 130, 233801 (2023)]
![Momentum gaps (k-gaps) and energy-momentum gaps(ωk-gaps) [PRL 130, 233801 (2023)]](images/original-4.jpeg)
• Floquet gauge anomalies in periodically driven systems: Anomalies are not dangerous, and they are ubiquitous associated with quantum vacuum and topology. We are focusing on exploring anomalies in driven systems [Physical Review Letters 130, 223403 (2023); ].
![Floquet gauge anomalies in periodically driven systems: Anomalies are not dangerous, and they are ubiquitous associated with quantum vacuum and topology. We are focusing on exploring anomalies in driven systems [Physical Review Letters 130, 223403 (2023); ].](images/original-5.jpeg)
• Weak measurement and its realizations. Weak measurement can demonstrate the transition from quantum to classical [Light Science & Applications 12:267 (2023); Nature Physics, 16(12), 1206-1210 (2020).]. However, decoherence only leads to the statistics.
![Weak measurement and its realizations. Weak measurement can demonstrate the transition from quantum to classical [Light Science & Applications 12:267 (2023); Nature Physics, 16(12), 1206-1210 (2020).]. However, decoherence only leads to the statistics.](images/original-6.jpeg)
• Riemann Hypothesis in quantum physics. Riemann hypothesis equals to Quantum mechanics?
AI 与量子物理：早期探索笔记
• Prompt engineering for writing and free electron quantum neural networks
Prompt engineering三原则:
Principle 1: be very specific in yourinstructions.
Principle 2: is to ask GPT-3 to break itswork into small chunks.
Principle 3: ask GPT-3 to check and improve its own output.
自由电子量子神经网络:
I know nothing yet... But I will.
PDENet 数据库:
算力，算法，数据，数据，数据...
超快电子的产生、调控与探测
• Ultrafast electron generation and manipulation, and strong-field electron photon coupling at discontinuity.
• Design an ultrafast photoelectron gun and realize multi-photon free-free transition for low-energy free electrons.
• Floquet quantum simulators: optics, microwave, sounds, atoms and free electrons.
科学原理：
一言以蔽之，实现和探测超快电子和超快光子的量子纠缠！
基础科学价值和产品化应用前景：
首先，结合光学探测器和直接电子探测器实现时间关联符合测量，用于研究自由电子和光子的量子纠缠。其次，完成平台搭建后，进行优化和升级，并最终实现产品化，实现“超快电子量子显微镜”可广泛使用的实验平台！