1.高密度、高生物兼容性柔性神经电极技术
开发新型高密度、高生物兼容性柔性神经电极，实现对大脑神经电信号长期、稳定读取。结合光遗传技术，发展高时空分辨率的活体神经电生理刺激和记录技术，实现脑活动机制分析和脑相关疾病治疗。
2.基于纳米材料的新型神经电极技术
结合纳米材料优异的电学、力学和热学性能，构建新型的纳米神经界面，提高纳米材料神经电极与三维生物组织的信号转导效率，发展新型的神经电极技术，推动纳米技术在脑科学中的实际应用。 

Guan S.#, Wang J.#, Gu X.#, Zhao Y., Hou R., Fan H., Zou L., Gao L., Du M., Li C.*, Fang Y.*. Elastocapillary self-assembled neurotassels for stable neural activity recordings. Science Advances, 2019, 5(3), eaav2842.

Shi J., Fang Y.*. Flexible and implantable microelectrodes for chronically stable neural interfaces. Advanced Materials, 2019, 31(45), 1804895.

Gao L.#, Wang J.#, Guan S., Du M., Wu K., Xu K., Zou L., Tian H., Fang Y.*. Magnetic Actuation of Flexible Microelectrode Arrays for Neural Activity Recordings. Nano Letters, 2019, 19(11), 8032-8039.

Guan S., Wang J., Fang Y.*. Transparent graphene bioelectronics as a new tool for multimodal neural interfaces. Nano Today, 2019, 26, 13-15.

Li L., Guo Y., Sun Y., Yang L., Qin L., Guan S., Wang J., Qiu X., Li H.*, Shang Y.*, Fang Y.*. A general method for the chemical synthesis of large-scale, seamless transition metal dichalcogenide electronics. Advanced Materials, 2018, 30(12), 1706215.

Guo Y., Fang Z., Du M., Yang L., Shao L., Zhang X., Li L., Shi J., Tao J., Wang J., Li H.*, Fang Y.*. Flexible and biocompatible nanopaper-based electrode arrays for neural activity recording. Nano Research, 2018, 11(10), 5604–5614.

Yang L., Zhao Y., Xu W., Shi E., Wei W., Li X., Cao A., Cao Y.*, Fang Y.*. Highly crumpled all-carbon transistors for brain activity recording. Nano Letters, 2017, 17(1), 71-77.

Liu J.^#, Fu T.^#, Cheng Z.^#, Hong G., Zhou T., Jin L., Duvvuri M., Jiang Z., Kruskal P., Xie C., Suo Z., Fang Y.*, Lieber C.M.*. Syringe-injectable electronics. Nature Nanotechnology, 2015, 10 (7), 629-636.

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