Dr. Ricky Renjie LiWelcome to my world of AI for Scientific Discovery, or AI4Science!!
Current Focus
AI4Sci: AI for photonics and materials autonomous discovery, with an emphasis on model-guided experimentation and inverse design. Research Style
Interdisciplinary work connecting machine learning, nanophotonic devices, fabrication constraints, and scientific automation. Background
Started in Mechanical engineering, grounded in semiconductor and optoelectronics, and ended up in AI/ML. Career Status
Education
Work Experience
ResearchMy work sits at the intersection of machine learning, photonic device design, and scientific discovery. AI for Photonics
Materials Discovery
Deep Learning and LLMs
Self-Driving Labs
Photonic Neuromorphic Computing
Semiconductor Materials and Fabrication
PublicationsView the full publication list on Google Scholar. Journal Publications[J1] Li, R., et al., Photonics for Neuromorphic Computing: Fundamentals, Devices, and Opportunities [J2] Li, R., et al., What Is Next for LLMs? Pushing the Boundaries of Next-gen AI Computing Hardware with Photonic Chips [J3] Xin, Q.#, Li, R.#, et al., Filling the simulation-to-reality gap: High-degree-of-freedom AI-optimized photonic crystal nanobeam resonators with fabrication tolerance [J4] Li, R., et al., Deep reinforcement learning empowers automated inverse design and optimization of photonic crystals for nanoscale laser cavities [J5] Li, H., et. al, Li, R., et al., Monolithically integrated photonic crystal surface emitters on silicon with a vortex beam by using bound states in the continuum [J6] Li, R., et al., Smart and Rapid Design of Nanophotonic Structures by an Adaptive and Regularized Deep Neural Network [J7] Chen, X.#, Li, R.#, et al., POViT: Vision Transformer for Multi-Objective Design and Characterization of Photonic Crystal Nanocavities [J8] Li, R., et al., Deep learning-based modeling of photonic crystal nanocavities [J9] Ling, H., Li, R., et al., All van der Waals integrated nanophotonics with bulk TMDCs [J10] Li, R., et al., Optimization Strategies for CNN-Based Modeling of Photonic Crystal Nanocavities [J11] Li, R., et al., Lynford Goddard, Leveraging Large Language Models for Accelerated Discovery of Novel Semiconductor and Polymer Materials [J12] Li, R., R. Wang, Lynford Goddard, Photoelectrochemical-etched porous intrinsic Si and Ge thin films as scaffold substrates for subsurface two-photon direct-laser writing Conference Publications[C1] Li, R, Y. Zeng, H. Tong, et al., Graph Convolutional Networks for Organic Molecular Properties Prediction [C2] Zeng, Y.#, Li, R.#, QuantumChem-300K: A Large-Scale Open Organic Molecular Dataset for Quantum-Chemistry Property Screening and Language Model Benchmarking [C3] Li, R., et al., LLM4Laser: Large Language Models Automate the Design of Lasers [C4] Suwandi, R., et al., Li, R., et al., Adaptive Kernel Design for Bayesian Optimization Is a Piece of CAKE with LLMs [C5] Zhang, C.#, Li, R.#, et al., Inverse Design of Photonic Crystal Surface Emitting Lasers is a Sequence Modeling Problem [C6] Li, R., et al., Predicting the Q factor and modal volume of photonic crystal nanocavities via deep learning Patents
Awards and Activities
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