Runqian (Ray) Wang

I am a PhD student at UC Berkeley, advised by Prof. Alexei Efros. I graduated from MIT with double major in AI and Math. I am fortunate to have worked with Prof. Kaiming He, Prof. Yilun Du, and Dr. Zhirong Wu. I also interned at Microsoft Research Asia and MIT-IBM Watson AI Lab.

I hope to work on general problems in deep learning through the lens of computer vision. I am currently interested in generative models and representation learning.

Email  /  CV  /  Github  /  Google Scholar

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Selected Works

For a full list of publications, see Google Scholar

Diffuse and Disperse: Image Generation with Representation Regularization
Runqian Wang, Kaiming He
Preprint, 2025
code / paper

Plug-and-play representation regularizer for generative modeling that brings consistent improvement across different settings. Follow-up works also show promising adoptation in robotics and NLP.

Equilibrium Matching: Generative Modeling with Implicit Energy-Based Models
Runqian Wang, Yilun Du
NeurIPS, 2026
website / code / paper

New generative model that directly learns equilibrium dynamics using an implicit energy-based formulation. Exceeds Flow Matching in performance, supports optimization-based sampling, and naturally performs multiple downstream tasks.

Equilibrium Forcing: Adaptive Video Generation Without Noise Conditioning
Hansen Jin Lillemark, Alex Rojas, Zachary Novack, Runqian Wang, Yilun Du, Yian Ma, Taylor Berg-Kirkpatrick, Rose Yu
NeurIPS, 2026
website / code / paper

Equilibrium Forcing improves and extends Equilibrium Matching to video generation, achieving better video generation quality and sampling speed through adaptive sampling.

ARC is a Vision Problem!
Keya Hu, Ali Cy, Linlu Qiu, Xiaoman Delores Ding, Runqian Wang, Yeyin Eva Zhu, Jacob Andreas, Kaiming He
CVPR, 2026
code / paper

Reframes ARC-AGI dataset as an image-to-image translation problem, achieving competitive performance with those of leading LLMs.

Trans-LoRA: towards data-free Transferable Parameter Efficient Finetuning
Runqian Wang, Soumya Ghosh, David Cox, Diego Antognini, Aude Oliva, Rogerio Feris, Leonid Karlinsky
NeurIPS, 2024
paper

Enables nearly data-free and compute-efficient transfer of existing PEFT modules trained on old base model to new base models, while at least preserving, in most cases improve, performance.