
Ian Li, Zilei Shao, Benjie Wang, Rose Yu, Guy Van den Broeck, Anji Liu
ICML. 2026
We propose Coupled Discrete Diffusion (CoDD), a hybrid framework that breaks this barrier by replacing the fully-factorized output distribution with a lightweight, tractable probabilistic inference layer.
Ian Li, Zilei Shao, Benjie Wang, Rose Yu, Guy Van den Broeck, Anji Liu
ICML. 2026
We propose Coupled Discrete Diffusion (CoDD), a hybrid framework that breaks this barrier by replacing the fully-factorized output distribution with a lightweight, tractable probabilistic inference layer.

Ian Li, Kapilesh Guruprasad, Raunak Sengupta, Ninad Satish, Loris D'Antoni, Rose Yu
Under Review. 2026
We propose Manifold-Guided Attention Steering (MAGS), a trajectory-aware inference-time intervention grounded in a geometric observation that the output activations of specific attention heads diverge from a low-dimensional correctness manifold at the point of error in reasoning problems.
Ian Li, Kapilesh Guruprasad, Raunak Sengupta, Ninad Satish, Loris D'Antoni, Rose Yu
Under Review. 2026
We propose Manifold-Guided Attention Steering (MAGS), a trajectory-aware inference-time intervention grounded in a geometric observation that the output activations of specific attention heads diverge from a low-dimensional correctness manifold at the point of error in reasoning problems.

Gwen Yidou-Weng, Ian Li, Anji Liu, Oliver Broadrick, Guy Van den Broeck, Benjie Wang
ArXiv 2025
We propose Learning to Look Ahead (LTLA), a hybrid approach that pairs the same base language model for rich prefix encoding with a fixed tractable surrogate model that computes exact continuation probabilities.
Gwen Yidou-Weng, Ian Li, Anji Liu, Oliver Broadrick, Guy Van den Broeck, Benjie Wang
ArXiv 2025
We propose Learning to Look Ahead (LTLA), a hybrid approach that pairs the same base language model for rich prefix encoding with a fixed tractable surrogate model that computes exact continuation probabilities.

Ian Li, Philip Chen, Max Huang, Andrew Park, Loris D'Antoni, Rose Yu
FoRLM @ NeurIPS 2025 2025
We introduce Activation State Machine (ASM), an lightweight dynamic steering mechanism that learns the latent dynamics of ideal reasoning trajectories and applies context-aware interventions at inference time.
Ian Li, Philip Chen, Max Huang, Andrew Park, Loris D'Antoni, Rose Yu
FoRLM @ NeurIPS 2025 2025
We introduce Activation State Machine (ASM), an lightweight dynamic steering mechanism that learns the latent dynamics of ideal reasoning trajectories and applies context-aware interventions at inference time.