Learning to Fly: Data-Driven Control for Nonlinear Systems

A new approach combines system identification with reinforcement learning to achieve efficient and accurate control of complex dynamics.

A new approach combines system identification with reinforcement learning to achieve efficient and accurate control of complex dynamics.

Researchers have developed a novel, tuning-free method that significantly improves the quality and coherence of images restored with text prompts.
![Ablation studies reveal a complex interplay between biases affecting perceptions of education and demographic groups, demonstrating that interventions minimizing both [latex] KL [/latex] divergences-representing ideal outcomes-are possible, though frequently traded off against scenarios where one bias diminishes while the other intensifies, and occasionally resulting in the amplification of both.](https://arxiv.org/html/2512.20796v1/plots/tradeoff_bottom_panels1.png)
New research reveals that removing demographic information from large language models to address bias isn’t a simple fix, and can actually reduce performance.

A new framework combines large language models and reinforcement learning to enable more robust and adaptable vision-language navigation in real-world settings.
A new method significantly accelerates the solution of large sparse linear systems on GPUs while minimizing memory usage.

Researchers are leveraging lane topology and symmetry to build a more efficient and scalable representation of traffic scenes, improving the accuracy of multi-agent trajectory forecasting.

New research sheds light on how distilled AI models learn, pinpointing the origins of their decision-making processes.

A new method leverages the speed of event cameras and optical flow to achieve robust and accurate 6DoF object pose tracking in dynamic environments.

Researchers have developed a new framework that uses artificial intelligence to create realistic and adaptable traffic simulations based on natural language commands.

Researchers have developed a cost-effective wireless system that allows a 29-DoF humanoid robot to dynamically maintain balance during complex movements.