Giving Robots a Sense of Physics: How Dynamics-Aware Networks Improve Control
![The system moves beyond conventional robotic node feature computation-which relies on the network to independently learn information flow from link connectivity-by encoding the computational structure of forward dynamics through dynamics-inspired message passing, propagating and aggregating learnable inertia-related quantities [latex]I_a[/latex] from child nodes to parents, thereby forming more informed node features.](https://arxiv.org/html/2603.19078v1/figures/figure1.jpg)
A new graph neural network architecture incorporates the principles of physics into robot learning, resulting in more efficient, robust, and computationally performant control.


![A process-aware agent architecture achieves macro-level alignment through framing mechanisms while enabling micro-level operation via a [latex]Perceive-Reason-Act[/latex] loop over framed knowledge, facilitating interactions between agents-both human and AI-and the external environment through tools like messaging and sensors, ultimately realizing a system capable of contextualized action and dynamic adaptation.](https://arxiv.org/html/2603.18916v1/x1.png)



