Robots Learn by Playing: Building Predictive World Models Through Autonomous Exploration
New research demonstrates a system where robots autonomously explore their environment, generating the data needed to build highly accurate video world models.
New research demonstrates a system where robots autonomously explore their environment, generating the data needed to build highly accurate video world models.
![A fully coupled simulation, incorporating an autonomous mechanism activated upon detection of low De numbers, successfully stabilized the effective stress path and prevented falsely predicted rock fracture-arresting stress reduction at [latex] p^{\prime}=8.9 \text{ MPa} [/latex]-whereas a model constrained to undrained conditions drove the path directly into the failure zone, demonstrating the essential role of diffusive dissipation in preserving qualitative physical correctness.](https://arxiv.org/html/2603.09756v1/phase3_stress_path_comparison.png)
Researchers have developed an AI agent capable of autonomously formulating and solving multi-physics problems by reasoning about known physical laws, leading to more accurate and reliable simulations.

Researchers have developed a comprehensive framework to transform a commercial robotic hand into a high-performance platform for advanced manipulation tasks.
A new review examines the promise and limitations of using generative AI tools to analyze qualitative data in software engineering research.

Researchers have developed a flexible, spring-based robot modeled after caterpillar locomotion for effective exploration of confined environments.

A new synergy between artificial intelligence and vector search is unlocking powerful capabilities in information retrieval and generative AI.

New research reveals that understanding artificial intelligence isn’t about formal education, but about hands-on experimentation and shared learning within online creative spaces.
![ZeroWBC orchestrates human motion through a two-stage process-first predicting sequences of movement tokens from images and text using a [latex]VQ-VAE[/latex] and a refined [latex]Qwen2.5-VL[/latex] model, then refining and sustaining these motions via an reinforcement learning policy guided by progressively challenging curriculum learning-a design acknowledging that even the most sophisticated systems ultimately navigate inherent limitations in long-term predictability and control.](https://arxiv.org/html/2603.09170v1/x1.png)
Researchers have developed a new framework that enables humanoid robots to learn complex, natural movements simply by observing human egocentric video.
![The research introduces a method for discovering interpretable stochastic differential equations directly from observed time series data through genetic programming, optimizing both the drift [latex] f(x) [/latex] and diffusion [latex] g(x) [/latex] terms via tree-based adaptation-including crossover, exemplified by subtree exchange, and mutation of operators-to model the dynamics of stochastic systems.](https://arxiv.org/html/2603.09597v1/x1.png)
Researchers have developed a new artificial intelligence technique that automatically discovers the underlying equations governing complex, random systems.

A new framework uses detailed human modeling and artificial intelligence to design robots that interact with people more naturally and effectively.