EV Battery Disassembly: A Smarter Approach with Robotics

Researchers have developed a collaborative robotic platform that uses artificial intelligence to improve the efficiency and precision of electric vehicle battery disassembly.

Researchers have developed a collaborative robotic platform that uses artificial intelligence to improve the efficiency and precision of electric vehicle battery disassembly.

Researchers have developed a bio-inspired tactile system that allows robotic hands to reliably recognize contact and prevent objects from slipping, enhancing dexterity and reliability.

A new framework is enabling researchers to build interactive visualization tools without needing to be coding experts, accelerating insights from complex data.

New research demonstrates how integrating reasoning and advanced AI models can enable educational robots to generate natural, empathetic co-speech gestures that improve human-robot interaction.

A new analysis of EU regulations reveals a critical gap in addressing the unique privacy and security challenges posed by increasingly autonomous AI systems.

Researchers now have access to a new, adaptable platform designed to overcome the challenges of long-term studies in human-robot interaction.

A new era of artificial intelligence is transforming our ability to model proteins, moving from simple snapshots to complex simulations of their behavior and interactions.
A new report details key discussions and recommendations from a workshop focused on accelerating the adoption of intelligent systems in medical practice.

New research demonstrates that while artificial intelligence can significantly aid data scientists, human expertise remains vital for navigating complex, domain-specific challenges.
![The framework addresses complex tasks requiring precise movement by separating high-level goal planning from detailed kinematic adjustments, achieved through a bi-level approach where a [latex]Bi-Level RVQ-VAE[/latex] learns hierarchical action representations and the [latex]KineVLA[/latex] framework facilitates bi-level generation for kinematics-rich scenarios.](https://arxiv.org/html/2603.17524v1/fig/pipline.png)
New research introduces a framework that empowers robots to understand and execute complex actions with greater precision by explicitly modeling the underlying kinematics of movement.