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#Embodied perception

2026-10-01Thu
  1. Sanctuary AI15

    Robotic Dexterity Explained | "What is robotic dexterity?" In Part 1 of Dexterity Explained, we break down what manual dexterity is, why it matters, and how robotic hands and Physical AI work together to bring greater skill, precision, and control to physical tasks. The more dexterous robots become, the more complex industrial work they can take on. Learn more about our dexterous solutions: https://sanctuary.ai/solutions/ #Explained #PhysicalAI #Dexterity #Robotics #RobotHand #SanctuaryAI

2026-09-17Thu
  1. MIT — Robotics88

    Robotic lab sets up and runs optics experiments on demand

    MIT researchers have developed a reconfigurable robotic lab that autonomously assembles, tunes, and dismantles optical experiments. The system uses robotic arms, 3D-printed component housings, and a cloud-based interface to enable remote operation. It can build and fine-tune a laser cavity in under 30 minutes, demonstrating the potential for fully automated optical experiments.

    Editorial context:This research introduces a reconfigurable robotic optics lab capable of autonomously assembling, tuning, and dismantling optical experiments with micron-scale precision. The system integrates robotic arms, 3D-printed component housings, QR code identification, and a cloud-based interface for remote operation. It demonstrates the potential for fully automated optical experiments, reducing manual t犯

2026-09-10Thu
  1. Unitree63

    Unitree has fully open-sourced its UnifoLM-WLA-1.0 embodied foundation model, achieving new state-of-the-art results across multiple benchmarks. The model supports cross-task and cross-end-effector generalization, enabling whole-body coordination for both desktop and mobile manipulation.

    Editorial context:Unitree Robotics has open-sourced its UnifoLM-WLA-1.0 humanoid foundation model, which demonstrates strong cross-task and cross-end-effector generalization capabilities across desktop and whole-body manipulation tasks.

2026-09-04Fri
  1. MIT — Robotics65

    Researchers tune into Arctic under-ice sounds and test through-ice communication

    Researchers from MIT Lincoln Laboratory deployed sensors in the Arctic to monitor under-ice sounds and test through-ice communication using a magnetic modem. The study addresses challenges in extreme weather and highlights the importance of community collaboration and sensor deployment strategies for Arctic research.

    Editorial context:This research focuses on through-ice communication and acoustic monitoring in the Arctic, using low-cost sensors and magnetic modem technology. The study highlights the challenges of deploying and retrieving equipment in extreme conditions and emphasizes the importance of community engagement and collaboration with local experts.

2026-08-17Mon
  1. Skild AI — Blog85

    Introducing S1: In-Context Learning for Robotics

    Skild AI introduces S1, a robotic foundation model that leverages in-context learning to execute complex, long-horizon tasks without post-training. This marks a significant shift from traditional fine-tuning approaches, enabling rapid deployment and reducing data requirements. The model demonstrates strong performance on unseen tasks, including plant potting, pancake cooking, and kit assembly, and shows robustness to perturbations and common-sense reasoning.

    Editorial context:Skild AI introduces S1, a robotic foundation model that leverages in-context learning to execute complex, long-horizon tasks without post-training. This marks a significant shift from traditional fine-tuning approaches, enabling rapid deployment and reducing data requirements. The model demonstrates strong performance on unseen tasks, including plant potting, pancake cooking, and kit assembly, and

2026-07-28Tue
  1. Google DeepMind — Robotics88

    Gemini Robotics 2 brings whole body intelligence to robots

    Google DeepMind has released Gemini Robotics 2, a new model that enables robots to perform complex tasks with whole-body intelligence, advanced dexterity, and multi-robot collaboration. The model supports real-time reasoning, on-device adaptation, and safety features for human-robot interaction.

    Editorial context:Google DeepMind introduces Gemini Robotics 2, a significant advancement in whole-body control and multi-robot collaboration for embodied AI. The release highlights improvements in dexterity, reasoning, and on-device adaptation, with a focus on safety and real-world task execution.

2026-06-29Mon
  1. NVIDIA — Robotics85

    Firefly Aerospace Operates NVIDIA Jetson in Lunar Orbit for the First Time

    Firefly Aerospace's Blue Ghost Mission 2 will deploy NVIDIA Jetson for on-orbit AI processing, enabling real-time lunar data analysis and reducing latency. This marks the first use of Jetson in lunar orbit, supporting scientific research and future lunar exploration.

    Editorial context:NVIDIA Jetson's deployment in lunar orbit marks a significant step in edge AI for space applications, enabling real-time data processing and reducing reliance on Earth-based computation.

2026-04-13Mon
  1. Google DeepMind — Robotics85

    Gemini Robotics-ER 1.6: Powering real-world robotics tasks through enhanced embodied reasoning

    Google DeepMind has released Gemini Robotics-ER 1.6, an upgraded model that enhances embodied reasoning for robotics. This model improves spatial reasoning, multi-view understanding, and safety compliance, enabling robots to perform complex tasks like instrument reading. It is available via the Gemini API and Google AI Studio, with examples provided in a developer Colab.

    Editorial context:Google DeepMind's Gemini Robotics-ER 1.6 represents a significant advancement in embodied reasoning for robotics, enhancing spatial reasoning, multi-view understanding, and safety compliance. It introduces instrument reading capabilities, crucial for industrial applications, and demonstrates improved performance over previous versions in both task success detection and safety instruction following

2025-11-13Thu
  1. Dexterity — Blog88

    Transactable World Models

    Dexterity's research introduces 'Transactable World Models' as a core component for Physical AI, treating world models as operators that reason about physical reality rather than storing data. These models enable robust manipulation by integrating physics, handling uncertainty, and supporting multi-agent coordination with explicit rollback and transaction guarantees. The approach emphasizes interpretability, real-time consistency, and the ability to reason about cause-and-effect relationships in dynamic environments.

    Editorial context:Dexterity introduces 'Transactable World Models' as a foundational component for Physical AI, emphasizing interpretability, physics integration, and real-time consistency. This approach enables robust manipulation in complex environments by treating world models as operators rather than data stores, allowing for explicit uncertainty quantification and transaction guarantees essential for multi-ag,