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Google’s Gemini Robotics 2 adds whole‑body intelligence, dexterous hand control and on‑device adaptation for robots, marking a step toward general‑purpose
Google announced Gemini Robotics 2, its newest AI layer that lets robots control whole bodies—from feet to fingertips—while running locally on‑device and collaborating with other robots [1].
| At a glance | |
|---|---|
| Model family | Gemini Robotics 2 (VLA, ER 2, On‑Device 2) |
| Capability | Whole‑body control, advanced dexterity, multi‑robot teamwork |
| On‑device adaptation | Few‑hour learning with < 200 examples |
| Availability | Early‑access partners; ER 2 in private preview on Gemini Enterprise Agent Platform [1] |
Gemini Robotics 2’s vision‑language‑action (VLA) model can command full humanoid robots, enabling actions such as walking, crouching, stretching and manipulating objects in cluttered environments [1]. In a demo with Apptronik’s Apollo 2 humanoid, the system was asked to “put the watering can into the green bin on the bottom shelf,” and the robot walked, grasped and placed the can precisely [1]. The same model also drives the 22‑degree‑of‑freedom SharpaWave hand to tie knots or seal zip‑lock bags, and operates standard two‑finger grippers on a Franka Duo platform for tight packing tasks [1]. These capabilities extend beyond prior Gemini versions, which were limited to upper‑body motions and table‑top tasks.
The embodied reasoning (ER) model, Gemini Robotics ER 2, serves as a high‑level brain that parses user instructions, plans multi‑step actions lasting several minutes, and coordinates with the VLA model to execute them [1]. It now tracks task boundaries and can self‑correct when steps fail, a step up from earlier models that handled only short, repetitive sequences. Multi‑robot collaboration is also introduced, allowing different robot types to communicate and divide labor on complex workflows [1].
Gemini Robotics On‑Device 2 is a lightweight VLA optimized for local execution, enabling adaptation to new robot embodiments in a few hours with fewer than 200 training examples [1]. This addresses latency and connectivity constraints that have limited many field deployments.
Google emphasizes safety, adding the ASIMOV‑Agentic benchmark to evaluate the model’s ability to refuse unsafe tool calls and request human intervention when uncertain [1]. The ER 2 model reportedly improves proximity detection and can trigger safe stops if a human approaches too closely, aligning with collaborative safety standards [1]. These safety layers are positioned as essential steps toward the broader goal of general‑purpose physical AI, moving beyond single‑task automation [1].
Google’s Gemini Robotics 2 demonstrates a tangible shift from narrowly programmed robots to systems that can reason, adapt and collaborate across whole bodies, narrowing the gap between current automation and the vision of general‑purpose physical AI. The open question is whether the on‑device adaptation speed and safety guarantees will be enough to drive widespread commercial deployment.
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It aims to provide whole-body intelligence for robots, enabling more complex tasks, real-time environment analysis, and multi-robot collaboration.
It processes live video to track progress, classifies frame completeness with about 60% accuracy, and identifies key moments with nearly 90% accuracy, allowing robots to adjust actions in real time.
One of the three models is publicly available for developers, while the others are limited to a small group of testers.
Google introduced the ASIMOV-Agentic benchmark, which evaluates safety factors such as refusing unsafe tool calls and seeking human assistance when needed.