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Gemini Robotics ER 2: powering robotics with video understanding, task orchestration, and multi-robot collaboration
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Gemini Robotics ER 2: powering robotics with video understanding, task orchestration, and multi-robot collaboration

Google DeepMind's Gemini Robotics ER 2 is an "embodied reasoning" model that acts as a high-level orchestrator for robots, handling spatial reasoning, multi-step task planning, and tool calling while delegating motor execution to lower-level vision-language-action (VLA) models. The update adds continuous video-based progress classification (57.4 percent accuracy) and precision moment-finding (91.3 percent accuracy, 0.96s mean absolute distance) for tracking task completion in real time, plus multi-robot collaboration allowing different robot platforms to hand off tasks via shared semantic understanding. It is available via the Gemini API, Google AI Studio, and in private preview on the Gemini Enterprise Agent Platform, with example code and demos using Boston Dynamics' Spot and Apptronik's Apollo 2 and Franka F3 Duo.

TL;DR DeepMind's Gemini Robotics ER 2 adds real-time video progress tracking, precision moment-finding, and multi-robot task handoff to its embodied-reasoning brain for orchestrating VLA-controlled robots.
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What it claims

Gemini Robotics ER 2 is an orchestrator, not a controller. It plans and monitors robot tasks and calls your low-level controllers as tools. The page positions it as an upgrade over Gemini Robotics ER 1.6 in four areas: tool orchestration, video-based progress tracking, spatial reasoning (success detection, instrument reading, VQA) and safety behaviour. The headline numbers are 57.4% on progress classification and, on moment-finding, 91.3% accuracy with 0.96s mean absolute distance. The page says the moment-finding result is close to "much larger model categories" at a fraction of the compute and 4x the execution speed.

How it works

  • Integration shape. You declare low-level control interfaces as tools. Examples are VLA models, navigation APIs, or any user-defined function; Google Search is also callable natively. You then stream video, audio or text into the model. ER 2 decides which tool to call next and checks the result from the video feed.
  • Latency path. The model runs through the Gemini Live API, a bidirectional streaming endpoint meant for latency-sensitive use. It is designed to plan the next step while the current action is still running, which avoids "stop-and-think" pauses.
  • Progress classification. Each video frame is placed into one of five progress bins: 0–20%, 20–40%, 40–60%, 60–80% and 80–100%. The robot can use this to retry a failed step without restarting the whole workflow. A random guess on this task scores 20%, which is the right context for the 57.4% figure.
  • Moment-finding. The model locates the frame where a key event happens, for example when to stop pouring coffee. This is what triggers moving to the next step.
  • Success/failure detection. This now runs on raw video instead of single snapshots, so it can catch failures mid-execution such as spills, slips or misalignment.
  • Multi-robot collaboration. Different robots hand off tasks through a "shared semantic understanding." The page gives no mechanism beyond that phrase.

Evidence

  • Tool orchestration. ER 2 beats ER 1.6 in three control modes: a real VLA, a simulated VLA, and a human teleoperating the robot. The page gives no numbers.
  • Progress classification. 57.4% on the five-bin task. The page says this beats previous-generation and "competing frontier models" but names neither those models nor their scores.
  • Moment-finding. 91.3% accuracy and 0.96s mean absolute distance. The comparison to larger models is qualitative only (close performance, 4x speed).
  • Instrument reading. Tested on 10 instrument types: digital displays, linear scales, rulers and liquid thermometers, in addition to the dials and sight glasses covered previously.
  • Safety. ER 2 beats ER 1.6 and other frontier models on two benchmarks, Safety Instruction Following and Human Proximity. In a demo it stopped a humanoid robot when a person was nearby and resumed once the area was clear. The page also introduces a new benchmark for safe VLA orchestration covering constraint enforcement, environment monitoring, physical feasibility and asking a human for clarification. Details are in a separate safety technical report.

How to use it

  • Access. Public through the Gemini API and Google AI Studio. Private preview only on Gemini Enterprise Agent Platform.
  • Streaming. Use the Gemini Live API endpoint if you need streaming orchestration.
  • Example code. The Boston Dynamics Spot fetch demo, which orchestrates Spot's navigation and manipulator APIs, is on GitHub alongside other examples. The page does not give the repository URL.
  • What you supply. ER 2 does not do motor control, so you need your own VLA model or robot API to expose as tools.

Limits

  • The page gives no model size, pricing, rate limits or model ID string.
  • Competitor models are unnamed throughout. Most comparisons, including all orchestration and safety results, are given without numbers.
  • Progress classification is 57.4% on a five-way task, so it is wrong more often than it is right. Do not use it as a sole completion gate without your own validation.
  • Multi-robot collaboration is shown only as a demo with Apptronik Apollo 2 and Franka F3 Duo. There is no metric and no protocol description.
  • Enterprise deployment is private preview only.

Organisations named here

  • Google DeepMind
  • Boston Dynamics
  • Apptronik
  • Franka
  • Apollo 2
  • ERQA
  • Franka F3 Duo
  • Spot

Technologies named here

  • Gemini Robotics ER 2
  • Gemini API
  • Google AI Studio
  • Gemini Robotics ER 1.6
  • Gemini Enterprise Agent Platform
  • Gemini Robotics 2
  • Gemini Live API
  • Gemini
  • GitHub

Techniques named here

  • Progress classification
  • Moment-finding
  • Tool orchestration
  • Multi-robot collaboration