Source: https://broxme.com/technology

Broxme Technology 

# Software that brings robotics together.

Robotics connects software, sensing, control, and physical systems. We’re building development tools that make those connections easier to understand and test.

Explore Studio’s engineering foundation, run a browser demo, or read the questions guiding our embodied AI research.

[Explore Broxme Studio](https://broxme.com/studio) [Read the engineering guide](https://broxme.com/robotics-development-guide)

Development and simulation 

## Go from a robot project to an observable run.

Start with a robot model, give it instructions, and inspect what happens in a virtual environment.

### Robotics development

Studio’s engineering build supports visual blocks and subsets of Python and C++. Shared robot instructions let the runtime execute behavior across these programming workflows.

[Discover Studio](https://broxme.com/studio)

### Simulation and testing

The engineering runtime advances in fixed steps and can capture a run for replay. The public Robotics Lab is a scripted introduction to barrier response.

[Try the Robotics Lab](https://broxme.com/#robotics-lab)

### Hardware interoperability

Experimental interfaces cover bounded URDF and SDF interchange, firmware generation, and an optional ROS 2 bridge. Supported hardware combinations await physical validation.

[Read integration boundaries](https://broxme.com/robotics-development-guide#compatibility)

Engineering and research 

## Build reusable tools and test specific behaviors.

Studio’s internal components inform Broxme Core and the Robotics SDK. Indoor navigation gives our research a concrete scenario for software and future hardware trials.

### Broxme Core

Shared project and execution components are used in the Studio engineering build. Public interfaces are in development.

[Explore Broxme Core](https://broxme.com/core)

### Broxme Robotics SDK

The planned SDK draws on internal extension contracts. Versioned public APIs and integration examples are in development.

[Explore the Robotics SDK](https://broxme.com/robotics-sdk)

### Embodied AI research

We’re exploring perception, navigation, and robot learning. Controlled simulation tests establish a starting point for future physical trials.

[See the research and tests](https://broxme.com/research)

Robotics AI 

## From a task instruction to robot motion.

A robot must interpret a goal, choose a feasible action, and execute it through a controller. Each layer has its own failure modes, from misidentifying an object to missing a command deadline.

### Spatial reasoning and planning

A planner can use images and language to identify objects, infer their spatial relationships, and propose a sequence of actions. Gemini Robotics ER 2 illustrates this separation by handing low-level movement execution to a robot policy.

[Explore Gemini Robotics ER 2](https://deepmind.google/models/gemini-robotics/embodied-reasoning/)

### Vision-language-action policies

A vision-language-action policy maps sensor observations and task instructions to actions for a specific robot. In November 2026, Google DeepMind reported evaluating Gemini Robotics 2.5 across more than 200 tasks. The report describes a partner rollout and a factory proof of concept.

[Read the Gemini Robotics 2.5 announcement](https://deepmind.google/blog/gemini-robotics-2-5-accelerates-real-world-physical-intelligence/)

### Evaluate complete tasks

A sequence can fail after several successful actions. Stanford’s BEHAVIOR-1K benchmark uses simulated household activities to test long-horizon mobile manipulation. A separate set of physical trials can then assess the effects of sensing noise, contact, and timing on a specific robot.

[Explore the BEHAVIOR benchmark](https://behavior.stanford.edu/)

[See Broxme’s research methods](https://broxme.com/research)

## Follow a robot program through simulation.

See how programs become robot instructions, what a replay captures, and how to reproduce the browser example.

[Read the engineering guide](https://broxme.com/robotics-development-guide)