Brain Blocks is Faraday Future's visual, block-based programming platform, part of the FF EAI Brain & Open Developer Platform. It was announced on April 27, 2026 alongside the full developer platform launch, and made more broadly available on June 16, 2026 at an event at FF's new El Segundo (California) headquarters.
What Brain Blocks is
Brain Blocks lets users build robot behaviour by composing visual blocks (in the spirit of Scratch and Google Blockly). Per Faraday Future's official statement, the platform supports a full path from Blocks to ROS 2, with one-code deployment across multiple — meaning the same block-based program can run across multiple robots in the FF EAI family (Futurist / Master Mini / Nova humanoids and the FX Navi quadruped). Brain Blocks also supports natural-language coding and robot personality customization via the platform's companion tools (Create Studio, EAI Soul, EAI Scribe, EAI Studio).
The One brain, multiple forms strategy
Brain Blocks is one of six tools in the FF EAI Open Developer Platform (alongside Create Studio, EAI Soul, EAI Scribe, EAI Studio, and SDK/API). All run on a shared EAI Brain — an architecture based on Vision-Language-Action (VLA) and a World Model. The One brain, multiple forms strategy posits that a single intelligence can be deployed across many physical robot forms. Brain Blocks democratizes the authoring of those behaviours for non-developers (students, learners, educators) and serves as a starting point for professional developers, who can later drop down to the SDK/API level.
Three-in-One EAI Robotics Education Ecosystem context
Faraday Future positions Brain Blocks as part of what it calls the world's first Three-in-One EAI Robotics Education Ecosystem Strategy, bridging robotics education, industry, and consumer applications. Combined with the Agent Skill Store, Developer Ecosystem Program, and the consumer-grade FX Navi quadruped (USD 1,990), Brain Blocks is intended as an on-ramp into robot programming for students, educators, and developers — while preserving integration with the professional ROS 2 stack.
A robotics software type covering visual block-based programming editors — conceptually similar to Scratch, MIT App Inventor, or Google Blockly — adapted for authoring behaviour, motion, and perception logic for robots. They typically compile blocks down to a target language (Python, C++, ROS 2, etc.) or generate runtime configuration. Widely used in STEM education, behaviour prototyping, and quick demos for non-developers. Often shipped alongside an SDK and runtime for advanced developers.
A Developer Tool is software designed to support the development workflow, including configuration, debugging, testing, monitoring, validation, and integration of robotic and embedded systems. Examples include IDE plugins, visual debuggers, log analysers, hardware-in-the-loop (HIL) test harnesses, and code-generation utilities specific to robotics platforms.
Functional role for robotics software aimed at STEM (Science, Technology, Engineering, Mathematics) education. It includes visual block-based programming IDEs, curricula and teaching materials, learning simulators, hardware-software ecosystems for schools, and self-learning platforms. Typically combined with educational robots (e.g. consumer-grade quadrupeds, small humanoids) and cloud platforms for sharing projects between students and teachers.
Faraday Future's open developer platform for embodied AI: six tools (Brain Blocks, Create Studio, EAI Soul, EAI Scribe, EAI Studio, SDK/API) around a shared EAI Brain.
Part of the FF EAI Open Developer Platform; intended for programming the Futurist, Master Mini, and Nova humanoids and the FX Navi quadruped (USD 1,990).
A visual programming language in which language constructs (control flow, loops, variables, function calls) are represented as drag-and-drop blocks. The most popular implementations are Google Blockly, Scratch (MIT), MIT App Inventor, and Microsoft MakeCode. In robotics, blocks are typically compiled to a target language (Python, C++, ROS 2) or generate runtime configuration, enabling a smooth transition from visual programming to textual code.