Cursor for Robotics:
10x Faster Development
Build, test, and deploy robotic applications with AI-powered code generation and our unified Model Context Protocol for seamless hardware integration.
KEY FEATURES
AI-Powered Code Generation
Generate robot-specific code with context-aware AI that understands robotics concepts, hardware integration, and best practices.
- »Specialized robotics libraries
- »Intelligent code completion
- »Automatic error detection
- »Hardware-specific optimizations
Model Context Protocol
Our unified communication framework provides a standardized way for different robotics systems to seamlessly communicate and share data.
- »Universal hardware compatibility
- »Sensor data integration
- »Real-time state synchronization
- »Cross-platform support
Integrated Simulation
Test robot behaviors in physics-accurate virtual environments before deploying to physical hardware, significantly reducing development time.
- »Physics-based simulation
- »Hardware-in-the-loop testing
- »Scenario generation
- »Performance analytics
Sensor Fusion Pipeline
Seamlessly integrate and synchronize data from multiple sensors including cameras, LIDAR, force/torque, and more.
- »Multi-modal data integration
- »Temporal synchronization
- »Distributed processing
- »Configurable filtering
Fleet Management
Monitor and manage your entire robot fleet from a unified dashboard with real-time performance analytics and remote control.
- »Multi-robot coordination
- »Remote deployment
- »Health monitoring
- »Task allocation
Data-Driven Development
Leverage collected operational data to continuously improve robot performance and optimize behaviors over time.
- »Telemetry collection
- »Performance optimization
- »Anomaly detection
- »Continuous learning
DEVELOPMENT WORKFLOW
Define Your Robot
Specify your robot's configuration, including hardware components, sensors, actuators, and kinematic properties. Our system automatically generates the base code structure.
const robot = new Robot({ name: 'factory-arm-1', type: 'manipulator', dof: 6, controllers: ['position', 'force', 'velocity'] });
Integrate Sensors & Actuators
Connect your hardware components through our Model Context Protocol, which provides a unified interface for all robot types and sensors.
robot.registerSensors(new SensorArray([ { type: 'camera', id: 'main-cam', format: 'h264' }, { type: 'lidar', id: 'perception', rate: 30 } ]));
Develop with AI Assistance
Write code with intelligent suggestions tailored to your specific robot configuration. Our AI understands robotics concepts and best practices.
// Cursor AI suggests optimal parameters based on // your robot's capabilities and task requirements async function pickObject(targetPos: Position): Promise<void> { await robot.moveTo(targetPos, { speed: 0.5, trajectory: 'smooth', collisionAvoidance: true });
Test in Simulation
Validate your application in our physics-accurate simulation environment before deploying to hardware, significantly reducing development time and risk.
// Run simulation with physics engine await simulation.run({ environment: 'factory', duration: '5min', obstacles: true, recordMetrics: true });
Deploy & Monitor
Deploy your application to real hardware with one click and monitor performance through our comprehensive dashboard.
// Deploy to physical robot const deployStatus = await robot.deploy(); // Monitor real-time performance dashboard.monitor(robot, { metrics: ['position', 'force', 'power'], alerts: true });
Development Efficiency
90% Less Code — Generate robot-specific code with AI assistance and pre-built components
Hardware Abstraction — Develop once and deploy to multiple robot platforms seamlessly
Rapid Iteration — Test changes in simulation before deploying to physical hardware
Learning Curve Reduction
Average time for a developer to become productive with robotics development frameworks
HARDWARE INTEGRATION
Model Context Protocol for Robotics
VISCA's Model Context Protocol (MCP) adapts advanced contextual AI principles to create a standardized communication layer that enables seamless integration across diverse robotics platforms, sensors, and control systems.
Universal Robot Compatibility
Integrate with robots from all major manufacturers including Universal Robots, KUKA, ABB, Fanuc, and Boston Dynamics.
Sensor Fusion
Connect cameras, LiDAR, force/torque sensors, and more with automatic temporal alignment and synchronized data streams.
Cross-Platform Support
Deploy your applications across Linux, Windows, and ROS-based systems with consistent behavior.
Real-time Communication
Ultra-low latency communication with deterministic timing guarantees for critical control applications.
Supported Hardware
Industrial Robots
- »Universal Robots
- »KUKA
- »ABB
- »Fanuc
- »Yaskawa
Mobile Platforms
- »Clearpath
- »Boston Dynamics
- »TurtleBot
- »MiR
- »Kiwibot
Sensors
- »Intel RealSense
- »Velodyne LiDAR
- »ATI F/T
- »SICK
- »ZED Stereo
Controllers
- »ROS/ROS2
- »PLC Systems
- »NVIDIA Jetson
- »Arduino
- »Raspberry Pi
PLATFORM PREVIEW
JOIN THE WAITLIST
Early Access Benefits
Priority Access — Be among the first to use our revolutionary robotics development platform
Direct Support — Work directly with our engineering team to optimize for your use case
Preferential Pricing — Early adopters receive significant discounts on commercial licenses
Feature Input — Shape the platform's development through direct feedback to our team
Limited Beta Access
Our robotics IDE is currently in limited private beta. Waitlisted users will be invited in batches as we scale our infrastructure.
Frequently Asked Questions
We're planning a phased rollout starting in late 2025. Waitlist members will be given early access in batches, with priority given to complementary use cases and early applicants.
While prior robotics experience is helpful, one of our goals is to make robotics development more accessible. Our platform can accommodate users from beginner to expert, with tailored assistance for each skill level.
Our IDE is designed to work with a wide range of hardware. Our Model Context Protocol provides standardized interfaces for many common robot types, sensors, and controllers. If you have specific hardware requirements, please mention them in your waitlist application.