Accelerate industrial transformation with a structured framework to test, validate, and deploy collaborative robot fleets. Ensure performance, safety, and scalability across manufacturing, logistics, and warehouse operations
Simulate Real-World Industrial Environments
Validate Inter-Robot Communication & Coordination
Ensure Safety, Uptime, and Operational Efficiency
Create digital twins and real-world simulations to test multi-robot coordination, path planning, and response to dynamic factory conditions
Ensure each robot’s perception, localization, and decision-making capabilities perform optimally using real-time edge computing and sensor fusion
Adapt fleet behavior for manufacturing, logistics, and warehousing use cases, ensuring seamless integration with existing industrial platforms
Refine algorithms for autonomous navigation, task allocation, and recovery strategies—empowering robots to collaborate without human intervention
Serves as the interface for engineers and operators to configure test scenarios, visualize real-time fleet behavior, and analyze results. This layer provides dashboards to monitor robot status, simulation environments, and performance KPIs during industrial test runs
Controls the flow of testing activities by managing scenario logic, task distribution, error handling, and timing. It allows creation of modular test cases — such as load balancing, obstacle navigation, and failure recovery — tailored to specific industrial environments
Handles coordination between multiple robots, enabling collaborative task execution and communication. This layer ensures synchronization, dynamic path updates, and conflict resolution, essential for validating real-world multi-agent industrial operations
Integrates perception, planning, and control algorithms that robots use during testing. This includes computer vision models for object recognition, reinforcement learning for decision optimization, and anomaly detection to evaluate system robustness
Aggregates sensor data, logs, test results, and environmental metadata to build a comprehensive understanding of robot performance. Supports feedback loops for model refinement, benchmarking, and reporting across simulation and physical testbeds
Serves as the control center for managing task distribution, robot-to-robot communication, and collaboration protocols. Ensures synchronized operations and collision-free navigation across all units in the fleet
Create and run test cases for varied industrial conditions such as obstacle navigation, task handoffs, and downtime recovery. Validate fleet behavior in both digital twin environments and real-world pilot zones
Enables live tracking of robot location, performance metrics, sensor feedback, and task completion rates. Supports predictive maintenance and root-cause analysis using historical and streaming data.
Provides continuous visibility into robot operations with live location data, performance analytics, and sensor diagnostics
Implements safety protocols, access controls, and policy-based restrictions to ensure secure operation. Prevents unauthorized access and ensures robot actions stay within predefined industrial safety zones
Processes data from every test run to surface key performance indicators, identify system bottlenecks, and generate improvement recommendations. Powers continuous learning and optimization loops
Ensures secure robot-to-robot and system data exchange, protecting sensitive information from interception or tampering
Meets GDPR, HIPAA, and industry standards, ensuring secure, compliant, and trustworthy operations across workflows
Role-based permissions ensure only authorized users can manage and operate fleet systems securely
Logs and sensor data are stored securely, providing full auditability and ensuring operational transparency