Kinematic- and AMR-Independent Architecture
Navigation core independent of vehicle kinematics and AMR type, enabling integration across different vehicle concepts without redesign.
SIMOVE ANS+ is a laser-based navigation system for Automated Guided Vehicles (AGVs) and Autonomous Mobile Robots (AMRs). It provides route and map management on a common hardware platform across applications.
In industrial environments, ensuring reliable and accurate navigation can be challenging. SIMOVE ANS+ enables precise vehicle control through feature-based SLAM, allowing accurate localization using natural landmarks without requiring changes to the infrastructure.
Integrated into the SIMOVE Carrier Control system, it supports a standardized navigation approach. Its modular, open system design ensures flexibility for different applications. Support for up to four laser sensors can further increase navigation and obstacle avoidance robustness.
Leverage a modular, open architecture that allows flexible configuration for different applications and project needs. Connect seamlessly via VDA 5050 as part of SIMOVE.
Deploy flexibly without being locked into specific vehicle concepts, with broad support for different laser scanners and sensor configurations.
Stable, reproducible localization across diverse industrial environments using natural features, reflectors, or hybrid setups with support for GPS and external localization systems via an open pose interface.
Navigation core independent of vehicle kinematics and AMR type, enabling integration across different vehicle concepts without redesign.
Eliminate the need for floor modifications or artificial markers while benefiting from integrated real-time obstacle detection and avoidance. Commission faster, adapt dynamically to changing environments.
Create, edit and optimize maps for precise navigation control. Define and adapt routes efficiently to simplify maintenance and speed up commissioning. Highly customizable and user-friendly.
Flexible configuration of up to four laser scanners increases localization robustness, improves performance in complex geometries, and enhances operational stability.