News VisionNav Robotics Launches Autonomous Precision Stacking System for Cages up to 8.8-Feet in Width, Reaching Heights up to 22 Feet VisionNav Robotics Launches Industry's First Autonomous Precision Stacking System for Cages up to 8.8-Feet in Width, Reaching Heights up to 22 Feet. VisionNav Robotics, a global supplier of autonomous industrial vehicles and logistics automation solutions, has introduced an autonomous stacking system engineered specifically for large container environments where accuracy, stability and safety are paramount. Introduced at Modex 2026, the company's VNE40-66 Autonomous Precision Stacking Solution can stack 8.8-foot-wide cages weighing up to 6,150 pounds at heights of up to 22 feet – the market's first such solution to achieve such robust capabilities. To achieve this level of performance with total stability and accuracy, the unit utilizes VisionNav's proprietary sensor fusion technology that provides millimeter-level precision compatible with various post types, ensuring each placement is exact despite differing container sizes or environmental conditions. Reliable and robust, the system carries a rated payload of 6,150 pounds, making it suitable for the exceptionally heavy, wide containers common in automotive and other heavy-duty settings. Among the VNE40-66's most attractive features is its Smart Retry Functionality, which continuously monitors for misalignments and anomalies in real time; if misaligned containers, incorrect position posts or other adverse issues are identified, the system aborts and retries without requiring operator input. This dramatically reduces downtime, minimizes risk of product damage, and supports fully autonomous operation in high-throughput environments where human intervention would create untenable bottlenecks. Technology-Driven Safety Features The VNE40-66 Autonomous Precision Stacking Solution's safety capabilities are as sophisticated as its stacking precision. This intelligent, context-aware safety envelope ensures that the system responds appropriately to real operating conditions rather than relying on static safety margins. For example, during straight-line travel, a dynamic brake zone scales to the size