Novastar MX6000 Pro | Contrôleur LED Modulaire 8K+ | Capacité Colossale 141 Millions de Pixels

The Novastar MX6000 Pro stands as the flagship LED video controller designed for the most ambitious large-scale visual displays. As a modular 8K+ processor, it boasts a staggering loading capacity of up to 141 million pixels, making it the definitive choice for driving massive LED walls where resolution and scale cannot be compromised. Engineered with the advanced COEX Series processing system, it ensures impeccable color fidelity and high-bit-depth precision across every square meter of your display.

This 6U rack-mountable powerhouse offers unmatched flexibility through its hot-swappable modular design. Whether you are managing complex pixel mapping for curved screens or synchronizing massive flat panels, the MX6000 Pro provides the bandwidth and processing power required for 8K@60Hz workflows. With support for up to 7 layers and 10 windows, it functions as both a high-end switcher and a powerful sending card, streamlining your signal chain while maintaining ultra-low latency for real-time broadcast and live event environments.

Engineering Excellence: COEX Series & Modular Architecture

At the heart of the MX6000 Pro is Novastar's cutting-edge COEX control system. Unlike standard controllers, this unit focuses on maintaining the integrity of high-dynamic-range (HDR) content and deep color processing. For professional LED integration, this translates to superior grayscale performance at low brightness levels and a significant reduction in visual artifacts. The modular design allows for 12G-SDI, HDMI 2.1, and DisplayPort 1.4 inputs, ensuring compatibility with the latest video standards.

Reliability for Mission-Critical Displays

Reliability is paramount in high-stakes environments. The MX6000 Pro features fully redundant power supplies and card-level redundancy. If a primary signal path or power module fails, the backup system engages instantaneously to prevent blackouts. Furthermore, its advanced thermal management ensures stable operation even when driving millions of SMD or GOB pixels at high refresh rates. By utilizing 10G optical fiber outputs, the controller minimizes signal attenuation over long distances, preserving the high contrast ratio and vivid viewing angles of premium LED modules.

Versatile Deployment Scenarios

The Novastar MX6000 Pro is engineered for environments where failure is not an option and visual impact is everything:

• Grand-Scale Stadiums: Driving massive scoreboard and perimeter LED displays with high-speed content delivery and synchronized playback.
• Flagship Retail & Digital Out-of-Home (DOOH): Managing ultra-high-resolution 8K screens in luxury shopping malls or iconic city landmarks like Times Square.
• Command & Control Centers: Visualizing mission-critical data across vast video walls with multi-windowing capabilities and 24/7 operational stability.
• Broadcast & Virtual Production: Providing the low latency and high color depth required for xR stages and television studios using GOB or fine-pitch SMD technology.
• Large-Scale Concerts & Touring: Modular I/O allows for rapid reconfiguration between different tour stops and varying screen configurations.

Technical Maintenance and Integration Tips

• Fiber Optic Strategy: Given the 141 million pixel capacity, we recommend using 10G SFP modules and high-quality OM3/OM4 fiber cables to maintain signal stability across large venues.
• Genlock Synchronization: For broadcast studios or xR stages, always utilize the Genlock input to synchronize the refresh rate of the LED wall with the camera shutters, eliminating scan lines and flicker.
• Optimal Pixel Mapping: Use the V-Can management software to configure the 10 windows and 7 layers. Ensure that your mapping does not exceed the bandwidth of individual output cards to maintain a smooth 60Hz frame rate.
• Power Sag Protection: While the MX6000 Pro has redundant PSUs, always connect the unit to an online UPS (Uninterruptible Power Supply) to protect the sensitive modular internal circuitry from voltage spikes.