Prusa Pro HT90 High-Temperature Industrial 3D Printer

The Prusa Pro HT90 is a professional high-temperature CoreXY 3D printer engineered for demanding industrial applications. Designed for precision, speed, and advanced material compatibility, it delivers reliable performance for engineering, manufacturing, and production environments.

Key Features

• High-temperature printing up to 500°C for advanced engineering materials
• Fully enclosed heated chamber (up to 90°C) for improved part strength and stability
• CoreXY motion system for high-speed, precise printing
• Maximum speeds up to 600 mm/s with 20,000 mm/s² acceleration
• Swappable direct-drive print heads with Revo nozzle compatibility
• Automatic calibration with loadcell sensor for consistent first layers

High-Temperature Performance for Engineering Materials

The HT90 is built to handle high-performance polymers, including PEEK, PEI (Ultem), and other industrial-grade materials. With a maximum nozzle temperature of up to 500°C and a heated chamber reaching up to 90°C, it ensures strong layer adhesion and reduced warping for functional parts.

Speed and Precision with CoreXY Motion

Powered by a CoreXY motion system and advanced firmware features such as Input Shaper and Pressure Advance, the HT90 delivers fast, accurate, and stable printing. This enables efficient production without sacrificing quality.

Advanced Control and Monitoring

The printer features a 32-bit Duet control board running Klipper, with connectivity via Ethernet and Wi-Fi. A built-in camera and chamber lighting allow for real-time monitoring of prints.

Flexible Material Compatibility

The HT90 supports a wide range of materials, from standard filaments to high-temperature engineering plastics and fibre-filled composites. This makes it suitable for both prototyping and end-use part production.

Reliable and Automated Workflow

With fully automatic calibration using a loadcell sensor and advanced cooling systems, the HT90 ensures consistent results across prints. Its design minimises user intervention while maximising uptime.