PUMA TT Series: 
Dual-Turret, Multi-Axis Turning Centers

The PUMA TT Series features dual-turret technology for simultaneous machining, maximizing productivity with high-speed multi-axis turning solutions. 

  • PUMA TT1800SY: Dual-spindle, dual-turret machine for increased throughput in high-volume production environments. 
  • PUMA TT2100SYYB: Enhanced with additional milling and turning capabilities for more demanding applications.

Additional Features and Benefits 

  • Dual-Turret Design for Simultaneous Machining: Increases efficiency and reduces cycle times.
  • Advanced Control Systems: Offer precise synchronization between spindles and turrets for seamless operation.
  • Optimized for High-Volume Production: Ideal for automotive and other industries demanding rapid part turnover.

High-Speed Twin-Spindle Turning for High-Volume Production

The PUMA TT1300SYY is a high-speed, high-precision twin-spindle turning center designed for fast cycle times and simultaneous machining. Featuring upper and lower Y-axis turrets and independent spindles, this compact powerhouse enables balanced cutting, reduced handling, and increased throughput. It’s the ideal solution for automotive, medical, and general part manufacturers looking to maximize productivity without compromising accuracy.

Dual Turret, Dual Y-Axis, and Full Simultaneous Machining

With upper and lower Y-axis turrets and two integral spindles, the PUMA TT1300SYY delivers true simultaneous machining. Each turret can operate on either spindle, enabling mirror cutting, balanced roughing, or simultaneous OD/ID operations. This configuration dramatically shortens cycle times and reduces the need for secondary operations.

  • Twin 6" chuck main and sub spindles

  • Max turning diameter: 7.87"

  • Max turning length: 20.1"

  • Y-axis travel: ±2.04" on both turrets

  • Max spindle speed: 6,000 rpm

  • Tool capacity: 24 (12 upper, 12 lower)

Rigid Construction with Thermal Control Systems

The PUMA TT1300SYY is built with a rigid, one-piece slanted bed structure that ensures vibration damping and high accuracy even during heavy-duty cutting. Each axis uses roller-type LM guideways, supported by high-thrust servos and thermal compensation systems to minimize thermal drift over long production cycles. Ball screw cooling and real-time axis monitoring help maintain precision even during high-speed simultaneous operations.

Smart Automation and Tool Management Ready

Designed for full production environments, the TT1300SYY comes probe-ready and built to support automation:

  • Tool Load Monitoring (TLM): Detects worn, missing, or broken tools

  • Automatic Tool Presetter: Standard for fast tool setup and compensation

  • Sub-Spindle with C-Axis: Supports part transfer and complex machining

  • Servo-Driven Turrets: 0.2-second indexing, 5,000 rpm live tooling

  • Coolant Through Spindle & Turrets: Enhances chip control and tool life

The machine’s Fanuc iHMI control system provides intuitive touchscreen operation with real-time process visualization and diagnostics.

FAQ Section

How does the twin-spindle design improve throughput?

The twin-spindle configuration allows machining of both ends of a part without removing it from the machine. The sub-spindle automatically receives the part from the main spindle, enabling complete machining in a single setup. This eliminates manual handling, reduces cycle time, and improves part consistency. It's especially effective for symmetrical or high-volume components, allowing simultaneous front and back-end operations or staged finishing passes.

What kind of live tooling does this machine support, and at what rpm?

The PUMA TT1300SYY supports live tooling on both turrets, each capable of reaching up to 5,000 rpm. This allows for milling, drilling, and tapping operations without secondary setups. Live tools are driven by high-torque servo motors and are controlled through C-axis indexing on both the main and sub spindles. This multi-function capability drastically shortens production times by consolidating multiple processes into one machine cycle.

How does the machine minimize thermal expansion for tight tolerance parts?

The machine is equipped with multiple thermal control systems, including spindle oil chillers, ball screw cooling, and real-time thermal compensation through the CNC control. These systems actively stabilize the machine’s temperature, reducing the effect of thermal drift during long cycles. The rigid slant-bed casting and LM roller guides also help dissipate heat and vibration, maintaining sub-micron repeatability even under high-speed conditions.

Can this machine replace multiple legacy turning centers?

Yes. The PUMA TT1300SYY is designed to consolidate operations that would traditionally require two or more machines. With twin spindles, dual Y-axis turrets, and live tooling, it performs roughing, finishing, milling, drilling, and back-end turning all in one setup. This not only saves floor space but also reduces handling errors, tool changeovers, and production bottlenecks—making it a smart replacement for aging multi-machine cells.

How does the machine handle high-mix, low-volume production?

The PUMA TT1300SYY excels in high-mix environments thanks to fast tool change times, flexible turret configurations, and dual-path programming capabilities. The Fanuc iHMI control allows intuitive management of complex setups, while probing systems automate offsets and alignments. Quick-change tooling and balanced cycle times across both spindles/turrets allow you to switch between part numbers with minimal downtime, maintaining profitability in short-run batches.

Can I use remote monitoring or IoT platforms with this machine?

Yes, the machine’s Fanuc iHMI control is compatible with several Industry 4.0-ready platforms, including MTConnect and FANUC’s own FIELD system. These allow for real-time machine data tracking, predictive maintenance, and performance monitoring across a shop floor network. With Ethernet connectivity and optional software modules, you can integrate the TT1300SYY into smart factory systems for enhanced visibility and decision-making.

What are some best practices for programming mirror operations on this machine?

When programming mirror operations, it’s essential to align tool paths and spindle synchronization accurately. Use dual-path control to program each turret independently while leveraging G-code subprograms for mirrored sequences. Ensure your tooling is balanced between turrets and spindle handoffs are timed with spindle orientation codes. Simulation software or digital twins can help validate these setups before physical runs, reducing crash risk and setup errors.