Used Taikan T-V1165H VMC - Mitsubishi M80A High-Performance Analysis
| Specifications | Details |
| Stock Number | 810413 |
| Brand | Taikan |
| Model | T-V1165H |
| Origin | Taiwan, China |
| CNC Control System | Mitsubishi M80A |
| Table Size | 1200 * 600mm |
| Travel (X/Y/Z) | 1100 * 650 * 580mm |
| Spindle Speed | 12000rpm |
| Spindle Nose to Table | 140-720mm |
| Guide Ways | 3-Axis Linear Rails |
| Usage Hours | Approx. 3000 Hours |
1. Equipment Overview: A Paradigm of Precision and Speed
In the competitive landscape of industrial manufacturing, the Taikan T-V1165H stands out as a flagship vertical machining center (VMC) engineered for the modern shop floor. This specific unit, sourced from Taiwan, China, is renowned for its exceptional balance between high-speed dynamics and structural rigidity. Designed to meet the stringent requirements of the aerospace, automotive, and high-precision mold industries, the T-V1165H offers a robust platform for both intricate finishing and substantial material removal. Equipped with the advanced Mitsubishi M80A control system, it provides a seamless interface between digital design and physical realization. With only 3000 operating hours recorded, this machine is practically in its prime, offering the reliability of a new asset with the economic advantages of the secondary market.
2. Detailed Technical Specifications: Engineering Excellence
The Taikan T-V1165H is built upon a high-quality cast iron base that has undergone rigorous stress-relieving processes to ensure long-term thermal stability and vibration dampening. Below, we delve into the core hardware components that define its superior performance.
Advanced Mitsubishi M80A Control System
The heart of this VMC is the Mitsubishi M80A CNC system. Known for its "Seamless Micro-segment Processing," this controller excels in handling complex 3D surface machining. It features a high-speed PLC and a user-friendly touch interface that simplifies setup and monitoring. The M80A’s advanced look-ahead capabilities allow for smoother accelerations and decelerations, reducing mechanical wear and significantly improving surface finish quality compared to standard controllers.
Kinematics and Spindle Performance
With a 12000rpm direct-drive spindle, this machine is optimized for high-speed milling. The direct-drive configuration eliminates the vibration and noise associated with belts, ensuring maximum power transmission and thermal stability. The X/Y/Z travels of 1100 * 650 * 580mm provide an expansive work envelope, allowing for the processing of large components or the use of multiple fixtures on the 1200 * 600mm table. The 3-axis linear guide ways utilize high-precision roller bearings, offering low friction for rapid movement (high rapid traverse rates) while maintaining the necessary stiffness for precision tolerances.
3. Application Case Studies: Versatility in Action
The Taikan T-V1165H has proven its worth across diverse manufacturing sectors. In the Automotive Industry, it is frequently used for machining aluminum alloy engine components and transmission housings where repeatability is paramount. In the Die and Mold Sector, the 12000rpm spindle allows for the use of small-diameter cutters for fine detailing in injection molds, achieving mirror-like finishes that minimize manual polishing. Furthermore, in the Electronics and IT Industry, the machine’s agility makes it ideal for high-volume production of 5G base station heat sinks and laptop chassis frames, where the large table allows for high-density nesting of parts to maximize throughput.
4. Maintenance History and Condition Report
Machine longevity is directly proportional to its maintenance history. This T-V1165H (Stock No. 810413) has been meticulously cared for by its previous operator. With only 3000 hours of use, it has barely finished its initial "break-in" period. Our technical inspection confirms that the spindle runout is well within factory specifications, and the linear rails show zero signs of pitting or uneven wear. The automatic lubrication system has been consistently serviced, and the coolant tank is free of contamination. The internal electrical cabinet is exceptionally clean, with no signs of overheating or makeshift repairs. This machine represents a "low-risk" acquisition for any facility looking for immediate operational capacity.
5. Cost-Effectiveness and Investment Value
Investing in a used Taikan T-V1165H is a strategic financial move. New VMCs of this caliber often come with long lead times and high capital expenditure requirements. By choosing a low-hour used model, companies can achieve a much faster Return on Investment (ROI). The depreciation on a 3000-hour machine is significantly lower than a brand-new one, while the productive output remains nearly identical. For job shops facing tight margins or larger corporations looking to scale up quickly, this machine offers the perfect blend of Taiwan-engineered quality and second-hand value.
6. FAQ: Frequently Asked Questions
Q1: How does the Mitsubishi M80A compare to FANUC systems?
Mitsubishi M80A is often preferred for mold making due to its superior processing of high-density G-code points and smoother interpolation. It also tends to have a more modern hardware architecture with faster data processing speeds than entry-level FANUC models.
Q2: Are linear rails suitable for heavy-duty cutting?
Yes, modern roller-type linear rails used in the T-V1165H offer high load-bearing capacity. While box ways are traditionally used for massive roughing, these roller rails provide enough rigidity for 90% of industrial applications while offering much higher speed and precision.
Q3: What is the significance of the 3000-hour usage?
In the world of CNC, 3000 hours is very low—equivalent to about 1.5 years of single-shift operation. The machine is essentially "like new" but at a significant discount.
Q4: Can this machine be integrated into an automated cell?
Absolutely. The Mitsubishi M80A supports various I/O communications and Ethernet protocols, making it compatible with robotic loading arms and centralized factory monitoring systems.
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