Reviving the Legend: Tamiya's TT-01D Honda Civic SiR EG6
The Tamiya 92193 - 1/10 RC TT01D Honda Civic SiR EG6 is a tribute to one of the most iconic compact cars of the 1990s. This RC model brings the spirit of the Honda Civic SiR EG6 to life, featuring a meticulously crafted polycarbonate body that captures every curve and detail of the original. Built on the TT-01D chassis, this kit is designed for hobbyists who appreciate precision and performance in their RC models.
Drift-Ready Chassis for Enthusiasts
The TT-01D chassis is renowned for its user-friendly assembly and robust design, making it an ideal choice for both beginners and seasoned RC enthusiasts. It features a 4WD shaft-driven bathtub chassis, ensuring stability and control during high-speed maneuvers. The independent double wishbone suspension, combined with coil spring damped shocks, provides exceptional handling on various surfaces.
Enhanced Performance with Drift-Spec Modifications
This model isn't just about looks; it's engineered for performance. Drift-spec modifications include special suspension tuning and full ball bearings for smoother operation. The RS-540 sport-tuned motor offers a powerful drive, while the aluminum heat sink ensures optimal cooling. CVA super mini shock dampers and short springs enhance the car's agility, allowing for precise and responsive drifting.
Customization Opportunities Galore
For those who love to tweak and personalize their RC cars, the TT-01D offers a wide range of tune-up parts available separately. Whether you want to enhance speed, improve handling, or simply change the aesthetic, there are plenty of options to make this model uniquely yours.
Specifications
- Scale: 1/10
- Chassis Type: TT-01D
- Drive: 4WD Shaft Driven
- Motor: RS-540 Sport Tuned
- Body Material: Polycarbonate
- Tires: Super Driftech
The Tamiya 92193 Honda Civic SiR EG6 is perfect for RC enthusiasts who value both style and performance. It's a great fit for hobbyists looking to explore the world of RC drifting or those who enjoy customizing their models for optimal performance.