Power, precision, performance

Volvo's Next Generation articulated haulers continue the legacy of high-level performance and durability in demanding applications.

- 

For decades, Volvo Construction Equipment has been known for its articulated hauling performance. From pioneering the first articulated hauler in 1966 to delivering the largest capacity model on the market today, Volvo's name has become synonymous with power, efficiency and durability. Now, Volvo's Next Generation articulated haulers — the A25, 30, 35, 40, 45, 50 and 60 — are redefining productivity and safety for Australia's most demanding industries. From quarrying and civil construction to large-scale mining operations, these haulers bring together smarter design, technology and operator-focused comfort. For Australian businesses that depend on long-lasting machines and reliable support, the new lineup represents a leap forward in how loads are transported, tracked and managed.

Re-engineering strength and operator comfort

Every detail inside and out of the new hauler range emphasises endurance and ease of use. Volvo has re-engineered its chassis and suspension to reduce vibration, simplify servicing and extend durability under even the harshest site conditions.

The operator cab has also seen upgrades. Improved visibility through larger window designs, a more ergonomic control layout and reduced cabin noise all contribute to a smoother, less fatiguing experience.

The air-suspended seat and climate control support operators through long shifts, while intuitive controls and the digital display place vital machine data at their fingertips. Combined, these refinements transform daily operation — simplifying tasks, improving confidence and supporting sustained productivity throughout the workday.

Performance gains

Volvo's Next Generation Haulers deliver improvements in drivetrain efficiency, traction performance and payload capacity. Each model builds upon the brand's decades of engineering excellence, balancing torque, speed and stability for different site conditions.