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TRANSFORMING AGRICULTURE: VKTOR'S AUTONOMOUS FARMING

TRANSFORMING AGRICULTURE: VKTOR'S AUTONOMOUS FARMING - TheArsenale

The VKTOR autonomous farming vehicle is a concept developed by Italian industrial designer Alessandro Pennese that imagines how battery-electric autonomy could transform agricultural logistics. Designed to manage crop transport and field organisation without human intervention, VKTOR uses caterpillar tracks, modular coupling, and a suite of sensors to navigate farm terrain safely and efficiently, reducing both labour costs and environmental impact compared to conventional tractor-based approaches.

 

What Problem Does VKTOR Solve?

Modern agriculture faces a dual challenge: the need to scale output while reducing inputs, both in terms of labour and environmental footprint. Conventional wheeled tractors compact soil under their weight, disrupting root systems and requiring increasing chemical inputs to maintain productivity on damaged land. VKTOR addresses this directly by using caterpillar tracks, similar in principle to a military tank, to distribute weight across a larger surface area. This reduces ground pressure, avoids compaction on deformable or poorly consolidated soils, and improves traction on steep or muddy terrain where wheeled vehicles lose grip.

VKTOR autonomous electric farming vehicle by Alessandro Pennese on agricultural terrain

Design, Modularity and Technical Specifications

At the heart of VKTOR is a single central track driven by a wheel motor, enabling straightforward maintenance and energy-efficient propulsion. The body panels are manufactured using Sheet Moulding Compound (SMC) technology, a thermosetting material reinforced with glass fibres, offering durability while remaining lighter than steel alternatives. Power comes from a 12 kWh battery pack spanning 1,200 mm in length, sufficient for extended field operation between charges.

The vehicle is designed around modularity: VKTOR can operate as a standalone unit or couple with additional modules to carry heavier machinery or increase carrying capacity. Four proximity sensors around the body perimeter, combined with a front-mounted LiDAR sensor, give VKTOR a full perception picture of its environment, enabling obstacle avoidance and safe autonomous navigation even in dynamic field conditions where other workers or machinery may be present.

VKTOR caterpillar track detail and modular coupling system

Sustainability and the Future of Autonomous Farming

VKTOR is fully electric, producing zero direct emissions during field operation. Combined with precision autonomous navigation, it has the potential to reduce fertiliser and pesticide use by enabling more targeted, data-driven application, rather than the blanket treatment that conventional field machinery requires. The concept fits within a broader trend of precision agriculture, where autonomous electric vehicles, drones, and connected sensors work together to maximise yield per hectare while minimising total resource consumption.

VKTOR autonomous farming vehicle showing LiDAR sensor array and electric drivetrain

The autonomous and electric design principles behind VKTOR connect to a wider movement in mobility design. Explore other autonomous and electric vehicles at TheArsenale in the Tech collection, including the Robocar autonomous electric race car and the EHang AAV autonomous passenger drone. For the full electric mobility range, see TheArsenale Electric.

Sources: Designboom - VKTOR autonomous farming vehicle | Alessandro Pennese - VKTOR project on Behance

Photo: Alessandro Pennese