The Campus Mobility Challenge

A large research university campus may span several square kilometres, with thousands of staff, students and visitors moving between buildings, residences, sports facilities and car parks daily. Traditional campus transport relies on diesel minibuses, vans and utility vehicles — generating emissions, noise and congestion in a pedestrian-priority environment. Universities face increasing pressure from students, staff and sustainability commitments to decarbonise campus operations.

Operational Scenario: Large Research University

Consider a large research university with 30,000 students and 5,000 staff across a 3 km² campus. The campus transport fleet includes:

• 6 campus shuttle buses (inter-building, car park connections): 80–120 km/day
• 4 mail and parcel delivery vehicles: 40–60 km/day
• 8 facilities management vehicles (maintenance, grounds): 30–60 km/day
• 3 security patrol vehicles: 60–80 km/day
• 2 executive and visitor transfer vehicles: 50–80 km/day

Autonomous Delivery Integration

The university deploys autonomous delivery vehicles (ADVs) for mail and parcel delivery between buildings. ADVs operate on defined campus routes, delivering packages from a central mail hub to building reception points. The ADV programme replaces 3 of the 4 mail delivery vehicles, reducing staffing costs and eliminating emissions from the delivery function. Human operators supervise the ADV fleet remotely from a central operations centre.

Charging Infrastructure

The university installs 25 AC charging points (7–22 kW) across three depot locations — the main transport hub, the facilities management yard and the security operations centre. Solar panels on the transport hub roof provide approximately 30% of charging energy from renewable generation. A smart charging system schedules charging to maximise solar self-consumption and minimise grid import costs.

Student and Staff Engagement

The campus EV programme becomes a living laboratory for the university's engineering, transport planning and sustainability departments. Students conduct research on fleet performance, energy management and autonomous systems. The programme is featured in the university's sustainability reporting and used in student recruitment communications. Staff and student satisfaction with campus transport improves measurably — quieter, cleaner vehicles are preferred.

Operational Results (Projected)

Based on typical campus fleet electrification outcomes:

• Energy cost saving: 70% reduction in fuel costs across electrified fleet
• Maintenance saving: 40% reduction in maintenance costs over 5 years
• CO₂ reduction: 90% reduction in direct fleet emissions
• ADV delivery: 60% reduction in mail delivery operating costs
• Noise reduction: significant improvement in campus acoustic environment
• Payback period: 3–4 years for shuttle buses; 2–3 years for ADV programme

Replicability for Other Campus Environments

The university campus model is directly applicable to other campus environments: hospitals, business parks, industrial estates, resort complexes and government campuses. Any environment with controlled access, predictable routes and depot-based operations is well-suited to fleet electrification and autonomous delivery. The key enablers are: a central charging depot, a defined route network and a commitment to operational change management.