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Transportation & Mobility

Target traffic flow models, evaluate vehicle routing, and explore optimization in autonomous systems. Hybrid quantum-classical solutions are designed to map complex optimization problems, addressing classical bottlenecks in global transportation infrastructure.

BMW Group

BMW Group

BMW Group partnered with Pasqal to explore the integration of quantum computing workflows within its manufacturing and development R&D units.

Planning & Network Optimisation

Target complex transportation routing parameters to model congestion reduction and network efficiency.

  • Multi-modal Fleet Operations
  • Vehicle Routing Algorithms
  • Traffic Modeling to Avoid Congestion
  • Port and Warehouse Management for Optimal Exploitation

Energy Transition Acceleration

Targeted optimization and simulation workflows designed to model sustainable energy scenarios for the mobility sector.

  • Durable battery process modeling
  • Optimal management of electric vehicle fleet
  • Low-carbon fuel discovery and screening
  • Optimized public transportation network

Material Engineering

Simulate material properties to support the evaluation of lightweight, durable, and eco-friendly materials for advanced transportation R&D.

  • Shape optimisation for aerodynamic components
  • Simulating material aging and friction
  • Numerical modeling of material deformation
  • Airflow drag minimisation

Quantum for Transportation & Mobility

How can quantum computing optimize transportation systems?

Hybrid quantum architectures are being engineered to evaluate real-time traffic flow parameters, route planning for autonomous systems, and logistics network design. The technology aims to model the dynamic complexity of modern multi-modal transportation networks.

What mobility challenges can Pasqal’s quantum computers address?

Key applications include vehicle routing optimization, traffic signal coordination, electric vehicle charging infrastructure planning, ride-sharing fleet optimization, delivery route planning, airport operations scheduling, railway timetabling, and maritime logistics optimization.

How does quantum computing support electric vehicle adoption?

Quantum solvers are being evaluated to model EV charging station placement, simulate grid load from charging demand, and evaluate smart charging schedules. Additionally, neutral-atom QPUs target battery technology improvements through advanced materials simulation.

Can quantum computing reduce transportation emissions?

Yes, by optimizing routes to minimize fuel consumption, coordinating traffic lights to reduce idling, improving logistics efficiency to reduce empty miles, designing lighter materials for vehicles, optimizing public transit to increase ridership, and planning sustainable urban mobility infrastructure.

How does quantum computing improve autonomous vehicle systems?

Quantum architectures offer potential pathways to model real-time route planning for AV fleets, simulate complex traffic scenarios, and evaluate multi-vehicle interactions. Researchers are utilizing hybrid solvers to address complex decision-making parameters that AVs face in dynamic urban environments.