AI in de logistiek

Real-world constraints include capacity, traffic, weather, safety, labor, and changing service commitments. An optimized score is useful only when the delivered operation improves.

Key takeaways

• State physical, legal, and service constraints.
• Evaluate later and unusual conditions.
• Design reliable event handling and manual fallback.

Define the route, time horizon, and constraints. A plan that minimizes distance may violate delivery windows, vehicle capacity, driver hours, or accessibility requirements. Keep hard safety and legal rules outside any learned objective that might trade them away. Evaluate on later periods and unusual conditions. Demand spikes, road closures, new depots, and missing scans can expose failures hidden by historical averages. Compare with a simple baseline and report service level, lateness, fuel, and workload. Separate estimates from commitments. An arrival prediction should communicate uncertainty and update when conditions change; it should not promise a time the system cannot support. Verify package identity and destination before an action changes a shipment record. Monitor sensors, scans, integrations, and human overrides. Design safe retries for duplicate events and preserve a manual dispatch path when the model or network is unavailable.

1. Imagine an optimizer finding a short route that exceeds a vehicle’s capacity and a driver-hour limit.
2. Apply the hard constraints before selecting the route and show the reason for any infeasible option.
3. Evaluate the feasible plan on actual delivery outcomes rather than distance alone.

The constructed example separates mathematical optimization from a valid logistics plan.