During the workshop we work with use cases that will be recognisable within the construction logistics chain. We do not present them as ready-made success stories — for some we are explicitly cautious — but as concrete situations to which we apply legal, technical and organisational analysis. That is more instructive than an abstract conversation about "AI capabilities": participants discover for themselves where the dividing line lies between a useful assistant and a high-risk system, and where the database issue must be resolved first.
A first classic is route optimisation to construction sites. AI helps plan transport rounds from a hub to multiple construction sites, taking into account ZE zones, time windows, access restrictions, vehicle type requirements and driver availability. Technically this is feasible: it builds on classic routing algorithms with an AI layer for exception and demand patterns. But the art lies in the integration — what the planner sees, what the driver sees, and who bears final responsibility when an AI route gets something wrong.
A second is inventory forecasting for the construction hub. AI predicts, based on BIM 4D scheduling, open orders and historical deliveries, what a hub will need in the coming weeks in terms of space, vehicle capacity and manpower. The legal bar here is low, but the data bar is high: without a tight integration between BIM, ERP and the hub's WMS, the model produces garbage. We walk through the data foundation, the evaluation framework and how to measure a forecast without it steering the planning through its own feedback.
A third is delivery scheduling and just-in-time coordination. The system sends a reminder to a subcontractor, flags when a delivery does not match actual progress, or suggests a different delivery time. Useful, provided the communication is sound. We discuss how to ensure AI amplifies miscommunication rather than resolving it.
A fourth is vehicle clustering and last mile. AI clusters deliveries from the hub by vehicle type, route direction and time window to reduce the number of trips. This is where the measurement question becomes interesting: how do you know that clustering genuinely saves CO2 and costs, rather than merely producing a better schedule on paper?
A fifth is BIM 4D to delivery flow integration. An AI layer reads the BIM 4D timeline and automatically translates it into a delivery sequence, flagging when the planned activity deviates from actual progress. This is one of the most promising applications for reducing waiting time and buffer stock, but it requires a data foundation that many organisations do not yet have in place.
A sixth is environmental zoning and ZE-zone-compliant planning. With the expansion of zero-emission zones in Dutch city centres, route planning is becoming more complex. AI can help with vehicle selection, alternative delivery routes and cross-docking via a hub. We go through what this means for your TMS architecture and how you record that compliance evidence.
A seventh, for organisations undergoing a Wkb process, is a Wkb-compliant AI log. When AI contributes to decisions that end up in a quality file, you must be able to reproduce what the system said, with which input and which version. We discuss a logging architecture that enforces this without compromising your operational speed.
These use cases serve as analysis material. We go through each case in terms of AI Act classification, GDPR, data foundation and feasibility. By the end, your team will have a shared picture of what is sensible to examine first in your chain, and what is not (yet).