Investigating why the Netherlands — with the technology, the ports, and the expertise — cannot deploy autonomous vehicles for Physical Internet hubs within 12 months. The answer is regulatory, not technical.
Third-year Logistics Engineering student at BUas, specialising in the Physical Internet. Previously interned at Rotra Brussels in airfreight inside sales, focusing on process optimisation and conversion rate analysis.
This research started from a simple observation: Rotterdam has the ports, the tech partnerships, and the ambition — yet Germany and Sweden are already running autonomous freight trucks commercially while the Netherlands is still on pilots. The gap isn't technical. It's regulatory, and that's what this Deep Dive sets out to prove.
Dutch regulatory barriers are the primary obstacles preventing Physical Internet hub implementation in Dutch ports, making deployment within 12 months unfeasible without direct regulatory intervention.
Level 4 AV technology for freight is proven in controlled scenarios. The Port of Rotterdam has been running autonomous terminal tractors since 2020. For hub-to-hub and node operations, technology is no longer the limiting factor.
The 1968 Convention assumes a human driver at all times, creating a structural legal conflict for Level 4 autonomous operation under Dutch law. No national resolution has been enacted, unlike Germany and Sweden.
No standardised approval pathway exists for Level 4 in port or industrial zone environments. Each application is assessed individually, creating timeline uncertainty and discouraging both operator investment and insurance underwriting.
Port-scale PI hubs require uninterrupted automated container movement. Unlike road freight, human drivers cannot substitute — the AV dependency is a fundamental architectural requirement, making the regulatory blocker even more critical.
Every source in the document analysis is coded by barrier type. This framework determines which category of obstacle appears most frequently and most severely in Dutch port operations.
No fast-track or standardised pathway exists for Level 4 in port/industrial zones. Every application is assessed individually by RDW, creating timeline uncertainty that discourages operator investment and makes insurance underwriting practically impossible.
The Netherlands is legally bound by the Convention which requires human driver presence. Level 4 autonomous operation creates a liability vacuum that Dutch law has not resolved — unlike Germany (2021) and Sweden (2024) which enacted national legislation to circumvent this.
Unclear responsibility between manufacturer and operator makes insurers unwilling to offer coverage. Without insurance, operators cannot legally deploy AVs even when technology is fully ready. This chain — unclear liability → no insurance → no deployment — is the practical bottleneck that blocks Physical Internet hub implementation.
All three countries have equivalent access to AV technology. Differences in deployment outcomes are therefore explained by regulatory variables — not technical capability. This is the core logic of Method 2.
| Dimension | 🇳🇱 Netherlands |
🇩🇪 Germany |
🇸🇪 Sweden |
|---|---|---|---|
| Level 4 legal framework | None | Yes — 2021 | Yes — 2024 |
| Approval process | Case-by-case | Standardised | Standardised |
| Liability framework clarity | Unclear | Defined | Partial |
| Insurance market available | No | Yes | Emerging |
| Current deployment status | Pilots only | Commercially active | Einride — active |
15–20 publicly available policy documents plus 21 academic sources, coded R/T/E/C with sub-codes R1–R4. Frequency analysis identifies dominant barriers; timeline tracking tests 12-month feasibility.
Structured comparison of the Netherlands, Germany, and Sweden across five regulatory dimensions. Equal AV technology access means deployment gaps are attributed to regulatory differences.
Each country scored per regulatory dimension, producing a measurable output quantifying how far the Netherlands lags. The index directly answers whether 12-month deployment is feasible and which gaps must close first.
Semi-structured interviews with RDW officials, Port of Rotterdam managers, and AV operators. A short survey for broader barrier ranking. Supplementary to M1–M3; skipped if access is unavailable within the research window.
Regulatory, technical, economic, and cultural barriers are identified — but no study ranks them for Dutch port/industrial zone operations specifically.
Is it the slow RDW approval, unclear liability, or the insurance gap? The specific port-level mechanism remains unaddressed in existing literature.
No existing literature assesses whether PI hub implementation in Dutch ports is achievable within a defined short-term timeframe.
Problems are identified but the literature stops short of specifying concrete regulatory fixes that would actually enable deployment.
Does the Netherlands need a national opt-out from the 1968 Convention to legally enable Level 4 AV operations in port zones?
Could a dedicated fast-track process for controlled port environments unlock deployment without requiring full national legislation?
A definitive ordering of regulatory, technical, economic, and cultural blockers specifically for Dutch port Physical Internet operations.
Actionable guidance for port operators and logistics firms on what to monitor, prepare, and advocate for in anticipation of regulatory change.
Specific changes — RDW fast-track, Road Traffic Act amendment, Vienna Convention national opt-out — that would enable 12-month deployment.
A structured tool for assessing PI hub feasibility under current regulation vs. reformed scenarios, usable by both port operators and policymakers.
Build the theoretical foundation across four thematic areas: AV technology readiness, Dutch regulatory frameworks, Physical Internet concepts, and barrier landscape. Develop the research gap and formulate the hypothesis.
21 sources reviewedFormalise the hypothesis and design the triangulated methodology: document analysis, comparative case analysis (NL vs. DE vs. SE), and regulatory readiness index. Define coding framework R/T/E/C with sub-codes R1–R4.
Methodology lockedCode 15–20 policy documents alongside the academic sources. Build the comparative table. Score each country on the regulatory readiness index. Conduct interviews if stakeholder access is confirmed (Thomas van den Born, Rhenus).
Active phaseSynthesise findings into a ranked barrier analysis, policy recommendations, and a decision framework. Deliver actionable guidance for Dutch port operators and policymakers on enabling 12-month Physical Internet hub deployment.
Final deliverableThis research relies on practitioner perspectives to validate its findings. The survey takes 5-8 minutes and covers barrier ranking and hypothesis validation.
Responses are used solely for academic research. You may remain anonymous.