Grid congestion in the Netherlands has reached crisis levels. Over 12,000 companies are on waiting lists for new or expanded electricity connections, with wait times up to 10 years in the most congested areas and an estimated economic cost of €10 to €40 billion a year. For industrial projects, straightforward electrification is no longer a default option. Scaling has to be designed around what the grid can realistically deliver. The companies that get this right are the ones turning the constraint into a competitive advantage.
A clear example of this in action is our work with Revyve, a Dutch food-tech business scaling a first-of-a-kind facility in Dinteloord. Grid congestion was the first wall they hit, and it shaped every other engineering decision that followed. Below, we look at what grid congestion in the Netherlands really means for industrial projects, how it interacts with the other constraints Dutch projects face, and how to design around it.
What is grid congestion, and why is the Netherlands hit so hard?
In the Netherlands, this has become one of Europe’s most acute infrastructure crises.
The numbers tell the story:
- – 12,000+ companies are currently on waiting lists for new or expanded electricity connections, according to the National Grid Congestion Action Programme (LAN) Progress Report.
- – Wait times reach 10 years in the most congested areas, with grid operators warning that constructing a new high-voltage substation takes about that long.
- – Medium-voltage connection rollouts fell 25% in 2024 alone.
- – BCG and Ecorys estimate the economic cost at €10 to €40 billion a year..
For any industrial project being designed today, grid congestion has to be treated as a fact of life, not a temporary inconvenience.
What grid congestion meant for Revyve
Revyve is a Dutch food-tech scale-up out of Wageningen, making functional yeast proteins that replace eggs in baked goods, sauces, and more. Clean label, cost-effective, and ready to scale.
When they began designing their first-of-a-kind plant in Dinteloord, grid congestion immediately took straightforward electrification off the table. The plant could not assume access to the electricity it would, in an unconstrained world, be designed to use. Every downstream engineering decision from process design, utility selection to heat strategy, had to be made under that constraint.
This is the position a growing number of Dutch industrial projects find themselves in: the technology works, the funding is there, the site is chosen but the grid does not have the right capacity.
Why grid congestion never sits alone: nitrogen, utilities and permits
What makes grid congestion uniquely hard in the Dutch context is that it is rarely the only constraint a project faces. It interacts with (and often amplifies) other challenges:
Nitrogen deposition and Natura 2000 rules. Since the Council of State annulled the PAS programme in 2019, and rules tightened further with the Rendac and Amercentrale rulings of 18 December 2024, industrial expansion near protected nature areas increasingly requires a nitrogen permit even where projects previously relied on internal offsetting. For Revyve, this meant that simple combustion-based alternatives to electrification, like conventional gasification, were also closed off. The two constraints together leave a much narrower path than either would alone.
Utility fit within public infrastructure. Beyond electricity, every other utility (gas, waste water, steam, compressed air) has to be dimensioned against what local networks can handle at each scaling stage. Without a utility roadmap, projects either over-build or run short at exactly the wrong moments.
Permitting complexity across scaling stages. Dutch regulations (the Omgevingswet, Wet natuurbescherming, sector-specific rules) require operators to anticipate permit requirements not just for their current situation but for each future scaling stage. Hidden permit triggers like threshold crossings for environmental categories or changes in nitrogen calculations can derail timelines if not spotted early.
Grid congestion sits at the centre of this web. Solve it badly and the other four constraints get harder. Solve it well and the rest become tractable.
How we designed an industrial project around grid congestion
For Revyve, our role as engineering partner was to treat grid congestion not as a problem to wait out, but as a design input. We mapped out how it interacted with the other three constraints from the start.
The work covered all challenge areas as a single integrated system:
- ✅ Grid strategy: a phased electrification plan aligned with realistic grid capacity, avoiding the trap of designing for power that wouldn’t arrive in time.
- ✅ Nitrogen compliance: alternative processing routes that avoided Natura 2000 conflicts, so the grid constraint didn’t push the project toward an unworkable combustion option.
- ✅ Utility roadmap: a staged utility plan to prevent bottlenecks during scale-up.
- ✅ Permitting foresight: proactive identification of permit triggers across every future scaling stage.
The result: a structured plan and roadmap. This gives Revyve a clear, compliant, and realistic path to scale, resolving each constraint not in isolation, but as part of a coherent whole.
This is the same kind of integrated thinking we apply across our energy transition projects, from grid congestion scans through to full system design.
Facing grid congestion or other infrastructure constraints on your project? TransitionHERO helps industrial and greentech projects design around the realities of the Dutch grid, nitrogen rules, and permitting landscape by turning constraints into a clear, compliant roadmap.