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Transition 5.0 → 6.0: industrial projects stop before implementation

linea industriale inattiva

Designing is not the real problem


In the debate surrounding Transition 5.0, the discussion continues to focus on incentives, their accessibility and bureaucratic complexity. However, this perspective observes the system almost exclusively from an administrative standpoint and very little from an industrial one. Once you look directly at real projects, a different dynamic emerges: the problem is not designing.

From a technical standpoint, the regulatory framework is relatively stable. ISO standards, UNI regulations, ATEX directives, the Machinery Directive and many other consolidated standards make it possible to develop reliable and coherent solutions without substantial variations over time. Companies continue to design, engineering firms continue to work, analyses are carried out, layouts are defined and critical issues are addressed through structured methodologies. Industrial engineering itself is not currently the real bottleneck.

The breakdown occurs later, at the most delicate stage of the entire process: the transition between engineering and investment decision-making. More and more frequently, projects reach near-executive definition levels and stop exactly when they should move into production. These are not preliminary studies or theoretical concepts, but validated solutions ready for implementation. This is where uncertainty related to incentive schemes and the lack of regulatory continuity begins to affect the process. The project is ready, but the decision-making environment is no longer stable. And when the ability to make predictable decisions disappears, engineering also stops generating industrial transformation.


When an executive-level project remains on paper


One of our revamping interventions on a food production line clearly illustrates this dynamic. The project had completed its entire technical path: site inspections, critical issue analysis, layout revision and the definition of a new plant configuration. The work had reached an almost executive level of detail, to the point that component prefabrication could have started without further significant steps.

The project stopped anyway.

Not because of technical issues, not because of design errors, but because the investment was suspended due to uncertainty surrounding the 2026 incentive framework. In other words, a project completed between 80% and 90% was not implemented because the client lacked sufficient medium- to long-term visibility to commit to the investment with confidence.

This is the critical issue that public discussion continues to underestimate. When a project stops at this stage, the problem is not simply a delay. Weeks of analysis, engineering development and technical revision stop generating industrial value. Engineering produces outputs that never translate into operational plants, productivity gains, or competitive advantage. What remains are absorbed costs without real transformation. At that point, the issue stops being local and becomes systemic. When this dynamic repeats itself across multiple projects, the system continues to produce engineering work without generating actual investment.


Incentives designed against industrial reality


A second layer of criticality is linked to the structure of the incentives themselves. In an attempt to direct resources toward specific objectives, requirements become increasingly selective and restrictive. While theoretically coherent, this logic drastically reduces compatibility with real industrial projects in practice.

Companies therefore face a paradox. On one side, they must develop solutions aligned with their production needs; on the other, they must verify that those same solutions fit within a regulatory framework that is often rigid and poorly aligned with operational reality. When this alignment fails, projects are either forcibly adapted to incentive requirements, downsized or completely suspended.

Both outcomes generate inefficiency. In the first case, the technical coherence of the project is compromised; in the second, the investment itself is reduced or cancelled. The result is that resources exist, yet a significant portion of projects cannot realistically access them.

This also explains why many incentive measures show lower absorption capacity than expected. The issue is not purely economic. The real problem is that the system struggles to integrate with the actual functioning of industry.


The short circuit between regulation and companies


Responsibility, however, is not exclusively regulatory. Part of the problem also stems from the way many companies approach incentives. They are often treated as an administrative opportunity rather than as an integrated component of the engineering process. Evaluations are simplified internally and technical partners are involved too late, when client expectations are already considered consolidated.

At that point, inconsistencies inevitably emerge: unmet requirements, incompatible timelines and solutions misaligned with real constraints. The project enters a spiral of revisions, adjustments and compromises that progressively reduce its effectiveness. In some cases, companies still attempt to force projects into compliance with incentive parameters, but this approach introduces additional risks, particularly in terms of conformity whether the benefit will actually be obtained.

This disconnect therefore emerges midway through the process. On one side, there is an incentive system poorly aligned with the real industrial structure; on the other, there is the assumption that complex processes can be managed without genuine technical integration from the outset. The result is a concrete reduction in the ability to transform projects into executable investments.


The real limitation of Transition 5.0: project executability


The real limitation of Transition 5.0 is not the amount of available resources, but their industrial executability. The truly relevant metric is not how many incentives have been allocated, but how many projects actually reach implementation.

When a significant portion of designed initiatives fails to move beyond the decision-making phase, the issue is no longer marginal but structural. It means the system is unable to sustain the complete industrial investment cycle: analysis, engineering, decision-making and implementation stop being aligned.

Transition 6.0 should therefore address not only access to incentives, but above all the decision-making stability required to transform projects into real investments. If the new framework simply modifies tools and percentages without addressing compatibility with real industrial timelines, the outcome will remain unchanged. The system will continue producing technically correct projects that remain operationally suspended. And when a project reaches 90% completion without being implemented, the issue is no longer technical. It is a system that no longer allows decisions to be made.

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