New EU Directives on Industrial Product Safety: Impact on the Manufacturing Sector

New EU directives on industrial product safety: impact on the manufacturing sector

Regulatory updates from the European Union

The European Union is intensifying its focus on the standardization of advanced technologies, with particular attention to autonomous systems and additive manufacturing. A concrete example emerges from the NATO project on the standardization of USVs (Unmanned Surface Vehicles), announced on February 3, 2026, which sees ASTM International as the selected body to develop shared technical frameworks among Alliance countries.

The initiative, funded by the NATO Accelerating Interoperability and Standardization (AIS) Fund and led by the INTRACOM DEFENSE and DEFSTAND consortium, aims to create common rules for interfaces, verification, safety, and documentation. This approach reflects a broader trend: without shared criteria for controls, safety, and liability, many advanced technologies remain in the experimental phase, slowing down industrial adoption.

In the context of additive manufacturing, standardization concerns not only technological platforms but the entire ecosystem: performance requirements, certification criteria, maintenance management, configuration traceability, and the ability to compare different solutions with compatible testing methods. The goal is to reduce integration times and facilitate adoption among multiple member states, creating a technical framework that balances innovation and operational control.

Implementation of ISO standards in production processes

The implementation of rigorous standards in production processes requires a structured approach that covers the entire product lifecycle. In the aerospace sector, the best practices of the Aerospace Industries Association (AIA) recommend a three-phase machine qualification: Factory Acceptance Testing (FAT), Installation Qualification (IQ), and Operational Qualification (OQ).

FAT verifies that the printer operates correctly before delivery, establishing a known default condition. IQ confirms that the equipment is suitable for production at the user's site, while OQ verifies that the produced material meets precise specifications through testing on specimens, heat treatments, and non-destructive controls.

Production Qualification (PQ) imposes process compliance, acceptance of parts and batches, first article testing, and functional tests that can range from simple static tests to complex multi-axis or fatigue tests. Once production begins, continuous monitoring ensures that parts are equivalent to those used for qualification, through Statistical Process Control (SPC) of key process variables.

A balance is outlined between governed profiles, to maximize repeatability and compliance, and controlled paths for advanced users who need specific performance in regulated applications. In regulated environments such as aerospace, medical, and defense, the value lies primarily in process repeatability and traceability.

Regulatory compliance and industry certifications

Regulatory compliance in the manufacturing sector requires approved quality systems such as ISO 9001 or AS 9100, qualified personnel, and certified equipment. The ASTM Additive Manufacturing Center of Excellence (AM CoE) promotes qualification and certification schemes for suppliers based on standards, a crucial element when the goal is to replicate production across multiple sites while maintaining verifiable criteria and uniform documentation.

To introduce components produced with additive manufacturing into operational contexts, comprehensive qualification is required: materials, process, post-process, and controls, in addition to common rules between countries that ensure the acceptability and traceability of a component produced in one state even in others. This is particularly relevant for critical applications in defense and complex systems.

Guidelines for design and quality controls in constructions made through digital fabrication are central to transforming pilot projects into repeatable applications. Technical literature highlights that the challenge is not only to produce, but to maintain consistent mechanical performance and durability, especially in the transition from test specimens to real components.

Standards such as ANSI/CAN/UL 2904 provide methods for testing and evaluating emissions in non-industrial environments, while NIOSH publishes guides with recommended controls for small organizations. National authorities, such as the Swedish Chemicals Agency, have also published specific indications to ensure operational safety.

Future perspectives and adaptation to new regulations

Regulatory evolution in the manufacturing sector is converging towards greater transparency, traceability, and standardization. In the coming months, practical signals to monitor will include: the appearance of versioned profiles with stricter controls, “package-based” management for materials and applications, greater integration with fleet management and safety tools, and documentation that explicitly states which parameters can be modified by operators.

The market is evolving towards greater demand for systems with integrated enclosures and filtration, greater transparency on emission data from manufacturers, growth of materials designed to reduce emissions, and possible regulatory evolution. The standardization of test methods and the availability of guidelines reduce ambiguity for users and managers of shared laboratories.

For buyers, it becomes essential to demand measurable performance specifications, clarify responsibilities regarding materials and quality, have standard documents reviewed by legal counsel, and plan pilot tests with acceptance milestones. For sellers, the priority is to precisely define the scope of what is being sold, avoid excessively restrictive clauses, propose transparent commissioning schemes, and build technical documentation that reduces operational ambiguity.

Adapting to new regulations represents not only a compliance obligation, but an opportunity to consolidate processes, reduce operational risks, and accelerate the industrial adoption of advanced technologies in an increasingly regulated and interconnected context.

article written with the help of artificial intelligence systems