Designing a Safer, Greener Future

Europe is rethinking how we create the chemicals and materials that shape our daily lives. From the plastics in packaging to the coatings on electronics, many products carry hidden costs for health and the environment. To tackle this, the European Commission has launched a strategy known as Safe and Sustainable by Design (SSbD), a framework that aims to make safety and sustainability part of innovation from the very start.

The idea is simple but powerful: instead of fixing problems later, build cleaner, safer, and more circular solutions into the design stage. Companies and researchers are encouraged to ask early on: does this material pose health risks, how might workers or consumers be exposed, and what will happen at the end of its life? These questions, paired with life-cycle assessments, create a loop where findings can lead to redesigns before products ever hit the market.

To test this approach, the EU has run dozens of real-world case studies with businesses, scientists, and regulators. The lessons learned are helping refine the framework. At the same time, universities are weaving SSbD principles into education, and new digital tools are being developed to make assessments easier.

The benefits of this shift could be far-reaching. Companies that adopt SSbD may reduce regulatory risks, cut costs, and gain consumer trust. Society, meanwhile, benefits from safer products, less pollution, and progress towards climate and circular economy goals. Challenges remain—such as the availability of reliable data and the resources needed by smaller firms—but the direction is clear.

Safe and Sustainable by Design is not just a policy box to tick; it represents a cultural change in how we think about innovation. By making responsibility and creativity go hand in hand, it sets the stage for a future where economic growth is aligned with health and environmental protection.

The Five Pillars of Safe and Sustainable by Design (SSbD)

1. Safety First
Chemicals and materials should be free of harmful properties wherever possible. The goal is to design out hazards at the earliest stage, protecting workers, consumers, and ecosystems before risks arise.

2. Life-Cycle Thinking
A product’s journey doesn’t end at the factory gate. SSbD considers every stage—from raw material extraction to production, use, reuse, and disposal—ensuring impacts are minimised along the way.

3. Sustainability at the Core
Design choices should reduce resource use, emissions, and waste, while enabling circularity and supporting climate neutrality. Materials are created not only to perform well, but also to fit into a regenerative economy.

4. Iteration and Improvement
SSbD is not a one-off exercise but a cycle. Design and assessment inform each other, creating a loop where insights drive continuous refinement and safer, greener outcomes.

5. Data and Transparency
Decisions are backed by robust science and shared openly in FAIR formats (findable, accessible, interoperable, reusable). This builds trust, accelerates innovation, and helps align science, policy, and industry.

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Research

Centexbel coordinates or participates in several research projects focussing on applying the SSbD framework:

  • PFAS-FREE: safe and sustainable textile water-repellent solutions that are superior to currently commercially available 'PFAS-free/fluorine-free' solutions.
  • SUBBIMATT: establish a safe and sustainable by-design framework and develop different materials essential for the final demonstrators that will demonstrate the benefits in a wide range of energy-related technical end-uses.
  • tExtended: optimise textile flows and retain the value of materials in a safe and sustainable way.
  • AlchemiSSts: demonstrate the applicability of the SSbD framework in safer and more sustainable alternatives to surfactants, plasticisers and flame retardants, which are considered as Substances of Very High Concern (SVHC).

More to explore for the value-minded reader

Steering chemicals and materials towards future-proof innovation

In December 2022, the European Commission adopted a Recommendation establishing the Safe and Sustainable by Design (SSbD) framework. This initiative is meant to guide the innovation process for chemicals and materials so that considerations of safety, human health and environmental sustainability are integrated from the very beginning. Rather than being an afterthought, these dimensions become part of the design DNA of new products and processes.

The framework responds to several urgent challenges. Modern chemical and material production takes place under tightening regulatory requirements on toxicity, worker safety and waste management, while also facing rising public concerns about health and environmental pollution. At the same time, global sustainability goals push industries to reduce resource use, cut emissions and design for circularity. The SSbD approach recognises that tackling these issues proactively—during the research and innovation phase—can help avoid problems later, reduce costs, and position European industries as leaders in responsible innovation.

The strategy is structured around two interlinked and iterative phases: the design phase and the assessment phase. In the design phase, innovators set the scope, purpose and system boundaries of the materials or chemicals they are developing. This is where principles such as avoiding hazardous substances, using renewable feedstocks, reducing emissions, or ensuring recyclability can be deliberately embedded. The assessment phase follows, examining hazards, exposure risks to workers and users, and environmental impacts through life-cycle analysis, including considerations for end-of-life. Importantly, the results of the assessment are not the final word: they feed back into the design process, encouraging redesign or improvement where risks or negative impacts are identified.

Because SSbD is still a relatively new framework, the Commission has emphasised testing and iteration. Between 2023 and 2024, over eighty case studies were carried out by industry, Member States, universities and research organisations. These studies tested how well the framework works in practice and revealed areas that need clarification or refinement. Large workshops with hundreds of participants, public consultations, and expert input have also been used to shape improvements. Supporting materials are emerging as well: the Joint Research Centre has published methodological guidance to tackle frequent challenges, while the Partnership for the Assessment of Risks from Chemicals (PARC) has created a toolbox of methods suitable for the different assessment steps. A revised version of the Recommendation is planned for the end of 2025.

The success of the strategy depends on the collaboration of multiple actors. Member States are expected to promote the framework in their national research programmes, support methodological development, ensure that data is shared in FAIR formats (findable, accessible, interoperable and reusable), and integrate SSbD topics into education and training. Industry, academia and research organisations are encouraged to adopt the framework for both new and existing materials, contribute to data sharing, develop better tools, and ensure professionals are trained in its use. The European institutions, in turn, coordinate guidance, manage testing, and prepare the upcoming revisions.

The potential benefits are substantial. By identifying hazards and sustainability concerns early, companies can avoid costly redesigns, reduce regulatory risks and build trust with consumers. A harmonised European framework also brings clarity to what “safe and sustainable by design” really means, avoiding fragmentation across industries and countries. Greater transparency and the sharing of FAIR data will accelerate progress in both innovation and regulation. At the same time, the strategy faces challenges, such as the scarcity of high-quality data on many chemicals and materials, the methodological complexity of balancing safety with performance or sustainability trade-offs, and the financial and technical burden this may place on smaller enterprises.

Looking ahead, the SSbD framework is expected to evolve through more precise criteria, improved digital tools and stronger links to education and training, so that new generations of scientists and engineers grow up with SSbD as a standard approach. As its adoption broadens across research and industry, the aim is that “safe and sustainable by design” ceases to be a niche practice and instead becomes the default way innovation is carried out in Europe.

In this sense, SSbD is more than a framework; it is a cultural shift in how materials and chemicals are conceived. By combining safety and sustainability with innovation, it promises to align industrial development with environmental protection and public health, setting a path toward a cleaner and more competitive future.