The EU SSbD Framework for Designing Chemicals and Materials

The transition to safer and more sustainable chemicals and materials is no longer optional—it is a strategic imperative for competitiveness, regulatory readiness, and long-term resilience. At the heart of this transition sits the EU Safe and Sustainable by Design (SSbD) framework, developed by the European Commission’s Joint Research Centre (JRC) as the scientific backbone of the EU Chemicals Strategy for Sustainability (CSS).

Since its introduction in 2022, the SSbD framework has evolved through multiple publications, practical testing, and stakeholder feedback. Together, these documents form a coherent and increasingly operational approach to embedding safety, sustainability, and circularity into chemical and material innovation—starting from the earliest design stages.

This article provides an overview of the evolution of the EU SSbD framework, its structure, and why it matters for companies operating in chemicals, materials, and bio-based value chains.

Why SSbD Matters: Beyond Compliance

The EU Chemical Strategy for Sustainability aims to steer innovation towards chemicals and materials that are:

• Safer for human health and ecosystems

• Lower in environmental footprint across their life cycle

• Compatible with circular economy objectives

• Competitive and investable in global markets

SSbD responds to a key challenge: how to integrate safety, sustainability, and functionality into one coherent decision framework, rather than treating them as separate or sequential checks.

Crucially, SSbD is not a single assessment. It is a continuous, iterative improvement system that supports innovation under uncertainty—especially at early technology readiness levels.

The Evolution of the EU SSbD Framework

1. Reviewing the Landscape (2022)

The first JRC publication established the foundation by reviewing existing approaches to Safe and Sustainable by Design. It mapped:

• Safety and sustainability dimensions

• Assessment methods, indicators, and tools

• Existing gaps between risk-based safety assessment and life-cycle-based sustainability evaluation

The key conclusion was clear: a new integrated framework was needed—one that combines risk assessment, life cycle thinking, and systems perspectives across entire value chains.

2. Defining the SSbD Framework (2022)

Building on this review, the second publication introduced the first operational SSbD framework for chemicals and materials.

Key characteristics included:

• Integration of safety, circularity, functionality, and sustainability

• Life-cycle coverage from raw materials to end-of-life

• Alignment with industrial innovation processes rather than regulatory-only evaluation

SSbD was positioned as a tool to support design, development, production, and use, helping innovators avoid regrettable substitutions while improving environmental and economic performance.

3. Testing Through Case Studies (2023)

The third publication moved from theory to practice. The framework was applied to illustrative case studies, demonstrating how SSbD can:

• Identify safety and sustainability hotspots early

• Reveal trade-offs between performance, risk, and environmental impact

• Guide redesign decisions before costly lock-ins occur

These applications confirmed that SSbD works even with imperfect or screening-level data, making it especially relevant for early innovation and SMEs.

The Revised SSbD Framework (2025): From Concept to System

After extensive testing by industry, research organisations, and public authorities, the SSbD framework was revised in 2025 to improve clarity, operability, and relevance.

Key Innovations in the Revised Framework

1. SSbD Principles as the Backbone

Four core principles now explicitly guide the framework:

• Whole-system and life-cycle perspective

• Multidisciplinary and multi-actor engagement

• Iterative, tiered, and uncertainty-aware implementation

• Transparency and traceability throughout innovation

SSbD is no longer static—it evolves with new data, new risks, and new solutions.

2. Structured Scoping Analysis

The scoping analysis is now a formal starting point, defining:

• The intended innovation

• Life-cycle boundaries and actors

• Data availability and maturity

• Decision rules and objectives

This step allows the SSbD application to be tailored—from simplified screening to full life-cycle implementation.

3. A Re-structured Assessment Architecture

The revised framework introduces a clearer separation and integration of assessment domains:

Safety

• Intrinsic chemical and material properties

• Human health and environmental exposure

• Process-related safety across supply chains

Environmental Sustainability

• Full life-cycle assessment (LCA)

• Screening approaches and benchmarks for low TRLs

• Process-level sustainability comparisons

Socio-Economic Sustainability

• Supply chain vulnerabilities

• Life cycle costs

• Critical raw materials dependence

• Skills, jobs, and competitiveness

Together, these assessments enable holistic decision-making, not isolated optimisation.

4. Evaluation and Decision Support

Results are synthesised through an evaluation step that:

• Identifies trade-offs and uncertainties

• Highlights hotspots across the life cycle

• Uses dashboards as a “compass” for innovation

This directly supports investment decisions, R&D prioritisation, and risk governance.

5. Documentation and Traceability

A dedicated documentation component ensures that:

• Decisions are transparent

• Assumptions are explicit

• Progress across iterations is traceable

This is essential for regulatory readiness, funding alignment, and internal governance.

Why This Matters for Industry and Innovators

The SSbD framework delivers tangible value:

• Reduced redesign and retrofit costs

• Earlier identification of safety and sustainability risks

• Clearer pathways to compliance and certification

• Improved investment clarity and de-risking

• Stronger positioning in eco-sensitive markets

It also aligns with global trends, including the Global Framework on Chemicals and international calls for Responsible Research and Innovation.

From Framework to Practice: Our Perspective

At our consultancy, we work with companies to translate the EU SSbD framework into actionable decision-making tools—tailored to real innovation contexts, real data constraints, and real business pressures.

SSbD is not about adding another layer of assessment.
It is about designing safety, sustainability, and circularity into innovation from the very beginning.

The future of the chemical and bio-based industries will be shaped by those who integrate responsibility and performance—systematically, transparently, and early.

If you would like to explore how SSbD can support your innovation strategy, portfolio decisions, or project development, we would be glad to support you.