How to Build an Innovation Pipeline Aligned with Safe and Sustainable by Design (SSbD)
Processes, criteria, and governance for future-proof product development
12/10/20253 min read


Safe and Sustainable by Design (SSbD) is becoming the new baseline for innovation. The companies that adapt now will lead the next generation of safe, sustainable, and profitable products.
The shift toward sustainable product regulation, decarbonisation, and circularity is reshaping how companies innovate. The European Commission’s Safe and Sustainable by Design (SSbD) framework brings a new expectation: sustainability and safety should not be checked at the end of R&D, but embedded from the earliest stages of design.
For companies developing chemicals, materials, and engineered products, this requires a transformation of the internal innovation pipeline. The goal is not only compliance, but also competitiveness: SSbD unlocks lower risk, better market access, and more resilient products.
This guide explains how to build an innovation pipeline that is fully aligned with SSbD — covering processes, criteria, and governance.
1. Start with a Clear SSbD Vision and Strategy
Before changing processes, organisations need to define what SSbD means for them. Questions to address:
How does SSbD support the company’s climate, circularity, and safety objectives?
Which product portfolios are most exposed to regulatory or market pressure?
What level of ambition do we aim for — compliance, leadership, or innovation differentiation?
Which sustainability indicators matter most to our customers?
A clear SSbD strategy should connect directly with the company’s ESG goals, net-zero roadmap, and regulatory commitments (CSRD, ESPR, REACH, etc.).
2. Integrate SSbD Criteria Early in the Innovation Funnel
Traditional innovation focuses first on performance and cost, and only later on safety or sustainability. SSbD flips this logic.
Embed SSbD from the pre-ideation stage
Before ideas are even collected, define go/no-go criteria based on:
Toxicity and human health safety
Environmental hazard and fate
Climate impact (GHG intensity of materials or processes)
Resource efficiency and circularity potential
Durability, reparability, or recyclability requirements
Exposure minimisation opportunities
Critical raw materials risk
These criteria become filters that shape the type of ideas the organisation seeks.
Develop SSbD “Idea Briefs”
Each new concept should include:
Intended function
Preliminary hazard profile (if applicable)
Anticipated life-cycle hotspots
Alignment with sustainability targets (1.5°C, circular, non-toxic)
This shifts innovators from “Can we develop this?” to “Should we develop this?”
3. Use Stage-Gate Processes Adapted to SSbD
A standard R&D stage-gate model can be upgraded to include SSbD checkpoints:
Gate 0 – Opportunity Identification
Market needs + sustainability drivers
Early-risk scanning (toxicity, critical materials, high GHG inputs)
Gate 1 – Feasibility
Preliminary screening using SSbD criteria
Early life-cycle thinking (hotspot identification)
Alternatives assessment where hazards appear
Gate 2 – Development
Quantitative LCA / PEF studies
Exposure assessments
Safe design considerations (substitution, encapsulation, process changes)
Gate 3 – Scale-up
Manufacturing footprint assessment
Worker exposure and safety integration
End-of-life scenario definition
Gate 4 – Launch
Verified sustainability performance
Compliance with ESPR, DPP, CSRD, etc.
Customer communication and claims validation
This structure ensures sustainability is non-negotiable at each step.
4. Build Robust SSbD Criteria and Tools
To ensure consistency across projects, companies need a shared set of evaluation tools:
Core tools
Hazard and risk assessment frameworks (aligned with REACH and CLP)
Life Cycle Assessment (LCA) or PEF methodology
Exposure scenario analysis
Chemical alternatives assessment
Circularity metrics (material recovery rate, recyclability, lifetime extension)
Product-specific scorecards
Translate SSbD into a scoring model that assesses:
Safety
Environmental impact
Climate performance
Circularity potential
Data quality and evidence
A simple traffic-light system can drive decision-making and communication across teams.
5. Establish Governance and Accountability
SSbD is not only a technical exercise; it requires organisational discipline.
Key governance components:
1. Cross-functional SSbD Steering Committee
Includes R&D, sustainability, EHS, procurement, regulatory, and business units.
2. Clear ownership
Define who approves SSbD criteria, who performs assessments, and who signs off go/no-go gates.
3. Standard operating procedures
Documented processes for how SSbD is integrated across each project stage.
4. Training and capability building
Teams need to understand sustainability science, hazard assessment, LCA principles, and regulatory trends.
5. Continuous improvement system
Use data from launched products to refine criteria and tools.
Good governance ensures SSbD is not optional, but embedded.
6. Integrate Suppliers and External Partners
Most environmental and safety impacts come from upstream materials and processes. A strong SSbD pipeline:
Requires suppliers to provide hazard, footprint, and circularity data
Encourages co-development of safer alternatives
Uses procurement criteria aligned with SSbD principles
Engages research institutes and startups for innovation scouting
This widens the funnel of potential sustainable solutions.
7. Measure Success and Communicate Progress
To maintain momentum, define KPIs such as:
% of new products assessed under SSbD
% of R&D projects passing SSbD stage-gates
GHG and toxicity reductions achieved vs. baseline products
Number of hazardous substances substituted
% of products compatible with circular business models
Tie these KPIs to R&D incentives and corporate sustainability reporting (CSRD, ISSB, etc.).
SSbD as a Competitive Advantage
Building an innovation pipeline aligned with SSbD is not just a regulatory requirement — it’s a strategic advantage. Companies that embed SSbD early unlock:
Faster compliance with upcoming EU regulations
Reduced toxicity and safety risks
Lower carbon and resource footprints
Higher market acceptance and customer trust
More resilient product portfolios
Those that wait will face costly redesigns, supply-chain disruptions, and loss of competitiveness.
