The FAIR principles as a key enabler to operationalize safe and sustainable by design approaches

Safe and sustainable development of chemicals, (advanced) materials, and products is at the heart of achieving a healthy future environment in line with the European Green Deal and the Chemicals Strategy for Sustainability. Recently, the Joint Research Center (JRC) of the European Commission (EC) developed the safe and sustainable by design (SSbD) framework for definition of criteria and evaluation procedure proposed to be stablished in Research and Innovation (R&I) activities. The framework aims to support the design of chemicals, materials and products that provide desirable functions (or services), while simultaneously minimizing the risk for harmful impacts to human health and the environment. While many industrial sectors already consider such aspects during innovation, the framework aims to harmonize safety and sustainability assessment across diverse innovation strategies to meet the mentioned overarching policy goals. A cornerstone to successfully implement and operationalize the SSbD framework lies in the availability of high-quality data and tools,and their interoperability, aspects which also play a key role in ensuring transparency and thereby trust in the assessment outcomes. Availability of data and tools depend on their machine-actionability in terms of findability, accessibility, interoperability, and reusability, in line with the FAIR principles. The principles were developed in order to harmonize digitalization across all data domains, supporting unanticipated data-driven “seamless” integration of information and generation of new knowledge. Here we discuss the essentiality of FAIR data and tools to operationalize SSbD providing views and examples of activities within the European Partnership for the Assessment of Risks from Chemicals (PARC). The discussion covers five areas previously brought up in relation to the SSbD framework, and which are highly dependent on implementation of the FAIR principles; i) digitalization to leverage innovation towards a green transition; ii) existing data sources and their interoperability; iii) navigating SSbD with data from new scientific developments) transparency and trust through automated assessment of data quality and uncertainty; and v) ‘’seamless” integration of SSbD tools.

KARAKOLTZIDIS Achilleas;  BATTISTELLI Chiara Laura Battistelli;  BOSSA Cecilia;  BOUMAN Evert A.;  GARMENDIA AGUIRRE Irantzu;  IVO Iavicoli;  ZARE JEDDI Maryam;  KARAKITSIOS Spyros;  VERUSCKA Leso;  LOFSTEDT Magnus;  MAGAGNA Barbara;  SARIGIANNIS Denis;  SCHULTES Erik;  SOETEMAN-HERNANDEZ6 Lya G.;  SUBRAMANIAN Vrishali;  NYMARK Penny; 

2025-11-19

The Royal Society

JRC136797

2054-5703 (online),   

http://dx.doi.org/10.1039/D4SU00171K,    https://publications.jrc.ec.europa.eu/repository/handle/JRC136797,   

10.1039/D4SU00171K (online),