A Conceptual Framework for Safe-and-Sustainable-by-Design to Support Sustainable Business Model Innovation and New Product Development
January 24, 2025
Authors: Stoycheva et al.
To achieve a sustainable future and meet the UN’s Sustainable Development Goals (SDGs), business model innovation (BMI) must integrate traditional innovation management (IM) and new product development (NPD) with sustainability considerations. The European Green Deal and EU Chemicals Strategy for Sustainability (CSS) challenge existing BMI and NPD theories, with the Safe-and-Sustainable-by-Design (SSbD) concept being central to the CSS. SSbD demands a novel approach that integrates safety and sustainability into innovation without compromising functionality or commercial viability. Companies need to design products with minimal environmental impact, adopt circular economy principles, and ensure social responsibility while maintaining economic viability. A conceptual framework is proposed to integrate traditional IM tools with SSbD, using life cycle thinking, and considering both external and internal drivers. The framework suggests embedding SSbD and life cycle thinking in training for IM professionals, as they play a key role in driving this transition.
Regulatory preparedness for multicomponent nanomaterials: Current state, gaps and challenges of REACH
January, 2025
Authors: Hunt et al.
In 2018, the European Commission revised REACH's Annexes to include nanomaterial-specific provisions. This paper examines REACH's readiness for multicomponent nanomaterials (MCNMs), which have complex structures. It highlights uncertainties in applying REACH definitions to MCNMs, such as when surface modifications or physisorption occur, or when the nanoform definition no longer applies. The paper concludes that REACH's guidance should be updated, particularly to align the definition of "nanoform" with the latest European Commission recommendations.
Roadmap towards safe and sustainable advanced and innovative materials (Outlook for 2024-2030)
December 2, 2024
Authors: Cassee et al.
The adoption of innovative advanced materials holds vast potential, contingent upon addressing safety and sustainability concerns.
Form-Specific Prospective Environmental Risk Assessment of Graphene-Based Materials in European Freshwater
November 27, 2024
Authors: Hong & Nowack
This study evaluates the environmental risks of graphene-based materials (GBMs) using dynamic probabilistic material flow analysis (DPMFA) to estimate future production and distribution in European freshwaters. Predicted environmental concentrations by 2030 are minimal: 0.67 ng/L for pristine graphene and 0.33 ng/L for graphene oxide and reduced graphene oxide. Hazard assessments based on species sensitivity distributions indicate negligible risk (RCRs < 1) for all GBM forms. These findings support sustainable material design and provide a foundation for regulatory decisions and further research into GBM environmental fate.
An overview on dispersion procedures and testing methods for the ecotoxicity testing of nanomaterials in the marine environment
May 8, 2024
Authors: Cassee et al.
Safe and Sustainable Design of innovative advanced materials is crucial to avoid repeating past mistakes and ensure a proactive transformation toward a toxic-free, sustainable future, as outlined in this roadmap.
Chronic toxicity of core–shell SiC/TiO2 (nano)-particles to Daphnia magna under environmentally relevant food rations in the presence of humic acid
February 29, 2024
Authors: Serwatowska et al.
This study evaluates the long-term, size-dependent toxicity of novel SiC/TiO2 core–shell nanostructures to Daphnia magna, highlighting their potential environmental impact. Experiments under realistic conditions showed that humic acid exacerbates toxicity by reducing nanoparticle aggregation and sedimentation. The EC50 values for 60nm and 500nm particles revealed increased toxicity with higher humic acid concentrations. These findings emphasize the need to consider environmental factors in nanomaterial risk assessments, particularly for advanced materials.
Roadmap Safe and Sustainable Advanced and Innovative Materials 2024-2030
January 1, 2024
Authors: Brunelli et al.
This review highlights the need for standardized protocols in assessing the ecotoxicity of engineered nanomaterials (NMs) in marine environments, which remain underexplored compared to freshwater systems. Analyzing 89 studies since 2010, it found that less than 5% used standardized dispersion protocols with NM characterization, while many lacked complete procedural details. Metal oxide NMs were most studied, with growing attention to nanoplastics and multicomponent NMs. Primary producers like algae and bacteria dominated research focus, while higher trophic organisms were less represented. The review emphasizes adopting standardized methods to improve ecological hazard assessments of NMs in marine ecosystems.
Understanding the role of biomolecular coronas in human exposure to nanomaterials
January 1, 2024
Authors: Antonello & Fenoglio
This review explores the impact of biomolecular coronas on the transformation and behavior of nanomaterials (NMs) following various exposure routes, including inhalation, ingestion, blood, and dermal or ocular contact. It highlights how coronas formed in different biological media alter NM properties and influence their biological fate. Emphasizing the need for detailed characterization of coronas, particularly in lung and gastric fluids, the review underscores the importance of understanding NM interactions to predict in vivo outcomes and address nanosafety concerns.
A Martini Coarse Grained Model of Citrate-Capped Gold Nanoparticles Interacting with Lipid Bilayers
September 7, 2021
Authors: Salassi et al.
Citrate capping is a common method to stabilize gold nanoparticles (CNPs), which can undergo ligand exchange to acquire specific functionalities or interact with lipid membranes. This study presents a computational model for CNPs compatible with the Martini force field, validated through molecular dynamics simulations and spectroscopy data. The model explores CNP interactions with phosphatidylcholine lipid membranes, showing that citrate is spontaneously replaced by lipids, with nanoparticle size and shape influencing the resulting NP-membrane complex structure.