Towards sustainable analytical chemistry

Sustainability is often used interchangeably with greenness, narrowly framed using environmental criteria alone. This conflation stems from the inherent conceptual vagueness of sustainability, an attribute that constitutes both its greatest strength and most notable weakness. This contribution discusses important conceptual points and key ideas related to sustainability in analytical chemistry that can serve as the theoretical framework for meaningful interpretation, implementation and evaluation of sustainability. Sustainability is discussed using the three interdependent pillars of economy, society, and environment, critiquing reductionist approaches, and advocating for a systems thinking approach to prevent invariably shifting risks elsewhere in the system. It also explores the current perception of sustainability, emphasizing the gap between partial compliance with environmentally sound criteria and the systemic changes needed for genuine sustainability. Advancing the field beyond incremental technical and technological improvements toward systemic change is essential for maintaining the field's relevance in the context of global sustainability efforts. • Sustainable analytical chemistry integrates the three pillars of economy, society and environment • A systems thinking approach is crucial to understand interactions • Sustainability in analytical chemistry is often misinterpreted, focusing solely on environmental criteria • Analytical chemistry must transition to strong sustainability, acknowledging natural capital can be irreplaceable • Expanding research capacities is essential to drive sustainable advancements within the field

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Publication Details

Journal
TrAC Trends in Analytical Chemistry
Published
2025-07-16
DOI
https://doi.org/10.1016/j.trac.2025.118371
Citations
9
Primary Topic
Chemistry and Chemical Engineering
Type
article
Field-Weighted Citation Impact
7.74

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article

Towards sustainable analytical chemistry

Elefteria Psillakis
9 citations
TrAC Trends in Analytical Chemistry
Chemistry and Chemical Engineering
7.74
article

Towards sustainable analytical chemistry

Elefteria Psillakis
article en
9 citations

Abstract

Sustainability is often used interchangeably with greenness, narrowly framed using environmental criteria alone. This conflation stems from the inherent conceptual vagueness of sustainability, an attribute that constitutes both its greatest strength and most notable weakness. This contribution discusses important conceptual points and key ideas related to sustainability in analytical chemistry that can serve as the theoretical framework for meaningful interpretation, implementation and evaluation of sustainability. Sustainability is discussed using the three interdependent pillars of economy, society, and environment, critiquing reductionist approaches, and advocating for a systems thinking approach to prevent invariably shifting risks elsewhere in the system. It also explores the current perception of sustainability, emphasizing the gap between partial compliance with environmentally sound criteria and the systemic changes needed for genuine sustainability. Advancing the field beyond incremental technical and technological improvements toward systemic change is essential for maintaining the field's relevance in the context of global sustainability efforts. • Sustainable analytical chemistry integrates the three pillars of economy, society and environment • A systems thinking approach is crucial to understand interactions • Sustainability in analytical chemistry is often misinterpreted, focusing solely on environmental criteria • Analytical chemistry must transition to strong sustainability, acknowledging natural capital can be irreplaceable • Expanding research capacities is essential to drive sustainable advancements within the field

TrAC Trends in Analytical ChemistryVol. 191
Technical University of Crete (GR)
International Union of Pure and Applied Chemistry, European Chemical Society
Openalex Percentile: Top 2%
Chemistry and Chemical Engineering
7.74
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