A century of inertia in quantitative ecology education

Abstract Ecology has undergone a profound methodological transformation through the rapid growth in new technologies, data volume, statistical innovation and analytical sophistication. These developments create unprecedented opportunities for novel ecological insights, but have also magnified longstanding concerns about quantitative training, which persist despite more than a century of debate and repeated calls for reform. Here, we posit why, despite enduring and widespread agreement on educational goals, progress in quantitative ecology education has remained limited. We argue that limited progress reflects a mismatch between widely supported reforms and the conditions needed to implement them at scale. While discussions of quantitative education have often focused on curricular content—what ecologists should learn—progress is also shaped by pedagogical, interpersonal, institutional and disciplinary factors. We discuss these interconnected components and argue that their combined influence helps explain the inertia that continues to characterise quantitative ecology education. Building on this diagnosis, we offer an integrated vision for quantitative ecology education. We argue that durable quantitative literacy is best developed through inclusive, context‐rich and people‐centred pedagogies that address barriers to learning, support diverse learners and ensure that procedural competence is grounded in strong conceptual understanding. We further advocate for coordinated action from disciplinary leaders, stronger institutional support for educators and learners, recognition of heterogeneous cohorts as a pedagogical strength, greater interdisciplinary collaboration between ecologists and quantitative specialists, and a shift from expectations of universal fluency towards a model of distributed expertise underpinned by foundational quantitative literacy. As ecology evolves, the need for quantitative literacy is greater than ever. Progress will depend not simply on identifying what should be taught and how, but on addressing the broader conditions that constrain the pace and scale of implementation of widely supported educational aspirations. We argue that reframing persistent challenges as interconnected problems of implementation, rather than aspiration, will help in overcoming a century of inertia in quantitative ecology education.

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Publication Details

Journal
Methods in Ecology and Evolution
Published
2026-09-08
DOI
https://doi.org/10.1111/2041-210x.70405
Primary Topic
Statistics Education and Methodologies
Type
article
Field-Weighted Citation Impact
0.00
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article

A century of inertia in quantitative ecology education

Anna Christian Riach, W Kay, Tiago A. Marques, John Fieberg et al.
Methods in Ecology and Evolution
Statistics Education and Methodologies
article

A century of inertia in quantitative ecology education

Anna Christian Riach, W Kay, Tiago A. Marques, John Fieberg, Crispin Y. Jordan, Fergus Chadwick, Luca Börger, Chris S. Sutherland, Camila Teicher
article en

Abstract

Abstract Ecology has undergone a profound methodological transformation through the rapid growth in new technologies, data volume, statistical innovation and analytical sophistication. These developments create unprecedented opportunities for novel ecological insights, but have also magnified longstanding concerns about quantitative training, which persist despite more than a century of debate and repeated calls for reform. Here, we posit why, despite enduring and widespread agreement on educational goals, progress in quantitative ecology education has remained limited. We argue that limited progress reflects a mismatch between widely supported reforms and the conditions needed to implement them at scale. While discussions of quantitative education have often focused on curricular content—what ecologists should learn—progress is also shaped by pedagogical, interpersonal, institutional and disciplinary factors. We discuss these interconnected components and argue that their combined influence helps explain the inertia that continues to characterise quantitative ecology education. Building on this diagnosis, we offer an integrated vision for quantitative ecology education. We argue that durable quantitative literacy is best developed through inclusive, context‐rich and people‐centred pedagogies that address barriers to learning, support diverse learners and ensure that procedural competence is grounded in strong conceptual understanding. We further advocate for coordinated action from disciplinary leaders, stronger institutional support for educators and learners, recognition of heterogeneous cohorts as a pedagogical strength, greater interdisciplinary collaboration between ecologists and quantitative specialists, and a shift from expectations of universal fluency towards a model of distributed expertise underpinned by foundational quantitative literacy. As ecology evolves, the need for quantitative literacy is greater than ever. Progress will depend not simply on identifying what should be taught and how, but on addressing the broader conditions that constrain the pace and scale of implementation of widely supported educational aspirations. We argue that reframing persistent challenges as interconnected problems of implementation, rather than aspiration, will help in overcoming a century of inertia in quantitative ecology education.

Methods in Ecology and Evolution
University of Leeds (GB), Minnesota Department of Natural Resources (US), University of Lisbon (PT), University of St Andrews (GB), At Bristol (GB), Swansea University (GB), D’Or Institute for Research and Education (BR), Cardiff University (GB), University of Wales (GB), University of Edinburgh (GB)
Quality Education
Openalex Percentile: Top 7%
Statistics Education and Methodologies
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