Optimizing salt marsh restoration with context-dependent emergent trait mimicry and donor material selection

Ecosystem restoration is increasingly promoted as a tool to halt and reverse ongoing losses of coastal ecosystems and the services they provide. Recent work highlights that, in ecosystems shaped by habitat-forming species, restoration yields can be enhanced by temporarily mimicking key emergent traits. These traits are not expressed by individuals, but emerge when organisms aggregate to locally suppress environmental stress and are often vital for species' establishment and persistence. However, it remains unclear to what extent emergent-trait mimicry is context dependent and how donor material selection affects restoration success. Here, we experimentally studied the potential context dependency of trait mimicry and the effect of using donor source populations from contrasting environments in a three-year salt marsh restoration experiment. At two sites with contrasting hydrodynamic conditions – one relatively sheltered and the other exposed – we cross-transplanted plants from both sites into bare soil and 3D-printed biodegradable structures as trait-mimics, mimicking either sparse or dense vegetation patches. After three years, transplants from the sheltered site had two-fold higher survival and four-times more shoots compared to transplants from the exposed site. Furthermore, we found that in sheltered conditions, structures increased survival compared to control treatments, and plants in dense trait mimics grew the highest number of shoots. By contrast, most transplants in exposed conditions were lost after year one regardless of origin and treatment. We conclude that the donor source is a vital determinant for transplant establishment, and that emergent trait mimicry is context dependent for salt marshes, emphasizing the need for trait-mimics tailored to local conditions to increase restoration success. • Mimicry of emergent traits enhances S. anglica transplant survival and growth. • Engineering the density of 3D-printed trait-mimics increased salt marsh restoration success. • Higher restoration succes with transplants from sheltered environments, underscoring importance of donor material choice. • Three year field experiment reveals context dependence of establishment thresholds, site selection is key. • Tailoring trait-mimics to local environmental conditions is an effective nature-based strategy for ecosystem restoration.

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Publication Details

Journal
Ecological Engineering
Published
2025-04-05
DOI
https://doi.org/10.1016/j.ecoleng.2025.107611
Citations
1
Primary Topic
Coastal wetland ecosystem dynamics
Type
article
Field-Weighted Citation Impact
1.72

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article

Optimizing salt marsh restoration with context-dependent emergent trait mimicry and donor material selection

Clea N. van de Ven, Jannes H. T. Heusinkveld, Ralph J. M. Temmink, Tjisse van der Heide et al.
1 citations
Ecological Engineering
Coastal wetland ecosystem dynamics
1.72
article

Optimizing salt marsh restoration with context-dependent emergent trait mimicry and donor material selection

Clea N. van de Ven, Jannes H. T. Heusinkveld, Ralph J. M. Temmink, Tjisse van der Heide, Valérie C. Reijers, Pol Martinez‐Garcia
article en
1 citations

Abstract

Ecosystem restoration is increasingly promoted as a tool to halt and reverse ongoing losses of coastal ecosystems and the services they provide. Recent work highlights that, in ecosystems shaped by habitat-forming species, restoration yields can be enhanced by temporarily mimicking key emergent traits. These traits are not expressed by individuals, but emerge when organisms aggregate to locally suppress environmental stress and are often vital for species' establishment and persistence. However, it remains unclear to what extent emergent-trait mimicry is context dependent and how donor material selection affects restoration success. Here, we experimentally studied the potential context dependency of trait mimicry and the effect of using donor source populations from contrasting environments in a three-year salt marsh restoration experiment. At two sites with contrasting hydrodynamic conditions – one relatively sheltered and the other exposed – we cross-transplanted plants from both sites into bare soil and 3D-printed biodegradable structures as trait-mimics, mimicking either sparse or dense vegetation patches. After three years, transplants from the sheltered site had two-fold higher survival and four-times more shoots compared to transplants from the exposed site. Furthermore, we found that in sheltered conditions, structures increased survival compared to control treatments, and plants in dense trait mimics grew the highest number of shoots. By contrast, most transplants in exposed conditions were lost after year one regardless of origin and treatment. We conclude that the donor source is a vital determinant for transplant establishment, and that emergent trait mimicry is context dependent for salt marshes, emphasizing the need for trait-mimics tailored to local conditions to increase restoration success. • Mimicry of emergent traits enhances S. anglica transplant survival and growth. • Engineering the density of 3D-printed trait-mimics increased salt marsh restoration success. • Higher restoration succes with transplants from sheltered environments, underscoring importance of donor material choice. • Three year field experiment reveals context dependence of establishment thresholds, site selection is key. • Tailoring trait-mimics to local environmental conditions is an effective nature-based strategy for ecosystem restoration.

Ecological EngineeringVol. 216
University of Groningen (NL), Utrecht University (NL), Royal Netherlands Institute for Sea Research (NL), Institute for Sustainable Development (SI)
Nederlandse Organisatie voor Wetenschappelijk Onderzoek
Openalex Percentile: Top 18%
Coastal wetland ecosystem dynamics
1.72
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