Upscaling nature-based solutions for reducing risk from natural hazards: From process to practice

• Nature-based solutions yield coastal resiliency benefits while enhancing ecosystems • Cross-disciplinary collaboration is required to implement nature-based solutions • Nature-based solutions are scalable, improving regional community resiliency Nature-based solutions (NbS) offer an innovative approach to reducing risks from natural hazards, aligning ecological processes with engineering objectives. However, successfully scaling NbS from site-specific interventions to systems-level applications remains a challenge. This paper examines an Engineering With Nature® (EWN®) case study to explore how NbS can be integrated into broader, systems-based engineering practices, demonstrating the transition from conceptual design to wide-scale, regional implementation. One such case study is Deer Island, located off the coast of Mississippi, USA, where EWN approaches stabilized shorelines and restored critical habitats. The project utilized natural sediment transport processes to rebuild marsh and dune systems, enhancing the island's resilience to storm surges and erosion. Through careful integration of natural and engineered systems, Deer Island serves as a model for how NbS can mitigate risks at both local and regional scales, increasing the ability to recover from a natural disaster and overall ecological health. In particular, the case study highlights the benefit of designing for multiple integrated ecosystem components to deliver a diverse array of ecological functions, goods, and services. The paper further underscores the importance of interdisciplinary collaboration, highlighting the role of landscape architects in creating multifunctional designs that incorporate natural features and processes. These designs enhance ecosystem services while addressing societal needs, providing a blueprint for how when combined landscape architecture, science, and engineering can synergize in NbS projects. By synthesizing lessons from the EWN and emphasizing the need for cross-sector collaboration, this paper outlines pathways to scale NbS from localized efforts to comprehensive strategies that reduce coastal storm risk. [Encouraged to provide a graphical abstract at submission that summarizes the contents of your article in a concise, pictorial form; submit as a separate file in the online submission system, with image minimum of 531 × 1328 pixels (h x w) or proportionally more and is readable at a size of 5 × 13 cm using a regular screen resolution of 96 dpi; preferred file types are TIFF, EPS, PDF or MS Office]

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Publication Details

Journal
Advances in Water Resources
Published
2025-10-04
DOI
https://doi.org/10.1016/j.advwatres.2025.105135
Primary Topic
Coastal wetland ecosystem dynamics
Type
article
Field-Weighted Citation Impact
0.00
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article

Upscaling nature-based solutions for reducing risk from natural hazards: From process to practice

Jacob Berkowitz, Steven P. Bailey, Amanda Tritinger, Burton Suedel et al.
Advances in Water Resources
Coastal wetland ecosystem dynamics
article

Upscaling nature-based solutions for reducing risk from natural hazards: From process to practice

Jacob Berkowitz, Steven P. Bailey, Amanda Tritinger, Burton Suedel, Elizabeth Godsey, Jeffrey King, Sydney Crisanti
article en

Abstract

• Nature-based solutions yield coastal resiliency benefits while enhancing ecosystems • Cross-disciplinary collaboration is required to implement nature-based solutions • Nature-based solutions are scalable, improving regional community resiliency Nature-based solutions (NbS) offer an innovative approach to reducing risks from natural hazards, aligning ecological processes with engineering objectives. However, successfully scaling NbS from site-specific interventions to systems-level applications remains a challenge. This paper examines an Engineering With Nature® (EWN®) case study to explore how NbS can be integrated into broader, systems-based engineering practices, demonstrating the transition from conceptual design to wide-scale, regional implementation. One such case study is Deer Island, located off the coast of Mississippi, USA, where EWN approaches stabilized shorelines and restored critical habitats. The project utilized natural sediment transport processes to rebuild marsh and dune systems, enhancing the island's resilience to storm surges and erosion. Through careful integration of natural and engineered systems, Deer Island serves as a model for how NbS can mitigate risks at both local and regional scales, increasing the ability to recover from a natural disaster and overall ecological health. In particular, the case study highlights the benefit of designing for multiple integrated ecosystem components to deliver a diverse array of ecological functions, goods, and services. The paper further underscores the importance of interdisciplinary collaboration, highlighting the role of landscape architects in creating multifunctional designs that incorporate natural features and processes. These designs enhance ecosystem services while addressing societal needs, providing a blueprint for how when combined landscape architecture, science, and engineering can synergize in NbS projects. By synthesizing lessons from the EWN and emphasizing the need for cross-sector collaboration, this paper outlines pathways to scale NbS from localized efforts to comprehensive strategies that reduce coastal storm risk. [Encouraged to provide a graphical abstract at submission that summarizes the contents of your article in a concise, pictorial form; submit as a separate file in the online submission system, with image minimum of 531 × 1328 pixels (h x w) or proportionally more and is readable at a size of 5 × 13 cm using a regular screen resolution of 96 dpi; preferred file types are TIFF, EPS, PDF or MS Office]

Advances in Water ResourcesVol. 206
United States Army Corps of Engineers (US), U.S. Army Engineer Research and Development Center (US)
Openalex Percentile: Top 73%
Coastal wetland ecosystem dynamics
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