Adapting Permeable Reactive Barriers for Surface Application and Developing Novel Soil Amendments for Post-Wildfire Runoff Mitigation

Post-wildfire rain events can generate significant runoff due to reduced ground cover and the formation of a hydrophobic soil layer, leading to flash floods that threaten downstream infrastructure and degrade water quality. To address these challenges, we developed two novel mitigation technologies: Surface-Level Permeable Reactive Barriers (SLBs) for immediate flow reduction and water quality improvement, and CoverBombs for long-term soil remediation, infiltration, and watershed recovery. While testing was conducted under controlled conditions, design parameters were informed by slope and spacing conditions from Cuesta Ridge in San Luis Obispo, California. SLBs reduced runoff velocity by 82.6%, total suspended solids by 97.9%, and turbidity by 95.7%, while CoverBombs improved infiltration by up to 10.55 times within 18 days. Together, these tools offer a scalable and low-impact solution for enhancing post-fire watershed resilience.

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Published
2025-05-23
DOI
https://doi.org/10.1109/werc66199.2025.11143799
Primary Topic
Fire effects on ecosystems
Type
article
Field-Weighted Citation Impact
0.00

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article

Adapting Permeable Reactive Barriers for Surface Application and Developing Novel Soil Amendments for Post-Wildfire Runoff Mitigation

Ashley Novotney, Annika Schubert, Sebastian Casanova Milkes, Daryn Panchak
Fire effects on ecosystems
article

Adapting Permeable Reactive Barriers for Surface Application and Developing Novel Soil Amendments for Post-Wildfire Runoff Mitigation

Ashley Novotney, Annika Schubert, Sebastian Casanova Milkes, Daryn Panchak
article en

Abstract

Post-wildfire rain events can generate significant runoff due to reduced ground cover and the formation of a hydrophobic soil layer, leading to flash floods that threaten downstream infrastructure and degrade water quality. To address these challenges, we developed two novel mitigation technologies: Surface-Level Permeable Reactive Barriers (SLBs) for immediate flow reduction and water quality improvement, and CoverBombs for long-term soil remediation, infiltration, and watershed recovery. While testing was conducted under controlled conditions, design parameters were informed by slope and spacing conditions from Cuesta Ridge in San Luis Obispo, California. SLBs reduced runoff velocity by 82.6%, total suspended solids by 97.9%, and turbidity by 95.7%, while CoverBombs improved infiltration by up to 10.55 times within 18 days. Together, these tools offer a scalable and low-impact solution for enhancing post-fire watershed resilience.

California Polytechnic State University (US)
Research and Development
Openalex Percentile: Top 78%
Fire effects on ecosystems
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Adapting Permeable Reactive Barriers for Surface Application and Developing Novel Soil Amendments for Post-Wildfire Runoff Mitigation — Ashley Novotney, Annika Schubert, et al. · (2025) | TGRS Research Map | TGRS