Firebreak Optimization in Fire Prevention

Dear Colleagues,

Firebreak optimization has emerged as a critical strategy in contemporary wildfire prevention, serving as a foundation for reducing fire spread, protecting communities, and strengthening overall landscape resilience. Firebreaks, whether engineered structures or natural features, act as strategic barriers designed to halt or slow wildfire progression. However, as fire regimes evolve due to climate change, increased fuel loads, and expanding development at the wildland–urban interface, traditional firebreak designs are no longer sufficient. This Special Issue aims to highlight the innovations and scientific advancements that will enhance the strategic planning, design, and evaluation of firebreaks for proactive fire management.

Recent advances in geographic information systems (GIS), remote sensing, artificial intelligence, and predictive modeling have transformed firebreak planning from a largely static exercise into a dynamic, adaptive process. These technologies allow researchers and practitioners to determine optimal locations, widths, and configurations for firebreaks by integrating high-resolution spatial datasets, including terrain characteristics, vegetation structure, weather variability, fuel moisture content, and historical fire behavior. Such integration supports data-driven identification of high-risk zones where firebreaks can deliver maximum preventive value while minimizing ecological disruption.

In addition to spatial optimization, modern approaches emphasize multifunctional firebreaks that balance fire prevention needs with ecological and land management objectives. Firebreaks play a vital role not only in slowing fire spread, but also in supporting habitat connectivity, enabling safe access routes for firefighters, and serving as buffers for critical infrastructure. Nevertheless, challenges persist, including trade-offs between land use priorities, long-term maintenance demands, environmental impacts, and the financial costs associated with constructing and sustaining firebreak networks. Understanding these complexities requires interdisciplinary research combining physical science, ecological assessment, engineering, economics, and community engagement.

This Special Issue welcomes contributions that explore new methodologies, tools, and frameworks for optimizing firebreaks at both local and landscape scales. Research that integrates simulation-based fire spread modeling, machine learning algorithms, field validation, and stakeholder-driven planning will be particularly valuable. Studies addressing real-time firebreak performance assessment using unmanned aerial vehicles (UAVs), satellite data, and sensor networks are also encouraged, as they offer critical insights into how firebreaks function under active fire conditions and inform adaptive management strategies.

Furthermore, effective firebreak optimization requires alignment with broader fire management systems, including prescribed burning programs, vegetation management, emergency response planning, and fuel reduction initiatives. Contributions that examine how firebreaks can be incorporated into comprehensive, multi-layered fire management frameworks are especially relevant. By showcasing diverse global case studies, innovative methodologies, and integrated approaches, this Special Issue seeks to advance scientific and operational understanding while supporting communities striving to increase their wildfire resilience.

The areas of focus for this Special Issue include, but are not limited to, the following:

1. Fire risk mapping​;
2. Firebreak design optimization​;
3. Fire spread modeling;
4. Real‑time fire monitoring;
5. Fire impact mitigation;
6. Fire management integration​.

Dr. Harikesh Singh
Dr. Sanjeev Kumar Srivastava
Guest Editors

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