Forest fires are key ecosystem modifiers affecting the biological, chemical, and physical
attributes of forest soils. The extent of soil disturbance by fire is largely dependent on fire …

Post-fire hydrologic research typically focuses on the first few years after a wildfire, leading
to substantial uncertainty regarding the longevity of impacts. The time needed for hydrologic …

Debris flows are dense and fast-moving complex suspensions of soil and water that threaten
lives and infrastructure. Assessing the hazard potential of debris flows requires predicting …

Fire is a primary disturbance in the world's forested ecosystems and its impacts are
projected to increase in many regions due to global climate change. Fire impacts have been …

Wildfire‐induced changes to soil and vegetation promote runoff‐generated debris flows in
steep watersheds. Postfire debris flows are most commonly observed in steep watersheds …

Wildfire is a growing concern as climate shifts. The hydrologic effects of wildfire, which
include elevated hazards and changes in water quantity and quality, are increasingly …

We collected soil‐hydraulic property data from the literature for wildfire‐affected soils, ash,
and unburned soils. These data were used to calculate metrics and timescales of hydrologic …

Post‐wildfire changes to hydrologic and geomorphic systems can lead to widespread
sediment redistribution. Understanding how sediment moves through a watershed is crucial …

High-latitude forests of North America are characterized by their natural dependence on
large and severe wildfires. However, these wildfires also pose a range of social, economic …

Wildfire alters vegetation cover and soil hydrologic properties, substantially increasing the
likelihood of debris flows in steep watersheds. Our understanding of initiation mechanisms …