Heating temperature (HT) during forest fires is a critical factor in regulating the quantity and
quality of pyrogenic dissolved organic matter (DOM). However, the temperature thresholds …

Despite the widespread use of photochemical and optical properties to characterize
dissolved organic matter (DOM), a significant gap persists in our understanding of the …

The mobilisation of potentially harmful chemical constituents in wildfire ash can be a major
consequence of wildfires, posing widespread societal risks. Knowledge of wildfire ash …

Increasing wildfire frequency, a consequence of global climate change, releases incomplete
combustion byproducts such as aquatic pyrogenic dissolved organic matter (DOM) and …

Global wildfire activity has increased since the 1970s and is projected to intensify throughout
the 21st century. Wildfires change the composition and biodegradability of soil organic …

Fire frequency and severity have increased in recent decades in the western United States,
with direct implications for the quantity and composition of soil organic matter (SOM). While …

Forest fires alter the quality of terrestrial dissolved organic matter (DOM) flushed into source
water, which could be further changed during alum coagulation and serve as potential …

As wildfires are of increasing concern in a warming world, there is a need to understand how
fire temperatures affect solute concentrations of forest litter and soils in drinking water …

While it is well known that wildfires can greatly contribute to soil water repellency by
changing soil chemical composition, the mechanisms of these changes are still poorly …

Landscape wildfires generate a substantial amount of dissolved black carbon (DBC)
annually, yet the molecular nitrogen (N) structures in DBC are poorly understood. Here, we …