Stand-replacing fires burned at 100 to 300-year intervals for millennia in subalpine conifer
forests of western North America, but forests are burning more frequently as climate warms …

Environmental change is accelerating in the 21st century, but how multiple drivers may
interact to alter forest resilience remains uncertain. In forests affected by large high‐severity …

Infrequent stand-replacing wildfires are characteristic of mesic and/or cool conifer forests in
western North America, where forest recovery within high-severity burn patch interiors can …

Background Concern is mounting that larger, stand-replacing forest fires may accelerate
compositional shifts or conversions to non-forested states under a warming climate. Post-fire …

Wildfire shapes forests worldwide, but a warming climate may alter postfire forest tree
regeneration by changing fire severity patterns (therefore increasing distance to seed …

Robust tree regeneration following high‐severity wildfire is key to the resilience of subalpine
and boreal forests, and 21st century climate could initiate abrupt change in forests if postfire …

Aim Climate warming and increased wildfire activity are hypothesized to catalyse
biogeographical shifts, reducing the resilience of fire‐prone forests world‐wide. Two key …

Climate change is expected to increase disturbances such as stand-replacing wildfire in
many ecosystems, which have the potential to drive rapid turnover in ecological …

Increased wildfire activity combined with warm and dry post-fire conditions may undermine
the mechanisms maintaining forest resilience to wildfires, potentially causing ecosystem …

Aim Climate warming is increasing fire activity in many of Earth's forested ecosystems.
Because fire is a catalyst for change, investigation of post‐fire vegetation response is critical …