Forest Fire Fieldwork

My name is Josephina Matibag, and I am an undergraduate student at Colorado State University studying Natural Resources Science. I worked as a student summer intern with the North Central Climate Adaptation Science Center at the University of Colorado Boulder, which led to my first experience in fieldwork. My specific work uses remote sensing data, such as satellites and imagery collected via airplanes, to understand the impacts of forest fires on forest carbon recovery.

New Blog - Forest Fire Fieldwork

A new blog by undergraduate, Josephina Matibag (Colorado State University) is now up on our webpage! Learn more about her experience as a Climate Adaptation Scientists of Tomorrow (CAST) student at NC CASC this summer, doing fieldwork with drones.

New Consortium to Enhance Research Efforts for Adapting to Impacts of Climate Change in North Central Region

The University of Colorado Boulder will serve as the regional hub for a consortium of partners with the expertise needed to address issues related to wildlife, ecosystems, climate change, and conservation. As part of a new 5-year cooperative agreement...

Exploring Elk Meadow: A Journey into Day and Night Ecological Research

A new blog by CAST student, Zakori Blackwell, is now out! He reflects on his summer experience working with Dr. Resasco in the Elk Meadow at University of Colorado Boulder’s Mountain Research Station.

Exploring Elk Meadow: A Journey into Day and Night Ecological Research

At the end of May, I stepped into the heart of Elk Meadow for the very first time. Located high in the mountains at University of Colorado Boulder’s Mountain Research Station, this alpine meadow offered a glimpse into the world of ecological research. Despite the lingering snow, the first buttercups of the season made their appearance—a promising sign of the flowers yet to come. The beautiful and peaceful surroundings provided a perfect backdrop for our research.

Abstract (from ESA Journals): Climate change is a well-documented driver and threat multiplier of infectious disease in wildlife populations. However, wildlife disease management and climate-change adaptation have largely operated in isolation. To improve conservation outcomes, we consider the role of climate adaptation in initiating or exacerbating the transmission and spread of wildlife disease and the deleterious effects thereof, as illustrated through several case studies. We offer insights into best practices for disease-smart adaptation, including a checklist of key factors for assessing disease risks early in the climate adaptation process. By assessing risk, incorporating uncertainty, planning for change, and monitoring outcomes, natural resource managers and conservation practitioners can better prepare for and respond to wildlife disease threats in a changing climate.

Under climate change, ecosystems are experiencing novel drought regimes, often in combination with stressors that reduce resilience and amplify drought’s impacts. Consequently, drought appears increasingly likely to push systems beyond important physiological and ecological thresholds, resulting in substantial changes in ecosystem characteristics persisting long after drought ends (i.e., ecological transformation). In the present article, we clarify how drought can lead to transformation across a wide variety of ecosystems including forests, woodlands, and grasslands. Specifically, we describe how climate change alters drought regimes and how this translates to impacts on plant population growth, either directly or through drought's interactions with factors such as land management, biotic interactions, and other disturbances. We emphasize how interactions among mechanisms can inhibit postdrought recovery and can shift trajectories toward alternate states. Providing a holistic picture of how drought initiates long-term change supports the development of risk assessments, predictive models, and management strategies, enhancing preparedness for a complex and growing challenge.