Since its inception, the QRC has been a hub of interdisciplinary research, drawing together UW faculty, students, associates, and visiting researchers in the study of everything from tectonics to climate, hydrosphere to ecosystems, and human evolution/adaptations to environmental impacts over the past 2.6 million years.
The “Quaternary” refers to the last 2.6 million years of Earth history, corresponding to the great ice ages and intervening interglacial periods. This interval embraces the history of humanity from the first stone tool users in Africa, human colonization of the habitable surfaces of the planet, agricultural innovations, and the economic diversification and intensifications that support a current population over 7 billion people. It encompasses major transformations of the Earth’s ecosystems through intervals of dramatic cooling and warming and anthropogenic habitat modification. Today, human “niche construction” has modified the majority of the earth’s surface, engendering significant impacts on the planet’s atmosphere, geosphere, hydrosphere, biosphere, and social systems.
Knowledge of environmental changes in the Quaternary facilitates an understanding of earth history in relation to the modern environment and future change. This link of the past, present, and future is fundamental to the interdisciplinary mission of the QRC. Processes set in motion through the Quaternary culminate today, in both intended and unintended anthropogenic impacts, at a global scale. Understanding this period thus requires science that considers the unique and interacting dynamics of atmospheric, aquatic, earth, biotic and social systems in interdisciplinary and comparative perspectives. Understanding the history, evolution, and variability of these linked systems forms the core mission of the QRC.
To that end, the QRC also embraces the study of a deeper time and even processes on other planets as they shed light on Earth’s Quaternary patterns and processes (e.g., processes and impacts of rapid warming in the Eocene or the geomorphological understanding of surface processes on Mars have implications for the future of a warming earth). This attention to comparative and time transgressive case studies at varying scales, centered on, but not limited to, the past 2.6 million years, makes the past relevant to the present and to our efforts to plan for a desirable future.
Core Services Offered
QRC Director reports to Dean of the College of the Environment
Related UW Entities
Earth and Space Sciences, Anthropology, Atmospheric Sciences, Biology, Civil and Environmental Engineering, Oceanography, Urban Design and Planning, Environmental and Forest Sciences, and Interdisciplinary Arts and Sciences at UW Tacoma
Institute of Earth Environment, Chinese Academy of Sciences; USGS, University of British Columbia, Nuka Research and Planning