Jornada Bibliography
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2021. Ecological theory and practice in arid and semiarid ecosystems: a tale of two LTER sites. 59:151-180.
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2021. Plant species richness in multiyear wet and dry periods in the Chihuahuan Desert. Climate. 9(8):130.
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2020. AI recommender system with ML for agricultural research. IEEE IT Professional. 22:29-32.
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2020. Big data-model integration and AI for vector-borne disease predictor. Ecosphere. 11(6):1-20.
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2020. Deciphering the past to inform the future: preparing for the next (“really big”) extreme event. Frontiers in Ecology and the Environment. :10.1002/fee.2194.
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2020. Harnessing AI to transform agriculture and inform agricultural research. IEEE IT Professional. 22(3):16-21.
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2020. Harnessing the power of AI technologies for ecology: The knowledge learning analysis system (KLAS) for spatially-distributed, continuous ecological data. Ecological Society of America.
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2020. Modifying connectivity to promote state change reversal: the importance of geomorphic context and plant–soil feedbacks. Ecology. 101(9):e03069.
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2018. Can connectivity-mediated feedbacks to vegetation explain surprising ecological responses to catastrophic events? Ecological Society of America.
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2018. Developing an integrated knowledge landscape map using a trans-disciplinary approach. LTER All Scientists Meeting.
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2018. Harnessing the power of big data in ecology by machine learning. 10th Internationl Conference on Ecological Informatics.
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2018. An integrated View of Complex Landscapes: A Big Data-Model Integration Approach to Transdisciplinary Science. Bioscience. 68:653-669.
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2018. Long-Term Research at the Jornada Basin (LTER VII). LTER All Scientists Meeting 2018.
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2017. A toolkit for ecosystems ecologists in the time of big science. Ecosystems. 20:259-266.
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2016. Complex landscapes in the American Southwest: Under what conditions does desetification lead to novel ecosystems? 2016 Ecological Society of America Meetings.
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2016. Integrating legacy data to understand agroecosystem regional dynamics to catastrophic events. American Geophysical Union Fall Meeting .
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2016. A toolkit for ecosystem ecologists in the time of Big Science. Ecosystems.
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2015. Beyond desertification: new paradigms for dryland landscapes. Frontiers in Ecology and the Environment. 13(1):4-12.
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2015. Can we use the past as a lens to the future? Using historic events to predict regional grassland and shrubland responses to multi-year drought or wet periods under climate change 100th Annual Meeting of the Ecological Society of America.
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2015. Ecological challenges posed by climate uncertainty. The Economic and Financial Risks of a Changing Climate; Insights from Leading Experts. :8.
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2015. Forecasting regional grassland and shrubland responses to directional changes in climate using multi-year dry or wet periods. LTER 2015 All Scientists Meeting .
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2015. Forecasting regional grassland and shrubland responses to directional changes in climate using multi-year dry or wet period. 2015 LTER All Scientists Meeting.
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2015. The Jornada Basin long term ecological research program. 2015 LTER All Scientists Meeting.
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2014. Harnessing the power of big data: infusing the scientific method with machine learning to transform ecology. Ecosphere. 5(6)
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2014. Mechanisms of grass response in grasslands and shrublands during dry or wet periods. Oecologia. 174:1323-1334.
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2014. North American Biomes. Oxford Bibliographies.
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2013. Cross-site comparisons of state-change dynamics. Long-Term Trends in Ecological Systems: A Basis for Understanding Responses to Global Change. :36-41.
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2013. Desertification of Rangelands. Climate Vulnerability: Understanding and Addressing Threats to Essential Resources. 4:239-258.
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2013. Disturbance regimes and ecological responses across sites. Long-Term Trends in Ecological Systems: A Basis for Understanding Responses to Global Change. :58-71.
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2013. Landscape Diversity. Encyclopedia of Biodiversity. 4:476-487.
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2013. Long-term research across sites, ecosystems, and disciplines: synthesis and research needs. Long-Term Trends in Ecological Systems: A Basis for Understanding Responses to Global Change. :226-233.
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2013. Long-term trends in climate and climate-related drivers. Long-Term Trends in Ecological Systems: A Basis for Understanding Responses to Global Change. :81-114.
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2013. Long-Term Trends in Ecological Systems: A Basis for Understanding Responses to Global Change. :378.
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2013. Long-term trends in ecological systems: An introduction to cross-site comparisons and relevance to global change studies. Long-Term Trends in Ecological Systems: A Basis for Understanding Responses to Global Change. :1-20.
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2013. Long-term trends in human demography and economy across sites. Long-Term Trends in Ecological Systems: A Basis for Understanding Responses to Global Change. :162-190.
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2013. Long-term trends in precipitation and surface water chemistry. Long-Term Trends in Ecological Systems: A Basis for Understanding Responses to Global Change. :115-161.
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2013. Long-term trends in production, abundance, and richness of plants and animals. Long-Term Trends in Ecological Systems: A Basis for Understanding Responses to Global Change. :191-205.
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2012. Deciphering landscape complexity to predict (non)linear responses to extreme climatic events. American Geophysical Union. H54D-04
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2012. Directional climate change and potential reversal of desertification in arid and semiarid ecosystems. Global Change Biology. 18(1):151-163.
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2012. Grassland simulation models: A synthesis of current models and future challenges. Handbook of Ecological Models Used in Ecosystem and Environmental Management. :175-201.
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2012. How can science be general, yet specific: The conundrum of rangeland science in the 21st Century. Rangeland Ecology and Management. 65:613-622.
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2012. Long-term experimental loss of foundation species: consequences for dynamics at ecotones across heterogeneous landscapes. Ecosphere. 3(3):1-23.
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2011. Cross-system comparisons elucidate disturbance complexities and generalities. Ecosphere. 2(7):Article81.
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2011. Globalization: Ecological consequences of global-scale connectivity in people, resources, and information. The Systemic Dimension of Globalization. :211-232.
