Climate Assessment and Impacts Specialization in
Natural Resource Sciences Graduate Program
Available to both MS and PhD candidates.
The Climate Assessment and Impacts specialization provides students with unique opportunities to emphasize
- understanding the interactions between climate and society
- learning methodologies for climate assessment and impacts
Students selecting this specialization will be able to capitalize on the expertise of scientists and other students working on climate assessment, climate impacts, and problem-oriented policy research.
A related graduate degree program in Agronomy & Horticulture has a specialization in Agricultural Meteorology and selected faculty from the School of Natural Resources can advise potential students.
This specialization is for students interested in focusing on learning the methodologies to assess climate variability and longer-term climate change and their impacts on society and natural resource systems. Complex climate-based problems, and their interrelationships with natural resources and ecosystem management issues, are pervasive today and will become even more important in the future. Issues such as natural hazard management, climate variability and climate change, changing frequency and severity of extreme climate events, environmental degradation, climate-crop interactions, carbon and water gas exchanges, deforestation, and natural resources management in light of the increasing demand for water and other natural resources are examples of potential topics covered within the scope of this specialization.
Students selecting this specialization can enhance their learning experiences through interactions with the High Plains Regional Climate Center (HPRCC), the Nebraska State Climate Office (NSCO), the National Drought Mitigation Center (NDMC), and the Center for Advanced Land Management Information Technologies (CALMIT), four organizations housed under the School of Natural Resources that partner in many state, regional, national, and international climate-assessment activities. The NSCO also maintains the Automated Weather Data Network for Nebraska, which offers a wealth of climate data for research applications. The internationally-recognized Applied Climate Science faculty network provides students with the opportunity to interact with experts at other universities as well as with scientists in federal agencies and regional and international organizations.
The objectives of the specialization include:
- To develop a proficiency in multiple topics related to applied climate sciences
- To understand the interactions between climate variability and climate change and their impacts on society and natural resource systems
- To utilize the opportunity to interact with experts associated with scientists at the HPRCC, NSCO, NDMC, and CALMIT, as well as scientists at other universities, federal agencies, and regional and international organizations.
Faculty Point-of-Contact
If you are interested in the Climate Assessment and Impacts graduate specialization, please feel free to contact the following SNR faculty member:
- Minimum of 12 graduate credit hours in climate assessment and impacts courses approved by student’s supervisory committee
- Required Courses
- NRES 408/808 - Microclimate: The Biological Environment
- NRES 452/852 - Climate and Society
- NRES 469/869 - Bio-Atmospheric Instrumentation or NRES 907 - Agricultural Climatology or NRES 454/854 - Regional Climatology
- Choose 1 of the following:
- METR 423/823 - Physical Climatology
- NRES 906 - Crop Growth and Yield Modeling
- NRES 908 - Solar Radiation Interactions at the Earth's Surface
- NRES 867 - Global Climate Change
- NRES 954 - Turbulent Transfer in the Atmospheric Surface Layer
- Undergraduate course work may meet some of the course requirements listed above. However, the student wishing the climate assessment and impacts specialization is still required to take a minimum of nine hours of graduate level climatology, climate impacts, remote sensing, GIS, or others courses related to climate assessment and impacts.
- Proficiency in quantitative methods at a level appropriate for the student’s research and degree as approved by the supervisory committee (for the M.S., this will normally be at the level of multivariate statistics or equivalent)
- Thesis or dissertation topic in climate assessment or climate impacts or problem-oriented policy research
- The chair of the student’s supervisory committee must be from the climate assessment and impacts faculty listed on the specialization web page.
Please see our entrance requirements and application procedure pages for more information about our admission and application expectations for graduate degree candidates.
Students selecting this specialization may find potential employment opportunities with
- environmental consulting firms
- environmental- and agricultural-related businesses
- planning agencies
- non-governmental organizations (NGOs) and governmental agencies addressing climate and natural resources management issues
- defense industry as a civilian or with the Armed Services
- secondary-level teacher
- climate impact specialist
- research project assistant working with climatologists, natural resource managers, etc. located with colleges and universities
Selected Dissertations & Theses
Applications of Artificial Intelligence on Drought Impact Monitoring and Assessment - Beichen Zhang
- Dissertation Defense
- 05/07/2024
Assessing the skill of state-of-the-art seasonal climate prediction techniques over Ethiopia - Andualem Shiferaw
- Dissertation Defense
- 11/28/2023
Skillful, timely, and reliable seasonal forecasts are crucial in mitigating the adverse impacts of climate-induced risks in Ethiopia and the rest of Greater Horn of Africa region. However, access to skillful and usable forecasts is currently challenging. This study evaluated the skill of raw and bias-corrected deterministic and probabilistic summer (JJA) rainfall forecasts from the Climate Forecast System Version 2 (CFSv2) for Ethiopia, spanning lead times from 0.5 to 4.5 months. The investigation also considered the influence of increased ensemble size on forecast skill by comparing performance of CFSv2 with the North American Multi-Model Ensembles (NMME). The findings indicated that CFSv2 exhibited limited skill for operational use in seasonal rainfall forecasting over Ethiopia. In contrast, NMME displayed promise, suggesting that with some value addition efforts such as bias correction, statistical downscaling, and identification of smaller subset of best performing models, could position it as a valuable component in Ethiopia's seasonal climate forecast services.
Despite their potential usefulness, coarse resolution global models like CFSv2 fail to meet users’ need for forecasts at local to regional scales. To address this limitation, the Weather Research and Forecasting model (WRF) was explored for its potential to enhance CFSv2 forecasts through downscaling. A sensitivity study using WRF identified optimal parameterization schemes, utilizing Climate Forecast System Reanalysis (CFSR) for initial and boundary conditions. Subsequently, the WRF model, configured with the identified optimum model configuration, was employed to downscale operational CFSv2 summer season rainfall forecasts. Despite downscaling a small subset of ensemble members, the WRF model demonstrated value in refining raw CFSv2 forecasts. However, additional research is essential to further fine-tune WRF configurations, potentially minimizing biases and enhancing forecast skill. The findings of this study are expected to contribute towards improving access to skillful and usable seasonal predictions that could help decision-makers in mitigating adverse impacts of climate induced risks.
Monitoring and assessing forage production in grazed grasslands of Nebraska: Toward Adaptive Grazing - Biquan Zhao
- Dissertation Defense
- 11/06/2023
Localizing Climate Assessment Tools - Stonie Cooper
- Dissertation Defense
- 04/25/2023
Focus on global climate change can overlook the nuances of local weather and climate impacts. This study describes tools and methods for creating and observing weather and climatic conditions on a temporal and geographic scale that represents the environment of Nebraska. Recognition of the limited resources available for continuous application of new data and gathering of observations provides a guide for a “best practice” scientific, yet economic, model for maintaining an observational network and deriving value-added products.
Utilizing Federally maintained datasets of geographically relevant cooperative observations as a backdrop, the locally implemented and maintained weather observation network, the Nebraska Mesonet, is assessed against the official national climate records. Strategies for increasing the relevance and reliability of the Nebraska Mesonet observed parameters that show inconsistencies are discussed. Quality control techniques are tested and evaluated to provide confidence in the recorded observations, with recommendations made to mitigate and limit errant data from entering an official Nebraska Mesonet record.
Impacts of Irrigation on a Precipitation Event During GRAINEX in the High Plains Aquifer Region - Daniel Whitesel
- Thesis Defense
- 03/29/2022
Land use land cover change, including irrigation, impacts weather and climate. In this thesis a precipitation event that occurred during the Great Plains Irrigation Experiment (GRAINEX) is investigated. The event was observed on the morning of 23 July 2018. Six model-based experiments were conducted which involved increase or decrease of soil moisture by 5% and up to 15% over the irrigated croplands. These changes were approximation of soil moisture content in response to different levels of irrigation applications. An additional experiment, where irrigated land use was changed to grassland, was conducted to capture pre-irrigation land use and its impacts. It was found that regardless of level of irrigation, average precipitation decreased. However, precipitation decrease was greater under drier conditions. In addition, as observed, the model did not produce precipitation over non-irrigated land use. When grassland replaced the irrigated agriculture, increases in precipitation was reported. With increased irrigation, latent heat flux increased compared to control simulation and decreased when irrigation decreased. On the other hand, sensible heat flux was decreased compared to control when irrigation increased. The planetary boundary layer over irrigated land use was shallower than over non-irrigated land use while over grassland it was higher than irrigated but lower than non-irrigated land use. The changes in precipitation, the surface energy balance, and the planetary boundary layer served as a reminder of irrigation’s complex effects on the atmosphere. Additional analysis of the other precipitation events during GRAINEX would be helpful to better understand the effects of irrigation.