Course Search Results

  • 3.00 Credits

    This course introduces advanced topics in dynamics of atmospheric motions. This course is a continuation of Dynamic Meteorology (ATMS 3420). Topics include: atmospheric oscillations and waves, synoptic scale instabilities, mesoscale instabilities and isentropic potential vorticity thinking. The last part of the course will introduce the dynamics of numerical modeling and prediction.
  • 0.00 - 3.00 Credits

    This course examines the role of thermodynamics and radiation in the atmosphere. Topics covered in the course include the First and Second Law of Thermodynamics, adiabatic and diabatic processes, thermodynamic diagrams, and stability. These concepts will prepare the student for understanding exactly how the earth is heated by solar radiation. Specifically, those principles in atmospheric radiation will be investigated, including solar and terrestrial radiation, blackbodies, absorption and emission, and scattering.
  • 3.00 Credits

    This course is a continuation of ATMS 4520. The physics relevant to the formation of droplets and precipitation, mixing and parcel theory, adiabatic lifting, nucleation, warm rain processes, cold rain processes, and the growth of hail are investigated. Finally, radiation concepts from ATMS 4520 are used to look at the impact of clouds on solar and terrestrial radiation.
  • 3.00 Credits

    Topics of special interest in various areas of earth science. The professor selects and designs the format most suitable to the study. Enrollment by consent of the instructor.
  • 3.00 Credits

    A collaborative learning course in conjunction with the American Meteorological Society (AMS) designed to focus on principles of meteorology from analysis of digitally delivered near real-time environmental data and learning activities. The course utilizes the display and analysis of atmospheric data with applications designed to be modified for use in other instructional formats. The analysis of weather maps is an integral part of the investigations component of the course. Students are expected to visualize, interpret, and interrogate various weather phenomena as they relate to the current state of the atmosphere. Basic prediction of future weather conditions is one of the culminating experiences of the course, after extensive online investigations. The course relies on data and support of the American Meteorological Society.
  • 3.00 Credits

    A collaborative learning course in conjunction with the American Meteorological Society (AMS) designed to focus on principles of oceanic analysis of digitally delivered near real-time environmental data and learning activities. The course utilizes the display and analysis of oceanic data with applications designed to be modified for use in other instructional formats. Specifically, it is designed to be a study of the four main branches of oceanography: 1) geology of the oceanic basins (origins of the oceans, structure and geomorphology of the ocean's floor, methods of investigation); 2) chemistry of the ocean waters; 3) physics of the oceans (currents, waves, tides, etc.); 4) biology of the oceans (marine plants and animals). The course relies on data and support of the American Meteorological Society.
  • 3.00 Credits

    A collaborative learning course in conjunction with the American Meteorological Society (AMS) designed to focus on principles of climate analysis of digitally delivered near real-time environmental data and learning activities. The course utilizes the display and analysis of climatic data with applications designed to be modified for use in other instructional formats. In this course the elements and controls of climate are analyzed in a systematic fashion. The physical parameters controlling climate are reviewed, as they relate to physics and chemistry. Climate science is concerned not only with the most frequently occurring types, the average weather, but the infrequent and unusual types as well. Climates of the past and potential future states of climate will be discussed and the impacts thereof. The student will be able to make an informed decision in the framework of a Citizen Scientist given the nature of a changing climate through data analysis utilized in this course. Near the conclusion of the course, human energy needs, policy implications and political ramifications are discussed based upon our best understanding of the impacts of the quickly changing climate. The course relies on data and support of the American Meteorological Society.
  • 3.00 Credits

    A collaborative learning course in conjunction with the American Meteorological Society (AMS) designed to focus on principles of atmospheric science analysis of observed environmental data and learning activities. Students learn about research initiatives from a variety of scholars and professionals employed in various sectors of the weather enterprise. The course employs a seminar format to facilitate interdisciplinary and cross institutional networking opportunities and leverages the existing institutional connections between Cal U, AMS and the National Oceanic and Atmospheric Administration (NOAA). These connections allow professionals to engage students in the seminar format where engagement is maximized. Professional focus is from the nationals centers (e.g., Weather Prediction Center, Storm Prediction Center, National Center for Environmental Prediction, Local National Weather Forecast Office, Space Weather Prediction Center, & National Weather Service Training Center). Learning modules are presented and students are tasked with engaging each other as they navigate course materials. Near the conclusion of the course, students are required to synthesize course materials and learning modules in a deliverable format for peers or other students at various learning capacities. Students then conduct their own peer-to-peer collaborations utilizing the learning tools presented in the course. The course relies on data and support of the American Meteorological Society.
  • 3.00 Credits

    A collaborative learning course in conjunction with the American Meteorological Society (AMS) designed to focus on principles of atmospheric science analysis of observed environmental data and learning activities. Students learn about research initiatives from a variety of scholars and professionals employed in various sectors of the weather enterprise. The course employs a seminar format to facilitate interdisciplinary and cross institutional networking opportunities and leverages the existing institutional connections between Cal U, AMS and the National Oceanic and Atmospheric Administration (NOAA). These connections allow professionals to engage students in the seminar format where engagement is maximized. Professional focus is from the nationals centers (e.g., Weather Prediction Center, Storm Prediction Center, National Center for Environmental Prediction, Local National Weather Forecast Office, Space Weather Prediction Center, & National Weather Service Training Center). Learning modules are presented and students are tasked with engaging each other as they navigate course materials. Near the conclusion of the course, students are required to synthesize course materials and learning modules in a deliverable format for peers or other students at various learning capacities. Students then conduct their own peer-to-peer collaborations utilizing the learning tools presented in the course. The course relies on data and support of the American Meteorological Society, NOAA, United States Naval Academy, Naval Meteorology and Oceanography Command, and by the Office of Naval Research.
  • 3.00 Credits

    A collaborative learning course in conjunction with the American Meteorological Society (AMS) designed to focus on principles of paleoclimatology & ice core analysis of observed environmental data and learning activities. Students learn about research initiatives from a variety of scholars and professionals employed in various sectors of the climate science enterprise. The course employs both face-to-face and online engagement to facilitate interdisciplinary and cross institutional networking opportunities and leverages the existing institutional connections between Cal U, AMS, Oregon State University, Dartmouth University (School of Ice), and the National Science Foundation (NSF). These connections allow professionals to engage students in the seminar format where engagement is maximized. Professional focus is from NSF-supported, university-level scientists. Learning modules developed in collaboration with the Ice Drilling program at Dartmouth University will be leveraged with students online and in-person. Students will be tasked with engaging each other as they navigate these course modules. Near the conclusion of the course, students are required to synthesize course materials and learning modules in a deliverable format for peers or other students at various learning capacities. Students then conduct their own peer-to-peer collaborations utilizing the learning tools presented in the course. The course relies on data and support of the American Meteorological Society.