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Guided learning journeys that build knowledge step by step.
category · Learning · slug · learning · 7817 Paths
7817 Paths · page 514 / 782
A systematic learning path for graduate students beginning atmospheric research, covering research design, observational and modeling methods, data analysis, scientific communication, ethics, and reproducibility.
This advanced graduate-level path equips data scientists with the knowledge and skills to apply machine learning to atmospheric science data. It covers essential atmospheric data structures, statistical methods, and machine learning techniques for tasks like pattern recognition, clustering, and forecasting, with a focus on real-world applications such as weather prediction.
This advanced graduate learning path explores the two-way coupling between atmospheric chemistry and climate. It covers essential chemical, physical, and dynamical processes, then builds toward feedback mechanisms, chemistry-climate modeling, and future projections. The path emphasizes the roles of ozone and aerosols in the climate system and the tools used to study their interactions.
This graduate-level learning path explores the unique atmospheric processes governing polar regions, from fundamental radiative balance and circulation to advanced topics like polar cyclones, ozone depletion, and ice-atmosphere interactions. It emphasizes the role of polar regions in the global climate system and their response to climate change.
This graduate-level path explores the electrical processes in the atmosphere, from charge separation in clouds to the global electric circuit. It covers the physics of thunderstorm electrification, lightning, fair-weather electricity, and measurement techniques, providing a comprehensive understanding of atmospheric electricity as a coupled system.
This advanced graduate-level path explores the sources, formation mechanisms, physical and chemical properties, and atmospheric transformations of nanoparticles. It covers measurement techniques, modeling approaches, and the impacts of nanoparticles on climate and human health, culminating in an integrated understanding of their role in the Earth system.
This learning path equips energy professionals with the atmospheric science knowledge needed to understand and manage energy systems. It covers the physical principles of the atmosphere, the impact of energy systems on weather and climate, and the role of renewable energy and carbon capture in mitigating atmospheric impacts.
This learning path equips water resources professionals with advanced understanding of the coupled atmospheric and hydrological processes that drive the water cycle. It builds from foundational meteorology and hydrology to specialized topics in precipitation, runoff generation, flood forecasting, and drought, culminating in integrated hydrometeorological modeling. The path emphasizes practical applications for career development in water resources management.
A professional learning path for defense professionals to understand how atmospheric science informs national security operations, including environmental intelligence, battlefield weather, chemical/biological dispersion, and climate security.
This learning path equips professionals with the knowledge and skills to understand, develop, and apply climate services. It covers the scientific foundations of climate information, user needs, sector-specific applications, decision support frameworks, and effective communication and capacity building. The path progresses from core climate science to practical application, emphasizing the translation of climate data into actionable insights for decision-making.