Загрузка страницы

Rachel Prudden: Probabilistic modelling for atmospheric science: beyond the noise

In both atmospheric science and machine learning, it is important to capture the uncertainty of predictions. This information can avoid the dangers of relying on over-confident predictions which may be incorrect, and help to understand the potential for high-impact rare events. Nonetheless, to focus only on capturing uncertainty risks giving an incomplete picture of the strengths of probabilistic modelling. At their heart, probabilistic models are about information. How does a new observation influence our mental model of the world? In this talk, I will discuss the use of probabilistic models in atmospheric science and how they can aid scientists in interpreting incomplete observations. I will also present some early work in this direction for spatial reasoning and time-series analysis.

Rachel is a senior scientist in the Informatics Lab, working on ways to combine physics-based numerical simulation with machine learning. Her research spans several projects with collaborators in the Met Office and beyond - active projects include emulation of gravity wave parameterisations with ML models; applications of causal inference to climate indices; using spatial statistical models to understand convective-scale variability; and new methods for spatial verification. She is currently undertaking a PhD at the University of Exeter, with a focus on using Gaussian random fields for stochastic super-resolution of convective-scale fields.

Видео Rachel Prudden: Probabilistic modelling for atmospheric science: beyond the noise канала Oxford ML and Physics Seminars
Показать
Комментарии отсутствуют
Введите заголовок:

Введите адрес ссылки:

Введите адрес видео с YouTube:

Зарегистрируйтесь или войдите с
Информация о видео
14 июня 2021 г. 12:53:38
01:00:26
Другие видео канала
Mike Walmsley: Galaxy Zoo(m): Probabilistic Galaxy Morphology via Bayesian CNNs and Active LearningMike Walmsley: Galaxy Zoo(m): Probabilistic Galaxy Morphology via Bayesian CNNs and Active LearningArvind Neelakantan: Text and Code EmbeddingsArvind Neelakantan: Text and Code EmbeddingsRicardo Vinuesa: Artificial Intelligence, Computational Fluid Dynamics, and SustainabilityRicardo Vinuesa: Artificial Intelligence, Computational Fluid Dynamics, and SustainabilityAtılım Güneş Baydin: Probabilistic Programming for Inverse Problems in the Physical SciencesAtılım Güneş Baydin: Probabilistic Programming for Inverse Problems in the Physical SciencesArd Louis: Deep neural networks have an inbuilt Occam’s razorArd Louis: Deep neural networks have an inbuilt Occam’s razorGuillaume Lample: Deep Learning for Symbolic MathematicsGuillaume Lample: Deep Learning for Symbolic MathematicsBrian Spears: Cognitive Simulation: combining simulation and experiment with artificial intelligenceBrian Spears: Cognitive Simulation: combining simulation and experiment with artificial intelligenceEliu Huerta: AI for Science: Let’s talk businessEliu Huerta: AI for Science: Let’s talk businessBen Nachman: Extracting the most from collider data with deep learningBen Nachman: Extracting the most from collider data with deep learningLaure Zanna: Climate Modeling in the Age of Machine LearningLaure Zanna: Climate Modeling in the Age of Machine LearningTim Green: Highly accurate protein structure prediction with AlphaFoldTim Green: Highly accurate protein structure prediction with AlphaFoldPeter Dueben: Machine learning for weather predictionsPeter Dueben: Machine learning for weather predictionsDavid Spergel: Determining the Universe’s Initial ConditionsDavid Spergel: Determining the Universe’s Initial ConditionsAdrien Gaidon: Self-supervised 3D visionAdrien Gaidon: Self-supervised 3D visionMaurizio Pierini: Doing more with less: Deep Learning for Physics at the Large Hadron ColliderMaurizio Pierini: Doing more with less: Deep Learning for Physics at the Large Hadron ColliderMichael Kagan: Generative Model Based Design Optimization and UnfoldingMichael Kagan: Generative Model Based Design Optimization and UnfoldingSéamus Davis: Machine learning in electronic-quantum-matter imaging experimentsSéamus Davis: Machine learning in electronic-quantum-matter imaging experimentsStéphane Mallat: Hamiltonian Estimations by Conditional Renormalisation Group and Convolution NetsStéphane Mallat: Hamiltonian Estimations by Conditional Renormalisation Group and Convolution NetsPhiala Shanahan: Provably exact sampling for first-principles theoretical physicsPhiala Shanahan: Provably exact sampling for first-principles theoretical physicsJonas Buchli & Federico Felici: Magnetic control of tokamak plasmas with deep reinforcement learningJonas Buchli & Federico Felici: Magnetic control of tokamak plasmas with deep reinforcement learning
Яндекс.Метрика