
Master the weather research and forecasting model for practical forecasting, covering data preparation, initial and boundary conditions, model configuration, running, post-processing, visualization, and verification.
Learn how numerical weather prediction uses initial conditions and grid points to forecast atmosphere. The WRF model, a limited-area system since the late 1990s and supported by UCAR, advances forecasts.
Explore how the WRF model architecture integrates a dynamic solver, physics parameterizations, and an input-output interface for high-resolution weather simulations. Emphasize open-source customization and data assimilation within the model.
Explore the WRF model's applications in weather forecasting and research, including short-term and long-term forecasts, severe weather prediction, air quality forecasting, climate modeling, and renewable energy forecasting.
Learn how the WRF model pre-processing system uses Geogrid, ungrib, and metgrid to prepare input data, generate initial and boundary conditions, and interpolate meteorological fields onto model grids.
Learn why a well-planned regional climate experiment with the WRF model saves time by ensuring high-quality initial and boundary conditions, meteorological forcing, land surface, emissions, and configuration data.
Obtain and prepare meteorological and land surface data for WRF by downloading high-resolution GFS boundary data, managing large archives, and validating with Tunisian wind and temperature observations.
To supplement this lecture, here is the link to the 'Mastering WRF and WRF-Chem model installation' course:
https://ms-academy.systeme.io/wrfinstall
Configure WRF namelist.input to set time control and domain, select physics and dynamics options, and generate initial and boundary conditions from GFS for a 0.25 degree or 1 degree forecast.
Learn to use the NCO toolkit to join, subset, and average NetCDF outputs from the WRF model, extract t2 with NQS, and convert results to csv or ascii formats.
Visualize WRF model output with NCL, creating 2D/3D plots, maps, and animations of temperature, precipitation, wind, and pressure, while learning the NCL script structure (import data, manipulate, visualize).
Learn to visualize wharf and ERA5 model outputs with the PostWRF toolkit, including contour plots, time series, windrose and skew-t diagrams, wind vectors, and geotiff conversion.
Learn to set up wrf with nested domains for regional downscaling and higher resolution forecasts. Optimize domain boundaries, grid spacing, and workflows to balance accuracy and computational cost.
Compare one-dimensional pbl schemes in the WRF model, including Miller-Yamada-Nakanishi-Nino, Yonsei University, and Ulster University non-local closures, to study vertical mixing and surface fluxes affecting two metre temperature.
Verify the WRF model output against Tunis-Carthage Airport observations using time series analysis, compute mean bias, mean absolute error, RMSE, and correlation, and visualize results in Python via Google Colab.
Learn how to couple the Worf model with Kfssr LBC data to set pressure levels and surface boundary conditions for improved weather forecasting.
Advance your numerical weather prediction skills with the wrf model by exploring data assimilation and real-time observations, and consider air quality modeling with scheme for pollutant transport.
Welcome to the Introduction to Weather Forecasting with the WRF Model course on Udemy. In this comprehensive course, we will guide you through the process of using the Weather Research and Forecasting (WRF) model for weather forecasting and research.
In Section 1, we will introduce you to the WRF model and provide you with a basic understanding of its principles and how it works. We will also give you an overview of the different sections covered in the course.
Section 2 will provide you with a brief history of Numerical Weather Prediction (NWP) and the development of the WRF model. You will learn about the various applications of WRF in weather forecasting and research.
In Section 3, we will guide you through the pre-processing phase of the WRF model. You will learn about the data requirements for WRF modeling, how to obtain and prepare meteorological and land surface data, and how to generate initial and boundary conditions.
Section 4 will focus on running the WRF model. You will learn how to configure the WRF model, run it, and post-process model outputs.
Section 5 will cover model output analysis. You will learn how to visualize the WRF model output using NCL and PostWRF. We will cover basic visualization techniques as well as more advanced visualization techniques.
In Section 6, we will dive into advanced topics and case studies. You will learn about nested domains, boundary layer physical parameterizations, verification of model output with observations, and coupling WRF with other global models.
Finally, in Section 7, we will conclude the course by providing you with suggestions for further learning and development. You will have a solid understanding of the WRF model and its applications, and be equipped with the necessary skills to start using it for your own weather forecasting and research needs.
Enroll in this course today and take your first step towards mastering the WRF model!