Meteorology Course

Lesson 1 • Solar Radiation and Energy Balance

Covers insolation, albedo, and the greenhouse effect as drivers of atmospheric heating. Provides the energy framework underlying temperature gradients and circulation patterns.

Lesson 2 • Composition of the Atmosphere

Examines the gases, aerosols, and trace constituents that form the atmosphere. Establishes the chemical baseline needed for all subsequent thermodynamic and dynamic analysis.

Lesson 3 • Temperature and Heat Transfer

Explains conduction, convection, and radiation as heat transfer modes in the atmosphere. Introduces lapse rates and temperature inversions critical to stability analysis.

Lesson 4 • Atmospheric Pressure Fundamentals

Defines pressure, its vertical variation, and measurement techniques using barometers and altimeters. Links pressure gradients to wind formation covered in later chapters.

Lesson 1 • Gas Laws and the Ideal Gas Equation

Reviews Boyle's, Charles's, and the combined gas laws as applied to dry air parcels. Establishes the equation of state used in all parcel theory calculations.

Lesson 2 • Moisture Variables and Humidity

Defines mixing ratio, specific humidity, relative humidity, and dew point as moisture descriptors. Prepares students to interpret sounding data and forecast precipitation type.

Lesson 3 • Thermodynamic Diagrams

Teaches use of skew-T log-P and tephigram diagrams to analyse atmospheric soundings. Integrates all thermodynamic variables into a single operational forecasting tool.

Lesson 4 • Adiabatic Processes and Lapse Rates

Distinguishes dry and moist adiabatic lapse rates and explains their physical origins. Connects parcel cooling rates to cloud base height and convective initiation.

Lesson 1 • Boundary Layer and Surface Winds

Analyses how friction modifies geostrophic balance in the planetary boundary layer. Connects surface wind direction to pressure patterns and terrain effects.

Lesson 2 • Vorticity and Divergence

Introduces relative, planetary, and absolute vorticity and the vorticity equation. Connects divergence and vorticity advection to vertical motion and weather development.

Lesson 3 • Geostrophic and Gradient Wind

Derives geostrophic balance and extends it to curved flow with the gradient wind equation. Explains why upper-level winds closely follow isobars and height contours.

Lesson 4 • Forces Acting on Air Parcels

Identifies pressure gradient, Coriolis, gravity, and friction forces and their relative magnitudes. Establishes the force framework used to derive all wind equations in this chapter.

Lesson 1 • Cloud Microphysics

Covers nucleation, droplet growth by condensation, and the Bergeron-Findeisen process. Provides the microphysical basis for understanding precipitation efficiency and cloud seeding.

Lesson 2 • Fog and Low Visibility Phenomena

Classifies radiation, advection, upslope, and evaporation fog by formation mechanism. Links fog forecasting to surface energy balance and moisture availability concepts.

Lesson 3 • Cloud Classification and Identification

Applies the international cloud classification system by altitude and form to all major genera. Enables accurate cloud reporting and interpretation of satellite and surface observations.

Lesson 4 • Precipitation Types and Formation

Distinguishes rain, snow, sleet, freezing rain, and hail by their formation pathways. Prepares students to forecast precipitation type using temperature profiles and soundings.

Lesson 1 • Frontal Systems and Analysis

Defines cold, warm, occluded, and stationary fronts by their thermal and kinematic structure. Teaches frontal analysis techniques applied to surface weather charts.

Lesson 2 • Mid-Latitude Cyclone Development

Applies the Norwegian cyclone model and baroclinic instability theory to extratropical cyclones. Connects upper-level divergence and vorticity to surface cyclogenesis.

Lesson 3 • Anticyclones and Blocking Patterns

Examines subtropical and polar anticyclones, their subsidence, and associated weather regimes. Introduces blocking highs and their role in persistent weather anomalies.

Lesson 4 • Surface and Upper-Level Chart Analysis

Develops skills in drawing isobars, locating fronts, and analysing 500-hPa height patterns. Integrates surface and upper-level analysis into a coherent three-dimensional picture.

Lesson 1 • Convective Storm Environments

Quantifies instability, shear, and moisture parameters that distinguish severe from ordinary convection. Introduces composite indices used operationally to assess severe weather potential.

Lesson 2 • Thunderstorm Types and Life Cycles

Distinguishes single-cell, multicell, squall line, and supercell thunderstorms by structure and longevity. Connects storm type to the shear and instability environment analysed previously.

Lesson 3 • Mesoscale Convective Systems

Analyses bow echoes, derechos, and mesoscale convective complexes as organised convective modes. Links MCS structure to surface cold pools, rear-inflow jets, and damaging winds.

Lesson 4 • Flash Floods and Extreme Rainfall

Identifies meteorological ingredients for extreme rainfall and flash flood-producing storms. Connects storm motion, training cells, and precipitable water to flood potential.

Lesson 1 • Model Types and Grid Configurations

Compares global, regional, and convection-allowing models by resolution, domain, and application. Introduces vertical coordinate systems and their impact on terrain representation.

Lesson 2 • Ensemble Forecasting and Uncertainty

Introduces ensemble generation methods, spread-skill relationships, and probabilistic forecast products. Teaches interpretation of spaghetti plots, plume diagrams, and probability of exceedance.

Lesson 3 • Parameterisation Schemes

Describes cumulus, boundary layer, microphysics, and radiation parameterisations and their trade-offs. Explains how subgrid processes are represented and how scheme choice affects forecasts.

Lesson 4 • Governing Equations of the Atmosphere

Presents the primitive equations of motion, thermodynamics, and continuity as the NWP foundation. Connects each equation to the physical processes modelled in operational forecast systems.

Lesson 1 • Short-Range and Mesoscale Forecasting

Applies high-resolution model output and local knowledge to 0–48-hour mesoscale forecasts. Emphasises timing, location, and intensity of precipitation and severe weather events.

Lesson 2 • Forecast Process and Methodology

Structures the forecast process from data collection through product issuance using a systematic approach. Introduces conceptual models as mental frameworks for pattern recognition.

Lesson 3 • Forecast Verification and Improvement

Applies standard verification metrics including bias, MAE, RMSE, and skill scores to forecast evaluation. Connects systematic error identification to targeted forecast improvement strategies.

Lesson 4 • Medium-Range and Extended Forecasting

Uses ensemble guidance and teleconnection patterns for 3–14-day forecast preparation. Addresses predictability limits and communicating uncertainty to end users.