CPL Meteorology study plan
CPL Meteorology · Give each week a clear focus.
8 weeks · About 6 hours per week
Thunderstorms, Icing, Turbulence and Other Aviation Hazards & The Atmosphere: Composition, Structure and Standard Atmosphere
Define each hazard type (thunderstorm, icing, turbulence, wind shear, microburst) and write the physical mechanism that produces it in one sentence each
Explain the composition and vertical structure of the atmosphere, naming the layers, their boundaries and the temperature trend in each
State the standard atmosphere values (sea-level pressure, temperature, lapse rates) and apply them to compute pressure and temperature at three sample altitudes
List the conditions that favour thunderstorm development and match each to the hazard it generates in flight
Your checkpoint
A one-page hazard-to-mechanism table covering all domain 7 hazards plus a worked standard atmosphere calculation sheet with three solved altitude examples
Thunderstorms, Icing, Turbulence and Other Aviation Hazards & Moisture, Humidity and Atmospheric Stability
Describe the life cycle of a thunderstorm and identify the flight hazards present at each stage
Differentiate structural, airframe and induction icing and state the temperature and moisture conditions for each
Explain stability, lapse rate and the parcel method, then classify five given soundings as stable, unstable or conditionally unstable
Identify turbulence types and the synoptic and local situations that produce low-level wind shear and microbursts
Your checkpoint
A written 10-question self-test on hazards and stability, scored and corrected, with a short note on every wrong answer
Moisture, Humidity and Atmospheric Stability & Clouds, Precipitation and Fog
Define humidity variables (dew point, relative humidity, mixing ratio) and solve three dew-point depression and saturation problems
Explain the processes that lift air and trigger condensation, and link each to a cloud type
Classify the ten cloud genera by height and shape and state the weather and flight conditions each implies
Distinguish the formation mechanisms of radiation, advection, frontal and upslope fog and the visibility each typically gives
Your checkpoint
A cloud-and-fog identification chart mapping each cloud type and fog type to its formation mechanism and associated aviation conditions
Temperature, Pressure, Density and Their Altimetry Implications & Air Masses, Fronts and Synoptic Weather Systems
Explain how temperature, pressure and density relate and compute density altitude for three given field conditions
State the altimeter errors (pressure, temperature, instrument) and the safe-altitude rule for each
Describe air mass source regions and classification, and the weather each brings when it reaches your region
Explain the structure of warm, cold, occluded and stationary fronts and the weather sequence before, during and after passage
Your checkpoint
A closed-book mid-plan test of 25 mixed questions across domains 2 and 5, scored, with a written summary of the two weakest topics
Air Masses, Fronts and Synoptic Weather Systems & Wind: Global, Local and Upper-Level Circulation
Trace the life cycle of a mid-latitude cyclone and locate the hazardous weather relative to its fronts and pressure centre
Interpret isobar spacing, pressure gradient and the resulting surface wind, including Coriolis and friction effects
Explain global circulation, jet streams and their effect on upper-level winds and flight planning
Describe local wind systems (sea breeze, valley wind, mountain wave, Föhn) and the turbulence each produces
Your checkpoint
An annotated sketch of a mid-latitude cyclone with fronts, pressure pattern and the expected winds and hazards marked at labelled positions
Meteorological Observations, Reports and Forecast Products & Weather Charts, Briefings and Flight Planning Application
Decode METAR and TAF reports, extracting wind, visibility, cloud, weather and trend groups without error
Interpret significant weather charts, surface charts and upper-wind charts and extract the forecast for a given route
Read and apply SIGMET, AIRMET and warning products to a planned flight
Assemble a route briefing from chart and forecast products and state the go/no-go decision with reasons
Your checkpoint
A complete simulated route briefing pack: decoded METAR and TAF, annotated charts and a written go/no-go justification
The Atmosphere: Composition, Structure and Standard Atmosphere & Temperature, Pressure, Density and Their Altimetry Implications & Clouds, Precipitation and Fog & Wind: Global, Local and Upper-Level Circulation
Re-derive the key formulas from the lighter domains (standard atmosphere, density altitude, wind components) from memory
Answer 40 rapid-fire recall questions across domains 1, 2, 4 and 6 within 40 minutes
Correct every missed item and write a one-line rule for each to prevent repeat errors
Identify the two domains with the lowest scores and list the specific sub-topics needing revision
Your checkpoint
A timed 40-question recall test scored against a target of 80 percent, with a correction log and a prioritised revision list
Thunderstorms, Icing, Turbulence and Other Aviation Hazards & Air Masses, Fronts and Synoptic Weather Systems & Moisture, Humidity and Atmospheric Stability & Meteorological Observations, Reports and Forecast Products & Weather Charts, Briefings and Flight Planning Application
Complete two full-length mock exams under timed conditions and score each by domain
Analyse every incorrect answer to its root cause (knowledge gap, misread, or calculation error)
Re-study the three weakest sub-topics identified across both mocks
Recite the key facts for hazards, fronts and report decoding from memory in a final review session
Your checkpoint
Two completed timed mock exams with a domain-by-domain score breakdown and a final one-page revision sheet of weak points
Milestones
Week 2: Explain the thunderstorm life cycle and the icing conditions from memory, and score at least 7 of 10 on the hazards and stability self-test
Week 4: Score at least 70 percent on the 25-question mixed test for domains 2 and 5 and correctly compute density altitude in all three cases
Week 6: Decode a METAR and a TAF with no errors and produce a complete route briefing with a justified go/no-go decision
Week 8: Score at least 80 percent on both timed mock exams with no domain below 70 percent