Norway CPL Theory study plan

Derive the four forces in steady level, climb, and descent flight and explain how each is balanced from a labelled free-body sketch you draw from memory

Explain how camber, angle of attack, and the boundary layer produce lift, and describe the pressure distribution over a wing at low and high angle of attack

Describe the function and failure consequences of the primary flight control surfaces, flaps, slats, spoilers, and trim systems on a typical light twin or single

Trace the electrical power flow from battery and alternator/generator through bus bars, and state what is lost on alternator failure

Solve ten induced-drag and lift-coefficient relationship questions without notes, recording each error and its cause

Explain stability in all three axes, including static versus dynamic stability and the effect of centre of gravity position on longitudinal stability

Describe stall onset, the factors that raise stall speed, and the correct recovery procedure, and explain why a spin requires both stalled and yawed conditions

Interpret a typical atmosphere table to derive pressure altitude, density altitude, and temperature lapse effects

Explain how pressure, density, temperature, and humidity change with altitude and how each affects aircraft performance

Identify the formation of cumuliform and stratiform cloud and associate each with the stability of the prevailing air mass

Decode a METAR and a TAF line by line, stating the meaning of every group including wind, visibility, cloud, temperature, pressure, and trend

Interpret significant weather charts and low-level wind and temperature charts, and extract the hazard picture for a planned route

Explain the formation and hazards of icing, turbulence, wind shear, and thunderstorms, and state the avoidance strategy for each

State the classes of airspace, their meteorological minima, and the cruising level rules applicable in Norwegian airspace

Outline the rules on flight plan submission, position reporting, and clearance readback in controlled airspace

State the privileges and limitations of the CPL and the medical, recency, and logbook requirements that keep it valid

Explain the rules of the air on right of way, cruising levels, minimum heights, and lights and signals

Describe accident and incident reporting duties and the purpose of the occurrence reporting system

Apply standard operating procedures for pre-flight, taxi, departure, and approach briefings, and explain the purpose of each checklist

Explain fuel planning, alternate selection, and the handling of emergencies such as engine failure after take-off and pressurisation loss

Compute mass, centre of gravity, and moment for a loading sheet and confirm the result lies inside the envelope

Explain how centre of gravity position affects stall speed, cruise performance, and controllability, and state the consequences of exceeding forward and aft limits

Extract take-off and landing distance data from a performance chart for given mass, pressure altitude, temperature, wind, and runway condition

Calculate climb, cruise, and fuel consumption figures and explain the effect of density altitude on each

Explain the effect of runway slope, surface, and contamination on accelerate-stop and take-off distances

Build a full navigation flight plan including route selection, headings, times, fuel, and alternates

Apply the triangle of velocities to compute true heading and ground speed from wind and true course, and convert between true, magnetic, and compass headings

Read a topographical chart to identify position, relief, obstacles, and controlled airspace along a route

Explain the principles of the Lambert conformal conic and Mercator projections and their distortion characteristics

Compute great circle and rhumb line distances and explain when each is appropriate

Describe the operating principles, errors, and failure indications of the pitot-static instruments and explain the correct response to each failure

Explain the gyroscopic instruments, their power sources, and the indications of a vacuum or electrical failure

Describe the display and interpretation of the heading, attitude, and navigation instruments in a glass cockpit

Explain the principles of VOR, DME, ILS, and GNSS, including the meaning of the indications and common errors such as false glide path or multipath

Interpret a radio navigation approach chart and state the tracking and descent actions it requires

Explain the causes, signs, and countermeasures for hypoxia, hyperventilation, spatial disorientation, and carbon monoxide poisoning

Describe the effects of fatigue, stress, and workload on decision making and apply a recognised decision-making model to a deteriorating in-flight scenario

Explain the limitations of human sensory perception in illusions such as the leans, somatogravic illusion, and black hole approach

Review flight planning and air law weak points identified in earlier weeks and correct each recorded error

Complete a timed mixed-subject mock examination and analyse every incorrect answer by domain

Re-derive the lift, drag, and thrust relationships and solve five mixed performance and stability questions under time pressure

Re-interpret a full weather package and justify a go/no-go decision without referring to notes

Explain the effect of ice, contamination, and turbulence on lift and performance and the associated handling actions

State the meteorological minima and cruising level rules again from memory and correct any drift from week 3

List the five most common error patterns you have made and the check that prevents each