4-Panel Sequence – Votre Concierge

Tire Burst — Rejected Takeoff & Emergency Evacuation

FC-1

📖 Scenario

Last week, I began my takeoff roll from RWY34. While accelerating, one of the tires burst and I rejected the takeoff. Smoke and fire were visible near the main gear. Fire trucks quickly responded, and we initiated an emergency evacuation from the left side. Ambulances were standing by on scene.

Panel 1

Aircraft on RWY34 during takeoff roll — tire burst occurs.

Panel 2

Smoke and fire near main gear — fire trucks approaching.

Panel 3

Emergency evacuation begins — passengers exiting left-side doors.

Panel 4

All occupants evacuated — ambulances and fire crews on scene.

💬 Examiner Q&A

1Can you detect fire or smoke in the main gear area from the cockpit?

Yes. The cockpit has fire warning lights and EICAS alerts for landing gear fires. Ground crew and ATC may also report visible smoke or flames to the crew.

2What actions do you take in the cockpit during an emergency evacuation?

We initiate the evacuation checklist, communicate with the cabin crew, notify ATC, shut down the engines, cut fuel supply, and secure all systems to prevent further hazards.

3How does the RTO decision change around 80 knots?

Below approximately 80 knots we may reject for any confirmed abnormality. Above 80 knots we reject only for critical failures — engine fire, loss of directional control, or a crew call to reject. Minor issues are handled after takeoff.

4Why do passengers evacuate from the left side when fire is near the right gear?

The left side provides a clear escape route away from the fire. Using right-side exits would expose passengers to smoke and explosion risk. The cabin crew assess all exits and direct passengers away from the hazard.

5Why are evacuation roles divided between L1 and R4?

Dividing roles between the forward (L1) and rear (R4) positions ensures simultaneous control of passenger flow at both ends of the cabin, maximizing speed and minimizing bottlenecks at exits.

Key Vocabulary

Rejected Takeoff (RTO)Tire burstEmergency evacuationEvacuation checklistDecision speed (V1)Fire suppression

Sea-Land Breeze — Visual Approach, PAPI, Go-Around

FC-7

📖 Scenario

Last week, I flew to a coastal airport and initially planned a visual approach to RWY09. The wind changed direction, making RWY09 a tailwind runway, so I switched to RWY27. On approach to RWY27, the approach distance was shorter. When I aligned with the runway, the PAPI showed four whites — indicating I was too high — and I performed a go-around.

Panel 1

Aircraft inbound — initially planned visual approach to RWY09.

Panel 2

Wind direction changes — switch to visual approach RWY27.

Panel 3

PAPI shows 4 whites — aircraft is significantly above glide path.

Panel 4

Go-around executed — aircraft climbs away from runway.

💬 Examiner Q&A

1Why does sea-land breeze occur?

Sea-land breeze is caused by the temperature difference between land and sea. During the day, land heats faster than water, causing warm air to rise over land and drawing cooler sea air in. At night, the process reverses. This creates a regular wind direction change at coastal airports.

2How did you know you were on a high approach path?

The PAPI showed four white lights, indicating the aircraft was well above the ideal glide slope. Normally, a correct approach shows two red and two white lights. Four whites means too high; four reds means too low.

3At what type of airport does this situation occur more often?

Coastal and island airports are most affected, as they experience regular sea-land breeze cycles. The wind direction can shift significantly within a short time, requiring runway changes during operations.

4Do you prefer visual approaches? Why?

Visual approaches can be rewarding as they require greater situational awareness and judgment. However, they depend on good visibility and clear weather. I always ensure stabilized approach criteria are met, regardless of approach type.

Key Vocabulary

PAPI (Precision Approach Path Indicator)Visual approachSea-land breezeGo-aroundGlide slopeStabilized approach

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Taxiway Error in Heavy Rain — Wrong Turn Corrected

FC-8

📖 Scenario

Last week, during a heavy rain operation, we were instructed to taxi to Taxiway W. Due to poor visibility from the cockpit, the PM incorrectly advised the PF to take Taxiway N instead of Taxiway W. We realised the mistake just before entering the wrong taxiway, corrected our heading, and re-entered the correct route.

Panel 1

ATC clears aircraft to taxi via Taxiway W in heavy rain.

Panel 2

Poor cockpit visibility — PM incorrectly advises "take Taxiway N."

Panel 3

Crew realises error just before entering wrong taxiway.

Panel 4

Error corrected — aircraft re-enters correct taxiway route.

💬 Examiner Q&A

1Do you use the Airport Moving Map (AMM) during taxi? What do you do to avoid mistakes?

Yes, I always cross-reference the AMM with ATC taxi instructions and the airport chart. The PM calls out each turn and confirms the taxiway designation before the PF commits to the turn, especially in low visibility.

2What airports have complex taxi routes?

Large international airports such as London Heathrow (EGLL), Frankfurt (EDDF), Tokyo Narita (RJAA), and Hong Kong (VHHH) are known for complex taxiway layouts. Multiple intersections and parallel taxiways require precise communication and situational awareness.

3What would you do if you are unsure about a taxiway identifier near an intersection?

Stop the aircraft short of the intersection and request clarification from ATC. It is far safer to stop and confirm than to proceed with uncertainty and potentially enter a wrong or active runway.

4What would you do if crew disagrees on the taxi route?

Stop the aircraft, confirm both pilots' understanding of the route, and verify against the chart and AMM before proceeding. Clear communication and crew agreement on routing is essential for ground safety.

Key Vocabulary

Airport Moving Map (AMM)PF / PMTaxiway confusionLow visibility taxiRunway incursionCrew coordination

Bird Strike — Go-Around, Bird Sweep Request

FC-11

📖 Scenario

Last week, while on final approach, I noticed a large number of birds on the runway. I judged it unsafe to land and performed a go-around. I requested a Bird Sweep from the tower, and the Bird Sweeper used blank rounds to clear the runway. After the sweep was completed, I landed safely.

Panel 1

Aircraft on final approach — large flock of birds on runway.

Panel 2

Go-around executed — birds still present on runway surface.

Panel 3

Bird sweep vehicle uses blank rounds to disperse the flock.

Panel 4

Runway confirmed clear — aircraft lands safely.

💬 Examiner Q&A

1Would you go around for a single bird, or only for a flock?

For a single bird, I would likely continue the approach with caution, monitoring its movement. However, for a flock concentrated on the runway, the risk of multiple ingestions or windshield strikes is high enough to warrant an immediate go-around.

2Is a bird strike more critical during takeoff or landing?

Both phases are high-risk due to low altitude. A takeoff bird strike can be more critical if the engine is damaged before reaching V1, as aborting at high speed adds further risk. During landing, thrust is low, so an ingestion is less likely to cause immediate loss of thrust.

3Which airports have the highest bird strike risk?

Airports near bodies of water, open fields, wetlands, and wildlife reserves tend to have higher bird activity. Agricultural areas near an airport also attract birds. Information is available in NOTAMs and airport supplements.

4What are your criteria for going around vs. continuing the approach?

If the approach becomes unstabilised, visibility drops below minimums, runway conditions are unsafe, or a hazard such as a flock of birds is present, I will go around without hesitation. The decision to continue must meet all stabilised approach criteria.

Key Vocabulary

Bird sweepBird strikeGo-around criteriaEngine ingestionNOTAMStabilised approach

TCAS RA — Collision Avoidance, Passenger Injuries

FC-12

📖 Scenario

Last week, while climbing through FL370 on an ATC clearance, a sudden TCAS RA occurred. I performed the prescribed collision avoidance manoeuvre. The rapid manoeuvre generated negative G-forces, causing unbelted passengers to hit the ceiling and overhead bins.

Panel 1

Aircraft climbing through FL370 — TCAS RA triggers.

Panel 2

Pilot executes avoidance manoeuvre — rapid pitch change.

Panel 3

Negative G-forces — unbelted passengers strike ceiling.

Panel 4

Separation confirmed — crew assesses passenger injuries.

💬 Examiner Q&A

1What is the difference between a TCAS TA and RA?

A TA (Traffic Advisory) alerts the crew that traffic is in proximity — no immediate manoeuvre is required, but it heightens awareness. An RA (Resolution Advisory) provides a specific vertical manoeuvre instruction that the crew must follow immediately, overriding ATC instructions if necessary.

2What can be done to prevent passenger injuries during a TCAS RA?

The most effective prevention is ensuring passengers keep seatbelts fastened during flight. Pre-flight and in-flight announcements reminding passengers to keep belts fastened — even when the seatbelt sign is off — are critical. Cabin crew should also be seated and secured during climbing and descending phases.

3Is there a difference in the avoidance manoeuvre between a 737 and a 787?

The fundamental TCAS response is the same, but aircraft characteristics differ. The 787 is heavier and larger, so the manoeuvre may feel more gradual in terms of rate of change. Pilot response must still be prompt and decisive, following the RA advisory exactly.

4After a TCAS RA, what do you do?

Follow the RA manoeuvre until conflict is resolved, then return to the ATC-assigned altitude. Report the RA to ATC, complete an air safety report, and assess the situation in the cabin. If there are injuries, declare an emergency and divert if necessary.

Key Vocabulary

TCAS RA / TAResolution AdvisoryCollision avoidanceNegative GSeatbelt complianceAir safety report

Engine Failure — Single-Engine Aircraft, Emergency Landing

FC-9

📖 Scenario

Last week, I was flying a single-engine propeller aircraft. Shortly after takeoff, the engine failed. I had to make an emergency landing in a field. Fortunately, I identified a suitable area ahead. After landing safely, emergency services arrived on scene. A golf course nearby could have been an alternative landing area.

Panel 1

Single-engine aircraft climbs after takeoff — engine fails.

Panel 2

Pilot identifies field for emergency landing — no engine power.

Panel 3

Aircraft makes forced landing in field — touchdown.

Panel 4

Emergency services arrive — aircraft safely on ground.

💬 Examiner Q&A

1Why would a golf course be considered a better landing option?

A golf course offers a large, relatively flat grass surface with few major obstacles, making it more suitable for an emergency landing than an uneven agricultural field. The size reduces the risk of collision with trees, fences, or other obstructions.

2What is the immediate action after an engine failure after takeoff?

In a single-engine aircraft, the immediate priority is to establish best glide speed to maximise glide range. Identify the best available landing area, attempt a restart if altitude and time allow, declare an emergency, and prepare for a forced landing. Turning back to the runway is generally not recommended below a certain altitude.

3Does this airport have a control tower?

The scenario appears to involve a smaller or uncontrolled aerodrome. The presence or absence of a control tower would affect communication procedures during the emergency, but the priority remains aircraft control and securing a safe landing area.

Key Vocabulary

Engine failureForced landingBest glide speedEmergency declarationForced landing area selection

Rapid Decompression — Cargo Door Blowout & Engine Damage

FC-15

📖 Scenario

Last week during cruise, the left cargo door suddenly blew off. CABIN ALTITUDE and ENGINE FIRE warnings appeared in the cockpit. The door was ingested by the left engine, causing severe damage and smoke. Oxygen masks deployed in the cabin, and I immediately initiated emergency descent procedures.

Panel 1

Aircraft in cruise — cargo door blows off, CABIN ALTITUDE warning activates.

Panel 2

Door ingested by engine — ENGINE FIRE/SEVERE DAMAGE indication.

Panel 3

Cabin oxygen masks deploy — cabin crew assists passengers.

Panel 4

Emergency descent initiated — smoke trailing from damaged engine.

💬 Examiner Q&A

1Why is emergency descent necessary during decompression?

Above approximately 10,000 ft, the oxygen content is insufficient for normal breathing without pressurisation. During rapid decompression, Time of Useful Consciousness (TUC) can be very short at altitude. Emergency descent brings the aircraft to a safe altitude where passengers and crew can breathe normally.

2What is the first action during emergency descent?

Don oxygen masks immediately, then initiate the emergency descent checklist — typically selecting maximum descent rate, reducing thrust, extending speed brakes, and following the established procedure. ATC must be notified and an emergency declared.

3What is the difference between cockpit and cabin oxygen masks?

Cockpit masks provide a higher oxygen flow under pressure, enabling the crew to remain conscious and perform duties at high altitude for a longer period. Cabin passenger masks are chemical oxygen generators that provide a limited supply — typically 12–15 minutes — sufficient to reach a safe altitude.

4Why did the engine produce smoke after ingesting the cargo door?

The structural debris likely caused severe fan and compressor blade damage, leading to metal-on-metal contact, fuel leaks within the engine, and overheating — all of which can produce smoke or fire.

Key Vocabulary

Rapid decompressionEmergency descentTime of Useful Consciousness (TUC)Oxygen maskCABIN ALTITUDE warningEngine FOD ingestion

Engine Fire on Ground — Evacuation at Gate

FC-16

📖 Scenario

Last week, after block-in, ground crew noticed a fuel leak from the right engine. A mechanic then observed fire coming from the engine, spreading toward the wing. Passengers began evacuating through the left door using air stairs. The pilots evacuated via the cockpit ceiling escape hatch. Smoke was visible from the open door.

Panel 1

Aircraft parked at gate — ground crew notices fuel leak, right engine.

Panel 2

Fire confirmed spreading to wing — evacuation ordered.

Panel 3

Passengers evacuate via left door using steps (not slides).

Panel 4

Pilots evacuate via cockpit escape hatch — smoke from door.

💬 Examiner Q&A

1Why do passengers evacuate via the left side during a right engine fire?

The left side is clear of the fire hazard. Using right-side exits would put evacuating passengers in the path of fire, smoke, and potential fuel explosions. The cabin crew always direct passengers away from the affected side.

2Can pilots on the B787 evacuate through the cockpit window?

No. On the B787, the cockpit window cannot be opened for evacuation. Pilots evacuate via the cockpit escape hatch in the ceiling. This is different from older aircraft types that had side window rope escape systems.

3What should the cockpit crew be doing during a ground evacuation?

The cockpit crew should complete the evacuation checklist, shut down engines, isolate fuel, cut electrical power as required, communicate with the cabin crew and ground crew, and notify ATC and company. They coordinate the evacuation and confirm all occupants are clear before leaving the aircraft.

4Can pilots detect a cargo fire?

Yes. Modern aircraft have smoke detectors and fire suppression systems in the cargo compartments. Warning indications appear on the EICAS, alerting the crew. The crew then follow the cargo fire checklist, which includes activating the suppression system and assessing diversion options.

Key Vocabulary

Engine fire on groundCockpit escape hatchEvacuation checklistEICASFuel isolationCargo fire suppression

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