British Airways Pilot Interview Questions 2026

Immediate Recognition — We Are Not Stabilised — At 1,000 feet AGL on an ILS approach, I am checking five parameters against BA's stabilised approach criteria: speed within Vapp +10/−5 knots, on glideslope within one dot, on localiser within one dot, correct landing configuration (gear down, flaps as briefed), and sink rate not exceeding 1,000 fpm. If any parameter is out of range, I would make a specific callout: 'Speed 152 — Vapp is 138' or 'Sink rate 1,200 — we briefed maximum 1,000.' A vague 'not looking great' is useless because it does not tell the Captain what to fix. If the Captain corrects and we re-establish stable parameters, we continue. If we reach 500 feet and the approach is still not stable, I would call: 'Not stabilised — go around.' If the Captain does not respond or continues below 500 feet unstabilised, I would escalate: 'Captain, we are not stabilised. Going around.' BA's policy is unambiguous: unstabilised at the gate = mandatory go-around.

Graduated Response — From Prompt to Go-Around Call — Your response follows the graduated assertiveness model, compressed into the 15–20 seconds available between 1,000 feet and a point where continued approach becomes unsafe. Step 1 (immediate): State the deviation — 'Speed high, 15 above Vapp.' This gives the Captain the specific correction needed. Step 2 (2–3 seconds later if no correction): Direct suggestion — 'Recommend reducing speed and selecting Conf Full now.' Step 3 (5 seconds later if still not stabilised): Clear escalation — 'We are not stabilised, I recommend go-around.' Step 4 (if Captain does not respond or continues): Assert — 'Going around' and push the TOGA buttons. On the A320, either pilot can initiate a go-around by pressing TOGA — the autothrust applies go-around thrust, the flight director commands the SRS pitch mode, and the Flight Management system sequences to the missed approach. You are exercising your legal authority under EASA regulations and BA's SOPs. There is no scenario in which continuing an unstabilised approach below 1,000 feet is the correct answer.

Why This Matters — Data on Unstabilised Approaches — This is not a theoretical exercise: unstabilised approaches are the single largest precursor to approach-and-landing accidents, which account for approximately 65% of all commercial aviation accidents. The Flight Safety Foundation's global data shows that approximately 3% of all approaches are unstabilised at 1,000 feet, but only 3% of those trigger a go-around — meaning 97% of unstabilised approaches are continued to landing. The reason is authority gradient pressure: the FO sees the instability but does not want to challenge the Captain, or the Captain recognises the instability but commits to salvaging the approach rather than accepting the go-around. BA's simulator assessment is specifically designed to test this scenario — the CRM element of the A380 sim will likely include a situation where your partner (acting as Captain) flies an approach that becomes unstable, and the assessors are watching to see whether you call it. Remaining silent and allowing an unstabilised approach to continue will fail you on the CRM assessment, regardless of how well you flew your own sector.

Post-Go-Around Actions and Debrief — After initiating the go-around, fly the missed approach procedure as briefed: maintain SRS guidance, retract flap on schedule, and configure for the hold or the second approach as appropriate. Contact ATC to advise you are going around and request vectors. Brief the cabin crew: 'We were not happy with the approach, we will be making another attempt — cabin crew please remain seated.' After landing on the second attempt, debrief with the Captain privately: 'I called the go-around because we were not stabilised at the gate — speed was 15 above and we were in Conf 1 at 1,000 feet.' Frame it factually, not accusatorially. If the Captain disagrees with your call, listen to their perspective but stand by the data — the parameters were out of range, and the SOP mandates a go-around. If the Captain's behaviour pattern suggests a recurring issue (multiple unstabilised approaches), you have a professional obligation to submit a safety report so the fleet training system can address it. At BA, a go-around is never criticised — it is the expected and correct response to an unstabilised approach, and the airline's just culture protects the crew member who makes the call. At British Airways, this technical knowledge is directly applicable to the airline's fleet operations, where A320 family aircraft (A319, A320, A321) operate high-frequency short-haul routes from Heathrow Terminal 5 and Gatwick, while the long-haul fleet includes A350-1000, B777, and B787 Dreamliner aircraft serving BA's global network of over 200 destinations.

Understanding the Balance — Explain that assertiveness and collaboration are not opposing forces in the cockpit but complementary skills that effective pilots deploy based on the situation. Collaboration is the default operating mode — two pilots working together, sharing workload, cross-checking decisions, and contributing their respective strengths to every phase of flight. Assertiveness is the tool you reach for when collaboration has identified a safety concern that needs immediate escalation, when a clear decision is required and the collaborative discussion is stalling, or when you believe a course of action will compromise safety margins. At British Airways, this balance is at the core of the CRM competency framework assessed during the interview and the simulator, where CRM carries approximately 70% of the assessment weighting. BA wants First Officers who collaborate naturally with Captains of all experience levels but who will not hesitate to speak up firmly when passenger safety is at stake.

Collaboration in Practice — Describe how you actively foster a collaborative cockpit environment from the moment you meet your crew partner. Your pre-flight brief sets the tone: rather than delivering a monologue, you invite the Captain's input, discuss threat and error management for the specific sector, agree on task-sharing during high-workload phases, and establish clear communication preferences. During the flight, collaboration means maintaining a shared mental model — both pilots knowing the plan, the current status, and the contingencies at all times. You achieve this through standard callouts, cross-checking each other's actions, and voicing your SA (situational awareness) proactively rather than waiting to be asked. At BA, where short-haul pilots may fly three to four sectors per day into airports ranging from straightforward like Amsterdam to complex like Innsbruck or London City, this collaborative foundation ensures that the workload is shared appropriately even when the operational tempo is high.

Assertiveness When Required — Describe a specific scenario where you needed to be assertive and explain how you escalated your communication using the graduated assertiveness model: hint, suggest, ask, tell, and ultimately take control if safety demands it. For example, if you noticed an unstable approach developing — deviation from the glideslope, airspeed decaying below Vapp, or excessive crosswind component — you would initially suggest a correction: 'Speed is dropping, might want to add a little thrust.' If the situation continued, you would escalate: 'I recommend a go-around, we are not stabilised.' And if the Captain did not respond, you would take positive action: 'Going around' — because BA's SOPs and EASA regulations give either pilot the authority and responsibility to initiate a go-around when stabilised approach criteria are not met. Emphasise that assertiveness in aviation is not about ego or overriding authority — it is about ensuring that critical safety information reaches the decision-maker in time to act on it.

Adapting the Balance to Different Captains — Explain that one of the most nuanced skills as a First Officer at BA is reading each Captain's leadership style and calibrating your balance of assertiveness and collaboration accordingly. Some Captains prefer a highly collaborative, egalitarian cockpit where both pilots contribute equally to every decision. Others prefer a more structured command dynamic where the FO focuses primarily on monitoring and speaks up for safety issues rather than routine decisions. Both styles can be effective, and your job is to adapt while maintaining your own safety standards and professional obligations.

At BA, you might fly with a different Captain every day across a roster of 4,000 pilots, so this adaptability is not theoretical — it is a daily practice. State that your approach is to brief expectations explicitly at the start of every flight: 'I will monitor actively and call out any deviations. If I see something that concerns me, I will raise it immediately. Is there anything specific you would like me to prioritise today?' This opening invitation creates the space for both collaboration and assertiveness from the first moment.

The V1 Decision and Continued Takeoff — When an engine fails after V1 on the A320, the takeoff must be continued — this is a foundational design principle of commercial aviation certification. V1 is calculated during performance planning to ensure the aircraft can either stop on the remaining runway (if failure occurs before V1) or continue the takeoff and climb safely on one engine (if failure occurs after V1). At V1, the PF's hands leave the thrust levers and go to the sidestick — from this point, the only option is to fly. The immediate physical cues of an engine failure are: yaw toward the failed engine (the live engine's thrust creates asymmetric thrust), ECAM red ENGINE FAIL warning, the aircraft may roll slightly toward the failed engine, and there will be a loss of acceleration. The PF must apply rudder to maintain directional control — on the A320, the rudder pedals are the primary directional control during the ground roll. At VR, the PF rotates normally using the SRS (Speed Reference System) flight director guidance, which commands a pitch attitude to maintain V2 or V2+10 (depending on the failure conditions). In Normal Law, the fly-by-wire system assists with yaw control, but the pilot must still actively manage rudder input to maintain the centreline.

Initial Climb and Memory Items — After liftoff on one engine, the priority is: fly the aircraft (maintain V2, wings level, positive climb), navigate (follow the engine-out departure procedure or ATC clearance), then communicate and manage. The gear is retracted on 'positive climb' — leaving the gear down creates enormous drag that degrades single-engine climb performance. On the A320, the engine failure memory items from the ECAM are minimal because the ECAM handles most of the procedure automatically: the crew confirms the failed engine by verifying N1 at zero or sub-idle and EGT decaying, then follows the ECAM procedure which sequences through: engine master switch OFF (for the failed engine), engine fire push (if fire indications exist), bleed air and electrical reconfiguration. If there is no fire, the procedure is: engine master OFF, and then systematic management of the affected systems (electrical, hydraulic, bleed). The PF continues to fly using SRS guidance to V2 until reaching the acceleration altitude, then accelerates to Green Dot speed (best single-engine climb gradient speed) and retracts flaps on schedule.

Performance Considerations — Climb Gradient and Obstacles — The A320's single-engine performance is certified to achieve a minimum climb gradient of 2.4% (net) in the takeoff configuration, which provides obstacle clearance on the published engine-out departure procedure. However, actual climb performance depends on: aircraft weight (a heavy departure at near-MTOW has a much lower single-engine climb gradient than a light aircraft), OAT (hot conditions reduce engine thrust and air density), pressure altitude (high-altitude airports further reduce performance), and whether the takeoff used FLEX thrust (if the engine failure occurs during a FLEX takeoff, FADEC may automatically advance to TOGA on the remaining engine, but the crew should verify by selecting the thrust levers to TOGA). For BA's Heathrow operations, the engine-out departure procedures are well-established and account for the London obstacle environment — but at some European airports with mountainous terrain (Innsbruck, Geneva, Nice), the single-engine escape routing is specific and must be briefed during pre-flight preparation. The OFP provides the engine-out procedure, minimum climb gradients, and any weight limitations.

Crew Coordination and Subsequent Actions — After the initial emergency is managed and the aircraft is climbing safely on one engine, the crew transitions to the decision phase: continue to destination, return to departure airport, or divert to an alternate. The decision factors are: fuel remaining (single-engine fuel consumption is approximately 60% of normal, so range is extended rather than reduced), weather at available airports, runway length requirements (single-engine landing distance may increase if a hydraulic system is lost and braking is degraded), and passenger and crew considerations. The crew briefs for a single-engine approach: ILS is preferred for precision, the approach speed increases due to the loss of bleed air affecting flap schedule (if the failed engine's bleed was the primary source for one pack), and a go-around on one engine must be briefed and the escape route planned. The PA to passengers should be honest but reassuring: 'We have experienced a technical issue with one of our engines. The aircraft is designed to fly safely on one engine, and we are diverting to Heathrow as a precaution. Please remain seated with your seatbelts fastened.' At BA, a single-engine event will be followed by a mandatory occurrence report, engineering investigation, and crew debrief — and the just culture framework ensures the crew is supported through the process. At British Airways, this technical knowledge is directly applicable to the airline's fleet operations, where A320 family aircraft (A319, A320, A321) operate high-frequency short-haul routes from Heathrow Terminal 5 and Gatwick, while the long-haul fleet includes A350-1000, B777, and B787 Dreamliner aircraft serving BA's global network of over 200 destinations.

Immediate Response — The first priority is to correct the error and ensure safe flight. If you read back an incorrect frequency: recognise the error (either self-caught or when ATC corrects you), confirm the correct frequency, and ensure you are on the right channel before continuing. If you missed an altitude restriction: communicate with ATC immediately, comply with any revised instructions, and stabilise the aircraft on the correct profile. Do not dwell on the error in the moment — manage the consequence first, analyse later. Mention that BA trains pilots to follow a 'manage, communicate, aviate' sequence when errors surface during flight.

In-Flight CRM Response — After correcting the error, briefly acknowledge it to your operating crew member: 'I misread that frequency — apologies, I've corrected it now.' This transparency is essential. Trying to hide errors from your crew partner degrades trust and violates CRM principles. If the error had safety implications (such as a level bust), discuss what happened during a quieter phase of flight: what caused the error, what caught it, and what you will do differently. BA expects crews to debrief errors in real-time when workload permits, not wait until post-flight. This approach — open acknowledgement, correction, and crew discussion — is the foundation of effective error management.

BA's Just Culture Framework — British Airways operates a just culture policy meaning that honest reporting of errors and safety concerns is protected from punitive action. Deliberate violations are treated differently from genuine mistakes. After the flight, you would file a report through BA's confidential safety reporting system (ASR). The report is reviewed by BA's safety team, and if patterns emerge (for example, multiple frequency errors at a particular ATC sector), system-level improvements are made. Mentioning the ASR system and just culture shows you understand that error management at BA is a system, not an individual burden. Your error becomes data that improves safety for all BA crews.

Personal Accountability — While just culture protects honest errors, it does not mean errors are dismissed. Demonstrate personal accountability: 'I would reflect on why the error occurred — was I fatigued, distracted, or complacent? Did I cross-check properly?' Reference BA's value of integrity: owning your mistakes honestly rather than minimising them. If the error reveals a knowledge gap (for example, unfamiliarity with a specific ATC procedure), commit to addressing it through self-study or requesting additional training. The interview answer should convey: 'I will make errors — every pilot does. What defines a BA pilot is how I respond: correct it, communicate it, report it, and learn from it.'

Fleet Roles — In British Airways' fleet, the 777 and 787 serve complementary long-haul roles but differ significantly in capacity and route economics. The 777-200ER carries approximately 275-336 passengers on BA's highest-demand routes (New York JFK, Dubai, Singapore, Hong Kong), while the 787-8 and 787-9 carry approximately 214-216 passengers on thinner long-haul routes where the 777's capacity would be excessive (San Jose, Austin, Seoul, Hyderabad). The 787's lower operating costs per seat-mile make routes viable that would be unprofitable with the larger 777. Understanding this network strategy shows commercial awareness.

Systems Architecture Differences — The most fundamental operational difference is the 787's no-bleed electrical architecture versus the 777's conventional pneumatic systems. On the 777, engine bleed air powers the air conditioning packs, pressurisation, wing anti-ice, and pneumatic engine start. On the 787, all of these functions are electrically driven. This means different system pages, different failure modes, and different memory items. A 787 dual-bleed failure is not possible because there is no bleed system — instead, a pilot must understand electrical bus architecture and generator load shedding. The 787's electrical system generates approximately 1.45 megawatts — enough to power 400 homes — compared to the 777's more conventional electrical load.

Flight Deck and Handling — Both aircraft use conventional yoke controls (unlike Airbus sidestick), but the 787 is Boeing's first fly-by-wire commercial aircraft with a yoke, meaning control inputs are electronically interpreted rather than mechanically transmitted. The 777 uses fly-by-wire but with a cable-actuated feel system that provides mechanical feedback. In practice, handling differences are subtle but noticeable: the 787 has more precise roll control and envelope protection features that the 777 lacks. Both share a common crew interface philosophy, which simplifies transition training — typically 3-4 weeks of ground school plus simulator for pilots already type-rated on the other Boeing wide-body.

Crew and Operational Considerations — Long-haul sectors on both types require augmented crew (3 or 4 pilots depending on sector length), but the 787's routes tend to be slightly shorter on average than 777 ultra-long-haul sectors. The 787's lower cabin altitude (6,000 ft equivalent versus 8,000 ft) means crew arrive at destinations less fatigued — a measurable benefit on turnaround layovers. BA pilots report that the 787's larger windows with electrochromic dimming and higher humidity (achieved through the composite fuselage tolerating higher moisture levels) create a noticeably different cabin environment for rest periods in the crew bunk.