Pilot Nick — 4 min read

Each edition: real questions from real passengers. Real answers from the cockpit.

Because knowledge beats fear every time.

And yes… we’ll go a little deeper for the avgeeks too.

Lessons From The Flight Deck ✈ is a reader-supported publication. To receive new posts and support my work, consider becoming a free or paid subscriber.

👇 This Edition’s Questions:

This month’s three questions share something in common — they’re all about the invisible layer of every flight you take. The conversations you can’t hear. The river of air you can’t see. The decisions being made before you’ve even buckled your seatbelt.

Let’s go.

💬 Question #1: “What do pilots actually talk about up there? Is it boring during cruise?”

✈️ You picture us up front, hours into a flight, watching the autopilot do its thing. So what’s actually happening behind that locked door?

The short answer: it depends entirely on the altitude.

Below 10,000 feet — the “sterile cockpit”

There’s a rule in aviation called the sterile cockpit rule. Below 10,000 feet — climb out and descent — no conversation is allowed that isn’t directly related to operating the aircraft. No chat about the weekend. No coffee orders. No “did you see the game last night.”

Why? Because those phases of flight are where 80% of incidents historically occur. Takeoff, climb, descent, approach, landing — that’s when we’re configuring the aircraft, talking to multiple ATC controllers, scanning for traffic, briefing approaches, and managing the highest workload of the entire flight.

A casual remark at the wrong moment can pull attention away from a critical task. So we don’t make them.

Inside the cockpit during those phases, you’d hear something close to a surgical theatre: checklists, callouts, instrument scans, ATC readbacks. Precise, calm, deliberate.

Above 10,000 feet — different rhythm

Once we’re established in cruise, the workload drops dramatically. The autopilot is flying, the FMS is navigating, the systems are monitoring themselves and reporting any issue instantly.

But “boring” isn’t the right word. It’s more like active monitoring.

We’re cross-checking fuel burn against the flight plan. Watching weather radar 100 miles ahead. Listening to ATC for traffic in our area. Reviewing the arrival and approach for our destination, often hours before we get there. Checking alternate airports in case something changes.

And yes — we also talk.

About the flight, about flying in general, about the industry, about our families, about whatever interesting thing one of us read last week. Cockpits are small spaces, and over the course of a 10-hour flight you learn a lot about the person beside you. Some of my best conversations in 25 years have happened at 38,000 feet over the Atlantic at 3 AM.

The pilot truth:

The locked cockpit door creates this idea that something mysterious is happening up front. It isn’t. It’s two highly trained professionals doing a job that alternates between intense concentration and quiet vigilance with the occasional good conversation in between.

The bottom line:

Below 10,000 feet, we’re surgeons. Above it, we’re navigators with a view. Either way, we’re never just “sitting there.”

💬 Question #2: “Why does the same flight take longer in one direction than the other?”

✈️ You fly New York to London in 6 hours. The return takes 7.5. Same aircraft, same route, same distance. What gives?

You’re flying through a river of air and which way it’s flowing changes everything.

Meet the jet stream

At cruise altitudes — roughly 30,000 to 40,000 feet — there are massive ribbons of fast-moving air circling the planet. The most famous is the North Atlantic jet stream, which generally flows from west to east at speeds that can exceed 250 mph.

That’s not wind in the way you experience it on the ground. That’s a moving conveyor belt of air the size of a small country.

Fly with it (eastbound) and your ground speed gets a huge boost. Fly against it (westbound) and you’re effectively swimming upstream.

A Boeing 777 cruising at Mach 0.84 might be doing 560 mph through the air — but with a 150 mph tailwind, it’s covering ground at 710 mph. Turn around and fly home, and that same aircraft is now making 410 mph over the ground. Same aircraft. Same engines. Same fuel burn. Two completely different flight times.

Read more

It’s back.

Each week: real questions from nervous flyers.
Real answers from the cockpit.

Because knowledge beats fear every time.

And yes… we’ll go a little deeper for the avgeeks too.

👇 This Week’s Questions:

💬 Question #1: “Why is it so hot on the plane when I’m boarding? It’s unbearable for the first few minutes.”

✈️ You step through the door, find your row, wrestle your bag into the overhead bin — and you’re already sweating. The cabin feels like a greenhouse. Nobody seems to be doing anything about it. What’s going on?

It comes down to where the cold air actually comes from.

On the ground, aircraft have two ways to cool the cabin:

The APU — Auxiliary Power Unit: A small jet engine in the tail that powers the aircraft's electrical systems and air conditioning while the main engines are off. But here's what most passengers don't know: at many airports particularly in Europe, noise regulations prohibit us from running it until a set time before engine start. So during boarding, the cabin may be running on limited ground power, or simply absorbing heat with no active cooling at all. Add 200 warm bodies and doors opening and closing, and the temperature has nowhere to go but up.

Share

Ground air conditioning carts Some gates pipe external air conditioning directly into the aircraft, giving the APU a hand. But not every gate has them, and even when they do, the cooling capacity has limits especially with doors constantly opening during boarding.

The real problem: physics.

A modern jet cabin is essentially a metal tube that’s been sitting on a hot tarmac, absorbing heat through windows, walls, and floor. Cooling that volume of air — while counteracting the body heat of 150-300 boarding passengers — takes time. The system is doing its best, but it’s fighting an uphill battle until the main engines start and the full air conditioning comes online.

The pilot truth: We feel it too up front. The cockpit can get brutally hot during boarding, especially on summer turnarounds with the sun baking through the windshield. Main engine start is a relief for everyone.

🤓 Fun Fact: The air inside a commercial cabin is completely replaced every 2 to 3 minutes far more frequently than the air in your office or home. On most flights, you're breathing some of the freshest, most filtered air you'll encounter all day. The low humidity is what makes it feel stuffy, not the air quality itself.

The bottom line: Hot during boarding is normal, temporary, and purely a physics problem. Give it five minutes after pushback and you’ll be reaching for your blanket.

✈️ Pilot Hint : If heat bothers you, try boarding later than sooner, the cabin is usually much cooler by then

💬 Question #2: “I noticed fuel streaming off the wingtip during flight — are we leaking fuel?”

✈️ Cruising along, you glance out the window and notice what looks like a thin stream trailing from the wingtip. Your stomach drops.

It’s not a leak. Here’s what’s actually going on and there are three possibilities, each worth knowing.

Subscribe now

1. Vortex condensation

As the wing generates lift, high-pressure air beneath rolls around the tip to meet low-pressure air above, creating a powerful spinning vortex essentially a tiny horizontal tornado. The pressure drop inside causes moisture to condense instantly into a visible white wisp. Pure physics, no fuel involved.

Leave a comment

Intentional wingtip venting

Fuel expands as temperature changes during climb and descent. Vent surge tanks at the wingtips accommodate that expansion, and any overflow exits through a small vent tube — a tiny, managed amount, most noticeable during descent. You might catch a slight rainbow tint in direct sunlight.

🤓 Fun Fact: Wingtip vortices are so powerful on large aircraft like the Boeing 747 or Airbus A380 that smaller planes must wait several minutes after them on approach to avoid being flipped by the swirling wake. It's called wake turbulence, and it's one of the invisible forces air traffic controllers manage constantly purely from the physics of lift being generated at that wingtip you were just watching.

Fuel jettison — a completely different situation

This one is rare, dramatic, and worth understanding properly.

Aircraft have a maximum landing weight that is lower than their maximum takeoff weight — the airframe is stressed differently on touchdown. On a long flight this isn’t an issue; you burn fuel naturally en route. But if something requires an immediate return shortly after departure, you may be too heavy to land safely.

The options: an overweight landing (possible, but requires a full structural inspection and takes the aircraft out of service), or fuel jettison — rapidly dumping fuel through dedicated nozzles further along the wing to get down to landing weight quickly.

A few important nuances:

• The 737 and A320 family have no jettison system — they either do an overweight landing or hold and burn fuel down

• Widebodies like the 777, 747, and A380 typically do have jettison capability, they carry so much fuel that burning it off in a hold could take hours

• It’s coordinated with ATC and done over designated areas away from populated zones where possible

• From the ground it looks like a fine mist trailing the wings nothing like the gentle wingtip venting above

The pilot truth: Actual unplanned fuel loss triggers cockpit alerts immediately. We track fuel quantity constantly. If there were a real leak, we’d know long before you spotted it out the window.

The bottom line: The wisp off the wingtip is almost certainly condensation or routine venting — physics and engineering doing their quiet work. Fuel jettison is a different beast entirely: deliberate, rare, and a sign the crew is methodically solving a problem, not losing control of one.

Subscribe now

💬 Question #3: “Why does the crew make everyone put their window shades up for landing?”

✈️ You’re dozing through descent and a flight attendant firmly asks you to open your shade. What does a window shade possibly have to do with landing?

Quite a lot, in an emergency.

It’s not about the pilots. It’s entirely about you.

If something goes wrong during landing and the cabin fills with smoke or loses lighting, passengers need to already know what’s outside. Fire on the left? Evacuate right. Wing in water? Use the other side. Flight attendants make these calls in seconds and passengers who can already see outside react faster and more correctly.

There’s a subtler reason too, one most people don’t know: your eyes need time to adjust. Going from a dark cabin to a bright emergency scene outside causes temporary blindness. In an evacuation you have seconds, not minutes. Shades up means your eyes are already adapted.

And from outside, rescue crews use windows to rapidly read the cabin — where smoke is concentrated, whether passengers are mobile, which exits are clear. Closed shades are opaque walls to them. Open shades are real-time intelligence.

The bottom line: It takes two seconds and it genuinely matters. The crew isn’t being fussy — every detail during those final minutes is optimized for your safety.

👨🏻‍✈️✈️ Pilot Hint: If the crew asks for shades up, it’s always for a safety reason even small things like this are part of a bigger plan.

💬 Question #4: “How do pilots actually know where they’re going — do they just follow GPS like the rest of us?”

✈️ Yes, GPS is involved — but what’s happening in that cockpit makes your Google Maps look like a paper napkin.

Pilots don’t navigate. The FMS does.

The Flight Management System is a specialized onboard computer holding a complete database of every airway, waypoint, airport, and approach procedure on the planet — updated every 28 days. It calculates the optimal route, altitude, and speed profile for the entire flight and feeds continuous guidance to the autopilot. The pilot’s job is to manage the FMS, stay ahead of it, and be ready to take over if anything degrades.

The navigation layers underneath:

GPS — Aviation-grade receivers pull simultaneously from multiple satellite constellations (American GPS, European Galileo, Russian GLONASS), with redundant antennas and integrity monitoring that flags anomalies instantly.

IRS — Inertial Reference System — Pure avgeek gold. Accelerometers and gyroscopes track every movement with zero dependency on external signals — calculating position purely from physics. No satellites needed. The same technology used to navigate submarines and spacecraft.

VOR/DME — Ground-based radio stations providing bearing and distance. Older technology, still very much active, and crucially works when satellites don’t.

ILS — For low visibility approaches, ground transmitters send two radio beams to guide the aircraft down a precise invisible path to the runway threshold. Accurate to centimeters.

🤓 Fun Fact: The IRS (Inertial Reference System) needs to know exactly where it is before departure so it can start tracking from a known point — a process called alignment. It takes about 10 minutes of sitting perfectly still on the ground. That's partly why pilots arrive early and why the aircraft can't just be moved around the apron while it's aligning. It's literally calibrating itself to the rotation of the Earth.

The FMS cross-checks all of these continuously. If GPS and IRS disagree, the system flags it. What you see on the cockpit display is a constantly refined best-estimate fusion of every available source.

The bottom line: “Following GPS” is like saying a surgeon “uses knives.” Technically true, wildly incomplete.

💬 Question #5: “How do you communicate with ATC over multiple countries and oceans?”

A flight from New York to Singapore passes through a dozen countries’ airspace and hours of open ocean — yet remains in a coordinated global system throughout. How?

Over land: Standard VHF radio — clear, reliable, line-of-sight. As you cross from one country’s airspace to the next, you’re handed off between control centers. Radar tracks you continuously.

Over the ocean: VHF doesn’t reach — no ground stations for thousands of miles. So the system layers up.

HF Radio bounces off the ionosphere to reach across oceans with no infrastructure. It works, but it sounds like a tin can full of static and solar activity can make it temperamental.

SELCAL solves the noise problem — each aircraft has a unique 4-letter code. ATC broadcasts it when they need you, a chime sounds in the cockpit, and you respond. Aviation’s version of a pager.

ACARS is the text messaging system of aviation — short digital messages via VHF over land and satellite over ocean. Weather updates, route changes, technical reports. Automatic, no voice needed.

CPDLC — Controller-Pilot Data Link Communications is the modern upgrade most passengers have never heard of — and the easiest way to understand it is this: imagine ATC sending the pilots a text message.

Instead of a voice call through crackling HF static, a controller simply types a clearance and sends it to the cockpit. It pops up on screen: “Climb to FL380. Proceed direct BEDAX.” The pilots read it, tap accept, and it’s done — logged automatically, no miscommunication, no misheard altitudes. The pilots can even reply or request changes, just like a text thread. It’s now standard across the North Atlantic and Pacific, and quietly replacing HF voice across oceanic airspace. Simple, clean, and frankly long overdue.

ADS-B and ADS-C complete the picture. ADS-B has the aircraft continuously broadcasting its position, altitude, and speed — visible to any receiver, largely replacing radar over land. ADS-C sends automatic satellite position reports to ATC at set intervals over oceans — every 14 minutes over the Pacific. ATC doesn’t ask. The aircraft just tells them, continuously.

✈️ 👨🏻‍✈️Pilot Hint: Crossing an ocean today is remarkably quiet compared to how it used to be. You make your SELCAL check at oceanic entry to confirm the system can reach you if needed, and from there it's mostly the datalink doing the work — position reports going out automatically, clearances and updates coming in as text messages on ACARS. No one's sitting there with a headset pressed to their ear listening to HF static anymore. It's efficient, precise, and honestly a little surreal — you're over the middle of the Atlantic with 300 people behind you, and the "radio" is basically a text thread.

The avgeek bonus — North Atlantic Tracks:

Every day, based on the jet stream and traffic volume, a fresh set of parallel “tracks” are published across the North Atlantic — temporary airways connecting North America to Europe. Airlines bid for preferred tracks, departures are sequenced for precise separation, and position reports keep everyone honest. Most passengers crossing the Atlantic have no idea this daily choreography is happening 35,000 feet below their Netflix show.

The bottom line: At no point are you truly out of contact. VHF, HF, CPDLC, satellite datalinks, automatic position reporting — layered, redundant, and global. Genuinely extraordinary when you stop to think about it.

🛬 Final Thought:

The theme running through every question this month is the same one that runs through every edition: what feels mysterious or alarming almost always has a rational, engineered, well-tested explanation behind it.

The too hot cabin, the stream off the wingtip, the window shade request, the invisible navigation web, the silent datalink humming over the Atlantic — none of it is accidental. All of it is designed, monitored, and understood by the people up front.

Your job as a passenger? Sit back, stay curious, and trust that the more you understand this world, the less frightening it becomes.

📬 Enjoyed this edition?

If this helped you understand what’s really happening up there share it with someone who needs it. You probably know at least one person who white-knuckles every flight. Forward this to them. It might just change how they feel about their next trip.

And if you’re not subscribed yet, join thousands of nervous flyers and avgeeks who get these answers delivered every month — free.

Got a question you’ve always wanted answered? Hit reply or drop it in the comments below — your question could be featured in the next edition.

Leave a comment

Pilot Nick ✈️ Lessons from the Flight Deck

📬 Get more cockpit insights and travel tips, subscribe free to Lessons From the Flight Deck for weekly updates that help you fly calm and confident or visit:

https://www.skycalm.org

You’re settling into your seat, the flight attendant gives that familiar “please switch your devices to airplane mode”announcement, and you glance down at your phone.

You know you should turn it on airplane mode…
But what actually happens if you don’t?

I get this question constantly from passengers, family, friends, even other pilots’ kids. And I get why it’s confusing. The rules have changed over the years, the explanations are vague, and let’s be honest… we’ve all seen someone forget to switch it over without the airplane suddenly nosediving.

So let me give you the real answer pilot to passenger.

The Technical Reality (Without the Tech Overload)

Modern airliners are flying tanks of shielding and redundancy. The systems that run your flight are tested to survive lightning strikes, severe interference, and environmental extremes. The tiny radio signal from your phone isn’t going to overpower anything critical.

But here’s the part most passengers never hear about…

🎧 What We Actually Hear Up Front

When phones search for cell towers, they make a very distinct buzzing or clicking that comes right through our headsets.

If you’re old enough to remember the noise a phone made when it rang near computer speakers…
Yep. That exact sound.

It’s not dangerous — but it is distracting, especially when we’re communicating with air traffic control during takeoff or landing. Those moments are nonstop, rapid-fire instructions, and clarity matters.

One buzzing phone? Not a big deal.
Two hundred buzzing phones? A whole different soundtrack.

❌ MYTH: “One phone will interfere with navigation systems and cause the plane to crash.”

✅ REALITY: One phone isn’t the issue. Two hundred phones all transmitting at the same time can create cumulative interference mostly on the radios pilots use to communicate.

It’s less “life-threatening danger” and more “please stop making my headset crackle while I’m trying to understand ATC in crosswinds.”

Why the Rule Actually Exist

Aviation safety works through what we call defense in depth — multiple layers of small precautions that combine to create one of the safest transportation systems on Earth.

Airplane mode helps in three ways:

1. Clear Radio Comms

During takeoff and landing, we need every instruction from ATC crystal clear. No static, no buzzing, no guessing.

2. Cell Network Issues

At 35,000 feet, your phone tries to connect to every cell tower it can “see,” which is a nightmare for the ground network.

3. Simple, Standardized Procedure

Regulators need rules that are easy to follow and easy to enforce. “Airplane mode, please” works worldwide.

Okay, But What Happens If You Forget?

Read more

Welcome back!

Each month, I answer real questions from nervous flyers because knowledge is the best antidote to aviation anxiety. From mysterious sounds to unexpected sensations, I’m here to explain what’s really happening up there with clarity and calm.

👇 This Week’s Questions:

💬 Question #1: “During descent, I felt this weird vibration through the whole plane, almost like a buffeting feeling. It lasted a few minutes then stopped. Was something wrong with the aircraft?”

✈️ Nothing wrong at all—what you felt was the speedbrakes (also called spoilers or flight spoilers) doing their job. Let me explain what’s happening and why we use them.

Subscribe now

What are speedbrakes? or sometimes we call them airbrakes also…

Read more

Flying commercially can feel like stepping into a mysterious black box where uniformed professionals speak in codes and you’re left wondering what’s really happening up front. As a pilot with more than 28 years of experience, I’ve gathered the unspoken truths that we wish every passenger understood. Buckle up some of these might surprise you.

1. We Really Don’t Mind Turbulence (And Neither Should You)

While you’re gripping your armrests, we’re usually finishing our coffee without spilling a drop. Turbulence feels much more dramatic in the cabin than in the cockpit, and modern aircraft are built to handle forces far beyond what nature typically throws at us.

• What we wish you knew: Turbulence has never brought down a modern commercial aircraft. Those wings flexing? That’s exactly what they’re designed to do. Want to know the smoothest place to sit during turbulence? Check out my newsletter about this pilot’s secret spot: Sit Here. Most Passengers Never Think of It

2. Your Flight Delay Probably Isn’t Weather at Your Airport

When we announce a “weather delay,” passengers often look outside at clear skies and assume we’re lying. The truth is, we might be waiting for aircraft coming from storms 1,000 miles away, or air traffic control might be managing weather patterns that affect the entire national airspace system.

What we wish you knew: Weather delays are often domino effects from storms hundreds of miles away. Believe us, it frustrates us just as much delays affect our entire schedule and we’re as eager to leave as you are

Share

3. The Most dangerous Part of Your Journey Was Probably Getting to the Airport

Statistically, you’re about 2,000 times more likely to die in a car accident than in a plane crash. Your drive to the airport was by far the most dangerous part of your trip. Commercial aviation’s safety record is phenomenal and getting better every year.

What we wish you knew: We’ve trained for years to handle emergencies you’ll hopefully never see. The aircraft has multiple backups for nearly every system.

4. Yes, We Sleep in the Cockpit

Read more

Welcome back! Each week, I answer real questions from nervous flyers because knowledge is the best antidote to aviation anxiety. From mysterious sounds to unexpected sensations, I'm here to explain what's really happening up there with clarity and calm.

👇 This Week's Questions:

💬 Question #1: "Why do we sometimes taxi for what feels like forever after landing?"

✈️ You've landed safely, but then spend 20+ minutes slowly crawling around the airport. It feels like torture when you just want to get off the plane, but there's a complex choreography happening on the ground.

The ground traffic reality:

Airport layout challenges:

• Major airports are like cities with dozens of "roads" (taxiways)

• Your gate might be miles from where you landed

• We can't just drive straight there – we follow assigned taxi routes

• Ground control directs every movement to prevent aircraft collisions

Why it takes so long:

Traffic jams on the ground:

• Multiple aircraft are taxiing simultaneously

• Larger aircraft need more space and move more slowly

• We yield to aircraft on active runways and higher-priority traffic

• Ground control sequences movements like a complex puzzle

Gate availability:

• Your assigned gate might still have another aircraft

• Ground crews need time to marshal the previous flight out

• We sometimes get reassigned to different gates while taxiing

• Jetbridge positioning and ground equipment take time

Ground operations choreography:

• Baggage carts, fuel trucks, catering vehicles all sharing the same space

• Each has right-of-way rules we must follow

• Ground crews coordinate aircraft parking with millimeter precision

• Multiple safety checks before we can shut down engines

What we're actually doing during long taxis:

• Following ground control instructions precisely

• Monitoring for other aircraft and ground vehicles

• Coordinating with gate agents and ground crews

• Running post-flight checklists and shutdown procedures

The safety aspect:

• Ground collisions are actually more common than you'd think

• Slow, methodical movement prevents accidents

• Every taxi clearance is specific: "Taxi via Alpha, Bravo, hold short of runway 24L"

• We can't deviate from assigned routes without new clearance

Why it feels worse than flying:

• You're so close to your destination but can't get there

• You can see the terminal but are moving at walking speed

• No entertainment or service during taxi – just waiting

• The psychological "almost there" factor makes it feel longer

Peak time factors:

• Morning and evening rushes create ground congestion

• Weather can slow ground operations significantly

• International arrivals need specific gate areas

• Customs and immigration facilities have limited capacity

The bottom line: Ground operations are incredibly complex, with dozens of aircraft, vehicles, and personnel coordinating every movement. That slow taxi isn't inefficiency – it's precision safety management on a massive scale.

Share

💬 Question #2: "Why do flights sometimes go around instead of landing, and is it dangerous?"

✈️ Few things are more unsettling than being lined up for landing, then suddenly climbing back up into the sky. Your brain screams "something went wrong!" But here's the truth: go-arounds are actually evidence of excellent safety culture.

Leave a comment

What a go-around actually is:

A normal procedure, not an emergency:

• We practice go-arounds constantly in training

• Every approach includes planning for a potential go-around

• It's a routine maneuver, not a crisis response

• Airlines track go-around rates as a positive safety metric

Why we execute go-arounds:

Runway safety:

• Another aircraft slow to exit the runway

• Ground vehicles or equipment on the runway

• Wildlife on or near the runway (more common than you'd think)

• We need guaranteed runway clearance before landing

Weather conditions:

• Sudden wind shear or gusty conditions

• Visibility drops below minimums during approach

• Runway contamination from rain, snow, or ice

• Better to go around than attempt a marginal landing

Approach not stabilized:

• Aircraft not properly configured for landing

• Approach speed too high or low

• Not aligned with runway centerline

• We have specific criteria – if we don't meet them, we go around

Air traffic control instructions:

• Controller needs to sequence traffic differently

• Spacing between aircraft not adequate

• Runway change due to wind shift or operations needs

• Sometimes ATC just needs to reset the sequence

The decision-making process:

Sterile cockpit environment:

• Below certain altitudes, we focus solely on landing

• Strict criteria determine if an approach continues

• "When in doubt, go around" is drilled into every pilot

• No pressure to "make it work" – safety comes first

What happens during a go-around:

• Power increased to go-around setting (usually full power)

• Aircraft pitched up for climb attitude

• Landing gear and flaps adjusted for climb performance

• We follow specific procedures practiced hundreds of times

Why it feels scary:

• You were mentally prepared to land, not climb

• The sudden power increase and climb feels urgent

• You can see the runway "falling away" below

• Your nervous system interprets "unexpected" as "dangerous"

The safety perspective:

• Go-arounds prevent the vast majority of runway incursions

• Much safer than attempting a questionable landing

• Airlines prefer pilots who go around when in doubt

• It's evidence of conservative, safety-first decision making

What happens next:

• We're vectored around for another approach

• Usually takes 5-10 minutes to set up again

• Conditions often improve by the time we try again

• Very rarely do we need a second go-around

The bottom line: A go-around means your pilots are following their training perfectly, prioritizing safety over schedule. It's not a failure – it's professional airmanship in action.

💬 Question #3: "Why do we sit on the tarmac for so long before takeoff sometimes?"

✈️ Nothing tests your patience like being stuck on the ground, engines off, watching other planes take off while you sit there. It feels like incompetence, but there's actually a sophisticated system managing every movement.

Subscribe now

What's really happening during ground delays:

Air traffic flow management:

• The entire national airspace is managed like a giant puzzle

• Weather in Chicago can cause delays in Miami – it's all connected

• Air traffic control balances departure and arrival flows continuously

• Ground stops: FAA temporarily halts all departures to specific destinations due to weather, congestion, or airport issues

• Your delay prevents much larger delays later in your flight

The domino effect of delays:

Weather impact:

• Thunderstorms in major hubs affect flights nationwide

• We can't just "fly around" weather at the system level

• Ground delays prevent airborne holding, which burns more fuel

• Better to wait on the ground than circle in the sky for hours

Airport capacity limitations:

• Runways can only handle so many departures per hour

• Peak travel times create natural bottlenecks

• Construction or runway maintenance reduces capacity

• International flights get priority slots during certain hours

Air traffic control coordination:

• Your flight is assigned a specific departure time slot

• This slot coordinates with traffic at your destination

• Ensures proper spacing between aircraft in flight

• Prevents dangerous congestion at altitude

Why we don't just take off and figure it out later:

Fuel efficiency:

• Ground delays save thousands of gallons of fuel

• Airborne holding is expensive and environmentally wasteful

• Airlines prefer ground delays to air delays for cost reasons

• Better for everyone when delays happen on the ground

Safety considerations:

• Proper spacing between aircraft prevents mid-air conflicts

• Ensures adequate separation during all phases of flight

• Prevents overloading air traffic controllers

• Reduces complexity for everyone in the system

What we're doing during the delay:

• Monitoring the delay situation and updating estimates

• Coordinating with dispatch and ground control

• Managing cabin comfort (APU for air conditioning)

• Communicating with flight attendants and passengers

The passenger experience challenge:

• No clear end time creates anxiety

• You can see other planes moving, making your delay feel personal

• Being confined in a small space amplifies frustration

• The "almost there" feeling makes it psychologically harder

Why some flights leave before you:

• Different destinations have different traffic situations

• Aircraft type affects departure sequencing

• Some flights have higher priority (international connections, etc.)

• Your delay slot might be longer due to destination traffic

The bigger picture:

• Ground delays prevent much worse problems later

• System-wide efficiency requires local inefficiency sometimes

• Your 30-minute ground delay might prevent a 2-hour airborne delay

• It's frustrating but evidence that the system is working

The bottom line: Ground delays aren't incompetence – they're evidence of a sophisticated traffic management system preventing much worse problems. It's the aviation equivalent of traffic lights keeping traffic flowing safely.

🛬 Final Thought:

Aviation anxiety often comes from the unknown – hearing sounds, feeling sensations, or experiencing procedures without understanding their purpose. Every system, every sound, and every sensation you experience has been analyzed, tested, and refined over decades of safe flight operations.

Your flight crew trains constantly for both normal operations and emergency scenarios. What feels unpredictable to you is highly predictable to us. We've seen it all, practiced it all, and are prepared for anything.

Remember: Commercial aviation is statistically the safest form of travel ever developed. Your job is to sit back and let us do what we've trained for.

Your job as a passenger? Sit back, relax, and trust that we've got this handled.

Got a question for next edition?

Hit reply or drop it in the comments.

Leave a comment

Pilot Nick

✈️ Lessons from the Flight Deck

📬 Get more cockpit insights and travel tips, subscribe free to Lessons From the Flight Deck for weekly updates that help you fly calm and confident or visit:

https://www.skycalm.org

Welcome back! Each week, I answer real questions from nervous flyers because the more you understand about flying, the less there is to fear. Whether it's a weird sound, a sudden turn, or a light that came on mid-flight, I'm here to explain it calmly and clearly.

👇 This Week's Questions:

💬 Question #1: "Why does the plane bank so steeply when turning, and could it flip over?"

✈️ Those sharp banking turns can feel alarming, especially when you're looking out the window and the ground seems tilted at a crazy angle. But here's what's really happening: the plane is doing exactly what it's designed to do.

Subscribe now

When we turn, we need to "bank" the aircraft to redirect the lift force. Think of it like riding a bicycle around a corner — you naturally lean into the turn. The plane does the same thing, but in three dimensions.

Here's why those turns feel so dramatic:

• Standard turns are typically 15-25 degrees of bank, but can feel much steeper from inside

• Your inner ear isn't great at judging angles when you can't see the horizon clearly

• Window seats make turns appear more extreme because you're looking "down" at an angle

The reality about airplane stability:

• Commercial aircraft are designed to naturally return to level flight if left alone

• It takes deliberate, sustained control inputs to maintain any bank angle

• The plane literally wants to fly straight and level, it's aerodynamically stable

• Even steep emergency turns (45+ degrees) are within the aircraft's capabilities, though they require precise pilot technique and are practiced extensively in simulator training with strict tolerances

Could it flip over? Not in normal operations. Modern fly-by-wire aircraft have built-in bank protection that prevents the plane from rolling beyond a safe threshold (typically around 67 degrees) unless the flight computers are in a degraded emergency mode. The flight control system literally won't let it happen, even if a pilot tried.

You might notice the engines sound different during turns, that's just because we sometimes adjust power slightly to maintain speed and altitude through the maneuver. Completely normal.

💬 Question #2: "Why does the plane feel like it's sliding sideways during landing?"

✈️ That sideways sliding sensation during approach and landing can be genuinely alarming. You're looking out the window and the runway seems to be at an angle, or you feel like you're drifting sideways toward the terminal. But this isn't a sign that something's wrong, it's actually skillful flying in action.

Subscribe now

What you're experiencing is called a "crab" or crosswind landing:

Why we fly sideways:

• Winds rarely blow straight down the runway

• Crosswinds can be 20-30+ mph, pushing the aircraft sideways

• We point the nose into the wind to maintain our desired ground track

• From inside, it feels like we're flying crooked, but we're actually flying straight toward the runway

What's happening during the approach:

• The plane's nose points into the wind (this is the "crab angle")

• We're tracking straight toward the runway centerline despite the sideways appearance

• Your inner ear detects this sideways motion and interprets it as sliding

• The runway might look like it's approaching at an angle through the window

The landing technique:

• Just before touchdown, we "kick out" the crab with the rudder pedals

• We align the aircraft with the runway centerline at the last moment

• You might feel a subtle straightening motion right before we touch down

• Sometimes we land still slightly angled if the crosswind is strong

Different techniques you might experience:

• Crab landing: Stay angled until just before touchdown, then straighten

• Wing-low approach: Drop one wing into the wind and use opposite rudder

• Combination method: A bit of both techniques depending on conditions

What pilots are managing:

• Wind direction and speed (which can change during the approach)

• Aircraft drift and ground track

• Keeping the aircraft centered on the runway

• Ensuring we touch down smoothly despite the crosswind

Why it feels unsettling:

• Your brain expects to approach straight-on, like driving down a road

• The angled approach conflicts with your visual expectation

• You can see the terminal or other aircraft appearing to move sideways

• The sensation is unfamiliar compared to ground transportation

The bottom line: That sideways feeling is evidence of precise pilot technique. We're not sliding out of control — we're actively compensating for wind to ensure a safe, centered landing. The stronger the crosswind, the more dramatic this technique becomes, but it's completely normal and exactly what we're trained to do.

💬 Question #3: "What are those creaking and groaning sounds I hear during flight?"

✈️ Those ominous creaking, groaning, and flexing sounds can be genuinely unsettling, especially when you're trying to relax during cruise. It sounds like the plane is complaining or struggling, but here's the reality: you're hearing the aircraft doing exactly what it's designed to do.

What you're actually hearing:

Thermal expansion and contraction:

• The aircraft structure expands and contracts as it moves between different temperatures

• Going from ground level to -60°F at altitude creates significant temperature changes

• Metal components shift and settle, creating creaking sounds

• This is completely normal and accounted for in the design

Wing flex during turbulence:

• Wings are designed to flex up to 26 feet at the tips on some aircraft

• During turbulence, you're hearing the wing structure working as intended

• Those groaning sounds are the wing absorbing and dissipating energy

• Rigid wings would actually be more dangerous — flexibility prevents structural failure

Pressurization effects:

• The fuselage expands slightly when pressurized, like inflating a balloon

• During climb and descent, pressure changes create settling sounds

• Interior panels and fixtures adjust to these pressure differences

• You might hear periodic "pops" or creaks as things equalize

Normal structural sounds:

• Seat tracks and floor panels shifting under load

• Overhead bins settling as the aircraft attitude changes

• Cargo shifting slightly in the holds below

• Even the galley equipment and lavatories make structural sounds

What should actually concern you vs. normal sounds:

• Normal: Gradual creaking, periodic groaning, gentle flexing sounds

• Concerning: Sharp cracking, sudden loud bangs, or sounds that seem to be getting worse

• Reality check: If the flight attendants aren't concerned, neither should you be

The engineering perspective: Modern aircraft are tested to handle forces far beyond anything encountered in normal flight. Those sounds you're hearing are proof that the aircraft structure is working properly — absorbing, flexing, and adapting to the forces of flight exactly as designed.

Bottom line: The plane isn't falling apart — it's demonstrating the incredible engineering that keeps it safely in the air. Those "concerning" sounds are actually reassuring evidence that everything is working as intended.

💬 Question #4: "What happens if we lose cabin pressure? Will I be able to breathe?"

✈️ The oxygen mask scenario is probably one of the most anxiety-inducing "what-ifs" for nervous flyers. Movies make it look terrifying, but the reality is much more manageable than Hollywood suggests.

Subscribe now

First, let's understand what cabin pressurization actually is:

• At 35,000 feet, the air is too thin to breathe normally

• The cabin is pressurized to feel like you're at about 6,000-8,000 feet elevation

• It's like being in Denver or Mexico City — perfectly breathable

• Multiple backup systems maintain this pressure

If we lose cabin pressure, here's what actually happens:

Immediate response (first 10-15 seconds):

• Oxygen masks drop automatically, but we verify and can manually deploy them as backup if the automatic system fails

• Put your mask on immediately, then help others

• You have about 15 seconds of useful consciousness at altitude

• The masks provide plenty of oxygen — more than you need

What we're doing in the cockpit:

• Execute immediate memory items: don oxygen masks (we have better ones than passengers) communicate with each other, begin emergency descent, declare emergency

• The non-flying pilot will run the emergency descent checklist followed by the decompression checklist

• The flying pilot will begin an immediate emergency descent to 10,000 feet or the minimum safe altitude (MSA) if flying over higher terrain

The descent:

• We descend rapidly but safely — typically 3,000-5,000 feet per minute (this is called an emergency descent)

• This feels steep but is well within the aircraft's capabilities

• Within 3-4 minutes, we're at an altitude where you can breathe normally

• You can remove the oxygen mask once we level off below 10,000 feet

  

  Leave a comment

Key facts that should reassure you:

• Cabin pressure loss is extremely rare and can occur in three ways: gradual decompression (slow leak), rapid decompression (faster pressure loss), or explosive decompression (sudden catastrophic failure) - with gradual being the most common

• The oxygen masks provide 12-15 minutes of oxygen — more than enough time to descend

• We practice this scenario regularly in simulator training

The reality: This is a serious but completely manageable emergency. The systems work exactly as designed, and we train for it constantly.

Buy Me a Coffee

🛬 Final Thought:

Every strange sound, unusual motion, or "what if" scenario you can imagine has been encountered, analyzed, and planned for by thousands of pilots over decades of commercial aviation. The procedures exist, the training is thorough, and the equipment is redundant. What feels unpredictable to passengers is actually highly predictable to your flight crew.

Your job as a passenger? Sit back, relax, and trust that we've got this handled.

Got a question for next week's edition? Hit reply or drop it in the comments.

Pilot Nick

✈️ Lessons from the Flight Deck

📬 Get more cockpit insights and travel tips, subscribe free to Lessons From the Flight Deck for weekly updates that help you fly calm and confident or visit:

https://www.skycalm.org

Welcome back! Each week, I answer real questions from nervous flyers because the more you understand about flying, the less there is to fear. Whether it's a weird sound, a sudden turn, or a light that came on mid-flight, I'm here to explain it calmly and clearly.

👇 This Week's Questions:

💬 Question #1: "What happens if an engine fails at the most critical time during takeoff?"

✈️ This is probably the #2 fear I hear about, so let's tackle it head-on. First, modern commercial aircraft are specifically designed to fly safely on one engine, it's not just possible, it's a certification requirement.

Subscribe now

The "most critical time" you're thinking of is called V1 — the decision speed. Before V1, we have enough runway to stop safely. After V1, we have enough speed and runway remaining to continue the takeoff on one engine. Here's what actually happens:

• The plane doesn't fall out of the sky, it climbs more slowly, but it climbs

• We follow a precise emergency procedure drilled hundreds of times in training

• We declare an emergency with air traffic control and get priority handling

• We typically return to the departure airport or continue to the nearest suitable airport

We even have special charts and predetermined escape routes for engine failures at every airport including mountainous terrain. Before every single takeoff, we calculate the exact performance needed to clear all obstacles on one engine, and we follow defined departure routes specifically designed for this scenario.

Share

Every 6 months in the simulator, we practice this exact scenario multiple times. The aircraft will feel different, you might notice a slight yaw or banking tendency but we're trained to handle it smoothly. Engine failures during takeoff are rare, but when they happen, they're manageable emergencies, not catastrophes.

Subscribe now

💬 Question #2: "What if the landing gear doesn't extend?"

✈️ Gear malfunctions are extremely rare, but pilots train for this scenario regularly. Modern aircraft have multiple backup systems specifically for this situation.

Here's what we do if the landing gear won't extend normally:

• Try the manual extension system, every plane has a backup way to lower the gear using gravity or manual cranks

• Perform troubleshooting checklists, sometimes it's just a sensor issue, and the gear is actually down

• Get a visual confirmation, air traffic control can arrange for another aircraft or ground observer to visually check if our gear is extended, although it’s difficult to know if it’s locked.

• Prepare for an emergency landing, which might mean landing on the main gear only, or in extreme cases, a belly landing

Even belly landings are survivable. The plane is designed for it, we dump fuel to reduce weight, approach at a shallow angle, and emergency crews foam the runway. You'd be surprised how smoothly a large aircraft can slide down a runway.

The key point: this scenario has multiple backup plans, and crews train for it extensively.

💬 Question #3: "What are those wing flaps doing?"

✈️ Think of flaps as the airplane's "training wheels" they help us fly slower and more safely during takeoff and landing.

Here's what's happening when you see those big panels moving on the wings:

During Takeoff:

• Flaps extend partially to create more lift at slower speeds

• This lets us get airborne with less runway

• You'll hear motors or hydraulics moving them, totally normal

During Landing:

• Flaps extend fully to create maximum lift and drag

• This allows us to approach slower and steeper

• The plane can literally fly at much slower speeds than without flaps

Why the noise? Those motors and hydraulic pumps are working hard to move heavy wing panels against significant air pressure. The sounds you hear — whirring, clunking, or grinding — are just the systems doing their job.

You might also notice:

• Different flap settings during taxi, depending on our performance calculations.

• Flaps retracting in stages after takeoff, we don't need as much lift once we're climbing

• Speed changes when flaps deploy, the plane will slow down noticeably, which is exactly what we want

  

  Subscribe now

Flaps are like having a sports car that can also drive slowly through a school zone, they give us the flexibility to operate safely at different speeds. Can we land without Flaps? Yes of course. But we will have to approach at a higher speed.

💬 Question #4: "Why does the plane suddenly drop or feel like it's falling during turbulence?"

✈️ This is hands-down the #1 fear I hear about, so let's demystify what's really happening. That "dropping" sensation during turbulence feels absolutely terrifying, but here's the reality: the plane isn't actually falling out of the sky.

What you're experiencing is called an "air pocket" or more accurately, a downdraft. Think of it like this:

• Imagine driving over a small pothole, your car dips down briefly, then continues normally

• Air has invisible "bumps" just like a road different air masses moving at different speeds

• The plane hits these bumps and bounces but it's still flying normally the entire time

Here's what's actually happening during that "drop":

• The plane might descend 10-20 feet in a second or two

• Your body keeps moving upward while the plane moves down

• This creates that stomach-dropping sensation like the top of a roller coaster

• The plane immediately recovers and continues flying normally

  

The key facts that should reassure you:

• Modern aircraft are stress-tested to handle forces far beyond any turbulence wings can literally bend into a U-shape before breaking

• We get weather reports and "ride reports" from other planes, we know what's coming and plan for it

• Turbulence has never caused a modern commercial aircraft to break apart, it's uncomfortable, not dangerous

• The plane is designed for this, just like your car is designed to handle bumpy roads

You might also notice:

• Flight attendants pause service, not because it's dangerous, but to prevent spilled coffee and injuries from loose objects

• The seatbelt sign comes on again, to prevent passenger injuries, not because the plane is in danger

• We sometimes change altitude looking for smoother air, just like changing lanes to avoid road construction

Bottom line: That "falling" feeling is your inner ear playing tricks on you. The plane is doing exactly what it's designed to do flying safely through bumpy air.

Buy me a Coffee

🛬 Final Thought:

The scenarios that worry passengers most are exactly the ones we prepare for most thoroughly. Every "what if" you can think of has been thought of, planned for, and practiced by your flight crew. Commercial aviation's incredible safety record isn't an accident, it's the result of designing for redundancy and training for every possible situation.

Got a question for next week's edition? Hit reply or drop it in the comments.

—Pilot Nick ✈️ Lessons from the Flight Deck

Welcome back! Each week, I answer real questions from nervous flyers — because the more you understand about flying, the less there is to fear. Whether it’s a weird sound, a sudden turn, or a light that came on mid-flight, I’m here to explain it calmly and clearly.

Subscribe now

👇 This Week’s Questions:

💬 Question #1: “Why do the wheels make that loud clunking noise after takeoff?”
✈️ That sound is just the landing gear retracting into the belly of the plane.
Hydraulics lift the wheels, and once they’re in place, mechanical doors seal shut.
It’s totally normal, no need to panic. Think of it as your plane saying, “We’re flying now, won’t need these for a while.”

💬 Question #2: “Why does the plane feel like it’s slowing down right after takeoff?”
✈️ That’s not your imagination, it does feel like a change.
Once we reach a safe altitude, pilots reduce thrust to climb more efficiently and preserve engine life.
It might feel like the engines are “throttling back,” but the plane is still climbing steadily.
Less noise ≠ less safety. It’s just part of the flight profile.

💬 Question #3: “What’s that burning smell during engine start or taxi?”
✈️ It’s not uncommon to notice a burnt oil or fuel-like smell at the start of a flight — especially during engine start, taxi, or pushback.
This often comes from the air conditioning system, which uses bleed air drawn from the engines or APU (a small engine in the tail). Sometimes, residual oil or fuel particles get picked up in that air, harmless, but noticeable.

You may also notice this smell:

• When there’s a tailwind on the ground, pushing engine or APU exhaust toward the cabin

• During aircraft de-icing operations in winter (those heated glycol sprays can smell odd)

• Or at busy airports where you’re surrounded by other idling jets, jet fuel fumes are in the air

It usually clears up quickly after takeoff, and while it can be surprising, it’s not dangerous. Cabin crew and pilots are trained to monitor for anything unusual and we’ll always investigate if there’s a real concern.

💬 Question #4: “Why do the cabin lights flicker or go off during boarding or pushback?”
✈️ That’s just a power source transition.
Before engine start, the plane is powered by ground power or an onboard APU (small engine in the tail).
As we switch between these sources, the lights may briefly flicker or go dark.
It’s normal, temporary, and has no effect on flight safety.

🛬 Final Thought:
A lot of “weird” sounds, smells, or sensations during flight are actually signs that everything is working as it should.
The more you know, the calmer you feel and that’s exactly why I write these.

Got a question for next week’s edition?

Hit reply or drop it in the comments.

Leave a comment

Fly Safe, Pilot Nick
✈️ Lessons from the Flight Deck

Welcome back! Each week, I answer real questions from nervous flyers — because the more you understand about flying, the less there is to fear. Whether it’s a weird sound, a sudden turn, or a light that came on mid-flight, I’m here to explain it calmly and clearly.

Subscribe now

👇 This Week’s Questions:

💬 Question #1: “Why does the plane sometimes bank or turn right after takeoff?”

✈️ Great observation. Right after takeoff, pilots follow a planned departure route — kind of like lanes in the sky. That turn helps us safely separate from incoming traffic, avoid noise-sensitive areas, or follow terrain. It’s completely normal and part of our flight plan. See a video of an airplane turning: Airplane banking after Take-off

💬 Question #2: “Why do I sometimes hear a loud thump or clunk after takeoff or before landing?”

✈️ That’s usually the landing gear retracting or extending — a perfectly normal sound. It’s a heavy mechanical system locking into place. Think of it like the thump of a car door closing. It’s just your aircraft getting ready for the next phase of flight

💬 Question #3: “Why do pilots sometimes make announcements in the middle of the flight?”

✈️ We like to keep you in the loop. Mid-flight announcements might be about turbulence ahead, updated arrival times, weather at destination, or routing changes from air traffic control. If you hear from us, it’s not a sign something’s wrong — it’s just part of keeping you informed and comfortable.

🛬 More questions? Hit reply or leave a comment — I read them all.

Pilot Nick
Lessons from the Flight Deck

Welcome aboard! Each week, I answer questions from anxious flyers — real people just like you — who are curious, nervous, or just wondering “What’s going on up there?”
As a pilot, I’ve heard these questions countless times, and my goal is to help you feel calmer, safer, and more informed — because knowledge is a great co-pilot. ✈️

Subscribe now

👇 This Week’s Questions:

✈️ First, know this: every commercial flight has at least two fully licensed and trained pilots. If one becomes unwell, the other takes full control — that’s part of our standard operating procedures, and something we regularly train for in simulators.

But it doesn’t stop there. Most major airlines are connected to 24/7 medical support providers like MedLink or Stat-MD via satellite phone or radio. If a medical situation arises, whether with a passenger or crew, we can speak immediately with doctors on the ground who specialize in in-flight emergencies.

Onboard, flight attendants are trained in emergency first aid and CPR, and we carry medical kits, oxygen bottles, and automated external defibrillators (AEDs). If needed, we’ll make a PA announcement to see if a licensed medical professional is onboard, which is surprisingly common.

If the situation is serious, we always have the option to divert to the nearest suitable airport, and coordination with air traffic control happens quickly.

Bottom line: you’re never without help in the air. There’s a system, there’s support, and there’s always a plan.

✈️ Great question — and it’s one that’s often misunderstood.

Modern twin-engine jets like the Boeing 787 or Airbus A350 are certified under a set of rules called ETOPS, which stands for Extended-range Twin-engine Operational Performance Standards. In simple terms: ETOPS means the aircraft is approved to fly long distances over areas with no nearby airports like oceans or remote regions and still remain safe even if one engine fails.

These planes are built with incredible reliability, and before any airline can use a jet on ETOPS routes, they have to prove they can maintain strict standards for maintenance, training, and operations. In fact, before ETOPS flights are allowed, airlines work with regulators to demonstrate that the plane can safely fly for up to 180 minutes (or more) on a single engine and reach a suitable airport if needed.

So if an engine were to fail mid-ocean, which is extremely rare, your pilots would follow a clear plan: shut the engine down, stabilize the aircraft, and divert to the nearest pre-planned alternate airport. The flight might take a bit longer, but it’s not an emergency — it’s a scenario we’re fully trained to handle.

In short: ETOPS is not a risk — it’s a safety standard that makes long-range twin-engine flying possible and extremely safe.

✈️ Believe it or not, commercial airplanes get struck by lightning fairly often — typically once or twice a year per aircraft. And here’s the key thing: modern airplanes are built to handle it.

Here’s what actually happens:

• The lightning usually strikes the nose or wingtip, then travels harmlessly along the aircraft’s metal skin and exits out another point, like the tail or opposite wingtip.

• The airplane’s body acts like a Faraday cage — a protective shell that safely conducts electricity around the outside, without letting it enter the cabin or affect people or systems inside.

• Passengers may see a flash or hear a loud bang, but the aircraft continues flying normally.

  

Now, what about damage?

• Most of the time, there’s no damage at all, or just a small scorch mark that gets inspected and cleaned up by maintenance after landing.

• Pilots report the strike to maintenance and air traffic control, and engineers inspect the aircraft thoroughlybefore its next flight, even if there’s no visible damage.

• Critical systems like navigation, communication, and flight controls are shielded and grounded, and we have multiple layers of redundancy in case anything needs to be switched over.

Bottom line? It might look or sound dramatic, but lightning strikes are non-events for the airplane’s safety. Pilots are trained to manage them, and planes are designed to shrug them off.

✈️ Bonus: You might also hear pilots talk about St. Elmo’s Fire — a strange, bluish glow that sometimes appears on the windshield, wing tips, or nose during stormy flights. It’s not actual fire or lightning — it’s caused by ionized air reacting to the strong electric fields around the aircraft.

It looks like eerie, dancing light, almost like plasma or static electricity, and it’s completely harmless. Just another reminder that up here, nature puts on a light show and your airplane is ready for it.

Subscribe now

🧘‍♂️ Final Thought: When “what if” anxiety hits mid-flight, remind yourself of this: The flight deck is built on redundancy, training, and constant communication. We plan for everything so you don’t have to.

🛬 More questions? Hit reply or leave a comment — I read them all.

Leave a comment

Fly Safe

Pilot Nick
Lessons from the Flight Deck

Welcome aboard! Each week, I answer questions from anxious flyers — real people just like you — who are curious, nervous, or just wondering “What’s going on up there?”
As a pilot, I’ve heard these questions countless times, and my goal is to help you feel calmer, safer, and more informed — because knowledge is a great co-pilot. ✈️

👇 This Week’s Questions:

💬 Question #1: "Why do the lights dim during takeoff and landing?"

✈️ That’s a safety precaution. Dimming the lights helps your eyes adjust to outside light in case of an emergency. Think of it like prepping your vision — if we ever needed to evacuate, your eyes wouldn’t be adjusting from bright cabin lighting to the dark outside. It’s a simple step that boosts safety

.

💬 Question #2: "What are diversion airports enroute and at departure or destination?"

✈️ Diversion airports are alternates we plan in advance in case something prevents us from landing at the original destination. At departure, we brief a nearby airport in case of an early return in case of bad weather for take-off. During the flight, we always have a list of suitable enroute alternates if we need to divert due to a medical emergency or a technical issue. And near the destination, we choose backups based on weather, traffic, and runway conditions.
🧭 You're never in the air without a solid plan B — or C.

💬 Question #3: "Do airplanes only carry fuel from the departure to the destination airport?"

✈️ Not at all. By law, we always carry more than just enough fuel for the route. We include fuel for:

• 🕒 Holding delays

• ⛈️ Weather such as Thunderstorms or Fog

• 🛬 A diversion to an alternate airport

• 🛡️ A final reserve for safety

In other words: we never take off without multiple backup options and enough fuel to get there safely — and beyond.

📬 Enjoyed this edition?

If this helped you understand what’s really happening up there share it with someone who needs it. You probably know at least one person who white-knuckles every flight. Forward this to them. It might just change how they feel about their next trip.

And if you’re not subscribed yet, join thousands of nervous flyers and avgeeks who get these answers delivered every month — free.

Got a question you’ve always wanted answered? Hit reply or drop it in the comments below — your question could be featured in the next edition.

Leave a comment

Pilot Nick ✈️ Lessons from the Flight Deck

Welcome aboard!

Each week, I answer questions from anxious flyers, real people just like you who are curious, nervous, or just wondering “What is that sound during landing?

💬 Question #1: “Why do we sometimes circle before landing? Is it dangerous?”
✈️ Answer:

Not at all. Sometimes what passengers see as “circling” is actually part of a circling approach — a normal maneuver used during certain instrument approaches.

In some airports, terrain, weather, runway layout, or wind conditions may require pilots to approach the airport aligned with one runway first, then visually maneuver to land on another runway.

Pilots are specifically trained and certified for these procedures. The aircraft always remains within safe operating limits, and the maneuver is carefully planned, briefed, and monitored from the cockpit.

A circling approach can feel unusual from the cabin because passengers may notice turns close to the airport or changes in bank angle, but from a pilot’s perspective, it’s a standard and controlled procedure.

Think of it like taking an exit ramp before lining up perfectly with your destination.

Subscribe now

💬 Question #2: “The engines sounded louder mid-flight. Is that normal?”
✈️ Answer:

Yes — completely normal.

Airplane engine sounds naturally change throughout the flight depending on altitude, wind, speed, thrust settings, and aircraft configuration. Sometimes pilots increase power slightly for climbs, turbulence, or route adjustments, which can make the engines sound louder for a few minutes.

You may also hear changes when flaps, spoilers, landing gear, or airflow around the aircraft changes.

Modern jet engines are constantly adjusting automatically to optimize efficiency and performance. What passengers hear inside the cabin is often simply the sound of the aircraft adapting to different phases of flight.

It’s very similar to a car changing gears while driving uphill or accelerating onto a highway — noticeable, but completely normal.

💬 Question #3: “Can turbulence actually damage the plane?”
✈️ Answer:

Commercial airplanes are built to handle far more stress than normal turbulence could ever produce.

Before entering service, aircraft go through extremely demanding structural testing, including wing flex tests, severe load simulations, and certification standards designed with very large safety margins.

While turbulence can feel uncomfortable inside the cabin, the airplane itself is operating well within its designed limits. Pilots also have weather radar, reports from other aircraft, and turbulence procedures to help avoid the roughest areas whenever possible.

When pilots slow down during turbulence, it’s usually to improve comfort and reduce stress on the aircraft — similar to slowing down on a rough road in a car.

The biggest risk during turbulence is actually passengers not wearing their seatbelts.

That’s why we always recommend keeping it fastened whenever you’re seated — even when the seatbelt sign is off.

📬 Enjoyed this edition?

If this helped you understand what’s really happening up there share it with someone who needs it. You probably know at least one person who white-knuckles every flight. Forward this to them. It might just change how they feel about their next trip.

And if you’re not subscribed yet, join thousands of nervous flyers and avgeeks who get these answers delivered every month — free.

Got a question you’ve always wanted answered?

Hit reply or drop it in the comments below — your question could be featured in the next edition.

Leave a comment

Pilot Nick ✈️ Lessons from the Flight Deck

Wondering what that strange noise was last time you flew? Don’t let fear 😱 spiral.

If you wish a weather and turbulence forecast just insert below 👇🏼 in the form your flight number and the date and I will provide you with a short weather forecast 😉

You’ve got a pilot 👨🏼‍✈️in your corner. ✅

👉 Click here to submit your question