Video Tip: Flying to an MDA with the Autopilot

Many instrument pilots are comfortable using the autopilot during an approach, but leveling off smoothly at the minimum descent altitude (MDA) on a non-precision RNAV approach requires careful planning and a good understanding of your avionics.

In this video, Bruce Williams demonstrates one technique for flying the RNAV (GPS) Runway 27 approach into Port Angeles, Washington. Using a Garmin GFC 600 autopilot, he shows how to level off at the MDA while allowing the autopilot to maintain lateral guidance, reducing workload as the airplane continues toward the missed approach point.

The technique can be useful when continuing beyond the visual descent point (VDP) while maintaining the MDA, but only if you understand how your specific autopilot operates. Bruce emphasizes the importance of practicing these procedures in VMC so you’re comfortable with your avionics before needing them in actual instrument conditions. More from Bruce Williams at BruceAirFlying.

What’s Wrong? Flying the RNAV 24 at Toledo in a Bonanza

Welcome back to What’s Wrong?—our interactive aviation challenge where the clues are in plain sight, just like in real flying. This time, you’re about to cross FISUS for the Hold in Lieu of Procedure Turn on the RNAV (GPS) Runway 24 approach at Toledo. The GPS annunciates a teardrop entry for the hold, so that’s what you’ll do. Watch the video and try to see what’s wrong.

When Automation Surprises You

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Automation doesn’t have to fail to surprise you.

The arrival into Fort Lauderdale (FLL) looked routine. Our FMS had the TEEKY arrival activated, the ILS approach to runway 10L was loaded, and ATC cleared us for the approach from the final arrival waypoint which coincided with the initial approach fix. Everything appeared as we’d expected. And then something unexpected happened.

The vertical profile didn’t look right. We were higher than we should have been after crossing the initial approach fix, and although nothing seemed dramatically wrong, the picture didn’t make sense. The issue was quickly identified: the FMS hadn’t sequenced from the arrival onto the approach as expected and therefore, did not capture the glideslope. Instead of navigating the approach, it was still flying the arrival.

Fortunately, we recognized the discrepancy early. We disconnected from the automation, and continued the approach without incident. The flight ended uneventfully, but it reinforced an important lesson. The automation hadn’t failed. It simply wasn’t doing what we expected. And that wasn’t the last time I was reminded of that lesson.

On another flight, shortly after takeoff, ATC issued a vector toward the first fix on our departure. Almost immediately, the navigation display told us something wasn’t right. The aircraft’s indicated position didn’t agree with where we knew we should be. The culprit was an incorrect position initialization in the FMS before departure.

Fortunately, we’d thoroughly briefed the departure procedure before takeoff. We already had a clear mental picture of where the airplane should turn, what fixes we expected next, and how the departure should unfold. Because of that preparation, the discrepancy stood out immediately. Rather than forcing the automation to catch up, we remained on vectors while correcting the position information before continuing the flight.

Reader Poll:

Have you ever had cockpit automation do something you weren't expecting?

Five Automation Cross-Checks

Before every major phase of flight, ask yourself:

  • Is the airplane where I expect it to be?
  • Is it going where I expect it to go?
  • Is the correct lateral mode active?
  • Is the correct vertical mode active?
  • What should happen next?

Modern avionics are excellent at following instructions. Your job is to make sure they’re following the right instructions.

Automation Doesn’t Have to Fail to Surprise You

Modern avionics are remarkably reliable. GPS navigators, flight management systems, and autopilots have transformed instrument flying, reducing workload and making complex operations more manageable than ever before. But most automation-related problems don’t begin with a hardware failure or software malfunction. They begin with an assumption.

Perhaps the airplane is following the wrong waypoint, the approach never activates, or maybe the autopilot captures a mode you weren’t expecting. In many cases, the automation is doing exactly what it was told to do. The problem is that it isn’t doing what the pilot expected it to do.

That’s why one of the most important habits in modern IFR flying is continuously asking a simple question: is the airplane doing what I expect it to be doing?

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Monitor the Automation

One of the biggest misconceptions about cockpit automation is that it reduces the need for pilot involvement. In reality, instead of devoting as much attention to physically flying the airplane, the pilot becomes a systems manager—programming, monitoring, verifying, and anticipating what the automation should do next. That requires a different kind of situational awareness.

Before every mode change, turn, altitude capture, or approach transition, you should already have a mental picture of what the airplane is about to do. When the airplane behaves differently than expected, the discrepancy becomes obvious. If you’re waiting for the automation to tell you something is wrong, you’ve already surrendered one of your greatest advantages as a pilot.

Healthy Skepticism is a Good Thing

Trusting your avionics isn’t bad, but blind trust is. Healthy skepticism means continually cross-checking what you see on the flight display with your chart, your clearance, and your own expectations. It means verifying that the correct mode is armed. It means confirming that the proper waypoint is active. And It means understanding not only what the automation is doing, but what it should do next.

And when something doesn’t look right, it means being willing to stop, disconnect, and sort it out. There’s no prize for salvaging a confusing automation situation. Sometimes the fastest path back to situational awareness is to simplify the problem—fly the airplane, ask ATC for a vector if needed, and rebuild the automation when your workload allows.

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Healthy skepticism is a good thing.

The Real Value of Automation

Modern avionics have made IFR flying safer, more capable, and more efficient than ever before. I wouldn’t want to fly without them. But they haven’t changed one fundamental truth: the pilot is still responsible for understanding where the airplane is going and why.

Automation is an outstanding workload-management tool—but only when you’re actively managing it. The most competent instrument pilots don’t constantly ask, “What is the airplane doing?” They ask a much more important question: Is the airplane doing what I expected it to do?

Instrument Maneuver Spotlight: Approach Brief

Welcome to the latest edition of the Instrument Maneuver Spotlight series. Here we’ll highlight the various maneuvers you’ll practice during your instrument training and be expected to demonstrate during your checkride.

Managing IFR workload starts long before reaching the final approach fix. A thorough approach brief helps pilots organize critical information, anticipate what’s ahead, and reduce distractions during one of the busiest phases of flight. This month’s Maneuver Spotlight reviews the Approach Brief, a proven technique for staying ahead of the airplane and flying a more stable, predictable instrument approach.

Each maneuver is part of Sporty’s Instrument Rating Course and includes a narrated video animation, along with step-by-step instructions that include performance standards and common errors. Study them while on the ground or print them for quick reference in the airplane.

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The flight maneuver is from Sporty’s Instrument Rating Course.

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Quiz: IFR Departures

The departure phase of an IFR flight is where preparation pays off. Within minutes of takeoff, you’ll be transitioning to instruments, complying with climb restrictions, following ATC instructions, and navigating departure procedures—all while maintaining precise aircraft control. Small misunderstandings during this phase can quickly compound into larger problems.

This month’s quiz tests your knowledge of IFR departures, from obstacle departure procedures and standard instrument departures to departure clearances and real-world ATC expectations. These five questions highlight situations that instrument pilots encounter regularly, helping you identify any weak spots before your next flight. See how many you can answer correctly, then use the explanations to sharpen your departure briefing and cockpit workflow.


What distinguishes an obstacle departure procedure (ODP) from a standard instrument departure (SID) when planning a Departure Procedure (DP)?
What distinguishes an obstacle departure procedure (ODP) from a standard instrument departure (SID) when planning a Departure Procedure (DP)?
Correct! Wrong!
All Departure Procedures (DPs) provide straight-ahead obstacle clearance provided the aircraft:
All Departure Procedures (DPs) provide straight-ahead obstacle clearance provided the aircraft:
Correct! Wrong!
Which is true regarding the use of a instrument departure procedure chart?
Which is true regarding the use of a instrument departure procedure chart?
Correct! Wrong!
During a takeoff into IFR conditions with low ceilings, when should the pilot contact departure control?
During a takeoff into IFR conditions with low ceilings, when should the pilot contact departure control?
Correct! Wrong!
A particular instrument departure procedure requires a minimum climb rate of 210 feet per NM to 8,000 feet. If you climb with a ground speed of 140 knots, what is the rate of climb required in feet per minute?
A particular instrument departure procedure requires a minimum climb rate of 210 feet per NM to 8,000 feet. If you climb with a ground speed of 140 knots, what is the rate of climb required in feet per minute?
Correct! Wrong!

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IFR Departures You got out of 5 right!

New AIM Now Available, Highlights a Simple Way to Improve IFR Proficiency

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It’s good practice to follow IFR Procedures Even When Operating VFR.

The FAA has released Change 3 to the Aeronautical Information Manual (AIM), effective July 9, 2026. While this update includes only a handful of revisions, it’s a good reminder to make sure you’re always referencing the latest guidance—and Sporty’s makes that easy.

The updated AIM is now available in the Sporty’s course portal at Sportys.com/MyCourses, where it’s included as part of your Pilot Training account alongside FAA handbooks and other reference materials. Keeping these publications current is one more way Sporty’s helps you stay prepared.

One revision that’s particularly relevant for instrument pilots appears in AIM 5-1-2, “Follow IFR Procedures Even When Operating VFR.” The FAA has added a recommendation to preload your intended GPS waypoints while the aircraft is still on the ground. While many pilots already follow this practice, the new guidance reinforces its value: reducing cockpit workload during critical phases of flight while improving situational awareness.

The updated section also encourages pilots to maintain IFR proficiency during VFR flights by using many of the same habits that lead to safer instrument flying, including obtaining a thorough preflight briefing, filing a flight plan, using current charts, practicing precise navigation, maintaining accurate altitudes, and flying practice approaches.

These are simple habits, but together they help sharpen instrument skills while making every flight more disciplined and efficient.

For a complete list of revisions included in AIM Change 3, see the FAA’s Explanation of Changes document.

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