Instrument approaches rarely fail because of a lack of knowledge—they fail because of decisions made under pressure.
In this PilotWorkshops IFR Mastery webinar video, the PilotWorkshops team will walk pilots through a realistic, thought-provoking scenario from the IFR Mastery series. You’ll be placed in the cockpit of a Beechcraft Bonanza and faced with a critical decision: how to enter and execute an instrument approach into Wichita Falls, Texas, with low ceilings and strong winds complicating the picture.
Rather than presenting a single “right” answer, this session dives into the pros and cons of multiple possible outcomes, highlighting how experienced pilots think through risk, workload, and real-world constraints when the margin for error is slim.
Expert Roundtable Discussion
The scenario will be unpacked in a lively roundtable featuring:
Ryan Koch – Pilot Workshops
Catherine Cavagnaro – CFI & DPE
Kevin Plante – ATC Controller & Pilot
Bruce Williams – CFI & IFR Expert
Mark Kolber – CFI & Aviation Attorney
Each brings a unique perspective—from the cockpit, the control room, the examiner’s seat, and even the legal aftermath of poor decisions.
You’ve probably seen runway approach lights at larger airports many times during your training and when flying at night. These systems take on additional importance when flying IFR since they provide the basic means to transition from instrument to visual flight for landing.
If an approach lighting system is available for a runway, the symbology will be displayed in both the small airport diagram in line with the runway, and in the briefing strip towards the top of the instrument approach chart. You can then refer to the legend in the digital terminal procedures supplement to determine the specifics of the lighting system.
Approach light systems are a configuration of signal lights starting at the landing threshold and extending into the approach area, at a distance of 2,400 to 3,000 feet for precision instrument runways, and 1,400 to 1,500 feet for non-precision instrument runways. Some systems include sequenced flashing lights which appear to the pilot as a ball of light traveling towards the runway at high speed—nicknamed the rabbit.
Approach light systems deserve special attention twice during each flight. First is during your preflight preparation, when you can determine which system you’ll see for a particular runway. Here’s the ILS Runway 29R approach at Torrance, California. Notice the A-5 found in the briefing strip on the approach chart.
Now look in the supplement to find that A-5 represents a medium intensity approach lighting system, or M-A-L-S-R, with runway alignment indicator lights. The inverted dark coloring of the A5 symbol means the approach lights are pilot-controlled.
Approach lighting systems are critical during low ceiling and low visibility conditions when you must decide whether to continue to land or execute a missed approach. If when reaching the minimum descent altitude or decision altitude on the approach and you have the approach lights in sight, you are permitted to descend to 100 feet above the touchdown zone elevation published for the runway. When reaching 100 feet above the touchdown zone, you then must have the runway environment in sight (as specified in § 91.175) and verify the flight visibility is above the published minimums to continue the descent to landing.
If a NOTAM indicates part of the lighting system is out of service, refer to the inoperative components table to make adjustments to the landing minimums. Make it a point to check your destination against the inoperative components table each time you fly IFR to see if the airport has any lighting systems affected.
Remember, these approach lighting systems are an important part of your IFR training. When you arrive at an unfamiliar airport with reduced visibility, let your preflight preparation and knowledge of the various systems lead to quick orientation to the runway.
Now let’s take a look at the approach lighting systems you are likely to encounter and see what they may look like in a variety of weather conditions.
Approach Light Systems Simulator
Approach Lighting Systems Scenarios
https://media.ifrfocus.com/wp-content/uploads/2026/02/12131016/dont-just-read-the-notes.png10001250Eric Radtkehttps://media.ifrfocus.com/wp-content/uploads/2025/07/14115136/IFR-Focus-Logo_White_Blue_Web-01.pngEric Radtke2026-02-27 08:55:192026-02-12 13:13:07Approach Lighting Systems: Scenarios for Instrument Pilots
We often talk about IFR decision-making and go/no-go calls in comfortable environments, classrooms, safety seminars, or sitting in an FBO with a cup of coffee. In those settings, the decisions are clean. Detached. The weather is hypothetical. The passengers are imaginary. There is no fatigue, no operational pressure, no schedule waiting in the background. From that distance, the “right” answer is usually obvious.
We often talk about IFR decision-making sitting in the hangar with a cup of coffee—in those settings, the decisions are clean.
But real-world decision-making rarely happens in calm, theoretical conditions. It happens when people are tired. When the trip is almost over. When passengers need to get somewhere. When the week has already been long and everyone is thinking about home.
Real-world decision-making rarely happens in calm, theoretical conditions. It happens when people are tired. When the trip is almost over. When passengers need to get somewhere..
That is where the true test of IFR judgment begins.
Several years ago, I was flying a King Air on the last day of a four-day trip. We had been flying eight-hour days. My copilot and I were both looking at only a day and a half off before returning Monday to start another demanding week of work, more inspections, more travel, more time away. We still had expense reports to complete, laundry to do, planning to finalize. Like most professional crews at the end of a trip, we were mentally already halfway home.
That Friday morning, we were departing Ohio for Ann Arbor, Michigan, to complete one final inspection before finishing the week in western Michigan. During preflight at the FBO, we noticed a PIREP from an MD-11 departing Detroit, about ten miles east of our destination, reporting severe icing on departure. That caught my attention. Ten minutes later, another report came in from a CRJ-700 in roughly the same area, reporting light to moderate icing.
We called dispatch. We reviewed the weather products. The icing forecast showed light to moderate conditions, nothing outside what a properly equipped King Air should handle. Traffic was departing Detroit continuously. No other aircraft reported severe icing, and nothing in the data suggested severe icing should be anywhere along or near our route. After discussing it, we decided to go.
On paper, it was a reasonable decision.
We departed on an IFR flight plan and headed north. South of Toledo, the first trace of ice appeared. It began as light accumulation, manageable, expected. Then it increased to moderate.
In a turboprop, moderate icing is not subtle. Windshield heat on. Prop heat on. Boots cycling. You start monitoring how often you need to inflate the boots. You check representative surfaces, windshield wipers, antennas, unprotected edges. You listen for ice shedding off the propeller blades and striking the fuselage. That sound is unmistakable.
At first, the airplane was handling it well. Airspeed steady. Boots shedding ice. No abnormal indications.
My copilot spoke up.
“Hey, the ice is picking up. What do you think about heading west?”
I assessed the instruments and outside cues. Everything appeared under control. “I think we’re okay,” I replied. “It’s moderate, but the airplane’s handling it fine.”
A few minutes later, he asked again. “We could just head west and pick this up Monday.”
Again, I declined. The systems were working. The airspeed was holding. Nothing was technically wrong.
And that’s where the trap was.
Over the next minute or two, the sound changed. Instead of light ice tapping the fuselage, we heard heavier chunks striking the cabin. The accumulation rate increased. Ice was building faster between boot cycles. The cues were subtle at first, then unmistakable.
I finally turned to him and said, “Let’s tell ATC we’re heading west.”
At almost the exact moment I said it, we entered severe icing.
The change was immediate and violent. Ice broke off windshield wipers and struck the windscreen with force. Larger pieces slung off the propellers and slammed into the fuselage. We inflated the boots, cleared the wings, only to look back seconds later and see them coated again as if we had never cycled them.
We advanced to full power. All anti-ice systems on high. We requested an immediate climb and turn.
Initially, we had about 700 feet per minute of climb. Then 500. Then 300. The airspeed began to bleed off, not just from the climb, but from the sheer drag accumulating on the aircraft. In severe icing, performance degradation happens quickly. What looks manageable can become untenable in moments.
We were still at 8,000–9,000 feet, with altitude to work with. If the climb failed, we were prepared to descend. But the margin was shrinking.
Then, about 60 seconds later, we broke out of the icing completely, into clear, solid VFR.
The relief was immediate.
The relief was immediate as we broke out into clear, solid VFR.
Looking back at the airplane, nearly every unprotected surface carried half an inch to three-quarters of an inch of ice. Anywhere there wasn’t a boot or heat, ice remained thick and stubborn.
We canceled the inspection and diverted west. Once on the ground, we pulled the airplane into the hangar and debriefed.
That debrief was the most important part of the day.
The airplane had performed exactly as designed. The systems worked. The training held. But the real issue wasn’t aircraft capability.
It was decision-making under pressure.
In the FBO, the go/no-go discussion was analytical and rational. But once airborne, on the last day of a long week, with work to finish and home waiting, I allowed external pressure to influence my internal risk tolerance.
The first time my copilot suggested diverting, the airplane was still within limits. It was manageable. But it was trending worse. And that trend mattered.
The question wasn’t, “Can the airplane handle this right now?”
The question should have been, “Why are we choosing to continue into worsening conditions when we don’t have to?”
That is the difference between legal and wise.
The real lesson from that day was simple: when you feel pressure to complete a task, that is precisely when you need to examine your decision more critically. Fatigue, schedule pressure, passenger expectations, and the desire to finish what you started can all subtly push a pilot to accept more risk than necessary.
We often ask, “Can we make it?”
A better question is, “What happens if we don’t?”
In our case, the consequence of turning west earlier would have been minor. We would have rescheduled the inspection for Monday. The inconvenience was administrative, not operationally critical.
But by pressing on, we exposed ourselves to a risk environment that escalated faster than anticipated.
IFR decision-making is dynamic. It requires continuous reassessment. A safe “go” at 8:00 a.m. may become a poor decision at 8:30 a.m. Trends matter. Pilot reports matter. Crew input matters.
Most importantly, speaking up matters.
My copilot saw the trend before I was willing to acknowledge it. Good CRM means listening, not just hearing.
That flight reinforced a principle I carry forward on every trip: if the consequence of delaying or canceling is inconvenience rather than catastrophe, choose inconvenience.
Airplanes can handle a lot. Pilots can handle a lot. But no schedule is worth trading away margin.
In the classroom, go/no-go decisions are clean and detached. In the real world, they are wrapped in fatigue, expectation, and subtle pressure.
In the classroom, go/no-go decisions are clean and detached. In the real world, they are wrapped in fatigue, expectation, and subtle pressure.
That is why the discipline to say “no”, especially when you technically could say “yes”, is one of the most important skills an instrument pilot can develop.
Because sometimes the most professional decision you can make is the one that gets you home a day later.
https://media.ifrfocus.com/wp-content/uploads/2026/02/18110736/IFR-Decision-Making-Under-Pressure.png10001250James Oniealhttps://media.ifrfocus.com/wp-content/uploads/2025/07/14115136/IFR-Focus-Logo_White_Blue_Web-01.pngJames Onieal2026-02-24 08:55:062026-02-25 12:55:12IFR Decision-Making Under Pressure: When “Go” Becomes the Wrong Answer
Home flight simulators have come a long way, and for instrument pilots they’ve become a legitimate tool for both training and staying sharp between flights. From procedure practice to scenario-based decision making, today’s simulators can meaningfully support IFR proficiency—when they’re set up and used the right way.
This webinar video demonstrates exactly how to do that. Join Sporty’s instructor Chris McGonegle for a practical look at building and using an at-home simulator with instrument flying in mind.
https://media.ifrfocus.com/wp-content/uploads/2026/02/06112955/home-sim-webinar.png10001250IFR Focus Teamhttps://media.ifrfocus.com/wp-content/uploads/2025/07/14115136/IFR-Focus-Logo_White_Blue_Web-01.pngIFR Focus Team2026-02-20 11:20:232026-02-20 12:24:06Webinar Video: Using a Home Simulator for IFR Training and Proficiency
Some decisions don’t allow the luxury of contemplation. Every instrument pilot knows at least one of these decisions in the depths of his or her cloud-flying bones: the missed approach. Making a decision while still descending and a mere 200 feet above the ground (lower for Cat II+) only works because the decision is binary. You see the expected environment and continue—or you don’t and you climb away.
Pre-loaded decisions are a fantastic safety tool, but we so rarely need them that we end up unprepared to effectively use them. This applies to far more than a missed approach, but let’s start there.
Real-world instrument training under the hood leaves pilots woefully unprepared for a real approach with low visibility. This is possibly the best reason to get some real IMC time in training. One-half mile of visibility at 200 AGL on a typical three-degree glide path means you can see the approach lights peeking through the murk, the threshold, and some puddles on the pavement. Scratch the bit about the pavement if it’s night.
To immediately measure visibility the moment you break out, you must know what you expect to see. That’s your yardstick. Is this an ALSF-2 lighting system? Just a MALSR? Maybe this is a non-precision approach with an ODALS? (They’re out there. We have one just down the road from my home base here in Portland, Maine.)
Each of these systems are a different shape and different length from the threshold. You should know how far those lights extend from the threshold and how far you will be from the beginning of those lights. You should see enough of that lighting system, and maybe a specific number of runway lights, to prove that you have the visibility required for continuing below DA/MDA. The point is you must know beforehand how much lighting you expect to see.
You should also know where to look. Crabbing down the localizer in crosswinds, pilots often forget that a ten-degree correction nose-right means those lights will be 10-degrees to the left. Anticipating that removes the moment of confusion when the lights pop-out off center. Or if the lights appear in a different place—or at a weird roll angle—you know something is wrong and a missed approach is the safest action.
The concept becomes more powerful if you expand its use. Take a non-precision approach with a published VDP. The VDP is the last point along the approach where you’ll likely be able to land straight-in without channeling your inner anvil. So know where that point is and watch it by distance on your GPS or by time. A breakout before that point is a pre-loaded straight-in. After that point, it’s a pre-loaded circle-to-land with a pre-chosen runway using a pre-planned path. Or, if you don’t dance circles, it’s a missed at the VDP. This is a decision gate: You have only two choices, and passing the gate only one remains.
This tool can be applied even more broadly. You’re on a base-leg vector to the localizer with a tailwind. At what point will you query ATC about a turn if one isn’t forthcoming? What would you do if the frequency was busy? Use the ident function on your transponder? If you were about to pass through, would you turn inbound or just keep going?
That last one is complicated and has been discussed in IFR Focus #1. But the point is that we can often predict moments where a decision must be made well before we get there. That means we can make an A-B plan, criteria for which option we’ll choose, and a point at which we’ll decide without hesitation.
There are so many places in regular flying where this happens: approaching weather and needing a deviation, requesting a new altitude before entering icy cloudtops, short final when struggling to stabilize the approach, floating on touchdown … it just goes on.
The takeaway on all of these is that a pre-loaded decision before you reach that moment of truth reveals actions that might make a snap decision unnecessary, as well as empowering you to make the right call without hesitation if you must.
Watch this Video
Thunderstorms and Mountain Passes
I learned to fly just south of Boulder, Colorado, and we routinely took 160-hp and 180-hp airplanes up into the mountains for destinations like Crested Butte, Telluride, and even Leadville. Nursing a flight-school Warrior over an 11,000-foot mountain pass is an exercise in patience that culminates with a decision gate.
You approach the pass riding the ridge for extra lift and at an angle to the pass. At the last moment, you decide if you have enough clearance to turn over the ridge, dive down for speed, and cross into the probably-descending air on the other side—or you peel away back around for another attempt.
Later in instrument flying, I found it useful to approach gaps in thunderstorms the same way, at least mentally. Space to turn around isn’t so critical, so approaching head-on is fine. But mentally there’s a distance to the towers on either side I want, and a certain visibility or clearance on the other side I require. That might be visible to the naked eye, or with the right on-board equipment. There’s a spring-loaded course reversal ready until I see what I need to commit on passing through the gap … or not seeing it and turning around to try another plan.
https://media.ifrfocus.com/wp-content/uploads/2026/02/09140443/decision-time.png10001250Jeff Van Westhttps://media.ifrfocus.com/wp-content/uploads/2025/07/14115136/IFR-Focus-Logo_White_Blue_Web-01.pngJeff Van West2026-02-17 08:55:532026-02-20 10:17:32Practical IFR: Decision Time
If weather or an ATC delay requires you to fly a holding pattern, you can use ForeFlight’s Hold Advisor feature to add the details of the hold to the flight plan. If you receive a clearance to hold at a waypoint currently entered in your flight plan, tap that waypoint ID in the Route Editor and select the Hold function. You can then enter the details of the holding clearance, including the inbound or outbound course, either a time or distance, left or right turns, altitude, speeds restrictions, and an expected further clearance time.
https://media.ifrfocus.com/wp-content/uploads/2026/02/06103712/hold-advisor-video-tip.png10001250IFR Focus Teamhttps://media.ifrfocus.com/wp-content/uploads/2025/07/14115136/IFR-Focus-Logo_White_Blue_Web-01.pngIFR Focus Team2026-02-10 08:55:322026-02-06 10:37:59Video Tip: Entering a Hold with ForeFlight Hold Advisor
Webinar Video: Instrument Approach Decision-Making—IFR Mastery
/by Eric RadtkeIn this PilotWorkshops IFR Mastery webinar video, the PilotWorkshops team will walk pilots through a realistic, thought-provoking scenario from the IFR Mastery series. You’ll be placed in the cockpit of a Beechcraft Bonanza and faced with a critical decision: how to enter and execute an instrument approach into Wichita Falls, Texas, with low ceilings and strong winds complicating the picture.
Rather than presenting a single “right” answer, this session dives into the pros and cons of multiple possible outcomes, highlighting how experienced pilots think through risk, workload, and real-world constraints when the margin for error is slim.
Expert Roundtable Discussion
The scenario will be unpacked in a lively roundtable featuring:
Ryan Koch – Pilot Workshops
Catherine Cavagnaro – CFI & DPE
Kevin Plante – ATC Controller & Pilot
Bruce Williams – CFI & IFR Expert
Mark Kolber – CFI & Aviation Attorney
Each brings a unique perspective—from the cockpit, the control room, the examiner’s seat, and even the legal aftermath of poor decisions.
Approach Lighting Systems: Scenarios for Instrument Pilots
/by Eric RadtkeYou’ve probably seen runway approach lights at larger airports many times during your training and when flying at night. These systems take on additional importance when flying IFR since they provide the basic means to transition from instrument to visual flight for landing.
If an approach lighting system is available for a runway, the symbology will be displayed in both the small airport diagram in line with the runway, and in the briefing strip towards the top of the instrument approach chart. You can then refer to the legend in the digital terminal procedures supplement to determine the specifics of the lighting system.
Approach light systems are a configuration of signal lights starting at the landing threshold and extending into the approach area, at a distance of 2,400 to 3,000 feet for precision instrument runways, and 1,400 to 1,500 feet for non-precision instrument runways. Some systems include sequenced flashing lights which appear to the pilot as a ball of light traveling towards the runway at high speed—nicknamed the rabbit.
Approach light systems deserve special attention twice during each flight. First is during your preflight preparation, when you can determine which system you’ll see for a particular runway. Here’s the ILS Runway 29R approach at Torrance, California. Notice the A-5 found in the briefing strip on the approach chart.
Now look in the supplement to find that A-5 represents a medium intensity approach lighting system, or M-A-L-S-R, with runway alignment indicator lights. The inverted dark coloring of the A5 symbol means the approach lights are pilot-controlled.
Approach lighting systems are critical during low ceiling and low visibility conditions when you must decide whether to continue to land or execute a missed approach. If when reaching the minimum descent altitude or decision altitude on the approach and you have the approach lights in sight, you are permitted to descend to 100 feet above the touchdown zone elevation published for the runway. When reaching 100 feet above the touchdown zone, you then must have the runway environment in sight (as specified in § 91.175) and verify the flight visibility is above the published minimums to continue the descent to landing.
If a NOTAM indicates part of the lighting system is out of service, refer to the inoperative components table to make adjustments to the landing minimums. Make it a point to check your destination against the inoperative components table each time you fly IFR to see if the airport has any lighting systems affected.
Remember, these approach lighting systems are an important part of your IFR training. When you arrive at an unfamiliar airport with reduced visibility, let your preflight preparation and knowledge of the various systems lead to quick orientation to the runway.
Now let’s take a look at the approach lighting systems you are likely to encounter and see what they may look like in a variety of weather conditions.
Approach Light Systems Simulator
Approach Lighting Systems Scenarios
IFR Decision-Making Under Pressure: When “Go” Becomes the Wrong Answer
/by James OniealWe often talk about IFR decision-making and go/no-go calls in comfortable environments, classrooms, safety seminars, or sitting in an FBO with a cup of coffee. In those settings, the decisions are clean. Detached. The weather is hypothetical. The passengers are imaginary. There is no fatigue, no operational pressure, no schedule waiting in the background. From that distance, the “right” answer is usually obvious.
We often talk about IFR decision-making sitting in the hangar with a cup of coffee—in those settings, the decisions are clean.
But real-world decision-making rarely happens in calm, theoretical conditions. It happens when people are tired. When the trip is almost over. When passengers need to get somewhere. When the week has already been long and everyone is thinking about home.
Real-world decision-making rarely happens in calm, theoretical conditions. It happens when people are tired. When the trip is almost over. When passengers need to get somewhere..
That is where the true test of IFR judgment begins.
Several years ago, I was flying a King Air on the last day of a four-day trip. We had been flying eight-hour days. My copilot and I were both looking at only a day and a half off before returning Monday to start another demanding week of work, more inspections, more travel, more time away. We still had expense reports to complete, laundry to do, planning to finalize. Like most professional crews at the end of a trip, we were mentally already halfway home.
That Friday morning, we were departing Ohio for Ann Arbor, Michigan, to complete one final inspection before finishing the week in western Michigan. During preflight at the FBO, we noticed a PIREP from an MD-11 departing Detroit, about ten miles east of our destination, reporting severe icing on departure. That caught my attention. Ten minutes later, another report came in from a CRJ-700 in roughly the same area, reporting light to moderate icing.
We called dispatch. We reviewed the weather products. The icing forecast showed light to moderate conditions, nothing outside what a properly equipped King Air should handle. Traffic was departing Detroit continuously. No other aircraft reported severe icing, and nothing in the data suggested severe icing should be anywhere along or near our route. After discussing it, we decided to go.
On paper, it was a reasonable decision.
We departed on an IFR flight plan and headed north. South of Toledo, the first trace of ice appeared. It began as light accumulation, manageable, expected. Then it increased to moderate.
In a turboprop, moderate icing is not subtle. Windshield heat on. Prop heat on. Boots cycling. You start monitoring how often you need to inflate the boots. You check representative surfaces, windshield wipers, antennas, unprotected edges. You listen for ice shedding off the propeller blades and striking the fuselage. That sound is unmistakable.
At first, the airplane was handling it well. Airspeed steady. Boots shedding ice. No abnormal indications.
My copilot spoke up.
“Hey, the ice is picking up. What do you think about heading west?”
I assessed the instruments and outside cues. Everything appeared under control. “I think we’re okay,” I replied. “It’s moderate, but the airplane’s handling it fine.”
A few minutes later, he asked again. “We could just head west and pick this up Monday.”
Again, I declined. The systems were working. The airspeed was holding. Nothing was technically wrong.
And that’s where the trap was.
Over the next minute or two, the sound changed. Instead of light ice tapping the fuselage, we heard heavier chunks striking the cabin. The accumulation rate increased. Ice was building faster between boot cycles. The cues were subtle at first, then unmistakable.
I finally turned to him and said, “Let’s tell ATC we’re heading west.”
At almost the exact moment I said it, we entered severe icing.
The change was immediate and violent. Ice broke off windshield wipers and struck the windscreen with force. Larger pieces slung off the propellers and slammed into the fuselage. We inflated the boots, cleared the wings, only to look back seconds later and see them coated again as if we had never cycled them.
We advanced to full power. All anti-ice systems on high. We requested an immediate climb and turn.
Initially, we had about 700 feet per minute of climb. Then 500. Then 300. The airspeed began to bleed off, not just from the climb, but from the sheer drag accumulating on the aircraft. In severe icing, performance degradation happens quickly. What looks manageable can become untenable in moments.
We were still at 8,000–9,000 feet, with altitude to work with. If the climb failed, we were prepared to descend. But the margin was shrinking.
Then, about 60 seconds later, we broke out of the icing completely, into clear, solid VFR.
The relief was immediate.
The relief was immediate as we broke out into clear, solid VFR.
Looking back at the airplane, nearly every unprotected surface carried half an inch to three-quarters of an inch of ice. Anywhere there wasn’t a boot or heat, ice remained thick and stubborn.
We canceled the inspection and diverted west. Once on the ground, we pulled the airplane into the hangar and debriefed.
That debrief was the most important part of the day.
The airplane had performed exactly as designed. The systems worked. The training held. But the real issue wasn’t aircraft capability.
It was decision-making under pressure.
In the FBO, the go/no-go discussion was analytical and rational. But once airborne, on the last day of a long week, with work to finish and home waiting, I allowed external pressure to influence my internal risk tolerance.
The first time my copilot suggested diverting, the airplane was still within limits. It was manageable. But it was trending worse. And that trend mattered.
The question wasn’t, “Can the airplane handle this right now?”
The question should have been, “Why are we choosing to continue into worsening conditions when we don’t have to?”
That is the difference between legal and wise.
The real lesson from that day was simple: when you feel pressure to complete a task, that is precisely when you need to examine your decision more critically. Fatigue, schedule pressure, passenger expectations, and the desire to finish what you started can all subtly push a pilot to accept more risk than necessary.
We often ask, “Can we make it?”
A better question is, “What happens if we don’t?”
In our case, the consequence of turning west earlier would have been minor. We would have rescheduled the inspection for Monday. The inconvenience was administrative, not operationally critical.
But by pressing on, we exposed ourselves to a risk environment that escalated faster than anticipated.
IFR decision-making is dynamic. It requires continuous reassessment. A safe “go” at 8:00 a.m. may become a poor decision at 8:30 a.m. Trends matter. Pilot reports matter. Crew input matters.
Most importantly, speaking up matters.
My copilot saw the trend before I was willing to acknowledge it. Good CRM means listening, not just hearing.
That flight reinforced a principle I carry forward on every trip: if the consequence of delaying or canceling is inconvenience rather than catastrophe, choose inconvenience.
Airplanes can handle a lot. Pilots can handle a lot. But no schedule is worth trading away margin.
In the classroom, go/no-go decisions are clean and detached. In the real world, they are wrapped in fatigue, expectation, and subtle pressure.
In the classroom, go/no-go decisions are clean and detached. In the real world, they are wrapped in fatigue, expectation, and subtle pressure.
That is why the discipline to say “no”, especially when you technically could say “yes”, is one of the most important skills an instrument pilot can develop.
Because sometimes the most professional decision you can make is the one that gets you home a day later.
Webinar Video: Using a Home Simulator for IFR Training and Proficiency
/by IFR Focus TeamHome flight simulators have come a long way, and for instrument pilots they’ve become a legitimate tool for both training and staying sharp between flights. From procedure practice to scenario-based decision making, today’s simulators can meaningfully support IFR proficiency—when they’re set up and used the right way.
This webinar video demonstrates exactly how to do that. Join Sporty’s instructor Chris McGonegle for a practical look at building and using an at-home simulator with instrument flying in mind.
Practical IFR: Decision Time
/by Jeff Van WestSome decisions don’t allow the luxury of contemplation. Every instrument pilot knows at least one of these decisions in the depths of his or her cloud-flying bones: the missed approach. Making a decision while still descending and a mere 200 feet above the ground (lower for Cat II+) only works because the decision is binary. You see the expected environment and continue—or you don’t and you climb away.
Pre-loaded decisions are a fantastic safety tool, but we so rarely need them that we end up unprepared to effectively use them. This applies to far more than a missed approach, but let’s start there.
Real-world instrument training under the hood leaves pilots woefully unprepared for a real approach with low visibility. This is possibly the best reason to get some real IMC time in training. One-half mile of visibility at 200 AGL on a typical three-degree glide path means you can see the approach lights peeking through the murk, the threshold, and some puddles on the pavement. Scratch the bit about the pavement if it’s night.
To immediately measure visibility the moment you break out, you must know what you expect to see. That’s your yardstick. Is this an ALSF-2 lighting system? Just a MALSR? Maybe this is a non-precision approach with an ODALS? (They’re out there. We have one just down the road from my home base here in Portland, Maine.)
Each of these systems are a different shape and different length from the threshold. You should know how far those lights extend from the threshold and how far you will be from the beginning of those lights. You should see enough of that lighting system, and maybe a specific number of runway lights, to prove that you have the visibility required for continuing below DA/MDA. The point is you must know beforehand how much lighting you expect to see.
You should also know where to look. Crabbing down the localizer in crosswinds, pilots often forget that a ten-degree correction nose-right means those lights will be 10-degrees to the left. Anticipating that removes the moment of confusion when the lights pop-out off center. Or if the lights appear in a different place—or at a weird roll angle—you know something is wrong and a missed approach is the safest action.
The concept becomes more powerful if you expand its use. Take a non-precision approach with a published VDP. The VDP is the last point along the approach where you’ll likely be able to land straight-in without channeling your inner anvil. So know where that point is and watch it by distance on your GPS or by time. A breakout before that point is a pre-loaded straight-in. After that point, it’s a pre-loaded circle-to-land with a pre-chosen runway using a pre-planned path. Or, if you don’t dance circles, it’s a missed at the VDP. This is a decision gate: You have only two choices, and passing the gate only one remains.
This tool can be applied even more broadly. You’re on a base-leg vector to the localizer with a tailwind. At what point will you query ATC about a turn if one isn’t forthcoming? What would you do if the frequency was busy? Use the ident function on your transponder? If you were about to pass through, would you turn inbound or just keep going?
That last one is complicated and has been discussed in IFR Focus #1. But the point is that we can often predict moments where a decision must be made well before we get there. That means we can make an A-B plan, criteria for which option we’ll choose, and a point at which we’ll decide without hesitation.
There are so many places in regular flying where this happens: approaching weather and needing a deviation, requesting a new altitude before entering icy cloudtops, short final when struggling to stabilize the approach, floating on touchdown … it just goes on.
The takeaway on all of these is that a pre-loaded decision before you reach that moment of truth reveals actions that might make a snap decision unnecessary, as well as empowering you to make the right call without hesitation if you must.
Watch this Video
Thunderstorms and Mountain Passes
I learned to fly just south of Boulder, Colorado, and we routinely took 160-hp and 180-hp airplanes up into the mountains for destinations like Crested Butte, Telluride, and even Leadville. Nursing a flight-school Warrior over an 11,000-foot mountain pass is an exercise in patience that culminates with a decision gate.
You approach the pass riding the ridge for extra lift and at an angle to the pass. At the last moment, you decide if you have enough clearance to turn over the ridge, dive down for speed, and cross into the probably-descending air on the other side—or you peel away back around for another attempt.
Later in instrument flying, I found it useful to approach gaps in thunderstorms the same way, at least mentally. Space to turn around isn’t so critical, so approaching head-on is fine. But mentally there’s a distance to the towers on either side I want, and a certain visibility or clearance on the other side I require. That might be visible to the naked eye, or with the right on-board equipment. There’s a spring-loaded course reversal ready until I see what I need to commit on passing through the gap … or not seeing it and turning around to try another plan.
Video Tip: Entering a Hold with ForeFlight Hold Advisor
/by IFR Focus TeamIf weather or an ATC delay requires you to fly a holding pattern, you can use ForeFlight’s Hold Advisor feature to add the details of the hold to the flight plan. If you receive a clearance to hold at a waypoint currently entered in your flight plan, tap that waypoint ID in the Route Editor and select the Hold function. You can then enter the details of the holding clearance, including the inbound or outbound course, either a time or distance, left or right turns, altitude, speeds restrictions, and an expected further clearance time.
This video tip appears in Sporty’s Flying with ForeFlight training course, which features more than three hours of in-depth training on how to use aviation’s most widely used EFB app.