Bozeman Yellowstone International Airport (KBZN) RNAV and ILS 12
In a world of vectors and magenta lines, we rarely sweat the details of transition routes for instrument approaches. Follow the controller’s instructions and the GPS flight plan.
What could go wrong?
Not much when you’re in radar contact and the navigator is working. However, both of those things can drop away without warning, so it’s worth digging into how you bridge the gap between the enroute environment and the final approach course on your own. It’s also an often-overlooked part of the IFR education. Two great charts to study are the RNAV (GPS) Y Rwy 12 and ILS or LOC Rwy 12 at Bozeman, MT (KBZN).
Transitions connect a point in the enroute structure with a point on the approach chart. The RNAV (GPS) Y Rwy 12 has three: The Livingston VOR (LVM), the Whitehall VOR (HIA), and RANEY on V-343. It also has two IAFs that also exist on airways so you can go directly from enroute to approach: THESE on V-343 and GODFE on V-365. So long as one of those five fixes are found along your cleared route, they should be available as a transition from the airway system to the approach.
GODFE and THESE are the simplest: it’s 8000 feet direct to FEVIM, which is a track of 163 and 074, respectively. Note that the 8000 is an at-or-above altitude. If cleared for that transition, and barring any instruction from ATC otherwise, descent to 8000 is at your discretion. That’s why the wavy double line, meaning it’s not to scale, and 18.5 in parenthesis at GODFE are worth noting. It’s 18.5 nm from GODFE to FEVIM, so you’ve got some time to descend. Note to iPad users with georeferenced charts: These discontinuities are not factored into when the airplane symbol appears over them on the chart. Your position is relative to the primary fixes on the approach.
NoPT means you won’t fly the hold-in-lieu-of-procedure-turn (thankfully acronymed HILPT). You’ll simply cross FEVIM and fly a course of 123 to HAYCI at (or above) 7300 feet.
Did you expect the next fix after FEVIM to be OLENY rather than HAYCI? It would be an easy mistake.? The step-down fix HAYCI kinda gets lost in the noise on this approach, which is why we brief approaches and ensure they match the way points listed in the GPS flight plan.
Moving clockwise on the transitions, LVM and RANEY are similar, but include a leg to a secondary RNAV fix (QIVHY and POPWI, respectively), and then direct FEVIM. The headings don’t change between the two legs, so they must be stepdowns for obstacles. Arrivals from these directions require a HILPT at FEVIM. The trip from HIA has three legs, the last of which is the transition from THESE. No surprise here.
The ILS approach is more interesting. There’s a 15-mile transition from the Bozeman VOR (BZN) via R-297 to FALIA, with a HILPT. For equipment, only a basic VHF nav/com and a timer is required. Two VORs would be better, and FALIA is at the intersection of BZN R-297 and HIA R-061. FALIA is shown on the enroute chart with these crossing radials shown, but not with any on-airway route to reach it. Of course, you could use GPS, but that’s not required for this approach.
There’s also a transition from HIA to THESE with two legs. The minimum altitude is 9400 feet for the first 19 miles, denoted by the 19 inside the D-shape (for “distance” or “DME”). The minimum altitude for the next 7.9 miles is 8300 feet. Both legs follow R-060 from the VOR. If you’re using GPS, the fix where you can descend to 8300 feet is HEBIV. (Side note: An older version of this chart had two distance discontinuities and the stepdown was kinda hidden between them. The current version shifted the entire approach to the right in the plan view, perhaps to make that stepdown clearer. Wonder if there’s a story behind that. Maybe an ASRS report too). Because GPS navigation is not required and you might be navigating using VORs, the next intersection, THESE, is defined by R-060 from HIA and R-284 from BZN. Without DME you’d have to maintain 9400 to here, or be pretty confident in your position by time.
The route THESE to FALIA has a note that requires some parsing: “8000 NoPT to FALIA 042° (4.5) and 123 (2.7).” What’s “123°”? Why that’s the inbound localizer course. The older version of the chart said that. I don’t know what TERPS change mandated the more cryptic course. Maybe they had to keep it interesting after shifting the plan view. With a GPS it doesn’t matter. You’ll see THESE, an intercept point, and FALIA in the flight plan.
Without GPS, this route is accomplished by flying a heading of 042 and … waiting for the localizer signal. It’s a dead reckoning leg. To keep the dead part from getting too literal, start a timer and know about how long it will take to fly 4.5 miles to intercept the localizer. Go much longer than that and it’s time to execute a Plan B with a climb and a turn towards lower terrain. Once you intercept the localizer, it’s another 2.7 miles to FALIA.
The missed approach has a similar dead reckoning leg. You climb on runway heading to 5200 feet, then turn to a heading of 250 to intercept R-223 from BZN as you continue to climb for 9000 feet to BRIGR.
BRIGR is also an initial approach fix (IAF) for this approach, with a DME-arc transition. That old chart (I know, I keep bringing this up) required radar for this fix. That’s because BRIGR isn’t on the enroute chart, so without RNAV a controller would be the only way to find it. I guess they figure everyone has RNAV now, so why waste ink?
If radar coverage was down and you had a GPS, could you fly to BRIGR on your own? Probably not. Off-route clearances require radar coverage (for the most part).
When flying the arc with GPS, you’ll get an annunciation from the navigator when it’s time to turn inbound and intercept the localizer. Without GPS, you might start your turn inbound to the localizer when you cross R-289 from BZN. This is the lead radial, marked “LR-289” on the chart. And, yes, it’s perfectly legal to fly this with one nav/com—as long as you have simultaneous reception of the I-BZN localizer and the BZN DME. That detail is in the chart notes. But then, who actually still has a real DME receiver in light GA? Lead radials get more important the faster you’re moving over the ground. Below 150 knots, you can usually ignore them. That’s true airspeed though. Up here, 150 knots true would be about 125 knots indicated.
There’s also a DME arc from KICDO. There was no radar requirement on the old approach chart, even though you won’t find KICDO on the enroute chart. The key is that KICDO is on R-320 from BZN at 15 miles. R-320 also defines V-365 from BZN. This means KICDO is on V-365 two miles north of MENAR (the one with the crossing restriction flag). It’s typical to find a common named fix on both the enroute chart and the approach chart, but it’s not required if the fix on the chart lies directly on the airway.
This is why details matter. Sometimes it takes a little investigation to understand how all the transitions connect. Make a habit of investigating and you’ll be ready on the off day when you must put that knowledge to use.
The Swiss Army Knife of Flying Math
A Seven Mile Hold? Really?
Both the GPS and Localizer-based approaches to Runway 12 at KBZN have a HILPT (hold in lieu of procedure turn), but they’re defined differently—which makes a huge difference, at least on paper. When a procedure turn is depicted as a hold, you should fly it like a hold. No “creative” turns are allowed. The ILS shows a one-minute leg length, so you’ll follow standard practice and fly outbound for enough time that the leg coming back inbound is about a minute.
The RNAV approach measures the HILPT in distance. These are at least four miles, but the length increases with altitude. This HILPT is seven miles. The GPS guidance will bring you out far enough to fly all seven miles back inbound. That’s a 10-minute course reversal for a typical trainer. You might need long-range fuel tanks.
Except you don’t need to fly all seven. This isn’t a hold, it’s a HILPT. AIM 5-4-9 even allows for this: “… the specified leg length/timing must not be exceeded.” So remain within the bounds of the racetrack and use an approved hold entry, but feel free to cut the distance short and save a little gas. Most GPS navigators even understand and sequence to the next fix automatically.
https://media.ifrfocus.com/wp-content/uploads/2026/01/12125902/Practical-IFR-Understanding-the-Transitions.png10001250Jeff Van Westhttps://media.ifrfocus.com/wp-content/uploads/2025/07/14115136/IFR-Focus-Logo_White_Blue_Web-01.pngJeff Van West2026-01-20 08:55:272026-01-21 15:55:52Practical IFR: Understanding the Transitions
IFR flying is especially valuable on short, practical trips—and this flight is a perfect example. Join CFI-I Spencer Suderman for a real-world IFR cross-country from Jacksonville to Daytona Beach, Florida, flown in a G1000-equipped Cessna 172. From preflight planning and filing in ForeFlight to copying a clearance, flying in the system, and executing an RNAV approach at the destination, this is a complete, end-to-end look at how everyday IFR flying actually works.
Whether you’re a newly instrument-rated pilot or a VFR pilot curious about what IFR can unlock, this ride-along shows how even a relatively short flight can benefit from structure, efficiency, and flexibility in the National Airspace System.
This video is part of Sporty’s IFR Insights Series with Spencer Suderman—designed to demystify general aviation IFR and show how it can turn marginal days into safe, productive flying days.
Here’s a common scenario: it’s the last week of the month and you’re prepping a trip in two weeks to visit friends you missed seeing over the holidays. Oh, wait—are you IFR current? A quick check on your EFB shows your six-month window under 14 CFR § 61.57(c) ends this week. But since you’re only one approach and one hold short, you can grab your aircraft partner, fly those off in less than an hour under the hood, and extend your currency to cover that trip. Whew—those deadlines sure come up quick. And you’ll have to work in more approaches after you return to keep your privileges alive.
This has become a monthly ordeal for the last three years. By the way, that’s when you had your last IPC—which you’re still recovering from. So up ’til now, you’ve managed to stay current, yet secretly wondering if it’s time for some real training. There has got to be a better way.
First, Proficiency
Thanks to our collective embrace of continuing education via seminars and webinars, we’ve got a pretty good grounding in the idea that currency doesn’t equal proficiency. Yet we can’t resist pairing these as a two-for-one deal. It’s a desirable package, but with unintended consequences.
First, it masks our true state of IFR readiness. Say you’ve been flying several nicely done practice approaches, plus a couple of real ones, over the last few months. That’s current and proficient. But proficient at what? More on that later.
The other pitfall is that we still end up prioritizing currency—and those juicy IFR privileges—often to the detriment of proficiency. Currency is often a do-by deadline, so naturally it gets more attention.
By the same token, getting out of currency by a day doesn’t suddenly make you non-proficient. What really happens is gradual. When you do just enough to stay current, your proficiency in a narrow selection of operations (like the two approaches at your home airport) is great. But skills in other areas—like partial-panel missed procedures and unfamiliar approaches—decline.
So how do you achieve both goals? First, swap them. Then, separate the two. The result: proficiency comes first, and currency takes care of itself.
Start with what you know. Are you good at ILS approaches? Watch this: you can hand-fly all the way to DA without a twitch of the needles and then grease it in. Excellent. Now see if you can be just as smooth and accurate with only backup instruments, or at 10 knots faster than normal (ATC: “Keep your speed up.”)
You and your CFII can concoct all kinds of variables to assess your skills and push them to the edges. This will bring out what needs extra practice or instruction. Make a master list and choose two or three items at a time to tackle. Better yet, use that short agenda to carve out extra time and fly a bit farther to a new airport.
Now each flight is a true instrument proficiency check, but without the pressure of a full-blown IPC. You’ll never run out of scenarios, and you can still fly with a safety pilot when suitable. Better yet, this approach covers the most important goal: knowing that you can be out there flying smoothly and safely, whether things are going normally—or not.
Pain-Free Practice
We all start the rating—and subsequent IPCs—with the Airman Certification Standards. That’s a great starting point for basic proficiency, but it’s just that—pretty basic. So feel free to take it further and halve the published standards, or more.
When acting as CFII on a flight, I use “5-5-50” as an easy-to-see tool to assess proficiency: maximum five degrees off heading, plus-or-minus five knots on airspeed, and plus-or-minus 50 feet on altitude. Smoothly correcting back to the assigned number, with no coaching or prompting, qualifies as proficient.
If things get beyond that, my “assessing” hat comes off and the “training” hat goes on to verbalize the error and discuss tips. Then we’ll practice to proficiency, even if there’s a “malfunction.” Sometimes we’ll save an item for the next flight, but since currency got covered this session, there’s no time pressure. (By the way, instructing mode might be armed and activated a bit quicker when flying under IFR—and especially in actual conditions—for safety and to avoid raised eyebrows from ATC. Funny how we can tell that over the radio.)
It’s great to strive for perfection, but none of us achieves that 100 percent of the time. Nor do we stay proficient at everything without review. More importantly, something new will always come up—whether through hangar flying, new avionics, or experiencing that first icing encounter on approach.
These are the other reasons why we’ll never run out of things to explore in practice, whether in flight or with a simulator. You, as the PIC, might someday need to recognize when “normal” procedures must change—but you’ll have the tools to manage it safely. For example, you might get a present-position hold to run an abnormal gear-procedure checklist, or request 200-foot altitude deviations for turbulence so you can focus on keeping the wings level. That’s a deeper form of proficiency at work.
All of this helps us embrace the pursuit of that elusive 100 percent score every time we fly. That missed approach you did last week was perfect—but it was due to a non-precision approach in a 20-knot crosswind that ended up high and fast. Rather than avoiding that situation forever, it goes on your “next-time” list.
Making it a routine to understand, train for, and then nail the next few tasks will maintain that hard-earned proficiency, too—without gaps that can compromise safety or take more time and repetition to rebuild.
Tips to Emphasize Proficiency While Staying Current
Monthly flights—or something like “second Saturdays”—are easy to schedule, easier to stick to (read: resolutions), and let you plan what to practice, which can be anything you want. I like two hours total: an hour of flight, plus 30 minutes each for preflight and postflight tasks. This is time-efficient, and having to miss one now and then won’t threaten currency.
Every few months, block out three to four hours and fly somewhere new or rarely visited. File IFR so that clearances, approaches, and other procedures—like departures and arrivals—are on the agenda. This can also include lunch or a cheap-fuel stop.
Use elements of the IPC (listed in the Instrument Rating ACS) when flying with your CFII, applying ACS or tighter completion standards. Customize the elements for your own list of skill-building tasks. Then it’s just one hour at a time, at your convenience, toward completing an occasional, painless IPC.
Without worries over currency, ongoing proficiency can become a more useful process—while flying plenty of routes, approaches, and holds. You’ll also be having a lot more fun, which is the best way to get out there and fly—and the best way to achieve both.
Editor’s Note: Dr. Parvez Dara makes his IFR Focus debut with this article. An ATP-rated pilot, 10-time Master CFII, and Gold Seal instructor, Parvez serves with the MAPA Safety Foundation, S.A.F.E., and the FAA Safety Team. A former FAA CFI of the Year and Safety Team Representative of the Year, he writes extensively on flight safety and brings a unique risk-management perspective as a practicing physician.
The first snowflake came down the atmospheric elevator shaft completely intact and brushed my face—and the GA pilot’s dread returned. “’Tis the season to be jolly” slowly morphed into weather-forecast management, ending in mostly VFR flights. An unsettling disruption to routine.
Icing, like thunderstorms, is not for mere mortals. It can ruin your day—much less your life. Having encountered icing in all four seasons, it evokes some fast–heart-rate negotiations with your Maker. Early in my flying career, a traversal into unknown icing at 15,000 feet in July left rime—like slime—all over the leading edges. I panicked and called ATC. They wanted to know the type, intensity, etc., and all I wanted was, “Get me outta here!” Descending to 13,000 feet got rid of it quickly. Oh, did I mention my M20M was equipped with a non‑FIKI TKS system at the time—and it wasn’t on? It was summer, after all. A mysterious gravity of existence in turmoil.
Another time, another flight at 15,000 feet from Dallas to New Jersey, I saw the windshield haze over with small pockmarks of ice crystals on the Bonanza. I looked at the leading edges and, sure enough, they were rough white on smooth white. I did not panic, but simply asked to descend to 13,000 feet, and voilà—the aircraft smoothed out and the IAS picked up a fraction. Experience teaches us the tricks of the trade. Yet another time, climbing through an unforecast icing layer at 7,000 feet with moderate-to-severe turbulence, was an eye-opening, neck‑whiplashing, shoulder‑in‑a‑sling event—safely negotiated by climbing to 12,000 feet in clear, smooth air.
Icing is an atmospheric phenomenon imposed on human creation. The aircraft is a perfect example of a cold object flying inside clouds where supercooled water droplets find harbor. Ice accretion depends on both the shape and the speed of the object. To prove that theory, a few years back I was flying the Mooney while a relative flew four miles behind me at the same altitude in the clouds—both on IFR flight plans. I collected rime ice on the laminar wings of the Mooney while he skated through without a crystal on his A36 Bonanza. Both shape and speed matter. The faster the speed, the greater the potential accretion. The latticework of water (H₂O) can form a beautiful crystalline product over any cold aluminum structure, given two things: temperatures between 0 and −15°C and a cold surface.
Icing often accrues faster on the horizontal and vertical empennage than on the wings because of their thinner structures. So if you see ice on the windshield or the wing leading edge, keep in mind that it is likely enveloping the tail as well.
Types of Aircraft Icing
Three types of icing afflict fuel‑injected piston aircraft: rime ice (70%), clear ice (10%), and mixed ice (20%). In carbureted aircraft, there is also the risk of carburetor ice. The physics are simple: the throttle body restricts airflow, and as the air expands past it, the temperature drops—sometimes enough to freeze moisture. If airspeed diminishes or the engine begins to run rough, turn carb heat on immediately. Carbureted engines can ice up in temperatures ranging from +70°C down to −15°C.
Induction ice can also occur when air‑induction vents clog the filter, requiring pilot awareness and corrective action. Pitot heat should be on, and alternate air selected as needed so air can continue to support combustion. Structural icing, on the other hand, can affect every surface of the aircraft—especially protrusions such as antennas, the pitot tube, and air‑temperature probes. When an antenna becomes ice‑laden, a noticeable shudder can occur, and transmission and reception may degrade dramatically.
Icing Temperatures
On an IFR flight plan, if you find yourself near the 0 to −15°C temperature range, your first move should be to remove yourself from that environment. If able, climb 2,000 feet or descend 2,000 feet. In mountainous terrain, always ensure at least 2,000–3,000 feet above the MEA. Temperatures between −15°C and −40°C reduce the likelihood of icing, while below −40°C there is virtually no risk.
Rime ice forms most often in stratiform clouds and is typically greatest near the top of the cloud layer. It is white, grainy, and forms relatively evenly. Clear ice, by contrast, can build rapidly and form horns above and below the leading edge. These horns disrupt airflow, increase drag, raise stall speed, and force the wing to fly at a higher angle of attack—often accelerating the icing problem.
Imagine the wing at a higher angle of attack: airflow slides downward over the top surface, carrying moisture with it. That moisture can then impact the underside of the tailplane, loading the elevators with ice. Which brings us to stalls.
Stalls
There are two types of icing‑induced stalls: wing stalls and tailplane stalls. If confronted with a wing stall, the recovery mirrors a normal stall recovery—reduce angle of attack, add power if available, and regain airspeed. A tailplane stall is different and counterintuitive. The telltale signs include mushy controls and difficulty maintaining altitude. In this case, pull back slightly on the yoke and slow down. Recognition is key before initiating the correct response.
Weather
Cold fronts are particularly conducive to icing and can produce icing conditions more than 100 miles ahead of the front. They are often associated with unstable air and convective clouds that harbor clear ice. As moisture is lifted, droplets grow larger; when they enter colder air, they can remain supercooled and freeze on impact—creating clear ice. Warm fronts, meanwhile, can extend the icing threat 300 miles or more ahead of the boundary.
Avoidance is the key for GA aircraft, regardless of deicing equipment. Whether FIKI or non‑FIKI, the equipment is designed to help you escape icing—not to press on through it. Think of it as a “get out of jail” card. Never launch into known icing expecting the system to carry you safely through. Even large aircraft with sophisticated bleed‑air systems have been humbled by ice.
Quick Poll
Winter Flying and In‑Flight Strategy
Can you fly in winter? Absolutely. Monitor the weather, frontal positions, and their movement. Be especially cautious when cold fronts overrun warm fronts—these setups can be particularly hazardous. Maintain a healthy margin between the MEA and cloud layers. Remember that winter often brings stronger winds as the jet stream dips south, offering good easterly tailwinds and punishing westerly headwinds.
If you encounter icing, ask ATC for an immediate exit from the clouds. If that’s not possible, a 2,000–3,000‑foot altitude change may help. Seek warmer air to shed ice. If you must carry ice to the destination, plan a higher‑than‑normal approach speed, delay gear and flap extension, and consider a flap‑less landing. Extending flaps changes wing camber and can further load the tailplane, reducing elevator effectiveness. Flare close to the runway to avoid a sudden loss of lift just feet above the surface.
One overriding rule remains: find warmer air. That requires an intimate understanding of the forecast—fronts, freezing levels, winds aloft, and tools such as Skew‑T charts. Avoid missed approaches or diversions through freezing layers whenever possible.
Awareness
Preflight awareness is essential, but in flight, adhere to these fundamentals:
Monitor airspeed—gradual decay is a warning sign.
Monitor pitch—a rising pitch to hold altitude suggests loss of lift.
Disconnect the autopilot and hand‑fly to prevent stalls or spins.
Declare an emergency in moderate or severe icing to expedite help from ATC.
Use angle of attack, if available—it is more reliable than airspeed in icing.
Energize TKS prior to IFR flight in fall, winter, and spring so fluid is ready when you need it to get out of jail.
Awareness, avoidance, and decisive action remain the pilot’s best defenses against icing.
Let’s Test Your Knowledge
Which temperature range presents the highest icing risk in clouds?
Correct!Wrong!
Why is tailplane icing especially dangerous?
Correct!Wrong!
Your primary goal when encountering icing in a GA aircraft should be:
https://media.ifrfocus.com/wp-content/uploads/2026/01/06123439/Icing-Awareness-Avoidance-and-the-IFR-Pilots-Escape-Plan.png10001250Parvez Darahttps://media.ifrfocus.com/wp-content/uploads/2025/07/14115136/IFR-Focus-Logo_White_Blue_Web-01.pngParvez Dara2026-01-09 08:55:212026-01-06 12:48:48Icing: Awareness, Avoidance, and the IFR Pilot’s Escape Plan
January is a natural reset point for pilots. Logbooks flip to a new page and many of us quietly resolve to be better in the cockpit this year. For instrument pilots, that resolution often comes down to one word: proficiency.
An instrument rating is not a static achievement—it’s a perishable skill set. Currency requirements may keep you legal, but they don’t always keep you comfortable or capable when the workload spikes, the weather deteriorates, or the avionics don’t behave as expected. The goal, then, isn’t just to stay current, but to remain truly proficient.
Below are practical, repeatable strategies to help make instrument proficiency part of your flying routine in the new year—not a last-minute scramble before the next IPC.
Quick Question on Proficiency
Plan Every Flight as If It Were IFR
Even when the forecast is severe clear, disciplined IFR-style planning pays dividends. Planning as if you’ll fly in the system keeps weather interpretation skills sharp and reinforces good aeronautical decision-making habits.
Go beyond the regulatory minimums. Study large-scale weather patterns first, then funnel down to route-specific and terminal forecasts. Prognostic charts, graphical icing and turbulence forecasts, winds aloft, and cloud/visibility prediction tools all help build a three-dimensional mental picture of the atmosphere.
Today’s self-briefing tools make this easier than ever—but they also place more responsibility on the pilot. Develop a consistent briefing flow so key information isn’t missed, and don’t hesitate to supplement automated data with expert input when conditions warrant a deeper dive.
Treat each preflight as practice. Even flights you never intend to launch sharpen your planning muscle.
Fly IFR in VMC—On Purpose
One of the most effective (and underused) proficiency tools is flying IFR in good weather. Operating in the system builds confidence with clearances, altitudes, routing changes, and cockpit workload—without the added pressure of actual IMC.
IFR flights in VMC also make it easy to end every trip with an instrument approach. Vary the airports and procedures you fly. Rotate through different types of approaches so nothing feels unfamiliar when the ceiling is actually low.
As your comfort level grows, consider incorporating departure procedures. Obstacle Departure Procedures, in particular, are often overlooked but can be critical at unfamiliar airports or in marginal conditions.
Tame the Avionics—Don’t Let Them Tame You
Modern avionics are powerful, but only if they’re well understood. True proficiency means knowing what your equipment will do before you need it—and recognizing when it’s time to dial things back and hand-fly.
Make a habit of revisiting avionics manuals, software updates, and simulator tools. Consider setting personal guidelines for manual flying, such as hand-flying in daylight within a certain distance of the airport or under defined ceiling and visibility limits. These self-imposed standards help prevent erosion of fundamental skills.
Automation is a resource—not a crutch.
Use Checklists, Then Build Flows
Checklists are foundational, but experienced instrument pilots often add a second layer: flows. Flows create an organized, repeatable pattern for configuring the cockpit, followed by checklist verification to catch anything missed.
For IFR flying, consider specialized checklists such as:
In-range or arrival checklists to review approaches and avionics setup
EFB configuration checks to ensure charts, plates, and frequencies are ready
Anticipation reduces workload. When the airplane is configured early, your brain has more bandwidth when it matters most.
Play the “What-If” Game—Often
Proficiency isn’t built only in the air. Scenario-based thinking on the ground is one of the most effective ways to stay sharp.
What if the ceiling drops below forecast? What if the autopilot fails? What if ATC amends the clearance at the worst possible moment?
These mental exercises reinforce systems knowledge, improve decision-making speed, and make real-world surprises feel more familiar.
Commit to Personal Minimums—and Revisit Them
Finally, proficiency and discipline go hand in hand. Establish personal minimums that reflect your current skill level, not your past experience or future aspirations.
Revisit those minimums periodically. A little discomfort is healthy—it signals growth—but ignoring it entirely is a warning sign. Honest self-assessment is one of the most valuable tools an instrument pilot can carry.
Make Proficiency the Resolution That Sticks
Instrument proficiency isn’t about flying more—it’s about flying with intention. By building consistent habits, using technology wisely, and challenging yourself thoughtfully, you can make this year’s resolution more than words.
https://media.ifrfocus.com/wp-content/uploads/2026/01/01215501/A-New-Year-a-Sharper-Scan.png10001250Eric Radtkehttps://media.ifrfocus.com/wp-content/uploads/2025/07/14115136/IFR-Focus-Logo_White_Blue_Web-01.pngEric Radtke2026-01-06 08:55:002026-01-06 10:49:17A New Year, a Sharper Focus: Practical Strategies for Maintaining Instrument Proficiency
In this excerpt from Advanced IFR, by PilotWorkshops, follow along on this scenario-based IFR route selection exercise as we plan a flight from Oceana, CA (L52), to Monterey, CA (KMRY), using ForeFlight Route Advisor. As you can see, there are many variables to consider when planning an IFR route including weather conditions, airspace, aircraft capabilities and ATC preferences.
Practical IFR: Understanding the Transitions
/by Jeff Van WestBozeman Yellowstone International Airport (KBZN) RNAV and ILS 12
In a world of vectors and magenta lines, we rarely sweat the details of transition routes for instrument approaches. Follow the controller’s instructions and the GPS flight plan.
What could go wrong?
Not much when you’re in radar contact and the navigator is working. However, both of those things can drop away without warning, so it’s worth digging into how you bridge the gap between the enroute environment and the final approach course on your own. It’s also an often-overlooked part of the IFR education. Two great charts to study are the RNAV (GPS) Y Rwy 12 and ILS or LOC Rwy 12 at Bozeman, MT (KBZN).
Transitions connect a point in the enroute structure with a point on the approach chart. The RNAV (GPS) Y Rwy 12 has three: The Livingston VOR (LVM), the Whitehall VOR (HIA), and RANEY on V-343. It also has two IAFs that also exist on airways so you can go directly from enroute to approach: THESE on V-343 and GODFE on V-365. So long as one of those five fixes are found along your cleared route, they should be available as a transition from the airway system to the approach.
GODFE and THESE are the simplest: it’s 8000 feet direct to FEVIM, which is a track of 163 and 074, respectively. Note that the 8000 is an at-or-above altitude. If cleared for that transition, and barring any instruction from ATC otherwise, descent to 8000 is at your discretion. That’s why the wavy double line, meaning it’s not to scale, and 18.5 in parenthesis at GODFE are worth noting. It’s 18.5 nm from GODFE to FEVIM, so you’ve got some time to descend. Note to iPad users with georeferenced charts: These discontinuities are not factored into when the airplane symbol appears over them on the chart. Your position is relative to the primary fixes on the approach.
NoPT means you won’t fly the hold-in-lieu-of-procedure-turn (thankfully acronymed HILPT). You’ll simply cross FEVIM and fly a course of 123 to HAYCI at (or above) 7300 feet.
Did you expect the next fix after FEVIM to be OLENY rather than HAYCI? It would be an easy mistake.? The step-down fix HAYCI kinda gets lost in the noise on this approach, which is why we brief approaches and ensure they match the way points listed in the GPS flight plan.
Moving clockwise on the transitions, LVM and RANEY are similar, but include a leg to a secondary RNAV fix (QIVHY and POPWI, respectively), and then direct FEVIM. The headings don’t change between the two legs, so they must be stepdowns for obstacles. Arrivals from these directions require a HILPT at FEVIM. The trip from HIA has three legs, the last of which is the transition from THESE. No surprise here.
The ILS approach is more interesting. There’s a 15-mile transition from the Bozeman VOR (BZN) via R-297 to FALIA, with a HILPT. For equipment, only a basic VHF nav/com and a timer is required. Two VORs would be better, and FALIA is at the intersection of BZN R-297 and HIA R-061. FALIA is shown on the enroute chart with these crossing radials shown, but not with any on-airway route to reach it. Of course, you could use GPS, but that’s not required for this approach.
There’s also a transition from HIA to THESE with two legs. The minimum altitude is 9400 feet for the first 19 miles, denoted by the 19 inside the D-shape (for “distance” or “DME”). The minimum altitude for the next 7.9 miles is 8300 feet. Both legs follow R-060 from the VOR. If you’re using GPS, the fix where you can descend to 8300 feet is HEBIV. (Side note: An older version of this chart had two distance discontinuities and the stepdown was kinda hidden between them. The current version shifted the entire approach to the right in the plan view, perhaps to make that stepdown clearer. Wonder if there’s a story behind that. Maybe an ASRS report too). Because GPS navigation is not required and you might be navigating using VORs, the next intersection, THESE, is defined by R-060 from HIA and R-284 from BZN. Without DME you’d have to maintain 9400 to here, or be pretty confident in your position by time.
The route THESE to FALIA has a note that requires some parsing: “8000 NoPT to FALIA 042° (4.5) and 123 (2.7).” What’s “123°”? Why that’s the inbound localizer course. The older version of the chart said that. I don’t know what TERPS change mandated the more cryptic course. Maybe they had to keep it interesting after shifting the plan view. With a GPS it doesn’t matter. You’ll see THESE, an intercept point, and FALIA in the flight plan.
Without GPS, this route is accomplished by flying a heading of 042 and … waiting for the localizer signal. It’s a dead reckoning leg. To keep the dead part from getting too literal, start a timer and know about how long it will take to fly 4.5 miles to intercept the localizer. Go much longer than that and it’s time to execute a Plan B with a climb and a turn towards lower terrain. Once you intercept the localizer, it’s another 2.7 miles to FALIA.
The missed approach has a similar dead reckoning leg. You climb on runway heading to 5200 feet, then turn to a heading of 250 to intercept R-223 from BZN as you continue to climb for 9000 feet to BRIGR.
BRIGR is also an initial approach fix (IAF) for this approach, with a DME-arc transition. That old chart (I know, I keep bringing this up) required radar for this fix. That’s because BRIGR isn’t on the enroute chart, so without RNAV a controller would be the only way to find it. I guess they figure everyone has RNAV now, so why waste ink?
If radar coverage was down and you had a GPS, could you fly to BRIGR on your own? Probably not. Off-route clearances require radar coverage (for the most part).
When flying the arc with GPS, you’ll get an annunciation from the navigator when it’s time to turn inbound and intercept the localizer. Without GPS, you might start your turn inbound to the localizer when you cross R-289 from BZN. This is the lead radial, marked “LR-289” on the chart. And, yes, it’s perfectly legal to fly this with one nav/com—as long as you have simultaneous reception of the I-BZN localizer and the BZN DME. That detail is in the chart notes. But then, who actually still has a real DME receiver in light GA? Lead radials get more important the faster you’re moving over the ground. Below 150 knots, you can usually ignore them. That’s true airspeed though. Up here, 150 knots true would be about 125 knots indicated.
There’s also a DME arc from KICDO. There was no radar requirement on the old approach chart, even though you won’t find KICDO on the enroute chart. The key is that KICDO is on R-320 from BZN at 15 miles. R-320 also defines V-365 from BZN. This means KICDO is on V-365 two miles north of MENAR (the one with the crossing restriction flag). It’s typical to find a common named fix on both the enroute chart and the approach chart, but it’s not required if the fix on the chart lies directly on the airway.
This is why details matter. Sometimes it takes a little investigation to understand how all the transitions connect. Make a habit of investigating and you’ll be ready on the off day when you must put that knowledge to use.
The Swiss Army Knife of Flying Math
A Seven Mile Hold? Really?
Both the GPS and Localizer-based approaches to Runway 12 at KBZN have a HILPT (hold in lieu of procedure turn), but they’re defined differently—which makes a huge difference, at least on paper. When a procedure turn is depicted as a hold, you should fly it like a hold. No “creative” turns are allowed. The ILS shows a one-minute leg length, so you’ll follow standard practice and fly outbound for enough time that the leg coming back inbound is about a minute.
The RNAV approach measures the HILPT in distance. These are at least four miles, but the length increases with altitude. This HILPT is seven miles. The GPS guidance will bring you out far enough to fly all seven miles back inbound. That’s a 10-minute course reversal for a typical trainer. You might need long-range fuel tanks.
Except you don’t need to fly all seven. This isn’t a hold, it’s a HILPT. AIM 5-4-9 even allows for this: “… the specified leg length/timing must not be exceeded.” So remain within the bounds of the racetrack and use an approved hold entry, but feel free to cut the distance short and save a little gas. Most GPS navigators even understand and sequence to the next fix automatically.
Video: IFR Cross-Country with Spencer Suderman
/by IFR Focus TeamIFR flying is especially valuable on short, practical trips—and this flight is a perfect example. Join CFI-I Spencer Suderman for a real-world IFR cross-country from Jacksonville to Daytona Beach, Florida, flown in a G1000-equipped Cessna 172. From preflight planning and filing in ForeFlight to copying a clearance, flying in the system, and executing an RNAV approach at the destination, this is a complete, end-to-end look at how everyday IFR flying actually works.
Whether you’re a newly instrument-rated pilot or a VFR pilot curious about what IFR can unlock, this ride-along shows how even a relatively short flight can benefit from structure, efficiency, and flexibility in the National Airspace System.
This video is part of Sporty’s IFR Insights Series with Spencer Suderman—designed to demystify general aviation IFR and show how it can turn marginal days into safe, productive flying days.
The Anti-PIC
/by Elaine KauhHere’s a common scenario: it’s the last week of the month and you’re prepping a trip in two weeks to visit friends you missed seeing over the holidays. Oh, wait—are you IFR current? A quick check on your EFB shows your six-month window under 14 CFR § 61.57(c) ends this week. But since you’re only one approach and one hold short, you can grab your aircraft partner, fly those off in less than an hour under the hood, and extend your currency to cover that trip. Whew—those deadlines sure come up quick. And you’ll have to work in more approaches after you return to keep your privileges alive.
This has become a monthly ordeal for the last three years. By the way, that’s when you had your last IPC—which you’re still recovering from. So up ’til now, you’ve managed to stay current, yet secretly wondering if it’s time for some real training. There has got to be a better way.
Thanks to our collective embrace of continuing education via seminars and webinars, we’ve got a pretty good grounding in the idea that currency doesn’t equal proficiency. Yet we can’t resist pairing these as a two-for-one deal. It’s a desirable package, but with unintended consequences.
First, it masks our true state of IFR readiness. Say you’ve been flying several nicely done practice approaches, plus a couple of real ones, over the last few months. That’s current and proficient. But proficient at what? More on that later.
The other pitfall is that we still end up prioritizing currency—and those juicy IFR privileges—often to the detriment of proficiency. Currency is often a do-by deadline, so naturally it gets more attention.
By the same token, getting out of currency by a day doesn’t suddenly make you non-proficient. What really happens is gradual. When you do just enough to stay current, your proficiency in a narrow selection of operations (like the two approaches at your home airport) is great. But skills in other areas—like partial-panel missed procedures and unfamiliar approaches—decline.
So how do you achieve both goals? First, swap them. Then, separate the two. The result: proficiency comes first, and currency takes care of itself.
Start with what you know. Are you good at ILS approaches? Watch this: you can hand-fly all the way to DA without a twitch of the needles and then grease it in. Excellent. Now see if you can be just as smooth and accurate with only backup instruments, or at 10 knots faster than normal (ATC: “Keep your speed up.”)
You and your CFII can concoct all kinds of variables to assess your skills and push them to the edges. This will bring out what needs extra practice or instruction. Make a master list and choose two or three items at a time to tackle. Better yet, use that short agenda to carve out extra time and fly a bit farther to a new airport.
Now each flight is a true instrument proficiency check, but without the pressure of a full-blown IPC. You’ll never run out of scenarios, and you can still fly with a safety pilot when suitable. Better yet, this approach covers the most important goal: knowing that you can be out there flying smoothly and safely, whether things are going normally—or not.
Pain-Free Practice
We all start the rating—and subsequent IPCs—with the Airman Certification Standards. That’s a great starting point for basic proficiency, but it’s just that—pretty basic. So feel free to take it further and halve the published standards, or more.
When acting as CFII on a flight, I use “5-5-50” as an easy-to-see tool to assess proficiency: maximum five degrees off heading, plus-or-minus five knots on airspeed, and plus-or-minus 50 feet on altitude. Smoothly correcting back to the assigned number, with no coaching or prompting, qualifies as proficient.
If things get beyond that, my “assessing” hat comes off and the “training” hat goes on to verbalize the error and discuss tips. Then we’ll practice to proficiency, even if there’s a “malfunction.” Sometimes we’ll save an item for the next flight, but since currency got covered this session, there’s no time pressure. (By the way, instructing mode might be armed and activated a bit quicker when flying under IFR—and especially in actual conditions—for safety and to avoid raised eyebrows from ATC. Funny how we can tell that over the radio.)
It’s great to strive for perfection, but none of us achieves that 100 percent of the time. Nor do we stay proficient at everything without review. More importantly, something new will always come up—whether through hangar flying, new avionics, or experiencing that first icing encounter on approach.
These are the other reasons why we’ll never run out of things to explore in practice, whether in flight or with a simulator. You, as the PIC, might someday need to recognize when “normal” procedures must change—but you’ll have the tools to manage it safely. For example, you might get a present-position hold to run an abnormal gear-procedure checklist, or request 200-foot altitude deviations for turbulence so you can focus on keeping the wings level. That’s a deeper form of proficiency at work.
All of this helps us embrace the pursuit of that elusive 100 percent score every time we fly. That missed approach you did last week was perfect—but it was due to a non-precision approach in a 20-knot crosswind that ended up high and fast. Rather than avoiding that situation forever, it goes on your “next-time” list.
Making it a routine to understand, train for, and then nail the next few tasks will maintain that hard-earned proficiency, too—without gaps that can compromise safety or take more time and repetition to rebuild.
Monthly flights—or something like “second Saturdays”—are easy to schedule, easier to stick to (read: resolutions), and let you plan what to practice, which can be anything you want. I like two hours total: an hour of flight, plus 30 minutes each for preflight and postflight tasks. This is time-efficient, and having to miss one now and then won’t threaten currency.
Every few months, block out three to four hours and fly somewhere new or rarely visited. File IFR so that clearances, approaches, and other procedures—like departures and arrivals—are on the agenda. This can also include lunch or a cheap-fuel stop.
Use elements of the IPC (listed in the Instrument Rating ACS) when flying with your CFII, applying ACS or tighter completion standards. Customize the elements for your own list of skill-building tasks. Then it’s just one hour at a time, at your convenience, toward completing an occasional, painless IPC.
Without worries over currency, ongoing proficiency can become a more useful process—while flying plenty of routes, approaches, and holds. You’ll also be having a lot more fun, which is the best way to get out there and fly—and the best way to achieve both.
Icing: Awareness, Avoidance, and the IFR Pilot’s Escape Plan
/by Parvez DaraEditor’s Note: Dr. Parvez Dara makes his IFR Focus debut with this article. An ATP-rated pilot, 10-time Master CFII, and Gold Seal instructor, Parvez serves with the MAPA Safety Foundation, S.A.F.E., and the FAA Safety Team. A former FAA CFI of the Year and Safety Team Representative of the Year, he writes extensively on flight safety and brings a unique risk-management perspective as a practicing physician.
Icing, like thunderstorms, is not for mere mortals. It can ruin your day—much less your life. Having encountered icing in all four seasons, it evokes some fast–heart-rate negotiations with your Maker. Early in my flying career, a traversal into unknown icing at 15,000 feet in July left rime—like slime—all over the leading edges. I panicked and called ATC. They wanted to know the type, intensity, etc., and all I wanted was, “Get me outta here!” Descending to 13,000 feet got rid of it quickly. Oh, did I mention my M20M was equipped with a non‑FIKI TKS system at the time—and it wasn’t on? It was summer, after all. A mysterious gravity of existence in turmoil.
Another time, another flight at 15,000 feet from Dallas to New Jersey, I saw the windshield haze over with small pockmarks of ice crystals on the Bonanza. I looked at the leading edges and, sure enough, they were rough white on smooth white. I did not panic, but simply asked to descend to 13,000 feet, and voilà—the aircraft smoothed out and the IAS picked up a fraction. Experience teaches us the tricks of the trade. Yet another time, climbing through an unforecast icing layer at 7,000 feet with moderate-to-severe turbulence, was an eye-opening, neck‑whiplashing, shoulder‑in‑a‑sling event—safely negotiated by climbing to 12,000 feet in clear, smooth air.
Icing is an atmospheric phenomenon imposed on human creation. The aircraft is a perfect example of a cold object flying inside clouds where supercooled water droplets find harbor. Ice accretion depends on both the shape and the speed of the object. To prove that theory, a few years back I was flying the Mooney while a relative flew four miles behind me at the same altitude in the clouds—both on IFR flight plans. I collected rime ice on the laminar wings of the Mooney while he skated through without a crystal on his A36 Bonanza. Both shape and speed matter. The faster the speed, the greater the potential accretion. The latticework of water (H₂O) can form a beautiful crystalline product over any cold aluminum structure, given two things: temperatures between 0 and −15°C and a cold surface.
Icing often accrues faster on the horizontal and vertical empennage than on the wings because of their thinner structures. So if you see ice on the windshield or the wing leading edge, keep in mind that it is likely enveloping the tail as well.
Types of Aircraft Icing
Three types of icing afflict fuel‑injected piston aircraft: rime ice (70%), clear ice (10%), and mixed ice (20%). In carbureted aircraft, there is also the risk of carburetor ice. The physics are simple: the throttle body restricts airflow, and as the air expands past it, the temperature drops—sometimes enough to freeze moisture. If airspeed diminishes or the engine begins to run rough, turn carb heat on immediately. Carbureted engines can ice up in temperatures ranging from +70°C down to −15°C.
Induction ice can also occur when air‑induction vents clog the filter, requiring pilot awareness and corrective action. Pitot heat should be on, and alternate air selected as needed so air can continue to support combustion. Structural icing, on the other hand, can affect every surface of the aircraft—especially protrusions such as antennas, the pitot tube, and air‑temperature probes. When an antenna becomes ice‑laden, a noticeable shudder can occur, and transmission and reception may degrade dramatically.
Icing Temperatures
On an IFR flight plan, if you find yourself near the 0 to −15°C temperature range, your first move should be to remove yourself from that environment. If able, climb 2,000 feet or descend 2,000 feet. In mountainous terrain, always ensure at least 2,000–3,000 feet above the MEA. Temperatures between −15°C and −40°C reduce the likelihood of icing, while below −40°C there is virtually no risk.
Rime ice forms most often in stratiform clouds and is typically greatest near the top of the cloud layer. It is white, grainy, and forms relatively evenly. Clear ice, by contrast, can build rapidly and form horns above and below the leading edge. These horns disrupt airflow, increase drag, raise stall speed, and force the wing to fly at a higher angle of attack—often accelerating the icing problem.
Imagine the wing at a higher angle of attack: airflow slides downward over the top surface, carrying moisture with it. That moisture can then impact the underside of the tailplane, loading the elevators with ice. Which brings us to stalls.
Stalls
There are two types of icing‑induced stalls: wing stalls and tailplane stalls. If confronted with a wing stall, the recovery mirrors a normal stall recovery—reduce angle of attack, add power if available, and regain airspeed. A tailplane stall is different and counterintuitive. The telltale signs include mushy controls and difficulty maintaining altitude. In this case, pull back slightly on the yoke and slow down. Recognition is key before initiating the correct response.
Weather
Cold fronts are particularly conducive to icing and can produce icing conditions more than 100 miles ahead of the front. They are often associated with unstable air and convective clouds that harbor clear ice. As moisture is lifted, droplets grow larger; when they enter colder air, they can remain supercooled and freeze on impact—creating clear ice. Warm fronts, meanwhile, can extend the icing threat 300 miles or more ahead of the boundary.
Avoidance is the key for GA aircraft, regardless of deicing equipment. Whether FIKI or non‑FIKI, the equipment is designed to help you escape icing—not to press on through it. Think of it as a “get out of jail” card. Never launch into known icing expecting the system to carry you safely through. Even large aircraft with sophisticated bleed‑air systems have been humbled by ice.
Quick Poll
Winter Flying and In‑Flight Strategy
Can you fly in winter? Absolutely. Monitor the weather, frontal positions, and their movement. Be especially cautious when cold fronts overrun warm fronts—these setups can be particularly hazardous. Maintain a healthy margin between the MEA and cloud layers. Remember that winter often brings stronger winds as the jet stream dips south, offering good easterly tailwinds and punishing westerly headwinds.
If you encounter icing, ask ATC for an immediate exit from the clouds. If that’s not possible, a 2,000–3,000‑foot altitude change may help. Seek warmer air to shed ice. If you must carry ice to the destination, plan a higher‑than‑normal approach speed, delay gear and flap extension, and consider a flap‑less landing. Extending flaps changes wing camber and can further load the tailplane, reducing elevator effectiveness. Flare close to the runway to avoid a sudden loss of lift just feet above the surface.
One overriding rule remains: find warmer air. That requires an intimate understanding of the forecast—fronts, freezing levels, winds aloft, and tools such as Skew‑T charts. Avoid missed approaches or diversions through freezing layers whenever possible.
Awareness
Preflight awareness is essential, but in flight, adhere to these fundamentals:
Awareness, avoidance, and decisive action remain the pilot’s best defenses against icing.
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A New Year, a Sharper Focus: Practical Strategies for Maintaining Instrument Proficiency
/by Eric RadtkeJanuary is a natural reset point for pilots. Logbooks flip to a new page and many of us quietly resolve to be better in the cockpit this year. For instrument pilots, that resolution often comes down to one word: proficiency.
An instrument rating is not a static achievement—it’s a perishable skill set. Currency requirements may keep you legal, but they don’t always keep you comfortable or capable when the workload spikes, the weather deteriorates, or the avionics don’t behave as expected. The goal, then, isn’t just to stay current, but to remain truly proficient.
Below are practical, repeatable strategies to help make instrument proficiency part of your flying routine in the new year—not a last-minute scramble before the next IPC.
Quick Question on Proficiency
Plan Every Flight as If It Were IFR
Even when the forecast is severe clear, disciplined IFR-style planning pays dividends. Planning as if you’ll fly in the system keeps weather interpretation skills sharp and reinforces good aeronautical decision-making habits.
Go beyond the regulatory minimums. Study large-scale weather patterns first, then funnel down to route-specific and terminal forecasts. Prognostic charts, graphical icing and turbulence forecasts, winds aloft, and cloud/visibility prediction tools all help build a three-dimensional mental picture of the atmosphere.
Today’s self-briefing tools make this easier than ever—but they also place more responsibility on the pilot. Develop a consistent briefing flow so key information isn’t missed, and don’t hesitate to supplement automated data with expert input when conditions warrant a deeper dive.
Treat each preflight as practice. Even flights you never intend to launch sharpen your planning muscle.
Fly IFR in VMC—On Purpose
One of the most effective (and underused) proficiency tools is flying IFR in good weather. Operating in the system builds confidence with clearances, altitudes, routing changes, and cockpit workload—without the added pressure of actual IMC.
IFR flights in VMC also make it easy to end every trip with an instrument approach. Vary the airports and procedures you fly. Rotate through different types of approaches so nothing feels unfamiliar when the ceiling is actually low.
As your comfort level grows, consider incorporating departure procedures. Obstacle Departure Procedures, in particular, are often overlooked but can be critical at unfamiliar airports or in marginal conditions.
Tame the Avionics—Don’t Let Them Tame You
Modern avionics are powerful, but only if they’re well understood. True proficiency means knowing what your equipment will do before you need it—and recognizing when it’s time to dial things back and hand-fly.
Make a habit of revisiting avionics manuals, software updates, and simulator tools. Consider setting personal guidelines for manual flying, such as hand-flying in daylight within a certain distance of the airport or under defined ceiling and visibility limits. These self-imposed standards help prevent erosion of fundamental skills.
Automation is a resource—not a crutch.
Use Checklists, Then Build Flows
Checklists are foundational, but experienced instrument pilots often add a second layer: flows. Flows create an organized, repeatable pattern for configuring the cockpit, followed by checklist verification to catch anything missed.
For IFR flying, consider specialized checklists such as:
Anticipation reduces workload. When the airplane is configured early, your brain has more bandwidth when it matters most.
Play the “What-If” Game—Often
Proficiency isn’t built only in the air. Scenario-based thinking on the ground is one of the most effective ways to stay sharp.
What if the ceiling drops below forecast? What if the autopilot fails? What if ATC amends the clearance at the worst possible moment?
These mental exercises reinforce systems knowledge, improve decision-making speed, and make real-world surprises feel more familiar.
Commit to Personal Minimums—and Revisit Them
Finally, proficiency and discipline go hand in hand. Establish personal minimums that reflect your current skill level, not your past experience or future aspirations.
Revisit those minimums periodically. A little discomfort is healthy—it signals growth—but ignoring it entirely is a warning sign. Honest self-assessment is one of the most valuable tools an instrument pilot can carry.
Make Proficiency the Resolution That Sticks
Instrument proficiency isn’t about flying more—it’s about flying with intention. By building consistent habits, using technology wisely, and challenging yourself thoughtfully, you can make this year’s resolution more than words.
Choosing the Best IFR Route — Advanced IFR, by PilotWorkshops
/by IFR Focus TeamIn this excerpt from Advanced IFR, by PilotWorkshops, follow along on this scenario-based IFR route selection exercise as we plan a flight from Oceana, CA (L52), to Monterey, CA (KMRY), using ForeFlight Route Advisor. As you can see, there are many variables to consider when planning an IFR route including weather conditions, airspace, aircraft capabilities and ATC preferences.
Learn more about the Advanced IFR course from Pilot Workshops.