A recent CFII (Certificated Flight Instructor - Instrument) checkride account offers a useful window into the current state of the practical test, particularly for candidates flying modern glass-panel trainers. The pilot described a relatively brief oral exam—under an hour—followed by a flight portion that began with unusual attitude recoveries and steep turns before progressing into a sequence of three instrument approaches: a VOR approach, an RNAV circling approach, and a localizer approach. Notably, the aircraft was equipped with dual Garmin G5 electronic flight instruments, and the examiner tested the applicant's understanding of simulated instrument failures by having them dim both G5 displays to zero brightness rather than relying on paper covers or view-limiting devices, forcing the candidate to fly the VOR approach using only the VOR2 receiver as backup. The receiver's inherent inaccuracy pushed the aircraft right of course, which became a teaching moment the applicant proactively called out to the examiner rather than treating it as a hidden discrepancy.
This scenario illustrates a broader shift in how designated pilot examiners (DPEs) are adapting checkride methodology to match the increasingly common panel configurations found in training fleets. As more flight schools and rental aircraft transition from traditional six-pack analog instruments to G5s, G3X, or full Garmin/Avidyne glass suites, examiners have had to develop creative, aircraft-appropriate ways to simulate primary instrument failures that still satisfy the ACS requirement for partial-panel or backup-instrument operations. Brightness-down simulation on redundant EFIS units is becoming a standard technique, and CFII candidates and instructors alike should be prepared to explain and execute this procedure fluently, since it directly tests understanding of system redundancy, backup instrumentation, and single-point-of-failure risks in modern glass cockpits—concepts that carry real operational weight for instrument-rated pilots flying similarly equipped aircraft in actual IMC.
For working CFIIs and aspiring instructors, the account also underscores the practical reality of flying in busy airspace during a checkride: ATC vectoring, holding pattern delays, and traffic sequencing can extend or complicate an otherwise well-prepared flight test, and examiners generally account for this when evaluating a candidate's aeronautical decision-making rather than penalizing them for factors outside their control. This is a useful reminder for CFI candidates and their students that ATC interaction and workload management under real-world traffic conditions are inherently part of instrument competency, not a deviation from it. The applicant's calm handling of an off-course VOR2 signal, communicating the discrepancy rather than ignoring it, reflects the kind of transparent, safety-oriented communication examiners want to see from someone who will soon be teaching instrument students to do the same.
More broadly, this checkride narrative fits into ongoing conversations within the flight training community about the CFII pathway as a stepping stone toward professional pilot careers, particularly amid a still-uneven regional and charter hiring market. The applicant's closing remark about pursuing a multiengine rating next, paired with a wry acknowledgment of the job search ahead, reflects a common trajectory for time-building instructors: stacking certificates and ratings (CFI, CFII, MEI) to build both flight hours and instructional credibility while positioning for airline or charter pipeline programs. As flight schools continue modernizing their fleets with glass-panel trainers, DPEs, CFIs, and students will all need to stay current on evolving techniques for simulating failures and testing systems knowledge—an adaptation trend that will likely continue reshaping instrument checkrides industry-wide.