COMPLIANCE WITH DEPARTURE, EN ROUTE, AND ARRIVAL PROCEDURES AND CLEARANCES

Objective

The CFII candidate will demonstrate instructional knowledge and teaching ability for IFR departure, en route, and arrival procedures by explaining pilot and controller responsibilities, clearance compliance, navigation aid selection, communication protocols, and single-pilot helicopter IFR procedures. The candidate will demonstrate ability to teach proper use of departure procedures (DPs), en route charts, standard terminal arrivals (STARs), communication failure procedures, and multifunction display interpretation while maintaining awareness of helicopter-specific limitations in the IFR environment. Performance will meet the standards of FAA-S-8081-9E, CFII.V.B.

Content

Selection and Use of Current and Appropriate Navigation Publications

Teaching Point — Currency and Appropriateness

Begin by establishing that “current” means effective dates match or follow today’s date, and “appropriate” means the publication covers the geographic area and altitude range for the planned operation.

Required publications for IFR helicopter operations:

• IFR Enroute Low Altitude Charts — primary navigation charts for helicopter IFR (typically below 18,000 MSL)
• Terminal Procedures Publications (TPP) — approach plates, DPs, STARs, airport diagrams
• Chart Supplement (formerly A/FD) — airport data, communication frequencies, special procedures
• Notices to Airmen (NOTAMs) — FDC NOTAMs may amend procedures directly

Helicopter-Specific Considerations

Unlike fixed-wing operations where high altitude charts are routine, helicopters rarely operate in Class A airspace. Low altitude charts are the standard, but instructors must teach students to verify MEAs and MOCAs are appropriate for actual helicopter performance and icing limitations.

Key teaching analogy: “Think of publications as your legal permission slip and safety buffer combined. Expired charts aren’t just unprofessional — they’re unairworthy. Using high altitude charts for a helicopter flight is like bringing a submarine manual to a car race.”

Electronic vs. Paper

14 CFR 91.503 (for Part 91 operations) does not mandate paper charts if electronic equivalents are available and current. However, teach the two-battery rule: primary electronic navigation should have independent power from backup electronic or paper charts.

Verification Process to Teach Students

1. Check effective dates on chart covers and approach plate headers
2. Cross-reference NOTAM summary pages in TPP for procedure amendments
3. Verify GPS database currency matches or exceeds chart dates (AIRAC cycle)
4. Confirm Chart Supplement revision date
5. Check for graphic DP/STAR availability vs. textual-only procedures

Pilot and Controller Responsibilities with Regard to DPs, En Route Charts, and STARs

Departure Procedures (DPs)

Explain the distinction between obstacle departure procedures (ODPs) and standard instrument departures (SIDs):

ODPs — published for obstacle clearance, listed textually in TPP front matter, use is pilot’s choice unless:

• ATC assigns the ODP specifically, or
• Part 135 operations require it, or
• Helicopter cannot meet 14 CFR 91.175(f)(2) climb gradient of 200 ft/nm to 400 AGL, then required climb gradient to clear obstacles

SIDs — ATC-assigned procedures for traffic flow, always listed graphically, mandatory when assigned in clearance

Pilot Responsibilities for DPs:

• Determine if ODP exists and if helicopter can comply with climb gradients (critical teaching point)
• Calculate actual climb gradient: (GS ÷ 60) × gradient = required climb rate in FPM
• Accept or refuse SID assignment based on aircraft capability before entering IMC
• Fly assigned or accepted DP exactly as charted unless vectors are received
• Report inability to comply immediately: “Unable climb gradient” or “Request vectors”

Controller Responsibilities for DPs:

• Issue SIDs when appropriate for traffic flow
• Provide vectors or alternative routing if pilot unable
• Not responsible for obstacle clearance if pilot deviates from ODP without coordination

Helicopter-Specific Teaching Point

Many ODPs are designed for airplane climb performance. A light helicopter at high density altitude may be unable to meet 300-400 ft/nm gradients. This is a go/no-go decision on the ground, not after liftoff. Teach students to calculate exact climb performance required vs. available before accepting IFR clearance.

En Route Charts — Pilot Responsibilities:

• Fly assigned route structure (Victor airways, direct routes, GPS T-routes if equipped)
• Maintain assigned altitude unless climbing/descending per clearance
• Intercept and track courses within PTS standards (±5° heading, ±10° bearing)
• Comply with MEAs, MOCAs, MRAs for obstacle and navaid reception
• Monitor position continuously — single-pilot IFR requires disciplined scan pattern

En Route Charts — Controller Responsibilities:

• Issue clearances that comply with MEA/MOCA along route
• Provide radar vectors when appropriate
• Issue traffic advisories and safety alerts
• Not responsible for navigation — pilot navigates, controller separates

Standard Terminal Arrivals (STARs)

Pilot Responsibilities:

• File STAR in flight plan if desired (not required unless “Expect” clearance)
• Accept or refuse STAR assignment based on:
  • Aircraft capability to meet altitude and speed restrictions
  • Fuel state
  • Equipment requirements (GPS, DME, etc.)
• Fly STAR exactly as charted unless amended by ATC
• Advise ATC “Unable STAR” before entering published procedure
• Cross all altitude/speed restrictions as published unless ATC deletes: “Descend via the STAR” = all restrictions apply; “Descend via the STAR, except maintain 5,000” = altitude restrictions cancelled but speed restrictions remain per AIM 5-4-1

Controller Responsibilities:

• Assign STARs to sequence traffic efficiently
• Delete restrictions when workload permits: “Delete speed restrictions”
• Provide vectors if pilot unable to comply
• Issue crossing restrictions: “Cross FIXXX at and maintain 6,000”

Critical Teaching Scenario — The STAR Trap

Many STARs include jet-friendly speeds like 250 knots. Helicopters typically cruise 90-120 KIAS. If ATC assigns “Descend via the STAR,” and the procedure states “Cross BRDEN at 10,000 and 250 knots,” the pilot must either:

• Refuse the clearance: “Unable 250 knots, helicopter”
• Request amendment: “Request delete speed restrictions”
• Accept and comply (impractical for helicopters)

Teach students to scan STAR for speed restrictions during preflight, and brief “unable jet speeds” before accepting clearance.

Selection and Use of Appropriate Communications Frequencies

Frequency Management in Single-Pilot IFR

Unlike two-pilot operations, the CFII candidate must teach workload reduction techniques for frequency changes while hand-flying or managing autopilot.

Frequency Selection Priorities:

1. Clearance Delivery — obtain IFR clearance before engine start when possible
2. Ground Control — taxi clearance at towered airports
3. Tower — takeoff clearance
4. Departure Control — typically assigned in clearance or by tower: “Departing runway 27, contact Departure on 125.35”
5. Center/Approach — as assigned during handoffs
6. UNICOM/CTAF — for position reports at non-towered airports

Teaching the Frequency Discipline Process:

Before each frequency change:

1. Write down new frequency (kneeboard or panel placard)
2. Set frequency in standby
3. Complete current frequency communication (acknowledgment or position report)
4. Flip to new frequency at appropriate time (not mid-approach segment)
5. Monitor briefly before transmitting
6. Use standard phraseology: “Center, Helicopter 123AB”

Helicopter-Specific Consideration — Vibration and Workload

Helicopters vibrate. Small frequency windows are harder to read. Teach students to:

• Use cockpit lighting strategically during night IFR
• Pre-position approach frequencies in standby before IAF
• Consider audio panel setup:Nav 1 for primary approach guidance, Com 1 for ATC, monitor position as needed

Lost Communication Frequencies

Teach the memory aid “Guard is Your Emergency Friend”:

• 121.5 MHz — monitor if VHF communication lost, broadcast intentions
• 243.0 MHz — military emergency (usually dual-monitored with 121.5)

If lost communication occurs, follow 14 CFR 91.185 (covered in detail under communication failure procedures below).

Selection and Identification of Navigation Aids

Navaid Selection Criteria

Teach systematic selection process:

1. Identify Required Navaids from Procedure

   • DPs may specify: “Climb via heading 270° to intercept GQO R-145…”
   • STARs may specify: “Cross KARRO via UKW R-235…”
   • En route: airway structure defines navaids (Victor airways use VORs, GPS routes use waypoints)

2. Verify Navaid Status

   • Check NOTAM summary for navaid outages
   • Confirm frequency on chart matches Chart Supplement
   • Verify identifier morse code before use (regulation — identify station)

3. Tune and Identify

   • Select frequency
   • Identify station aurally (morse code) or visually (DME identifier)
   • Re-identify after any frequency change or at least once every 15 minutes (practical standard)
   • Remove flag or verify “TO/FROM” indication appropriate

VOR Identification Example

Teach students the identification sequence aloud:

“Okay, we’re intercepting the Albany VOR for the Victor 2 airway. Chart shows ALB, frequency 115.3. I’m tuning 115.3 in Nav 1, volume up… hearing ‘dit-dah, dit-dah-dit-dit, dah-dit-dot-dot’ — that’s A-L-B verified. Flag is out, TO indication confirms we’re southwest of the station. Course selector set to 062 for the airway. Cross-check: we’re on V2 northeast bound toward ALB.”

GPS/FMS Waypoint Identification

For helicopters with GPS navigators:

• Verify waypoint identifier matches chart (5-letter ICAO format)
• Confirm waypoint sequence matches procedure (rubber-banding errors can occur)
• Check GPS RAIM availability prediction for approach waypoints
• Cross-check GPS against VOR/DME when available (situational awareness)

DME Identification

DME typically identifies with same morse code as associated VOR but may be offset. Teach students:

• DME distance is slant range, not ground distance
• At high altitudes or close to station, DME shows more than groundspeed-calculated distance
• Useful crosscheck: 1 NM per 6,000 feet altitude when over station (6° glide slope approximation)

Helicopter GPS Considerations

Many IFR helicopters use panel-mount GPS navigators (Garmin GTN 650/750, G500H TXi, etc.). Teach:

• GPS approach overlay of VOR/NDB procedures requires RAIM check
• GPS as sole-source navigation requires TSO-C129 or better certification
• Always have current database — expired database limits operations to en route/terminal only, not approaches
• Monitor GPS integrity: “RAIM not available” = revert to ground-based navaid or request vectors

Accomplishment of Appropriate Checklist Items

CFII Teaching Standard — Checklist Discipline

The candidate must teach that checklists are performed, not simply read. In single-pilot IFR helicopters, flow patterns backed by written checklist verification prevent critical omissions.

Helicopter IFR Checklist Categories

1. Preflight/Before Start — IFR-specific items:

   • Check GPS database currency
   • Verify all required instruments operational (14 CFR 91.205(d) + helicopter supplements)
   • Test pitot heat operation
   • Confirm alternate static source accessible
   • Verify IFR flight plan filed and acknowledged

2. Before Takeoff — critical for IFR:

   • Attitude indicator aligned to magnetic compass
   • Altimeter set to field elevation or current altimeter setting (within 75 feet)
   • DG/HSI aligned to magnetic compass (within 3°)
   • Flight instruments checked: turn coordinator, VSI zero, airspeed alive
   • Departure clearance copied, understood, and current
   • Radios tuned: Com 1 tower, Nav 1 DP navaid or GPS approach mode verified
   • Autopilot (if installed) tested and mode confirmed
   • Pitot heat ON if visible moisture or below 5°C
   • Transponder code set, mode verified

3. In-Flight (WIRE check before approach)

   • Weather — ATIS/AWOS current
   • Instruments — approach navaid tuned, identified, tracking
   • Radios — approach frequency in standby, transponder as assigned
   • Elevation — minimums briefed and bugs set

4. Before Landing

   • Lights as required
   • Approach briefing complete (see below)

Approach Briefing Format to Teach

Standardization reduces workload. Teach the “MARTHA” mnemonic:

• Missed approach procedure (altitude, heading, climb instructions)
• Altitude minimums (DA or MDA, visibility required)
• Radio frequencies (tower, missed approach control)
• Time (if timing to MAP required)
• Heading (inbound course, final approach course)
• Airspeed (approach speed, configuration)

Single-Pilot IFR Reality Check

Unlike training with a safety pilot, single-pilot IFR demands abbreviated but complete checklists. Teach students:

• Use written checklists for normal operations
• Emergency checklists (engine failure IMC) may be memory items followed by written verification when workload permits
• Never skip checklist items to “save time” — brief, fly, comply in order

Pilot’s Responsibility for Compliance with Vectors, Altitude, Airspeed, Climb, Descent, and Airspace Restrictions

Vector Compliance

When ATC issues “fly heading 270,” the pilot’s responsibility is:

1. Acknowledge: “Helicopter 123AB, fly heading 270”
2. Turn to assigned heading promptly (standard rate or as practical)
3. Maintain heading within PTS standards: ±10° for CFII demonstration
4. Do not deviate without clearance — vectors are positive ATC control
5. If unable to comply due weather (thunderstorms), immediately advise: “Unable heading 270, requesting left deviation 20 degrees for weather”

Teaching Point — Lost on Vectors

If pilot becomes unsure of position while being vectored, ask ATC: “Request current position and distance from [destination].” Controllers expect this, especially in helicopters where limited speed and nav equipment can reduce situational awareness.

Altitude Compliance

ATC altitude assignments are not suggestions:

• “Maintain 5,000” — level at 5,000 until further clearance
• “Climb and maintain 7,000” — initiate climb promptly, level at 7,000
• “Descend pilot’s discretion to 3,000” — descend any time, any rate, but must comply with restriction once leaving assigned altitude
• “Cross FIXIT at or above 6,000” — cross at 6,000 or higher
• “Cross FIXIT at 6,000” — cross at exactly 6,000 (±100 feet practical tolerance)

PTS Standard for Altitude Compliance: ±100 feet in all phases except approach segments (where tighter tolerances apply).

Teach students to immediately begin altitude change when cleared, not after finishing current task. However, in single-pilot IFR helicopters, “promptly” means “as soon as safe to reconfigure and adjust power” — ATC understands helicopters require more pilot workload per configuration change.

Airspeed Compliance

Helicopters rarely receive specific airspeed assignments except “best forward speed” or STAR restrictions. When speed is assigned:

• Acknowledge and comply within aircraft capability
• If unable: “Unable [speed], helicopter, we can maintain [your max cruise]”
• Understand ATC expects jet speeds unless you clarify: “Helicopter 123AB is a rotorcraft, best forward speed 100 knots”

Climb and Descent Compliance

ATC climb/descent instructions assume timely compliance:

• Standard helicopter climb: 500 FPM minimum or best rate
• Standard descent: 500-700 FPM (comfortable for passengers and instruments)

If unable to comply with climb/descent gradient:

• Immediately advise ATC: “Unable climb rate, helicopter, can give you 300 feet per minute”
• ATC will adjust clearance or provide vectors

Airspace Restrictions

Pilot’s responsibility to comply with:

• Class B clearance: “Cleared to enter Class Bravo” required before entry
• Class C: Two-way communication required before entry
• Class D: Communication required before entry
• Special Use Airspace: Avoid prohibited areas, check NOTAM status for restricted/MOAs
• TFRs: Check NOTAM, avoid completely unless cleared

Teach the Non-Negotiables:

Some clearances are negotiable (altitude changes for weather, route deviations for fuel). Some are not:

• Altitude restrictions at fixes on DPs/STARs (unless “deleted” by ATC)
• Airspeed restrictions “at pilot’s discretion” still apply unless “deleted”
• Clearance limits — do not proceed beyond without amended clearance

Pilot’s Responsibility for Interception of Courses, Radials, and Bearings Appropriate to the Procedure, Route, or Clearance

Intercept Geometry — Key Teaching Points

The PTS requires ±5° course intercept heading, ±10° course tracking. Teach systematic intercept procedures.

VOR Radial Intercept

Scenario: “Cleared direct GQO VOR, then via the GQO 145 radial to METRA intersection.”

Teaching sequence:

1. Determine current position relative to desired course

   • Set OBS to 145°
   • Check TO/FROM — if FROM, you’re northeast of the radial; if TO, you’re southwest
   • Check deflection — full scale is 10° each dot, 2° per dot typical

2. Calculate intercept heading

   • Standard intercept: 30° angle if more than 2 dots from course
   • Fine intercept: 10-15° if within 2 dots
   • Helicopter teaching modification: use 20-30° intercepts to avoid excessive maneuvering close to course

3. Intercept procedure

   • Turn to intercept heading
   • Monitor CDI/HSI movement toward center
   • As needle approaches center (1 dot deflection), begin turn to course heading
   • Lead turn by approximately: (bank angle ÷ 2) seconds — for 15° bank, begin 7-8 seconds early

4. Confirm established on course

   • CDI centered or moving slowly
   • Heading equals desired course ±5° after wind correction
   • Tracking within ±10° of course

GPS Direct Intercept

GPS navigators provide easier intercepts but require understanding:

• GPS flies great circle routes (shortest distance), not magnetic courses
• “Direct-to” function calculates intercept automatically
• Still monitor desired track (DTK) vs. ground track
• Cross-track error (XTK) should remain within ±1 NM en route, tighter on approaches

Bearing Intercept (NDB)

Less common in modern helicopters, but CFII candidates should demonstrate teaching ability:

1. Determine relative bearing to station (ADF needle + heading = magnetic bearing TO station)
2. Calculate intercept heading to desired bearing FROM station
3. Intercept using similar geometry as VOR radials

Airway Intercept

When cleared “direct [fix], then as filed” and filed route is airway:

1. Proceed direct to fix
2. At fix, intercept airway course
3. Use lead turn to roll out on airway heading: Begin turn approximately (groundspeed ÷ 100) NM before fix

Example: 90-knot groundspeed = begin turn 0.9 NM before fix for smooth intercept

CFII Teaching Standard

Demonstrate intercepts while verbalizing decision-making:

“Okay, we’re currently 4 miles southwest of the VOR, and ATC wants us on the 090 radial outbound. I’m going to set my OBS to 090… there’s the needle, it’s left of center showing I’m south of the course. I’ll turn to heading 060, that’s a 30-degree intercept angle. Watch the needle… coming in… one dot deflection, I’m starting my turn to heading 090 to parallel the radial. Needle’s centered, I’m tracking 090 outbound, we’re established.”

Procedures to be Used in the Event of Two-Way Communications Failure

Regulatory Foundation: 14 CFR 91.185

Communication failure is rare but requires immediate decision-making. Teach the acronym MEA for what to do:

M — Mode: Squawk 7600 immediately E — Elevation: Fly appropriate altitude A — Arrival: Fly appropriate route

Detail: Mode (Transponder)

Squawk 7600 for lost communication. This alerts ATC via radar that you cannot hear them but remain IFR. Continue flight — do not assume emergency and land immediately unless aircraft condition warrants.

Detail: Elevation (Altitude to Fly)

14 CFR 91.185(c)(2) — fly the HIGHEST of:

1. Last assigned altitude, or
2. Minimum IFR altitude (MEA, MOCA, etc.), or
3. Expected altitude (if ATC said “expect 7,000 in 10 minutes”)

Teaching Example:

“You’re at 5,000 feet, cleared to 5,000, ATC said ‘expect 7,000 in 10 minutes,’ and the MEA for your route segment is 6,000. Your radio fails. Which altitude do you fly?

• Last assigned: 5,000
• Minimum IFR: 6,000
• Expected: 7,000

You fly 7,000 — the highest of the three.”

Detail: Arrival (Route to Fly)

14 CFR 91.185(c)(1) — fly the route according to priority:

1. Assigned route in last clearance, or
2. Vectored route — continue on last assigned heading to assigned route, then as assigned, or
3. Expected route (if ATC said “expect”), or
4. Filed route in flight plan

Teaching Example:

“Your clearance was ‘Cleared to Hometown Airport via direct ALPHA, Victor 12, direct.’ You were vectored off course for traffic. Radios fail. Do you return to ALPHA?

Yes. You fly the heading to intercept your assigned route (direct ALPHA, V12, direct), then continue as assigned.”

Arrival at Destination

If communication failure occurs, continue to destination airport. When to begin approach:

1. If clearance contained expect-approach-clearance (EAC) time, begin approach as close as possible to EAC time
2. If no EAC time, begin approach upon arrival at IAF
3. Fly the approach, land, exit runway, contact ATC by phone immediately

Do not orbit waiting for radio fix unless holding instructions were in last clearance.

VFR Option — The Escape Clause

14 CFR 91.185(a) states if VFR conditions exist, you may continue VFR and land as soon as practicable.

Teach students: “If you’re in VMC after radio failure, you’re no longer required to continue IFR. However, assess risk:

• Is VMC forecast to continue to destination?
• Can you safely navigate VFR?
• Is landing at a nearby airport safer than continuing to congested airspace IFR without radio?

Single-pilot IFR helicopter considerations favor landing at nearest suitable airport in VMC rather than pressing into busy terminal airspace without communication.”

Partial Communication Failure

If you can receive but not transmit:

• Acknowledge instructions by squawking IDENT or rocking wings if visual
• Continue flight, comply with clearances heard
• Land as soon as practicable

If you can transmit but not receive:

• Transmit blind: “Portland Center, Helicopter 123AB, unable receive, squawking 7600, proceeding to Hometown Airport via last assigned route, maintaining 5,000, estimating Hometown at 1845 Zulu, will monitor this frequency”
• Repeat transmissions on 121.5 if necessary
• Squawk 7600
• Comply with 91.185 routing and altitude

Light Gun Signals (Towered Airports)

If communication failure occurs near towered airport, ATC may use light gun signals:

• Steady Green: Cleared to land
• Flashing Green: Return for landing (helicopter: cleared for approach)
• Steady Red: Give way, continue circling
• Flashing Red: Airport unsafe, do not land
• Flashing White: Return to starting point (helicopter: not applicable)
• Alternating Red/Green: Exercise extreme caution

Teach students to acknowledge light gun signals by rocking wings during day, flashing landing light at night.

The Uses of Multifunction Display and Other Graphical Navigational Displays

MFD/GPS Navigation Display Capabilities

Modern IFR helicopters may include:

• Garmin GTN 650/750 touchscreen navigators with moving map
• Garmin G500H TXi or G500H integrated flight displays
• Aspen Evolution or Dynon SkyView HDX PFD/MFD systems
• iPad with ForeFlight or Garmin Pilot (supplemental awareness only, not certified primary navigation)

Teaching Point — Certified vs. Supplemental

Only TSO-certified panel-mount equipment may be used for IFR navigation. Tablets are excellent for situational awareness but cannot substitute for certified GPS or VOR navigation.

Monitoring Position and Track

Teach students to use MFD for cross-checking, not primary navigation:

1. Position Verification

   • Compare GPS position to dead reckoning and VOR/DME fixes
   • Check GPS track (ground track) vs. heading — wind correction confirmation
   • Identify position relative to airspace boundaries (Class B rings, restricted areas)

2. Track Monitoring

   • Desired track (DTK) displayed on GPS moving map
   • Cross-track error (XTK) shows lateral deviation from course
   • Teach ±1 NM XTK en route, ±0.3 NM terminal, ±0.1 NM approach (GPS scaling)

3. Wind Drift Awareness

   • Compare heading to track — difference indicates wind correction angle
   • Groundspeed vs. true airspeed indicates headwind/tailwind component
   • Use for fuel planning: recalculate ETE if groundspeed significantly differs from forecast

Parameters to Monitor for Situational Awareness

Effective CFII candidates teach systematic MFD scan:

1. Groundspeed — fuel planning, intercept geometry
2. Track — verify wind correction adequate
3. Distance to next waypoint — timing, descent planning
4. ETE (estimated time en route) — fuel check, approach timing
5. Altitude — confirm altitude alerter set correctly
6. Nearest airports — emergency planning (single-pilot IFR priority)
7. Terrain — check terrain awareness if installed (HTAWS in some helicopters)
8. Traffic — ADS-B traffic if equipped, cross-check with ATC advisories

Desired Flightpath Maintenance

The MFD shows intended course (magenta line on Garmin systems). Teach students:

• Fly TO the line, not parallel offset
• Magenta line represents GPS great circle course (may differ slightly from VOR radial courses)
• Check at waypoints that next leg is activated (auto-sequencing can fail)
• Heading bug and autopilot track mode help maintain desired track

Helicopter-Specific MFD Usage

Single-pilot IFR demands heads-up time. Teach students:

• Configure MFD pages before departure (approach procedure loaded, frequencies pre-set)
• Use declutter modes during high workload (approach phase)
• Set range appropriately: 10-25 NM en route, 5-10 NM terminal, 2-5 NM approach
• Enable terrain/obstacle warnings if available (helicopter HTAWS systems)
• Cross-check MFD with primary flight instruments — never fixate on moving map during hand-flown approaches

Teaching Demonstration Standard

CFII candidate should demonstrate setting up MFD for a sample flight while narrating:

“I’m loading the RNAV 27 approach into the GPS… verifying waypoint sequence matches the plate… setting Com standby to tower frequency… adjusting map range to 5 miles for terminal area… turning on traffic display… checking terrain awareness mode is active. Now as I fly the approach, I’ll cross-check my position on the moving map with the approach plate to ensure GPS is tracking correctly, but my primary scan will remain on attitude indicator, altimeter, and CDI for course guidance.”

Schedule

Total Duration: 3 hours 30 minutes

Equipment

Required References

• FAA-S-8081-9E, Instrument Rating Practical Test Standards (PTS) for Helicopter — Area V, Task B
• FAA-H-8083-15B, Instrument Flying Handbook — Chapter 10 (IFR Flight)
• FAA-H-8083-9, Aviation Instructor’s Handbook — Chapter 9 (Teaching Practical Risk Management)
• FAA-H-8083-21, Rotorcraft Flying Handbook — Chapter 11 (Helicopter IFR Operations)
• 14 CFR Part 91, Subpart B (Flight Rules) — §91.123, §91.185, §91.175
• Aeronautical Information Manual (AIM) — Chapter 5 (Air Traffic Procedures)
• Current IFR Enroute Low Altitude Chart (appropriate region)
• Current Terminal Procedures Publication (TPP) with DPs, STARs, approach plates
• Current Chart Supplement (A/FD)

Materials and Visual Aids

• Sample IFR clearance forms (photocopied or digital)
• Whiteboard or poster board for diagramming intercept geometry, climb gradients
• Navigation plotter and pencil for chart work demonstration
• Sample helicopter navigation log or flight planning form
• Printed examples of DPs, STARs, and approach plates (helicopter-applicable procedures)
• Example GPS navigator interface (Garmin GTN 750 simulator screenshots or physical unit if available)
• Light gun signal chart (for communication failure instruction)
• Sample NOTAM printouts showing procedure amendments and navaid outages

Training Aids

• Helicopter POH/RFM with climb performance charts
• Video or diagram demonstrating VOR/GPS intercept techniques
• Flowchart of 14 CFR 91.185 communication failure procedures
• Diagram of IFR clearance structure: clearance limit, route, altitude, departure instructions, frequency
• Example of MFD display showing track, cross-track error, nearest airports

Equipment for Demonstration (if available)

• Aviation training device (ATD) or flight simulator with helicopter IFR configuration
• Panel-mounted GPS navigator (GTN 650/750) or tablet-based simulator
• Sample IFR-equipped helicopter avionics panel photo or diagram
• Recording of ATC clearances for playback and analysis

Instructor Actions

The CFII candidate will:

1. Introduce the lesson by explaining that IFR compliance is a shared responsibility between pilot and controller, and that helicopter-specific performance limitations require advance planning to ensure safe clearance acceptance.

2. Demonstrate selection and verification of current navigation publications by showing effective dates on charts, cross-referencing NOTAMs for procedure changes, and explaining why expired charts constitute unairworthy operation under IFR.

3. Explain pilot and controller responsibilities for departure procedures by distinguishing ODPs from SIDs, calculating climb gradients required for helicopter operations, and demonstrating acceptance/refusal decision-making based on aircraft performance.

4. Explain pilot and controller responsibilities for en route operations by describing MEA/MOCA compliance, airway structure, and the pilot’s obligation to navigate accurately while ATC provides separation and traffic advisories.

5. Explain pilot and controller responsibilities for STARs by describing clearance interpretation (“descend via” vs. assigned altitudes), speed restriction challenges for helicopters, and proper refusal techniques for impractical procedures.

6. Demonstrate communication frequency management by showing systematic frequency change procedures, workload considerations for single-pilot IFR, and appropriate phraseology for helicopter operations.

7. Demonstrate navigation aid selection and identification by tuning, identifying, and verifying VOR, DME, and GPS navigation sources, explaining the regulatory requirement for positive identification and the single-pilot technique for efficient verification.

8. Teach appropriate checklist procedures by presenting helicopter-specific IFR checklists for preflight, before takeoff, in-flight, and approach phases, and demonstrating standardized approach briefing technique.

9. Explain compliance requirements for vectors, altitudes, airspeeds, climbs, descents, and airspace restrictions by describing regulatory standards, PTS tolerances, and immediate communication requirements when unable to comply.

10. Demonstrate course, radial, and bearing interception procedures by explaining intercept geometry, calculating intercept headings for VOR radials and GPS direct courses, and performing intercepts within PTS standards (±5° intercept heading, ±10° course tracking).

11. Teach two-way communication failure procedures per 14 CFR 91.185 by explaining the MEA acronym, demonstrating altitude selection using “highest of” rule, describing route selection priorities, and explaining arrival/approach procedures at destination.

12. Demonstrate multifunction display usage by showing position verification, track monitoring, wind drift analysis, and situational awareness parameters (groundspeed, ETE, nearest airports) that enhance single-pilot IFR safety.

13. Present scenario-based instruction by walking through a complete IFR flight scenario including DP assignment, en route clearance, vectors, STAR assignment, and arrival, explaining decision points and compliance requirements at each phase.

14. Respond to evaluator questions regarding any knowledge, risk management, or instructional technique element within the task, demonstrating comprehensive understanding and ability to adapt teaching to student needs.

15. Assess student understanding by describing how to verify a student has internalized clearance compliance procedures, suggesting evaluation techniques such as scenario-based oral questioning and practical demonstration of intercept procedures.

Student Actions

During this instructional session, the student (under CFII guidance) would be expected to:

1. Listen actively to explanations of pilot and controller responsibilities, taking notes on key regulatory references and decision-making criteria.

2. Ask clarifying questions about any aspect of clearance compliance, particularly helicopter-specific limitations such as climb gradient calculations and speed restriction conflicts.

3. Participate in scenario discussions by responding to “what would you do if…” questions regarding DP acceptance, STAR assignment, vector compliance, and communication failure.

4. Practice chart reading skills by locating DPs, STARs, MEAs, MOCAs, and navaid frequencies on provided IFR charts under CFII guidance.

5. Demonstrate checklist usage by performing sample preflight and approach checklists, practicing approach briefing technique using provided approach plates.

6. Perform intercept calculations by determining intercept headings for assigned VOR radials, GPS courses, and airway intercepts using provided scenarios.

7. Explain communication failure procedures by verbalizing the MEA acronym and working through altitude/route selection examples provided by the CFII candidate.

8. Operate MFD/GPS simulator (if available) by setting up navigation displays, loading procedures, monitoring position and track parameters under CFII supervision.

9. Demonstrate understanding by correctly answering scenario-based questions such as: “ATC clears you to climb to 6,000, you’re currently at 4,000, the MEA ahead is 7,000, they said ‘expect 8,000 in 10 minutes,’ then your radios fail — what altitude do you fly?”

10. Provide feedback on instructional clarity and ask for additional explanation or demonstration where concepts remain unclear.

Completion Standards

The lesson is complete when the CFII candidate demonstrates instructional knowledge and teaching ability to meet FAA-S-8081-9E standards for CFII.V.B by:

1. Explaining the selection and use of current and appropriate navigation publications including verification of effective dates, cross-referencing NOTAMs, distinguishing low altitude charts for helicopter operations, and explaining electronic vs. paper chart legality and backup requirements.

2. Clearly describing pilot and controller responsibilities for DPs, en route operations, and STARs including the distinction between ODPs and SIDs, calculation of helicopter climb gradients to meet published requirements, MEA/MOCA compliance during en route flight, and proper acceptance/refusal of STAR assignments when speed or altitude restrictions exceed helicopter capability.

3. Demonstrating systematic communication frequency management appropriate for single-pilot helicopter IFR operations, including frequency selection priorities, workload management techniques, and standard phraseology for helicopter operations.

4. Teaching navigation aid selection and identification procedures by correctly tuning, identifying via morse code or visual display, and verifying VOR, DME, and GPS navigation sources, explaining the regulatory requirement for positive identification and re-identification at appropriate intervals.

5. Presenting helicopter-specific IFR checklist procedures for preflight, departure, in-flight, and approach phases, including standardized approach briefing technique using structured format (MARTHA or equivalent) and explaining the critical role of checklist discipline in single-pilot IFR safety.

6. Explaining pilot responsibilities for compliance with vectors, altitude assignments, airspeed restrictions, climb/descent clearances, and airspace limitations with reference to PTS standards (±10° heading on vectors, ±100 feet altitude except on approaches), and demonstrating proper phraseology for immediate notification when unable to comply.

7. Demonstrating course, radial, and bearing interception techniques by correctly calculating intercept headings for VOR radials, GPS direct courses, and airway intercepts, using standard intercept angles (30° for course acquisition, 10-15° for fine adjustment), and explaining lead-turn techniques to roll out on course within PTS standards of ±5° intercept heading and ±10° course tracking.

8. Teaching two-way communication failure procedures per 14 CFR 91.185 by correctly explaining transponder code 7600, altitude selection using the “highest of: last assigned, minimum IFR altitude, or expected altitude” rule, route selection using priority of “assigned, vectored to assigned, expected, or filed,” and arrival procedures including approach commencement timing and VFR option considerations.

9. Explaining multifunction display and GPS navigation system usage for monitoring position, track, wind drift, and situational awareness parameters (groundspeed, cross-track error, ETE, nearest airports), while emphasizing that MFD is cross-check and situational awareness, not primary flight reference, and distinguishing certified panel-mount systems from supplemental tablet applications.

10. Answering evaluator questions accurately and completely regarding any knowledge element, regulation, or procedure within CFII.V.B, demonstrating comprehensive understanding of IFR clearance compliance and ability to teach these concepts to instrument students.

11. Adapting teaching techniques to address different learning styles or student questions, demonstrating flexibility in presentation while maintaining accuracy and completeness of regulatory and procedural information.

12. Maintaining professional instructional demeanor throughout the lesson, using appropriate terminology, speaking clearly and at appropriate pace, encouraging student questions, and confirming understanding through questioning and scenario-based assessment.

The CFII candidate must demonstrate not only personal knowledge of departure, en route, and arrival procedures but also the ability to effectively teach these procedures to instrument students in helicopter IFR operations, emphasizing single-pilot workload management, helicopter performance limitations, and the critical importance of regulatory compliance in maintaining IFR system safety and efficiency.