Objective
The student will demonstrate the ability to plan, present, and explain a complete IFR cross-country flight in a helicopter using current aeronautical charts, publications, and weather information, meeting all completion standards outlined in ACS task IH.I.C. Upon completion, the student will be able to independently prepare an IFR flight plan that accounts for helicopter-specific performance characteristics, identify and mitigate risks associated with single-pilot IFR operations, and accurately calculate fuel reserves and flight parameters.
Measurable Outcomes:
- Prepare a complete IFR cross-country flight plan including route selection, altitude planning, time/fuel calculations, and risk analysis (IH.I.C.S1)
- File a simulated IFR flight plan containing all required elements (IH.I.C.S3)
- Recalculate fuel reserves based on changing conditions (IH.I.C.S2)
- Interpret and explain departure procedures (DPs), Standard Terminal Arrival Routes (STARs), en route charts, and instrument approaches (IH.I.C.S4)
- Identify icing hazards and demonstrate knowledge of helicopter-specific corrective actions (IH.I.C.S5)
- Apply information from current NOTAMs, Chart Supplement, and aeronautical publications (IH.I.C.S6)
Content
Route Planning (IH.I.C.K1)
Available Navigational Facilities: In helicopter IFR operations, route planning begins with identifying usable navigational facilities along the proposed route. Unlike fixed-wing aircraft, helicopters typically operate at lower altitudes, affecting VOR/DME reception distances and GPS RAIM availability in mountainous terrain.
- VOR/DME Coverage: Calculate service volumes using the formula: Distance (NM) = 1.23 × √altitude (feet AGL). At typical helicopter IFR altitudes (2,000-6,000 feet), expect limited reception compared to higher-flying aircraft.
- GPS/RNAV: Most helicopter IFR operations rely heavily on GPS. Verify RAIM prediction for the entire route plus approach, checking at departure, destination, alternate, and 1 hour after ETA per 14 CFR 91.205(g).
- NDB/LOC/ILS: Consider ground-based facilities as backup. Helicopters have unique approach categories—most training helicopters fall under Category A (approach speed less than 91 knots).
Special Use Airspace (14 CFR Part 73):
- Identify Prohibited Areas (P-), Restricted Areas (R-), Warning Areas (W-), Military Operations Areas (MOAs), and Alert Areas on enroute charts
- Check NOTAMs for activation times and controlling agencies
- Plan routes around or request clearances through active areas
- Helicopter-specific consideration: Lower altitudes may allow flight beneath certain MOAs, but verify floors
Preferred Routes:
- Found in Chart Supplement and on IFR enroute charts
- Designated by altitude (high/low) and direction
- Using preferred routes increases likelihood of “as filed” clearance
- Tower Enroute Control (TEC) routes available in some metropolitan areas—particularly useful for helicopters due to lower altitudes
Primary and Alternate Airports: Per 14 CFR 91.169, an alternate is required unless destination weather forecast (from 1 hour before to 1 hour after ETA) shows at least 2,000-foot ceiling and 3 SM visibility. Alternate minimums for helicopters:
- Precision approach available: 600-foot ceiling, 2 SM visibility
- Non-precision approach available: 800-foot ceiling, 2 SM visibility
- If alternate minimums published (triangle-A symbol), use those instead of standard
Helicopter-specific alternate considerations:
- Verify helicopter approach procedures available (not all instrument approaches are authorized for helicopters)
- Consider fuel burn during potential holding and missed approach
- Evaluate landing area suitability for helicopter operations in IMC
- Check for IFR helicopter routes or helicopter-only approaches at alternate
Enroute Charts:
- Low Altitude Charts (up to but not including 18,000 feet MSL)—primary charts for helicopter IFR
- IFR Enroute Helicopter Charts where available (selected metro areas)
- Chart symbology: airways, MEAs, MOCAs, MRAs, MAAs, changeover points
- Maximum Authorized Altitude (MAA) often relevant in helicopters due to limited service ceilings
Chart Supplement (formerly A/FD):
- Airport/heliport diagrams and communication frequencies
- Special procedures (e.g., noise abatement, preferred routes)
- Fuel availability and types (critical for turbine helicopters)
- Services, operating hours, lighting
- Heliport-specific information when available
NOTAMs (14 CFR 91.103): Required preflight action. Three types:
- NOTAM (D): Distant, affects instrument flight (runway closures, NAVAID outages, etc.)
- FDC NOTAMs: Regulatory, amendments to approach procedures, temporary flight restrictions
- Pointer NOTAMs: Direct attention to other NOTAMs Check via 1800wxbrief.com, ForeFlight, or FSS briefing
Terminal Procedures Publications (TPP):
- Instrument Approach Procedure Charts (IAPs)
- Departure Procedures (DPs/SIDs)
- Standard Terminal Arrival Routes (STARs)
- Airport diagrams
- Helicopter-specific note: Many procedures published with “COPTER” in title or specific helicopter landing areas
Altitude Selection (IH.I.C.K2)
Terrain and Obstacle Clearance:
- Minimum Enroute Altitude (MEA): Guarantees NAVAID reception and meets 14 CFR 91.177 obstruction clearance (1,000 feet in non-mountainous, 2,000 feet in mountainous areas)
- Minimum Obstruction Clearance Altitude (MOCA): Obstruction clearance only, NAVAID reception within 22 NM of VOR
- Minimum Crossing Altitude (MCA): Required altitude at specific fixes
- Off-route operations: 14 CFR 91.177 requires minimum IFR altitudes ensuring terrain clearance
IFR Cruising Altitudes (14 CFR 91.179):
- Below 18,000 feet MSL on magnetic courses:
- 0° to 179°: Odd thousands + 500 feet (3,500, 5,500, 7,500, etc.)
- 180° to 359°: Even thousands + 500 feet (4,500, 6,500, 8,500, etc.)
- Helicopters rarely operate above 18,000 feet MSL; most training helicopters have service ceilings of 10,000-14,000 feet
Wind Effect: Helicopters are particularly affected by wind due to lower speeds and higher drag profiles. Consider:
- Headwind/tailwind component affects groundspeed, fuel consumption, and ETA
- Crosswind affects heading corrections and turbulence exposure
- Wind shear risk near terrain or in frontal zones
- Calculate true airspeed (TAS) from indicated airspeed (IAS) using E6B or electronic calculator
- Determine wind correction angle and groundspeed
Oxygen Requirements (14 CFR 91.211):
- Above 12,500 feet MSL for more than 30 minutes: Flight crew must use oxygen
- Above 14,000 feet MSL: Flight crew must use oxygen continuously
- Above 15,000 feet MSL: All occupants must be provided oxygen Rarely applicable to typical helicopter IFR training operations, but must be understood
Calculating Flight Parameters (IH.I.C.K3)
Time, Course, Distance, Heading, True Airspeed, Groundspeed: Use E6B (manual or electronic) or flight planning software:
- Determine true course from chart measurement
- Calculate magnetic course using variation from chart
- Apply wind correction angle to determine magnetic heading
- Calculate TAS from IAS and density altitude
- Determine groundspeed using TAS and wind component
- Calculate time = Distance ÷ Groundspeed
Climb and Descent Rates: Helicopter-specific performance considerations:
- Climb rate varies significantly with density altitude, weight, temperature
- Use helicopter flight manual performance charts
- Typical training helicopters (R22, R44, Robinson series): 500-1,000 fpm climb at sea level, degrading with altitude
- Typical turbine light helicopters (Bell 206, EC130): 1,000-1,500 fpm climb
- Calculate time to climb: (Altitude change ÷ Climb rate) = Time in minutes
- Descent planning: Standard 500 fpm descent is common; adjust for ATC requirements
- Distance during climb/descent: (Groundspeed in NM/min) × Time = Distance
Estimated Time of Arrival (ETA) and UTC Conversion:
- Calculate leg times, sum for total enroute time
- Add taxi and departure time to determine ETA
- Convert local time to UTC (Zulu time):
- EST = UTC - 5 hours (UTC - 4 during daylight saving)
- CST = UTC - 6 hours (UTC - 5 during daylight saving)
- MST = UTC - 7 hours (UTC - 6 during daylight saving, AZ stays standard)
- PST = UTC - 8 hours (UTC - 7 during daylight saving)
Fuel Requirements (14 CFR 91.167): For helicopters under IFR:
- Must carry enough fuel to:
- Fly to first airport of intended landing
- Fly from that airport to alternate airport (if required)
- Fly after that for 30 minutes at normal cruising speed
Calculation process:
- Determine fuel burn rate from helicopter flight manual at planned altitude/power setting
- Calculate enroute fuel: (Total flight time in hours) × (Fuel burn rate in gal/hr or lb/hr)
- Add climb fuel (higher burn rate during climb phase)
- Add fuel to alternate (if required): (Distance to alternate ÷ Groundspeed) × Fuel burn rate
- Add 30-minute reserve: 0.5 × Fuel burn rate
- Add taxi fuel (typically 5-10 minutes for helicopters)
- Total = Enroute + Climb + Alternate + Reserve + Taxi
Helicopter-specific fuel considerations:
- Piston helicopters (R22, R44): Fuel burn in gallons per hour, typically 8-15 gph
- Turbine helicopters: Fuel burn in pounds per hour or gallons per hour; must account for fuel weight vs. volume
- Account for usable vs. unusable fuel per POH/RFM
- Some helicopters require minimum fuel for CG limits
Elements of IFR Flight Plan (IH.I.C.K4)
An IFR flight plan (FAA Form 7233-1) includes:
- Aircraft Identification: Registration number (N-number)
- Aircraft Type and Equipment:
- Type: Helicopter designation (e.g., R44, EC130, Bell 206)
- Equipment suffix: /G for GPS, /A for DME/transponder without Mode C, etc. (reference AIM 5-1-8)
- True Airspeed (TAS): In knots
- Departure Point: Four-letter ICAO identifier or name
- Proposed Departure Time: In UTC (Zulu time)
- Cruising Altitude: Per 14 CFR 91.179
- Route of Flight: Airways, fixes, direct routes
- Destination: Four-letter ICAO identifier
- Estimated Time Enroute (ETE): In hours and minutes
- Remarks: Critical information (e.g., DVFR, helicopter-specific approach requests)
- Fuel On Board: Total hours and minutes of fuel
- Alternate Airport: If required per 14 CFR 91.169
- Pilot Information: Name, address, phone, number of people on board
- Aircraft Color
Helicopter-specific filing considerations:
- Include “/H” or “HELICOPTER” in remarks to alert ATC
- Request helicopter-specific approaches or routes in remarks
- Include RNAV/GPS capability accurately
- Consider filing lower altitudes than airplane counterparts
Procedures for Activating and Closing IFR Flight Plans (IH.I.C.K5)
Controlled Airspace:
- Filing: Minimum 30 minutes before departure (recommended 1 hour for reliability)
- Activation: Automatically activated when receiving IFR clearance from clearance delivery, ground control, or tower at towered airport
- IFR clearance void time: If clearance issued with void time at non-towered airport, must depart before void time or clearance expires
- Closing: At towered destination, automatically closed upon landing; controller cancels IFR when you switch to tower/ground frequency
Uncontrolled Airspace:
- Filing: Call Flight Service Station (1-800-WX-BRIEF), file online (1800wxbrief.com), or via app (ForeFlight, Garmin Pilot, etc.)
- Activation: Must explicitly activate by radio or phone before departure
- Call FSS on 122.2, RCO frequency, or telephone
- State: “N12345 request IFR clearance from [location] to [destination]”
- Receive clearance, readback, note clearance void time
- Closing: Critical for helicopters—Must cancel IFR or close flight plan:
- If landing at non-towered airport: Cancel with ATC before landing or call FSS within 30 minutes
- Failure to close results in search and rescue (SAR) activation after 30 minutes
- Can cancel IFR in flight when VFR conditions allow and ATC approves
Helicopter-specific considerations:
- Landing at private heliports/off-airport sites: Must cancel IFR before landing or immediately after via phone
- Lost communication procedures (14 CFR 91.185): Squawk 7600, proceed per assigned route/altitude/approach
Risk Management: PAVE Checklist (IH.I.C.R1–R7)
Pilot (IH.I.C.R1):
- IMSAFE checklist: Illness, Medication, Stress, Alcohol, Fatigue, Emotion/Eating
- Recent IFR experience: 14 CFR 61.57(c) requires six hours in past six months, six approaches, holding, intercepting/tracking
- Currency in make/model helicopter
- Proficiency in single-pilot IFR—higher workload than multi-crew or fixed-wing
- Personal minimums: Establish minimums above regulatory limits (e.g., 500-foot ceiling instead of published minimums)
Helicopter (IH.I.C.R2):
- Airworthiness: Annual, 100-hour (if for hire), VOR check within 30 days (14 CFR 91.171), altimeter/static system within 24 months (14 CFR 91.411), transponder within 24 months (14 CFR 91.413)
- IFR equipment requirements: 14 CFR 91.205(d) for IFR flight, plus helicopter supplement requirements
- Performance limitations: Weight and balance, density altitude effects on climb performance
- Systems reliability: Vacuum/electric instruments, GPS/NAV equipment redundancy
- Anti-icing/deicing: Most training helicopters are NOT certified for flight into known icing (14 CFR 91.527)
- Fuel system: Check for contamination, verify usable fuel quantity
Environment (IH.I.C.R3):
Weather:
- Icing: Helicopters are extremely vulnerable; rotor blade icing causes vibration, loss of lift, and control problems
- Thunderstorms: Avoid by 20 NM; turbulence, hail, icing, lightning
- Wind shear: Particularly hazardous during approach/departure at low speeds
- Visibility: Helicopters often operate at lower altitudes with reduced visibility margins
- IMC to VMC transition: Spatial disorientation risk when breaking out
Icing:
- Most training helicopters (R22, R44, Schweizer 300) are NOT approved for flight into known icing
- Recognize signs: Airframe ice accumulation, rotor roughness/vibration, performance degradation
- Consequences: Rotor imbalance, loss of lift, increased weight, CG shift, control difficulty
- Corrective actions: Immediately exit icing conditions (climb, descend, turn), inform ATC, declare emergency if necessary
- Prevention: Check PIREPs, AIRMETs, freezing level, visible moisture forecast
Airports/Heliports:
- Verify instrument approaches available and authorized for helicopters
- Check runway/helipad lighting, length, surface condition
- Evaluate missed approach obstacles and climb requirements
- Confirm fuel availability (especially for turbine helicopters requiring Jet A)
- Consider alternate landing areas near route (precautionary landing sites)
Airspace:
- Class A (18,000 MSL+): Rarely used by helicopters
- Class B, C, D, E: Required clearances, communication
- Special use airspace activation
- TFRs (Temporary Flight Restrictions)
Terrain/Obstacles:
- MEA/MOCA compliance ensures terrain clearance
- Off-airway operations: 14 CFR 91.177 clearance requirements
- Mountainous vs. non-mountainous terrain definitions
- Towers, wires, and antenna particularly hazardous to helicopters operating at lower altitudes
External Pressures (IH.I.C.R4):
- Schedule pressure: “Get-there-itis”
- Passenger expectations
- Business commitments
- Weather deterioration pressure (“We’re already here”)
- Personal minimums vs. regulatory minimums
- Peer pressure
- Mitigation: Establish personal minimums, use “out clauses” (alternate plans), assertiveness training
Limitations of ATC Services (IH.I.C.R5):
- ATC provides separation from IFR traffic, terrain clearance on assigned routes, traffic advisories
- ATC does NOT provide:
- Guaranteed weather avoidance
- Collision avoidance from VFR traffic (only traffic advisories)
- Navigation—pilot responsibility to fly assigned route
- Weather information beyond what’s available in system
- Workload: ATC may be too busy to provide detailed services
- Radar coverage gaps at lower altitudes (helicopters particularly affected)
- Communication limitations in mountainous terrain
- Pilot remains responsible for safe operation regardless of ATC clearances
Limitations of Electronic Planning Applications (IH.I.C.R6):
- Database currency: Must be updated regularly (expired databases are not legal for IFR navigation per 14 CFR 91.205)
- Software errors: Possible bugs, calculation errors
- User input errors: Incorrect weight/balance, fuel burn data, winds
- Connectivity: In-flight weather/planning requires data connection
- Over-reliance: Loss of manual planning skills
- Verification: Always cross-check critical data (fuel, time, route) with manual calculations or multiple sources
- GPS RAIM: May not be available in all locations; prediction required
Fuel Planning (IH.I.C.R7):
- Legal vs. safe fuel reserves: Legal minimum (14 CFR 91.167) is 30 minutes reserve; safe practice is 1 hour
- Fuel exhaustion is pilot error—no excuse
- Recalculation: Must recalculate when conditions change (stronger headwind, holding, reroute)
- Fuel contamination: Water, debris in fuel—preflight sampling critical
- Unusable fuel: Varies by helicopter type; check POH/RFM
- Turbine helicopters: Fuel weight vs. volume, temperature effects on fuel density
- Bingo fuel: Pre-calculated fuel quantity requiring diversion to alternate
- Monitoring: Track actual fuel burn vs. planned throughout flight
- Conservative planning: Round fuel burn up, groundspeed down
Schedule
| Time | Activity | Content Focus |
|---|---|---|
| 0:00 | Introduction and Objective Review | Review lesson objectives, completion standards, ACS task IH.I.C |
| 0:05 | Route Planning Discussion | K1: Navigational facilities, special use airspace, preferred routes |
| 0:20 | Chart Review and Interpretation | K1: Enroute charts, Chart Supplement, TPP, NOTAMs |
| 0:40 | Altitude Selection and Regulations | K2: MEA/MOCA, IFR cruising altitudes, terrain clearance, wind/O₂ |
| 0:55 | Flight Calculations Demonstration | K3: Time, fuel, TAS, groundspeed, ETA, UTC conversion |
| 1:20 | IFR Flight Plan Preparation | K4: Flight plan elements, helicopter-specific considerations |
| 1:35 | Filing and Activation Procedures | K5: Controlled/uncontrolled airspace procedures |
| 1:45 | Risk Management Discussion | R1-R7: PAVE analysis, icing hazards, external pressures, fuel |
| 2:00 | Student Practice—Flight Plan Preparation | S1: Student prepares assigned cross-country flight plan |
| 2:45 | Student Presents Flight Plan | S1, S4, S6: Student presents complete plan with risk analysis |
| 3:05 | Scenario-Based Fuel Recalculation | S2: Instructor provides weather/routing change, student recalculates |
| 3:15 | Simulated Flight Plan Filing | S3: Student files IFR flight plan (simulated or actual) |
| 3:25 | Icing Discussion and Scenarios | S5: Recognize icing, corrective actions, helicopter limitations |
| 3:35 | Review, Debrief, and Completion Assessment | Verify completion standards met, answer questions, assign homework |
| 3:45 | End of Lesson |
Total Duration: 3 hours 45 minutes (ground instruction)
Notes:
- This is a ground lesson; flight demonstration not required but may supplement
- Student should bring current charts, Chart Supplement, plotter, E6B, POH/RFM
- Access to ForeFlight, Garmin Pilot, or similar EFB recommended but not required
- Instructor should have sample cross-country assignment prepared in advance
Equipment
Required Materials
References (Current Editions):
- FAA-S-ACS-14: Instrument Rating – Helicopter Airman Certification Standards
- 14 CFR Part 61 (Certification: Pilots, Flight Instructors)
- 14 CFR Part 91 (General Operating and Flight Rules)
- FAA-H-8083-15B: Instrument Flying Handbook
- FAA-H-8083-21B: Helicopter Flying Handbook
- AIM: Aeronautical Information Manual
- Helicopter Pilot’s Manual, Volume 2 (Ryan Dale) or equivalent
- ASA Instrument Rating Test Prep or equivalent
Charts and Publications (Current Dates Required):
- IFR Enroute Low Altitude Charts (for student’s region)
- Terminal Procedures Publication (TPP/approach plates) for departure and destination airports
- Chart Supplement (for student’s region)
- IFR Enroute Helicopter Chart (if available for region)
Planning Tools:
- E6B flight computer (manual or electronic)
- Plotter
- FAA Form 7233-1 (IFR Flight Plan form) or electronic equivalent
- Calculator
- Pencils, highlighters, notepad
Electronic Flight Bag (EFB) Options:
- ForeFlight, Garmin Pilot, or equivalent flight planning application (recommended)
- Access to 1800wxbrief.com or Leidos Flight Service for weather/NOTAMs
- RAIM prediction tool (FAA RAIM service or integrated in EFB)
Helicopter Documents:
- POH/RFM for aircraft used in training (e.g., Robinson R22, R44, or equivalent)
- Weight and balance data
- Performance charts (climb, cruise, fuel burn)
Visual Aids:
- Whiteboard or chart paper for calculations demonstration
- Sample completed IFR flight plan
- Example NOTAM printouts
- Icing scenario photographs/videos (optional)
- Sectional chart overlay showing MEA/MOCA/MCA/MAA examples
Supplementary Materials:
- PAVE checklist handout
- IFR flight plan checklist
- Fuel calculation worksheet
- Sample cross-country assignment (instructor-prepared scenario)
Instructor Actions
-
Introduction and Motivation (5 minutes):
- Explain that cross-country IFR planning is where all instrument knowledge comes together—navigation, regulations, weather, performance, and risk management.
- Emphasize: “In single-pilot helicopter IFR, you don’t have time to figure this out in flight. Planning on the ground is where safety begins.”
- State the lesson objective and completion standards from ACS task IH.I.C.
- Ask student: “What experience do you have with cross-country VFR planning? How do you think IFR planning differs?”
-
Present Route Planning Concepts (15 minutes):
- Display IFR enroute low altitude chart covering a realistic cross-country route (e.g., 150-250 NM).
- Identify and explain available navigational facilities: VOR, VORTAC, DME, GPS waypoints, airways (Victor airways).
- Demonstrate calculating VOR reception distance using altitude: “At 4,000 feet AGL, expect VOR reception out to about 1.23 times the square root of 4,000, which is roughly 78 nautical miles under ideal conditions. In helicopters at lower altitudes, your NAVAID coverage is reduced compared to airplanes.”
- Point out special use airspace on chart: restricted areas, MOAs, warning areas, prohibited areas.
- Ask student to identify on chart: “Show me a restricted area along this route. What do we need to check before we can plan to fly through it?”
- Explain preferred routes found in Chart Supplement and how they increase likelihood of clearance “as filed.”
- Discuss primary and alternate airport selection criteria per 14 CFR 91.169.
- Demonstrate use of Chart Supplement to verify airport services, fuel, approach availability, and hours of operation.
-
Chart Interpretation Practice (20 minutes):
- Guide student through reading enroute chart symbology: MEA (Minimum Enroute Altitude), MOCA (Minimum Obstruction Clearance Altitude), MCA (Minimum Crossing Altitude), MAA (Maximum Authorized Altitude), changeover points, mileage between fixes.
- Explain: “MEA guarantees both obstacle clearance AND navigational signal reception. MOCA only guarantees obstacle clearance, with signal reception within 22 NM of the VOR. As helicopter pilots flying lower, we often operate right at MEAs.”
- Show Terminal Procedures Publication (approach plates) for destination and alternate.
- Demonstrate interpreting approach minimums for helicopters (Category A speeds, visibility requirements).
- Ask student to identify: “What is the minimum descent altitude for the VOR approach at our destination?”
- Display sample NOTAMs (NOTAM D and FDC) and explain how to interpret them.
- Review Chart Supplement entry for destination airport: fuel availability, runway/helipad dimensions, communication frequencies, remarks.
- Explain helicopter-specific entries in Chart Supplement where applicable (heliport data).
-
Teach Altitude Selection and Regulatory Compliance (15 minutes):
- Review 14 CFR 91.177 obstruction clearance requirements: 1,000 feet above highest obstacle within 4 NM in non-mountainous areas, 2,000 feet in designated mountainous areas.
- Explain IFR cruising altitudes per 14 CFR 91.179: odd thousands + 500 feet for magnetic courses 0°-179°, even thousands + 500 feet for 180°-359°.
- Demonstrate altitude selection considering terrain, MEA, cruising altitude rules, and wind.
- Discuss wind effect on groundspeed, fuel burn, and time: “A 20-knot headwind at a cruise speed of 90 knots reduces groundspeed to 70 knots—that’s a 22% increase in flight time and fuel burn. In helicopters, this is more critical than in faster aircraft.”
- Explain oxygen requirements per 14 CFR 91.211 (rarely applicable to helicopter operations but required knowledge).
- Use whiteboard to demonstrate calculating best altitude considering multiple factors.
-
Demonstrate Flight Calculations (25 minutes):
- Use E6B (manual or electronic) to demonstrate calculating true airspeed from indicated airspeed and density altitude.
- Work through wind correction angle and groundspeed calculation using forecast winds aloft.
- Demonstrate time calculation: “Distance divided by groundspeed equals time. If we’re flying 60 nautical miles at a groundspeed of 80 knots, our time is 60 ÷ 80 = 0.75 hours, or 45 minutes.”
- Show climb calculation using helicopter performance charts: “The R44 performance chart shows a 700 fpm climb rate at 2,000 feet density altitude and 2,400 pounds. To climb from 1,000 MSL to 5,500 MSL (4,500 feet), we need 4,500 ÷ 700 = 6.4 minutes. During this climb at 70 knots groundspeed, we cover about 7.5 nautical miles.”
- Calculate descent time and distance using 500 fpm descent rate.
- Demonstrate fuel calculation using POH/RFM fuel burn data:
- Cruise fuel burn (e.g., 12 gph for R44)
- Climb fuel (higher burn rate, e.g., 15 gph)
- Total enroute fuel
- Fuel to alternate
- 30-minute reserve (minimum legal per 14 CFR 91.167)
- Show UTC conversion: “If we’re departing at 2:00 PM Central Standard Time, that’s 2:00 PM + 6 hours = 8:00 PM UTC, or 2000 Zulu.”
- Emphasize: “Always calculate conservatively—round fuel burn up, groundspeed down. Aviation math favors safety.”
-
Explain IFR Flight Plan Elements (15 minutes):
- Display blank FAA Form 7233-1 (or electronic equivalent).
- Fill out sample flight plan step-by-step, explaining each block:
- Aircraft identification (N-number)
- Aircraft type/special equipment (e.g., R44/G for GPS-equipped R44)
- True airspeed in knots
- Departure point (ICAO identifier)
- Proposed departure time (UTC)
- Cruising altitude (IFR cruising altitude per 91.179)
- Route (airways, fixes, direct)
- Destination (ICAO identifier)
- Estimated time enroute
- Remarks (include “HELICOPTER” or “/H”)
- Fuel on board (hours and minutes)
- Alternate airport
- Pilot information
- Aircraft color
- Explain equipment suffix codes (reference AIM 5-1-8): /G for GPS (RNAV), /A for DME/transponder without Mode C, etc.
- Emphasize helicopter-specific remarks: “Including ‘HELICOPTER’ in remarks alerts ATC to your slower speed and potential need for helicopter-specific approaches or routing.”
-
Teach Filing and Activation Procedures (10 minutes):
- Explain how to file IFR flight plan: phone (1-800-WX-BRIEF), online (1800wxbrief.com), or via EFB application.
- Discuss timing: file at least 30 minutes before departure, preferably 1 hour.
- Differentiate between towered and non-towered airports:
- Towered: Call clearance delivery or ground control; clearance activates flight plan automatically.
- Non-towered: Must activate by calling FSS or ATC; receive clearance with void time.
- Explain void time: “If your clearance says ‘clearance void if not off by 1430 Zulu,’ you MUST depart before 1430Z or the clearance expires. Call FSS to get a new clearance or cancel.”
- Teach closing procedures: “At a towered airport, your IFR flight plan is closed automatically when you land. At a non-towered airport or heliport, YOU must cancel IFR with ATC before landing or call FSS within 30 minutes after landing. If you don’t, search and rescue will be activated.”
- Emphasize: “Helicopter pilots often land at off-airport sites or private heliports. Always have a plan to cancel IFR promptly.”
-
Conduct Risk Management Discussion (15 minutes):
- Use PAVE framework (Pilot, Aircraft, enVironment, External pressures):
- Pilot: Review IMSAFE checklist. Discuss recent IFR experience and currency requirements (14 CFR 61.57(c)). Ask: “What are your personal minimums for ceiling and visibility?”
- Aircraft: Verify airworthiness, IFR equipment requirements (14 CFR 91.205(d)), recent inspections (VOR check, altimeter/static, transponder). Discuss weight and balance criticality in helicopters.
- enVironment: Emphasize icing risk—most training helicopters are NOT certified for known icing. Explain symptoms: rotor vibration, performance degradation, visible ice. Corrective action: immediately exit icing conditions (climb/descend/turn), inform ATC.
- External pressures: Discuss “get-there-itis,” schedule pressure, passenger expectations. Emphasize establishing personal minimums above regulatory minimums.
- Discuss ATC limitations: “ATC provides separation and traffic advisories, but they don’t guarantee weather avoidance or collision avoidance from VFR traffic. You are always the final authority for safe operation.”
- Address electronic planning tool limitations: database currency, software errors, user input errors, over-reliance.
- Emphasize fuel planning conservatism: “Legal minimum is 30 minutes reserve. Safe practice is 1 hour reserve. Fuel exhaustion is 100% pilot error.”
- Ask scenario questions: “What would you do if icing is forecast along your route? What if your groundspeed is 15 knots slower than planned—how does that affect fuel?”
- Use PAVE framework (Pilot, Aircraft, enVironment, External pressures):
-
Assign Student Practice Flight Plan (45 minutes):
- Provide student with a realistic cross-country assignment: departure airport, destination airport, proposed departure time.
- Example: “Plan an IFR flight from [local airport] to [airport 150-200 NM away], departing at [time]. Use current weather, NOTAMs, and forecast winds aloft. Your helicopter is an R44 Raven II at 2,300 pounds.”
- Instruct student to:
- Select route and altitude
- Calculate time, fuel, and ETA
- Determine if alternate is required; select alternate if needed
- Complete IFR flight plan form
- Identify risks using PAVE
- Gather NOTAMs, weather, Chart Supplement information
- Circulate and provide guidance as student works. Answer questions but encourage independent problem-solving.
- Observe student’s use of charts, planning tools, and references.
-
Review Student-Prepared Flight Plan (20 minutes):
- Ask student to present complete flight plan as if briefing a passenger or fellow pilot.
- Student should cover:
- Route selection and reasoning
- Altitude selection and regulatory compliance
- Time and fuel calculations
- Alternate airport selection (if required)
- Risk analysis (PAVE)
- NOTAMs affecting flight
- Weather considerations, especially icing
- Ask probing questions:
- “Why did you choose this altitude?”
- “What is the MEA on this segment?”
- “Show me on the chart where the MCA applies.”
- “What NOTAM affects our destination airport?”
- “Is an alternate required? Why or why not?”
- “What will you do if you encounter icing?”
- Provide positive feedback on correct elements and constructive correction on errors.
- Verify calculations manually or cross-check with your own planning.
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Present Fuel Recalculation Scenario (10 minutes):
- Provide a scenario that changes fuel requirements: “Enroute, ATC issues a reroute adding 20 nautical miles. Headwind component increases from 10 knots to 25 knots. Recalculate your fuel required and determine if you have adequate reserves.”
- Observe student’s process:
- Recalculate groundspeed with new wind
- Recalculate time with new distance and groundspeed
- Recalculate fuel required
- Compare to fuel on board
- Determine if diversion to alternate is necessary
- Guide student if struggling, but allow opportunity for independent problem-solving.
- Emphasize real-world application: “This happens in actual IFR flight. You must be able to recalculate quickly and accurately.”
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Simulate IFR Flight Plan Filing (10 minutes):
- Walk student through filing process using 1800wxbrief.com, ForeFlight, or phone briefing with FSS (simulated).
- If using online/app method, have student enter all flight plan data and submit.
- If simulating phone briefing, role-play as FSS briefer: “Lockheed Martin Flight Service, how may I help you?”
- Student should provide all flight plan elements clearly and accurately.
- Emphasize readback requirement for IFR clearances.
- Discuss how to receive clearance at towered vs. non-towered airport.
- Ask: “How will you activate this flight plan at a non-towered airport?”
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Conduct Icing Knowledge Assessment (10 minutes):
- Ask: “What are the conditions for structural icing?”
- Answer: Visible moisture (clouds, rain, fog) and temperature at or below freezing (0°C/32°F).
- Ask: “What are the symptoms of rotor icing in a helicopter?”
- Answer: Vibration, rough running, loss of lift, decreased performance, visible ice accumulation on windscreen/airframe.
- Ask: “What are the corrective actions if you encounter icing?”
- Answer: Immediately exit icing conditions by climbing, descending, or turning; inform ATC; reduce power if vibration is severe to prevent mechanical damage; land as soon as practical; declare emergency if necessary.
- Show photographs or video of helicopter rotor blade icing (if available).
- Emphasize: “Most training helicopters are NOT certified for flight into known icing. If icing is forecast or reported, you cannot legally or safely fly. Period.”
- Discuss phases of flight most susceptible to icing: climb, cruise in clouds, approach/descent through clouds.
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Review, Debrief, and Assess Completion Standards (10 minutes):
- Summarize key points from lesson: route planning, altitude selection, calculations, flight plan elements, filing/activation, risk management, icing hazards.
- Ask student to self-assess: “Do you feel confident preparing a complete IFR cross-country flight plan?”
- Review any areas where student struggled or made errors.
- Verify student met completion standards (see Completion Standards section below).
- Answer remaining questions.
- Assign homework: “Prepare another IFR cross-country flight plan from [airport] to [airport] for our next lesson. Include full risk analysis and current weather/NOTAMs.”
- Preview next lesson topic.
- Provide encouragement: “Cross-country planning integrates everything you’ve learned. You did well today, and with practice, this will become second nature.”
Student Actions
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Active Participation:
- Listen attentively during instructor presentations.
- Ask questions when concepts are unclear.
- Take notes on key regulations, procedures, and techniques.
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Chart Interpretation:
- Identify navigational facilities, airways, MEAs, MOCAs, MCAs, special use airspace on enroute charts.
- Locate and interpret NOTAMs, Chart Supplement entries, and Terminal Procedures.
- Demonstrate ability to read approach plates and identify minimums for helicopter Category A operations.
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Flight Calculations:
- Use E6B (manual or electronic) to calculate true airspeed, wind correction angle, groundspeed, and time.
- Perform fuel calculations using POH/RFM data, including enroute fuel, climb fuel, alternate fuel, and reserves.
- Convert local time to UTC accurately.
- Calculate climb and descent times and distances.
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IFR Flight Plan Preparation:
- Complete a full IFR flight plan (FAA Form 7233-1 or electronic equivalent) for assigned cross-country route.
- Select appropriate route considering navigational facilities, special use airspace, preferred routes, terrain, and weather.
- Choose cruising altitude complying with 14 CFR 91.179 and considering MEA, wind, and performance.
- Determine whether an alternate airport is required per 14 CFR 91.169; select suitable alternate if required.
- Verify alternate has suitable approaches authorized for helicopters.
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Risk Analysis:
- Apply PAVE framework to analyze pilot fitness, aircraft airworthiness, environmental hazards, and external pressures.
- Identify icing risk based on forecast weather and recognize that most training helicopters are not approved for known icing.
- Discuss personal minimums and decision-making strategies.
- Identify specific risks from NOTAMs (e.g., NAVAID outages, runway closures, TFRs).
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Present Flight Plan:
- Verbally present prepared cross-country flight plan to instructor, covering:
- Route and rationale
- Altitude selection
- Time and fuel calculations
- Alternate selection
- NOTAM and weather considerations
- Risk mitigation strategies
- Answer instructor questions about planning decisions.
- Defend planning choices with reference to regulations and sound aeronautical decision-making.
- Verbally present prepared cross-country flight plan to instructor, covering:
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Fuel Recalculation:
- When given scenario by instructor (e.g., reroute, changed winds), recalculate fuel requirements.
- Determine whether fuel reserves remain adequate or diversion is necessary.
- Explain methodology and show calculations.
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Simulated Flight Plan Filing:
- File IFR flight plan using online system (1800wxbrief.com), EFB app, or simulated phone call to FSS.
- Provide all required information clearly and accurately.
- Explain how flight plan will be activated at departure airport (towered vs. non-towered).
- Explain how flight plan will be closed at destination.
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Icing Knowledge Demonstration:
- Describe conditions conducive to structural icing.
- Recognize symptoms of rotor blade and airframe icing.
- Explain immediate corrective actions if icing is encountered.
- State helicopter limitations regarding flight into known icing.
- Identify preflight actions to avoid icing (checking PIREPs, AIRMETs, forecasts, freezing levels).
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Application of Aeronautical Information:
- Use current NOTAMs to identify runway closures, NAVAID outages, airspace restrictions, or other relevant information.
- Reference Chart Supplement for airport services, fuel availability, hours of operation, and communication frequencies.
- Interpret aeronautical charts accurately to plan safe and legal route.
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Self-Assessment:
- Evaluate own performance against completion standards.
- Identify areas needing further study or practice.
- Ask for clarification or additional practice in weak areas.
Completion Standards
The student’s performance must meet the following standards, per ACS task IH.I.C. The lesson is complete when the student demonstrates the ability to:
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Prepare, present, and explain a cross-country IFR flight plan (IH.I.C.S1):
- Select a legal and practical route using airways, direct routes, or a combination, accounting for available navigational facilities and special use airspace.
- Choose appropriate cruising altitude(s) complying with 14 CFR 91.179 (IFR cruising altitudes), meeting MEA requirements, and accounting for wind effect and helicopter performance limitations.
- Accurately calculate:
- Time enroute for each leg and total flight (within ±3 minutes of actual)
- Fuel required including climb, cruise, alternate (if applicable), and reserve per 14 CFR 91.167 (within ±1 gallon or 10% of actual requirement, whichever is greater)
- True airspeed and groundspeed (within ±5 knots)
- Course, heading, and wind correction angle (within ±3°)
- Estimated time of arrival in UTC (within ±5 minutes)
- Present a comprehensive risk analysis addressing:
- Pilot fitness and currency
- Helicopter airworthiness and equipment
- Environmental hazards (weather, icing, terrain, airspace, obstacles)
- External pressures
- Fuel planning margins
- Explain all planning decisions with reference to regulations, aeronautical information, and sound judgment.
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Recalculate fuel reserves based on changing conditions (IH.I.C.S2):
- When presented with a scenario involving reroute, stronger headwinds, holding, or other variables, accurately recalculate fuel required within ±1 gallon or 10%.
- Determine whether fuel on board remains adequate to meet 14 CFR 91.167 requirements (destination + alternate + 30-minute reserve).
- Identify decision point (bingo fuel) for diversion to alternate.
- Explain recalculation process clearly.
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Create navigation plan and simulate filing IFR flight plan (IH.I.C.S3):
- Complete FAA Form 7233-1 (or electronic equivalent) with all required elements accurately filled in:
- Correct aircraft type/equipment suffix
- Accurate route, altitude, departure/destination identifiers
- Correct estimated time enroute (within ±5 minutes)
- Fuel on board in hours and minutes (within ±0.1 hour)
- Appropriate remarks (e.g., “HELICOPTER”)
- Correct alternate airport (if required)
- Demonstrate filing procedure via online system, app, or simulated FSS phone call.
- Explain activation and closing procedures for both towered and non-towered departure/destination airports.
- Complete FAA Form 7233-1 (or electronic equivalent) with all required elements accurately filled in:
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Interpret departure, arrival, enroute, and approach procedures (IH.I.C.S4):
- Read and explain Standard Instrument Departures (SIDs/DPs) applicable to departure airport.
- Read and explain Standard Terminal Arrival Routes (STARs) applicable to destination airport.
- Identify MEA, MOCA, MCA, MAA, airway widths, changeover points, mileages on enroute charts without error.
- Interpret instrument approach procedure charts (IAPs) for destination and alternate, correctly identifying:
- Approach category (Category A for most helicopters)
- Minimum descent altitude (MDA) or decision altitude (DA)
- Visibility requirements (statute miles or RVR)
- Missed approach procedures
- Helicopter-specific notes or landing minimums
- Explain all chart symbology accurately.
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Recognize and explain helicopter icing hazards and corrective actions (IH.I.C.S5):
- State conditions for structural icing: visible moisture and temperature ≤0°C.
- Identify symptoms of rotor blade icing: vibration, roughness, performance loss, visible ice accumulation.
- Explain immediate corrective actions:
- Exit icing conditions immediately (climb, descend, turn)
- Inform ATC
- Reduce power if severe vibration occurs to prevent damage
- Land as soon as practical
- Declare emergency if necessary
- State that most training helicopters (R22, R44, Schweizer 300) are NOT certified for flight into known icing per 14 CFR 91.527.
- Identify preflight planning actions to avoid icing:
- Check PIREPs for icing reports
- Review AIRMETs for icing
- Check forecast freezing level
- Verify visible moisture forecast
- Cancel or delay flight if icing conditions exist or are forecast
- Explain icing effects during all phases: pre-takeoff (ground icing), takeoff (performance degradation), cruise (accumulation, vibration), landing (reduced control, vibration).
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Apply information from current aeronautical charts, publications, and NOTAMs (IH.I.C.S6):
- Use Chart Supplement to verify airport/heliport services, fuel availability, hours of operation, and frequencies without error.
- Identify and explain all applicable NOTAMs affecting departure airport, destination, alternate, and enroute facilities:
- NOTAM (D): Runway/taxiway closures, lighting outages, NAVAID outages
- FDC NOTAMs: Procedure amendments, TFRs
- Cross-reference approach procedure amendments from FDC NOTAMs.
- Use enroute charts to identify route, MEA/MOCA, special use airspace, and navigational facilities accurately.
- Demonstrate ability to extract all relevant information from publications quickly and accurately.
Common Errors to Avoid:
- Using expired charts, Chart Supplement, or databases
- Failing to check NOTAMs before flight
- Incorrect fuel calculations (forgetting reserve, climb fuel, or alternate fuel)
- Filing flight plan with wrong equipment suffix
- Not verifying alternate required per 14 CFR 91.169
- Selecting alternate without suitable instrument approach
- Planning flight into forecast icing conditions in non-approved helicopter
- Failing to apply conservative fuel planning margins
- Arithmetic errors in time/fuel/groundspeed calculations
- Not converting to UTC for flight plan
- Forgetting to include 30-minute reserve per 14 CFR 91.167
- Choosing cruising altitude that doesn’t comply with 14 CFR 91.179
- Not verifying approach category minimums for helicopters
- Failing to close IFR flight plan at non-towered destination
Instructor Notes:
- Emphasize that this lesson integrates knowledge from multiple areas: navigation, regulations, weather, aircraft performance, and aeronautical decision-making.
- Single-pilot IFR in helicopters requires exceptional planning because workload is high and autopilot systems are limited or nonexistent in most training helicopters.
- Students often underestimate fuel requirements—stress conservative planning.
- Many students struggle with UTC conversion—practice this repeatedly.
- Icing is a critical threat to helicopters; reinforce that most training helicopters are NOT approved for known icing and flight into forecast icing is prohibited.
- This lesson can be supplemented with actual flight plan filing and flight execution in subsequent flight lessons.
- Student should repeat this exercise with different routes until proficiency is demonstrated consistently.