Part Time Pilot Comprehensive Study Notes (Structured)
Pilot Documentation & Identification
A current pilot certificate, medical certificate, and government photo ID must be in the pilot's possession anytime acting as PIC or required crewmember.
Student Pilot Certificate: no expiration.
Medical Certificate: Private pilots must hold at least a 3rd-class medical certificate.
Government Photo ID: acceptable IDs include driver’s license, government ID, U.S. Armed Forces ID, passport, security-access credentials, or other IDs acceptable to the FAA.
Medical Certification
Private pilots must hold at least a third-class medical certificate.
Renewal intervals by age:
Under 40: renew every 60 months after the exam date.
40 or older: renew every 24 months (same as student pilot).
Note: Always check for updated RFFs and FAA practice questions when considering medical programs (see BasicMed section).
BasicMed
BasicMed allows a single AME medical exam at flight training start to obtain a 3rd class certificate, then currency via BasicMed methods and a valid US driver’s license.
CME (Comprehensive Medical Examination) with your Primary Care physician at least once every 4 years, using an FAA checklist discussed during the visit.
You are not required to carry the medical exam checklist or medical education completion certificate while flying; you must be able to present an accurate representation if requested by FAA.
FAA is increasingly asking questions about BasicMed limitations; review these limitations in Online Ground School.
Pilot-for-Hire Limitations
A private pilot cannot fly passengers who pay more than their pro rata share of the flight.
A commercial license is required to be paid for flight.
Costs that count toward pro rata share: fuel, oil, airport expenditures, and rental fees.
Some exceptions exist per FAR 61.113 (see course specifics).
Pilot in Command (PIC) Responsibilities & ATC
PIC: the person ultimately responsible for the aircraft's operation and safety during all flight phases.
PIC is the sole and final authority for the aircraft and determines if the aircraft is in condition for safe flight.
PIC must meet legal requirements and hold the necessary documentation.
ATC Clearances: authorization to proceed under specified traffic conditions in controlled airspace.
Deviations from ATC clearances:
Amended clearance is given, or
Emergency dictates deviation, or
Evoked by Traffic Collision Avoidance System (TCAS).
If deviating, notify ATC as soon as possible and file a report to the ATC manager within 48 hours if requested.
Currency & Proficiency (Flight Reviews, Endorsements)
Day currency for carrying passengers: 3 takeoffs & 3 landings in last 90 days, nose-wheel or tail-wheel variations, and full-stop landings as required for the category/class/type.
Night currency: same takeoffs/landings rules, plus 1 hour flight and 1 hour ground review every 24 months with an instructor, plus a logbook endorsement.
Currency endorsements needed for each category/class/type.
Aircraft & Airmen Categories, Classes & Type
Categories: Transport, Utility, Normal, Limited, Restricted, Acrobatic, Provisional (T.U.R.N.P.A.L.).
Classes: Airplane, Rotorcraft, Glider, Lighter-than-Air, Powered Lift, Powered Parachute, Weight-shift Control, Seaplane, Balloon, etc. (L.A.R.G.P.P.W.R.).
Type: e.g., B737, A388, etc. (Additional airmen class ratings like tailwheel, complex, high-performance explained in OGS).
Fuel Requirements (VFR Day/Night)
Day VFR (sunrise–sunset): enough fuel to reach the first planned destination plus fuel for an additional 30 minutes of cruise.
Night VFR: enough fuel for 45 minutes of cruise after reaching the destination.
Note: Night definitions vary by regulation (see Night Definitions slide in course).
Speed Limits & Airspace Considerations
Above 10,000 ft MSL, various speeds apply in different airspaces (Class B, C, D, etc.) and within VFR corridors.
Class B: 200 knots maximum in some segments; Class D/C: 200–250 knots caps depending on segment and proximity to primary airport.
Speed limits vary by altitude and airspace; consult the current chart supplement and airspace rules.
Airworthiness Directives (ADs) & Maintenance
ADs are FAA notices defining unsafe conditions for aircraft types and prescribe corrective actions.
ADs MUST be met for airworthiness; proof of compliance documented in maintenance records.
ADs can be normal or emergency, recurring or one-time.
Preflight Actions (PIC Responsibility)
PIC must be familiar with all available information concerning the flight, including:
IFR or off-field flight: weather, fuel requirements, alternates, known ATC delays.
Any flight: runway lengths, takeoff/landing distances, predicted aircraft performance under airport elevation and runway slope, wind, and temperature.
Common Phrases, Mnemonics & Key Safety Concepts
Right of Way: the least maneuverable aircraft has the right of way; BGAPWAR mnemonic helps remember priority: Balloon, Glider, Airship, Parachute, Weight-Shift Control, Airplane, Rotorcraft.
LAHSO (Land and Hold Short Operations): PIC may accept/decline; hold-short markings exist at intersections to manage traffic.
The PIC has final authority in LAHSO decisions if safety would be compromised.
Seatbelts & Harnesses
Requirements for crew and passengers: seatbelts and harnesses to be fastened during takeoff, landing, and en route as appropriate; keep at duty station unless operational need.
In-Flight Procedures & Safety Rules
Formation Flight: no formation flight carrying passengers for hire; no formation unless by arrangement with PICs.
Dropping Objects: cannot drop any object in a way that creates a hazard; exceptions if reasonable precautions are taken.
Incidents & Accidents: NTSB categories include incidents and serious incidents; accidents defined by injuries, damage, or unavailability; pilots must report to NTSB as required.
Incidents/Accidents: immediate reporting and data collection are required; the NTSB may request reports.
FAA Advisory Circulars (ACs)
Advisory Circulars provide guidance for compliance with airworthiness regulations, pilot certification, operational & training standards.
ACs are cataloged by topic (General, Procedural Rules, Aircraft, Airmen, etc.).
Supplemental Oxygen & High-Altitude Physiology
Hypoxia: types include hypemic; symptoms include headache, euphoria, dizziness, impaired judgment; high altitude increases CO poisoning risk via CO from heaters.
Hypoxia treatment: use 100% O2 if suspected; understand CO poisoning sources and aircraft heater issues.
Supplemental oxygen requirements kick in above certain altitudes (e.g., 12,500–14,000 ft MSL thresholds depending on occupancy).
Hyperventilation & Spatial Disorientation
Hyperventilation: rapid breathing reduces CO2; symptoms overlap with hypoxia; remedy includes controlled breathing and supplemental O2 if available; breathing into a bag can replenish CO2.
Spatial disorientation: brain misinterprets sensory data; reliance on instruments is critical in IFR conditions; practice scanning techniques and instrument references.
Alcohol, Drugs & Personal Health
PIC must not have any alcohol or drugs within 8 hours or a BAC below 0.04% prior to flight; being intoxicated disqualifies flight.
Legal consequences include reporting requirements to FAA; conviction-related actions may impact certification.
Self-Assessment & Personal Minimums (PAVE, IMSAFE)
Self-assessment tools help identify hazards before flight; assess Illness, Medication, Stress, Alcohol, Fatigue, Emotions (ISAFE).
Personal minimums should be established and followed.
Aviation Decision Making (ADM) & Hazardous Attitudes
ADM is a continuous process: Perceive hazards, Process them, Perform the best action.
The FAA 3P Model (Process, Perform, Perceive) helps apply ADM.
Hazardous Attitudes: Anti-Authority, Impulsivity, Invulnerability, Numbness, Macho; counter with deliberate thinking, following rules, and seeking mentorship.
Weather & Flight Planning
Weather briefings (Standard, Abbreviated, Outlook) via 1800wxbrief; include route, aircraft type, tail number, depart time.
AIRMETs, SIGMETs, GFA (Graphical Forecasts for Aviation) provide ongoing weather insights.
Fronts: Cold Fronts, Warm Fronts, Occluded Fronts, Stationary Fronts; expect different impacts on visibility, clouds, turbulence.
Temperature inversions: stable layers affect turbulence and visibility; frost and icing considerations when surface temps are high and dewpoints differ.
Winds aloft data: wind speed and direction at altitude; crosswinds/headwinds/tailwinds must be calculated using wind direction vs runway heading.
Magnetic Variation & Navigation
Magnetic variation (declination) is the difference between true north and magnetic north; isogonic lines connect points with the same variation.
Westerly variation adds to true course to get magnetic course; easterly variation subtracts.
U.N.O.S. mnemonic helps remember magnetic dip errors on the compass: Undershoot North, Overshoot South (in Northern Hemisphere).
Wind corrections: Wind Correction Angle (WCA) used to convert course to heading; heading = course + wind correction (positive to starboard/right, negative to port/left).
Use VORs for navigation: VOR with FROM/TO indications; triangulation with two VORs or VOR/DME for exact position.
VOR Navigation & DME
VOR basics: tune NAV radios to VOR frequency; test by receiving Morse code signal.
FROM indication places you on a radial; TO indicates you are on a radial toward the VOR.
Two-VOR method: draw lines from each VOR on a chart to intersect; this intersection is your location.
VOR/DME method: use distance from a VOR via DME along a radial to pinpoint position.
Aeronautical Charts & Lat/Long
Latitudes are horizontal lines; Longitudes are vertical lines.
Between lines: 60 minutes; minutes divided into 60 seconds; seconds are not typically marked.
Legends cover scales, lat/long, airports, nav aids, terrain, airspace, etc.
Aircraft Systems & Instrumentation (Sampling)
Electrical: two power sources typically exist: alternator/generator and a battery.
Pitot-Static System: pitot and static sources feed ASI, Altimeter, VSI; alternate static source available if primary is blocked.
Altimeter: requires setting knob to calibrate; reading order: 10,000s, 1,000s, 100s to compute altitude.
VSI, Heading Indicator, Attitude Indicator, Turn Coordinator: vacuum and/or electric powered; issues include tumble and precession.
Transponder & ADS-B: modes A/C/S; ADS-B Out transmits position, altitude, velocity; Mode C provides altitude reporting.
ELT: emergency locator transmitter; transmits on 121.5/243.0/406.0; battery life limits and replacement policy.
GPS: CNS satellites; RAIM for integrity; 4+ satellites required for 3D position and fault detection.
Glass cockpit vs analog: digital displays offer horizon to edges and integrated maps; proficiency remains essential.
Aerodynamics & Flight Theory
Lift, Weight, Thrust, Drag: Lift counters Weight; Thrust counters Drag; Drag splits into Parasite and Induced Drag.
Lift is produced by wing camber and AoA; stall occurs when angle of attack exceeds critical AoA, causing flow separation and loss of lift.
Stall recovery: PARE: Power idle, Ailerons neutral, Rudder into the spin, Elevator to lower nose; then recover to level flight and climb at Vy or Vx.
Stall speed (Vstall) depends on load factor; VA (design maneuvering speed) is the max speed for full deflection; Vx and Vy achieve best angle of climb and best rate of climb respectively.
Flaps: increase camber and allow lower speeds on approach; affect stall AoA; control descent rate without increasing airspeed.
Ground effect: reduced downwash and induced drag near the surface; can cause floating off the runway.
P-factor, Gyroscopic Precession, Torque, and Spiraling Slipstream explain yaw and turning tendencies during takeoff/landing and high-power settings.
Weight & Balance
Positioning and arms: datum line, front seat, rear seat, baggage; compute moments = Weight × Arm; total weight & total moment determine ramp weight and CG.
Verify that loaded aircraft CG falls within the envelope on the Weight and Balance chart in the AFM/POH.
Use moment calculations to determine ramp weight, ramp arm, and ensure safe operation and compliance with limits.
Cross-Country Planning Checklist (Summary)
Gather weight & balance data; compute ramp and takeoff weights; determine checkpoints; plot course with cross-country route.
Gather weather data: METAR/TAF, winds aloft, NOTAMs, PIREPs; forecast weather across route.
Determine altitudes: choose cruise altitude using hemispheric rules and terrain/airspace constraints.
Compute distances, fuel, time, and fuel at each checkpoint using winds and speed data; interpolate as needed for FAA written exam prep.
Practical Tools & Resources
Online Ground School (OGS) provides practice questions, audio lessons, visuals, and simulation tools (ATC, weather, charts, etc.).
Practice with E6B calculators (manual) or electronic E6B for TAS, GS, wind correction, time, fuel, and pressure-altitude calculations.
The Part Time Pilot program offers audio-ground-school access for flexible study.
Important Numerical & Formula References
Pressure Altitude: ext{Pressure Altitude} = ext{Elevation} + 1000 imes (29.92 - ext{Altimeter Setting})
True Airspeed (from dynamic pressure): q = frac{1}{2}
ho V^2 \ V = \sqrt{\frac{2q}{\rho}} = \sqrt{\frac{2(P{total}-P{static})}{\rho}}Crosswind Component: C_w = W \, \sin(\theta)
Headwind/Tailwind Component: H = W \cos(\theta) (where theta is the angle between wind direction and runway heading)
Moment & CG: ext{Moment} = ext{Weight} \times \text{Arm}
Time to Checkpoint (approx.): t = \frac{Distance{nm}}{Ground\ Speed{kts}} \times 60 \text{ minutes}
Fuel Calculations (gal): \text{Fuel Gal} = \text{Fuel Rate (GPH)} \times \text{Time (hours)}
PARE Recovery (abbreviated): Power idle, Ailerons neutral, Rudder opposite spin, Elevator down; then climb at Vy or Vx.
Isogonic Variation Rule: Westerly variation adds to true course to get magnetic course; Easterly variation subtracts.
Wind Correction Angle (WCA): Heading = Course + WCA, where WCA sign follows wind direction relative to aircraft.
Quick Reminders for Exam & Real Flight
Always carry required documents when acting as PIC; keep certificates current; BasicMed is an alternative with CME scheduling.
Understand ATC clearance rules and the process to request radar traffic, flight following, or approach control.
Know class B/C/D/E/G airspace minimums and SVFR rules; ensure radio and transponder capabilities per airspace requirements.
Practice aircraft performance calculations frequently (range, endurance, takeoff/landing distances, density altitude effects).
Review fatigue, instrumentation, and partial-panel scenarios; emphasize instrument reliance in degraded-visual conditions.
Connections to foundational principles: navigation relies on geometry (VOR intersections, wind correction, isogonic variation), physics (lift, drag, thrust, weight; momentum; Bernoulli’s principle), and human factors (ADM, hazard attitudes, physiology).
Note: Many items above map directly to the pages in the Part Time Pilot study material; consult the Online Ground School for in-depth explanations, examples, and practice questions.