Private Pilot Ground School

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About Course

Private Pilot License Ground School

This course will cover the basic knowledge required of a private pilot to pass the Private Pilot Airplane written exam, and will prepare you for your flight training in an actual aircraft with your flight instructor.

This Course is available to members with a paid membership of Flight Engineer or higher. You will be able to skip through the lessons as you wish to focus on the topics you would like to review the most!

Premium Features:

  • 20+ More videos than the Free Course
  • Get your Endorsement to Take the Written (When you complete this course and the Written Prep Bootcamp included with this course)
  • Access to Tech Support and Support from our CFIs
  • Extra TOPICs inside many of the LESSONs
  • When you buy this course or Sign Up for access you’ll get the Written Prep Bootcamp included for FREE!

It is broken up into LESSONS, and each LESSON has several TOPICS.

TO GET STARTED:

  1. Click on TAKE THIS COURSE to sign up for the course
  2. Click on LESSON 1 and watch the corresponding video and read the material
  3. Click on the TOPICS within the lesson to view the videos and read the material
  4. Once you have viewed all the topics complete the QUIZ to move onto the next LESSON

IMPORTANT NOTES:

  • Set realistic goals for yourself.
    • There is A LOT of material here that will prepare you to become a Pilot.  Take your time going through the lessons
    • Realistically expect to complete only one or two lessons in a day.
    • ENSURE YOU MARK YOUR LESSONS and TOPICS COMPLETE using the MARK COMPLETE button in the bottom left of each lesson and topic.  You must spend the minimum time shown on the TIMER in the bottom left of the screen to be able to mark the topic complete.
    • Feel free to work ahead, and even complete the entire course before you ever take your first flight lesson.  You can always go back and review later if needed.
    • If you struggle with a concept, we are the ONLY online ground school that allows you to screenshot a page or question you are struggling with (email it to florida@airacademycenter.com) and receive one on one help from our CFIs here at FAAC.
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What Will You Learn?

  • 1. Aerodynamics: Principles of flight, lift, drag, and airflow dynamics.
  • 2. Aircraft Systems: Components and operations of aircraft systems, including engines.
  • 3. Aviation Regulations: FAA rules, airspace classifications, and pilot licensing requirements.
  • 4. Weather Theory: Meteorological concepts, weather phenomena, and their impact on flight.
  • 5. Navigation: Navigation techniques, using navigation aids, and flight planning.
  • 6. Flight Planning: Route selection, weather analysis, weight and balance calculations.
  • 7. Aircraft Performance: Takeoff, landing, climb, cruise, and performance limitations.
  • 8. Radio Communication: Proper communication procedures with air traffic control and other pilots.
  • 9. Emergency Procedures: Handling in-flight emergencies and problem-solving techniques.
  • 10. Flight Maneuvers: Practicing various flight maneuvers, including takeoffs, landings, and stalls.
  • 11. Human Factors: Understanding human factors affecting pilot performance, such as stress and fatigue.
  • 12. Safety: Aviation safety practices, including pre-flight inspections and adherence to procedures.
  • Overall, the course prepares you with the knowledge and skills required to become a competent and safe private pilot.

Course Content

PRIVATE PILOT LICENSE
Add a summary of short text to prepare students for the activities for the topic. The text is shown on the course page beside the tooltip beside the topic name.

  • Private Pilot Tutorial 1: FAA Regulations
    00:00
  • Introduction to Flying
    00:00
  • Aircraft Structure
    00:00

Principles of Flight
A basic understanding of aerodynamics and airplane stability and controllability is essential for every pilot. When flying, pilots need to understand the four forces acting on an airplane, why a wing stalls, why right rudder is needed in a climb, and how the center of gravity affects controllability and maneuverability. This lesson in basic aerodynamics will introduce pilots to the four forces, airfoils, lift, stalls, left-turning tendencies, load factors, stability and many other important concepts that are fundamental to other aspects of flying.

Aerodynamics of Flight (Part 1 of 3)
The aerodynamics of flight delves into the intricate interplay of forces that enable aircraft to soar through the skies. It explores the principles of lift, drag, thrust, and weight, shaping the very essence of aviation. Understanding aerodynamics is paramount for pilots and engineers alike, as it governs the design, performance, and maneuverability of aircraft. From the graceful sweep of wings to the subtle adjustments of control surfaces, every aspect of flight is intricately tied to the fundamental laws of aerodynamics. In essence, the study of aerodynamics unveils the secrets behind the marvel of flight, unlocking the mysteries of the skies.

Flight Controls
Flight controls are the intricate mechanisms that allow pilots to command aircraft with precision and finesse. From the cockpit, pilots manipulate control surfaces such as ailerons, elevators, and rudders to influence the aircraft's attitude and direction. Ailerons control roll, elevators adjust pitch, and rudders manage yaw. These surfaces work in harmony, responding to pilot inputs to maintain stability, execute maneuvers, and ensure safe flight. Advanced aircraft may also feature fly-by-wire systems, where electronic signals replace traditional mechanical linkages, enhancing control flexibility and efficiency. In essence, flight controls are the vital link between pilot and machine, translating intentions into graceful movements through the skies.

Aircraft Systems (Part 1 of 2)
In the journey towards becoming a proficient pilot, understanding aircraft systems is paramount. Tutorial 6 delves into the intricate web of components that ensure the safety, reliability, and performance of the aircraft. First and foremost, the tutorial elucidates the crucial role of the aircraft's powerplant system. Whether powered by piston engines or turbines, the powerplant serves as the heart of the aircraft, generating the thrust necessary for flight. Students gain insights into engine operation, fuel management, and the intricacies of propulsion systems, laying the groundwork for efficient power management during flight. Next, attention shifts to the electrical system, a vital network that powers avionics, lighting, and essential onboard equipment. Tutorial 6 explores the architecture of electrical circuits, the role of alternators or generators in charging the battery, and the importance of redundancy to ensure electrical reliability in all phases of flight. Furthermore, the tutorial delves into the nuances of the aircraft's fuel system, detailing fuel storage, transfer mechanisms, and fuel quantity indicators. Students learn to calculate fuel requirements, monitor fuel levels, and mitigate risks associated with fuel management, fostering a comprehensive understanding of the critical role fuel plays in flight operations. As Tutorial 6 draws to a close, students emerge equipped with foundational knowledge of aircraft powerplants, electrical systems, and fuel management. Armed with this understanding, they are poised to navigate the complexities of aircraft systems with confidence, laying the groundwork for safe and successful flights ahead.

Flight Instruments (Part 1 – 3)
Flight Instruments (Part 1-3) Flight instruments are the essential tools that provide pilots with critical information about the aircraft's orientation, performance, and navigation. Part 1 of this series delves into the primary flight instruments, starting with the attitude indicator. This instrument, often referred to as the "artificial horizon," displays the aircraft's pitch and roll relative to the earth's horizon, aiding pilots in maintaining stable flight. Additionally, pilots rely on the airspeed indicator to monitor the aircraft's velocity through the air, crucial for determining stall speeds and performance limitations. Mastery of these instruments lays the foundation for safe and precise flight operations.

Flight Manuals and Documents
Flight Manuals and Documents are essential resources for pilots, containing vital information necessary for safe and efficient flight operations. These documents provide comprehensive guidance on aircraft systems, procedures, limitations, and emergency protocols. The Aircraft Flight Manual (AFM) or Pilot's Operating Handbook (POH) serves as the primary reference for specific aircraft models. It contains detailed information on aircraft performance, operating procedures, weight and balance calculations, and emergency procedures. Pilots rely on the AFM/POH to ensure compliance with manufacturer recommendations and regulatory requirements. Additionally, pilots consult documents such as the Minimum Equipment List (MEL) and Configuration Deviation List (CDL) to determine permissible configurations and procedures in the event of equipment discrepancies or malfunctions. Flight planning documents, including navigation charts, weather briefings, and flight logs, are essential for pre-flight planning and in-flight navigation. These documents provide crucial information about airspace restrictions, weather conditions, and navigational aids, enabling pilots to plan and execute flights safely and efficiently. Overall, Flight Manuals and Documents serve as indispensable resources for pilots, providing the knowledge and guidance necessary to navigate the complexities of aviation and ensure the safety of flight operations.

Weight and Balance
Introduction Compliance with the weight and balance limits of any aircraft is critical to flight safety. Operating above the maximum weight limitation compromises the structural integrity of an aircraft and adversely affects its performance. Operation with the center of gravity (CG) outside the approved limits results in control difficulty.

Aircraft Performance
Introduction This chapter discusses the factors that affect aircraft performance, which include the aircraft weight, atmospheric conditions, runway environment, and the fundamental physical laws governing the forces acting on an aircraft. Importance of Performance Data The performance or operational information section of the Aircraft Flight Manual/Pilot’s Operating Handbook (AFM/ POH) contains the operating data for the aircraft; that is, the data pertaining to takeoff, climb, range, endurance, descent, and landing. The use of this data in flying operations is mandatory for safe and efficient operation. Considerable knowledge and familiarity of the aircraft can be gained by studying this material.

Weather Theory (Part 1 – 3)
Weather plays a pivotal role in aviation, influencing flight planning, safety, and operational decisions. Part 1 of this series explores the fundamental principles of weather phenomena and their impact on aviation operations. 1. Understanding Atmospheric Dynamics: Weather in aviation theory begins with an exploration of atmospheric dynamics, encompassing the processes that govern the behavior of the Earth's atmosphere. Concepts such as temperature, pressure, humidity, and wind patterns are fundamental to comprehending weather phenomena. Pilots learn about atmospheric layers, including the troposphere and stratosphere, and how variations in these layers affect weather conditions experienced during flight. 2. Factors Influencing Weather: Part 1 also examines the myriad factors that influence weather patterns, ranging from solar radiation and the Earth's rotation to geographic features and air masses. Pilots gain insight into the formation of weather systems such as high and low-pressure areas, fronts, and atmospheric disturbances. Understanding these factors is essential for predicting weather trends and making informed decisions regarding flight routes and timing. 3. Weather Hazards in Aviation: Lastly, Part 1 addresses the various weather hazards encountered in aviation, including turbulence, icing, thunderstorms, and low visibility conditions. Pilots learn to identify and mitigate these hazards through proper pre-flight planning, onboard weather monitoring, and adherence to regulatory guidelines. Mastery of weather theory enables pilots to anticipate and respond effectively to adverse weather conditions, ensuring the safety of flight operations. In summary, Part 1 of the Weather in Aviation Theory series lays the groundwork for understanding the dynamic interplay between atmospheric dynamics, influencing factors, and weather hazards in aviation. Armed with this knowledge, pilots are better equipped to navigate the complexities of weather and make sound decisions to enhance flight safety.

Aviation Weather Services (Part 1-3 )
Introduction In aviation, weather service is a combined effort of the National Weather Service (NWS), Federal Aviation Administration (FAA), Department of Defense (DOD), other aviation groups, and individuals. Because of the increasing need for worldwide weather services, foreign weather organizations also provide vital input. While weather forecasts are not 100 percent accurate, meteorologists, through careful scientific study and computer modeling, have the ability to predict weather patterns, trends, and characteristics with increasing accuracy. Through a complex system of weather services, government agencies, and independent weather observers, pilots and other aviation professionals receive the benefit of this vast knowledge base in the form of up-to-date weather reports and forecasts. These reports and forecasts enable pilots to make informed decisions regarding weather and flight safety before and during a flight

Airport Operations (Part 1 – 3)
Airport operations encompass a diverse range of activities vital for the safe and efficient functioning of airports. From ground handling and air traffic control to passenger services and aircraft maintenance, every aspect of airport operations contributes to the seamless operation of air transportation. Ground handling operations involve tasks such as aircraft marshalling, baggage handling, refueling, and aircraft servicing. These activities ensure the timely turnaround of flights and the smooth flow of passengers and cargo. Air traffic control (ATC) plays a crucial role in managing the movement of aircraft within and around the airport airspace. ATC controllers provide instructions to pilots to maintain safe separation and efficient flow of air traffic, coordinating arrivals, departures, and ground movements. Passenger services encompass check-in, security screening, boarding, and baggage claim, aiming to provide passengers with a hassle-free travel experience. Additionally, airport retail and dining facilities cater to the needs of travelers during their time at the airport. Aircraft maintenance operations are essential for keeping aircraft in airworthy condition. Maintenance technicians perform routine inspections, repairs, and servicing to ensure the safety and reliability of aircraft operations. Overall, effective airport operations require coordination among various stakeholders, including airlines, ground handling agencies, ATC providers, and airport management. By working together seamlessly, these entities enable airports to fulfill their role as critical hubs of transportation, connecting people and goods around the world.

Airspace
The two categories of airspace are: regulatory and nonregulatory. Within these two categories, there are four types: controlled, uncontrolled, special use, and other airspace. The categories and types of airspace are dictated by the complexity or density of aircraft movements, nature of the operations conducted within the airspace, the level of safety required, and national and public interest. Figure 15-1 presents a profile view of the dimensions of various classes of airspace. Also, there are excerpts from sectional charts that are discussed in Chapter 16, Navigation, that are used to illustrate how airspace is depicted.

Navigation (Part 1 – 4)
Navigation in aviation is the process of determining and maintaining the aircraft's position, direction, and route during flight. It encompasses a variety of methods and technologies used by pilots to safely and efficiently navigate through the airspace. Traditional navigation techniques include dead reckoning, which involves estimating the aircraft's position based on known starting point, heading, airspeed, and time flown. Pilots also use pilotage, visually identifying landmarks on the ground to navigate. Modern aviation relies heavily on electronic navigation systems, such as GPS (Global Positioning System), which provides accurate positioning information using satellites. GPS has largely replaced traditional navigation methods due to its precision and reliability. Additionally, aircraft are equipped with navigation instruments such as VOR (VHF Omnidirectional Range) and NDB (Non-Directional Beacon), which provide directional guidance to pilots based on ground-based radio signals. Flight planning is a critical aspect of navigation, involving the selection of routes, waypoints, and alternate airports. Pilots use navigation charts, including sectional charts and en-route charts, to plan and execute flights safely. In commercial aviation, flight management systems (FMS) automate much of the navigation process, allowing pilots to input flight plans and waypoints, and the system calculates the most efficient route. Overall, navigation in aviation is a multifaceted process that combines traditional and modern techniques, ensuring aircraft safely reach their destinations while adhering to established routes and airspace regulations.

Aeromedical Factors (Part 1-2)
Introduction It is important for a pilot to be aware of the mental and physical standards required for the type of flying performed. This chapter provides information on medical certification and on a variety of aeromedical factors related to flight activities.

Aeronautical Decision Making (Part 1-4)
Introduction Aeronautical decision-making (ADM) is decision-making in a unique environment—aviation. It is a systematic approach to the mental process used by pilots to consistently determine the best course of action in response to a given set of circumstances. It is what a pilot intends to do based on the latest information he or she has

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