There are many different types of clearing procedures. Most
are centered around the use of clearing turns. Some pilot
training programs have hard-and-fast rules, such as requiring
two 90° turns in opposite directions before executing any
training maneuver. Other types of clearing procedures may
be developed by individual fl ight instructors. Whatever
the preferred method, the fl ight instructor should teach the
beginning student an effective clearing procedure and require
its use. The student pilot should execute the appropriate
clearing procedure before all turns and before executing any
training maneuver. Proper clearing procedures, combined
with proper visual scanning techniques, are the most effective
strategy for collision avoidance.
Runway Incursion Avoidance
A runway incursion is any occurrence at an airport involving
an aircraft, vehicle, person, or object on the ground that
creates a collision hazard or results in a loss of separation
with an aircraft taking off, landing, or intending to land. The
three major areas contributing to runway incursions are:
• Communications,
• Airport knowledge, and
• Flight deck procedures for maintaining orientation.
Taxi operations require constant vigilance by the pilot and can
be assisted by the passenger. This is especially true during
fl ight training operations. Both the student pilot and the fl ight
instructor need to be continually aware of the movement and
location of other aircraft and ground vehicles on the airport
movement area. Many fl ight training activities are conducted
at nontowered airports. The absence of an operating airport
control tower creates a need for increased vigilance on the
part of pilots operating at those airports.
Planning, clear communications, and enhanced situational
awareness during airport surface operations will reduce the
potential for surface incidents. Safe aircraft operations can be
accomplished and incidents eliminated if the pilot is properly
trained from the outset and, throughout his or her fl ying
career, accomplishes standard taxi operating procedures and
practices. This requires the development of the formalized
teaching of safe operating practices during taxi operations.
Positive Transfer of Controls
During flight training, there must always be a clear
understanding between the student and fl ight instructor of
who has control of the aircraft. Prior to any dual training
fl ight, the instructor should conduct a briefi ng that includes
the procedure for the exchange of flight controls. The
following three-step process for the exchange of flight
controls is highly recommended.
When a fl ight instructor wishes the student to take control
of the aircraft, he or she should say to the student, “You
have the fl ight controls.” The student should acknowledge
immediately by saying, “I have the fl ight controls.” The fl ight
instructor confi rms by again saying, “You have the fl ight
controls.” Part of the procedure should be a visual check to
ensure that the other person actually has the fl ight controls.
When returning the controls to the fl ight instructor, the student
should follow the same procedure the instructor used when
giving control to the student. The student should stay on the
controls until the instructor says: “I have the fl ight controls.”
There should never be any doubt regarding who is fl ying the
WSC aircraft. Numerous accidents have occurred due to a
lack of communication or misunderstanding regarding who
actually had control of the aircraft, particularly between
student and fl ight instructor. Establishing the positive transfer
of controls procedure during initial training will ensure the
formation of a very benefi cial habit pattern.
Aeronautical Decision-Making (ADM)
A PIC’s attitude or mindset must always be alert in order to
maintain the safety of the aircraft, passengers, and the general
public on the ground. To accomplish sound aeronautical
decision-making (ADM), a pilot must be aware of his or
her limitations and well-being (physical and psychological
health), even before beginning the fi rst prefl ight routine.
While technology is constantly improving equipment and
strengthening materials, safe flight comes down to the
decisions made by the human pilot prior to and during
fl ight.
The well-being of the pilot is the starting point for the
decision-making process that occurs while in control of the
aircraft. Just as physical fatigue and illness directly affects
a pilot’s judgment, so too will attitude management, stress
management, risk management, personality tendencies, and
situational awareness. Hence, it is the awareness of human
factors and the knowledge of the related corrective action that
not only improves the safety of operating a WSC aircraft, but
also enhances the joy of fl ying. [Figure 1-18]
A good starting point is the Pilot’s Handbook of Aeronautical
Knowledge (FAA-H-8083-25), which explains the decision-
making process, resource management, situational awareness,
pilot error, stress management, risk management techniques,
and hazardous attitude antidotes. After reading and
understanding those subjects, it should be understood that
the scenarios presented are generally for more complex
airplanes, but the thought process and results are the same
for all aircraft. The information is not duplicated but the
Hearing
Visual
Experience by Touch, Smell
Pilot analysis of
weather indicates it
might be turbulent.
High
Low
Reinforcement
Pilot is warned of turbulence and sees
other aircraft with problems, but loses
control of his own trike and almost crashes.
.
Figure 1-18. Awareness of human factors and how it affects the decision-making process.
differences and additional information specifi c to WSC is
provided in subsequent sections.
The differences in the more complex airplane requirement
scenarios presented in the Pilot’s Handbook of Aeronautical
Knowledge versus WSC aircraft characteristics can easily
be compared. Overall, the advantage of an LSA is the
simpler design requiring less pilot attention than the complex
requirements of more complicated designs that add to the
pilot’s workload, such as:
• Constant speed propellers
• Multiple engines
• Retractable landing gears
• Faster airspeeds
The unique characteristics on the WSC aircraft that increase
ADM tasks are:
• Open fl ight deck where maps or other materials cannot
be opened, shown, and discussed with passenger.
• Pusher propeller in the back, through which any
loose item on the fl ight deck can be pulled, possibly
producing severe damage, depending on the size of
the object.
• More physical strength and endurance required to fl y
in turbulent conditions, which adds an additional risk
element.
Avoiding Pilot Errors
Overall, WSC aircraft are flown for fun and not for
transportation. Generally, it is determined that the pilot
will not fl y in instrument meteorological conditions (IMC)
without the assistance and training of the attitude indicator.
Pilots must make the decision to stay out of IMC conditions
and turn back immediately if the situation occurs. This is
what most pilots should do, but the information provided
by the attitude indicator allows pilots to start the “error
chain” that can lead to catastrophic consequences. The best
immediate decision is always to turn back and not go into
IMC conditions in a WSC aircraft.
With an open fl ight deck, the problem of items getting loose
and hitting the propeller requires extra caution. Being in a
hurry, not making sure everything is secured, and forgetting
to brief the passenger can trigger one event that leads to
another. Exercising caution in the open fl ight deck is an
important step for WSC pilots.
If fl ying a WSC aircraft in turbulence, the pilot must have
both hands on the bar to maintain control of the aircraft.
Therefore, changing radio frequencies, measuring courses
on the map, or operating any of the fl ight deck controls
becomes diffi cult and secondary to maintaining control
of the aircraft. This is different from fl ying an airplane or
a powered parachute, which requires less physical effort
to maintain control of the aircraft and at least one hand is
available to tend to fl ight deck duties. It must be noted that the
Figure 1-19. Kneeboards help secure items in the flight deck.
Figure 1-20. Example of a checklist.
fi rst priority always is maintaining control of the aircraft, and
all other duties are secondary. Generally, prefl ight planning
and good pilot judgment would prevent a situation of fl ying
in moderate to extreme turbulence. However, when you do
fi nd yourself fl ying in this situation, fl y the aircraft fi rst, and
attend to fl ight deck duties second.
Scenario-Based Training
A good instructor immediately begins teaching ADM
when the student has the ability to control the WSC aircraft
confi dently during the most basic maneuvers. The instructor
incorporates “scenario-based training” in which the instructor
provides pilot, aircraft, environment, and operational risk
elements to train the student to utilize ADM in making
the best decision for a given set of circumstances. During
a profi ciency or practical test, the instructor or examiner
evaluates the applicant’s ability to use satisfactory ADM
practices as the pilot determines risks and coordinates safe
procedures.
Resource Management
Resource management is similar to that described in the
Pilot’s Handbook of Aeronautical Knowledge (FAA-H-8083-
25) except the passenger cannot help in the same ways as in
an airplane. The passenger cannot hold or help read the map
unless the pilot has provided a knee board or other means
for the passenger to assist. [Figure 1-19]
In addition to having the passenger scan the skies for other
aircraft, the passenger can maintain control of the aircraft for
short periods as the WSC is relatively easy to fl y straight.
This permits the pilot to perform unanticipated flight
deck functions during fl ight. Overall, prefl ight planning
and passenger briefi ngs are additional tasks of resource
management for the WSC aircraft.
Use of Checklists
Checklists have been the foundation of pilot standardization
and fl ight deck safety for many years and the fi rst defense
against the error chain that leads to accidents. [Figure 1-20] The
checklist is an aid to the fallible human memory and helps
to ensure that critical safety items are not overlooked or
forgotten. However, checklists are of no value if the pilot is not
committed to their use. Without discipline and dedication in
using a checklist, the odds favor the possibility of an error.
The importance of consistent use of checklists cannot be
overstated in pilot training. A major objective in primary fl ight
training is to establish habitual patterns that will serve pilots
well throughout their fl ying careers. The fl ight instructor must
promote a positive attitude toward the use of checklists, and
the student pilot must recognize their importance.
Because of the evolution of WSC aircraft and their simplicity,
it could be thought that written checklists are not required.
Nothing is further from the truth. Following good written
checklists provides signifi cant safety for human factors,
which is the greatest cause of accidents in aviation.
Five important written checklists must be used before fl ight.
These specifi c checklists are emphasized because of their
importance in avoiding pilot errors that can occur before or
during fl ight:
1. Prefl ight preparation
2. Routine prefl ight inspection
3. Passenger prefl ight brief
4. Engine start/taxi
5. Prefl ight check
Wire running to WSC
12-volt electrical system
Electric gloves
Figure 1-21. Motorcycle gloves and socks hooked to the 12-volt WSC electrical system keep the pilot and
passenger warm.
Because checklists may not be practical in the open fl ight
deck during fl ight, and depending on the manufacturer and
make/model of the WSC aircraft, checklists used for climb,
en route, and landing may be placards in the fl ight deck that
can be read by the pilot in fl ight or used on kneeboards as
appropriate. Checklists must be secured to prevent their fl ying
through the propeller during taxi or fl ight.
An additional written checklist that can be used on the ground
after landing is taxi, engine shutdown, postfl ight inspection,
and securing aircraft.
Medical Factors
A number of physiological effects can be linked to fl ying.
Some are minor, while others are important enough to
require special attention to ensure safety of fl ight. In some
cases, physiological factors can lead to infl ight emergencies.
Some important medical factors that a WSC pilot should
be aware of include hypoxia, hyperventilation, middle ear
and sinus problems, spatial disorientation, motion sickness,
carbon monoxide poisoning, stress and fatigue, dehydration,
heatstroke, and hypothermia. Other factors include the effects
of alcohol and drugs, and excess nitrogen in the blood after
scuba diving.
A prerequisite to this chapter is the aeromedical factors
portion of the Pilot’s Handbook of Aeronautical Knowledge
(FAA-H-8083-25)
which provides detailed
information a pilot must
consider in all flight
operations. All of the
aeromedical factors
described in that book
are applicable to WSC.
However, the following
are additional topics
applicable to WSC not
specifi cally covered.
Fatigue
Because the WSC
aircraft moves weight
through pilot input, there
is significant arm and
upper body strength
required to fl y a WSC
aircraft, especially in
turbulence. If flying
a cross-country flight
midday in moderate
turbulence for more than
an hour, a pilot would
require signifi cant strength and endurance. This signifi cantly
adds to fatigue, as discussed in the Pilot’s Handbook of
Aeronautical Knowledge. This is accomplished all the time by
experienced pilots, but it is a workout. If this type of workout
is combined with dehydration in a desert environment, a
greater than anticipated headwind, or fl ying an unfamiliar
cross-country route, the added aeromedical risk factors could
lead to a fatal error chain.
Hypothermia
Hypothermia is an important factor and knowledge
requirement in the WSC Practical Test Standards. Cold
temperatures for long periods reduce the inner body core
temperature when the heat produced by the body is less than
the amount of heat being lost to the body’s surroundings.
This loss of heat is highly accelerated in WSC open fl ight
decks with wind chill. The fi rst symptom of fl ying a WSC
aircraft is cold hands because of exposure to wind chill.
Symptoms continue with other parts of the body becoming
cold until the entire body feels cold. Hypothermia results in
weakness, shivering, lack of physical control, and slurred
speech followed by unconsciousness and death. Dressing
warm and/or aircraft heating systems to help the pilot remain
warm during flight prevents hypothermia. Motorcycle
gloves and socks that run off the aircraft electric system
are commonly used and can keep a pilot from getting cold.
[Figure 1-21] Also, carrying an appropriate survival kit
Flight Fitness | The “I’m Safe” Checklist
Illness Do I have an illness or any symptoms of
an illness?
Medication Have I been taking prescription or
over-the-counter drugs?
Stress Am I under psychological pressure from my
job? Worried about financial matters, health
problems, or family discord?
Alcohol Have I been drinking within eight hours?
Within 24 hours?
Fatigue Am I tired and not adequately rested?
Eating Am I adequately nourished?
Figure 1-22. Prior to flight, a pilot should assess overall fitness.
prepares a pilot against hypothermia if forced down in cold
temperatures.
Medical Summary
Before approaching the WSC aircraft, a pilot must take
a moment to refl ect upon current medical, physical, and
psychological conditions. During this time, a pilot should
evaluate his or her ability to conduct the fl ight considering
self, passenger, and people and property on the ground.
Using the “I’M SAFE” checklist is a smart way to start a
prefl ight before getting to the WSC aircraft. Prior to fl ight,
assess overall fi tness as well as the aircraft’s airworthiness.
[Figure 1-22]
Chapter Summary
This chapter provides basic knowledge that is essential for
WSC pilots and should serve as a starting point for them.
However, there are many other handbooks, advisories, and
regulations with which all WSC pilots should become familiar
as their maturity within the aeronautical realm increases
and/or the need for greater depth of understanding becomes
necessary due to location, temperature, altitude, etc.
