.
1; 2; 3 and 4 Incorrect
No statements are correct Incorrect
1; 3 and 4 Incorrect
2 only Correct
3 and 4 Correct
1; 2 and 3 Incorrect
2 and 4 Incorrect
1 and 4 Incorrect
Because air is very viscous
Because air is compressible
Because of greater levels of humidity at low altitude
Because air has very little mass
Dynamic pressure
Static Pressure
Static pressure and dynamic pressure
Dynamic pressure minus static pressure
Mass per unit volume
Proportional to temperature and inversely proportional to pressure
Independent of both temperature and pressure
Dependent only on decreasing pressure with increasing altitude
1 only
2 and 3
3 and 4
1 and 4
The total pressure at a point where a moving airflow is brought completely to rest
The amount by which the pressure rises at a point where moving airflow is brought completely to rest
The pressure due to the mass of air pressing down on the air beneath
The pressure change caused by heating when a moving airflow is brought completely to rest
Static pressure
Dynamic pressure
Static pressure plus dynamic pressure
The difference between total pressure and static pressure
1; 2; 3; and 5
2; 3 and 4
1 and 4
1; 3 and 5
4 only
4 and 5
5 only
2; 3 and 5
Dynamic pressure
Static pressure
The difference between static and dynamic pressure
Static pressure plus dynamic pressure
Density times squared
Half the density the indicated airspeed squared
Half the true airspeed times the density squared
Half the density times the true airspeed squared
The dynamic pressure will decrease and the static pressure will increase
The static pressure will remain constant and the kinetic energy will increase
The kinetic energy will increase; the dynamic pressure will increase and the static pressure will decrease
The mass flow will stay constant; the dynamic pressure will decrease and the static pressure will increase
The velocity of the airflow remains constant and the kinetic energy increases
The velocity of the airflow remains constant and the mass flow increases
The mass flow remains constant and the static pressure increases
The mass flow remains constant and the velocity of the airflow increases
Bernoulli's theorem
The Principle of continuity
Newton's second law of motion
The Magnus effect
1 only
1 and 3
2; 3 and 4
1; 2 and 4
1; 2; 3 and 4
3 only
1; 2 and 4
3 and 4
1; 2; 3 and 4
1 and 4
3 and 4
1; 3 and 4
2 and 4
1; 3 and 4
2; 3 and 4
1; 2; 3 and 4
A force per unit area will exist; acting in the direction of the lower pressure
No force will be generated; other than drag
A force will be generated; acting in the direction of the higher pressure
The pressure will leak around the sides of the surface; cancelling-out any pressure differential
Wake turbulence behind a propeller-driven aircraft is negligible because jet engine thrust is a necessary factor in the formation of vortices
Vortices can be avoided by flying 300 feet below and behind the flight path of the generating aircraft
The vortex characteristics of any given aircraft may be altered by extending the flaps or changing the speed
Vortices can be avoided by flying downwind of; and below the flight path of the generating aircraft
Crease the angle of attack
Nothing; the angle of attack for CL MAX is constant
It is impossible to fly at the angle of attack that corresponds to CL MAX
Increase the Indicated Air Speed [IAS]
Will be unchanged; but ground speed will be faster
Will be higher; but ground speed will be unchanged
Should be increased to compensate for the thinner air
Should be higher to obtain a higher landing speed
A higher true airspeed for any given angle of attack
The same true airspeed and angle of attack
A lower true airspeed and higher angle of attack
A constant angle of attack and true air speed
The downwind vortex will tend to remain on the runway longer than the upwind vortex
A crosswind will rapidly dissipate the strength of both vortices
A crosswind will move both vortices clear of the runway
The upwind vortex will tend to remain on the runway longer than the downwind vortex
1; 2 and 4
4 only
2; 3 and 4
1; 2; 3 and 4
Inward; upward; and around the wingtip
Counter clockwise
Outward; upward; and around the wingtip
Outward; downward and around the wingtip
A decrease in parasite drag permitting a lower angle of attack
An increase in induced drag and a requirement for a higher angle of attack
An increase in dynamic stability
A decrease in induced drag requiring a smaller angle of attack
Prior to the point where the jet touched down
At the point where the jet touched down and on the upwind edge of the runway
Before the point where the jet touched down and on the downwind edge of the runway
Beyond the point where the jet touched down
Angle of incidence of the wing
Distribution of pressure acting on the wing
Amount of airflow above the wing
Dynamic pressure acting in the airflow
A decrease in angle of attack will increase pressure below the wing; and decrease drag
An increase in angle of attack will decrease pressure below the wing; and increase drag
An increase in angle of attack will increase drag
An increase in angle of attack will decrease the lift coefficient
Increase the angle of attack to compensate for the decreasing dynamic pressure
Maintain a constant angle of attack until the desired airspeed is reached; then increase the angle of attack
Increase angle of attack to produce more lift than weight
Decrease the angle of attack to compensate for the decrease in drag
Lift will increase but drag will decrease
Lift and drag will increase
Lift and drag will decrease
Lift and drag will remain the same
Increase; and induced drag will increase
Increase; and induced drag will decrease
Decrease; and induced drag will increase
Decrease and induced drag will decrease
Two times greater
Four times greater
The same
One quarter
Heavy; slow; gear and flaps up
Heavy; fast; gear and flaps down
Heavy; slow; gear and flaps down
Weight; gear and flaps make no difference
Remain below the flight path of the jet aeroplane
Climb above and stay upwind of the jet aeroplane's flight path
Lift off at a point well past the jet aeroplane's flight path
Remain below the downwind of the jet aeroplane's flight path
Increased thrust
A decreased stall speed
An increased stall speed
An aircraft will always stall at the same indicated airspeed
Wingspan to the wing root
Square of the chord to the wingspan
Wingspan to the average chord
Square of the wing area to the span
Decrease angle of attack to reduce the drag
Increase angle of attack to maintain the correct lift force
Deploy the speed brakes to increase drag
Reduce thrust
Using high power settings
Operating at high airspeeds
Developing lift
Operating at high altitude
Camber line
Longitudinal axis
Chord line
Flight-path
Differential pressure acting perpendicular to the chord of the wing
Force acting perpendicular to the relative wind
Reduced pressure resulting from a laminar flow over the upper camber of an aerofoil; which acts perpendicular to the mean camber
Force acting parallel with the relative wind and in the opposite direction
Light quartering headwind
Light quartering tailwind
Direct tailwind
Strong; direct crosswind
A lower angle of attack
A higher angle of attack
The same angle of attack
The same angle of attack; but a lower IAS
Experience a reduction in ground friction and require a slight power reduction
Require a lower angle of attack to maintain the same lift coefficient
Experience a reduction in induced drag and require a smaller angle of attack
Experience an increase in induced drag and require more thrust
Negative air pressure below and a vacuum above the wing's surface
Vacuum below the wing's surface and greater air pressure above the wing's surface
Higher air pressure below the wing's surface and lower air pressure above the wing's surface
Higher pressure at the leading edge than at the trailing edge
Rise from the surface to traffic pattern altitude
Sink below the aircraft generating the turbulence
Accumulate and remain for a period of time at the point where the takeoff roll began
Dissipate very slowly when the surface wind is strong
Higher than at low altitude
The same as at low altitude
Lower than at low altitude
Dynamic pressure will be the same at any altitude
Lift and airspeed; but not drag
Lift; gross weight; and drag
Lift; airspeed; and drag
Lift and drag; but not airspeed
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