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This section includes 10 Mcqs, each offering curated multiple-choice questions to sharpen your Aircraft Performance knowledge and support exam preparation. Choose a topic below to get started.
1. |
In Cruise method 3 endurance is more concentrated than distance travelled. |
A. | True |
B. | False |
Answer» C. | |
2. |
In which of the following cases cruise method 3 is used? |
A. | Commercial aircraft |
B. | Fighter aircraft |
C. | Military |
D. | Patrol and surveillance |
Answer» E. | |
3. |
Which of the following is a reason of disadvantage of cruise method 3? |
A. | Increased mach number |
B. | Fuel saving |
C. | Increased time of flight |
D. | Increased weight of aircraft |
Answer» D. Increased weight of aircraft | |
4. |
The endurance of cruise method 3 is identical to that of cruise method 1. |
A. | True |
B. | False |
Answer» C. | |
5. |
The range factor of cruise method 3 is identical to that of cruise method 1. |
A. | True |
B. | False |
Answer» B. False | |
6. |
Which factor is not a constant factor in cruise method 3? |
A. | Mach number |
B. | Angle of attack |
C. | Altitude |
D. | Relative air speed |
Answer» E. | |
7. |
Cruise method 3 is also known as ____________ |
A. | constant angle of attack and variable mach number |
B. | constant angle of attack and constant mach number |
C. | constant angle of attack and constant altitude number |
D. | constant mach number and constant altitude number |
Answer» E. | |
8. |
Which of the following is the correct integrated range equation of cruise method 3? |
A. | R=\(\frac{1}{C}\Big(\frac{2W_i}{S\rho}\Big)^{\frac{1}{2}}\frac{C_L}{C_D}2\Big(1-\omega^{\frac{-1}{2}}\Big)\) |
B. | R=\(\frac{V}{C}\int_{W_i}^{W_f}\frac{dW}{D}\) |
C. | R=\(\Big[\frac{V_{mdi}}{C}E_{max}\Big]2u_i\Big\{tan^{-1}\Big[\frac{1}{u_{i}^2}\Big]-tan^{-1}\Big[\frac{1}{\omega u_{i}^2}\Big]\Big\}\) |
D. | R=\(\frac{1}{C}\Big(\frac{2W_i}{S\rho}\Big)^{\frac{1}{2}}\frac{C_{L}^{0.5}}{C_D}2\Big(1-\omega^{\frac{-1}{2}}\Big)\) |
Answer» D. R=\(\frac{1}{C}\Big(\frac{2W_i}{S\rho}\Big)^{\frac{1}{2}}\frac{C_{L}^{0.5}}{C_D}2\Big(1-\omega^{\frac{-1}{2}}\Big)\) | |
9. |
Which of the following indicates the range formula in cruise method 3? |
A. | R=\(\frac{1}{C}\Big(\frac{2}{\rho SC_L}\Big)^{\frac{1}{2}}\int_{W_i}^{W_f}\frac{dW}{W^{\frac{1}{2}}}\) |
B. | R=\(\Big(\frac{2}{\rho SC_L}\Big)^{\frac{1}{2}}\frac{L}{D}\int_{W_i}^{W_f}\frac{dW}{W^{\frac{1}{2}}}\) |
C. | R=\(\Big[\frac{V_{mdi}}{C}E_{max}\Big]2u_i\Big\{tan^{-1}\Big[\frac{1}{u_{i}^2}\Big]+tan^{-1}\Big[\frac{1}{\omega u_{i}^2}\Big]\Big\}\) |
D. | R=\(\Big[\frac{V_{mdi}}{C}E_{max}\Big]2u_i\Big\{tan^{-1}\Big[\frac{1}{u_{i}^2}\Big]-tan^{-1}\Big[\frac{1}{\omega u_{i}^2}\Big]\Big\}\) |
Answer» E. | |
10. |
Which factor must be reduced in cruise method 3? |
A. | Mach number |
B. | Angle of attack |
C. | Altitude |
D. | Temperature |
Answer» C. Altitude | |