For a pressure differential ∆? = p(Stagnation)-p(static)=32lb/ft^2 determine
b) the indicated airspeed, in knots (KIAS).
(c) the true airspeed, in knots (KTAS), if the aircraft is cruising at an altitude of 7,500 ft above sea level.
For a pressure differential ∆? = p(Stagnation)-p(static)=32lb/ft^2 determine b) the indicated airspeed, in knots (KIAS). (c)...
An altimeter on a low-speed general aviation aircraft reads 1500 m. The outside air temperature (OAT) is observed to be 7.4°C. The aircraft’s pitot tube measures the pressure of 87050N/m 1. Assuming no calibration is required, at sea-level and under ISA conditions, equivalent airspeed (EAS) and indicated airspeed (IAS) are the same. At any other altitude, equivalent airspeed will be less than indicated airspeed. However, below speeds of approximately 200 knots IAS and at altitudes below 10,000', the difference between...
Determine the static pressure and stagnation pressure ratio associated with the following motion in standard air (a) a runner moving at the rate of 16 km/hr (b) a cyclist moving at the rate of 64 km/hr (c) a car moving at the rate of 104 km/hr
Problem (20 pts) The cross section through the fuselage of an aircraft is shown. The interior of the aircraft is pressurized at 2000 lb/ft (air pressure at sea level), and the outside of the aircraft is at a pressure of 600 lb/ft (air pressure at 30,000 ft altitude). Assume the air pressure outside the aircraft is uniform over the surface of the fuselage. The door ABC has quarter-circular shape with 10 ft depth (into the plane of the figure): it...
The total wing area of a Boeing B-29 is 1736 ft. The fully loaded take-off mass of a B-29 is 6.25 x 104 kg. The cruising speed of the B-29 is 275 mi/h. At cruising altitude, the air temperature is 251 K and the air pressure is 6.16 x 10Pa. a. Use the density form of the ideal gas law (assuming the average molar mass of the air is 0.0288 kg moll) to compute the air density at cruising altitude...
Problem (20 pts) The cross section through the fuselage of an aircraft is shown. The interior of the aircraft is pressurized at 2000 lb/ft2 (air pressure at sea level), and the outside of the aircraft is at a pressure of 600 lb/ft2 (air pressure at 30,000 ft altitude). Assume the air pressure outside the aircraft is uniform over the surface of the fuselage. The door ABC has quarter-circular shape with 10 ft depth (into the plane of the figure); it...
2. An aircraft with Coo -0.020, k0.12 is in steady, level flight at he -30,000 ft and Mo- me AR 08. The aircraft has a wing area of 375 ft, and it weighs 25,000 lb. Its CLmax İsl 8 a. b. c. d. e. Calculate the drag coefficient when Calculate the thrust the engine is producing. Calculate the horsepower the engine is producing Calculate the stall speed at that altitude Now the velocity is to be changed. Calculate the minimum...
1. At the bottom of a water reservoir the absolute pressure is 180 ft. The reservoir is located at sea level where the atmospheric pressure is 33.9 ft. A water intake line is located half way down the reservoir. At what depth in the reservoir is the intake line? 2. It has been shown by experiment that the resistance to flow in a pipe is: (circle all correct answers to receive any credit) A. Dependent on the pressure under which...
The pressure P and volume V of a gas are related by the equation p^5v^7=c where c is a constant. At a certain instant of time, the pressure is 100 lb/ft^2, the volume is 4ft^3 and the pressure is decelerating at a rate of 5 lb/ft^2/sec. Find the rate of change at which the volume is changing.
14 48 of an outer tube with a number of 48 A pitot tube (Fig. 14-41) is used to determine speed of an airplane. It consists of an outer tube with a numo small holes B (four are shown that allow air into the tube, tube is connected to one arm of a U-tube. The other arm of the U- tube is connected to hole A at the front end of the device, which points in the direction the plane...
80 m 845 m2 7.53 Wing Span Wing Planform Area Wing Aspect Ratio Sweep angle at quarter chord (0.25c) Taper ratio 33.5 0.3 A380 1500 m² Component Wetted Area Fuselage Wing 1700 m Horizontal tail Vertical tail Engines (4) 290 m² (each) 400 m² 280 m² Cruise Mach Number 0.85 Cruising Altitude 12.5 km Wing Loading 16500 N/m2) Temperature Geo potential Altitude above Sea Level -- (m) Acceleration of Gravity (m/s) Absolute Pressure -p- (104 N/m2) Density .p. (101 kg/m3)...