who build the Concorde
F. G. Irving has written: 'An introduction to the longitudinal static stability of low-speed aircraft' -- subject(s): Longitudinal Stability of airplanes, Stability of airplanes, Longitudinal
The Coanda effect influences aircraft design and performance by allowing for better control and stability. This effect occurs when air flow sticks to a curved surface, which can be used to improve lift and maneuverability in aircraft. By utilizing the Coanda effect, engineers can design wings and other aerodynamic surfaces that enhance the overall performance of the aircraft.
Paul William Cooper has written: 'Evaluation of the longitudinal static stability of the US-2A aircraft' -- subject(s): Aeronautics
Vortex Generators are fitted on both sides of the base of the Fin, on Tornado Aircraft, to generate a turbulence, so that the Rudder has an effect at altitude, otherwise the Rudder is flying in a vacuum, and has no effect on the stability of the aircraft, causing judder, with possible buckling of the spine to occur.
This is to disperse static electricity ween the aircraft lands. Many aircraft also have 'static wicks' which are bits of wire fitted to the trailing edge of wings.
On most (all) modern aircraft there is more than 1 static port. In case the static ports are blocked, most pitot probes also have a static pressure sensor that will sense the pressure. (Tiny hole on the top or bottom of the probe) Static ports are one of the most important parts on an aircraft which is why you will always find an auxillary port for both pilots.
Total pressure of an aircraft is the pressure being meausred at the pitot tube opening. And the static ports are normally located alongside the body of the aircraft to measure the dynamic pressure. Type "static ports 777" in google images and you will know where they are!
To provide stability of the aircraft during flight!
In free fall parachuting, the jumper exits the aircraft on their own and experiences a period of free fall before deploying the parachute. In static line parachuting, the parachute is deployed automatically upon exiting the aircraft due to a cord (static line) connected to the aircraft.
Inherent stability is the quality of an aircraft that relates to its tendencies when the pilot releases the controls. Most aircraft are designed such that, if you release the controls the aircraft will naturally tend to level out and fly straight and level. These aircraft are said to be "inherently stable." High-performance aircraft such as fighter planes and aerobatic aircraft often have little or no inherent stability and when the pilot releases the controls the aircraft may bank or pitch in one direction or another. These aircraft take much more skill and concentration to fly safely, so most civilian aircraft are designed to provide a high amount of inherent stability.
Stability implies an equilibrium which we can both observe and measure. Static stability and dynamic stability centers around no movement vs movement. A simple example of static stability will be a cone or cylindrical object lying on a flat surface. Unless disturbed it stays in the equilibrium state. When disturbed the object tries to come back to its static equilibrium position. An example of dynamic stability will be a chemical equilibrium between two substances A and B in a chemical reaction.The relative rates of the conversion of A to B and B to A establishes an observable overall equilibrium constant for these two chemical species under the specified experimental conditions such as temperature, pressure, etc. Another example would be the revolution of the earth and planets around the sun. Avinash Parnandi
On such a system, you get to have 2 sets of "holes". One on the side of the aircraft, independent of the air flow, that measures the present atmospheric pressure. Comparing this pressure (static) with the ground one (given by the Airport Tower for a given area), gives you your altitude. The second "hole" (or set of holes) is in the front of the aircraft (usually the nose or close to the cockpit) and it has a membrane inside a tube that is pressed by the increased airflow created by the aircraft's speed. Comparing this pressure (pitot-tube pressure), with the fore-mentioned static one, gives you the aircraft's speed.