FH.VIII.A.R2e
Risk managementEffects of:
Runway/departure point surface/condition
From the FAA library
- Chapter 11: Aircraft Performance › Takeoff and Landing Performance › Runway Surface and Gradient
Runway Surface and Gradient Runway conditions affect takeoff and landing performance. Typically, performance chart information assumes paved, level, smooth, and dry runway surfaces. Since no two runways are alike, the runway surface differs from one runway to another, as does ... runway gradient or slope. [Figure 11-15] Runway surfaces vary widely from one airport to another. The runway surface encountered may be concrete, asphalt, gravel, dirt, or grass. The runway surface for a specific airport is noted in the Chart…
- Chapter 9: Basic Flight Maneuvers › Normal Takeoff from the Surface › Technique
track. Figure 9-12. The helicopter takes several positions during a normal takeoff from hover. Normal Takeoff from the Surface Normal takeoff from the surface is used to move the helicopter from a position on the surface into effective translational ... lift and a normal climb using a minimum amount of power. If the surface is dusty or covered with loose snow, this technique provides the most favorable visibility conditions and reduces the possibility of debris being ingested by the engine…
- Chapter 6: Flight Controls › Flight Control Systems › V-Tail
This motion is called yaw. Like the other primary control surfaces, the rudder is a movable surface hinged to a fixed surface in this case, to the vertical stabilizer or fin. The rudder is controlled by the left and right ... slipstream flowing over the rudder increases its effectiveness. V-Tail The V-tail design utilizes two slanted tail surfaces to perform the same functions as the surfaces of a conventional elevator and rudder configuration. The fixed surfaces act as both…
- Chapter 11: Helicopter Emergencies and Hazards › VFR Flight into Instrument Meteorological Conditions
more conservative than those required by regulations for VFR flight. In addition, a thorough preflight and understanding of weather conditions that may contribute to the risk of IMC developing along a planned route of flight is essential for safety. Pilots ... should recognize deteriorating weather conditions so the route of flight can be changed or a decision made to terminate the flight and safely land at a suitable area, well before IIMC occurs. If weather conditions deteriorate below the pilot…
- Chapter 14: Airport Operations › En Route › Vortex Avoidance Procedures
place to assist pilots in vortex avoidance in the given scenario. • Landing behind a larger aircraft on the same runway— stay at or above the larger aircraft’s approach flight path and land beyond its touchdown point. [Figure ... Landing behind a larger aircraft on a parallel runway closer than 2,500 feet—consider the possibility of drift and stay at or above the larger aircraft’s final approach flight path and note its touchdown point. [Figure…
- Chapter 1: Aircraft Structures › Flight Control Surfaces › Primary Flight Control Surfaces
attached with rivets. Figure 1-50 illustrates this type of structure, which can be found on the primary control surfaces of light aircraft as well as on medium and heavy aircraft. Figure 1-46. The fuselage terminates at the tail ... with similar but more lightweight construction. Figure 1-47. Components of a typical empennage. Figure 1-49. Flight control surfaces move the aircraft around the three axes of flight. Figure 1-48. Vertical stabilizer. Primary control surfaces constructed from composite…