AA.VI.F.K1

From the FAA library

• Instrument Procedures Handbookp. 4-49
  Chapter 4: Approaches › Final Approach Segment

  Final Approach Segment The final approach segment for an approach with vertical guidance or a precision approach begins where the glideslope/glidepath intercepts the minimum glideslope/ glidepath intercept altitude shown on the approach chart. If ATC authorizes a lower intercept altitude ... final approach segment begins upon glideslope/glidepath interception at that altitude. For a non-precision approach, the final approach segment begins either at a designated FAF, which is depicted as a cross on the profile view, or at the point where…

• Instrument Flying Handbookp. 10-18
  Chapter 10: IFR Flight › Approach to an Airport With an Operating Tower, With an Approach Control › Radar Monitoring of Instrument Approaches

  Radar service is automatically terminated at the completion of a radar approach. No-Gyro Approach is available to a pilot under radar control who experiences circumstances wherein the directional gyro or other stabilized compass is inoperative or inaccurate. When this ... occurs, the pilot should so advise ATC and request a no-gyro vector or approach. The pilot of an aircraft not equipped with a directional gyro or other stabilized compass who desires radar handling may also request a no-gyro…

• Instrument Flying Handbookp. 10-20
  Chapter 10: IFR Flight › Approach to an Airport With an Operating Tower, With an Approach Control › Approaches to Parallel Runways

  Approaches to Parallel Runways Procedures permit ILS instrument approach operations to dual or triple parallel runway configurations. A parallel approach is an ATC procedure that permits parallel ILS approach to airports with parallel runways separated by at least ... feet between centerlines. Wherever parallel approaches are in progress, pilots are informed that approaches to both runways are in use. Simultaneous approaches are permitted to runways: 1. With centerlines separated by 4,300 to 9,000 feet; 2. Equipped with…

• Airplane Flying Handbookp. 9-4
  Chapter 9: Approaches and Landings › Final Approach › Wrong Surface Landing Avoidance

  This is one reason for performing approaches with partial power; if the approach is too high, the pilot can lower the nose and reduce the power to maintain the correct airspeed. When the approach is too low, the pilot ... proper angle of descent and airspeed are maintained by integrating pitch and power changes, an untrained or inexperienced pilot may try to reach a landing spot by applying back-elevator pressure without adding power. However, attempting to stretch the final…

• Airplane Flying Handbookp. 9-26
  Chapter 9: Approaches and Landings › Power-Off Accuracy Approaches › 180° Power-Off Approach

  Full flaps should be delayed until it is clear that adding them will not cause the landing to be short of the point. The pilot should never try to stretch the glide or retract the flaps to reach the desired ... landing spot. On short final, full attention is given to making a good, safe landing rather than concentrating on the selected landing spot. The approach angle used and final approach airspeed determine the probability of landing on the spot…

• Airplane Flying Handbookp. 9-15
  Chapter 9: Approaches and Landings › Crosswind Approach and Landing

  Common Errors Common errors with forward slips to a landing: 1. Incorrect pitch adjustments that result in poor airspeed control. 2. Reacting to erroneous airspeed indications. 3. Using excess power while trying to lose altitude. 4. A slip ... same direction as any crosswind. 5. Poor glidepath control. 6. Late transition to a sideslip during landing with crosswinds. 7. Landing without the longitudinal axis parallel to runway. 8. Landing off the centerline. Crosswind Approach and Landing Most runways…