Sport Pilot for Helicopter - Simplified Flight Controls › IV. Hovering Maneuvers › Task C. Air Taxi

SH.IV.C.R4

Risk management

Main rotor(s), tail rotor, and tail strike hazards, as applicable.

Study note

Get a short, cited explanation of this element written from the FAA handbooks: the core idea, the numbers that matter, common test traps, and a quick self-check.

From the FAA library

Helicopter Flying Handbook p. 11-5
Chapter 11: Helicopter Emergencies and Hazards › Autorotation › Technique (How to Practice)
When the collective is raised, the opposite antitorque pedal used in powered…
Helicopter Flying Handbook p. 11-18
Chapter 11: Helicopter Emergencies and Hazards › System Malfunctions › Loss of Tail Rotor Effectiveness (LTE)
catastrophic. LTE is an aerodynamic condition and is the result of a control margin deficiency in the tail rotor. It can affect all single-rotor helicopters that utilize a tail rotor. The design of main and tail rotor blades ... tail boom assembly can affect the characteristics and susceptibility of LTE but will not nullify the phenomenon entirely. Translational lift is obtained by any amount of clean air through the main rotor disk. Chapter 2, Aerodynamics of Flight, discusses translational…
Risk Management Handbook p. 3-4
Chapter 3: Identifying Hazards & Associated Risks › Using the PAVE Checklist to Identify Hazards › Pilot Hazards
Using the PAVE Checklist to Identify Hazards As described in Chapter 1, the PAVE checklist provides a means to identify hazards using four convenient hazard “buckets.” Using all four checklist categories before a flight captures most hazards normally encountered. This ... section discusses hazards associated with each category. Pilot Hazards “P” hazards can be classified in terms of both capability and aeromedical factors as follows: 1. Qualification–Does the pilot possess the appropriate pilot certificate, category, class, and type rating needed…
Risk Management Handbook p. 3-4
Chapter 3: Identifying Hazards & Associated Risks › Leading Accident Causes › Identifying Hazards
Identifying Hazards There are several ways pilots can detect hazards. Pilots should use combinations of methods to detect hazards, including the following: • Visual Observation–A pilot’s observations provide a primary means to identify hazards. For example, a pilot ... safe distance from them. A pilot who can see terrain can maneuver to avoid it. • Preflight Planning–Many hazards can be detected through preflight planning. Weather briefings identify hazards. Aircraft performance calculations, preflight inspections, and other routine procedures may identify…
Risk Management Handbook p. 3-2
Chapter 3: Identifying Hazards & Associated Risks › Why Hazards Result in Aviation Accidents › Understanding the Risks Posed by Hazards
hazardous attitude. Most pilots sincerely believe that they will respond to hazards appropriately and take actions necessary to avoid accidents. However, a pilot’s attitude affects perception of hazards, the analysis of the potential threat, and performance of an appropriate ... response. Since attitude influences behavior, pilots should consider their own attitude and the antidote to any hazardous attitude. [Figure 3-2] The pilots in the two fatal accidents described above exhibited several of these hazardous attitudes. If they had recognized…
Small Unmanned Aircraft System (Small UAS)p. 6-2
CHAPTER 6. PART 107 SUBPART C, REMOTE PILOT CERTIFICATION › 6.4 Application Process › 6.4.1 Remote Pilot Applicants Without Part 61 Certificates
Once the applicant completes the online application in IACRA, the applicant signs the application electronically and submits it to the Airman Registry for processing. No FAA representative will be required to sign the application if the applicant was able ... self-certify. Note: When an applicant seeking a Remote Pilot Certificate uses this online option, the application transmits electronically from the applicant to the Airman Registry. The only electronic signature reflected on the IACRA application will be the applicant…