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Aviation Safety: Go-Around Procedures and Related Concepts

At a Glance

Title: Aviation Safety: Go-Around Procedures and Related Concepts

Total Categories: 6

Category Stats

  • Aviation Safety: Core Concepts and Definitions: 3 flashcards, 7 questions
  • Aviation Safety: Initiation and Decision-Making: 6 flashcards, 15 questions
  • Aviation Safety: Standard Go-Around Procedures: 9 flashcards, 19 questions
  • Aviation Safety: Risks and Consequences of Improper Execution: 5 flashcards, 11 questions
  • Aviation Safety: Specialized Scenarios and Terminology: 7 flashcards, 18 questions
  • Aviation Safety: Research, Statistics, and Best Practices: 6 flashcards, 8 questions

Total Stats

  • Total Flashcards: 36
  • True/False Questions: 48
  • Multiple Choice Questions: 30
  • Total Questions: 78

Instructions

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Welcome to Your Curriculum Command Center

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⚙️ Kit Manager: Your Kit's Identity

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  • Step 1: Select a question from the list on the left.
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  • The Payoff: When you generate a Smart Study Guide, these linked flashcards will automatically appear under each question as "Related Concepts."

Step 2: The Magic (The Generator Suite)

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Study Guide: Aviation Safety: Go-Around Procedures and Related Concepts

Study Guide: Aviation Safety: Go-Around Procedures and Related Concepts

Aviation Safety: Core Concepts and Definitions

In aviation terminology, a 'go-around' is defined as the successful completion of a landing after a brief touch-and-go maneuver.

Answer: False

A 'go-around' is defined as an aborted landing maneuver, which can occur during final approach or after touchdown, not the successful completion of a landing following a touch-and-go.

Related Concepts:

  • What is a go-around in the context of aviation operations?: In aviation, a go-around is defined as the aborted landing of an aircraft. This action can occur while the aircraft is on its final approach to landing or after it has already touched down on the runway.

The term 'go-around' originated because pilots would fly around the airport indefinitely until conditions were perfect.

Answer: False

The term 'go-around' originates from the practice of flying another circuit within the standard traffic pattern, not from indefinite circling until perfect conditions arise.

Related Concepts:

  • What is the origin of the term 'go-around' in aviation?: The term 'go-around' originates from the traditional use of airfield traffic patterns or circuits. If a pilot decides not to land, they can fly back up to the standard traffic pattern altitude and complete another circuit, effectively 'going around' again.

A go-around is classified as an emergency maneuver by aviation authorities.

Answer: False

A go-around is considered a standard safety procedure, not an emergency maneuver, utilized when landing conditions are not optimal or safe.

Related Concepts:

  • Are go-arounds considered emergency situations in aviation?: No, a go-around is not considered an emergency maneuver. It is a standard procedure that may be necessary for a variety of safety-related reasons during the approach and landing phases.
  • What is a go-around in the context of aviation operations?: In aviation, a go-around is defined as the aborted landing of an aircraft. This action can occur while the aircraft is on its final approach to landing or after it has already touched down on the runway.

A go-around is a standard procedure, not an emergency, used to ensure safety during landing.

Answer: True

A go-around is a standard safety procedure, not an emergency maneuver, employed to ensure a safe outcome when landing conditions are compromised.

Related Concepts:

  • Are go-arounds considered emergency situations in aviation?: No, a go-around is not considered an emergency maneuver. It is a standard procedure that may be necessary for a variety of safety-related reasons during the approach and landing phases.
  • What is a go-around in the context of aviation operations?: In aviation, a go-around is defined as the aborted landing of an aircraft. This action can occur while the aircraft is on its final approach to landing or after it has already touched down on the runway.

The term 'go-around' implies flying a full traffic circuit again.

Answer: True

Historically, the term 'go-around' referred to flying another circuit in the standard traffic pattern. While modern procedures may vary, the concept of re-sequencing for another approach remains central.

Related Concepts:

  • What is the origin of the term 'go-around' in aviation?: The term 'go-around' originates from the traditional use of airfield traffic patterns or circuits. If a pilot decides not to land, they can fly back up to the standard traffic pattern altitude and complete another circuit, effectively 'going around' again.
  • Who can initiate or request a go-around maneuver?: A go-around can be initiated by the pilot flying the aircraft, or it can be requested by air traffic control. This request is typically made for various operational reasons.

What is the fundamental definition of a 'go-around' in aviation?

Answer: An aborted landing maneuver initiated during final approach or after touchdown.

A go-around is fundamentally defined as the aborted landing of an aircraft, which can occur either during the final approach phase or subsequent to touchdown on the runway.

Related Concepts:

  • What is the origin of the term 'go-around' in aviation?: The term 'go-around' originates from the traditional use of airfield traffic patterns or circuits. If a pilot decides not to land, they can fly back up to the standard traffic pattern altitude and complete another circuit, effectively 'going around' again.
  • What is a go-around in the context of aviation operations?: In aviation, a go-around is defined as the aborted landing of an aircraft. This action can occur while the aircraft is on its final approach to landing or after it has already touched down on the runway.

What is the historical origin of the term 'go-around'?

Answer: It stems from the practice of flying another circuit in the standard traffic pattern.

The term 'go-around' originates from the traditional aviation practice of flying another circuit within the standard traffic pattern if a landing is not to be made.

Related Concepts:

  • What is the origin of the term 'go-around' in aviation?: The term 'go-around' originates from the traditional use of airfield traffic patterns or circuits. If a pilot decides not to land, they can fly back up to the standard traffic pattern altitude and complete another circuit, effectively 'going around' again.

Aviation Safety: Initiation and Decision-Making

Only the pilot flying the aircraft can decide to initiate a go-around.

Answer: False

The assertion that only the pilot flying the aircraft can initiate a go-around is incorrect; air traffic control may also request or direct this maneuver, particularly in controlled airspace.

Related Concepts:

  • Who can initiate or request a go-around maneuver?: A go-around can be initiated by the pilot flying the aircraft, or it can be requested by air traffic control. This request is typically made for various operational reasons.
  • What is the difference between a go-around initiated by the pilot versus one requested by air traffic control?: A pilot-initiated go-around is typically based on the pilot's assessment of the aircraft's approach stability, configuration, or other flight conditions. An air traffic control-requested go-around is usually for reasons related to airport operations, such as runway incursions or traffic management, and is normally issued by the local or tower controller at a controlled airfield.

An unstabilized approach is one of the primary reasons an aircraft might perform a go-around.

Answer: True

An unstabilized approach, where the aircraft is not configured correctly or is deviating from the intended flight path and parameters, is indeed a common and primary reason for pilots to initiate a go-around to ensure safety.

Related Concepts:

  • What are some common reasons for an aircraft to perform a go-around?: Common reasons for initiating a go-around include an unstabilized approach, an improperly executed landing such as a bounce, encountering a mechanical issue, a sudden change in wind conditions, an unsafe flight condition arising, or if there is an obstruction on the runway.
  • Who can initiate or request a go-around maneuver?: A go-around can be initiated by the pilot flying the aircraft, or it can be requested by air traffic control. This request is typically made for various operational reasons.

An air traffic control-requested go-around is typically based on the pilot's assessment of the aircraft's approach stability.

Answer: False

An air traffic control-requested go-around is typically based on airport operational requirements or traffic management, not solely on the pilot's assessment of approach stability.

Related Concepts:

  • What is the difference between a go-around initiated by the pilot versus one requested by air traffic control?: A pilot-initiated go-around is typically based on the pilot's assessment of the aircraft's approach stability, configuration, or other flight conditions. An air traffic control-requested go-around is usually for reasons related to airport operations, such as runway incursions or traffic management, and is normally issued by the local or tower controller at a controlled airfield.
  • Who can initiate or request a go-around maneuver?: A go-around can be initiated by the pilot flying the aircraft, or it can be requested by air traffic control. This request is typically made for various operational reasons.

Airline operations manuals provide guidance that may mandate or recommend a go-around if specific landing conditions are not met.

Answer: True

Airline and manufacturer operations manuals often specify criteria for safe landings and may mandate or recommend a go-around if these conditions are not satisfied.

Related Concepts:

  • What role do airline and manufacturer operations manuals play in go-around decision-making?: Airline and aircraft manufacturer operations manuals often specify a list of conditions that must be met for a safe landing. If these conditions cannot be satisfied, the manual may mandate a go-around or strongly recommend considering one, guiding pilot judgment.
  • Who can initiate or request a go-around maneuver?: A go-around can be initiated by the pilot flying the aircraft, or it can be requested by air traffic control. This request is typically made for various operational reasons.

In uncontrolled airspace, pilots performing a go-around must still follow instructions from air traffic control.

Answer: False

In uncontrolled airspace, pilots are not subject to air traffic control instructions as ATC services are not provided. Communication and adherence to ATC instructions are relevant in controlled airspace.

Related Concepts:

  • What are the typical actions taken after initiating a go-around in controlled airspace?: In controlled airspace, after initiating a go-around, the pilot will typically follow the instructions of the control tower. This might involve climbing into the traffic pattern or following a published go-around procedure for another approach.
  • Who can initiate or request a go-around maneuver?: A go-around can be initiated by the pilot flying the aircraft, or it can be requested by air traffic control. This request is typically made for various operational reasons.

If a go-around is initiated due to adverse weather, diverting to an alternate airport is not a viable option.

Answer: False

If a go-around is necessitated by adverse weather, diverting to an alternate airport is a standard and viable option, alongside circling to wait for conditions to improve.

Related Concepts:

  • What options might a pilot consider if a go-around is initiated due to adverse weather conditions?: If a go-around is initiated due to bad weather, the pilot might elect to circle over the landing airport for some time to wait for conditions to improve, or they may divert to an alternate airport.
  • Who can initiate or request a go-around maneuver?: A go-around can be initiated by the pilot flying the aircraft, or it can be requested by air traffic control. This request is typically made for various operational reasons.

A pilot might initiate a go-around if they encounter a mechanical issue with the aircraft.

Answer: True

Encountering a mechanical issue during the approach or landing phase is a valid reason for a pilot to initiate a go-around to address the problem safely.

Related Concepts:

  • What are some common reasons for an aircraft to perform a go-around?: Common reasons for initiating a go-around include an unstabilized approach, an improperly executed landing such as a bounce, encountering a mechanical issue, a sudden change in wind conditions, an unsafe flight condition arising, or if there is an obstruction on the runway.
  • Who can initiate or request a go-around maneuver?: A go-around can be initiated by the pilot flying the aircraft, or it can be requested by air traffic control. This request is typically made for various operational reasons.

In controlled airspace, a pilot performing a go-around does not need to inform air traffic control.

Answer: False

In controlled airspace, pilots are required to inform air traffic control when initiating a go-around, and they must follow ATC instructions regarding the subsequent flight path.

Related Concepts:

  • What are the typical actions taken after initiating a go-around in controlled airspace?: In controlled airspace, after initiating a go-around, the pilot will typically follow the instructions of the control tower. This might involve climbing into the traffic pattern or following a published go-around procedure for another approach.
  • Who can initiate or request a go-around maneuver?: A go-around can be initiated by the pilot flying the aircraft, or it can be requested by air traffic control. This request is typically made for various operational reasons.

Which of the following entities can initiate a go-around maneuver?

Answer: The pilot flying the aircraft or air traffic control.

A go-around can be initiated by the pilot in command of the aircraft or requested by air traffic control, particularly in controlled airspace for operational reasons.

Related Concepts:

  • Who can initiate or request a go-around maneuver?: A go-around can be initiated by the pilot flying the aircraft, or it can be requested by air traffic control. This request is typically made for various operational reasons.
  • What is the difference between a go-around initiated by the pilot versus one requested by air traffic control?: A pilot-initiated go-around is typically based on the pilot's assessment of the aircraft's approach stability, configuration, or other flight conditions. An air traffic control-requested go-around is usually for reasons related to airport operations, such as runway incursions or traffic management, and is normally issued by the local or tower controller at a controlled airfield.

According to the provided text, which is a common reason for performing a go-around?

Answer: An obstruction is detected on the runway.

Common reasons for initiating a go-around include encountering an obstruction on the runway, an unstabilized approach, mechanical issues, or unsafe flight conditions.

Related Concepts:

  • What are some common reasons for an aircraft to perform a go-around?: Common reasons for initiating a go-around include an unstabilized approach, an improperly executed landing such as a bounce, encountering a mechanical issue, a sudden change in wind conditions, an unsafe flight condition arising, or if there is an obstruction on the runway.
  • Who can initiate or request a go-around maneuver?: A go-around can be initiated by the pilot flying the aircraft, or it can be requested by air traffic control. This request is typically made for various operational reasons.

What is the primary reason an ATC-requested go-around is typically issued?

Answer: Airport operational issues, like runway incursions or traffic management.

An ATC-requested go-around is typically issued due to airport operational concerns, such as runway incursions, traffic management requirements, or other safety-related issues identified by air traffic control.

Related Concepts:

  • What is the difference between a go-around initiated by the pilot versus one requested by air traffic control?: A pilot-initiated go-around is typically based on the pilot's assessment of the aircraft's approach stability, configuration, or other flight conditions. An air traffic control-requested go-around is usually for reasons related to airport operations, such as runway incursions or traffic management, and is normally issued by the local or tower controller at a controlled airfield.
  • Who can initiate or request a go-around maneuver?: A go-around can be initiated by the pilot flying the aircraft, or it can be requested by air traffic control. This request is typically made for various operational reasons.

What role do operations manuals play in go-around decision-making?

Answer: They provide specific conditions that may mandate or recommend a go-around.

Operations manuals provide crucial guidance, outlining specific conditions under which a go-around is mandated or recommended, thereby informing pilot decision-making during approach and landing.

Related Concepts:

  • What role do airline and manufacturer operations manuals play in go-around decision-making?: Airline and aircraft manufacturer operations manuals often specify a list of conditions that must be met for a safe landing. If these conditions cannot be satisfied, the manual may mandate a go-around or strongly recommend considering one, guiding pilot judgment.
  • Who can initiate or request a go-around maneuver?: A go-around can be initiated by the pilot flying the aircraft, or it can be requested by air traffic control. This request is typically made for various operational reasons.

What action should a pilot typically take after initiating a go-around in controlled airspace?

Answer: Follow instructions from the control tower.

In controlled airspace, after initiating a go-around, pilots must follow instructions provided by the control tower regarding their subsequent flight path and actions.

Related Concepts:

  • What are the typical actions taken after initiating a go-around in controlled airspace?: In controlled airspace, after initiating a go-around, the pilot will typically follow the instructions of the control tower. This might involve climbing into the traffic pattern or following a published go-around procedure for another approach.
  • Who can initiate or request a go-around maneuver?: A go-around can be initiated by the pilot flying the aircraft, or it can be requested by air traffic control. This request is typically made for various operational reasons.

If a go-around is initiated due to adverse weather, what might a pilot choose to do?

Answer: Circle the airport waiting for improvement or divert to an alternate.

When a go-around is initiated due to adverse weather, pilots may elect to circle the airport to await improved conditions or divert to a suitable alternate airport.

Related Concepts:

  • What options might a pilot consider if a go-around is initiated due to adverse weather conditions?: If a go-around is initiated due to bad weather, the pilot might elect to circle over the landing airport for some time to wait for conditions to improve, or they may divert to an alternate airport.
  • What is the origin of the term 'go-around' in aviation?: The term 'go-around' originates from the traditional use of airfield traffic patterns or circuits. If a pilot decides not to land, they can fly back up to the standard traffic pattern altitude and complete another circuit, effectively 'going around' again.

Which of the following is NOT considered a common reason for a go-around, according to the source?

Answer: The pilot feeling slightly bored.

Common reasons for a go-around include operational factors like unstabilized approaches, obstructions, or weather changes, not subjective feelings such as boredom.

Related Concepts:

  • What are some common reasons for an aircraft to perform a go-around?: Common reasons for initiating a go-around include an unstabilized approach, an improperly executed landing such as a bounce, encountering a mechanical issue, a sudden change in wind conditions, an unsafe flight condition arising, or if there is an obstruction on the runway.
  • What is the average frequency of go-arounds in commercial aviation?: Go-arounds occur with an average rate of approximately 1 to 3 per 1000 approaches. However, these rates can vary depending on the specific aircraft operator and the operational environment.

Aviation Safety: Standard Go-Around Procedures

Modern airliners always follow traditional traffic patterns when performing a go-around.

Answer: False

While the term 'go-around' persists, modern airliners often utilize airport-specific procedures rather than strictly adhering to traditional traffic patterns for go-arounds.

Related Concepts:

  • How has the use of the term 'go-around' evolved with modern aircraft?: While the term 'go-around' is still used for modern airliners, these aircraft often do not follow traditional traffic patterns for landing. Instead, they typically adhere to airport-specific go-around procedures.
  • What is the origin of the term 'go-around' in aviation?: The term 'go-around' originates from the traditional use of airfield traffic patterns or circuits. If a pilot decides not to land, they can fly back up to the standard traffic pattern altitude and complete another circuit, effectively 'going around' again.

During a go-around, pilots reduce engine thrust to idle to conserve fuel.

Answer: False

During a go-around, pilots increase engine thrust to TOGA (Takeoff and Go Around) power to ensure a safe climb, rather than reducing it to idle for fuel conservation.

Related Concepts:

  • What are the immediate actions a pilot takes when executing a go-around?: Upon deciding to go around, the pilot applies full thrust or a predetermined Takeoff and Go Around (TOGA) thrust to the engines. They then adopt an appropriate climb attitude and airspeed.
  • What is TOGA thrust, and how does it relate to go-arounds?: TOGA stands for Takeoff and Go Around. TOGA thrust is a specific engine power setting, usually maximum available thrust, that pilots use when initiating a go-around or a takeoff. This provides the necessary power for a safe climb.

The landing gear is typically retracted immediately after initiating a go-around, regardless of climb performance.

Answer: False

The landing gear is typically retracted only after a positive rate of climb has been established during a go-around, to optimize climb performance and reduce drag.

Related Concepts:

  • When is the landing gear typically retracted during a go-around procedure?: The landing gear is typically raised once the aircraft has achieved a positive rate of climb. This helps to reduce drag and improve the aircraft's climb performance.
  • How are flaps adjusted during a go-around?: Flaps are retracted as necessary during a go-around. In smaller aircraft, one stage of flaps might be retracted initially, with full retraction occurring later as the aircraft gains airspeed and altitude.

Flaps are usually extended to their maximum setting during a go-around to increase lift.

Answer: False

During a go-around, flaps are typically retracted incrementally as airspeed and altitude increase, not extended to maximum settings, to optimize climb performance by reducing drag.

Related Concepts:

  • How are flaps adjusted during a go-around?: Flaps are retracted as necessary during a go-around. In smaller aircraft, one stage of flaps might be retracted initially, with full retraction occurring later as the aircraft gains airspeed and altitude.
  • What is the significance of retracting flaps during a go-around?: Retracting flaps during a go-around is important for optimizing the aircraft's aerodynamic configuration for climbing. As the aircraft transitions from landing to climbing, reducing flap extension decreases drag and increases airspeed, contributing to a better climb performance.

TOGA thrust refers to a reduced power setting used for fuel efficiency during a go-around.

Answer: False

TOGA (Takeoff and Go Around) thrust refers to the maximum available engine power setting required for a go-around, not a reduced setting for fuel efficiency.

Related Concepts:

  • What is TOGA thrust, and how does it relate to go-arounds?: TOGA stands for Takeoff and Go Around. TOGA thrust is a specific engine power setting, usually maximum available thrust, that pilots use when initiating a go-around or a takeoff. This provides the necessary power for a safe climb.
  • What are the immediate actions a pilot takes when executing a go-around?: Upon deciding to go around, the pilot applies full thrust or a predetermined Takeoff and Go Around (TOGA) thrust to the engines. They then adopt an appropriate climb attitude and airspeed.

Autothrottle systems in modern aircraft can automatically set the correct go-around thrust when the maneuver is initiated.

Answer: True

Modern autothrottle or autothrust systems are capable of automatically setting the appropriate go-around thrust when the maneuver is initiated, thereby assisting the pilot.

Related Concepts:

  • How do autothrottle or autothrust systems in modern aircraft facilitate go-arounds?: Many modern aircraft, such as those manufactured by Boeing and Airbus, are equipped with autothrottle or autothrust systems. If engaged, these systems can automatically set the required go-around thrust when the go-around maneuver is initiated.

Adopting an appropriate climb attitude and airspeed is secondary to applying thrust during a go-around.

Answer: False

Applying thrust, adopting a climb attitude, and establishing appropriate airspeed are all critical and concurrent actions during a go-around; none are considered secondary.

Related Concepts:

  • What is the purpose of adopting an appropriate climb attitude and airspeed during a go-around?: Adopting an appropriate climb attitude and airspeed during a go-around is crucial for ensuring the aircraft safely gains altitude and speed. This maneuver requires the aircraft to transition from a landing configuration to a climb configuration efficiently and safely.
  • What are the immediate actions a pilot takes when executing a go-around?: Upon deciding to go around, the pilot applies full thrust or a predetermined Takeoff and Go Around (TOGA) thrust to the engines. They then adopt an appropriate climb attitude and airspeed.

Retracting flaps during a go-around is primarily done to increase drag and slow the aircraft down.

Answer: False

Retracting flaps during a go-around is primarily done to reduce drag and optimize the aircraft's configuration for climbing, thereby increasing climb performance, not to increase drag.

Related Concepts:

  • What is the significance of retracting flaps during a go-around?: Retracting flaps during a go-around is important for optimizing the aircraft's aerodynamic configuration for climbing. As the aircraft transitions from landing to climbing, reducing flap extension decreases drag and increases airspeed, contributing to a better climb performance.
  • How are flaps adjusted during a go-around?: Flaps are retracted as necessary during a go-around. In smaller aircraft, one stage of flaps might be retracted initially, with full retraction occurring later as the aircraft gains airspeed and altitude.

Modern autothrust systems simplify go-arounds by automatically managing engine power.

Answer: True

Modern autothrust systems can automate engine power management during a go-around, simplifying the pilot's workload and ensuring appropriate thrust application.

Related Concepts:

  • How do autothrottle or autothrust systems in modern aircraft facilitate go-arounds?: Many modern aircraft, such as those manufactured by Boeing and Airbus, are equipped with autothrottle or autothrust systems. If engaged, these systems can automatically set the required go-around thrust when the go-around maneuver is initiated.

A go-around is initiated by applying TOGA thrust, adopting a climb attitude, and retracting flaps.

Answer: True

The initiation of a go-around typically involves applying TOGA thrust, establishing a climb attitude, and beginning the process of flap retraction.

Related Concepts:

  • What are the immediate actions a pilot takes when executing a go-around?: Upon deciding to go around, the pilot applies full thrust or a predetermined Takeoff and Go Around (TOGA) thrust to the engines. They then adopt an appropriate climb attitude and airspeed.
  • What is TOGA thrust, and how does it relate to go-arounds?: TOGA stands for Takeoff and Go Around. TOGA thrust is a specific engine power setting, usually maximum available thrust, that pilots use when initiating a go-around or a takeoff. This provides the necessary power for a safe climb.
  • How are flaps adjusted during a go-around?: Flaps are retracted as necessary during a go-around. In smaller aircraft, one stage of flaps might be retracted initially, with full retraction occurring later as the aircraft gains airspeed and altitude.

Landing gear retraction during a go-around should occur only after a positive climb rate is established.

Answer: True

Retracting the landing gear during a go-around is typically performed only after a positive rate of climb is confirmed, ensuring that the aircraft has sufficient performance to gain altitude safely.

Related Concepts:

  • When is the landing gear typically retracted during a go-around procedure?: The landing gear is typically raised once the aircraft has achieved a positive rate of climb. This helps to reduce drag and improve the aircraft's climb performance.
  • What is the purpose of adopting an appropriate climb attitude and airspeed during a go-around?: Adopting an appropriate climb attitude and airspeed during a go-around is crucial for ensuring the aircraft safely gains altitude and speed. This maneuver requires the aircraft to transition from a landing configuration to a climb configuration efficiently and safely.

How do go-around procedures typically differ for modern airliners compared to the term's origin?

Answer: Modern airliners often use airport-specific procedures instead of traditional patterns.

While the term 'go-around' remains, modern airliners frequently employ airport-specific procedures for this maneuver, diverging from the historical practice of strictly following traditional traffic patterns.

Related Concepts:

  • How has the use of the term 'go-around' evolved with modern aircraft?: While the term 'go-around' is still used for modern airliners, these aircraft often do not follow traditional traffic patterns for landing. Instead, they typically adhere to airport-specific go-around procedures.
  • What is the origin of the term 'go-around' in aviation?: The term 'go-around' originates from the traditional use of airfield traffic patterns or circuits. If a pilot decides not to land, they can fly back up to the standard traffic pattern altitude and complete another circuit, effectively 'going around' again.

What is the immediate pilot action upon deciding to execute a go-around?

Answer: Apply full thrust or TOGA thrust.

The immediate pilot action upon deciding to execute a go-around is to apply full engine thrust, typically TOGA (Takeoff and Go Around) power, to initiate a climb.

Related Concepts:

  • What are the immediate actions a pilot takes when executing a go-around?: Upon deciding to go around, the pilot applies full thrust or a predetermined Takeoff and Go Around (TOGA) thrust to the engines. They then adopt an appropriate climb attitude and airspeed.
  • Who can initiate or request a go-around maneuver?: A go-around can be initiated by the pilot flying the aircraft, or it can be requested by air traffic control. This request is typically made for various operational reasons.

When is the landing gear typically retracted during a go-around?

Answer: After the aircraft has achieved a positive rate of climb.

The landing gear is typically retracted during a go-around only after a positive rate of climb has been established, to optimize aerodynamic performance for ascent.

Related Concepts:

  • How are flaps adjusted during a go-around?: Flaps are retracted as necessary during a go-around. In smaller aircraft, one stage of flaps might be retracted initially, with full retraction occurring later as the aircraft gains airspeed and altitude.
  • When is the landing gear typically retracted during a go-around procedure?: The landing gear is typically raised once the aircraft has achieved a positive rate of climb. This helps to reduce drag and improve the aircraft's climb performance.

How are flaps typically adjusted during a go-around maneuver?

Answer: They are retracted incrementally as airspeed and altitude increase.

Flaps are typically retracted incrementally during a go-around as the aircraft gains airspeed and altitude, optimizing the aerodynamic configuration for climbing by reducing drag.

Related Concepts:

  • How are flaps adjusted during a go-around?: Flaps are retracted as necessary during a go-around. In smaller aircraft, one stage of flaps might be retracted initially, with full retraction occurring later as the aircraft gains airspeed and altitude.
  • What is the significance of retracting flaps during a go-around?: Retracting flaps during a go-around is important for optimizing the aircraft's aerodynamic configuration for climbing. As the aircraft transitions from landing to climbing, reducing flap extension decreases drag and increases airspeed, contributing to a better climb performance.
  • Describe the manual procedure for a go-around in a typical small general aviation aircraft.: In a typical small aircraft, a manual go-around procedure involves applying go-around power (usually full power), adopting a climb attitude and airspeed, retracting one stage of flaps if needed, checking for a positive rate of climb, raising the landing gear if equipped, fully retracting flaps at a safe airspeed and altitude, and climbing to the appropriate altitude.

What does 'TOGA' thrust signify in the context of a go-around?

Answer: The maximum thrust available for takeoff and go-around maneuvers.

TOGA stands for Takeoff and Go Around. TOGA thrust refers to the maximum engine power setting available, utilized for both takeoff and go-around maneuvers to ensure adequate performance.

Related Concepts:

  • What is TOGA thrust, and how does it relate to go-arounds?: TOGA stands for Takeoff and Go Around. TOGA thrust is a specific engine power setting, usually maximum available thrust, that pilots use when initiating a go-around or a takeoff. This provides the necessary power for a safe climb.
  • What are the immediate actions a pilot takes when executing a go-around?: Upon deciding to go around, the pilot applies full thrust or a predetermined Takeoff and Go Around (TOGA) thrust to the engines. They then adopt an appropriate climb attitude and airspeed.

How do modern autothrottle systems assist pilots during a go-around?

Answer: They can automatically set the required go-around thrust.

Modern autothrottle systems can automatically set the appropriate go-around thrust upon initiation of the maneuver, thereby simplifying pilot workload and ensuring correct power application.

Related Concepts:

  • How do autothrottle or autothrust systems in modern aircraft facilitate go-arounds?: Many modern aircraft, such as those manufactured by Boeing and Airbus, are equipped with autothrottle or autothrust systems. If engaged, these systems can automatically set the required go-around thrust when the go-around maneuver is initiated.

What is the primary purpose of adopting a specific climb attitude and airspeed during a go-around?

Answer: To ensure the aircraft transitions safely and efficiently to a climb.

Adopting a specific climb attitude and airspeed is crucial for ensuring the aircraft transitions safely and efficiently from a landing configuration to a stable climb during a go-around.

Related Concepts:

  • What is the purpose of adopting an appropriate climb attitude and airspeed during a go-around?: Adopting an appropriate climb attitude and airspeed during a go-around is crucial for ensuring the aircraft safely gains altitude and speed. This maneuver requires the aircraft to transition from a landing configuration to a climb configuration efficiently and safely.
  • What are the immediate actions a pilot takes when executing a go-around?: Upon deciding to go around, the pilot applies full thrust or a predetermined Takeoff and Go Around (TOGA) thrust to the engines. They then adopt an appropriate climb attitude and airspeed.

What is the significance of retracting flaps during a go-around?

Answer: It optimizes the aircraft's configuration for climbing by reducing drag.

Retracting flaps during a go-around optimizes the aircraft's aerodynamic configuration for climbing by reducing drag, thereby improving climb performance and airspeed management.

Related Concepts:

  • What is the significance of retracting flaps during a go-around?: Retracting flaps during a go-around is important for optimizing the aircraft's aerodynamic configuration for climbing. As the aircraft transitions from landing to climbing, reducing flap extension decreases drag and increases airspeed, contributing to a better climb performance.
  • How are flaps adjusted during a go-around?: Flaps are retracted as necessary during a go-around. In smaller aircraft, one stage of flaps might be retracted initially, with full retraction occurring later as the aircraft gains airspeed and altitude.

Aviation Safety: Risks and Consequences of Improper Execution

The failure to decide to perform a go-around is a major contributing factor to approach and landing accidents.

Answer: True

The lack of a timely go-around decision is identified as a primary risk factor in approach and landing accidents and is a significant cause of runway excursions.

Related Concepts:

  • What is identified as a primary risk factor in approach and landing accidents, and what is the rate of go-arounds for unstabilized approaches?: The lack of a go-around decision is identified as the leading risk factor in approach and landing accidents, and it is also a primary cause of runway excursions. Despite this, only an estimated 3% to 5% of unstabilized approaches actually result in a go-around.
  • What is the average frequency of go-arounds in commercial aviation?: Go-arounds occur with an average rate of approximately 1 to 3 per 1000 approaches. However, these rates can vary depending on the specific aircraft operator and the operational environment.

An ineffective go-around initiation can potentially lead to a loss of control (LOC) of the aircraft.

Answer: True

An ineffective or improperly executed go-around initiation can indeed lead to a loss of control (LOC) of the aircraft, representing a critical safety concern.

Related Concepts:

  • What are the potential risks associated with an ineffective go-around initiation?: An ineffective initiation of a go-around can lead to a loss of control (LOC) of the aircraft. This is a critical safety concern that requires immediate and correct pilot action.
  • What hazardous outcomes can result from a failure to maintain control during a go-around?: If a pilot fails to maintain control during a go-around, it can lead to a loss of control (LOC). This might manifest as abnormal contact with the runway or even Controlled Flight Into Terrain (CFIT), where the aircraft crashes into the ground while still under pilot control.

Failure to maintain control during a go-around can result in a successful landing at a different runway.

Answer: False

Failure to maintain control during a go-around typically results in hazardous outcomes such as loss of control or Controlled Flight Into Terrain (CFIT), not a successful landing at a different runway.

Related Concepts:

  • What hazardous outcomes can result from a failure to maintain control during a go-around?: If a pilot fails to maintain control during a go-around, it can lead to a loss of control (LOC). This might manifest as abnormal contact with the runway or even Controlled Flight Into Terrain (CFIT), where the aircraft crashes into the ground while still under pilot control.
  • What are the potential risks associated with an ineffective go-around initiation?: An ineffective initiation of a go-around can lead to a loss of control (LOC) of the aircraft. This is a critical safety concern that requires immediate and correct pilot action.

Deviating from the required track during a go-around poses no significant risk if the pilot remains aware of their surroundings.

Answer: False

Deviating from the required track during a go-around poses significant risks, including potential Controlled Flight Into Terrain (CFIT) or Mid-Air Collision (MAC), irrespective of pilot awareness of surroundings.

Related Concepts:

  • How can failing to fly the required track during a go-around increase risk?: Failure to maintain the required track during a go-around can lead to Controlled Flight Into Terrain (CFIT) if the aircraft deviates into hazardous terrain, or it could result in a Mid-Air Collision (MAC) if the aircraft enters the path of another aircraft.
  • What are the potential consequences if an aircraft fails to maintain traffic separation during a go-around?: If an aircraft fails to maintain proper traffic separation during a go-around, it significantly increases the risk of a Mid-Air Collision (MAC) with another aircraft operating in the vicinity.

Wake turbulence generated during a go-around only affects the aircraft performing the maneuver.

Answer: False

Wake turbulence generated by an aircraft performing a go-around can affect following aircraft, potentially causing a loss of control for them.

Related Concepts:

  • What is the risk associated with wake turbulence generated during a go-around?: Wake turbulence generated by an aircraft performing a go-around can create a hazard for another aircraft. This turbulence can potentially lead to a loss of control for the following aircraft.

Failing to maintain traffic separation during a go-around can lead to a Mid-Air Collision (MAC).

Answer: True

Failure to maintain proper traffic separation during a go-around significantly increases the risk of a Mid-Air Collision (MAC) with other aircraft operating in the vicinity.

Related Concepts:

  • What are the potential consequences if an aircraft fails to maintain traffic separation during a go-around?: If an aircraft fails to maintain proper traffic separation during a go-around, it significantly increases the risk of a Mid-Air Collision (MAC) with another aircraft operating in the vicinity.
  • How can failing to fly the required track during a go-around increase risk?: Failure to maintain the required track during a go-around can lead to Controlled Flight Into Terrain (CFIT) if the aircraft deviates into hazardous terrain, or it could result in a Mid-Air Collision (MAC) if the aircraft enters the path of another aircraft.

Controlled Flight Into Terrain (CFIT) is a potential outcome of failing to maintain control during a go-around.

Answer: True

Failure to maintain control during a go-around can lead to a loss of control (LOC), which may result in Controlled Flight Into Terrain (CFIT) if the aircraft impacts the ground.

Related Concepts:

  • What hazardous outcomes can result from a failure to maintain control during a go-around?: If a pilot fails to maintain control during a go-around, it can lead to a loss of control (LOC). This might manifest as abnormal contact with the runway or even Controlled Flight Into Terrain (CFIT), where the aircraft crashes into the ground while still under pilot control.
  • How can failing to fly the required track during a go-around increase risk?: Failure to maintain the required track during a go-around can lead to Controlled Flight Into Terrain (CFIT) if the aircraft deviates into hazardous terrain, or it could result in a Mid-Air Collision (MAC) if the aircraft enters the path of another aircraft.

What is a significant risk associated with failing to maintain control during a go-around?

Answer: Loss of Control (LOC) or Controlled Flight Into Terrain (CFIT).

Failure to maintain control during a go-around can lead to severe consequences, including loss of control (LOC) or Controlled Flight Into Terrain (CFIT).

Related Concepts:

  • What are the potential risks associated with an ineffective go-around initiation?: An ineffective initiation of a go-around can lead to a loss of control (LOC) of the aircraft. This is a critical safety concern that requires immediate and correct pilot action.
  • What hazardous outcomes can result from a failure to maintain control during a go-around?: If a pilot fails to maintain control during a go-around, it can lead to a loss of control (LOC). This might manifest as abnormal contact with the runway or even Controlled Flight Into Terrain (CFIT), where the aircraft crashes into the ground while still under pilot control.
  • How can failing to fly the required track during a go-around increase risk?: Failure to maintain the required track during a go-around can lead to Controlled Flight Into Terrain (CFIT) if the aircraft deviates into hazardous terrain, or it could result in a Mid-Air Collision (MAC) if the aircraft enters the path of another aircraft.

Why is deviating from the required track during a go-around dangerous?

Answer: It can lead to CFIT or Mid-Air Collision (MAC).

Deviating from the required track during a go-around increases the risk of Controlled Flight Into Terrain (CFIT) if the aircraft strays into hazardous terrain, or a Mid-Air Collision (MAC) if it enters another aircraft's airspace.

Related Concepts:

  • How can failing to fly the required track during a go-around increase risk?: Failure to maintain the required track during a go-around can lead to Controlled Flight Into Terrain (CFIT) if the aircraft deviates into hazardous terrain, or it could result in a Mid-Air Collision (MAC) if the aircraft enters the path of another aircraft.
  • What are the potential consequences if an aircraft fails to maintain traffic separation during a go-around?: If an aircraft fails to maintain proper traffic separation during a go-around, it significantly increases the risk of a Mid-Air Collision (MAC) with another aircraft operating in the vicinity.

What hazard can wake turbulence from a go-around pose?

Answer: It can cause a loss of control for a following aircraft.

Wake turbulence generated by an aircraft executing a go-around can pose a significant hazard to following aircraft, potentially leading to a loss of control.

Related Concepts:

  • What is the risk associated with wake turbulence generated during a go-around?: Wake turbulence generated by an aircraft performing a go-around can create a hazard for another aircraft. This turbulence can potentially lead to a loss of control for the following aircraft.
  • What are some common reasons for an aircraft to perform a go-around?: Common reasons for initiating a go-around include an unstabilized approach, an improperly executed landing such as a bounce, encountering a mechanical issue, a sudden change in wind conditions, an unsafe flight condition arising, or if there is an obstruction on the runway.

What risk is associated with failing to maintain traffic separation during a go-around?

Answer: Risk of Mid-Air Collision (MAC).

Failure to maintain adequate traffic separation during a go-around significantly elevates the risk of a Mid-Air Collision (MAC) with other aircraft operating in the vicinity.

Related Concepts:

  • What are the potential consequences if an aircraft fails to maintain traffic separation during a go-around?: If an aircraft fails to maintain proper traffic separation during a go-around, it significantly increases the risk of a Mid-Air Collision (MAC) with another aircraft operating in the vicinity.
  • How can failing to fly the required track during a go-around increase risk?: Failure to maintain the required track during a go-around can lead to Controlled Flight Into Terrain (CFIT) if the aircraft deviates into hazardous terrain, or it could result in a Mid-Air Collision (MAC) if the aircraft enters the path of another aircraft.

Aviation Safety: Specialized Scenarios and Terminology

In naval aviation, the term 'go-around' is used when an aircraft aborts a landing on an aircraft carrier.

Answer: False

In naval aviation, particularly during carrier landings, the term 'wave-off' is used to signify an aborted landing, distinct from the general aviation term 'go-around'.

Related Concepts:

  • What is a go-around in the context of aviation operations?: In aviation, a go-around is defined as the aborted landing of an aircraft. This action can occur while the aircraft is on its final approach to landing or after it has already touched down on the runway.
  • What is the equivalent term for a go-around in naval aviation, particularly when landing on an aircraft carrier?: In naval aviation, especially during carrier landings, the term used instead of 'go-around' is 'wave-off'. This signifies a decision to abort the landing attempt.

A 'wave-off' during carrier landings ensures the aircraft can safely climb away if the tailhook fails to engage an arrestor cable.

Answer: True

A 'wave-off' in carrier operations involves applying full thrust to ensure a safe climb if the landing is unsuccessful, such as when the tailhook fails to engage an arrestor cable.

Related Concepts:

  • Why is a wave-off considered a fail-safe measure during aircraft carrier landings?: When landing on an aircraft carrier, the pilot always initiates a wave-off by applying full thrust as a fail-safe. This ensures that if the aircraft's tailhook fails to catch any of the arrestor cables, the aircraft has sufficient power to climb away safely, preventing a potential crash off the carrier's deck.
  • What is the equivalent term for a go-around in naval aviation, particularly when landing on an aircraft carrier?: In naval aviation, especially during carrier landings, the term used instead of 'go-around' is 'wave-off'. This signifies a decision to abort the landing attempt.

A 'bolter' occurs when an aircraft's tailhook successfully catches an arrestor cable on the first attempt.

Answer: False

A 'bolter' in carrier operations signifies that the aircraft's tailhook failed to catch any arrestor cables after touchdown, necessitating a climb away from the deck.

Related Concepts:

  • What is a 'bolter' in the context of carrier operations?: A 'bolter' is a term used in naval aviation when an aircraft's tailhook fails to catch any of the arrestor cables on the flight deck after touching down. In such a scenario, the aircraft must be able to accelerate and climb away from the carrier.

A 'baulked landing' is an official aviation term for a go-around initiated well before the final approach.

Answer: False

A 'baulked landing' is an unofficial term typically referring to a very late go-around, initiated near or after touchdown, not one performed early in the approach.

Related Concepts:

  • What is meant by the term 'baulked landing' or 'rejected landing'?: A baulked landing, also known as a rejected landing, is an unofficial term typically referring to a very late go-around. This maneuver is initiated when the aircraft is already below the prescribed decision height or minimum descent altitude, or even after it has touched down on the runway.
  • Why is a baulked landing considered a high-risk maneuver?: A baulked landing is considered high-risk because the aircraft is usually in a low energy state, at a low altitude, with engines at idle, and decelerating. The risk of collision with obstacles or terrain is also heightened, especially when below prescribed minimum altitudes, potentially leading to Controlled Flight Into Terrain (CFIT).

Baulked landings are considered low-risk maneuvers because the aircraft is typically at a high altitude.

Answer: False

Baulked landings are considered high-risk maneuvers due to the aircraft's low altitude, low energy state, and deceleration, increasing the potential for Controlled Flight Into Terrain (CFIT).

Related Concepts:

  • Why is a baulked landing considered a high-risk maneuver?: A baulked landing is considered high-risk because the aircraft is usually in a low energy state, at a low altitude, with engines at idle, and decelerating. The risk of collision with obstacles or terrain is also heightened, especially when below prescribed minimum altitudes, potentially leading to Controlled Flight Into Terrain (CFIT).
  • What is meant by the term 'baulked landing' or 'rejected landing'?: A baulked landing, also known as a rejected landing, is an unofficial term typically referring to a very late go-around. This maneuver is initiated when the aircraft is already below the prescribed decision height or minimum descent altitude, or even after it has touched down on the runway.

A 'missed approach' is a procedure specifically used in Instrument Flight Rules (IFR) when a landing cannot be completed.

Answer: True

A missed approach is a defined procedure followed in Instrument Flight Rules (IFR) operations when an instrument landing cannot be successfully completed, serving a similar safety function to a go-around.

Related Concepts:

  • How does a 'missed approach' procedure differ from or relate to a go-around?: A missed approach is a related concept, specifically used in the context of Instrument Flight Rules (IFR) flight. While a go-around is the general term for aborting a landing, a missed approach is a defined procedure followed when an instrument landing cannot be completed.
  • What is a go-around in the context of aviation operations?: In aviation, a go-around is defined as the aborted landing of an aircraft. This action can occur while the aircraft is on its final approach to landing or after it has already touched down on the runway.

A touch-and-go landing involves touching the runway briefly before immediately taking off again without stopping.

Answer: True

A touch-and-go landing is a maneuver where the aircraft touches the runway surface, continues without stopping, and then takes off again, distinct from an aborted landing like a go-around.

Related Concepts:

  • What is a 'touch-and-go landing', and how does it relate to a go-around?: A touch-and-go landing is a specific type of maneuver where an aircraft physically touches the runway surface, continues along the runway without fully stopping, and then takes off again. While it involves touching the ground, it is distinct from a go-around, which is an aborted landing intended to climb away and re-attempt landing or divert.

In naval aviation, a 'bolter' requires the pilot to immediately attempt landing again on the next pass.

Answer: False

In naval aviation, a 'bolter' signifies the tailhook failing to engage an arrestor cable; it does not mandate an immediate re-attempt but requires the aircraft to climb away and potentially re-enter the landing pattern.

Related Concepts:

  • What is a 'bolter' in the context of carrier operations?: A 'bolter' is a term used in naval aviation when an aircraft's tailhook fails to catch any of the arrestor cables on the flight deck after touching down. In such a scenario, the aircraft must be able to accelerate and climb away from the carrier.

A baulked landing is a high-risk maneuver primarily due to the aircraft's low energy state and altitude.

Answer: True

A baulked landing is considered high-risk because the aircraft is typically at a low altitude, decelerating, and in a low energy state, increasing the potential for Controlled Flight Into Terrain (CFIT).

Related Concepts:

  • Why is a baulked landing considered a high-risk maneuver?: A baulked landing is considered high-risk because the aircraft is usually in a low energy state, at a low altitude, with engines at idle, and decelerating. The risk of collision with obstacles or terrain is also heightened, especially when below prescribed minimum altitudes, potentially leading to Controlled Flight Into Terrain (CFIT).
  • What is meant by the term 'baulked landing' or 'rejected landing'?: A baulked landing, also known as a rejected landing, is an unofficial term typically referring to a very late go-around. This maneuver is initiated when the aircraft is already below the prescribed decision height or minimum descent altitude, or even after it has touched down on the runway.

A 'wave-off' is a term used for aborted landings in general aviation.

Answer: False

The term 'wave-off' is specific to naval aviation, particularly carrier landings, and is not generally used in general aviation for aborted landings.

Related Concepts:

  • What is the equivalent term for a go-around in naval aviation, particularly when landing on an aircraft carrier?: In naval aviation, especially during carrier landings, the term used instead of 'go-around' is 'wave-off'. This signifies a decision to abort the landing attempt.
  • What is a go-around in the context of aviation operations?: In aviation, a go-around is defined as the aborted landing of an aircraft. This action can occur while the aircraft is on its final approach to landing or after it has already touched down on the runway.

The term 'baulked landing' is synonymous with a go-around initiated early in the approach phase.

Answer: False

The term 'baulked landing' is generally understood as a very late go-around, initiated near or after touchdown, rather than one performed early in the approach phase.

Related Concepts:

  • What is meant by the term 'baulked landing' or 'rejected landing'?: A baulked landing, also known as a rejected landing, is an unofficial term typically referring to a very late go-around. This maneuver is initiated when the aircraft is already below the prescribed decision height or minimum descent altitude, or even after it has touched down on the runway.
  • Why is a baulked landing considered a high-risk maneuver?: A baulked landing is considered high-risk because the aircraft is usually in a low energy state, at a low altitude, with engines at idle, and decelerating. The risk of collision with obstacles or terrain is also heightened, especially when below prescribed minimum altitudes, potentially leading to Controlled Flight Into Terrain (CFIT).

What is the naval aviation equivalent of a 'go-around' during carrier landings?

Answer: Wave-off

In naval aviation, particularly during carrier landings, the term 'wave-off' is used to signify an aborted landing attempt, serving the same safety function as a go-around in other contexts.

Related Concepts:

  • What is the equivalent term for a go-around in naval aviation, particularly when landing on an aircraft carrier?: In naval aviation, especially during carrier landings, the term used instead of 'go-around' is 'wave-off'. This signifies a decision to abort the landing attempt.
  • Why is a wave-off considered a fail-safe measure during aircraft carrier landings?: When landing on an aircraft carrier, the pilot always initiates a wave-off by applying full thrust as a fail-safe. This ensures that if the aircraft's tailhook fails to catch any of the arrestor cables, the aircraft has sufficient power to climb away safely, preventing a potential crash off the carrier's deck.

Why is a 'wave-off' considered a fail-safe measure on aircraft carriers?

Answer: It involves applying full thrust to ensure a safe climb if the landing fails.

A 'wave-off' is a fail-safe measure because it mandates the immediate application of full thrust, ensuring the aircraft can safely climb away if the landing attempt is unsuccessful, such as if the tailhook fails to engage.

Related Concepts:

  • Why is a wave-off considered a fail-safe measure during aircraft carrier landings?: When landing on an aircraft carrier, the pilot always initiates a wave-off by applying full thrust as a fail-safe. This ensures that if the aircraft's tailhook fails to catch any of the arrestor cables, the aircraft has sufficient power to climb away safely, preventing a potential crash off the carrier's deck.
  • What is the equivalent term for a go-around in naval aviation, particularly when landing on an aircraft carrier?: In naval aviation, especially during carrier landings, the term used instead of 'go-around' is 'wave-off'. This signifies a decision to abort the landing attempt.

What does the term 'bolter' signify in carrier operations?

Answer: The tailhook failing to catch any arrestor cables after touchdown.

In carrier operations, a 'bolter' occurs when an aircraft's tailhook fails to engage any of the arrestor cables on the flight deck after touchdown, requiring the aircraft to climb away.

Related Concepts:

  • What is a 'bolter' in the context of carrier operations?: A 'bolter' is a term used in naval aviation when an aircraft's tailhook fails to catch any of the arrestor cables on the flight deck after touching down. In such a scenario, the aircraft must be able to accelerate and climb away from the carrier.

What is a 'baulked landing'?

Answer: A very late go-around, initiated near or after touchdown.

A 'baulked landing,' also known as a rejected landing, is an unofficial term typically used to describe a go-around maneuver initiated very late in the landing sequence, near or after touchdown.

Related Concepts:

  • Why is a baulked landing considered a high-risk maneuver?: A baulked landing is considered high-risk because the aircraft is usually in a low energy state, at a low altitude, with engines at idle, and decelerating. The risk of collision with obstacles or terrain is also heightened, especially when below prescribed minimum altitudes, potentially leading to Controlled Flight Into Terrain (CFIT).
  • What is meant by the term 'baulked landing' or 'rejected landing'?: A baulked landing, also known as a rejected landing, is an unofficial term typically referring to a very late go-around. This maneuver is initiated when the aircraft is already below the prescribed decision height or minimum descent altitude, or even after it has touched down on the runway.

Why is a baulked landing considered high-risk?

Answer: The aircraft is often at low altitude, decelerating, and in a low energy state.

Baulked landings are high-risk due to the aircraft's low altitude, reduced energy state, and deceleration, which increases the potential for Controlled Flight Into Terrain (CFIT) if not managed precisely.

Related Concepts:

  • Why is a baulked landing considered a high-risk maneuver?: A baulked landing is considered high-risk because the aircraft is usually in a low energy state, at a low altitude, with engines at idle, and decelerating. The risk of collision with obstacles or terrain is also heightened, especially when below prescribed minimum altitudes, potentially leading to Controlled Flight Into Terrain (CFIT).
  • What is meant by the term 'baulked landing' or 'rejected landing'?: A baulked landing, also known as a rejected landing, is an unofficial term typically referring to a very late go-around. This maneuver is initiated when the aircraft is already below the prescribed decision height or minimum descent altitude, or even after it has touched down on the runway.

How does a 'missed approach' relate to a 'go-around'?

Answer: A missed approach is a specific IFR procedure, while go-around is a general term.

A missed approach is a defined procedure specifically for Instrument Flight Rules (IFR) operations when landing cannot be completed, whereas 'go-around' is a more general term applicable across various flight conditions.

Related Concepts:

  • How does a 'missed approach' procedure differ from or relate to a go-around?: A missed approach is a related concept, specifically used in the context of Instrument Flight Rules (IFR) flight. While a go-around is the general term for aborting a landing, a missed approach is a defined procedure followed when an instrument landing cannot be completed.
  • What is a go-around in the context of aviation operations?: In aviation, a go-around is defined as the aborted landing of an aircraft. This action can occur while the aircraft is on its final approach to landing or after it has already touched down on the runway.

What is a 'touch-and-go landing'?

Answer: A maneuver where the aircraft touches down and takes off again without stopping.

A touch-and-go landing is a specific maneuver where an aircraft touches the runway surface and then immediately takes off again without coming to a complete stop.

Related Concepts:

  • What is a 'touch-and-go landing', and how does it relate to a go-around?: A touch-and-go landing is a specific type of maneuver where an aircraft physically touches the runway surface, continues along the runway without fully stopping, and then takes off again. While it involves touching the ground, it is distinct from a go-around, which is an aborted landing intended to climb away and re-attempt landing or divert.

Aviation Safety: Research, Statistics, and Best Practices

A high percentage of unstabilized approaches in commercial aviation result in a go-around.

Answer: False

Contrary to the assertion, only a small percentage (approximately 3-5%) of unstabilized approaches in commercial aviation actually result in a go-around.

Related Concepts:

  • What is identified as a primary risk factor in approach and landing accidents, and what is the rate of go-arounds for unstabilized approaches?: The lack of a go-around decision is identified as the leading risk factor in approach and landing accidents, and it is also a primary cause of runway excursions. Despite this, only an estimated 3% to 5% of unstabilized approaches actually result in a go-around.
  • What are some common reasons for an aircraft to perform a go-around?: Common reasons for initiating a go-around include an unstabilized approach, an improperly executed landing such as a bounce, encountering a mechanical issue, a sudden change in wind conditions, an unsafe flight condition arising, or if there is an obstruction on the runway.

The Embry-Riddle study found that having the autothrottle deactivated was strongly correlated with stable approaches.

Answer: False

The Embry-Riddle study indicated that autothrottle deactivation was strongly correlated with *unstable* approaches, not stable ones.

Related Concepts:

  • What specific factors were found to have the highest correlation with unstable approaches at 500 feet AGL in the Embry-Riddle study?: The Embry-Riddle Aeronautical University study found that the factors with the highest correlation to unstable approaches at 500 feet AGL were, in order: thrust levers at idle, autothrottle deactivated, speed brakes deployed, glideslope deviation, localizer deviation, flaps not extended, rate of descent deviation, approach speed deviation, and an incomplete landing checklist.
  • What are some of the predictors for an unstable approach identified by a study at Embry-Riddle Aeronautical University?: A study by Embry-Riddle Aeronautical University identified several factors highly correlated with unstable approaches at 500 feet above ground level. These include thrust levers at idle, autothrottle deactivated, speed brakes deployed, glideslope deviation, localizer deviation, flaps not extended, rate of descent deviation, approach speed deviation, and an incomplete landing checklist.

Go-arounds are a frequent occurrence for pilots, with long-haul pilots performing them multiple times a year.

Answer: False

Go-arounds are relatively infrequent events; long-haul pilots typically perform them only once every two to three years, while short-haul pilots might perform one or two annually.

Related Concepts:

  • How often do short-haul and long-haul pilots typically perform go-arounds?: Go-arounds are relatively rare for most commercial pilots. On average, a short-haul pilot might perform one or two go-arounds per year, while a long-haul pilot might perform one every two to three years.
  • What is the average frequency of go-arounds in commercial aviation?: Go-arounds occur with an average rate of approximately 1 to 3 per 1000 approaches. However, these rates can vary depending on the specific aircraft operator and the operational environment.

The Embry-Riddle study identified thrust levers at idle as having low correlation with unstable approaches.

Answer: False

The Embry-Riddle study identified thrust levers at idle as having a *high* correlation with unstable approaches, not a low one.

Related Concepts:

  • What specific factors were found to have the highest correlation with unstable approaches at 500 feet AGL in the Embry-Riddle study?: The Embry-Riddle Aeronautical University study found that the factors with the highest correlation to unstable approaches at 500 feet AGL were, in order: thrust levers at idle, autothrottle deactivated, speed brakes deployed, glideslope deviation, localizer deviation, flaps not extended, rate of descent deviation, approach speed deviation, and an incomplete landing checklist.
  • What are some of the predictors for an unstable approach identified by a study at Embry-Riddle Aeronautical University?: A study by Embry-Riddle Aeronautical University identified several factors highly correlated with unstable approaches at 500 feet above ground level. These include thrust levers at idle, autothrottle deactivated, speed brakes deployed, glideslope deviation, localizer deviation, flaps not extended, rate of descent deviation, approach speed deviation, and an incomplete landing checklist.

The rate of go-arounds in commercial aviation is approximately 10-20 per 1000 approaches.

Answer: False

The average rate of go-arounds in commercial aviation is significantly lower, approximately 1 to 3 per 1000 approaches.

Related Concepts:

  • What is the average frequency of go-arounds in commercial aviation?: Go-arounds occur with an average rate of approximately 1 to 3 per 1000 approaches. However, these rates can vary depending on the specific aircraft operator and the operational environment.
  • How often do short-haul and long-haul pilots typically perform go-arounds?: Go-arounds are relatively rare for most commercial pilots. On average, a short-haul pilot might perform one or two go-arounds per year, while a long-haul pilot might perform one every two to three years.

A study found that speed brake deployment is a predictor of stable approaches.

Answer: False

The Embry-Riddle study identified speed brake deployment as a predictor of *unstable* approaches, not stable ones.

Related Concepts:

  • What specific factors were found to have the highest correlation with unstable approaches at 500 feet AGL in the Embry-Riddle study?: The Embry-Riddle Aeronautical University study found that the factors with the highest correlation to unstable approaches at 500 feet AGL were, in order: thrust levers at idle, autothrottle deactivated, speed brakes deployed, glideslope deviation, localizer deviation, flaps not extended, rate of descent deviation, approach speed deviation, and an incomplete landing checklist.
  • What are some of the predictors for an unstable approach identified by a study at Embry-Riddle Aeronautical University?: A study by Embry-Riddle Aeronautical University identified several factors highly correlated with unstable approaches at 500 feet above ground level. These include thrust levers at idle, autothrottle deactivated, speed brakes deployed, glideslope deviation, localizer deviation, flaps not extended, rate of descent deviation, approach speed deviation, and an incomplete landing checklist.

What is the average frequency of go-arounds in commercial aviation?

Answer: About 1-3 per 1000 approaches.

Go-arounds occur with an average frequency of approximately 1 to 3 per 1000 approaches in commercial aviation.

Related Concepts:

  • What is the average frequency of go-arounds in commercial aviation?: Go-arounds occur with an average rate of approximately 1 to 3 per 1000 approaches. However, these rates can vary depending on the specific aircraft operator and the operational environment.
  • How often do short-haul and long-haul pilots typically perform go-arounds?: Go-arounds are relatively rare for most commercial pilots. On average, a short-haul pilot might perform one or two go-arounds per year, while a long-haul pilot might perform one every two to three years.

Which factor was identified by the Embry-Riddle study as having the highest correlation with unstable approaches at 500 feet AGL?

Answer: Thrust levers at idle

The Embry-Riddle Aeronautical University study identified thrust levers at idle as the factor with the highest correlation to unstable approaches at 500 feet AGL.

Related Concepts:

  • What specific factors were found to have the highest correlation with unstable approaches at 500 feet AGL in the Embry-Riddle study?: The Embry-Riddle Aeronautical University study found that the factors with the highest correlation to unstable approaches at 500 feet AGL were, in order: thrust levers at idle, autothrottle deactivated, speed brakes deployed, glideslope deviation, localizer deviation, flaps not extended, rate of descent deviation, approach speed deviation, and an incomplete landing checklist.
  • What are some of the predictors for an unstable approach identified by a study at Embry-Riddle Aeronautical University?: A study by Embry-Riddle Aeronautical University identified several factors highly correlated with unstable approaches at 500 feet above ground level. These include thrust levers at idle, autothrottle deactivated, speed brakes deployed, glideslope deviation, localizer deviation, flaps not extended, rate of descent deviation, approach speed deviation, and an incomplete landing checklist.

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