The document discusses improving aircraft survivability training for Army aviators. It proposes a new Aviation Mission Survivability (AMS) training program that would immerse aircrews in simulated hostile environments during training flights using advanced simulation technologies. This would allow aircrews to practice responding to threats like they would in combat situations, improving survivability. The training would focus on rehearsing actions on contact with threats and assessing responses to increase survival chances against different threat systems. Implementing these simulated threat scenarios into regular training flights could maximize training benefits without increasing costs.
This document discusses the importance of aviation mission survivability training for Army aviators. It outlines how the Army Aviation Mission Survivability (AMS) program takes a holistic approach, focusing on technical, crew-level, and collective training scenarios to ensure aviators can identify threats and respond appropriately. Simulation and threat emulation systems are important training tools to help aviators develop reflexive responses for reacting safely to threats. The goal is to maximize preserving aviation combat power through realistic training that will help aviators survive in future high-threat environments.
This chapter discusses fire suppression, ventilation, and overhaul techniques for aircraft rescue and firefighting personnel. It covers identifying suppression methods, applying extinguishing agents such as foam and dry chemicals, conducting interior attack, and ventilating aircraft during fires. Personnel must extinguish all fires, prevent re-ignition, and preserve evidence during overhaul operations following an incident. Safety precautions are emphasized, such as avoiding agitating fuels, using self-contained breathing apparatus, and preventing interference with passenger evacuation.
System safety flight training occurs in three phases: 1) traditional stick-and-rudder skills are developed to a high degree of confidence, 2) risk management concepts are introduced through scenarios, and 3) more complex scenarios requiring focus on multiple safety issues are used. A traditional maneuver, like a short-field landing, can illustrate this by first focusing on skills, then introducing various risk factors without increasing training time, and finally incorporating risks into a complex scenario. System safety also applies to important lessons, like controlled flight into terrain, by discussing contributing factors during ground school and cross-country flights.
This document discusses cockpit automation and its effects on pilot skills. It summarizes a seminal 1995 study by Veillette and Decker that found pilots flying aircraft with early electronic flight displays (EFIS) showed some erosion of manual flying skills compared to pilots of conventional aircraft, especially during abnormal maneuvers or when the autopilot was disengaged. While automation has safety benefits, pilots must understand its limitations and not rely solely on automation to avoid errors during emergencies or abnormal situations when manual flying skills are needed. Maintaining basic flying skills is important when using automated aircraft.
Risk management involves weighing the costs and benefits of risks. Hazard recognition is critical to risk management. A hazard is a present condition that could lead to an unplanned event, like an accident. Four common aviation hazards are a nick in a propeller blade, improper refueling, pilot fatigue, and use of unapproved parts. Personality, education, experience, and regulations all influence a pilot's ability to recognize hazards. Experience provides knowledge over time but can also provide a false sense of security that causes pilots to ignore or fail to recognize potential hazards.
- Airport firefighters must be thoroughly familiar with various types of civilian and military aircraft to safely operate during emergencies and recognize unique features of fixed-wing and rotary-wing aircraft.
- ARFF personnel need to understand the types of engines used to power aircraft and how to function safely around aircraft during normal and emergency conditions.
- Firefighters should be trained to recognize materials used in aircraft construction to understand how materials behave during crashes and fires, and identify and address fuel, power, and safety systems aboard aircraft.
This document discusses the importance of aviation mission survivability training for Army aviators. It outlines how the Army Aviation Mission Survivability (AMS) program takes a holistic approach, focusing on technical, crew-level, and collective training scenarios to ensure aviators can identify threats and respond appropriately. Simulation and threat emulation systems are important training tools to help aviators develop reflexive responses for reacting safely to threats. The goal is to maximize preserving aviation combat power through realistic training that will help aviators survive in future high-threat environments.
This chapter discusses fire suppression, ventilation, and overhaul techniques for aircraft rescue and firefighting personnel. It covers identifying suppression methods, applying extinguishing agents such as foam and dry chemicals, conducting interior attack, and ventilating aircraft during fires. Personnel must extinguish all fires, prevent re-ignition, and preserve evidence during overhaul operations following an incident. Safety precautions are emphasized, such as avoiding agitating fuels, using self-contained breathing apparatus, and preventing interference with passenger evacuation.
System safety flight training occurs in three phases: 1) traditional stick-and-rudder skills are developed to a high degree of confidence, 2) risk management concepts are introduced through scenarios, and 3) more complex scenarios requiring focus on multiple safety issues are used. A traditional maneuver, like a short-field landing, can illustrate this by first focusing on skills, then introducing various risk factors without increasing training time, and finally incorporating risks into a complex scenario. System safety also applies to important lessons, like controlled flight into terrain, by discussing contributing factors during ground school and cross-country flights.
This document discusses cockpit automation and its effects on pilot skills. It summarizes a seminal 1995 study by Veillette and Decker that found pilots flying aircraft with early electronic flight displays (EFIS) showed some erosion of manual flying skills compared to pilots of conventional aircraft, especially during abnormal maneuvers or when the autopilot was disengaged. While automation has safety benefits, pilots must understand its limitations and not rely solely on automation to avoid errors during emergencies or abnormal situations when manual flying skills are needed. Maintaining basic flying skills is important when using automated aircraft.
Risk management involves weighing the costs and benefits of risks. Hazard recognition is critical to risk management. A hazard is a present condition that could lead to an unplanned event, like an accident. Four common aviation hazards are a nick in a propeller blade, improper refueling, pilot fatigue, and use of unapproved parts. Personality, education, experience, and regulations all influence a pilot's ability to recognize hazards. Experience provides knowledge over time but can also provide a false sense of security that causes pilots to ignore or fail to recognize potential hazards.
- Airport firefighters must be thoroughly familiar with various types of civilian and military aircraft to safely operate during emergencies and recognize unique features of fixed-wing and rotary-wing aircraft.
- ARFF personnel need to understand the types of engines used to power aircraft and how to function safely around aircraft during normal and emergency conditions.
- Firefighters should be trained to recognize materials used in aircraft construction to understand how materials behave during crashes and fires, and identify and address fuel, power, and safety systems aboard aircraft.
- Airport firefighters must thoroughly familiarize themselves with the airport layout and surroundings in order to safely and efficiently perform their jobs. This includes understanding the airport type, classification, runway and taxiway systems, signs, and other key areas.
- Familiarity with these airport features can save valuable time during an emergency response and help protect both crash victims and the responders themselves. The design and infrastructure of the airport can significantly impact firefighting operations.
ACO-10 Aircraft Cargo Hazards, Including Haz-Mat and Dangerous Goods Brock Jester
- The chapter discusses strategies and tactics for responding to various aircraft emergencies and accidents. It covers components of the National Incident Management System-Incident Command System (NIMS-ICS) and how it provides an organizational structure for emergency responses.
- The document outlines procedures for responding to different types of in-flight emergencies, ground emergencies, and crashes including low-impact and high-impact scenarios. It stresses the importance of understanding response protocols, following appropriate safety warnings, and working within the chain of command during aircraft incident responses.
- ARFF personnel are instructed on factors to consider when sizing up an aircraft emergency scene and properly initiating rescue operations while prioritizing life safety above all else
This document discusses single-pilot resource management (SRM) and how its principles can be applied to single-pilot aircraft operations. It then describes an accident involving an experimental aircraft where the pilot had installed a six-way powered automobile seat without properly assessing the risks. This led to hazards like overheating the circuit breaker due to an incorrect amperage rating. The installation of the non-aviation seat ultimately contributed to an in-flight fire and crash that killed both pilots. The document uses this accident as an example of how failure to recognize hazards and properly evaluate risks can lead to fatal consequences.
This handbook provides tools and guidance for pilots to recognize and manage risk through all phases of flight. It discusses how approximately 85% of aviation accidents are caused by "pilot error" due to a lack of risk management training. The handbook teaches pilots to identify potential risks, determine if risks are justified, and establish standards and procedures to successfully manage risks. Checklists and scenarios in the appendices aim to help pilots incorporate risk management into flight planning and training to improve safety.
The document discusses methods for pilots to assess risk, including using a risk matrix to determine the likelihood and severity of potential hazards. It provides examples of assessing risks, such as the risk posed by deteriorating weather conditions for a VFR pilot. The document also discusses how pilots can mitigate identified risks, such as waiting for better weather or taking a more experienced pilot. A comprehensive risk assessment program is presented that considers additional factors like fatigue, weather, and flight planning. Determining the level of risk allows pilots to decide if flights require caution, exercise caution, or should be avoided or modified to reduce dangers.
ACO-7 Emergency Aircraft Evacuation and Assistance Brock Jester
This chapter of the document discusses aircraft rescue and firefighting (ARFF). It covers safety considerations and proper use of ARFF tools and equipment. A wide variety of hand tools and power tools are used, including saws, spreaders, and lighting/electrical equipment. The document outlines procedures for accessing aircraft interiors, operating in different environments, conducting rescues, and shutting down aircraft systems. It emphasizes doing all operations safely and prioritizing victim rescue and care.
ACO9 - Aviation Firefighting for Structual Trucks Brock Jester
This document discusses common incidents involving general aviation aircraft that fire departments may respond to. It outlines several types of incidents such as unsafe landing gear indicators, gear up landings, engine fires, interior fires, hot brakes and wheel fires, stalls, pilot errors, fueling incidents, animal strikes, and incidents specific to helicopters. For each type of incident, it identifies key factors for fire departments to consider such as safety procedures, aircraft access, appropriate extinguishing methods, and potential hazards.
ACO-5 Use of Handlines, Turrets, and other Appliances Brock Jester
This chapter discusses aircraft rescue and fire fighting (ARFF) apparatus. It explains that airports are categorized based on factors like aircraft size and daily departures, which determines the number and types of ARFF vehicles required. The chapter describes various types of ARFF apparatus and their features, including fire suppression equipment, safety systems, and methods for resupplying water and foam. It stresses the importance of ARFF vehicles being well-maintained and operational during airport operations.
ACO-6 Application of Extinguishing Agents Brock Jester
- ARFF personnel should be familiar with common extinguishing agents used to fight aircraft fires such as water, foam, dry chemical, dry powder, and clean agents. Foam applications are most widely used due to their greater ability to extinguish hydrocarbon and polar solvent fuel fires.
- ARFF personnel must understand the foam proportioning process and various eductors and equipment used. They should also understand the four methods to apply foam and common foam application equipment on ARFF apparatus.
- ARFF firefighters must have knowledge of dry chemical, dry powder, and clean agent extinguishing agents as well as the best uses of agents and application equipment.
This document discusses aeronautical decision making (ADM) and provides an example of how poor decision making can lead to an accident. It begins by explaining that ADM is a systematic approach that helps pilots determine the best course of action given the circumstances through recognizing hazards. The document then provides more details on the history of ADM training and the steps involved in good decision making. It also discusses analytical decision making using the DECIDE model. Finally, it gives an example of how a pilot rushing to make a Thanksgiving dinner ignored weather hazards and crashed while attempting a landing with 100 foot ceilings and 1/4 mile visibility, illustrating how failing to follow proper decision making can have tragic consequences.
Three out of four aviation accidents result from human error. Studies of human behavior examine both innate and learned factors that influence human performance. The Federal Aviation Administration utilizes such studies to understand why pilots make mistakes and reduce human errors. Research has identified several traits common in pilots prone to accidents, including disdain for rules, impulsiveness, and disregard for outside information. In contrast, successful pilots demonstrate concentration, workload management, and the ability to perform multiple tasks simultaneously.
This document discusses the concepts of Aeronautical Decision Making (ADM) and pilotage. It defines ADM as a systematic approach for pilots to determine the best course of action given a set of circumstances. The document outlines the basic steps of pilotage as navigating using landmarks on charts. It explains how ADM and pilotage are intertwined in flight planning by considering factors like the pilot, aircraft, environment and external pressures. Some operational pitfalls related to proper application of ADM during flight are also listed.
Aeronautical Decision Making And Risk Management For PilotsMySkyMom
This presentation relies heavily on the FAA\'s Risk Management Handbook, which can be found at http://www.faa.gov It covers factors related to ADM, statistics, best practices, and related case studies.
In the aftermath of the September 11, 2001 attacks on the World Trade Center Towers, and the inability of First Responders to effect a rescue of any victims above the aircraft impact points, the SKYSCRAPER EMERGENCY RESPONSE TEAM or IN-S.E.R.T., strategy was crafted with colleagues within academia, industry and government. Formulated with input from key members of the Detroit Fire Department, inclusive of the late General Manager Weylin Gildon, and the Chicago Fire Department, IN-S.E.R.T. was designed as a means to effectively rescue disaster victims trapped in historically inaccessible areas. In this case, the upper floors of a burning high-rise, while using off-the-shelf firefighting technology and modified first response rescue methodologies structured to epitomize operational simplicity. Moreover, it is to serve as a global first response template to be utilized by emergency teams in multiple countries benefitting from strict protocols of cooperation/collaboration.
IN-S.E.R.T. teams, strategically based around the world and equipped with Boeing C-17 Globemasters modestly modified for this mission, would be capable of responding to any emergency, anywhere.
This paper was presented to 18 Argonne National Laboratory scientists and 2 FEMA representatives for review on 18 October, 2001.
Copyright GHHLLC 2001-2008
248-695-0009
This document discusses identifying hazards and mitigating risk as a pilot. It introduces the PAVE checklist, which examines Pilot, Aircraft, Environment, and External Pressures. The Pilot section discusses ensuring a pilot is fit to fly through the IMSAFE checklist, which evaluates Illness, Medication, Stress, Alcohol, Fatigue, and Emotion. Stress management is important as stress can impact decision-making. The Aircraft section suggests evaluating limitations of the aircraft. The Environment section considers factors like weather. External Pressures involve critically evaluating the necessity of flights. Using frameworks like PAVE and IMSAFE helps pilots identify risks and make safe go/no-go decisions.
ACO-3 Rescue and Firefighting Personnel SafetyBrock Jester
- Airport firefighters must be trained in using personal protective equipment and self-contained breathing apparatus to safely perform their jobs. They should understand firefighter safety at the fire station, during response, and on scene.
- ARFF personnel should anticipate hazards to mutual aid firefighters and be well-versed in general aircraft hazards as well as hazards from systems, materials, cargo, and military aircraft. They should also be able to identify and appropriately respond to potential terrorist incidents.
ACO- 9 Adapting and Using Structural and Firefighting Equipment for Aircraft ...Brock Jester
Driver/operators of ARFF vehicles are responsible for vehicle inspection and maintenance to ensure systems are functioning properly. They must also safely drive vehicles to emergency scenes, positioning the vehicle considering the terrain and limitations of ARFF apparatus. Driver/operators are responsible for operating agent discharge systems and administering foam and water, practicing frequently to master agent management.
Chapter 01 Qualification for Aircraft Rescue and Firefighting Personnel Brock Jester
- ARFF personnel have three main priorities - rescue occupants, extinguish fires, and remove debris. They must be highly trained to carry out these time-critical missions.
- The history of ARFF dates back to the early days of aviation and has evolved with developments in aircraft technology. Significant milestones include regulations established during WWII and improvements in response to the advent of commercial jet travel.
- ARFF training programs cover skills like aircraft familiarization, emergency response techniques, and operating specialized vehicles and equipment that are required to effectively respond to airport incidents and crashes.
An Airport/Community Emergency Plan (A/CEP) should address multiple considerations and hazards at an airport. It should identify all agencies and organizations involved in emergency response, the roles and resources each can provide, and plans for coordinating communications and response. The A/CEP also needs to consider specific emergency scenarios like aircraft accidents, fires, and hazardous materials. Regular training exercises are important so all groups are prepared to fulfill their roles according to the A/CEP in an actual emergency.
The US Army Aviation Center of Excellence recently conducted a review of the Aviation Mission Survivability Officer career track. Field commanders overwhelmingly supported retaining the program. While promotion rates were generally equal or better than other tracks, selections to Chief Warrant Officer 5 were slightly lower for AMS officers. To address issues, the Center will enhance AMS training and develop new doctrine and tactics manuals. Planned improvements include updated computer-based training, integrated threat scenarios, and virtual/live training capabilities to better prepare AMS officers and aircrews. The review determined the AMS officer track is viable and critical to ensuring preservation of aviation combat power.
Aviation Training Exercises - Supporting Deployment in the 21st Century - finalChristopher Shotts
The document discusses aviation training exercises (ATX) that are used to prepare units for deployment overseas. An example ATX scenario is described where aviation and ground forces conduct a mission in a simulated battle. The simulation allows units to train in a realistic but low-cost and low-risk environment. ATX helps units learn lessons and sharpen collective skills before deployment. The use of virtual simulators for collective training has improved over time and provides an unsurpassed training benefit when integrated into larger exercises.
- Airport firefighters must thoroughly familiarize themselves with the airport layout and surroundings in order to safely and efficiently perform their jobs. This includes understanding the airport type, classification, runway and taxiway systems, signs, and other key areas.
- Familiarity with these airport features can save valuable time during an emergency response and help protect both crash victims and the responders themselves. The design and infrastructure of the airport can significantly impact firefighting operations.
ACO-10 Aircraft Cargo Hazards, Including Haz-Mat and Dangerous Goods Brock Jester
- The chapter discusses strategies and tactics for responding to various aircraft emergencies and accidents. It covers components of the National Incident Management System-Incident Command System (NIMS-ICS) and how it provides an organizational structure for emergency responses.
- The document outlines procedures for responding to different types of in-flight emergencies, ground emergencies, and crashes including low-impact and high-impact scenarios. It stresses the importance of understanding response protocols, following appropriate safety warnings, and working within the chain of command during aircraft incident responses.
- ARFF personnel are instructed on factors to consider when sizing up an aircraft emergency scene and properly initiating rescue operations while prioritizing life safety above all else
This document discusses single-pilot resource management (SRM) and how its principles can be applied to single-pilot aircraft operations. It then describes an accident involving an experimental aircraft where the pilot had installed a six-way powered automobile seat without properly assessing the risks. This led to hazards like overheating the circuit breaker due to an incorrect amperage rating. The installation of the non-aviation seat ultimately contributed to an in-flight fire and crash that killed both pilots. The document uses this accident as an example of how failure to recognize hazards and properly evaluate risks can lead to fatal consequences.
This handbook provides tools and guidance for pilots to recognize and manage risk through all phases of flight. It discusses how approximately 85% of aviation accidents are caused by "pilot error" due to a lack of risk management training. The handbook teaches pilots to identify potential risks, determine if risks are justified, and establish standards and procedures to successfully manage risks. Checklists and scenarios in the appendices aim to help pilots incorporate risk management into flight planning and training to improve safety.
The document discusses methods for pilots to assess risk, including using a risk matrix to determine the likelihood and severity of potential hazards. It provides examples of assessing risks, such as the risk posed by deteriorating weather conditions for a VFR pilot. The document also discusses how pilots can mitigate identified risks, such as waiting for better weather or taking a more experienced pilot. A comprehensive risk assessment program is presented that considers additional factors like fatigue, weather, and flight planning. Determining the level of risk allows pilots to decide if flights require caution, exercise caution, or should be avoided or modified to reduce dangers.
ACO-7 Emergency Aircraft Evacuation and Assistance Brock Jester
This chapter of the document discusses aircraft rescue and firefighting (ARFF). It covers safety considerations and proper use of ARFF tools and equipment. A wide variety of hand tools and power tools are used, including saws, spreaders, and lighting/electrical equipment. The document outlines procedures for accessing aircraft interiors, operating in different environments, conducting rescues, and shutting down aircraft systems. It emphasizes doing all operations safely and prioritizing victim rescue and care.
ACO9 - Aviation Firefighting for Structual Trucks Brock Jester
This document discusses common incidents involving general aviation aircraft that fire departments may respond to. It outlines several types of incidents such as unsafe landing gear indicators, gear up landings, engine fires, interior fires, hot brakes and wheel fires, stalls, pilot errors, fueling incidents, animal strikes, and incidents specific to helicopters. For each type of incident, it identifies key factors for fire departments to consider such as safety procedures, aircraft access, appropriate extinguishing methods, and potential hazards.
ACO-5 Use of Handlines, Turrets, and other Appliances Brock Jester
This chapter discusses aircraft rescue and fire fighting (ARFF) apparatus. It explains that airports are categorized based on factors like aircraft size and daily departures, which determines the number and types of ARFF vehicles required. The chapter describes various types of ARFF apparatus and their features, including fire suppression equipment, safety systems, and methods for resupplying water and foam. It stresses the importance of ARFF vehicles being well-maintained and operational during airport operations.
ACO-6 Application of Extinguishing Agents Brock Jester
- ARFF personnel should be familiar with common extinguishing agents used to fight aircraft fires such as water, foam, dry chemical, dry powder, and clean agents. Foam applications are most widely used due to their greater ability to extinguish hydrocarbon and polar solvent fuel fires.
- ARFF personnel must understand the foam proportioning process and various eductors and equipment used. They should also understand the four methods to apply foam and common foam application equipment on ARFF apparatus.
- ARFF firefighters must have knowledge of dry chemical, dry powder, and clean agent extinguishing agents as well as the best uses of agents and application equipment.
This document discusses aeronautical decision making (ADM) and provides an example of how poor decision making can lead to an accident. It begins by explaining that ADM is a systematic approach that helps pilots determine the best course of action given the circumstances through recognizing hazards. The document then provides more details on the history of ADM training and the steps involved in good decision making. It also discusses analytical decision making using the DECIDE model. Finally, it gives an example of how a pilot rushing to make a Thanksgiving dinner ignored weather hazards and crashed while attempting a landing with 100 foot ceilings and 1/4 mile visibility, illustrating how failing to follow proper decision making can have tragic consequences.
Three out of four aviation accidents result from human error. Studies of human behavior examine both innate and learned factors that influence human performance. The Federal Aviation Administration utilizes such studies to understand why pilots make mistakes and reduce human errors. Research has identified several traits common in pilots prone to accidents, including disdain for rules, impulsiveness, and disregard for outside information. In contrast, successful pilots demonstrate concentration, workload management, and the ability to perform multiple tasks simultaneously.
This document discusses the concepts of Aeronautical Decision Making (ADM) and pilotage. It defines ADM as a systematic approach for pilots to determine the best course of action given a set of circumstances. The document outlines the basic steps of pilotage as navigating using landmarks on charts. It explains how ADM and pilotage are intertwined in flight planning by considering factors like the pilot, aircraft, environment and external pressures. Some operational pitfalls related to proper application of ADM during flight are also listed.
Aeronautical Decision Making And Risk Management For PilotsMySkyMom
This presentation relies heavily on the FAA\'s Risk Management Handbook, which can be found at http://www.faa.gov It covers factors related to ADM, statistics, best practices, and related case studies.
In the aftermath of the September 11, 2001 attacks on the World Trade Center Towers, and the inability of First Responders to effect a rescue of any victims above the aircraft impact points, the SKYSCRAPER EMERGENCY RESPONSE TEAM or IN-S.E.R.T., strategy was crafted with colleagues within academia, industry and government. Formulated with input from key members of the Detroit Fire Department, inclusive of the late General Manager Weylin Gildon, and the Chicago Fire Department, IN-S.E.R.T. was designed as a means to effectively rescue disaster victims trapped in historically inaccessible areas. In this case, the upper floors of a burning high-rise, while using off-the-shelf firefighting technology and modified first response rescue methodologies structured to epitomize operational simplicity. Moreover, it is to serve as a global first response template to be utilized by emergency teams in multiple countries benefitting from strict protocols of cooperation/collaboration.
IN-S.E.R.T. teams, strategically based around the world and equipped with Boeing C-17 Globemasters modestly modified for this mission, would be capable of responding to any emergency, anywhere.
This paper was presented to 18 Argonne National Laboratory scientists and 2 FEMA representatives for review on 18 October, 2001.
Copyright GHHLLC 2001-2008
248-695-0009
This document discusses identifying hazards and mitigating risk as a pilot. It introduces the PAVE checklist, which examines Pilot, Aircraft, Environment, and External Pressures. The Pilot section discusses ensuring a pilot is fit to fly through the IMSAFE checklist, which evaluates Illness, Medication, Stress, Alcohol, Fatigue, and Emotion. Stress management is important as stress can impact decision-making. The Aircraft section suggests evaluating limitations of the aircraft. The Environment section considers factors like weather. External Pressures involve critically evaluating the necessity of flights. Using frameworks like PAVE and IMSAFE helps pilots identify risks and make safe go/no-go decisions.
ACO-3 Rescue and Firefighting Personnel SafetyBrock Jester
- Airport firefighters must be trained in using personal protective equipment and self-contained breathing apparatus to safely perform their jobs. They should understand firefighter safety at the fire station, during response, and on scene.
- ARFF personnel should anticipate hazards to mutual aid firefighters and be well-versed in general aircraft hazards as well as hazards from systems, materials, cargo, and military aircraft. They should also be able to identify and appropriately respond to potential terrorist incidents.
ACO- 9 Adapting and Using Structural and Firefighting Equipment for Aircraft ...Brock Jester
Driver/operators of ARFF vehicles are responsible for vehicle inspection and maintenance to ensure systems are functioning properly. They must also safely drive vehicles to emergency scenes, positioning the vehicle considering the terrain and limitations of ARFF apparatus. Driver/operators are responsible for operating agent discharge systems and administering foam and water, practicing frequently to master agent management.
Chapter 01 Qualification for Aircraft Rescue and Firefighting Personnel Brock Jester
- ARFF personnel have three main priorities - rescue occupants, extinguish fires, and remove debris. They must be highly trained to carry out these time-critical missions.
- The history of ARFF dates back to the early days of aviation and has evolved with developments in aircraft technology. Significant milestones include regulations established during WWII and improvements in response to the advent of commercial jet travel.
- ARFF training programs cover skills like aircraft familiarization, emergency response techniques, and operating specialized vehicles and equipment that are required to effectively respond to airport incidents and crashes.
An Airport/Community Emergency Plan (A/CEP) should address multiple considerations and hazards at an airport. It should identify all agencies and organizations involved in emergency response, the roles and resources each can provide, and plans for coordinating communications and response. The A/CEP also needs to consider specific emergency scenarios like aircraft accidents, fires, and hazardous materials. Regular training exercises are important so all groups are prepared to fulfill their roles according to the A/CEP in an actual emergency.
The US Army Aviation Center of Excellence recently conducted a review of the Aviation Mission Survivability Officer career track. Field commanders overwhelmingly supported retaining the program. While promotion rates were generally equal or better than other tracks, selections to Chief Warrant Officer 5 were slightly lower for AMS officers. To address issues, the Center will enhance AMS training and develop new doctrine and tactics manuals. Planned improvements include updated computer-based training, integrated threat scenarios, and virtual/live training capabilities to better prepare AMS officers and aircrews. The review determined the AMS officer track is viable and critical to ensuring preservation of aviation combat power.
Aviation Training Exercises - Supporting Deployment in the 21st Century - finalChristopher Shotts
The document discusses aviation training exercises (ATX) that are used to prepare units for deployment overseas. An example ATX scenario is described where aviation and ground forces conduct a mission in a simulated battle. The simulation allows units to train in a realistic but low-cost and low-risk environment. ATX helps units learn lessons and sharpen collective skills before deployment. The use of virtual simulators for collective training has improved over time and provides an unsurpassed training benefit when integrated into larger exercises.
A monte carlo simulation for evaluating airborne collision risk in intersecti...MEHenry
The Intersecting Operations (IO) Model was developed to define a set of separation standards for converging and intersecting runway operations which statistically mitigates collision risk for modeled airport geometries and associated parameters. The IO Model incorporates synthetic trajectory models that account for the variation within historical environmental variables and actual flight data informed by NOP and ASDE-X sources. This model provides a simulation by which analysts can statistically determine an area of unacceptable risk and propose a risk mitigation methodology for these areas.
FAA Advanced Qualification Program (AQP) and CRM for Military & .docxlmelaine
FAA Advanced Qualification Program (AQP) and CRM for Military & Single Seat Pilots: Applications in CRM
ASCI 516 Applications in CRM
Module 8 Presentation
Military History of CRM
Military interest in CRM to prevent errors increased when training suggested an enhancement of mission effectiveness was also shown
In the Air Force, CRM was first considered as a way to take advantage of developments in training to update existing training for aircrew coordination
1980’s training programs in the Air Force, Army and Navy were generally referred to as Aircrew Coordination Training (ACT)
2
CRM in the Military
In 1970, civil aviation took the lead in CRM, and the military began implementing this type of training in the early 1980’s
3
Air Carrier and Military Aviation
Commonalities
Navigation
Weather
Controlling aircraft in flight
4
Differences
Purpose of organization
Qualifications of crews
Rank distinctions
Responsibilities of the crews
Labor relations
Miscellaneous factors (ie. Training)
5
Differences - Task
Task environment
Mission tasks
Decision goals
Time elements
Mission Alterations
Equipment
6
Differences - People
Entry level experience of military vs. civilian pilots
Promotion in military often means accepting jobs not related to flying
Motivation
Study of pilots who were both commercial airline and military reserve pilots showed military offers more of the “fun flying” and camaraderie
7
Differences - Organization
Rank and position
Officer/enlisted relations possible inhibitor of assertiveness
Rank reversals considered likely to add tension to cockpit relations
Formality that exits in military cockpit (based on recognition of rank differences) may act as barrier to effective communications
8
Military aircrew are often given duties that may interfere with their flying
safety officer
logistics officer
legal officer
maintenance officer
EEO program oversight
Scheduling
ordering A/C parts
train
investigate accidents
lecture
hold inspections
sit on promotion boards
fill out fitness reports
keep records
counsel subordinates
report to superiors
9
Training
Airlines are in business of transporting people safely – training is make that possible
Military trains for accomplishment of mission
virtually all peacetime flying is training activity
10
Military ACT/CRM Programs
By 1989 the Air Force/Navy/Army had at least one CRM-type program
Most programs are generally stand-alone lecture/discussion sessions, lasting 1-3 days
Videotapes developed for the airlines are often incorporated directly into programs
11
CRM For General Aviation
The Single Pilot
CRM For General Aviation
“No man is an island” and no pilot flies in a protective bubble.
How we interact with every person we come into contact with before and during a flight can significantly affect the outcome of that flight
Learning how to handle yourself and those around you is one of the keys to being a safer pilot
Crew Resourc ...
FAA Advanced Qualification Program (AQP) and CRM for Military & .docxnealwaters20034
FAA Advanced Qualification Program (AQP) and CRM for Military & Single Seat Pilots: Applications in CRM
ASCI 516 Applications in CRM
Module 8 Presentation
Military History of CRM
Military interest in CRM to prevent errors increased when training suggested an enhancement of mission effectiveness was also shown
In the Air Force, CRM was first considered as a way to take advantage of developments in training to update existing training for aircrew coordination
1980’s training programs in the Air Force, Army and Navy were generally referred to as Aircrew Coordination Training (ACT)
2
CRM in the Military
In 1970, civil aviation took the lead in CRM, and the military began implementing this type of training in the early 1980’s
3
Air Carrier and Military Aviation
Commonalities
Navigation
Weather
Controlling aircraft in flight
4
Differences
Purpose of organization
Qualifications of crews
Rank distinctions
Responsibilities of the crews
Labor relations
Miscellaneous factors (ie. Training)
5
Differences - Task
Task environment
Mission tasks
Decision goals
Time elements
Mission Alterations
Equipment
6
Differences - People
Entry level experience of military vs. civilian pilots
Promotion in military often means accepting jobs not related to flying
Motivation
Study of pilots who were both commercial airline and military reserve pilots showed military offers more of the “fun flying” and camaraderie
7
Differences - Organization
Rank and position
Officer/enlisted relations possible inhibitor of assertiveness
Rank reversals considered likely to add tension to cockpit relations
Formality that exits in military cockpit (based on recognition of rank differences) may act as barrier to effective communications
8
Military aircrew are often given duties that may interfere with their flying
safety officer
logistics officer
legal officer
maintenance officer
EEO program oversight
Scheduling
ordering A/C parts
train
investigate accidents
lecture
hold inspections
sit on promotion boards
fill out fitness reports
keep records
counsel subordinates
report to superiors
9
Training
Airlines are in business of transporting people safely – training is make that possible
Military trains for accomplishment of mission
virtually all peacetime flying is training activity
10
Military ACT/CRM Programs
By 1989 the Air Force/Navy/Army had at least one CRM-type program
Most programs are generally stand-alone lecture/discussion sessions, lasting 1-3 days
Videotapes developed for the airlines are often incorporated directly into programs
11
CRM For General Aviation
The Single Pilot
CRM For General Aviation
“No man is an island” and no pilot flies in a protective bubble.
How we interact with every person we come into contact with before and during a flight can significantly affect the outcome of that flight
Learning how to handle yourself and those around you is one of the keys to being a safer pilot
Crew Resourc.
The document discusses reliability management for unmanned aerial systems (UAS). It outlines several key aspects:
1) Reliability is important for UAS as failures can impact safety and missions. Tools like FMEA and FRACAS can be used to analyze reliability.
2) Factors like MTBF, failure rate, and maintainability should be managed over the lifecycle. Tools like FTA can assess how failures affect overall reliability.
3) These reliability management tools can be implemented at different lifecycle phases from design to operation to improve UAS reliability and prevent failures.
The document discusses the future employment of unmanned aerial vehicles (UAVs) and issues related to developing them jointly across the military services. It notes that UAVs have traditionally performed dangerous missions like reconnaissance, but are now being developed as uninhabited combat aerial vehicles (UCAVs) capable of precision strikes. Developing UCAVs jointly could reduce costs while expanding their capabilities to support all services. However, services also need autonomy to develop systems fitting their own needs. Overall joint development requires coordinating requirements, ensuring interoperability, and establishing common doctrine and operating procedures for UAVs.
Shared aircraft spares holdings or pooling: To increase air carrier operation...Mersie Amha Melke
This document discusses shared aircraft spare parts holdings or pooling to decrease operational costs for air carriers. It provides background on how maintenance costs, including availability of spare parts, represent a significant portion of airline operating expenses. The document then reviews different methods airlines use to maintain spare parts, including individual stocking, commercial pooling with third parties, and cooperative pooling between airlines. It analyzes how cooperative pooling may allow for shorter lead times and more effective inventory usage while avoiding large capital costs of individual stocking. The document concludes by discussing modeling of spare part availability and how cooperative pooling is shown to be an optimal choice according to previous research models.
This document provides a roadmap for unmanned aircraft systems (UAS) from 2005 to 2030. It summarizes current UAS capabilities and programs across the military services. Key points include: Over 100,000 flight hours have been flown in support of operations in Afghanistan and Iraq. UAS now perform strike and signals collection missions in addition to reconnaissance. The roadmap establishes goals for developing new UAS capabilities like an unmanned combat aircraft and improving existing systems with technologies such as secure data links and adverse weather capabilities. It also addresses integrating UAS safely and routinely into national airspace.
This document summarizes the first use of digitally aided close air support (DACAS) in combat by US Marines in Afghanistan. It describes how the 1st Battalion, 6th Marines tactical air control party (TACP) and aircraft from Marine Attack Squadron 231 had trained extensively with the DACAS system called StrikeLink prior to deployment. They conducted the first DACAS strike in Marine Corps history on 19 February 2010, disproving claims that DACAS was not a viable option for combat. The author provides details of the TACP's training plan in the months leading up to deployment to achieve proficiency with StrikeLink. This included classroom instruction, live-fire exercises, and a major training exercise incorporating DAC
Available online at httpdocs.lib.purdue.edujateJournal.docxcelenarouzie
This study examined 113 commercial aviation accidents and incidents from 2002-2012 to evaluate the application of Crew Resource Management (CRM). 57 (50%) of the events listed a CRM-related causal factor or comment in the investigation report. The data supports the need for robust airline management procedures and CRM training guidelines to enhance pilot monitoring skills and CRM application, though no statistically significant relationship was found between CRM-related causes and airline management practices. CRM aims to develop skills like communication, decision making, and task management to mitigate human error, and plays an important role in flight safety internationally.
This document discusses aerodynamic modeling and simulation of aircraft at high angles of attack. It outlines some of the challenges, including developing accurate mathematical models from wind tunnel data and flight tests. Nonlinear effects like separated and unsteady flow require dynamic modeling approaches. Qualitative analysis of the nonlinear dynamics can reveal critical flight conditions like departures and spins. Flight simulations are used alongside flight tests to evaluate control laws and train pilots. Accurate modeling of phenomena like aerodynamic asymmetry is important for understanding spin behavior.
SEMS and FLIGHT SIMULATORS
The performance of flight simulators are also based on measures characterized by being punctual and indirect, and therefore inaccurate, which are interpreted according to calculations based on mathematical models generally known as Methods of Finite Elements (MEF), which as we know allow us to "predict" "approximate" solutions of the elasticity, represented by "springs" and "shock absorbers".
The document discusses how Army Aviation can prepare for future multi-domain battle by focusing on reach, protection, and lethality. It outlines upgrades to the AH-64E Apache to increase reach through improved performance and deployability. It also discusses efforts to enhance threat detection and aircraft protection systems to counter advanced air defenses. Finally, it covers ongoing work to improve lethality through new missile variants and a lightweight precision munition in development. The overall goal is for Army Aviation to generate more options across multiple domains, including land, sea, air, space, and cyber.
Term Paper Submitted in partial fulfillment of the requirements for the award of the degree of Bachelor of Technology In Aerospace Engineering.
AMITY UNIVERSITY DUBAI
Flight simulators provide a safe and cost-effective training method for pilots, as they can practice emergency scenarios and procedures without risk. Modern simulators use mathematical modeling to realistically simulate aircraft flight dynamics, systems, and motion. Flight simulators are also useful for research in areas like aircraft design, human factors, and aviation safety. They allow investigation of accidents by recreating conditions. Users can take on roles like pilots or air traffic controllers to improve skills. Data from simulators can be validated against real aircraft to ensure accurate simulation.
Charles Cooper is seeking a position as a Training Scenario Developer/Naval Air Controller for Flight Simulation Devices. He has over 13 years of experience as an Air Intercept Controller and Supervisor in the Navy, including creating hundreds of training scenarios. He is proficient in communication, Microsoft Office, and making decisions under stress. He has a Secret Security Clearance and is pursuing a degree in Criminal Justice Business.
SEMS and flight simulators
Current flight simulators provide inaccurate representations of aircraft mechanics and aerodynamics. Simulators can approximate but not predict aircraft behavior under all conditions like real flight. The best evaluation of a crew's skill comes from real flight conditions, not a simulator. While simulators are useful for training, they cannot accurately simulate extreme maneuvers or critical situations like the SEMS system could by monitoring the aircraft and crew in real-time to detect and correct errors. Implementing SEMS would improve safety by constantly improving crew skills and allowing aircraft to be maneuvered scientifically from take-off to landing without human error.
Human-Machine Interfaces for Increased UAS Pilot Situational Awarenessahuizote
This document discusses human-machine interfaces for increasing pilot situational awareness for unmanned aircraft systems. It outlines research on situation awareness, levels of autonomy, and an experimental design testing navigation situation awareness interfaces under manual, semi-autonomous, and fully autonomous levels of control. Preliminary results found similar situation awareness ratings across interface conditions when isolating navigation without communication and surveillance. Future work involves expanding tests to include communication interfaces.
A Review of Flight Dynamics and Numerical Analysis of an Unmanned Aerial Vehi...Designage Solutions
A brief study of flight dynamics and different types of simulation and analysis are presented here.
Find case studies in my next PPT.- http://www.slideshare.net/HarshadaGurav/flight-dynamics-and-numerical-analysis-of-an-unmanned-aerial-vehicle-uav
A Review of Flight Dynamics and Numerical Analysis of an Unmanned Aerial Vehi...
ArmyAviationMagazine-Oct14-Kelley
1. ARMY AVIATION Magazine 44 October 31, 2014
Over the past twelve years, Army
Aviation has operated in a counter-
insurgency environment and faced an
enemy with unsophisticated air defense
systems. Army aviators have a wealth
of experience facing these threats and,
as a result, have been highly successful
while maintaining a high aircraft
survivability rate.
Operating in a prolonged conflict
has allowed for several studies
including capabilities based assessment
focused on aircraft survivability to
occur. These studies resulted in the
aircraft survivability initial capabilities
document which indicates that loss of
situational awareness during evasive
maneuvers is a key factor contributing
to aircraft losses in combat. Focused on
evading the threat and ensuring that
an enemy weapons system does not
hit the aircraft, aviators sometimes fly
aircraft into the ground, or worse, into
other members of their flight during
a maneuver. Operational necessity
dictates Army aviators operate in close
proximity to the ground in order to
maintain our sacred bond of trust with
the ground maneuver forces we support.
I would suggest a new approach to
training aircrews, focused on the
preservation of combat power during
operations facing an enemy with more
advanced air defense systems.
In October 1984, then CW2
Charles Butler surmised in an article
in Aviation Digest, that Army Aviation
did not have a comprehensive training
plan for dealing with enemy threat
Aircraft Survivability Training -
A New Perspective
By CW5 Michael S. Kelley
SPECIAL FOCUS u Aircraft Survivability
A UH-60 common missile warning system
(CMWS) dispenses flares in response to a
simulated threat.
2. ARMY AVIATION Magazine 45 October 31, 2014
system capabilities and how to defeat
them. Over the past 30 years since
that discussion, Army Aviation has
continued to approach preparing
aviators in much the same manner.The
aviation enterprise is beginning to look
at new and innovative approaches to
provide enhanced training capability
to the aviation commander. In order
to achieve the maximum aircraft
survivability rates, aircrews should be
placed in training scenarios against
simulated threat systems with aircraft
survivability equipment (ASE)
emulations which precisely replicate
the aircrew interfaces.
A New Approach
Once an aircrew advances to
readiness level (RL) one status, the
Aviation Mission Survivability (AMS)
training program will immerse the
aircrew into a simulated hostile
environment. By integrating simulated
hostile scenarios into all aircrew
training mission flights, commanders
achieve maximum training benefit
from currently allocated flight time.
During these scenario-driven ATM
flights, aircrews practice, rehearse and
refine their aviation actions on contact,
ensuring the preservation of the aircraft
and crew. These crew and collective
threat based training scenarios would
be designed to increase the aircrew’s
ability to perform actions on contact
with precision. The AMS Officer
would assess the aircrew’s performance
by determining if their actions
increased or decreased their probability
of survival against that threat system or
category. If the assessment determines
their actions made the situation worse,
a discussion should take place on why
the choices were made, what actions
might have provided a more favorable
outcome,and then be followed by more
scenario engagements to refine the
aircrew’s responses.
Aircrews apply tactical flight
concepts to diminish the ability of
enemy threat system engagement,
effectively denying the shot. If the
tactical procedures lose effectiveness
during the conduct of the mission and
an enemy engagement occurs, ASE
defeats the engagement and provides
time and maneuver opportunities to
adjust tactics, reducing or denying
further engagement. Aircrews should
look at ASE declarations of threat,
display and audio announcements, as
the first step of an aircraft survivability
emergency procedure. The ASE
indications coupled with validation of
observed threat system visual signatures
dictates the counter-tactics which
will enhance aircraft survivability.
When engagements are measured in
seconds, these responses must be as
instinctive as responding to other in-
flight emergencies listed in chapter
nine. The effectiveness of enemy threat
systems, and the tactics used to defeat
an engagement require immediate and
precise actions on contact. Successful
aircrew performance of tactical
maneuvers depends on the instinctive
reaction of all crew members on-board.
The pilot on the controls is responsible
for executing the required counter-
tactics maneuver for the category of
the threat system being used. Each
category of threat system requires
differing counter-tactics response, with
a maneuver which defeats one threat
category, often results in catastrophic
outcome when used to counter another
category threat system.The pilot not on
the controls provides added situational
awareness for the safe outcome of
the maneuver. One of the pilots must
alert other aircraft in the flight of the
engagement to preclude them from
entering the weapons engagement
zone and becoming the next available
target. For those aircraft with non-
rated crew members, they must receive
the same audible indications as the
pilots for effective crew coordination.
Non-rated crew members perform
two critical tasks, the first of which is
to aid in confirming the threat system
category through visual threat signature
identification. The second is to provide
suppressive fires in response to the
threat system engagement for threats
in close proximity.
Replicate the Environment
Aviation operations in garrison need
to replicate the combat environment to
the greatest extent possible. Aircrews
should operate in garrison precisely
the same as they would in combat and
particularly where flight formations
are concerned. Practicing and refin-
ing actions on contact and integrating
combat maneuvering flight break-up
procedures will ultimately minimize
risks during combat operations. As an
example, units plan, brief and execute
inadvertent instrument meteorologi-
cal condition (IIMC) break-up proce-
dures; however, rehearsing the in-flight
break-up procedures due to enemy en-
gagement is not routinely conducted in
all units.
One could argue that both maneu-
vers are nearly identical and practicing
one provides enough fidelity. While
there are some similarities, IIMC is
increasing altitude and separation of
aircraft and an in-flight break up due
to enemy systems typically has all air-
craft turning the same direction, reduc-
ing altitude and often heading for the
same piece of masking terrain. Making
hard evasive turns in a tight formation
or company attack formations cre-
ates even higher risk factors which if
not planned and rehearsed could have
catastrophic outcomes. Some incidents
throughout the recent series of con-
flicts provide precedent for this.
Simulation
Advancements in the Aviation
Combined Arms Tactical Trainer (AV-
CATT) can now accurately replicate
U.S.ARMYPMOASECOURTESYPHOTO
3. ARMY AVIATION Magazine 46 October 31, 2014
the operational environment and are
tailorable. Threat visual signatures are
generated with enough fidelity to rival
the actual signatures. Advancements in
simulated threat system behaviors are
also more responsive to the application
of flight tactics, techniques and pro-
cedures. Integrating the most current
ASE systems,including those currently
being fielded was crucial to ensure rel-
evance of the scenario training. Sched-
uled upgrades include application of
version 13.1 software to the AH-64D,
integration of APR-39C(V)1 and
AVR-2B on the 60A/L series airframes
coupled with the continued refinement
of threat visual signatures. Planned sys-
tem upgrades will introduce advanced
threat capabilities, including new mari-
time threat system options.
Advances in cockpit technology,
coupled with existing software solu-
tions, make it possible to integrate vir-
tual threat replication and ASE system
emulation capability into each aircraft
platform.This capability would provide
the Aircrew Training Program (ATP)
commander programmable threats for
organic aircraft during ATM flights at
home station.Conceptually,the aircraft
being flown is digitally replicated in the
mission processor with accurate loca-
tion, altitude and airspeed. By blend-
ing live and virtual training capabilities,
this system provides a simulated threat
system and emulates ASE indications
and aircrew interfaces in a virtual hos-
tile environment. This will mark the
first time aircrews are able to effectively
train ASE employment in their aircraft
at their home station. ATP command-
ers, along with their AMS Officer, will
have the ability to immerse aircrews
into the manmade hostile environment
-on nearly every mission flown at no
additional unit cost.
Army Aviation provides “no fail”sup-
port to our ground brethren. Aviators
need to rehearse and refine their actions
on contact in order to maintain opera-
tional capacity in the face of increasing
threat capability. The Aviation Mission
Survivability program focuses on the
preservation of aviation combat power
through enhancing the number one
survivability system installed in each
aircraft, the thinking, breathing crew
members.
CW5 Michael S. Kelley is the Branch
Aviation Mission Survivability Officer
assigned to the U.S. Army Aviation
Center of Excellence, Fort Rucker, AL.
An AH-64 dispenses flares in response to
a simulated engagement.
U.S.ARMYPHOTOBYCW5MICHAELS.KELLEY
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