Welcome to the October 2024 edition of Flight Path, where we delve into the most pressing trends and innovations shaping the aviation industry this month.
1. Hydrogen-Powered Aircraft: The Future of Sustainable Aviation Hydrogen propulsion is emerging as a game-changer in the quest for sustainable aviation. Major aerospace companies are accelerating investments in hydrogen fuel cell technology, with expectations that the first test flights could take off by the end of 2024. These aircraft promise to significantly lower carbon emissions, supporting the industry's broader push toward sustainability. Sources: MYFLYRIGHT 2. Supersonic Travel: A New Era of Speed Supersonic travel, which has been dormant for decades, is poised for a major comeback. Companies like Boom Supersonic are spearheading efforts to introduce next-generation aircraft capable of reducing long-haul flight times by more than half. This innovation could redefine global travel, making it faster and more efficient than ever before. Sources: MYFLYRIGHT 3. AI and Automation: Revolutionizing Aviation Artificial intelligence (AI) and automation continue to transform aviation operations. From predictive maintenance systems that minimize aircraft downtime to AI-driven air traffic management, these technologies are enhancing efficiency and safety across the industry. AI is also being used to personalize passenger experiences, improving service quality and customer satisfaction. Sources: J.P. Morgan | Official Website, Airsiders 4. Embracing Multi-Modal Travel Airlines are increasingly integrating multi-modal travel solutions, combining air and rail services to offer seamless and sustainable travel experiences. By partnering with rail companies, airlines can provide travelers with convenient, eco-friendly options for shorter segments of their journeys, reducing the environmental impact of air travel. Sources: Airsiders 5. Navigating Economic Headwinds Despite robust consumer demand, especially in transatlantic travel, the aviation industry faces several economic challenges. These include capacity constraints and softer airfares in certain regions. Airlines are adapting by optimizing routes, diversifying revenue streams, and focusing on premium services to maintain profitability in a volatile economic environment. Sources: J.P. Morgan | Official Website 6. The Growing Importance of Cybersecurity As the aviation industry becomes more digital, the threat of cyberattacks is growing. In response, airlines and airports are investing heavily in cybersecurity measures to protect critical systems, from avionics to air traffic control. Strengthening digital defenses will be essential to ensuring the safety and reliability of global aviation operations Stay tuned for more insights in the next edition of Flight Path as we continue to explore the innovations and trends driving the future of aviation.
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Welcome to the inaugural edition of Flight Path, TRC America's bi-weekly newsletter, where we bring you the latest trends shaping the future of aviation. In this issue, we dive into key technological advancements, sustainability efforts, and industry insights for 2024.
1. Sustainable Aviation Fuels (SAF): Powering the Future The aviation industry continues its push toward sustainability with Sustainable Aviation Fuels (SAFs). Made from renewable resources like municipal waste, used cooking oil, and agricultural residues, SAFs have the potential to cut lifecycle carbon emissions by up to 80%. Airlines worldwide are increasingly integrating SAF blends into their operations, contributing to a greener future for air travel. (Source: MyFlyRight, GMR Aviation Academy) 2. Advanced Air Mobility (AAM) Takes Off Advanced Air Mobility (AAM) is quickly becoming a game-changer in aviation. This category includes electric vertical takeoff and landing (eVTOL) aircraft designed for urban transport. Companies like Lilium and Joby Aviation are leading the race to deploy these quieter, eco-friendly aircraft. AAM will enable faster, cleaner transport of people and cargo in congested urban environments, reducing traffic and emissions. Regulatory frameworks are developing, ensuring that by 2024, we’ll see significant progress in this sector. (Source: StartUs Insights, Performance Software) 3. AI and Automation: The Future of Flight Operations The integration of Artificial Intelligence (AI) and automation is reshaping every corner of the aviation industry. AI-powered systems are transforming everything from air traffic management to pilot training. Autonomous flights, particularly for cargo and specialized air mobility services, are becoming more prevalent, with AI optimizing flight paths and enhancing safety protocols. For example, airlines are utilizing predictive maintenance systems, powered by AI, to reduce aircraft downtime. (Source: MyFlightRight, StartUs Insights) 4. Hydrogen-Powered Aircraft: A Green Revolution Hydrogen propulsion is emerging as a viable alternative to traditional jet fuels. With hydrogen-powered aircraft, the aviation industry is taking bold steps toward zero-emission air travel. Aerospace companies are investing heavily in hydrogen fuel cell technology, with some expecting to launch their first test flights by the end of 2024. (Source: MyFlyRight, GMR Aviation Academy) 5. Supersonic Travel Returns After decades of dormancy, supersonic travel is poised to make a comeback. Several companies, including Boom Supersonic, are developing supersonic and hypersonic passenger jets capable of reducing transcontinental flight times by over half. These next-generation aircraft will offer unparalleled speed, redefining long-haul travel and improving the efficiency of global travel networks. (Source: MyFlyRight) 6. Cybersecurity: Safeguarding Aviation's Digital Future The increasing digitization of aviation systems makes the industry more vulnerable to cyberattacks. In 2024, we anticipate major advancements in cybersecurity as aviation stakeholders strengthen their defenses against these growing threats. From securing avionics systems to protecting air traffic control networks, cybersecurity is becoming a central focus for the industry. Aviation’s long-term success will depend on safeguarding the digital infrastructure that supports flight operations. (Source: Performance Software, StartUs Insights) 7. Personalized Passenger Experience: The Power of AI Airlines are embracing personalized passenger experiences by leveraging data analytics and AI. Passengers can now expect tailor-made services, from customized in-flight entertainment to personalized meal options. As technology advances, airlines aim to create a more seamless, enjoyable, and responsive travel experience, building loyalty and increasing customer satisfaction. (Source: StartUs Insights) Spotlight on FAA Certification In this issue, we highlight ongoing updates to FAA certification processes. As new technologies like electric and autonomous aircraft enter the market, the FAA is adapting its certification requirements to ensure safety and operational efficiency. These changes will affect flight schools, training centers, and commercial operations, setting the stage for a future where aviation is more technologically advanced and environmentally responsible (Source: GMR Aviation Academy) Sources:
We hope you enjoyed this first edition of Flight Path. Stay tuned for more updates and insights as we explore the latest in aviation technology, innovation, and sustainability. Subscribe now to ensure you don't miss any future editions! Welcome to the test edition of Flight Path, TRC America's upcoming monthly newsletter, where we bring you the latest trends shaping the future of aviation. For August 2024, we are running releasing "test" or "unofficial" article as a trial run for our upcoming publication. In this issue, we will discuss the concept of negative training and how it could be impacting your flight training experience. Negative training in aviation refers to the acquisition of knowledge or behaviors during training that are inaccurate or should not be performed in real flight situations. This issue can lead to the development of incorrect practices that may result in serious accidents or even loss of life. It is a critical concern within the aviation industry, and addressing it is vital for ensuring the safety and effectiveness of pilot training.
At TRC, we recognize the significance of avoiding negative training in our flight simulation systems. These advanced systems are designed to closely replicate real aircraft environments and offer a safe space for training without the risk of negative training outcomes. Here, we delve into the causes of negative training and how our flight simulation technology helps mitigate these issues. Causes of Negative Training Negative training can arise from several factors, and it's essential to identify and address these issues to prevent its occurrence:
Why Not Train Only with Real Aircraft? Training exclusively with real aircraft is not always feasible due to several practical challenges, including high operating costs, limited aircraft availability, and the need to train in adverse conditions that are risky in real-world scenarios. TRC America's flight simulation systems bridge the gap between real aircraft training and the need for safe, cost-effective, and versatile training options. In summary, TRC America's flight simulation systems are designed to eliminate negative training by offering high-fidelity, immersive, and technologically advanced training solutions. These systems provide a safe and effective environment for pilot training, ensuring that trainees develop the right skills and behaviors while avoiding the pitfalls of negative training. Written by Adrienne Wiesner / Volarent Aerospace Does your flight school provide what the aviation industry needs? With the demand for air travel continuing to increase with modern reliable technology, so does the need for pilots. The number of pilots has been decreasing over the years and the vast majority are soon approaching retirement age. It has become more crucial than ever to attract individuals to the industry and swiftly move them through the program to get them to the regional level. For these reasons flight simulation is playing even more of a vital role in flight schools. Students and experienced pilots are able to learn how to operate new equipment in a shorter amount of time, at a smaller cost and without compromising their decision-making skills in the air. Here are the top 10 reasons why every flight school should include a simulator in its training syllabus.
Flexibility Flight simulation gives you the ability to complete training regardless of weather conditions and aircraft availability. Enhanced training Simulators offer customized options for primary students and more advanced licensed students. Modern software provides realism that smoothly transitions the student into the aircraft. Repetition builds muscle memory Training procedures can be repeated several times in one training session without any ill consequences. Students are given the ability to practice until they are confident. Emergency procedures Students can practice several emergency procedures from failed equipment to extreme weather conditions in a low-stress environment. Safety Students can be exposed to unique and difficult situations with no risk. Mistakes can be made without paying the ultimate cost. Control of the flight environment Students are given the opportunity to fly anywhere in the world from over water to mountainous terrain under all types of weather conditions including rain, snow, ice and wind. Maintain proficiency Advanced flight students are able to maintain their IFR currency, navigation skills, and emergency and normal operating procedures. Efficiency More experience and knowledge learned in a smaller amount of time. Flight simulators give you the ability to stop and start a scenario instantaneously. Operating cost is kept to a minimum Simulators don’t come with the same costs as airplanes do, i.e. fuel, maintenance, and insurance. Affordable Flight training fees add up quickly when it comes to aircraft maintenance, fuel, insurance and instruction. Several simulated training hours can now be credited towards the required total time required by the FAA, which will reduce the overall cost. These are just some of the reasons why simulation plays a vital role in a flight training program. It may be time to take a good look at what your flight school has to offer. [ FAA Article ] Real Learning through Flight Simulation ( The ABCs of ATDs ) by Marcel Bernard7/24/2019 The dawn of flight training awakened more than pilots, instructors, and airplanes. It also brought to light a need for ground trainers that would enable the safe and effective practice of particular procedures. Industry has responded, and aviation ground trainers have evolved significantly over the years, along with their aerial counterparts. The regulatory structure for aviation ground trainers has evolved as well. At present, the FAA assigns these devices into three main categories: flight simulators, flight training devices, and aviation training devices. From airline training and corporate flying to the private pilot in general aviation aircraft, almost every pilot will eventually use at least one of these devices to practice and improve pilot skills or to help transition to another aircraft. As most pilots will attest, flight simulation of any variety is often the quickest route for learning to fly. Today’s Training Devices Full Flight Simulators (FFS)*: The more capable (and most expensive) aviation training devices fall in to this category. FFSs must include motion and visual capability, and it is possible to earn a type rating (e.g., MD-80, B-737-800, BE-500) in the more sophisticated simulators without flying the actual aircraft. All levels of FFSs are objectively evaluated against airplane specific validation data (typically aircraft flight test data) to ensure that the FFS’s aerodynamics, flight controls characteristics, and ground handling characteristics represent a specific make, model, and series of aircraft. A type rating is required for operating aircraft that are turbo jet powered or over 12,500 pounds. maximum certified takeoff weight. Many FAA-approved Part 142 schools use simulators to train professional pilots for type ratings and to deliver the recurrency training required by regulation and insurance companies. Flight training Devices (FTD)*: These devices are designed to represent a specific aircraft configuration and, depending upon the FTD’s qualification level, may include an enclosed cockpit and realistic visual references. They are not always motion capable, but are sophisticated enough to provide training in preparation for commercial and airline transport pilot certificates, as well as other ratings. FTDs are extremely popular with aviation-oriented universities and colleges. The airline industry also uses these devices extensively to train new hires or provide for upgrades (First Officer to Captain) and transition training (e.g., B-737 to B-747 aircraft), or for recurrency training. *Note: Full Flight Simulators and FTDs (collectively called Flight Simulation Training Devices – FSTDs) come under the guidance, evaluation and approval of the FAA National Simulator Program in Atlanta and are regulated under 14 CFR part 60. Aviation Training Devices (ATD)*: ATDs are by far the most common option for general aviation flight training, and GA has benefited greatly from the development of these very capable devices. Many Part 141 and Part 61 flight schools use these devices to train students in preparation for private, multi-engine, instrument, and commercial certificates. The FAA’s General Aviation and Commercial Division (AFS-800) manages the evaluation and approval of ATDs, which are categorized into basic and advanced training devices. To do so, AFS-800 uses the requirements for performance and capability specified in Advisory Circular (AC) 61-136, which was published in July 2008. This document describes how the FAA approves ATDs, along with providing a summary of how pilots may use these devices. Let’s take a look. Basic Aircraft Training Device (BATD)*: A BATD generally has hardware and software features that allow the FAA to authorize it for certain training and proficiency credits. These credits include: • Instrument rating - maximum of 10 hours under 14 CFR section 61.65(i) or 14 CFR part 141, appendix C • Instrument Proficiency Check - per FAA-S8081-4E (circle-to-land not authorized) • Use in accomplishing instrument recency of experience requirements of 14 CFR section 61.57(c)(2) • Not more than 2.5 hours of training under 14 CFR section 61.109(k)(1) on introduction to operation of flight instruments (except as limited by 14 CFR part 141 appendices) Advanced Aircraft Training Device (AATD)*: An AATD must meet BATD-approval criteria, but it must also incorporate additional features and systems fidelity that provide ergonomics representative of a category and class of aircraft flight deck. The AATD does not need to replicate a specific aircraft make and model, although many devices do. These features allow the FAA to authorize an AATD for the following training and proficiency credits. • Private pilot certificate - maximum of 2.5 hours • Instrument rating - maximum of 20 hours • Instrument Proficiency Check - per FAA-S8081-4E (circle-to-land not authorized) • Commercial pilot certificate - maximum of 50 hours • Airline Transport Pilot certificate - maximum of 25 hours • 14 CFR part 141 as limited by the applicable appendices, or under a special curriculum approved under 14 CFR section 141.57 A quick way to remember the difference between basic and advanced is that the advanced version must be more representative of the aircraft cockpit design. It must also include a GPS and autopilot configuration. Real Training, Real Learning If you are looking for a flight school, it might be worth your while to consider a flight school that has an FAA-approved aviation training device. Such a school will have an FAA letter of authorization (LOA) that accompanies the device. The FAA only allows credit for 2.5 hours towards the certification minimum required for private pilot certification, but there is no prohibition on additional use of these devices in training. On the contrary! According to recent FAA records, the national average to complete the private pilot certificate is approximately 75 hours of flight time. Some flight schools use FTDs and ATDs to practice the maneuvers and procedures in advance of the flight training portion of their curriculum. Doing so allows students to graduate sooner with less total flight time needed to complete their training. Here’s the bottom line: Even if you can’t log every hour spent in an ATD to count toward your certificate or rating, training in an ATD can maximize your training time and minimize the money you spend by enabling you to learn basic procedures in the ATD, and then master them in the actual aircraft. Another advantage is the ability to train when the weather is not cooperating or if an aircraft is not available. This advantage prevents undesirable breaks that can hamper your ability to practice and retain certain skills. Teaching is also much more productive in an ATD, where distractions such as noise and turbulence can be kept to a minimum. The ability to hit the pause button and then explain or review a certain training skill on the spot is another huge advantage. Last but not least, ATDs permit practice of emergencies and other demanding skills with a level of safety that might not be possible in actual aircraft. Using aviation training devices will save time, money, and the environment, and allow everyone to fly more safely. Marcel Bernard is an FAA Aviation Safety Inspector and the Aviation Training Device Manager with the General Aviation and Commercial Division in Washington, D.C. Marcel currently holds an ATP and Flight Instructor certificate with Multi-Engine and Instrument privileges. His experience includes managing an FAA-approved Part 141 flight school along with having conducted more than 20,000 hours of flight instruction. Full Flight Simulator (FFS) − A replica of a specific type or make, model, and series aircraft cockpit. This includes the assemblage of equipment and computer programs necessary to represent aircraft operations in ground and flight conditions, a visual system providing an out-of-the-cockpit view, a system that provides cues at least equivalent to those of a three-degree-of-freedom motion system, and the full range of capabilities of the systems installed in the device as described in 14 CFR part 60 and the Qualification Performance Standards (QPS) for a specific FFS qualification level. Flight Training Device (FTD) − A replica of aircraft instruments, equipment, panels, and controls in an open flight deck area or an enclosed aircraft cockpit. It includes the equipment and computer programs necessary to represent aircraft (or set of aircraft) operations in ground and flight conditions having the full range of capabilities of the systems installed in the device as described in 14 CFR part 60 and the Qualification Performance Standard (QPS) for a specific FTD qualification level. Aviation Training Device (ATD) − A replica of aircraft instruments, equipment, panels, and controls in an open flight deck area or an enclosed aircraft cockpit. It includes the equipment and computer programs necessary to represent aircraft (or set of aircraft) operations in ground and flight conditions having the full range of capabilities of the systems installed in the device as described in AC 61-136 for a specific Basic or Advanced qualification level. The FAA has many flight simulator certification types, and choosing which one is right for you can be a challenge. Spend too much, and you end up with a simulator that you can’t utilize. Spend too little, and you end up with a simulator that doesn’t do what you require. In this article, we will break down the differences by category for you, so that you can choose which simulator certification type meets the requirements of your flight school or training facility. Volarent offers a wide variety of both FTD and ATD simulators, so you’ll find a Volarent simulator for any need you may have. Regardless of when you plan on purchasing a simulator, it is never too early to consider your needs. Simulators are quickly becoming a necessity for flight schools now more than ever.
Let’s start with the FTD, or Flight Training Device. The FTD is broken down into four categories, the Level 4, 5, 6, and 7. The FTD Level 4 is similar to the Cockpit Procedures Trainer (CPT), that is, devices that are used to practice basic cockpit procedures such as processing emergency checklists and general cockpit familiarization. The aerodynamic model is usually more generic in this model. This level does not technically require an aerodynamic model, but accurate systems modeling is required. Next, we have Level 5. This level requires aerodynamic programming and systems modeling, but it may represent a family of aircraft rather than one specific type of aircraft model. In the FTD Level 6, Aircraft-model-specific aerodynamic programming, control feel, and a physical cockpit are required. From this point on, the simulators become highly realistic and the price increases dramatically. The FTD Level 7 is a model specific certification, used for helicopters only. All applicable aerodynamics, flight controls, and systems must be modeled. A vibration system must also be supplied, and a visual system is required at this level. It is important to note that many features you see from FTD 4-7 may be included at any level regardless of the legal requirement. That is to say, a visual system comes standard with every Volarent AATD model, despite the absence of an FAA requirement. The entire line of FTD products is a much higher level of realism and is generally much more expensive. Typically, universities and commercial training centers use the FTD for training. The ATD (Aviation Training Device) category of flight simulators is broken down into the AATD and the BATD. The BATD is the Basic Aviation Training Device and provides an adequate training platform and design for both procedural and operational performance tasks specific to the ground and flight training requirements for Private Pilot Certificate and instrument ratings per Title 14 of the Code of Federal Regulations. Next, the AATD, or Advanced Aviation Training Device, provides an adequate training platform for both procedural and operational performance tasks specific to the ground and flight training requirements for Private Pilot Certificates, instrument ratings, Commercial Pilot Certificates, Airline Transport Pilot (ATP) certificates, and Flight Instructor certificates. Generally speaking, the AATD is the most popular among flight schools and is commonly the go-to option for small to mid-range facilities. While the ATD is considered to be a more basic system then the FTD, it is a better value for flight schools that have fewer students or don’t require more technologically advanced configurations. The other remaining categories are the FFS and EASA. The FFS, or Full Flight Simulators, is the most advanced category for flight simulation. This category is broken up into four categories, Level A, B, C, and D. Typically, these simulators cost millions of dollars and are targeted at airlines and airline training facilities. Level A is a motion system with at least three degrees of freedom. This category is reserved for airplanes only. Level B is a three-axis motion system and a higher-fidelity aerodynamic model than Level A. The lowest level of helicopter flight simulator is Level B. Level C is a motion platform with six degrees of freedom, also a lower transport delay (latency) over levels A or B. The visual system must have an outside-world horizontal field of view at least 75 degrees for each pilot. Finally, Level D is the king of simulators. This is the highest level of FFS qualification available. All the previous requirements for Level C are required, and the motion platform must have all six degrees of freedom, and the visual system must have an outside-world horizontal field of view at least 150 degrees, with a collimated (distant focus) display. Realistic sounds in the cockpit are required, as well as a number of special motion and visual effects. This simulator category is used for professional airlines to train in jet aircraft generally. The other category we mentioned, EASA, is the European Aviation Safety Agency. This agency is the governing body in the European Union for flight simulation certification. The EASA works slightly differently, with FNPT, FTD, and FFS levels, but not ATD. Most Volarent Simulators are dually qualified for an EASA certification as well. Generally, FFS simulators are uncommon for general aviation aircraft. These simulators are chiefly aimed towards large universities, airlines, and airline training facilities. The AATD is generally best for the majority of flight schools. The FTD classification is recommended to universities, commercial training centers, or smaller airlines. The FTD is generally more cost effective for commercial training centers then the FFS for training. The FAA has also recently announced new regulatory changes that allows any instrument rated pilot to be able to use a flight simulator to maintain instrument currency among many other changes. These regulatory advantages are available to anyone with an AATD-equipped simulator or above, which would include the FTD category. Ultimately, the ATD is below the FTD, but it is advantageous to anyone on a budget looking for an effective and trusted training solution. Keep in mind, that specific flight school types (Part 135, 141, 61, and 121 flight schools) are able to do different things with their simulators regardless of the certification type. It is advised to speak with your flight school’s FAA primary inspector before purchasing a simulator. So, you are now hopefully more familiar with the various FAA forms of flight simulator certification. Volarent offers both FTD and ATD solutions, regardless of what you decide works best for you. Contact your local Volarent Sales Representative, and they’ll know exactly what certification types go with each aircraft. Volarent Simulators are accurate, enclosed systems, and cost-effective training solutions. No matter what you choose, we know you’ll be satisfied with the product and customer support. Volarent is focused on providing the highest quality solution at any price. Recently, the FAA announced new regulation changes that will accomplish many exciting things for pilots and flight simulator owners. These changes will save over $110 million over the next five years, and bring many advantages from the current system. FAA Changes
All these changes help to reduce the cost of flight training and simplify many aspects of training for pilots. Also, the regulatory updates make owning a flight simulator more important than ever, as flight schools will now receive even more benefit and cost savings from their devices. The extensive changes to "Part 61" will be implemented between July 27 and December 24, 2018, and will begin to leverage advances in avionics, aircraft equipment, flight simulators, and flight training equipment. In addition to the tremendous short-term value of these changes, the FAA has also made it clear that they will adapt and accept modern technology for flight training as it improves. The most significant change, allowing pilots to use aviation training devices for currency, is valued at over a $76 million cost saving. This particular regulatory change takes effect on November 26, and any combination of ATD will be eligible to accomplish the flight experience required for receiving currency. In addition to all these changes, sport pilot instructors will be permitted to gain necessary flight hours in an ATD flight simulator to obtain endorsement required to teach instrument skills. Sources; AOPA, FAA, eCFR
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AboutFlight Path is TRC America's newsletter, providing timely updates on the latest trends, innovations, and industry insights shaping the future of aviation. It keeps professionals and enthusiasts alike informed on key developments, from technological advancements to regulatory changes and market shifts. Archives
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