DALLAS — Flight simulators allow pilots to practice and improve their skills in a safe and controlled environment before flying a real aircraft.

These apparatuses can simulate a wide range of scenarios, from basic flying maneuvers to complex emergency situations, and can be used for training purposes, research, and testing purposes.

Further, they are designed to simulate various aspects of real-world flying, including aircraft handling, navigation, communication, and emergency procedures. They typically include a cockpit replica, realistic controls, visual displays, and a sound system to create a lifelike experience.

Between 25 and 50 hours of training in a full flight simulator representing the class of airplane for the rating sought may be credited toward the flight time requirement if the training was accomplished as part of an approved training course.

We'll start by looking at the types of simulators used in aviation.

Types of Simulators

Aircraft simulators are typically divided into two broad types: closed-circuit simulators and open-circuit simulators. A closed-circuit simulator allows the user to fly the aircraft within a predefined physical environment, while an open-circuit simulator allows the user to fly in an open environment. These two types of simulators are typically used for different purposes. A closed-circuit simulator is used for pilot training, while an open-circuit simulator is used for aircraft design and manufacturing.

Alongside, there are different types of aviation simulators, including full-motion simulators, fixed-base simulators, and desktop simulators. Full-motion simulators provide a real physical experience of flying, with a hydraulic platform that moves in response to control inputs. 

Fixed-base simulators provide a more limited physical experience, with a stationary cockpit and fewer physical feedback elements. Desktop simulators are computer-based simulations that can be run on a computer or tablet.

Simulators have become increasingly realistic over the years, with advances in technology allowing for more immersive experiences. Virtual reality technology, for example, has made it possible for users to interact with a simulated environment using specialized equipment physically.

Multiple types of simulators are used for training aviation professionals. Some of them can be listed as follows.

1. Full Flight Simulators (FFS): These are the most advanced and sophisticated type of aviation simulator available. They are designed to provide a realistic simulation of the entire flight experience from takeoff to landing, including all emergency procedures. They are primarily used for pilot training and certification.

Full Flight Simulators provide a complete replica of an aircraft cockpit and can simulate actual flight conditions, including turbulence and weather changes. They require a big space to function. They are equipped with a fully functional cockpit, a hydraulic motion system, and advanced visual displays to provide an immersive experience.

2. Flight Training Devices (FTD): These are simplified versions of FFS that are used for initial pilot training. They are cheaper and require less space than FFS, but they cannot simulate all flight conditions. These are simulators that replicate the cockpit of an aircraft and are used for training and certification purposes.

They are less advanced than FFS simulators and are primarily used for basic flight training, instrument training, and procedural training. They are equipped with basic flight instruments, cockpit controls, and visual displays. It doesn’t have a hydraulic platform but still, it is designed to look and feel like a real aircraft.

3. Cockpit Procedures Trainers (CPT): CPTs are simulators that focus on training pilots in specific procedures such as engine startup, takeoff, landing, and emergency situations. They focus on the operation and use of specific aircraft systems and equipment. They are used to provide training on specific cockpit procedures and equipment operations.

4. Part-Task Trainers (PPT): These are computer-based training systems that focus on specific tasks, such as navigation, radio communication, instrument reading, emergency procedures, or specific flight maneuvers. They are used to provide targeted training and practice for pilots and other aviation professionals.

5. Computer-Based Training (CBT): CBTs are simulators that have interactive computer software to provide training to pilots and other aviation professionals. They are designed to teach theoretical concepts, procedures, and principles of flight. They are used for ground-based training and can be accessed remotely.

 6. Virtual Reality Simulators (VR): These are the simulators that use computer-generated images and environments to provide a realistic simulation of flight. They are designed to provide an immersive experience and are primarily used for pilot training and certification.

7. Maintenance Training Devices (MTD): MTDs are the simulators that focus on the maintenance and repair of aircraft systems and equipment. They are used to provide training to maintenance personnel on specific aircraft systems and equipment.

8. Air Traffic Control Simulators (ATC): These are the types of simulators that provide training to air traffic controllers. They are designed to replicate the air traffic control environment and provide training on specific procedures and protocols.

9. Mission Training Devices (MTD): These are the simulators that are used to train military pilots and aircrew in specific mission scenarios, such as aerial combat or search or rescue operations. They are designed to provide a realistic simulation of mission scenarios and are equipped with advanced visual displays and other features.

Overall, aviation simulators are designed to provide a safe and controlled environment for pilots and aviation professionals to practice their skills and improve their abilities, without the risk of real-world accidents or injuries.

Other Uses of Aviation Simulators

Flight Simulators are also used in the design and development of new aircraft. Simulators can be used to test the performance of new aircraft designs under various conditions such as different altitudes and temperature ranges. Aviation manufacturers use simulators to test new aircraft models and systems before actual flight testing with a physical prototype.

[wlm_private "Airways Premium"]

One key use of flight simulators is for the research and development of new aviation technologies. These SIMs can be used to test new aircraft systems and technologies as well as to develop new training methods and procedures.

Engineers and scientists can use simulators to study and analyze the effects of various parameters, such as weather conditions, turbulence, and altitude on aircraft performance. This helps manufacturers to fine-tune aircraft designs and systems leading to more advanced and sophisticated aircraft.

Costs of Aviation Simulators

The cost of a flight simulator can vary greatly depending on the scenarios, type, model, and features it offers. A basic flight simulator may cost tens of thousands of dollars, while a full-motion simulator may cost more than US$20m. A table-mounted flight simulator joystick can cost as little as US$60, while a high-tech home flight simulator package with a fully enclosed cockpit could cost thousands of dollars. Professional airline training simulators can cost even more depending on the complexity of the system.

A basic simulator may include a cockpit with basic controls and instruments, while a more advanced simulator may include a full-motion platform, realistic visuals, and various other features. In addition to the cost of the simulator itself, there are also additional costs associated with its operation and maintenance. Some simulators may require additional training for the operators, which can add to the overall cost.

There are different factors that can influence the cost of flight simulators.

1. Type of simulators: A basic fixed-wing simulator can cost around US$50,000 to US$500,000 while a more advanced full-motion simulator with a complete cockpit replica and accurate flight dynamics can cost over US$20m.

2. Level of realism: The higher the fidelity of simulator replication, the more sophisticated and costly it becomes. High-fidelity simulators offer a complete replication of a real aircraft, including cockpit instrumentation, and audio and visual components which can enhance the training experience for pilots and controllers.

3. Maintenance cost: The cost of maintenance and upgrades depends on the frequency of use, the complexity of the simulation software, and the number of user-customized systems or features in the simulator.

4. Manufacturer and country of origin: Some manufacturers may charge a premium for their simulators based on their reputation, while simulators produced in certain countries may have lower costs due to lower labor and manufacturing costs.

Mode of Operation

For basic flight simulators, the mode of operation is relatively simple. The user will typically be presented with a virtual cockpit, which they can interact with using a joystick, keyboard, or other input devices. The user can then control the aircraft’s movements and interact with the environment by doing things such as flying through clouds or avoiding obstacles.

More advanced simulators, such as those used for emergency training, may have more complex modes of operation. These simulators may include a variety of features such as realistic weather conditions, simulated engine failures, and other emergency scenarios. Aviation simulators typically recreate the cockpit environment, physical system, and flying conditions of a particular aircraft. 

All flight simulators that replicate the real-world experience of flying an aircraft and allow professionals to practice their flying skills under simulated conditions have six basic components: the visual system, motion, aerodynamic model, aircraft model, flight instructor station, and debrief station.

The visual system is an advanced computer system that generates a visual display for the pilot to use. The motion platform gives realistic motion by accurately replicating forces such as turbulence lift and thrust.

The aerodynamic model is used to replicate the flight characteristics of the aircraft, such as stalling and banking whereas the aircraft model is used to simulate the aircraft’s performance accurately.

The flight instructor station allows the instructor to observe, control and monitor the flight simulator session and the debrief station is used to replay sessions and analyze performance data.

Other Aspects of Aviation Simulators to Consider

1. Visualization and Sound: The simulator consists of a cockpit replica that includes instrumentation and displays that mimic the real aircraft. The cockpit features sound and visual systems that provide pilots and controllers with a realistic experience of flying.

2. Control System: The simulator is controlled by a computer that runs the simulation software. The software includes scenarios and flight models that mimic the operation and control of real aircraft.

3. Input/output devices: Pilots and controllers use a variety of input and output devices to interact with the simulated environment. These devices may include yokes, pedals, throttles, buttons, and touch screens.

4. Training Scenarios: Operators can configure the simulator to replicate specific scenarios such as weather, airspace, and airport conditions. The simulator can also simulate technical malfunctions in the aircraft systems, which pilots and controllers must navigate effectively.

5. Data Collection: Simulators integrate data collection systems that collect and store training data. Pilots and controllers can use the data to analyze their performance and improve their skills.

6. Motion Systems: High-end simulators include motion systems that provide tactile and visual feedback to pilots and controllers. The motion system imitates the vibrations and movements of a real aircraft to simulate the sensation of flight.

Aviation simulators work by replicating real-life flight scenarios and enabling pilots and controllers to interact with the simulation environment to explore their interests and passions in a safe and controlled environment, often providing insights and skills that can be applied in real-life situations.

[/wlm_private]

Featured image: Porter Airlines